D1.5 - Professionalisation and Internationalisation of Physical Infrastructure and Services
Abstract
The European agrifood sector faces critical challenges, including climate change, resource efficiency, and the demand for sustainable food production. AgrifoodTEF, a pioneering project within the Digital Europe Programme, seeks to address these challenges by professionalising and internationalising its network of physical testing and experimentation facilities. This Year 2 report details the systematic efforts to harmonise infrastructure descriptions and service offerings among TEF partners. Key achievements include developing standardised templates for cataloguing facilities, equipment, and services, fostering consistency and collaboration across the consortium.
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PROFESSIONALIZATION AND INTERNATIONALIZATION OF PHYSICAL INFRASTRUCTURE AND SERVICES DECEMBER 2024 Ref. Ares(2024)9286168 - 31/12/2024
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 2 December 20th, 2024 Project cofunded by the European Commission within the Digital Europe Programme Dissemination Level PU Public X CO Confidential, only for members of the consortium (including the Commission Services) □ CL Classified, as referred to in Commission decision 2001/844/EC □ This document supports Deliverable Number 1.5 Deliverable Name Professionalization and Internationalization of Physical Infrastructure and Services Work Package WP1 Lead WP INRIA (WP1) Lead Task Philippe Martinet Contributors INRAE, PSNC, JR Document Revision History Date Issue Author/Editor/Contributor Summary of main change 04/11/2024 V1.0 Pardeep Kumar Draft on physical infrastructure 04/11/2024 V1.0 Philippe Martinet Feedback from internal review on physical infrastructure 19/11/2024 V1.1 Pardeep Kumar Revised draft after internal review 19/11/2024 V1.1 Pardeep Kumar Submission to WP4 for external review 04/12/2024 V1.2 Pardeep Kumar Draft on physical services 06/12/2024 V1.1 Marie Wenzlaff (WP4) Feedback from external reviewer on physical infrastructure 09/12/2024 V1.2 Philippe Martinet Feedback from internal review of draft on physical services 13/12/2024 V1.3 Pardeep Kumar Revision as per feedback from WP4 13/12/2024 V1.3 Adriana-Del-Pilar SanchezVargas (INRAE, FR) Contributed section 1.3 on Joint Positioning of AgrifoodTEF network and EDIHs 13/12/2024 V1.3 Pardeep Kumar Revision as per feedback from Philippe 16/12/2024 Radoslaw Taraciński (PSNC, PL) Contributed section 1.2 on Bibliography of Infrastructures 16/12/2024 V1.3 Pardeep Kumar Submission to WP4 for external reviewer 19/12/2024 V1.3 Peter/Marie (WP4) Feedback from external reviewers on whole document 20/12/2024 V1.4 Pardeep Kumar Final Revisions 20/12/2024 V1.4 Pardeep Kumar Submission to project coordinator for EU Commission
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 3 December 20th, 2024 Contents Document Revision History ............................................................................................................................................... 2 Abstract ............................................................................................................................................................................. 6 Executive Summary ........................................................................................................................................................... 7 Chapter 1: General Introduction to Professionalization and Internationalization ............................................................. 8 1.1 Introduction....................................................................................................................................................... 9 1.2 Harmonization of Physical Infrastructure and Physical Services Description .......................................................... 9 1.3 Bibliography of Existing Physical Infrastructure/Services ...................................................................................... 10 1.3.1 Components in Agriculture Context ............................................................................................................... 10 A. Physical Infrastructure ................................................................................................................................. 11 B. Physical Services .......................................................................................................................................... 11 1.3.2 Purpose in Agricultural Projects ..................................................................................................................... 12 A. Example in Practice ..................................................................................................................................... 12 B. Benefits........................................................................................................................................................ 13 1.3.5 Assumptions for analysis ................................................................................................................................ 13 1.4 Joint positioning of AgrifoodTEF Network and EDIHs ............................................................................................ 13 1.4.1 Introduction and Context ............................................................................................................................... 13 1.4.2 Overview of EDIHs and AgrifoodTEF ............................................................................................................... 22 1.4.3 Joint Positioning of the AgrifoodTEF Network with EDIHs .............................................................................. 23 A. Synergies ..................................................................................................................................................... 23 B. Complementarity ......................................................................................................................................... 23 C. Singularities ................................................................................................................................................. 24 1.4.4 Future Perspectives ........................................................................................................................................ 25 Chapter 2: Professionalization and Internationalization of Physical Infrastructure......................................................... 26 2.1 Introduction ........................................................................................................................................................... 27 2.2 Definitions ............................................................................................................................................................. 27 2.2.1 Physical Infrastructure .................................................................................................................................... 27 2.2.2 Physical Facility ............................................................................................................................................... 27 A. Fixed Facility ................................................................................................................................................ 27 B. Reconfigurable Facility ................................................................................................................................ 27 C. Movable Facility ........................................................................................................................................... 28 D. Land Facility ................................................................................................................................................. 28 2.2.3 Equipment ...................................................................................................................................................... 28 2.3 Methodology of Professionalization in Physical Infrastructure ............................................................................. 28
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 4 December 20th, 2024 2.3.1 Structure of Physical Infrastructure Description for Harmonization .............................................................. 29 2.3.2 Harmonization Process of Physical Infrastructure Description ....................................................................... 31 A. Guidelines to describe Physical Infrastructure ............................................................................................ 31 B. Templates to describe Physical Infrastructure, Facilities, and Equipment .................................................. 31 a) Template to describe the physical infrastructure .................................................................................... 32 b) Template to describe the facilities .......................................................................................................... 32 c) Template to describe the equipment ...................................................................................................... 34 C. Framework and Guidelines for review process ........................................................................................... 36 a) Framework for review process ................................................................................................................ 36 b) Guidelines for review process ................................................................................................................. 36 Outcomes .................................................................................................................................................................... 39 Chapter 3: Professionalization and Internationalization of Physical Services .................................................................. 40 3.1 Introduction ........................................................................................................................................................... 41 3.2 Definition ............................................................................................................................................................... 41 3.3 Methodology for Professionalization .................................................................................................................... 41 3.3.1 Roadmap for professionalization after defining the clusters .......................................................................... 44 Annex A: Minutes of Meeting from 3rd F2F meeting at Osnabruck ................................................................................ 46 Annex B: Collection of delivered and requested services till July 2024 to define the clusters ........................................ 49 Annex C: Catalogue of Physical Infrastructures within AgrifoodTEF ................................................................................ 56 Acknowledgement to co-funding agencies and partners .............................................................................................. 494
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 5 December 20th, 2024
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 6 December 20th, 2024 Abstract The Agrifood Testing and Experimentation Facilities (AgrifoodTEF) initiative under the Digital Europe Programme aims to revolutionize the agrifood sector by fostering professionalization and internationalization of physical infrastructure and services. This document provides an in-depth report on the strides made in Year 2 towards these objectives. It outlines the methodologies employed for harmonizing physical infrastructure descriptions, creating standardized templates for facilities and equipment, and aligning services across partners. By establishing a unified framework, AgrifoodTEF enhances the transparency, reliability, and scalability of its offerings, enabling small and medium enterprises (SMEs) and start-ups to leverage cutting-edge robotics and AI solutions. The initiative's international reach and cross-border collaborations ensure localized and globally competitive solutions, strengthening the agrifood ecosystem's resilience and sustainability. This report also highlights the synergies and complementarities between AgrifoodTEF and European Digital Innovation Hubs (EDIHs), setting the stage for integrated advancements in agricultural technology.
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 7 December 20th, 2024 Executive Summary The European agrifood sector faces critical challenges, including climate change, resource efficiency, and the demand for sustainable food production. AgrifoodTEF, a pioneering project within the Digital Europe Programme, seeks to address these challenges by professionalizing and internationalizing its network of physical testing and experimentation facilities. This Year 2 report details the systematic efforts to harmonize infrastructure descriptions and service offerings among TEF partners. Key achievements include developing standardized templates for cataloguing facilities, equipment, and services, fostering consistency and collaboration across the consortium. The professionalization initiative ensures a clear, unified approach, enabling partner, SMEs and start-ups to access highquality, reliable, and scalable services for testing and validating AI and robotics solutions. The internationalization component promotes a pan-European network, encouraging cross-border partnerships, regional innovations, and market-specific solutions. Furthermore, the joint positioning of AgrifoodTEF with EDIHs exemplifies the initiative's strategic integration within Europe’s digital transformation ecosystem. By leveraging their complementary strengths, AgrifoodTEF and EDIHs amplify their impact, supporting the digitalization of agrifood operations and fostering sustainable growth. This collaborative framework not only enhances the agrifood sector's capacity for innovation but also aligns with broader European goals of digital sovereignty and environmental stewardship.
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 8 December 20th, 2024 Chapter 1: General Introduction to Professionalization and Internationalization
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 9 December 20th, 2024 1.1 Introduction The European Union is at the forefront of a transformative digital evolution in the agrifood sector, driven by the pressing need to address challenges such as climate change, resource efficiency, and sustainable food production. To catalyse this transition, the EU has launched the Agrifood Testing and Experimentation Facilities (AgrifoodTEF) under the Digital Europe Programme. This flagship initiative accelerates the adoption of advanced technologies, particularly robotics and artificial intelligence (AI), across agriculture and the food industry. By offering targeted support to small and medium enterprises (SMEs) and start-ups, AgrifoodTEF fosters innovation and enhances the sector’s capacity for sustainable growth. A cornerstone of AgrifoodTEF’s mission is professionalization among its Testing and Experimentation Facility (TEF) partners. This involves the development and standardization of skills, processes, and infrastructure to ensure the delivery of high-quality, reliable, and scalable services. Through the alignment of operational practices, capacity building, and efficient resource management, TEF partners are empowered to provide tailored support to SMEs and start-ups, enabling them to refine and deploy cutting-edge robotics and AI solutions. In parallel, the initiative emphasizes the internationalization of TEF’s infrastructure and services. By creating a paneuropean interconnected network of testing facilities, AgrifoodTEF facilitates cross-border collaboration, access to diverse market insights, and the adoption of region-specific innovations. This international reach ensures that TEF partners are able to deliver solutions that are both locally relevant and competitive on a global scale addressing the needs of a dynamic and interconnected agrifood sector. Moreover, internationalization enhances the long-term sustainability of the AgrifoodTEF project by fostering partnerships, knowledge exchange, and the co-creation of innovative technologies at a global scale. Through its dual focus on professionalization and internationalization, AgrifoodTEF establishes a robust ecosystem that not only supports SMEs and start-ups but also ensures the resilience and sustainability of the agrifood sector. By leveraging state-of-the-art infrastructure, collaborative opportunities, and a shared commitment to excellence, the initiative paves the way for a digitally empowered and environmentally sustainable future. 1.2 Harmonization of Physical Infrastructure and Physical Services Description Harmonization of physical infrastructure and physical services description involves creating standardized frameworks and terminologies to provide a unified understanding of infrastructure assets and their associated services. This process is vital for fostering consistency, ensuring seamless communication, and enabling effective collaboration among diverse stakeholders. In today’s interconnected world, where projects often involve multiple organizations, technologies, and geographic regions, harmonization serves as a cornerstone for achieving operational efficiency, interoperability, and innovation. For TEF partners and customers, harmonization is a transformative approach that enhances transparency, reliability, and value delivery. The importance of harmonization lies in its ability to eliminate ambiguity and establish a common language for describing physical infrastructure and services. Whether it involves facilities like agricultural fields, laboratories, testbeds, or equipment like ground robots, aerial robots, sensor networks, harmonized descriptions ensure that stakeholders can interpret and utilize data effectively, without differences or misinterpretation. This consistency enables TEF partners to work cohesively, aligning their efforts toward shared objectives, while customers benefit from clearer communication and better-informed decision-making. Harmonization also supports compliance with local and international standards, ensuring that infrastructure and services are aligned with regulatory requirements and global best practices.
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 16 December 20th, 2024 sustainability, and innovation in farming systems. 5 BBTWINS Explores the use of digital twin technologies in agriculture, enhancing decision-making through real-time simulation and data analysis for better efficiency and productivity. No https://bbtwins.eu/ 6 BEATLES Develops solutions for boosting ecosystem services in agriculture, emphasizing biodiversity, sustainable land use, and ecological farming practices. No https://beatles-project.eu/ 7 Climate Choice _ No https://www.climatechoice.eu/ 8 COMMECT Builds a robust communication framework to connect farmers, researchers, and policymakers, fostering knowledge exchange and innovation in the agricultural sector. Potential https://www.horizoneurope-commect.eu/ COMMECT has set up five Living Labsacross and outside Europe: digitalisation of viticulture in Luxembourg, connected forestry in Norway, connected livestock transport in Denmark, smart olive tree farming in Türkiye, and sustainable agriculture and preservation of natural environment in Serbia. 9 COMUNIDAD Supports community-driven agricultural initiatives, promoting local empowerment, resource sharing, and collaborative farming practices. No https://comunidad-project.eu/
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 17 December 20th, 2024 10 DIRECT Facilitates direct engagement between farmers and markets, improving supply chain transparency, fair pricing, and access to resources. No https://data4food2030.eu/project/direct/ 11 EFRA Focuses on enhancing food resilience and adaptation through innovations that ensure sustainable food production under changing environmental conditions. No https://efraproject.eu/ 12 EU4Advice Provides tailored advisory services to European farmers, equipping them with tools, knowledge, and resources to improve efficiency and sustainability. No https://www.eu4advice.eu/ 13 Farmtopia Develops models for futuristic farming communities, integrating smart agriculture, sustainability, and socio-economic development. No https://farmtopia.eu/ 14 FoodDataQuest Explores data-driven approaches to optimize food production, reduce waste, and enhance decision-making in the agricultural supply chain. No https://fooddataquest.eu/ 15 FoodSafety4Africa Aims to improve food safety standards and practices across Africa, ensuring better health, No https://foodsafety4africa.eu/
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 18 December 20th, 2024 trade opportunities, and sustainable food systems. 16 Food-scalEUp Supports scaling up sustainable food systems and agricultural innovations to meet increasing global food demands while minimizing environmental impact. No https://food-scaleup.com/fr/ 17 FUTURAL Drives future-ready agricultural solutions, focusing on advanced technologies, resilience, and sustainability to address global challenges. No https://futural-project.eu/ 18 Gender Alliance Promotes gender equality in agriculture by empowering women, improving access to resources, and ensuring inclusivity in farming practices. No https://www.genderalliance.eu/ 19 GRASS CEILING Targets removing systemic barriers in agriculture, advocating for equal opportunities and representation for underrepresented groups. Potential https://grassceiling.eu/ Living labs are at the heart of the GRASS CEILING project. 9 multi-actor living labs will support women-led interactive innovation initiatives in the socioecological transition space 20 HIGHFIVE Encourages high-impact farming innovations for enhanced value chains, productivity, and environmental sustainability. Potential https://highfive.ss4af.com/ The project website presents various innovative implementations that were created as a result of Open Calls. 21 INCiTiS-FOOD Focuses on urban agriculture and innovative food systems to No https://incitis-food.eu/
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 19 December 20th, 2024 enhance food security and resilience in cities. 22 modernAKIS Develops modern Agricultural Knowledge and Innovation Systems (AKIS) to connect farmers with new technologies, tools, and practices. No https://modernakis.eu/ 23 OpenAgri Promotes open-access resources and collaborative platforms for advancing sustainable and innovative agriculture. Yes https://horizon-openagri.eu/ The project is conducting 5 sustainable innovation pilots from various fields of agriculture. Opensoftware and openhardware solutions are being created. 24 QuantiFarm Leverages data quantification and analysis tools to support smart farming practices and improve agricultural decision-making. No https://quantifarm.eu/ 25 RobAgri RobAgri is an AgriTech project revolutionizing farming with robotics and automation. Yes https://www.robagri.fr/en/about-us/ RobAgri is a national French association representing Agricultural Robotics. Their goal is to develop agricultural robotics and address the agriculture sector’s challenges. One of goals (8 missions) is to offer demonstrators and open bases. 26 Robs4Crops Integrates robotics into farming to reduce labor demand, improve precision agriculture, and enhance efficiency. No https://www.robs4crops.eu/ 27 RURBANIVE Combines rural and urban perspectives to create innovative No https://rurbanive-project.eu/
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 20 December 20th, 2024 food systems that address the needs of diverse populations. 28 S3FOOD Potential https://s3food.eu/ S3FOOD is organized by 13 partners from 8 different countries. As part of the project, there was a possibility to apply tand test own solution in real conditions with one of the partners. 29 SS4AF Focuses on smart solutions for African agriculture, driving efficiency, productivity, and sustainability. Potential https://ss4af.com/ One of the goals of the project was to create a network of Living Laboratories that will act as centres for presenting, testing and organising training, workshops and demonstrations related to Industry 5.0 technologies for companies from the agri-food sector. 30 STELLA Aims to revolutionize agriculture through innovative lighting and energy solutions, optimizing plant growth and energy use. No https://stella-pss.eu/ 31 THEROS Advances thermal technologies for sustainable agriculture, improving crop protection, storage, and resource management. No https://theros-project.eu/ 32 TITAN Develops cutting-edge tools and technologies for precision agriculture, enhancing yield, sustainability, and profitability. No https://titanproject.eu/ 33 WATSON Explores water-smart solutions for agriculture, ensuring efficient No https://watsonproject.eu/
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 21 December 20th, 2024 usage and sustainability in waterscarce regions. 34 RENOVATE Focuses on renewing and revitalizing agricultural systems with sustainable practices and technologies. No https://renovateproject.eu/ 35 PoliRuralPlus Enhances rural policy frameworks to support farmers, boost rural development, and integrate sustainability goals. No https://www.poliruralplus.eu/ Table 1: Existing projects in agri-food sector
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 22 December 20th, 2024 1.4.2 Overview of EDIHs and AgrifoodTEF This section summarizes the main characteristics of EDIHs and the Physical Infrastructure Network integrated by AgrifoodTEF. Without being exhaustive, it provides key elements to understand both initiatives and why it is important to start discussing their future joint action. Both initiatives are part of the Digital Europe Programme (DIGITAL), which aims to integrate digital technology into businesses, public services, and everyday life. The program targets six areas: high-performance computing, AI, cybersecurity, digital skills, widespread digital adoption, and semiconductors. EDIHs and AgrifoodTEF Network combine regional presence to address local needs while being part of a pan-European network. In the second case, with strength in regional specialization to respond to the challenges of the agri-food sector, cross-border collaboration and access to specialized services that may not be available locally are further encouraged. From this perspective, we foresee that the relationship between AgrifoodTEF Network and EDIHs has three facets: complementarity, synergies, and singularities between both initiatives, as discussed in section 1.4.3. Item EDIH AgrifoodTEF Name European Digital Innovation Hubs The AgriFood Testing and Experimentation Facilities Definition EDIHs are comprehensive service hubs designed to help companies and public organizations address digital challenges and enhance competitiveness. A network of physical and digital facilities across Europe provides services to assess and validate third-party AI and robotics solutions in real-world conditions for the agri-food sector. Mission To strengthen the digital capabilities of SMEs and PSOs (Public Sector Organizations) by modernizing their processes, products, and services using digital technologies. To bring AI and robotic solutions to the agri-food sector, enabling farmers to access the full benefits of AI and AI-powered robotics technologies. How they foster digitalization • Technical expertise and testing allow businesses to "test before investing". • Innovation services, including funding advice, training, and skill development. • Support for sustainability, leveraging digital technologies for environmental and circular economy goals. • Access to state-of-the-art testing environments, enabling companies to "test before they invest" in technologies like AI, robotics, and IoT tailored to agriculture and food production. • Expertise and innovation services, including guidance on funding opportunities, skill development, and regulatory compliance to streamline the integration of new technologies. • Support for environmental goals, promoting sustainable practices and circular economy solutions through advanced digital tools. Funding EDIHs receive 50% of their funding from DIGITAL and 50% from Member States, regions, or private sources. AgrifoodTEF receives funding from the European Commission, complemented by national and regional contributions. Presence 136 hubs operational in early 2023 34 partners, 9 countries, 44+ infrastructures composed of 125+ facilities. Table 2: EDIH vs AgrifoodTEF
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 23 December 20th, 2024 1.4.3 Joint Positioning of the AgrifoodTEF Network with EDIHs We believe effectively integrating the AgrifoodTEF Network with the EDIHs is a natural step in advancing Europe's digital transformation. This section explores the possibilities for alignment between the two initiatives by considering potential synergies, complementarities, and the elements that make the AgrifoodTEF Network unique. A. Synergies The synergies between the AgrifoodTEF Network and the EDIHs amplify the individual scope of each initiative and increase their effectiveness when developed jointly. A harmonious joint implementation between AgrifoodTEF Network and EDIHs enables more efficient use of resources by leveraging their complementary strengths. On the one hand, AgrifoodTEF Network provides highly qualified human capital with the tangible know-how and infrastructure, with its services necessary to test technological developments close to the market in the real world but requiring validation. At the same time, EDIHs bring their experience in accompanying digital change and business development and an extended network that places them close to innovation companies and public sector entities. This synergy ensures that technological innovations in the agricultural sector are technically validated and potentially aligned with market needs and adoption pathways. By combining technical expertise, infrastructure, and strategic insight, the collaboration minimizes duplication of effort, accelerates development timelines, and optimizes resource allocation, driving impactful and scalable solutions for the agri-food sector. Only the market (farmers) would be required to quickly adopt the best proposals for establishing agroecological agriculture. A joint implementation of the AgrifoodTEF Network and EDIHs presents not just synergies, but transformative synergies for the agri-food ecosystem. Both, in their unique ways, support Sustainability. The first by providing testing and validating new technology that responds to the needs of the latest agricultural paradigm, and the second by providing access to technologies that promote circular economy solutions, reduce waste, and enhance environmental stewardship. From another perspective, the joint work between AgrifoodTEF Network and EDIHs can advocate for local public-private partnerships. Thus, for example, AgrifoodTEF Network carries out applied research projects, while EDIHs manage the connection with the financing, market access, and scalability of solutions that respond to the pressing needs of companies identified in their network. Another alternative to creating synergies is the generation of co-development platforms, where EDIHs facilitate alliances between start-ups or technology-based companies and large companies in the agri-food sector, creating the distribution chain and rapid adoption of solutions. AgrifoodTEF Network offers the pilot tests and tests necessary for the validation of such technological solutions. Finally, joint implementation of the AgrifoodTEF Network and EDIHs contributes to European digital sovereignty by boosting the development of local technology capabilities within European enterprises, reducing technology dependency, and being in control of their data and information. B. Complementarity AgrifoodTEF Network and EDIHs complement each other, with AgrifoodTEF offering specialized validation know-how within a large European agricultural innovation ecosystem. At the same time, EDIHs respond to other ecosystem needs related to business development and funding guidance, for example. This collaboration accelerates the adoption of digital tools in agriculture and strengthens the innovation ecosystem across Europe, ensuring sustainable and inclusive growth in the sector.
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 24 December 20th, 2024 The country-based organization of the AgrifoodTEF Network allows a focused approach to agri-food innovation according to the potential of each European region. The EDIHs, with their more dispersed network in Europe, would allow access to information on the testing infrastructures available in the AgrifoodTEF Network, making it easier for innovation companies to access the services proposed by AgrifoodTEF Network. This joint approach promotes knowledge sharing and sustainable growth by streamlining resource access and fostering collaboration between companies, researchers, farmers, and technology providers. The result is a robust ecosystem that supports digital and green transitions, helping agri-food companies leverage new business models and compete effectively in global markets. AgrifoodTEF Network must maintain its specialized focus based on significant research capabilities and expertise. To do so, it is essential that: • The AgrifoodTEF Network and EDIHs establish linkages, initially at the local level, while DIGITAL promotes them at the macro level, to clarify each initiative's roles and promote mutual understanding. • EDIHs had on top of their minds that AgrifoodTEF Network is the alternative to which they must turn when working with agri-food entities that require a specialized resource of testing or validation. • EDIHs can refer AI and robotics projects at an advanced stage of development that require specialized testing and validation that they cannot handle to the AgrifoodTEF Network. • AgrifoodTEF Network and EDIHs organize joint events to disseminate the capabilities available in AgrifoodTEF to the theoretically broader and more direct network of EDIHs. • AgrifoodTEF Network and EDIHs must contribute to developing specific competencies and training programs for the agri-food sector, mainly in AI and robotics. C. Singularities Identifying the differential points between both initiatives is key to maximizing the impact and guaranteeing the identified synergies and complementarities. Thus, the points that differentiate AgrifoodTEF Network are: • AgrifoodTEF Network provides a dedicated network exclusively for agri-food actors, with access to testing and validation of agricultural technologies in real environments. • AgrifoodTEF Network brings specialized knowledge in agricultural production processes and supply chains, complementing the overall offer of EDIHs and ensuring that innovations can be validated in real-world contexts, maximizing their impact on the market. • AgrifoodTEF Network focuses on artificial intelligence and robotics applied to agriculture, supported by institutions with recognized expertise and knowledge. • AgrifoodTEF Network offers the possibility of testing and validating solutions in different conditions, from controlled environments to crop fields through farms with actual livestock, a strength to highlight. • AgrifoodTEF Network has a catalogue of services specifically designed for the agri-food sector and is working on its professionalization. • AgrifoodTEF Network has a state-of-the-art infrastructure catalogue to provide services for innovative agri-food companies. Another aspect, in particular, is the duration of the AgrifoodTEF project, which is not insignificant as it allows for a balance of immediate results that generate trust and legitimacy in the infrastructure network and its associated services and a meaningful potential impact on the provision of technological solutions based on AI and robotics that respond to the transition of agriculture.
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 25 December 20th, 2024 However, the fact that AgrifoodTEF Network, in its initial phase, provides free services for SMEs may discourage the perception of value, generate dependency, or compromise the long-term financial sustainability, hindering the continuity and expansion of the service. 1.4.4 Future Perspectives A joint positioning between AgrifoodTEF Network and EDIHs presents significant opportunities to improve the agri-food sector's efficiency, innovation, and sustainability. Long-term sustainability will require the development of robust financial models, ensuring the capacity to grow AgrifoodTEF Network and EDIHs and their capacity to adapt to new demands. By fostering a clear division of responsibilities and implementing an effective referral system, both initiatives can ensure a seamless and complementary service delivery model, avoid redundancies, and optimize the use of resources. Visibility and engagement efforts—like co-branded outreach campaigns, innovation challenges, and active stakeholder inclusion—will further amplify the network’s impact, ensuring that AgrifoodTEF remains a cornerstone of agri-food innovation in the digital age. Moreover, leveraging cross-sector innovation through collaboration with EDIHs can unlock transformative potential. It can enable the transfer of ideas and technologies between the agri-food industry and other industries and ultimately drive broader economic and social benefits. From another perspective, based on the knowledge and best practices identified, as well as the diversity of actors involved in this ecosystem, potentially including civil society, the lessons learned in the AgrifoodTEF Network can become a key advisor on agri-food AI and robotics policies within the EDIHs framework. In conclusion, AgrifoodTEF Network and EDIHs have an indisputable role in digitizing European institutions, particularly the agri-food sector, so it is appropriate to anticipate their meeting points, complementarities, and unique characteristics of each program. Integrating the AgrifoodTEF Network and EDIHs requires a strategic approach highlighting its specialized services while aligning with Europe's broader digital innovation ecosystem. Through close collaboration with EDIHs, AgrifoodTEF can maximize its impact on the agri-food sector by facilitating access to advanced technologies such as artificial intelligence and robotics in real-world environments. This synergy will benefit the agrifood sector and strengthen Europe's position as a leader in digital innovation, promoting a sustainable and resilient digital transformation in the long term. Positioning AgrifoodTEF Network as an essential component in this ecosystem ensures a path toward a future where digitalization drives innovation in all industries, benefiting agriculture and the European economy as a whole.
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 32 December 20th, 2024 a) Template to describe the physical infrastructure The template for describing the physical infrastructure is structured into four sections: Introduction, Description, List of Facilities, and Media as shown in Figure 4. • Introduction: This section captures key details such as the name of the infrastructure and its owner. • Description: This section provides information about the partner and the associated physical infrastructure. • List of Facilities: This part enumerates all facilities included within the physical infrastructure. • Media: This section specifies the names of images, logos, or other media assets, which are organized in the designated media folder. The following table provides an example to describe the physical infrastructure as per the template. Template Example # Introduction - Infrastructure Name: - Infrastructure Owner: - Infrastructure Name: Sophia - Infrastructure Owner: INRIA # Description (5-15 lines) - Description of Partner's Physical Infrastructure INRIA is the national research institute in Digital Sciences and Technologies. World-class research, technological innovation and entrepreneurial risk constitute its DNA. Within 220 project teams, most of them joint with major research universities, more than 3,800 scientists are exploring new avenues, often interdisciplinarity and in collaboration with industrial partners to respond to ambitious challenges. A technological institute, INRIA supports the diversity of paths to innovation: from open-source software publishing to the creation of technological start-ups (Deeptech). The physical infrastructure at INRIA (named Sophia) used in AgrifoodTEF project is located in the INRIA Center of Côte d’Azur University in Sophia-Antipolis, France. It is managed by the ACENTAURI robotic team that studies and develop intelligent, autonomous and mobile robots that can help humans in their day-to-day lives at home, at work or during their displacements. The team focuses on perception, decision and control problems for multi-robot collaboration by proposing an original hybrid model-driven / data driven approach to artificial intelligence and by investigating efficient quantum algorithms. The team deals with robotic applications in smart territories, smart cities and smart factories. # List of Facilities - List of Facilities - Mobile Living Laboratory - UAV Arena - AzurArena Parking - Private Parking - NEF # Media/Image/Video - Logo of the partner - Logo for infrastructure (if available) b) Template to describe the facilities This template provides a comprehensive overview of each facility, capturing essential details such as the facility’s name, ownership, location, type, and AgrifoodTEF funding status. A concise description, limited to 50-150 words, outlines the facility’s purpose and usage, ensuring easy understanding for all stakeholders. To support Figure 4: Template of file PartnerName_Infrastrcuture-Name.txt
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 33 December 20th, 2024 harmonization across the network, the template also gathers information on applicable sectors, the specific cluster to which the facility belongs, and a detailed list of the equipment used within. Additionally, it identifies the physical services that utilize the facility, offering a complete and standardized profile that enhances clarity and coordination among partners as represented in Figure 5. The following table, provides an example to describe a facility, as per the template. Template Example # Introduction - Facility Name: - Owner of the Facility: - Location * Address: * GPS Coordinated: -Type of Facility: {} Fixed Facility {} Reconfigurable Facility {} Movable Facility {} Land Facility - Cofunded by AgrifoodTEF {} Yes {} No Facility Name: Mobile Living Laboratory Owner of the Facility: INRIA Location * Address: INRIA, 2004 route des Lucioles, Batiment Kahn, Level 0, 06902 Sophia-Antipolis * GPS Coordinated: 43.6152717, 7.0679793 Type of Facility: {} Fixed Facility {} Reconfigurable Facility {x} Movable Facility {} Land Facility Cofunded by AgrifoodTEF {x} Yes {} No # Description (50 -150 words) - Description of Facility: - What could be offered through this facility Description of the Facility: This facility is a movable laboratory designed to meet the requirements for providing AgrifoodTEF services by INRIA, France. The mobile living laboratory (MLL) is equipped with power generators, ground (AGR) and aerial (UAV) robots, computers, communication system (LAN, WiFi, 4G/5G) etc. for development, testing, monitoring and experimental purposes, along with the living necessities for work at experimental sites. An external trolley is also attached with this MLL to carry the ground and aerial robots, power backup generators, fuel oil (petroleum, diesel, etc.) and other necessary stuff. There is a capacity of three persons/engineers to work simultaneously in the MLL. What could be offered through this facility: Moving to experimental sites (agriculture fields, forests etc.) for: - Data Acquisition with AGRs, and UAVs, - Testing, Validation, and Evaluation of Mobility Algorithms (Mapping, Localization, SLAM, and Navigation) A customized monitoring systems has been built to monitor the status of robots # Sectors Being Served Figure 5: Template of file Infrastructure-Name_Facility-Name.txt
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 34 December 20th, 2024 - Sectors Being Served { } Arable {} Tree Crops {} Viticulture {} Horticulture {} Food Processing {} Livestock Farming {x} Arable {x} Tree Crops {x} Viticulture {x} Horticulture {x} Food Processing {} Livestock Farming # Clusters being Served Clusters being Served {} Data {} AI & Robotics Algorithms {} Physical System {} Consultancy {x} Data {x} AI & Robotics Algorithms {} Physical System {} Consultancy # List of Equipment List of Equipment - Robotnik's SUMMIT-HM Mobile Robot - Skydrone's VERSATYL UAV - DJI Matrix 300 RTK - RTK-GPS Ntrip server - 3D Printer (for specific sensor integration) # Physical Services using this facility Physical Services - S00209 Provision of general purpose datasets via multisensored ground robot - S00210 Provision of general purpose datasets via multisensored aerial robot - S00211 Provision of general purpose datasets with user specified sensor(s) - S00212 Testing and evaluation of mobility algorithms with ground robot - S00213 Testing and evaluation of mobility algorithms with aerial robot - S00311 Testing and evaluating sensor devices - S00312 Testing and evaluating robot's functionalities # Media/Image/Video - Media/Images/Video c) Template to describe the equipment This template provides a comprehensive overview of each equipment, capturing essential details such as the equipment’s name, ownership, type, list of facilities in which it is used in, and AgrifoodTEF funding status. A concise description, limited to 40-200 words, outlines the equipment’s purpose and usage, ensuring easy understanding for all stakeholders. Additionally, it collects the important specifications of the related equipment, and identifies the physical services that utilize the equipment, offering a complete and standardized profile that enhances clarity and coordination among partners as provided in Figure 6. The template structure with example is as follows: In the following table, an example is provided to describe the equipment. Template Example Figure 6: Template of file InfrastructureName_Equipment-Name.txt
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 35 December 20th, 2024 # Introduction - Equipment Name: - Owner of the Equipment: -Type of Equipment: {} Fixed {} Movable - Facilities it is being used in: - Cofunded by AgrifoodTEF: {} Yes {} No - Equipment Name: Matrice 300 RTK - Owner of the Equipment: INRIA -Type of Equipment: {} Fixed {x} Movable - Facilities it is being used in: Mobile Living Laboratory Private Parking UAV Arena AzurArena Parking - Cofunded by AgrifoodTEF: {x} Yes {} No # Description (50 -150 words) - Description of Equipment: - What could be offered through this equipment: Description of the equipment: The DJI Matrice 300 RTK is a platform inspired by modern aviation systems. Offering up to 55 minutes of flight time, advanced AI capabilities, 6-way sensing and positioning and more, the Matrice 300 RTK sets a whole new standard, combining high-performance intelligence and unrivalled reliability. Key Points: Improved Transmission System: OcuSync Enterprise, Triple-channel 1080p video transmission up to 15 km away, Real-time automatic switching between 2.4 GHz and 5.8 GHz for safer flights in high interference environments, AES-256 encryption for secure data transmission Improved Flight Performance: Efficient and stable flight design for extreme conditions, Operating altitude: 7,000 meters, Max speed: 23 m/s, Max descent speed: 7 m/s, Wind resistance capability: 12 m/s What could be offered through this equipment: - Data acquisition and geolocalization - Ground truth for testing and evaluation of AI and Robotic Algorithms - Autonomous navigation # Specifications - Specifications: Multiple Camera Gimbal Configurations: Maximum payload capacity: 2.7 kg, Capacity to attach 3 cameras simultaneously (1 at top, 2 at bottom) Other Specifications: Ingress Protection » IP45, Temp. Range » -20 °C – +50 °C, Payload Capacity » 2.7 Kg Max, Battery » 6 x TB60 with Battery Station, 6x TB65 with its smart battery station Remote Control » DJI Enterprise Smart Controller, 5.5” 1080p display, -20 – +40 °C, HDMI and microSD support, Dual Operation Mode, Autonomy 40Hrs, LiPo 1800 mAh micro-USB, 4 Remote Controls/UAV, Fixed Circuit Breaker (AES -256, Ultra-Fast Parachute, From 10 M of Height with Pyrotechnic Tech.), Other Sensors » 2 x IMUs, 2 x Barometers, 2 x Compass, 2 x RTK antennas & GNSS module for each DJI Matrice 300 RTK UAV Others sensors: multi spectral camera Silios Toucan, Silios CMS-4V # Physical Services using this facility Physical Services - S00209 Provision of general purpose datasets via multisensored ground robot - S00210 Provision of general purpose datasets via multisensored aerial robot - S00211 Provision of general purpose datasets with user specified sensor(s) - S00212 Testing and evaluation of mobility algorithms with ground robot - S00213 Testing and evaluation of mobility algorithms with aerial robot - S00311 Testing and evaluating sensor devices - S00312 Testing and evaluating robot's functionalities # Media/Image/Video/Hyperlinks - Media/Images/Videos/ Hyperlinks - https://www.dji.com/support/product/matrice-300 - https://www.silios.com/toucan-camera - https://www.silios.com/cms4-series
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 36 December 20th, 2024 C. Framework and Guidelines for review process After describing the physical infrastructure as per the guidelines provided in section 2.2.2.b, it is necessary to review whether the partners have adhered to the conformity as provided in the guidelines or not. Thus, the reviewers’ task is to verify the conformity and check the quality of information provided, and see how much the information provided is readable and understandable. The review process is described in details in the following framework. a) Framework for review process The review process follows the below given framework, where every step is/will be tagged and tracked in an excel file (WP1 coordinators assignment and tasks fullfilment.xlsx) • Step 1: read the column L in Physical Description sheet of WP1 coordinators assignment and tasks fullfilment.xlsx file, to learn which partner will be reviewed whom. The reviewing partner must nominate the reviewer and put his name in the column M. • Step 2: Reviewer must read the guideline for harmonization (Guideline for infrastructureharmonization_updated.pdf), and the guideline for reviewing (Guideline for infrastructureharmonization_review.pdf) • Step 3: Reviewer reviews the partner infrastructure description and fill the excel form after renaming the file as: partner-name-reviewed_review.xls • Step 4: Reviewer push the excel file in the partner description directory. When done, reviewer will assess the review work done in the tracking table WP1 coordinators assignment and tasks fullfilment.xlsx column H (review). • Step 5: Reviewer emails to Philippe Martinet and to the node leader (where the partner belongs) that the review is done. • Step 6: The node leader will ask the partner to update the description after review is done. When the update will be done, the partner will assess the update work in the tracking table WP1 coordinators assignment and tasks fullfilment.xlsx column I (Update after review). • Step 7: When update is done, the node leader will assess the work in the tracking table WP1 coordinators assignment and tasks fullfilment.xlsx column J (node assessed) as shown in Figure 7. Figure 7: The tracking of harmonization process from file WP1 coordinators assignment and tasks fullfilment.xlsx) Summary of role of persons (partners, reviewers, node leaders, and task leaders) in the Harmonization Process • Partner: describe the physical infrastructure following the proposed methodology and the guideline. • Reviewer: check and assess the conformity of description, the quality of description, the completeness, and propose some comments for improvement/update. • Node leader: track and validate the update of partners infrastructure description. • Task 1.2 leaders: define the guidelines, prepare the uniformization, give the GO for the online catalogue and report on the harmonization process in WP1 global meeting. b) Guidelines for review process The review of physical infrastructure description is done as per the following guideline. • The reviewer will provide the his/her own information, and the about the reviewed infrastructure in the excel file as: Node/satellite Node/Satellite to which reviewer belongs
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 37 December 20th, 2024 • The reviewer will provide the overall view of physical infrastructure description as: • The reviewer will provide the details about the description of facilities, and comments, when necessary, as: • The reviewer will provide the details about the description of equipment, and comments, when necessary, as: • The review defines the next course of action • Finally, the reviewer uploads the review form on the FBK shared workspace in the directory of reviewed partner. • After the review the process could be tracked in the excel file WP1 coordinators assignment and tasks fullfilment.xlsx Partner name Name of partner Reviewer Name Name of reviewer Number of infratsructure Name of infrastructure to be reviewed Number of facilities Number of facilities in the infrastructure Number of equipements Number of equipments within the infrastructure
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 38 December 20th, 2024 Example of the reviewed physical infrastructure description: Given below is the infrastructure of INRIA, France which has been reviewed by POLIMI, Italy as an example. The example perfectly demonstrates the review process for the harmonization of physical infrastructure description, where good critical feedback has been provided by the reviewer, and on each feedback a response has been provided by the partner after the appropriate modifications.
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 39 December 20th, 2024 Outcomes The harmonization process for describing physical infrastructure yields several key outcomes that enhance both the functionality and usability of the facilities across the network: 1. Standardized Facility Profiles: A unified format for describing each facility provides consistency, making it easier for all partners to understand and access detailed information about available facilities, equipment, and services. 2. Improved Collaboration: Harmonized descriptions facilitate resource sharing and collaboration across partners, as each facility’s capabilities and limitations are clearly defined, helping teams align on project needs and operational standards. 3. Enhanced Client Understanding: A clear and structured facility description aids clients in identifying the services and facilities that best suit their needs, streamlining service selection and fostering stronger client relationships. 4. Efficient Decision-Making: With a standardized repository of facility information, decision-making for project assignments, resource allocation, and infrastructure investments becomes faster and more data-driven. 5. Quality Assurance and Compliance: Consistent descriptions ensure that facilities meet quality and operational benchmarks, making it easier to monitor compliance with AgrifoodTEF guidelines and maintain high standards across the network. 6. Increased Professionalism: By creating a professional and organized infrastructure overview, harmonization establishes AgrifoodTEF as a well-coordinated network, ready for expansion and further collaborations, thus attracting potential stakeholders and partners. In essence, the harmonization process transforms facility information into a clear, accessible, and strategic resource, optimizing both internal operations and external service delivery. Furthermore, the harmonization process culminates in an Updated Catalogue of Physical Infrastructures (Annex C), which serves as a centralized resource detailing each facility’s capabilities across the network. This catalogue not only standardizes facility descriptions but also provides an interactive map showing the distribution of technologies and tools across various nodes, satellites, and partner locations. This mapping feature allows partners and clients to quickly identify the facilities, equipment, and expertise available within each region, facilitating strategic resource allocation and project planning. The online catalogue also improves transparency and accessibility, allowing stakeholders to view the infrastructure coverage comprehensively, from the latest robotics and UAVs to specialized sensors and lab facilities. This centralized approach ensures that partners can identify and access the specific resources they need, fostering collaboration across nodes and enhancing service offerings for clients. Overall, the catalogue elevates the network's professional image, showcasing AgrifoodTEF’s technological coverage and geographic reach, making it an invaluable tool for both internal coordination and client engagement.
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 40 December 20th, 2024 Chapter 3: Professionalization and Internationalization of Physical Services
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 41 December 20th, 2024 3.1 Introduction In the AgrifoodTEF project, services that necessitate dedicated physical infrastructure, such as specialized facilities and equipment, are categorized as Physical Services. For instance, providing data acquisition services for crops involves utilizing sophisticated sensors, such as cameras, LiDAR, multispectral or hyperspectral imaging devices, which are mounted on robotic platforms, including ground or aerial robots, to systematically collect field data. Similarly, testing and validating collision avoidance systems require access to a purpose-built testbed, equipped with a carefully configured setup designed to simulate real-world scenarios and assess system performance accurately. Moreover, evaluating the functionality and efficiency of hardware components; whether machines, sensors, or robotic systems, demands well-equipped facilities with appropriate tools and monitoring systems to carry out detailed evaluations. These physical services not only underpin the technical rigor of the project but also ensure that cuttingedge technologies are tested and validated in real-world or controlled environments, fostering innovation while addressing the practical needs of stakeholders. 3.2 Definition Physical services refer to tangible, hands-on activities, operations, or interventions that involve direct interaction with physical objects, environments, or systems. Thus, a service that necessitate dedicated physical infrastructure, such as specialized facilities and equipment, is called Physical Service. Examples include agricultural fieldwork, equipment maintenance, robotic operations, and environmental data collection. 3.3 Methodology for Professionalization To professionalize these services, it is essential to establish clear standards, guidelines, and best practices that ensure quality, consistency, and safety. Since, AgrifoodTEF project is a collaboration among various partners and research institutes within Europe, bringing a diversity in execution of services and experience. Thus, there is a need to standardize and uniformize the services in terms of definition, execution, testing and validation, and delivery, and bring forth the best practices from this diversity to ensure quality, consistency, and safety. At the start of project, WP4 as a back office provided some guidelines to declare the services informing about the name of service, extended title, short description, for which sector the service is being defined, what will be delivered to TEF etc. This information was collected via google forms as shown in Figure 7. Once, the partner declared the service, WP4 provide the Service ID and added the new services to the list of services. Similarly, if a partner wants to update any information, the partner could do so by editing the service again via google forms. Initially it could be considered fine, but as time passed and new services were being declared numbering in hundreds, the content revision became very difficult, and the services lacked uniformity in the descriptions. So, WP4 initiated the procedure to standardize the service definitions, particularly the naming style. They provided clear guidelines for declaring new services or editing existing ones, and a conformity review process was introduced to validate new or modified services. Once validated, these services will be published in the online services catalogue on the website. The detailed guidelines for service description, technical service description, and the review process are available in deliverable D 4.5 List of Common Building Blocks of Services – Y2 managed by WP4.
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 48 December 20th, 2024 A6: • No Action needs just yet. Will be revised as soon as WP1 has running Services and create new services. After that it will be organized who will overview the description. Other: • Set up a Core Team, responsible for WP1; Attendees are not solely responsible for WP1, but merely a contact person. o Action Point: Node Satellite leaders will contact Stefan which Person of their institution will act as this contact person. • Set up a Core Writing Team who are responsible for deliverable 1.3. o Action Point: Node Satellite Leaders should name persons after internal discussion and contact Stefan. Discussion about standards and services: • Group agreed on the need for contact points of persons who are involved in standard development and observe how standards evolve and effect the services of WP1. o Action Point: Magnus (HSOS) will set up a list in FBK WP1 channel where we collect standards and contact persons and push the process
101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 49 December 20th, 2024 Annex B: Collection of delivered and requested services till July 2024 to define the clusters
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101100622/AgrifoodTEF AGRIFOOD TEF Deliverable 1.5 Professionalization and Internationalization of Physical Infrastructure and Services 56 December 20th, 2024 Annex C: Catalogue of Physical Infrastructures within AgrifoodTEF
2024 AgrifoodTEF Partners WP1 Physical testing 18/12/2024 Official Physical Infrastructures Catalogue
7 Infrastructure Name: Innovation Farm Partner: JOSEPHINUM Node/Satellite: AT Facility Name: Testfields Wieselburg Owner of the Facility: JOSEPHINUM Location - Address: Rottenhauser Straße 1, 3250 Wieselburg - GPS Coordinates: 48.12545901431457, 15.14630895572807 Type of Facility Fixed X Reconfigurable Movable X Land Sectors being X Arable Tree Crops X Viticulture served Horticulture Food Processing Livestock Farming Cluster being served Data AI & Robotics Algorithms X Physical System Assessment Description For ML/AI developments in the field of agriculture, it is very important that they can be tested accordingly in practice. And it is precisely for such practical tests that JR is ideally positioned. Directly behind our office building there is a field with 4.8ha, which can be fully used for tests. Depending on the requirements, different crops can be grown on this field. However, this is by far not our only field. We have access to numerous fields and grasslands in Wieselburg and around Wieselburg. In cooperation with local farmers, even more areas and more diverse crops can be tested. Even the vineyard of the school HBLFA Franciso Josephinum can be used to perform tests in the field of viticulture. What could be offered through this facility? - Data collection via AGR, and UAV - Testing of agricultural implements for diverse crops - Testing of robots for diverse tasks on the field - Validation of Different Sensors Calibration List of Equipment Physical Services using this Facility Lab equipment S00037 Testing of weeding performance Drones S00038 Testing of spot spraying performance Field trial equipment S00039 Testing of plant detection Highspeed camera S00043 Usability & UX testing LIDAR S00044 Testing of biomass and yield estimation Manual sensor platforms S00045 Testing of Follow-me function of a robot NIR and RGB camera S00047 Testing of field navigation Sliding frame for row detection of crops S00048 Testing of sensor performance S00173 Test suitability of an agricultural implement on an autonomous carrier platform
8 Infrastructure Name: Innovation Farm Partner: JOSEPHINUM Node/Satellite: AT Facility Name: Testfields Austria Owner of the Facility: JOSEPHINUM Location - Address: All over Austria - GPS Coordinates: all Austria Type of Facility Fixed X Reconfigurable Movable X Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served Data AI & Robotics Algorithms X Physical System Assessment Description For ML/AI developments in the field of agriculture, it is very important that they can be tested accordingly in practice. And it is precisely for such practical tests that JR is ideally positioned. Located in the central of Austria we have many possibilities to work with farmers in almost all of Austria. Depending on the requirements, different crops can be selected and we search for farmers who have them. Also, we have access to numerous fields for grasslands in Austria. In cooperation with not only local farmers, even more areas and more diverse crops can be tested. What could be offered through this facility? - Data collection via AGR, and UAV - Testing of agricultural implements for diverse crops - Testing of robots for diverse tasks on the field - Validation of different sensors calibration - Usability and user experience in cooperation with farmers List of Equipment Physical Services using this Facility Lab equipment S00037 Testing of weeding performance Drones S00038 Testing of spot spraying performance Field trial equipment S00039 Testing of plant detection Highspeed camera S00043 Usability & UX testing LIDAR S00044 Testing of biomass and yield estimation Manual sensor platforms S00045 Testing of Follow-me function of a robot NIR and RGB camera S00047 Testing of field navigation Sliding frame for row detection of crops S00048 Testing of sensor performance S00173 Test suitability of an agricultural implement on an autonomous carrier platform
9 Infrastructure Name: Innovation Farm Partner: JOSEPHINUM Node/Satellite: AT Equipment Name: Drones Owner of the Equipment: JOSEPHINUM Facilities it is being used in - Testfield Wieselburg - Testfields Austria Type of Equipment Fixed X Movable Description JR has several drones in its repertoire. Among them are drones with multispectral cameras (DJI Phantom 4 Mulitspectral) or drones with RTK modules and a thermal camera (DJI Mavic 3T). The right drone can be selected depending on the application. In addition to the standard flight routes of the drones, we have developed a method to automatically generate random points on the desired field. From this, a flight route is automatically generated, which can be flown as often as desired. What could be offered through this equipment - creation of datasets - plant detection - plant growth detection Specifications - DJI Phantom 4 Mulitspectral, see https://www.dji.com/at/p4-multispectral/specs - DJI Mavic 3T, see https://enterprise.dji.com/de/mavic-3-enterprise/specs Hyperlink Physical Services using this equipment https://enterprise.dji.com/de/mavic-3-enterprise S00037 Testing of weeding performance https://www.dji.com/at/p4-multispectral S00039 Testing of plant detection S00044 Testing of biomass and yield estimation S00047 Testing of field navigation
10 Infrastructure Name: Innovation Farm Partner: JOSEPHINUM Node/Satellite: AT Equipment Name: Lab equipment Owner of the Equipment: JOSEPHINUM Facilities it is being used in - Testfield Wieselburg - Testfields Austria Type of Equipment X Fixed Movable Description For almost all ML/AI models it is important to have accurate training and test data. For such cases JR has some laboratory equipment. For more extensive tests, some more equipment can be used in cooperation with BLT. BLT Wieselburg has decades of experience in testing agricultural machinery and biomass. It has numerous test benches to test engines and hydraulics of tractors, for example, or its own traction line to measure traction power. It is also an accredited test facility for protective structures and devices and an OECD approved test facility. Since JR and BLT are located at the same site and partly share buildings, the cooperation works smoothly. In agriculture, the dry matter content of plants often plays an important role. To determine this, JR has accurate scales on the one hand and drying ovens such as the Binder FD 260 on the other. These data are, for example, the basis for models to depict biomass growth in grassland. The purchase of an elemental analyzer is also planned. With it the chemical composition of samples can be examined. Thus still other models should become possible. What could be offered through this equipment - We can offer you the dry matter content of any plant or fodder Specifications - Binder FD 260, see https://www.binder-world.com/de-de/produkte/trocknen-und-temperieren/trocken-undwaermeschraenke/produkt/fd-260 Hyperlink Physical Services using this equipment https://www.binder-world.com/dede/produkte/trocknen-und-temperieren/trockenund-waermeschraenke/produkt/fd-260 S00044 Testing of biomass and yield estimation
11 Infrastructure Name: Innovation Farm Partner: JOSEPHINUM Node/Satellite: AT Equipment Name: Field trial equipment Owner of the Equipment: JOSEPHINUM Facilities it is being used in - Testfield Wieselburg - Testfields Austria Type of Equipment Fixed X Movable Description We have developed solutions for the collection of grassland biomass and for the determination of land cover in a certain area. The Aruco-Frame is 120cm long and 57cm wide and it used to determine the land cover in a certain area. It has six different Aruco Markers on it. Each marker measures 10,5cm by 10,5cm excluding the white border around the marker. The purpose of the Frame is to get images of the ground with standard properties and without optical distortion. The set for taking grassland samples (Greenlandset) is used for measuring the weight of biomass grassland samples in a certain area and consists of: • Aluminium frame (145cm long and 60cm wide) lying on the ground • Makita hedge trimmer (cutting length: 60cm, 18V battery) used for cutting the grass horizontally at the aluminium frame • Black plastic plane (185cmx185cm), where the cut grass is put on • Kern HDB 5K5N hanging scale, to weigh the plastic plane with the grass • Handheld-RTK, to get the current GPS-Position • Mobile phone, to save the current GPS-Position and the weight of the plastic plane and the grass • A lot of freezer bags, to take on small samples of the cut grass to the laboratory for drying What could be offered through this equipment - biomass estimation - creation of datasets - plant detection - determination of weeding performance Specifications - Aruco-Frame, 120cm long and 57cm wide, 6 Aruco Markers on it, each 10,5cm by 10,5cm - Grassland sampling set, 145cm long and 60cm wide aluminium frame, Makita hedge trimmer 18V with 60cm cutting length, Plastic plane 185cmx185cm, Kern HDB 5K5N hanging scale 5g accuracy, ArdusimplePROKIT-HANDSURVEY-L1L2 Hyperlink Physical Services using this equipment PROKIT-HANDSURVEY-L1L2 S00037 Testing of weeding performance S00039 Testing of plant detection S00044 Testing of biomass and yield estimation
12 Infrastructure Name: Innovation Farm Partner: JOSEPHINUM Node/Satellite: AT Equipment Name: Highspeed camera Owner of the Equipment: JOSEPHINUM Facilities it is being used in - Testfield Wieselburg - Testfields Austria Type of Equipment Fixed X Movable Description The high-speed camera can be controlled with a Jetson Nano, and it is possible to start recording on the smartphone and view the photos on the smartphone. The TIS DMK 37BUX287 is a monochrome industrial high-speed camera, which takes up to 539 frames per second. Combined with a battery in a metal housing, the camera can be for example placed directly on the weeding machine or wherever the use case requires and is powered for up to a day. What could be offered through this equipment - Track soil particles or chopping tools - Calculating the speed of moving parts Specifications - Sensor TIS DMK 37BUX287 - monochrome industrial high-speed camera - 539 frames per second - Resolution 720×540 (0,4 MP) - Temperature range -5 °C to 50 °C Hyperlink Physical Services using this equipment https://www.theimagingsource.com/dede/product/industrial/37u/dmk37bux287/ S00037 Testing of weeding performance
13 Infrastructure Name: Innovation Farm Partner: JOSEPHINUM Node/Satellite: AT Equipment Name: LIDAR Owner of the Equipment: JOSEPHINUM Facilities it is being used in - Testfield Wieselburg - Testfields Austria Type of Equipment Fixed X Movable Description The 70° LiDAR, LIVOX MID-703D sensor provides information in a circular field of view that extends 70.4° both horizontally and vertically. The data can be used for various applications, such as low-speed autonomous driving, plant detection or testing of follow me functions. What could be offered through this equipment - low-speed autonomous driving - plant detection - follow me functions Specifications - Sensor LIVOX MID-703D (https://www.livoxtech.com/de/mid-70/specs) Hyperlink Physical Services using this equipment https://www.livoxtech.com/de/mid-70 S00045 Testing of Follow-me function of a robot S00046 Testing of person detection function of a robot S00047 Testing of field navigation S00048 Testing of sensor performance
14 Infrastructure Name: Innovation Farm Partner: JOSEPHINUM Node/Satellite: AT Equipment Name: Manual sensor platforms Owner of the Equipment: JOSEPHINUM Facilities it is being used in - Testfield Wieselburg - Testfields Austria Type of Equipment Fixed X Movable Description In the field of ML/AI, a large amount of data is particularly often required. To make the collection of data more efficient and achieve more consistency, we developed two manually controlled sensor platforms. The unicycle, which is pushed by hand, was built to simulate a tractor ride and take pictures in the field. The images can be used, for example, to train row recognition algorithms. Cameras can be mounted on the top of the unicycle and a battery can be mounted on the unicycle. Capturing images with this unicycle is a fast and very flexible method. You can decide directly on the field which images are interesting for your purpose and take them. However, due to the space-saving design, which is very practical for transport in a car, only a limited number of sensors can be attached. If extensive sensor equipment with power supply is required, the four-wheeled platform is the means of choice and enables mobile use. This platform can, for example, also accommodate a laptop for direct evaluation of the data. What could be offered through this equipment - creation of datasets - plant detection - determination of weeding performance Specifications - Sensor D435f - 120 frames per second - 0 to -70° angle image/video captures Hyperlink Physical Services using this equipment https://www.intelrealsense.com/depth-camerad435f/ S00037 Testing of weeding performance S00039 Testing of plant detection
15 Infrastructure Name: Innovation Farm Partner: JOSEPHINUM Node/Satellite: AT Equipment Name: NIR and RGB camera Owner of the Equipment: JOSEPHINUM Facilities it is being used in - Testfield Wieselburg - Testfields Austria Type of Equipment Fixed X Movable Description For many applications, standard RGB cameras are sufficient, but since we also want to serve special cases, we also have NIR cameras. Products from Intel like the D435f or custom-made camera solutions. The custom-made camera shown in one of the pictures is a triple camera with two RGB cameras for the left and right side and a single nearinfrared (NIR) camera in the middle. The camera is controlled by the built-in Jetson Nano and captures up to 120 frames per second. What could be offered through this equipment - creation of datasets - plant detection - follow me functions - plant growth detection Specifications - Sensor D435f - 120 frames per second - 0 to -70° angle image/video captures Hyperlink Physical Services using this equipment https://www.intelrealsense.com/depth-camerad435f/ S00037 Testing of weeding performance S00038 Testing of spot spraying performance S00039 Testing of plant detection S00044 Testing of biomass and yield estimation S00045 Testing of Follow-me function of a robot S00046 Testing of person detection function of a robot S00047 Testing of field navigation S00048 Testing of sensor performance
16 Infrastructure Name: Innovation Farm Partner: JOSEPHINUM Node/Satellite: AT Equipment Name: Sliding frame for row detection of crops Owner of the Equipment: JOSEPHINUM Facilities it is being used in - Testfield Wieselburg - Testfields Austria Type of Equipment Fixed X Movable Description After ML/AI models pass the controlled and simplified tests in the office, they must also be tested in real-world environments. This is because special cases often occur in these real-world-tests, or simply something that cannot be taken into account in the office happens on the field. For such cases we have developed a sliding frame. This sliding frame can be used to test the row detection of crops during a tractor ride on the field. Furthermore, with the hydraulically controlled sliding pistons on the left side, two row-keeping algorithms can be tested. With this sliding frame, two separate systems for row detection and row keeping can be tested simultaneously. On the outer left edge of the sliding frame, the cameras are mounted. The computing units can be placed in the middle of the frame directly behind the tractor. In addition to the two systems, a Jetson Nano is installed on the sliding frame, which tracks the current GPS Position, the time, and the position of the two pistons. This data can be used to compare the systems. What could be offered through this equipment - determination of weeding performance - determination of crop row following performance Specifications Testing of 2 row detection systems independent of each other three-point hitch cat 2 Hyperlink Physical Services using this equipment none S00037 Testing of weeding performance S00039 Testing of plant detection
23 Infrastructure Name: Raumberg-Gumpenstein Research Farm Partner: RGRD Node/Satellite: AT Equipment Name: Gaseous emissions measurement system Owner of the Equipment: RGRD Facilities it is being used in - pig research barn - poultry Research barn Type of Equipment X Fixed Movable Description At AREC Raumberg-Gumpenstein, emissions of ammonia (NH₃), methane (CH₄), and carbon dioxide (CO₂) are monitored using advanced gas sensors and ventilation systems with exhaust purification. Real-time data from these systems helps evaluate the impact of livestock management on emissions, supporting strategies for reduction, and reference data acquisition for Health Monitoring. What could be offered through this equipment Acquisition of reference data for Image recognition or other health monitoring sensors Specifications - Measured Gases: Ammonia (NH₃), Methane (CH₄), Carbon Dioxide (CO₂). - Sensors: High-precision gas sensors capable of continuous, real-time monitoring of gas concentrations at different spots. - Ventilation and Exhaust Systems: Equipped with purification to capture and direct emissions for accurate measurement. - Data Collection: Continuous data logging with real-time tracking capabilities, adjustable frequency for specific research needs. - Environmental Control: Adjustable settings to simulate varying housing, feeding, and bedding conditions. Hyperlink Physical Services using this equipment None S00036
24 III. Belgium Node The Belgium node is composed as follows: Infrastructures Facilities Main Equipments ILVO 3 9 17 Total Belgium Node 3 9 17 Global infrastructure composition It offers 9 facilities for AgrifoodTef Services delivery. Some information about Belgium node facilities are given in the following figures. Facility: type distribution Sectors coverage Facility: cluster distribution Geographical distribution
25 A. ILVO Infrastructure Name: DIER68 Partner: ILVO Node/Satellite: BE Description The Institute for Agricultural, Fisheries and Food Research (ILVO) is an independent scientific research centre of the Flemish government. It is commissioned by that government to help make agriculture, fisheries and the agri-food sector more sustainable. Starting from a strong anchor in Flanders, their work extends throughout Belgium, Europe and the rest of the world. The mission of ILVO is clear and remarkably contemporary: to build knowledge that will make it possible to produce enough healthy and varied food for the 10 billion people that the world will need to feed while staying within our planetary limits. ILVO consists of four units: Plant Sciences, Animal Sciences, Technology and Food Science, and Social Sciences. DIER68 is the main building of the infrastructure site for services related to animal husbandry. Animal husbandry research delivers knowledge that stimulates a sustainable and efficient animal husbandry. It covers the entire chain, from field to plate. List of Facilities used in offered services - Experimental Stables
26 Infrastructure Name: DIER68 Partner: ILVO Node/Satellite: BE Facility Name: Experimental Stables Owner of the Facility: RGRD Location - Address: Scheldeweg 68, 9090 Melle - GPS Coordinates: 50.98384602529289, 3.7803103958546735 Type of Facility Fixed Reconfigurable Movable X Land Sectors being Arable Tree Crops Viticulture served Horticulture Food Processing X Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System Assessment Description Experimental stables with opportunities for co-creative research in dairy cattle, poultry, rabbits and pig farming. These facilities are equipped with an extensive array of sensors and cutting-edge technologies to support advanced agricultural testing, experimenting and validation. The currently available sensors allow us to collect data related to emissions, stable climate, animal behaviour, and foodor water intake. # Pig Farming : HF RFID antennas, Low-ammonia emission systems with sloping pit walls and air scrubber, Multiple water and feed circuits, Scales and measuring equipment for individual and group weighing of pigs # Dairy Cattle: 74 RIC Feeders for registration of individual feed uptake, 6 rooms to measure gas exchange and 2 Greenfed devices to study (greenhouse) gas emissions, Mobile Greenfeeds for emissions research at pasture, Devices for measuring ammonia emissions under natural ventilation # Poultry and Rabbits: 120 Units for digestion studies, On-site feed mill to manufacture trial feeds (including pelleting) What could be offered through this facility? - Feeding patterns and feed intake data collection - water consumption and drinking patterns data collection - Weighing of individual body weight of animals at electronic feeding stations - Barn Climate control - Testing and evaluating of sensor systems - Testing and evaluating of animal husbandry technologies List of Equipment Physical Services using this Facility none No registered services yet
27 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Description The Institute for Agricultural, Fisheries and Food Research (ILVO) is an independent scientific research centre of the Flemish government. It is commissioned by that government to help make agriculture, fisheries and the agri-food sector more sustainable. Starting from a strong anchor in Flanders, their work extends throughout Belgium, Europe and the rest of the world. The mission of ILVO is clear and remarkably contemporary: to build knowledge that will make it possible to produce enough healthy and varied food for the 10 billion people that the world will need to feed while staying within our planetary limits. ILVO consists of four units: Plant Sciences, Animal Sciences, Technology and Food Science, and Social Sciences. TV115 is the physical site of the Technology and Food Science unit, located in Merelbeke. This site is dedicated to advancing agrotechnology through cutting-edge research and services. The infrastructure at TV115 is managed by specialized teams, each focusing on a distinct aspect of agrotechnology. These teams include: Robotics and AI, Spray Technology, Emissions, LCA-analysis, Data Sharing, etc. List of Facilities used in offered services - Crop Testing Field - Lane Trees - Fertilizer Spreader Calibration - Hyperspectral Sensing Lab - Spray Tech Lab - Mechanization and automation Workshop - TEF Mobile Containers
28 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Facility Name: Crop Testing Field Owner of the Facility: ILVO Location - Address: Burgemeester Van Gansberghelaan 115/1, 9820 Merelbeke - GPS Coordinates: 50.982536, 3.777485 Type of Facility Fixed Reconfigurable Movable X Land Sectors being X Arable Tree Crops Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System X Assessment Description The ILVO Testing field is a small field with dry sandy loam soil. The testing field is conveniently located next to our workshop facility, allowing us to test and adapt a prototype in quick succession in a real-world setting. Depending on the intended tests, different crops are installed each growing season. What could be offered through this facility? - Testing and evaluating of robot performance - Testing and evaluating of sensors - Data collection List of Equipment Physical Services using this Facility DJust-E S00147 Evaluation of the performance of crop protection equipment Treebot CIMAT Drones
29 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Facility Name: Fertilizer Spreader Calibration Owner of the Facility: ILVO Location - Address: Burgemeester Van Gansberghelaan 115/1, 9820 Merelbeke - GPS Coordinates: 50.982536, 3.777485 Type of Facility X Fixed X Reconfigurable Movable Land Sectors being X Arable Tree Crops Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System X Assessment Description ILVO’s fertilizer spreader calibration lab offers services towards farmers, fertilizer spreader manufacturers and fertilizer producing companies. Two different approaches are used for assessing the performance of centrifugal and pendulum fertilizer spreaders for specific types of fertilizers: collection trays equipped with anti-reflection grids are used for determining spread patterns in field conditions. Secondly, the SpreadWise setup, developed by ILVO and UGent using a multi-exposure, high speed stereo-camera system and ballistic model, can be used for a much faster determination of spread patterns and provide input for simulation of different effects, e.g. spreader height, wind etc. What could be offered through this facility? - Testing spread ability - Assess impact of spread parameters List of Equipment Physical Services using this Facility Deposit Measurements S00002 Fertilizer spreader calibration based on vision and AI-methods https://www.youtube.com/wat ch?v=Ao1xBwRCKxY&ab_ch annel=ILVO
30 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Facility Name: Hyperspectral Sensing Lab Owner of the Facility: ILVO Location - Address: Burgemeester Van Gansberghelaan 115/1, 9820 Merelbeke - GPS Coordinates: 50.982201638569336, 3.7787688366489216 Type of Facility X Fixed X Reconfigurable Movable Land Sectors being X Arable Tree Crops Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System X Assessment Description Hyperspectral technology can be useful for many different applications in agrifood processing, for determining (raw) product quality, defects, for grading or sorting, etc. By linking spectral and spatial information to reference data, chemometric models can be built for estimating product parameters in real-time. Different technologies are available for testing, ranging from spectrometers that can be combined with different probes, hyperspectral cameras, FTNIRS for solid or liquid matrices. Also, different multispectral devices are available for testing. Through the use of different types of hyperspectral technology, covering a wide range of wavelengths, it is possible to evaluate the feasibility of using this technology for specific applications or products. Furthermore, the data can be resampled to existing or buildfor-purpose multispectral devices to estimate the performance of these more cost-efficient or more robust solutions in more challenging environments. We can support a reliable workflow that from sensor data to model output and can provide support towards the integration of this technology in new or existing machines. What could be offered through this facility? - Data acquisition in lab, under conveyor belt, in the field with cameras, probes, mobile units - Pilot cases: o Estimation of quantities: Regression linked to (chemical, other) lab measurements (quality) o Classification of samples o Detection of anomalies, process control o Linked references measurements (internal or external depending on the case) - Detection or irradiation, comparing light in different settings - Consult for reliable experimental setups List of Equipment Physical Services using this Facility Hyperspectral cameras S00001 Hyperspectral measurements and analysis Multispectral cameras Spectrometer Refractometers
31 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Facility Name: Lane Trees Owner of the Facility: ILVO Location - Address: Burgemeester Van Gansberghelaan 115/1, 9820 Merelbeke - GPS Coordinates: 50.982536, 3.777485 Type of Facility Fixed Reconfigurable Movable X Land Sectors being Arable X Tree Crops Viticulture served Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System Assessment Description The ILVO Lane Trees facility, featuring a diverse array of 50 trees from four different cultivars and varying stem diameters, provides a unique environment for testing and experimenting with advanced technologies tailored for tree nurseries. This setup allows researchers to evaluate the effectiveness of innovative tools and methods in real-world conditions, ensuring that new developments are both practical and beneficial for the industry. By leveraging this resource, ILVO aims to drive advancements in tree nursery practices, promoting sustainability and efficiency in the sector. What could be offered through this facility? - Growth and health monitoring in tree nurseries - Testing technological prototypes in real-world environment List of Equipment Physical Services using this Facility Treebot S00295 Crop Dataset Generation
32 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Facility Name: Spray Tech Lab Owner of the Facility: ILVO Location - Address: Burgemeester Van Gansberghelaan 115/1, 9820 Merelbeke - GPS Coordinates: 50.982201638569336, 3.7787688366489216 Type of Facility Fixed X Reconfigurable Movable Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served Data AI & Robotics Algorithms X Physical System Assessment Description ILVO's Spray Tech Lab is one of the few accredited spray technology laboratories in the world specialising in the characterisation of sprayers and nozzles. In addition to accredited testing, the laboratory has the experimental facilities to develop spray application systems and evaluate them under field or laboratory conditions. Current research priorities include greenhouse and open field spray applications, spray drift, nozzle characterisation, orchard spray applications and biological crop protection applications. What could be offered through this facility? - Evaluation of spray and other pesticide application technologies in field or laboratory conditions - Validation of application techniques based on deposition and drift measurements - Sprayer testing - Spray nozzle characterization List of Equipment Physical Services using this Facility Automated spray unit for natural rainfall simulations S00147 Evaluation of the performance of crop protection equipment Nozzle flow rate test bench Spray scanner Spray distribution bench Phase Doppler Particle Analyser (PDPA) Deposit measurements
39 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Equipment Name: Deposit Measurements Owner of the Equipment: ILVO Facilities it is being used in - Spray Tech Lab Type of Equipment X Fixed Movable Description The Spray Tech Lab has experience with different types of tracers, artificial collectors, chemical analysis techniques, cameras and image processing software to measure and visualise spray deposits What could be offered through this equipment - Operator exposure measurements - Drift measurements - Crop deposition and penetration - Evaluation of spray application techniques Specifications Quantifying deposits - Fluorescent dyes (fluorimetry) - Metal chelates (ICP analysis) Spray coverage - Water sensitive papers and image processing techniques - Fluorescent dyes - Coloured tracer dyes Camera systems and image processing software Hyperlink Physical Services using this equipment None S00147 Evaluation of the performance of crop protection equipment
40 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Equipment Name: DJust-E Owner of the Equipment: ILVO Facilities it is being used in - Testing Field - Mobile TEF Container Type of Equipment Fixed X Movable Description The DjustE is an in-house converted electrified hydrostatic compact tractor (CNH Boomer 50). It can be used as a robot or as a tractor for different field operations that require a mechanical Power take-off (PTO), like rotary harrowing, flail mowing, etc. What could be offered through this equipment - Testing smart implements - Testing robot software framework implementations - Hardware-in-the-loop simulations Specifications - Vehicle configuration: Ackerman steering: Weight: , Max velocity: 30 km/h - Energy source (LiFePO4 nose battery, lead acid front battery): Voltage: 102 V, 92 V, Capacity: 6 kWh (nose battery), 13 kWh (front battery) - Transmission (electric/hydraulic): Nominal power: 27 kW, Gear ratio: Directly connected to the clutch plane - Hydraulics: Nominal power: 1.5 kW, RPM: 1800-3000, Pump size: Dual 10cc pump for independent steering and hitch control - Implement interface: Mounting: Rear three-point hitch cat. 2 (front hitch used for battery pack), Hydraulic couplers: 2 - Electric connectors: 12V , 24V, 48V, Power take-off (PTO): 3 gears Hyperlink Physical Services using this equipment None S00295 Crop Dataset Generation
41 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Equipment Name: Drones Owner of the Equipment: ILVO Facilities it is being used in - Testing Field - Lane Trees Type of Equipment Fixed X Movable Description Drones offer a range of applications in modern agriculture that enhance efficiency and precision. At ILVO, we utilize drones to create detailed task maps for variable spraying and fertilizing applications, ensuring optimal resource use and minimizing environmental impact. These aerial devices are also employed to locate crops and weeds, providing accurate data for targeted interventions. Additionally, drones play a crucial role in pest and disease monitoring, allowing for early detection and timely management. What could be offered through this equipment - Creating task maps for variable spraying and fertilizing operations - Early disease and pest detection - Provide precise information of individual crops Specifications - 2x DJI M600 - DJI Phantom 4 Pro V2 - DJI M350 - Phantom 4 integrated camera - Hyperspectral IMEC VNIR - Micasense Redegde MX Dual (10 bands) - Sony a6400 - Sony A7RIII - Thermal Workswell Wiris Pro - Soarability Sniffer 4d Mini2 (+CH4 en CO2) Hyperlink Physical Services using this equipment None S00295 Crop Dataset Generation S00308 Agri Drone Flight Operations S00309 Testing Integrated Agri Software
42 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Equipment Name: Hyperspectral Cameras Owner of the Equipment: ILVO Facilities it is being used in - Testing Field - Lane Trees - Hyperspectral Sensing Lab Type of Equipment Fixed X Movable Description Hyperspectral cameras allow you to see beyond the visible light spectrum, capturing detailed information across a wide range of wavelengths with high resolution. This enables precise analysis of materials based on their unique spectral signatures. What could be offered through this equipment - Quantity and quality estimation (e.g. meat, vegetable, fruit, wine parameters, soil quality, ...) - Classification of samples (classify species of minced meat, spices, quality classes, ...) Specifications - VNIR-SWIR high quality hyperspectral mobile spectrometer with different probes (Spectral Evolution PSR Plus) 350 nm to 2500 nm. - Contact probes, foodgrade probes, direct fibres, lenses for distance measurements, calibrated for irradation measurements - VNIR hyperspectral camera Specim FX10e, 400 to 1000 nm (Snapscan VNIR Imec backup) - VNIR-SWIR, NIR measurements lab (Foss XDS Rapid Content Analyser, Perkin Elmer FTIR LQA300 (liquids), Anaspec FTNIRS MB3600) - NIR hyperspectral camera Specim FX17e, 900 to 1700 nm Hyperlink Physical Services using this equipment None S00001 Hyperspectral measurements and analysis S00299 Field Spectrometer Measurements
43 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Equipment Name: Metalworking machines Owner of the Equipment: ILVO Facilities it is being used in - Mechanization and automation workshop Type of Equipment Fixed X Movable Description This equipment includes a variety of machines such as lathes, welding stations, bending, and milling machines. These tools are used for shaping, cutting, joining, and forming metal parts with precision, essential for fabrication, prototyping, and repair tasks. What could be offered through this equipment - Improve prototypes or other on-site designing - Install and prepare tests and experiments Specifications - Lathe conventional zmm c11m880 - Lathe prototrac slx425 - Milling machine Phoebus pbm4vs - Plate shearer Bftec 2260 - Bending lathe Bftec 2500x80t - Band saw crimac pro scp 420a - Column drills erlo tsar 40 - Column drills contimac tb18 - Welding machines semi-automatic rowac 150 HFP - Welding machines semi-automatic rowac sp 320S - Welding machines semi-automatic cea digistar 250 - Welding machines semi-automatic rowac 35p320 - Tig welder selco et400 - Punching machine metalcraft HLS65s - Profile bending machine metalcraft prm35F - Swing arm abus - Drill grinder farman fc-50N Hyperlink Physical Services using this equipment None Not yet declared
44 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Equipment Name: Multispectral Cameras Owner of the Equipment: ILVO Facilities it is being used in - Testing Field - Lane Trees - Hyperspectral Sensing Lab Type of Equipment Fixed X Movable Description Multispectral cameras capture data across a few distinct bands of the light spectrum, including both visible and nonvisible wavelengths. They are used for broader analysis, helping to differentiate materials based on their color and reflectance in specific wavelength ranges. What could be offered through this equipment - Quantity and quality estimation (e.g. meat, vegetable, fruit, wine parameters, soil quality, ...) - Classification of samples (classify species of minced meat, spices, quality classes, ...) Specifications Imec multispectral camera - Acquisition mode: snapshot 2x2 mosaic pattern - Wavelength range: RGB+NIR channels - Number of spectral bands: 4 channels - Spatial resolution: 1024x544 pixels (RAW per band) - Imager type CMOS imager: CMOSIS, CMV2000 based - Imager resolution: 2. Mpixels total - Frame rate: Up to 170fps (limited by USB3.0 camera interface) - Pixel pitch: 5.5μm - Bit depth: 8 and 10bit - Camera interface: USB3.0 - Camera dimensions: 26.4 x 26.4 x 21.6 mm - Camera weight: 27g without fore-optics Hyperlink Physical Services using this equipment None S00001 Hyperspectral measurements and analysis S00295 Crop Dataset Generation
45 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Equipment Name: Nozzle flow rate test bench Owner of the Equipment: ILVO Facilities it is being used in - Spray Tech Lab Type of Equipment X Fixed X Movable Description The nozzle flow rate test benches are used for a precise measurement of the flow rate of hydraulic nozzles at a given pressure. A stationary as well as a mobile test bench are available. What could be offered through this equipment Stationary nozzle test bench: - Very precise measurement of the flow rate of hydraulic nozzles - Reference nozzles to validate/calibrate mobile nozzle test benches - Quality control of new nozzles with respect to the nominal flow rate Mobile nozzle test bench: - Quick and precise measurement of the flow rate of large amount of hydraulic nozzles - Inspection of sprayers Specifications Stationary nozzle test bench - The measuring set-up and protocol fulfils the requirements set by ISO 5682-1 'Equipment for crop protection - Spraying equipment - Part 1: Test methods for sprayer nozzles‘ - Based on time measurement and weighing of sprayed water - Anti-mist tubes to avoid losses - Weighing accuracy ± 1 g on a minimum volume of 7000 g (= ± 0.015%) - Pressure accuracy ± 0.01 bar Mobile nozzle test bench - Flow rate measurement by means of an inductive flow meter - Flow meter calibrated with an accuracy of ± 0.15% - Pressure accuracy 0.01 bar Hyperlink Physical Services using this equipment None S00147 Evaluation of the performance of crop protection equipment
46 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Equipment Name: Refractometers Owner of the Equipment: ILVO Facilities it is being used in - Hyperspectral Sensing Lab Type of Equipment Fixed X Movable Description A refractometer is an optical device used to measure the refractive index of transparant substances, indicating their concentration and purity. In the hyperspectral sensing lab, it aids in building chemometric models and analyzing product quality. By measuring how light bends as it passes through a sample, the refractometer helps determine the composition of liquids and solids, such as sugar content in food products. This precise measurement is essential for ensuring consistent quality and optimizing production processes. What could be offered through this equipment - concentration and purity assessment of transparant mixtures Specifications - Spectral evolution PSR+ - 350-2500 nm spectral range - Spectral resolution: 2.8nm@700nm, 8nm@1500nm, 6nm@2100nm Hyperlink Physical Services using this equipment None S00001 Hyperspectral measurements and analysis
47 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Equipment Name: Spectrometers Owner of the Equipment: ILVO Facilities it is being used in - Testing Field - Hyperspectral Sensing Lab Type of Equipment Fixed X Movable Description The low-cost spectrometer provides a compact and affordable solution for measuring light across a range of wavelengths. It is ideal for basic spectral analysis in applications such as quality control and material identification. What could be offered through this equipment - Quantity and quality estimation (e.g. meat, vegetable, fruit, wine parameters, soil quality, ...) - Classification of samples (classify species of minced meat, spices, quality classes, ...) Specifications - Ultra-low stray light fiber optic UV/VIS/NIR spectrometer with replaceable slit - 2048 pixel/14x200 μm CMOS detector - grating UA (200-1100 nm) - DCL-UV/VIS-200 - OSC-U - USB3 powered, high speed USB3 and ETH interface - Includes Avasoft-Full and slit kit SMA (slit 25-RS preinstalled; 50, 100 and 200 μm in box) - Wavelength range: 200-1100 nm - Resolution: 0.05 –20 nm, depending on configuration (see table) - Stray-light: 0.06-0.19%, depending on the grating - Sensitivity: 310,000 counts/μW per ms integration time Hyperlink Physical Services using this equipment None S00001 Hyperspectral measurements and analysis S00295 Crop Dataset Generation
48 Infrastructure Name: TV115 Partner: ILVO Node/Satellite: BE Equipment Name: Spray Distribution Test Bench Owner of the Equipment: ILVO Facilities it is being used in - Spray Tech Lab Type of Equipment Fixed X Movable Description The spray distribution bench is used for a very precise measurement of a single nozzle or a short spray boom (up tot 3 m) at a given spray pressure, off set angle and height. What could be offered through this equipment - Measurement of spray distribution of a single nozzle - Measurement of spray distribution and coefficient of variation of short spray boom Specifications - The measuring set-up and protocol fulfils the requirements set by ISO 5682-1 'Equipment for crop protection - Spraying equipment - Part 1: Test methods for sprayer nozzles' Hyperlink Physical Services using this equipment None S00147 Evaluation of the performance of crop protection equipment
55 A. DTI Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Description The Danish Technological Institute (DTI, www.dti.dk) is an independent and non-profit private research and development institute. With a significant track record in advocating for the utilization of technological advancements, DTI has since 1906 focused on benefiting individual businesses and fostering the ongoing progress, expansion, and prosperity of society. A team of over 900 specialists collaborate to support both small and large enterprises in maintaining their competitiveness and fostering innovation. DTI's organizational structure includes five key divisions: Food & Production, Materials, Environmental Technology, Energy & Climate, and Building and Construction, encompassing a total of 40 specialized centers. Through its extensive engagement in publicly funded research endeavors, DTI demonstrates proficiency in projects of varying scales, from those requiring a few thousand euros to multimillion-euro initiatives. List of Facilities used in offered services - Test Fields Denmark - GrainLab
56 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Facility Name: Test Fields Denmark Owner of the Facility: DTI Location - Address: DTI, Agro Food Park 15, 8200 Aarhus N - GPS Coordinates: 56.203699, 10.149796 Type of Facility Fixed Reconfigurable Movable X Land Sectors being X Arable Tree Crops Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms Physical System Assessment Description The Danish Test Fields are located close to DTIs headquarter for the Center for Agriculture and Digitalization. Additional test fields can be made available upon request and DTI can provide both homogeneous and heterogeneous fields of varying soil types, topography and other relevant conditions. DTI has a lot of experience selecting and acquiring the right fields for specific trials. What could be offered through this facility? The Danish Test Fields can be used for demonstration and validation of AI models on e.g. biodiversity measurements, mapping soil heterogenicity and for operating drones and agricultural robots. List of Equipment Physical Services using this Facility DJI Matrice 350 RTK Not yet in catalogue DJI Zenmuse H20T (zoom and Thermal) DJI Zenmuse P1 (RGB 48 MP) Multispectral Micasense ALTUM DJI Matrice 210 RTK DJI Zenmuse X5S (RGB 20 MP) Multispectral Micasense RedEdge DJI Phantom 4 PRO Specim AFX10 hyperspectral camera Q.Fly (SWIR) camera RedEdge-P Dual Multispectral camera G2508 Osella Specialized trial sprayer EM38 GoProHero 7 Black x 2 Brinno TLC2000 FLIR GFx320
57 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Facility Name: GrainLab Owner of the Facility: DTI Location - Address: Agro Food Park 15, 8200 Aarhus N - GPS Coordinates: 56.200203, 10.158312 Type of Facility X Fixed Reconfigurable Movable Land Sectors being X Arable Tree Crops Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms Physical System Assessment Description The GrainLab is located at DTIs headquarter for the Center for Agriculture and Digitalization. In the grain laboratory seeds are handled and weighed for field trials, and grain and legumes are handled after harvest, where samples are cleaned and analyzed for various parameters, like purity, broken kernels, TKW, protein and water content. Soil and plant material samples are handled for further analysis. The GrainLab is fully coordinated with the barcode system connected to the field trials, securing complete traceability and automated data transferal for the Nordic field trials database. What could be offered through this facility? - Material handling for field trials (preand post-harvest) - Quality analysis of harvested crop samples List of Equipment Physical Services using this Facility VideoMeterLab 4.0 w. autofeeder Not yet in catalogue Lab scale equipment Agilent Technology 8890 FOSS Infratec NOVA
58 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: Matrice 350 RTK Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description The Matrice 350 RTK supports a single downward gimbal, dual downward gimbals, and a single upward gimbal, and can carry three payloads simultaneously. The aircraft also has an E-Port open interface and a max payload capacity of 2.7 kg, meeting the needs of different operation scenarios like public safety, inspection, and mapping. Matrice 350 RTK adopts DJI O3 Enterprise Transmission, which supports triple-channel 1080p HD live feeds, and a max transmission distance of 20 km. Both the aircraft and the remote controller have a four-antenna transceiver system, which can intelligently select the two optimal antennas to transmit signals, while the four antennas receive signals simultaneously. In this way, anti-interference capabilities are significantly improved, and transmission stability is optimized. Equipped with a 7-inch high-bright screen, DJI RC Plus supports Dual Operator Mode and comes with a standard WB37 external battery that offers an operating time of up to six hours, meeting various operation needs. What could be offered with this equipment? The drone can fly with various cameras – multispectral, hyperspectrals, thermal, rgb, etc. The drone can be used to acquire data sets, document tests and validations, can be used to test various precision technologies (e.g. spot spray precision test), and also validating robot safety systems. Specifications ‐ Max Flight time: 55 mins ‐ Proection rating: IP55 ‐ Max payload: 2.7 kg ‐ Max Flight Altitude: 7000 m ‐ Max Wind Speed Resistance: 12 m/s ‐ Operating Temperature: -20° to 50° C (-4° to 122° F) Hyperlink Physical Services using this equipment None Not yet in catalogue
59 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: DJI Zenmuse H20T (zoom and Thermal) Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description The Zenmuse X7 is a compact Super 35 camera with an integrated gimbal made for high-end filmmaking that delivers stunning resolution and image quality. A 24MP CMOS sensor rated at 14 stops of dynamic range preserves astonishing detail and offers both 6K CinemaDNG and 5.2K Apple ProRes with support for continuous RAW burst shooting at 20 fps and 24MP stills. The X7 also features the DL-Mount, the integrated aerial lens mount that allows switching between four available prime lenses quickly. For seamless editing, the DJI Cinema Color System preserves accurate colors for easier post-processing. These innovations allow filmmakers to reach excellent heights and capture scenes as they imagine them with the DJI Zenmuse X7. What could be offered with this equipment? The drone camera can be used to acquire data sets, benchmark datasets, document tests and validations, can be used to test various precision technologies, and also validating robot safety systems. Specifications ‐ Weight: Zenmuse H20T: 828±5 g ‐ Dimensions: Zenmuse H20T: 167×135×161 mm ‐ Ingress Protection Rating: IP44 ‐ Operating Temperature: -20° to 50° C (Temperature Measurement is only available between -10° to 50° C) ‐ Storage Temperature: -20° to 60° C ‐ Laser Safety: Class 1M (IEC 60825-1:2014) ‐ Supported Aircraft: Matrice 300 RTK Hyperlink Physical Services using this equipment None Not yet in catalogue
60 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: DJI Zenmuse P1 (RGB 48 MP) Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description The Zenmuse P1 integrates a full-frame sensor with interchangeable fixed-focus lenses on a 3-axis stabilized gimbal. Designed for photogrammetry flight missions, it takes efficiency and accuracy to an entirely new level. The Zenmuse P1 delivers impressive accuracy without the need for ground control points (GCPs), achieving horizontal accuracy of 3 cm and vertical accuracy of 5 cm. It also offers exceptional efficiency by covering up to 3 km22 in just one flight, making it ideal for large mapping tasks. With a 45 MP full-frame sensor and a 3-axis stabilized gimbal, the Zenmuse P1 ensures sharp and detailed images. The smart oblique capture feature enables efficient capture of oblique images for more comprehensive coverage. Additionally, the camera is equipped with a global mechanical shutter with a rapid shutter speed of 1/2000 second, ensuring clear images even at high speeds or under changing light conditions. With TimeSync 2.0, the Zenmuse P1 provides microsecond-level synchronization, ensuring precise data collection and coordination of multiple sensors or devices in the system. What could be offered with this equipment? The drone camera can be used to acquire data sets, benchmark datasets, document tests and validations, can be used to test various precision technologies, and also validating robot safety systems. Specifications - 48 MP Hyperlink Physical Services using this equipment None Not yet in catalogue
61 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: DJI Zenmuse X5S (RGB 20 MP) Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description The X5S is a professional camera with interchangeable MFT lenses, allowing you to, for example, attach a fixed 45mm telephoto lens or a 14-42mm optical zoom lens that can be controlled directly from the app. It offers fantastic video and image capabilities. What could be offered with this equipment? The drone camera can be used to acquire data sets, benchmark datasets, document tests and validations, can be used to test various precision technologies, and also validating robot safety systems. Specifications - The sensor can record up to 5.2K at 30 frames per second or 4K at 60 fps! - 20.8 MegaPixel still images. - 12.8 stops / 12-BIT RAW - 20 FPS continuous burst - MFT sensor (Micro Four Thirds) - compatible with, among others, zoom lenses! - Dynamic range of 12.8 stops - Supports CinemaDNG and ProRes formats (can be purchased separately or together) Hyperlink Physical Services using this equipment None Not yet in catalogue
62 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: DJI Matric 210 RK Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description The ultimate platform for aerial productivity combines a rugged design and simple configurability to work as a solution for a variety of industrial applications. Improvements to the M200 Series V2 enhance intelligent control systems, flight performance, and add flight safety and data security features. What could be offered with this equipment? The drone can be used to acquire data sets, document tests and validations, can be used to test various precision technologies (e.g. spot spray precision test), and also validating robot safety systems. Specifications - Remote control: 2.4 GHz - max. distance: 8 km - Max. Speed: 82,8 kilometer/hour - Functions: Obstacle avoidance system - Weight: 6140 g - Navigation: GPS/GLONASS-receiver Hyperlink Physical Services using this equipment None Not yet in catalogue
63 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: Multispectral Micasense ALTUM Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description The MicaSense Altum captures synchronized multispectral, thermal, and panchromatic data for pixel-aligned outputs at incredibly high resolutions. The capture of these bands happens simultaneously, eliminating the need for data alignment in post-processing. Altum is an optimized 3-in-1 solution for advanced remote sensing and agricultural research. More importantly, this sensor seamlessly integrates an ultra-high-resolution panchromatic imager, a new thermal imager that provides twice the ground resolution of the previous Altum. Also featured are five discrete spectral bands allowing plant-level applications such as early-stage stand counting. Altum also features a global shutter for distortion-free results, open APIs, and a new storage device allowing for up to 2 captures/second. What could be offered with this equipment? Datasets, benchmark datasets, validation, tests Specifications - Weight: 460 g (16.2 oz.) - Dimensions: 11.0 x 8.0 x 6.9 cm (4.3 in x 3.1 in x 2.7 in) - External Power: 7.0 V – 25.2 V - Power Input: 5.5/7.0/10W (standby, average, peak) - Sensor Resolution: 2064 x 1544 (3.2MP per MS band), 4112 x 3008 (12MP per PAN band), 320 × 256 thermal infrared Hyperlink Physical Services using this equipment None Not yet in catalogue
64 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: Multispectral Micasense RedEdge Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description The Micasense Redge Multispectral camera has 10 spectral bands for enhanced data comparison with satellites. It is a high-resolution multispectral and RGB composite drone sensor for plants classification, weeds identification, environmental research and conservation, and vegetation analysis of water bodies. The dual solution features the RedEdge-P and the new RedEdge-P Blue Cameras. Each of them has 5 spectral bands. The RedEdge-P blue is a robust multispectral sensor. It is a single-camera solution that captures calibrated multispectral and RGB images at high resolution, with optimized FOV and capture rate for efficient flights. The RedEdge-P is the rugged, powerful, high-quality multispectral sensor you can trust. It now features a highresolution panchromatic band for output resolutions of 2cm (at 60m), twice the ground resolution of RedEdge-MX, the industry standard. It is a single-camera solution that captures calibrated multispectral and RGB images at high resolution, with optimized FOV and capture rate for efficient flights. What could be offered with this equipment? Phenotype characteristics datasets and testing and validation of AI models. Specifications - RedEdge-P sensor Blue - DJI SkyPort mount - DLS 2 light sensor with embedded GPS - CRP2 Calibrated Reflectance Panel - USB - Wi-Fi dongle Hyperlink Physical Services using this equipment None Not yet in catalogue
71 Equipment Name: EM38 Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description The EM38 sensor is an instrument which measures the apparent soil conductivity - i.e. how well the soil can conduct electricity. EM38 mapping is done by pulling a sledge with the EM38 sensor after an ATV in parallel tracks across the field. By measuring the sensor position using a GPS, it is possible to obtain a large number of measurements and to produce a very detailed map of the apparent soil conductivity (clay content). This map is then used as an important basis for strategic soil sampling and correlation to geodata. What could be offered through this equipment Mapping soil heterogenicity in test fields to provide “ground truth” background data for geostatic Kriging Interpolation of EM38 leves in test fields, to be used in advanced data models. Hyperlink Physical Services using this equipment None Not yet in catalogue
72 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: GoProHero 7 Black x 2 Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description GoPro cameras are robust, can handle outdoor conditions, handle being shaken and movement, and can take both video, time laspe photos and various lighting conditions. Perfect for aquiring images in a farming environment. The cameras have rich meta data, including GPS (mobile quality) locations. DTI has 2 GoPro 7 Black cameras with various accesories for easy mounting. Cameras can be mounted in a variety of angles and positions for easy data acquisition. What could be offered through this equipment The cameras can be used to acquire data sets, benchmark data sets, document tests and validations, can be used to test various precision technologies (e.g. spot spray precision test), and also validating robot safety systems. Specifications - HyperSmooth: Get gimbal‑like stabilization—without the gimbal. HERO7 Black corrects for camera shake to deliver insanely smooth footage - TimeWarp: Capture super stabilized time lapse videos while you move about a scene. Increase the speed up to 30x to turn longer activities into shareable moments - Live streaming in 720p: Share while you’re there. Live stream in 720p on social, get HyperSmooth stabilization as you broadcast via the GoPro app and save footage to your SD card to check out later - Rugged + Waterproof: Share experiences you can’t capture with your phone. HERO7 Black is rugged, waterproof without a housing to 33 feet (10m) and up for any adventure - SuperPhoto: Get brilliant photos automatically. With SuperPhoto, HERO7 Black intelligently applies HDR, local tone mapping or noise reduction to optimize your shots - Voice control: Go hands-free with 16 voice commands like “GoPro, take a photo” and “GoPro, turn on.” Understands English (US, UK, AU and India), Chinese (Mandarin), French, German, Italian, Japanese, Korean, Portuguese (BR), Russian & Spanish (EU and NA) - 4K60 Video + 12MP Photos: HERO7 Black shoots stunning 4K60 video and 12MP photos that are as awesome as the moments themselves Hyperlink Physical Services using this equipment None Not yet in catalogue
73 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: Brinno TLC2000 Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description Compact in size, superb in battery management, and versatile in shooting modes, the 4th generation Brinno EMPOWER stands out among TLC camera family. With a simple push of a button, the neat all‐in‐one cam enhances its performance by improving HDR & FHD functions, and produces great video of spectacular resolution in any light situation. The powerful shooting schedule function allows you to flexibly set up video recording to meet various project demands. The newly added Stop Motion shooting mode makes it easy in capturing animated video for your artwork creation. Brinno EMPOWER is SIMPLE, POWERFUL & FLEXIBLE. It lowers the bar for time lapse lovers and empowers small business owners to effortlessly create their own video footages whenever they see fit. What could be offered through this equipment The camera can be used to acquire data sets, benchmark data sets, document tests and validations, can be used to test various precision technologies (e.g. spot spray precision test), and also validating robot safety systems. Specifications - Model NO. TLC2000 - Resolution 1080P - Aperture F2.0 - Focal Length 2.8 mm (Actual). 19 mm (35mm equivalent). - Field of View 118° - Capture Mode Time Lapse, Step Video, Stop Motion, Still Photo - LCD Screen 2" TFT LCD - Storage microSD/ microSDHC/ microSDXC (up to 128 GB, recommend a minimum of Class 10)*1 - Power Source 2 AA Batteries DC IN 5V 1A (USB-C connector) - Battery Life*2 Up to 17 hours at 3 sec interval. Up to 33 days at 5 min interval. - Operating Temperature 32°F ∼ 113°F(0°C ∼ 45°C) - Size (WxHxD) 2.4x 2.8x 1.7 in (60x 70.6x 42.4 mm) - Weight 3.0 oz(87.5 g) (without battery) Hyperlink Physical Services using this equipment None Not yet in catalogue Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK
74 Equipment Name: FLIR GFx320 Owner of the Equipment: DK Facilities it is being used in - Test Fields Denmark Type of Equipment Fixed X Movable Description The FLIR Gx320 is an innovative Optical Gas Imaging (OGI) camera designed to detect hydrocarbons, methane (CH₄), and other Volatile Organic Compound (VOC) emissions from multiple stages of the oil and gas supply chain, as well as other industrial markets. With up to 640 × 480 (307,200 pixels) thermal resolution, FLIR G-Series cameras have innovative gas quantification analytics that measure leak type and severity inside the camera, eliminating the need for a secondary device. While all models are OOOOa certified, the FLIR Gx320 and Gx620 are ATEX compliant, making these camera models ideal for detecting gas emissions in complex systems including refineries, petrochemical facilities, natural gas well pads, compression stations, and power generation plants. What could be offered with this equipment? Testing and validating AI-based emission models, test and validation of AI models that use thermal images (thermal imaging has been used to investigate plant defense mechanisms, detect plant stress, and assess symptom severity), and object detection in robot safety systems. Specifications - Superior gas visualization and quantification - Revolutionary gas leak-detection features including quantification analytics inside the camera which measures the type and size of leaks, eliminating the need for a secondary device - Record and report findings efficiently - Built-in Wi-Fi and Bluetooth® allow you to connect to smartphones or tablets and effortlessly edit and store images in the cloud, or wirelessly transfer files using the included FLIR Ignite™ cloud service - Ergonomic for comfortable operation - Comfortably operate and interact with your G-Series camera thanks to its rotating 10.16 cm (4 in) LCD touchscreen, which allows you view targets from any direction Hyperlink Physical Services using this equipment None Not yet in catalogue
75 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: VideoMeterLab 4.0 w. autofeeder Owner of the Equipment: DK Facilities it is being used in - GrainLab Type of Equipment X Fixed Movable Description A multispectral imaging and automated visual measurement system designed for fast and accurate determination of surface colour, texture, shape, size and chemical composition. The Autofeeder option allows pre‐built calibration models to be loaded and applied to larger sample sets for automated analysis and data creation. Based on the collected data and reference samples, we build statistical and machine learning‐based chemometric models to quantify key properties. What could be offered with this equipment? ‐ Creation of datasets ‐ ML models to predict traits and key properties ‐ Quality estimation: o Plant illness (e.g. fusarium) o Physical parameters (morphology, “worm holes”, broken kernels etc.) o Physiological Seed Quality (Tannins, phenols, waxes, pigments) ‐ Varity detection and purity ‐ Seed coat integrity ‐ Calibration of in‐field vision equipment Specifications VideometerLab 4 is a spectral imaging instrument designed for fast and accurate determi‐nation of color, texture, and chemical composition on surfaces up to 90*123 mm per image. The instrument is an easy‐to‐use system integrating illumination, camera, and computer technology with advanced digital image analysis and statistics. Using strobed LED technology VideometerLab 4 combines measurements at up to 20 different wavelengths into a single high‐resolution spectral image. Every pixel in the image is a reflectance spectrum and the instrument may include UV, visual, and NIR wavelengths. Hyperlink Physical Services using this equipment None Not yet in catalogue
76 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: Lab scale equipment Owner of the Equipment: DK Facilities it is being used in - GrainLab Type of Equipment X Fixed Movable Description 12 mesocosm chambers, that can be divided into smaller segments. Equipped with adjustable water supply and air flow. The system is equipped with adjustable growth lights. Each chamber measures 50 cm in height with a 30 cm diameter. System is designed to work with Picarro G2508 CRDS for concentration measurements of ammonia, methane, nitrous oxide and carbon dioxide. Each chamber is equipped with Tomst TMS‐4 soil measurement systems. Each chamber has a drain for collecting leachate. What could be offered with this equipment? ‐ Plant growth ‐ GHG emissions ‐ Ammonia emissions ‐ VOC emissions Specifications ‐ PVC/acrylic) Hyperlink Physical Services using this equipment None Not yet in catalogue
77 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: Agilent Technology 8890 Owner of the Equipment: DK Facilities it is being used in - GrainLab Type of Equipment X Fixed Movable Description DTI have two Agilent Technology 8890 GC analyzers for measuring methane, nitrous oxide and carbon dioxide in ppb levels. The two systems are in our lab facilities. Data is uploaded to our emission data platform where data is automatically processed and quality assured. What could be offered with this equipment? ‐ GHG concentration measurements Specifications ‐ Built‐in intelligence autonomously monitors the health of the system, alerts the user of potential issues before they affect chromatographic performance, and offers helpful step‐by‐step guides to resolve issues ‐ Unique sixth‐generation microchannel‐based EPC architecture provides a significant improvement in reliability and longevity against gas contaminants such as particulates, water, and oils, extending system uptime and the life of the instrument consumables ‐ Capillary Flow Technology (CFT) modules, which are oven mountable and very low thermal mass, provide unique gas flow connections for multidimensional gas chromatography (GC x GC/Deans Switch), comprehensive two‐dimensional gas chromatography (2D‐GC) with flow modulation, and backflush at the beginning, middle, or end of an analytical column ‐ Single‐filament thermal conductivity detector (TCD) does not require a separate reference gas or manual potentiometer adjustment, yet provides a stable baseline with a minimal amount of signal drift commonly seen with valve switching ‐ Autoranging flame ionization detector (FID) provides the ability to detect and quantitate from percent levels to parts per billion (ppb) in a single GC injection Hyperlink Physical Services using this equipment https://www.agilent.com/en/product/gas‐chromatography/gc‐ systems/8890‐gc‐ system?gad_source=1&gclid=Cj0KCQiAsOq6BhDuARIsAGQ4‐ ziFkgpLmNPzuKxCOtXw5KxaA0‐ uW7xsnCP8V7AyH8OqNGvZLmZfqz8aAmhmEALw_wcB&gclsrc=aw.ds Not yet in catalogue
78 Infrastructure Name: DTI infrastructure Partner: DTI Node/Satellite: DK Equipment Name: FOSS Infratec NOVA Owner of the Equipment: DK Facilities it is being used in - GrainLAb Type of Equipment X Fixed Movable Description Spectroscopic analysis ensures efficient grain testing with cutting edge technology. Based on a database comprising over 50,000 cross checked samples, Infratec™ NOVA offers outstanding accuracy and stability and the possibility to expand and develop new prediction models. Based on the collected NIR Transmittance data and reference sample information, we work with ANN (Artificial Neural Network) and statistical chemometric models to quantify key properties. DTI is part of the DAKOFO Infratec network in Denmark for seasonal ring testing to validate the calibrations. What could be offered with this equipment? ‐ Creation of datasets ‐ ML models to predict traits and key properties ‐ Quality estimations and validations Specifications Near Infrared measurements of grain have shown superior performance when measuring in transmittance mode instead of reflectance mode. Transmittance mode measurements are made in a lower wavelength range, 400 – 1050 nm, whereas the primary information for reflectance measurements is obtained between 1100 – 2500 nm. The higher energy level of the light in the lower range allows for deeper penetration into the kernels, so not only the surface but also the inner part of the kernel is measured. All of this allows a larger sample volume when transmittance is used, thereby giving a superior representation of the sample analysed. Hyperlink Physical Services using this equipment None Not yet in catalogue
79 V. French Node The French node is composed as follows: Infrastructures Facilities Main Equipments ARVALIS 2 4 7 CaPdL 1 5 4 IDELE 3 16 4 IFV 2 8 7 INRAE 1 5 6 INRIA 1 5 6 LNE 2 12 8 Total French Node 12 55 42 Global infrastructure composition It offers 55 facilities for AgrifoodTef Services delivery. Some information about French node facilities are given in the following figures. Facility: type distribution Sectors coverage Facility: cluster distribution Geographical distribution
80 A. ARVALIS Infrastructure Name: Boigneville Partner: ARVALIS Node/Satellite: FR Description ARVALIS Boigneville is an experimental station created in 1967. The Boigneville Scientific and Logistics Centre is a 150-hectare experimental site dedicated to advancing agricultural research and innovation. It includes 22 buildings, encompassing 17,000 m² of facilities with 6,000 m² dedicated to offices and laboratories. Core activities focus on digital farming, innovative cropping systems, agronomy, agricultural equipment, genetic innovations, and variety evaluation. The site also houses research on plant pathology, grain storage, and the valorization of cereals and potatoes, supported by statistical analysis, modeling, economic studies, and marketing initiatives. The Centre collaborates closely with local farmers, running localized trials to test and improve agricultural practices. List of Facilities used in offered services - 145ha of Trial area - Grain Storage Platform - Technological Quality Laboratory
87 Infrastructure Name: Ouzouer le Marché Partner: ARVALIS Node/Satellite: FR Description The experimental station is a specialized research infrastructure spanning 7.5 hectares of platform area and 2 hectares dedicated to experimental plots. Designed for agricultural and environmental research, it features 8 rolling roofs covering 5,000 m² of adaptable space, with 384 micro plots (both covered and rainfed) enabling diverse testing conditions. This station supports the phenotyping of up to 400 crop varieties annually and includes 16 irrigation carts and 32 distinct water conduits fed by 650 m³ of harvested rainwater, ensuring sustainable water usage. Equipped with 36 real-time soil moisture sensors and over 100 measurement points at various soil depths, it offers precise hydric management for trials. Located at 45 Voie Romaine, Ouzouer le Marché, 41240 Beauce la Romaine List of Facilities used in offered services - Phénofield Platform
88 Infrastructure Name: Ouzouer le Marché Partner: ARVALIS Node/Satellite: FR Facility Name: Phénofield Owner of the Facility: ARVALIS Location - Address: 45 Voie Romaine Ouzouer le Marché, 41240 BEAUCE LA ROMAINE - GPS Coordinates: Lat : 47.885701° - Long : 1.520741° Type of Facility Fixed X Reconfigurable Movable Land Sectors being X Arable Tree Crops Viticulture served Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System X Assessment Description PhénoField® is an advanced research platform developed by ARVALIS - Institut du Végétal to support sustainable agriculture by creating crop varieties, such as cereals and maize, adapted to climate change. As part of PHÉNOME, the French plant phenotyping network, PhénoField® integrates expertise across agronomy, plant physiology, robotics, and bioinformatics. With over 350 plant varieties studied annually, the platform can simulate 17 distinct climates and is equipped with cutting-edge technology: 2 lidars for 3D laser analysis, 6 continuous cameras, 4 spectroradiometers for leaf light reflection measurements, and 36 soil moisture probes across 100 data points. This high-tech setup generates hundreds of terabytes of data annually, enabling researchers to track plant growth, water use, and light absorption in detail. By identifying drought-resistant traits and their genetic markers, PhénoField® paves the way for the development of resilient crop varieties. What could be offered through this facility? - Detailed Plant Growth Monitoring - Water Use Efficiency Studies - Simulated Climate Trials - Big Data Analysis and Predictive Modeling for Crop Research List of Equipment Physical Services using this Facility RGB cameras S00159 Spectroradiometers LIDAR https://www.youtube.com/wat ch?v=hFhOlQGDLQM
89 Infrastructure Name: Ouzouer le Marché Partner: ARVALIS Node/Satellite: FR Equipment Name: Drone Owner of the Equipment: ARVALIS Facilities it is being used in - Phénofield Type of Equipment Fixed X Movable Description The DJI Mavic 2 Pro drone, equipped with an RGB camera, is used to capture high-resolution aerial images for analyzing key plant traits. The traits measured using the RGB camera on this drone include: - Plant Density: It assesses the number of plants in a given area, particularly for crops like maize and potato, helping monitor crop establishment and uniformity. - Plant Height: The drone's aerial perspective allows accurate measurements of plant height, useful for tracking growth stages and comparing different crop varieties. - Canopy Green Cover Fraction (fCover): This refers to the proportion of ground covered by green, photosynthetically active plant material, indicating plant health and canopy development. What could be offered through this equipment - Crop Growth Monitoring - Precision Agriculture and Field Management - Data-Driven Agricultural Decision Support Specifications - Image resolution: 5472 x 3648 pixels (approximately 20 megapixels) Hyperlink Physical Services using this equipment None S00159
90 Infrastructure Name: Ouzouer le Marché Partner: ARVALIS Node/Satellite: FR Equipment Name: Camera RGB Owner of the Equipment: ARVALIS Facilities it is being used in - Phénofield, Type of Equipment Fixed X Movable Description An RGB camera (Red, Green, Blue) captures images using three color channels—red, green, and blue—to provide detailed visual data. In agricultural phenotyping, RGB cameras are used to measure a variety of plant traits, including: - Canopy green cover fraction: The proportion of the canopy covered by green, photosynthetically active vegetation. - Canopy total senescent fraction: The percentage of the canopy that is non-green, indicating senescence or dying plant parts. - Green Area Index (GAI): A measure of the green leaf area relative to the ground area, useful for estimating plant growth and biomass. - Canopy total inclination angle: The average angle of the leaves in the canopy, which helps assess light interception and energy absorption efficiency. - Plant/Inflorescence number: The count of plants or flowering structures in the captured images, important for estimating yield potential. - Plant height (stereo): Using stereo vision, the camera can estimate the height of plants by comparing multiple images from different perspectives. These traits help researchers monitor plant growth, health, and productivity, and support breeding programs for improved crop varieties. What could be offered through this equipment - Plant Growth and Productivity Monitoring - Canopy and Light Interception Analysis - Precision Agriculture and Field Management Specifications - Image Resolution: 12 MP to 20 MP for capturing detailed images. Hyperlink Physical Services using this equipment None S00159
91 Infrastructure Name: Ouzouer le Marché Partner: ARVALIS Node/Satellite: FR Equipment Name: LIDAR Owner of the Equipment: ARVALIS Facilities it is being used in - Phénofield Type of Equipment Fixed X Movable Description A LiDAR (Light Detection and Ranging) system is used in plant phenotyping to precisely measure plant structural traits using laser-based technology. The key traits measured by LiDAR include: - Plant Height: LiDAR accurately captures the vertical growth of plants by measuring the distance between the sensor and the plant surface, providing detailed height data over time. - Leaf Area Index (LAI): This index represents the total leaf area per unit ground surface, crucial for assessing canopy density, light interception, and overall plant health. What could be offered through this equipment - Plant Growth and Structural Analysis - Canopy and Crop Density Assessment - Precision Agriculture and Field Management Specifications - 3D lidar Hyperlink Physical Services using this equipment None S00159
92 Infrastructure Name: Ouzouer le Marché Partner: ARVALIS Node/Satellite: FR Equipment Name: Spectroradiometer Owner of the Equipment: ARVALIS Facilities it is being used in - Phénofield Type of Equipment Fixed X Movable Description A spectroradiometer is a precise instrument used to measure the spectral reflectance of vegetation across different wavelengths. This data helps in evaluating various biochemical and physiological properties of plants. The key traits measured by a spectroradiometer include: - Vegetation indices: Derived from reflectance data, these indices help assess plant health and biochemical content. - Canopy total indices: These provide detailed information about the overall canopy. - CanopyTotal_ChlorophyllContent (CCC): Estimates the total chlorophyll content of the canopy, which is linked to photosynthetic capacity. - CanopyTotal_FIPARWhiteSky (fIPAR): Fraction of absorbed photosynthetically active radiation, important for understanding how much light is utilized by the canopy for growth. What could be offered through this equipment - Crop Growth and Productivity Analysis - Precision Fertilizer and Irrigation Management - Photosynthetic Efficiency Monitoring Specifications - Spectral Range (Wavelength Range): - Covers 350 nm to 1100 nm, which includes both visible (VIS) and Near-Infrared (NIR) regions. Hyperlink Physical Services using this equipment None S00159
93 B. CaPdl (Chambre d'Agriculture de Région des Pays de la Loire) Infrastructure Name: Derval Partner: CaPdL Node/Satellite: FR Description The DIGIFERME® of Derval is a 105-hectare experimental farm located 50 km north of Nantes (Pays de la Loire, France), specializing in milk production and milking. The herd comprises 85 Prim'Holsteins and 75 heifers, with an annual production of 700,000 liters of milk. Derval is a member of the Innovation Research and Development team of the Pays de la Loire Chamber of Agriculture, working with Idele (French Livestock Institute) and the F@rmXP network. As a Digiferme®, new technologies are a key area of interest for the Derval farm. Their use should help to improve the farmer's day-to-day life and guarantee optimized management of the dairy farm. Some examples tested on the farm: - Milk quality and energy consumption: Testing of a "new generation" low-energy consumption and connected milk cooling tank, as part of a project to enhance the value of the farm's energy data. - Monitoring the operating costs of technologies used on the farm: Detecting malfunctions in milking robots and optimizing them by monitoring connected water and electricity meters. - Pasture monitoring and management: Drones and virtual fencing are examples of technologies evaluated. - Milk analysis laboratory associated with a milking robot. - Animal behavior analysis: collars with integrated accelerometers, cameras for viewing the entire dairy cow barn and developing computer vision algorithms. - Testing of robots on field crops. List of Facilities used in offered services - Barn building - Cereal plots - Corn plots - Grassland plots - Milking research laboratory
94 Infrastructure Name: Derval Partner: CaPdL Node/Satellite: FR Facility Name: Barn building Owner of the Facility: CaPdL Location - Address: 15 LA TOUCHE 44590 DERVAL - GPS Coordinates: 47.69205720621333, - 1.6890095035391621 Type of Facility X Fixed Reconfigurable Movable Land Sectors being Arable Tree Crops Viticulture served Horticulture Food Processing X Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System Assessment Description This facility is composed of 2 pens, one 1000m² housing for milking cows with 85 places at the trough and one 800m² housing for heifers with 70 places at the trough. The cows are housed in a stall with cubicles on straw and an automatic scraper. What could be offered through this facility? This facility can offer services around data collection for algorithms training or test of physical systems for dairy cows and heifers. List of Equipment Physical Services using this Facility Cameras S00098 – Provision of datasets for AI training Milking robot S00099 – Livestock expertise Ambient sensors system S00100 – Data labeling Activity collars Water and electricity consumption monitoring system 5G antenna
95 Infrastructure Name: Derval Partner: CaPdL Node/Satellite: FR Facility Name: Cereal plots Owner of the Facility: CaPdL Location - Address: 15 LA TOUCHE 44590 DERVAL - GPS Coordinates: 47.69205720621333, 1.6890095035391621 Type of Facility Fixed Reconfigurable Movable X Land Sectors being X Arable Tree Crops Viticulture served Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System Assessment Description 15 hectares plot for cereal growing. Sowing around November and harvest in July. What could be offered through this facility? This facility can offer services around data collection for algorithms training or test of physical systems for cereal production. List of Equipment Physical Services using this Facility Water and electricity consumption monitoring system S00098 – Provision of datasets for AI training 5G antenna S00100 – Data labeling
96 Infrastructure Name: Derval Partner: CaPdL Node/Satellite: FR Facility Name: Corn plots Owner of the Facility: CaPdL Location - Address: 15 LA TOUCHE 44590 DERVAL - GPS Coordinates: 47.69205720621333, 1.6890095035391621 Type of Facility Fixed Reconfigurable Movable X Land Sectors being X Arable Tree Crops Viticulture served Horticulture Food Processing X Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System Assessment Description 32 hectares plot for silage corn growing. Sowing beginning of May and harvest in early September. What could be offered through this facility? This facility can offer services around data collection for algorithms training or test of physical systems for corn production. List of Equipment Physical Services using this Facility Water and electricity consumption monitoring system S00098 – Provision of datasets for AI training 5G antenna S00100 – Data labeling
199 Infrastructure Name: LoRaWAN Partner: FBK Node/Satellite: IT Description The FBK LoRaWAN infrastructure is created in order to develop a LoRa network in Trentino. In particular the scope is to develop smart agriculture solutions, test LoRa sensors in particular for measure soil moisture and finally through data training by AI algorithms perform some prediction about soil moisture trend during the season and how to perform a smart irrigation in order to save water and improve the crop production and quality. The infrastructure is based on different soil moisture sensors in particular tensiometers. Moreover in the infrastructure there are also some electronic valve in order to control the irrigation of crop. Based on soil moisture sensors, controlled irrigation valve and AI algorithms we are able to give right water to crop (vinegyard and apple) and in this way save water. List of Facilities used in offered services - Vineyard in Rovere della Luna - Apple orchards in Tres
200 Infrastructure Name: LoRaWAN Partner: FBK Node/Satellite: IT Facility Name: Apple orchards in Tres Owner of the Facility: FBK Location - Address: Tres, TRENTO, Italy - GPS Coordinates: 46.319422, 11.087791 Type of Facility X Fixed Reconfigurable Movable Land Sectors being Arable Tree Crops Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data AI & Robotics Algorithms Physical System Assessment Description In Tres the project focus on monitoring soil moisture in apple orchards. For this purpose tensiometer LoRaWAN are devices for measure the soil moisture. A tensiometer consists of a vacuum gauge connected by a tube to a porous ceramic tip. The tube is filled with water. The ceramic tip is permeable, and the water in the tube saturates it. The tip is placed in contact with the soil in the roots zone. Because the soil is normally not saturated, water is drawn from the tip into the soil. As water moves from the tube into the soil, a partial vacuum is created and measured by the gauge. This measurement is not a direct measurement of soil water content. Rather, it is a measurement of soil water tension (also called soil moisture tension). The level of pressure (tension) in the vacuum is an indication of the amount of energy needed by a plant to counter the strength with which the soil holds moisture and extract water from the soil. We installed in different fields for every measure point two tensiometer with different depth (30 cm and 60cm). In this way we are able to measure the effect of water/soil moisture at different depth in the soil. Through LoRa network we receive the soil moisture data from the sensors distributed in the field. Moreover with LoRAWAN valve we are able to control water irrigation based on soil moisture data from tensiometers processed by AI algorithms. With this data and their elaboration we are able to save water and make more efficient the irrigation process. What could be offered through this facility? - Real-time soil moisture monitoring at multiple depths - Data-driven irrigation management to optimize water usage - AI-based analysis for efficient irrigation scheduling - Reduction of water waste in apple orchards - Insights into soil moisture dynamics for precision agriculture List of Equipment Physical Services using this Facility LoRAWAN gateway S00123 LORAWAN tensiometers LORAWAN capacitive probe LoRAWAN flow meters LoRaWAN valve
201 Infrastructure Name: LoRaWAN Partner: FBK Node/Satellite: IT Facility Name: Vineyard in Rovere della Luna Owner of the Facility: FBK Location - Address: Rovere della Luna, TRENTO, Italy - GPS Coordinates: 46.248061, 11.169257 Type of Facility X Fixed Reconfigurable Movable Land Sectors being Arable Tree Crops X Viticulture served Horticulture Food Processing Livestock Farming Cluster being served X Data AI & Robotics Algorithms Physical System Assessment In Rovere della Luna the main focus is to perform a smart irrigation for vineyard. For this purpose tensiometer LoRaWAN are devices to measure the soil moisture. A tensiometer consists of a vacuum gauge connected by a tube to a porous ceramic tip. The tube is filled with water. The ceramic tip is permeable, and the water in the tube saturates it. The tip is placed in contact with the soil in the roots zone. Because the soil is normally not saturated, water is drawn from the tip into the soil. As water moves from the tube into the soil, a partial vacuum is created and measured by the gauge. This measurement is not a direct measurement of soil water content. Rather, it is a measurement of soil water tension (also called soil moisture tension). The level of pressure (tension) in the vacuum is an indication of the amount of energy needed by a plant to counter the strength with which the soil holds moisture and extract water from the soil. We installed in different fields for every measure point one tensiometer with 30 cm depth (roots depth). Through LoRa network we receive the soil moisture data from the sensors distributed in the field. With this data and their elaboration we are able to save water and make more efficient the irrigation process. What could be offered through this facility? - Real-time soil moisture monitoring in vineyards - Data-driven optimization of irrigation schedules - Water conservation through efficient irrigation management - Insights into soil moisture dynamics at root depth - Support for sustainable vineyard management practices List of Equipment Physical Services using this Facility LoRAWAN gateway S00123 LORAWAN tensiometers LORAWAN capacitive probe LoRAWAN flow meters LoRaWAN valve
202 Infrastructure Name: LoRaWAN Partner: FBK Node/Satellite: IT Equipment Name: LORAWAN capacitive probe Owner of the Equipment: FBK Facilities it is being used in - Vineyard in Rovere della Luna and Apple orchards in Tres Type of Equipment Fixed X Movable Description A LoRaWAN capacitive probe sensor is a soil moisture sensor that uses capacitive sensing technology to measure soil water content, transmitting the data over LoRaWAN (Long Range Wide Area Network). Capacitive soil moisture sensors are particularly useful in agriculture because they provide accurate, low-maintenance readings of soil moisture without direct contact with the soil's water content, as opposed to traditional resistive sensors which can corrode over time. What could be offered with this equipment? - Accurate, real-time soil moisture monitoring - Low-maintenance, long-term operation - Wireless data transmission for remote agricultural fields - Improved irrigation scheduling and water management - Enhanced crop health and yield through optimized soil moisture control Specifications - Range: 0-100% soil moisture (VWC) - Accuracy: ±3% to ±5% VWC - Resolution: 0.1% to 1% VWC - Technology: Capacitive Hyperlink Physical Services using this equipment https://agriotlab-it.fbk.eu/chi-siamo S00123
203 Infrastructure Name: LoRaWAN Partner: FBK Node/Satellite: IT Equipment Name: LoRAWAN flow meters Owner of the Equipment: FBK Facilities it is being used in - Vineyard in Rovere della Luna and Apple orchards in Tres Type of Equipment Fixed X Movable Description LoRaWAN flow meters are devices that measure the flow rate of fluids (such as water, oil, or gas) and use LoRaWAN technology to transmit the data over long distances. These meters are ideal for remote monitoring in applications like agriculture, industrial facilities, utilities, and smart cities, where continuous flow data is needed from dispersed locations. What could be offered with this equipment? - Remote monitoring of water usage in agriculture - Real-time flow rate data for efficient resource management - Leak detection and prevention in irrigation systems - Optimized fluid distribution in industrial and utility applications - Data-driven decision-making for smart city infrastructure Specifications - Types of Fluids: Compatible with water, oil, gas, and other liquids, depending on the model. - Measurement Range Water: 0.03 to 30 m³/h or higher - Measurement Range Gas: 0.5 to 50 m³/h or higher - Accuracy: ±1% to ±2% of the reading, depending on the model - Resolution: Typically 0.1 to 1 liter or similar unit based on fluid type Hyperlink Physical Services using this equipment https://agriotlab-it.fbk.eu/chi-siamo S00123
204 Infrastructure Name: LoRaWAN Partner: FBK Node/Satellite: IT Equipment Name: LORAWAN gateway Owner of the Equipment: FBK Facilities it is being used in - Vineyard in Rovere della Luna and Apple orchards in Tres Type of Equipment Fixed X Movable Description A LoRaWAN gateway is a critical component in a LoRaWAN network that serves as the bridge between LoRa-enabled devices (like sensors and meters) and the internet or a cloud server. These gateways receive data from LoRa devices and forward it to a centralized network server, enabling real-time monitoring and control of IoT devices over long distances with low power consumption. LoRaWAN gateways are ideal for applications in agriculture, smart cities, industrial automation, and environmental monitoring. What could be offered with this equipment? - Seamless connectivity for LoRa-enabled IoT devices - Real-time data transmission to cloud servers - Support for large-scale IoT deployments in agriculture and smart cities - Low-power, long-range communication for remote monitoring - Centralized control and monitoring of distributed sensors and devices Specifications - Supported Bands: 868 MHz (Europe), 915 MHz (North America), 923 MHz (Asia), or others depending on region - Multi-Channel Support: Typically 8-16 channels to support simultaneous communication with multiple devices - Adaptive Data Rate (ADR): Automatically adjusts data rate for optimal range and battery life for end devices - Range: Up to 10-15 km in rural/open areas; 2-5 km in urban areas, depending on obstacles and environment - Antenna Gain: Often 3-5 dBi for better range, with options for external antennas for extended reach - Multi-Channel Capability: Supports high device density, making it suitable for large-scale IoT deployments Hyperlink Physical Services using this equipment https://agriotlab-it.fbk.eu/chi-siamo S00123
205 Infrastructure Name: LoRaWAN Partner: FBK Node/Satellite: IT Equipment Name: LORAWAN tensiometers Owner of the Equipment: FBK Facilities it is being used in - Vineyard in Rovere della Luna and Apple orchards in Tres Type of Equipment Fixed X Movable Description LoRaWAN tensiometers are soil moisture sensors that measure soil water tension, providing valuable information for agricultural irrigation management. Unlike standard moisture sensors, tensiometers specifically gauge how hard plants have to work to extract water from the soil. This data, transmitted via LoRaWAN, helps farmers and agronomists make precise irrigation decisions to optimize water use and improve crop health. What could be offered with this equipment? - Precise soil moisture tension monitoring for optimized irrigation - Real-time data for efficient water usage and conservation - Enhanced crop health through data-driven irrigation decisions - Remote monitoring of soil conditions in agricultural fields - Improved irrigation scheduling based on plant water extraction needs Specifications - Water Tension Range: Typically 0 to -100 kPa (kilopascals), though some advanced models measure up to -200 kPa - Accuracy: ±1 to ±2 kPa within a typical range; accuracy may vary at high tension levels - Resolution: 0.1 kPa, providing detailed measurements for precision irrigation - Sensor Type: Ceramic tip or porous cup, which interacts with the soil to measure tension Hyperlink Physical Services using this equipment https://agriotlab-it.fbk.eu/chi-siamo S00123
206 Infrastructure Name: LoRaWAN Partner: FBK Node/Satellite: IT Equipment Name: LORAWAN valve Owner of the Equipment: FBK Facilities it is being used in - Vineyard in Rovere della Luna and Apple orchards in Tres Type of Equipment Fixed X Movable Description A LoRaWAN-enabled valve for irrigation control is an IoT-based device that allows for remote management of water flow in agricultural, landscaping, and environmental applications. With LoRaWAN connectivity, these valves enable long-range, low-power control over irrigation systems, optimizing water usage and allowing for automated or ondemand irrigation from a central management platform. What could be offered with this equipment? - Remote control of irrigation systems for efficient water management - Automated or on-demand irrigation based on real-time data - Long-range, low-power connectivity for large-scale agricultural operations - Optimization of water usage and resource conservation - Centralized irrigation management for precision farming and landscaping Specifications - Valve Types: Common types include solenoid valves (electric), ball valves, and diaphragm valves, each suited for different pressure and flow requirements. - Sizes: Typically available in standard irrigation pipe sizes (e.g., 1/2", 3/4", 1", and larger for commercial farms) - Flow Rate: Depends on the valve size and type, often ranging from low-flow for drip irrigation to high-flow for sprinklers and large agricultural fields Hyperlink Physical Services using this equipment https://agriotlab-it.fbk.eu/chi-siamo S00123
207 B. FEM Infrastructure Name: Campus Partner: FEM Node/Satellite: IT Description Fondazione Edmund Mach (FEM) is an international research center, a technical and vocational agricultural school and a technology transfer center that carries out service and consulting activities in the area. It has an experimental farm with plots located in various locations throughout the province, expanding the possibilities for research, experimentation and teaching. FEM has been operating for 150 years to support agriculture and the environment of the territory while trying to meet new challenges. The campus consists of a 14-hectare area in San Michele all'Adige, equipped with laboratories, greenhouses, and classrooms, plus 120 hectares of cultivated land and 65 hectares of forest and meadow. List of Facilities used in offered services - Smart vineyard - Aquaculture & Hydrobiology - Grapevine collections - Microvinification cellar
208 Infrastructure Name: Campus Partner: FEM Node/Satellite: IT Facility Name: Smart Vineyard Owner of the Facility: FEM Location - Address: Via E. Mach 1, 38098 S. Michele all'Adige (TN), Italy - GPS Coordinates: 11.137370, 46.192470 Type of Facility Fixed X Reconfigurable Movable X Land Sectors being Arable Tree Crops X Viticulture served Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System Assessment Description In 2021, an experimental vineyard dedicated to precision agriculture was built within the campus of the Fondazione Edmund Mach at the “Molini” location, which will host innovative research and experimentation activities in the field of digital agriculture in the coming years. The vineyard 4.0 was developed to facilitate installation, powering and data transmission by prototypes developed both by FEM and by national or international companies and research organizations. It features grid connection, low-voltage power lines, WiFi and LoRaWAN coverage for receiving information via long-distance radio signals from soil, plant and environmental data collection and transmission systems. Since no photovoltaic panels, batteries or modems are required, the size and consequently the footprint of the acquisition systems are very small. This minimizes their impact on the daily crop management. What could be offered through this facility? - Field testing of IoT solutions - Monitoring fruit and crop development - Mapping soil characteristics - Comparison of low cost sensors against research-grade - Field testing of proximal sensing technologies aboard mobile systems (i.e. UAV, robots) - Assessment of plant physiology traits - Field testing of remote sensing technologies (i.e. MODIS, Sentinel data) for the assessment of plant physiology traits (canopy temperature, vigour). List of Equipment Physical Services using this Facility WiFi and LoRaWAN coverage for data/images transmission S00118 Co-designing tools, e.g., image analysis tool for quantitative field phenotyping (phenology, crop production) - Low voltage (12V DC) power lines S00119 Testing of sensor technology (irrigation scheduling) - Researech grade weather station S00120 Testing of proximal sensing technology (spectral indices) - Dronelab Hexacopter HYPERION M4 S00121 Testing of remote sensing technology (spectral indices) - RTK-GPS ground station https://www.youtube.com/watch?v=fIGjbHEjhec&ab_channel=FondazioneEdmundMach
215 Infrastructure Name: Campus Partner: FEM Node/Satellite: IT Equipment Name: Weather station Owner of the Equipment: FEM Facilities it is being used in - Smart vineyard Type of Equipment Fixed X Movable Description A scientific grade weather station provide data for the assessment of low cost IoT sensors in the field. What could be offered with this equipment? - Data for accuracy assessment of low cost IoT solutions Specifications - CNR4 net radiometer Kipp&Zonen - MP100 termohygrometer Rotronic - ARG100 tipping bucket raingauge EML - CS105T soil temperature probes Campbell Scientific - 253 soil water potential probes Watermark - CS616 TDR Campbell Scientific - Blackglobe-L Campbell Scientific - CR1000 micrologger Campbell Scientific - AM25T multiplexer Campbell Scientific - AM16/32 multiplexer Campbell Scientific Hyperlink Physical Services using this equipment https://www.campbellsci.com/automatedweather-stations S00118 Co-designing tools, e.g., image analysis tool for quantitative field phenotyping (phenology, crop production) S00119 Testing of sensor technology (irrigation scheduling) S00120 Testing of proximal sensing technology (spectral indices) S00121 Testing of remote sensing technology (spectral indices)
216 C. POLIMI Infrastructure Name: AIRLab Partner: POLIMI Node/Satellite: IT Description Politecnico di Milano, founded in 1863, is one of the leading technical universities in Europe. AIRLab is a longestablished (1974) laboratory and research group within Politecnico di Milano. AIRLab researchers work on theoretical and applied research across a wide and diverse range of topics involving artificial intelligence, machine perception, autonomous mobile robotics, human-robot interaction. AIRLab devotes special attention to innovation in agricultural processes using AI and robotics, in close collaboration with with agronomists and experts in agricultural machinery. The deep expertise of AIRLab in benchmarking autonomous robot systems led to the development of methodologies and techniques for quantitative field testing of advanced agricultural machines. More generally, AIRLab has the expertise to design and build from scratch the hardware and software of robots tailored to specific applications, and has an internal mechanical workshop. AIRLab software is always developed in-house. Advanced competencies in custom electronics and mechatronics are available to AIRLab via its spin-off company Nova Labs. Hardware available to AIRLab includes many mobile robot platforms (ground-based and aerial; indoor and outdoor; wheeled, tracked, legged, omni-wheeled) and a large number of sensor devices of different types. The range of available camera sensors (vision, vision+depth, stereo, NIR, multispectral, event-based) and LiDAR sensors (singleplane, multiple-plane up to 64, dome) is especially wide. AIRLab computing infrastructure includes devices integrable on board of mobile robots and specialised servers for AI training. List of Facilities used in offered services - AIRLab robot development and testing facility at POLIMI Leonardo Campus - HPC server cluster for development and testing of AI and Machine Learning systems - [in collaboration with Università di Milano] test fields, orchards and greenhouses for field testing - [in collaboration with Università di Milano] agricultural machinery for integration of AI/robotics systems
217 Infrastructure Name: AIRLab Partner: POLIMI Node/Satellite: IT Facility Name: AIRLab Robot Development and Testing Facility Owner of the Facility: POLIMI Location - Address: Leonardo Campus of Politecnico di Milano, piazza Leonardo da Vinci 32, Building 7, 20133 Milano, Italy - GPS Coordinates: 45.47808649735106, 9.229433199999999 Type of Facility X Fixed Reconfigurable Movable Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture X Food Processing X Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System X Assessment Description Politecnico di Milano's Artificial Intelligence and Robotics Laboratory builds and tests robots at this facility. The facility includes a mechanical workshop, an extensive range of robot platforms and hardware (e.g., sensors) and a 200 m^3 motion capture volume. A close collaboration with Università degli Studi di Milano allows AIRLab to test robot systems for agricultural applications in fields, orchards and greenhouses. What could be offered through this facility? - expertise in the design, development, realisation of systems involving AI, machine perception, autonomous robotics - experimental validation of AI and robotic systems - quantitative benchmarking of hardware and software systems List of Equipment Physical Services using this Facility Medium-size robot for agricultural applications Not yet in catalogue Small-size robot for agricultural applications Multispectral drone Agri-specific sensors Total station Integrated localization system
218 Infrastructure Name: AIRLab Partner: POLIMI Node/Satellite: IT Facility Name: AIRLab HPC server cluster Owner of the Facility: POLIMI Location - Address: Politecnico di Milano, Department of Electronics, Information and Bioengineering, via Ponzio 34/5, 20133 Milano, Italy - GPS Coordinates: (45.47874370505066, 9.23247253558196) Type of Facility X Fixed X Reconfigurable Movable Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture X Food Processing X Livestock Farming Cluster being served X Data X AI & Robotics Algorithms Physical System X Assessment Description HPC mini-cluster for AI / machine learning applications comprising 4 servers with 24 GPUs overall and a NAS. The cluster is installed in a climate-controlled server room; power is distributed via industrial UPS units. What could be offered through this facility? - expertise in the design, development, realisation of AI algorithms - training of machine learning systems - quantitative benchmarking of AI software - data analysis and augmentation List of Equipment Physical Services using this Facility Modular cluster comprising servers, NAS and associated equipment. Not yet in catalogue
219 Infrastructure Name: AIRLab Partner: POLIMI Node/Satellite: IT Equipment Name: agri-specific sensors Owner of the Equipment: POLIMI Facilities it is being used in - AIRLab Robot Development and Testing Type of Equipment Fixed X Movable Description The following is a list of sensors available to Politecnico di Milano that are particularly suitable for agri-related operations. It does not include sensors which are not specifically tied to agri-related applications (e.g., RGB and RGBD cameras, multiand single-plane LiDARs, IMUs, ...). What could be offered with this equipment? - Data collection Specifications Multispectral cameras - visible light: Photonfocus MV1-D2048x1088-HS03-96-G2-10 (16 bands, 470nm to 630nm) - infrared light: Photonfocus MV1-D2048x1088-HS02-96-G2 (16 bands, 665nm to 975nm) Near Infrared cameras - visible + near infrared camera: Basler acA2000-50gm NIR RTK GPS system composed of: - Emlid Reach RS2+ base station - Emlid Reach M2 mobile RTK receiver - Emlid Reach M+/M2 LoRa radio Hyperlink Physical Services using this equipment https://www.photonfocus.com/products/camerafinder/camera/mv1d2048x1088-96-g2/ Not yet in catalogue https://www.baslerweb.com/en/products/#hardware https://eu.store.emlid.com/products/reachm2-uav-rtkkit?variant=40619803967570
220 Infrastructure Name: AIRLab Partner: POLIMI Node/Satellite: IT Equipment Name: Fixposition Vision RTK-2 Owner of the Equipment: POLIMI Facilities it is being used in - AIRLab Robot Development and Testing Type of Equipment Fixed X Movable Description Absolute localisation system based on sensor fusion. Additional sensors are used to overcome the limitations of RTK GPS localisation, i.e. loss of RTK fix or even signal due to obstacles (e.g.: under trees, indoor). It provides an input for a wheel odometry signal (via UART, ethernet or CAN) coming from the robot base supporting the Fixposition system. The Fixposition system incorporates a ROS interface and a mounting infrastructure fitted with dual RTK GNSS antennas. These features mean that it is ready to be integrated into every one of Politecnico di Milano's robots to prepare services requiring robust localization. What could be offered with this equipment? - Robust localization Specifications Vision-RTK 2 incorporates the following sensors: - 2x Multi-band RTK GNSS Receiver - Camera - Accelerometer - Gyroscope Hyperlink Physical Services using this equipment https://www.fixposition.com/pages/ourproduct?srsltid=AfmBOorjdt4SD9iiFmLNaEEggzTZKccR1bdllu1mp73N4smREcRaYed_ Not yet in catalogue
221 Infrastructure Name: AIRLab Partner: POLIMI Node/Satellite: IT Equipment Name: Medium-size modular robot for field data collection Owner of the Equipment: POLIMI Facilities it is being used in - AIRLab Robot Development and Testing Type of Equipment Fixed X Movable Description Custom-built medium-size modular robot built upon an AgileX Scout 2.0 skid-steering platform, adaptable to multiple scenarios. The robot is capable of fully autonomous navigation; it can also be remotely controlled if required. Every element of the robot except for the AgileX platform is fully modular, including the frame and the power supply infrastructure. This allows the robot to be configured to comply with the requirements of the specific activity to be performed. Modularity extends to the software, which is custom-based and based on the ROS 2 middleware. What could be offered with this equipment? - Data collection Specifications - 1x LiDAR, vertical plane [ Sick LMS-100 ] - 1x horizontal 64-plane LiDAR [ Ouster OS1-64 ] - 2x RGB+Depth cameras [ Intel D435i ] - 2x IMU [ embedded in Intel D435i ] - 1x stereo camera [ Intel T265 ] - 1x RTK GPS system [ Emlid Reach RS2+ base station, Reach M+/M2 LoRa radio, Reach M2 mobile RTK receiver - 1x 16-band multispectral camera, visible [ Photonfocus MV1-D2048x1088-HS03-96-G2-10 (470nm to 630nm) ] - 1x 16-band multispectral camera, infrared [ Photonfocus MV1-D2048x1088-HS02-96-G2 (665nm to 975nm) - 1x visible + near infrared camera [ Basler acA2000-50gm NIR ] - 1x RGB camera [ Basler acA2000-50gc ] - onboard networking (LAN + WLAN) - computing system [ x86 with optional additional Nvidia Jetson, Raspberry Pi specialised modules ] - software system [ custom, written in C++ and Python, based on ROS 2 ] Hyperlink Physical Services using this equipment None Not yet in catalogue
222 Infrastructure Name: AIRLab Partner: POLIMI Node/Satellite: IT Equipment Name: DJI Mavic 3 Multispectral Owner of the Equipment: POLIMI Facilities it is being used in - AIRLab Robot Development and Testing Type of Equipment Fixed X Movable Description The DJI Mavic 3 Multispectral is a remote-control 4-propeller drone equipped with cameras covering the visible spectrum as well as 4 agri-specific light bands. The drone also provides onboard computation of NDVI (Normalized Difference Vegetation Index). What could be offered with this equipment? - data acquisition in agricultural applications Specifications The 4 agri-specific bands are: - Green (G): 560 ± 16 nm - Red (R): 650 ± 16 nm - Red Edge (RE): 730 ± 16 nm; - Near Infrared (NIR): 860 nm ± 26 nm Hyperlink Physical Services using this equipment https://ag.dji.com/it/mavic-3-m Not yet in catalogue
223 Infrastructure Name: AIRLab Partner: POLIMI Node/Satellite: IT Equipment Name: Small-size modular robot for field data collection Owner of the Equipment: POLIMI Facilities it is being used in - AIRLab Robot Development and Testing Type of Equipment Fixed X Movable Description Small-size modular robot built upon a custom platform, adaptable to multiple scenarios. The robot platform has 4 independently powered and steered wheels, allowing fully flexible omni-directional motion. Wheels are heavily tasseled and suitable for field activity. The robot is capable of fully autonomous navigation; it can also be remotely controlled if required. This robot has been designed for field operations with a light-to-medium payload. The robot can be fitted with a modular external frame to support any compatible configuration of devices, allowing the robot to be adapted to the specific activity to be performed. Modularity extends to the software, which is custom-based and based on the ROS 2 middleware. What could be offered with this equipment? - data collection applications Specifications - 1x 32-plane LiDAR [ Velodyne HDL-32 ] - 2x 1-plane LiDAR [Sick TiM 561] - 1x stereo camera [ Luxonics OAK D Pro ] - 1x x86 general-purpose computing platform [ Intel i7 NUC ] - 1x specialised platform [ Nvidia Jetson Orin ] Hyperlink Physical Services using this equipment None Not yet in catalogue
224 Infrastructure Name: AIRLab Partner: POLIMI Node/Satellite: IT Equipment Name: Leica Nova MS60 Multistation Owner of the Equipment: POLIMI Facilities it is being used in - AIRLab Robot Development and Testing Type of Equipment Fixed X Movable Description The Leica Nova MS60 is a surveying total station with additional functionalities, including GNSS connectivity. Among the capabilities of this system, Politecnico di Milano leverages its ability to precisely measure the position of a reflector device. By mounting the reflector on board a robot or other mobile machine (e.g.: tractor, implement, ...), the machine can be accurately tracked over time. This allows Politecnico di Milano to provide a precise and reliable evaluation of the capability of the machine to accurately reach given locations and/or follow predefined trajectories. Additionally, the total station can be used to precisely measure and record the location of significant items in the environment (e.g., individual plants as they emerge from the ground). By comparing the recorded trajectory of a machine or part of a machine with such recorded locations, it is possible to measure the geometric precision with which the device moves with respect to the elements of its environment. What could be offered with this equipment? - precisely measure and track the position of a reflector device Specifications https://leica-geosystems.com/en-gb/products/total-stations/multistation/leica-nova-ms60 Hyperlink Physical Services using this equipment https://leica-geosystems.com/en-gb/products/totalstations/multistation/leica-nova-ms60 Not yet in catalogue
231 Infrastructure Name : Az. Agr. Cascina Baciocca Partner: UNIMI Node/Satellite: IT Facility Name: Soil Quality Analysis Laboratory Owner of the Facility: UNIMI Location - Address: Via Cascina Baciocca, Cornaredo, Milan, Italy - GPS Coordinates: 45.502709, 9.015912 Type of Facility X Fixed Reconfigurable Movable X Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System X Assessment Description An equipped laboratory for performing common measurements, including moisture, dry matter, and other essential analyses to assess soil quality and optimize agricultural practices. What could be offered through this facility? This laboratory is available for simple soil analyses, such as determining moisture and dry matter content. These measurements provide valuable insights into soil quality, enabling farmers to make informed decisions to enhance crop yields and implement more sustainable agronomic practices. The laboratory also offers the possibility of testing samples taken directly from the field, contributing to more effective management of agricultural resources. List of Equipment Physical Services using this Facility Soil Analysis Equipment Not yet in catalogue
232 Infrastructure Name : Az. Agr. Cascina Baciocca Partner: UNIMI Node/Satellite: IT Facility Name: Tilting platform 4x6m Owner of the Facility: UNIMI Location - Address: Via Cascina Baciocca, Cornaredo, Milan, Italy - GPS Coordinates: 45.502709, 9.015912 Type of Facility X Fixed Reconfigurable Movable Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture Food Processing X Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System X Assessment Description An inclined test bench platform designed to test and measure vehicle stability, allowing the evaluation of performance on various slopes and terrain conditions What could be offered through this facility? This facility provides the opportunity to conduct in-depth tests on the stability of agricultural vehicles under varying conditions. Farmers and equipment manufacturers can utilize the platform to simulate real working situations, analyzing vehicle behavior on sloped and uneven terrains. The results of these tests can provide valuable insights for improving vehicle design and optimizing operational practices, thereby ensuring enhanced safety and performance in the field. List of Equipment Physical Services using this Facility Inclinometer Not yet in catalogue
233 Infrastructure Name : Az. Agr. Cascina Baciocca Partner: UNIMI Node/Satellite: IT Facility Name: Tractor ROPS Testing Laboratory Owner of the Facility: UNIMI Location - Address: Via Cascina Baciocca, Cornaredo, Milan, Italy - GPS Coordinates: 45.502709, 9.015912 Type of Facility X Fixed Reconfigurable Movable X Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture Food Processing X Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System X Assessment Description A specialized and equipped laboratory for conducting resistance tests on agricultural vehicle protection structures, to ensure their effectiveness and durability under various environmental and stressful conditions. What could be offered through this facility? This laboratory is available to conduct comprehensive resistance tests on ROPS (Roll-Over Protective Structures) and other protective structures for tractors and agricultural machinery. Farmers and equipment manufacturers can benefit from specific tests that simulate real-world usage conditions, allowing for the evaluation of the safety and reliability of protection structures. Additionally, the laboratory offers Assessment services to optimize the design of these structures, thereby enhancing operator safety and reducing the risk of workplace accidents. List of Equipment Physical Services using this Facility load cells Not yet in catalogue
234 Infrastructure Name: Az. Agr. Cascina Baciocca Partner: UNIMI Node/Satellite: IT Equipment Name: Greenhouse Robot Owner of the Equipment: UNIMI Facilities it is being used in: ‐ Greenhouse Type of Equipment Fixed X Movable Description The greenhouse robot is an automated device designed to operate within controlled environments such as agricultural greenhouses. This type of robot can perform a variety of tasks, including planting, pruning, harvesting, and irrigating crops. Equipped with sensors, cameras, and manipulative arms, the greenhouse robot optimizes crop management, enhances operational efficiency, and reduces manual labor, contributing to more uniform growth and increased plant productivity What could be offered with this equipment? This robot provides a valuable tool for improving crop management in greenhouses, offering advanced solutions to reduce labor requirements, increase efficiency, and optimize productivity outcomes. It is particularly beneficial for experimenting with new cultivation techniques, evaluating the effectiveness of automation strategies, and conducting comparative benchmarks on yields, crop quality, and environmental impact. Specifications The greenhouse robot features a combination of precision sensors, high-resolution cameras, and advanced robotic arms equipped with manipulators designed for precise and safe operations. It is programmable to accommodate diverse agronomic needs, such as irrigation adjustments, optimized harvesting, and continuous monitoring of plant conditions. This equipment is available for testing and benchmarking, providing an ideal platform for researchers and developers to trial and refine technological solutions in controlled environments. Hyperlink Physical Services using this equipment None Not yet in catalogue
235 Infrastructure Name : Az. Agr. Cascina Baciocca Partner: UNIMI Node/Satellite: IT Equipment Name: Soil Analysis Equipment Owner of the Equipment: UNIMI Facilities it is being used in: - Soil Quality Laboratory Type of Equipment Fixed X Movable Description This set of instruments is essential for soil analysis, particularly for measuring granulation and moisture content. The set of sieves allows for the separation of soil particles based on size, facilitating an understanding of soil composition. The sieve shaker is a mechanical device that ensures uniform and efficient sieving, reducing analysis time. The drying oven is used to remove moisture from soil samples at controlled temperatures, enabling accurate measurements of moisture content. The analytical balance provides high precision, which is essential for weighing samples and ensuring the reliability of results. Finally, pipettes and graduated cylinders are used to measure precise volumes of liquids, which are fundamental in chemical analyses and for preparing solutions What could be offered with this equipment? These tools allow for detailed and accurate analysis of soil granulation and moisture, which are crucial for various purposes, such as precision agriculture, water resource management, and soil quality assessment. The ability to classify particle fractions enables agronomists and researchers to better understand soil characteristics, thus optimizing agricultural practices and improving crop yields. Additionally, the accuracy of moisture measurements is vital for effectively managing irrigation and monitoring soil health Specifications - Set of Sieves: Includes sieves ranging from 0.063 mm to 10 mm, made of stainless steel to ensure durability and longevity. Each sieve is designed for easy cleaning and maintenance. - Sieve Shaker: A device with a sturdy base and electric motor for efficient sieving. It can be programmed for different durations and intensities, depending on the analysis needs. - Drying Oven: Equipped with a temperature control system up to 105°C and ventilation to ensure even heat distribution. The oven is designed to be user-friendly and safe, with alert systems for high temperatures. - Analytical Balance: Capacity up to 200 g with an accuracy of 0.0001 g, ideal for precise measurements. The balance is equipped with a digital display for easy reading of results. - Pipettes and Graduated Cylinders: Pipettes with capacities of 1 ml, 5 ml, and 10 ml, and graduated cylinders with capacities of 100 ml, 250 ml, and 500 ml, made of glass or plastic. These tools are designed to ensure accurate and repeatable measurements during sample and solution preparations. Hyperlink Physical Services using this equipment None Not yet in catalogue
236 Infrastructure Name: Az. Agr. Cascina Baciocca Partner: UNIMI Node/Satellite: IT Equipment Name: Load cells Owner of the Equipment: UNIMI Facilities it is being used in: ‐ Tractor ROPS Testing Laboratory Type of Equipment Fixed X Movable Description Load cells are measurement devices used to convert a force or weight into an electrical signal. Common in many industrial and commercial applications, load cells are designed to provide precise and reliable measurements that are essential for ensuring product quality and safety. They can be used in weighing systems, force testing, load monitoring, and many other engineering applications. What could be offered with this equipment? - Accurate measurements: Load cells provide accurate data on weight and force, enabling quality control and compliance with standards. - Reliability: Designed to withstand harsh operating conditions, they ensure consistent performance over time. - Versatility: Usable across a wide range of sectors, from food industries to automotive, as well as in scientific research. - Easy integration: They can be integrated into automation and monitoring systems to provide real-time feedback on operational conditions. Specifications Set of Sieves: Includes sieves ranging from 0.063 mm to 10 mm, made of stainless steel to ensure durability and longevity. Each sieve is designed for easy cleaning and maintenance. Sieve Shaker: A device with a sturdy base and electric motor for efficient sieving. It can be programmed for different durations and intensities, depending on the analysis needs. Drying Oven: Equipped with a temperature control system up to 105°C and ventilation to ensure even heat distribution. The oven is designed to be user-friendly and safe, with alert systems for high temperatures. Analytical Balance: Capacity up to 200 g with an accuracy of 0.0001 g, ideal for precise measurements. The balance is equipped with a digital display for easy reading of results. Pipettes and Graduated Cylinders: Pipettes with capacities of 1 ml, 5 ml, and 10 ml, and graduated cylinders with capacities of 100 ml, 250 ml, and 500 ml, made of glass or plastic. These tools are designed to ensure accurate and repeatable measurements during sample and solution preparations. Hyperlink Physical Services using this equipment None Not yet in catalogue
237 Infrastructure Name: Az. Agr. Cascina Baciocca Partner: UNIMI Node/Satellite: IT Equipment Name: Precision Inclinometer Owner of the Equipment: UNIMI Facilities it is being used in: ‐ Tilting platform (4 x 6 m) Type of Equipment Fixed X Movable Description A high-precision inclinometer designed to measure the angle of inclination and stability of vehicles and structures. This tool is essential for assessing how different inclinations affect performance and safety and is used in experimental testing to ensure that structures and vehicles maintain their functionality and safety under varying conditions. What could be offered with this equipment? The high-precision inclinometer provides critical data for evaluating the angle of inclination and stability of vehicles and structures. This tool is essential in a variety of applications, including experimental testing in agricultural and engineering contexts. By accurately measuring how different inclinations affect performance, the inclinometer enables researchers and engineers to assess safety and functionality under varying conditions. This information is invaluable for optimizing designs, improving safety protocols, and ensuring compliance with industry standards. Specifications Our high-precision inclinometer is engineered to deliver accurate measurements of angles with exceptional reliability. It features a robust design that allows for seamless integration into testing environments for both vehicles and structures. The device can measure a wide range of inclinations, ensuring versatility across different applications. Additionally, it often includes digital readouts, data logging capabilities, and real-time monitoring features to facilitate comprehensive analysis. The inclinometer is built to withstand various environmental conditions, making it a durable tool for rigorous testing scenarios. The high-precision inclinometer is available for use in trials and testing, providing an excellent platform for researchers, developers, and industry professionals to validate and refine technologies. It is ideal for conducting in-depth analyses in real-world and controlled environments, offering valuable insights into the stability and performance of structures and vehicles under various conditions. Hyperlink Physical Services using this equipment None Not yet in catalogue
238 Infrastructure Name: Az. Agr. Cascina Baciocca Partner: UNIMI Node/Satellite: IT Equipment Name: Agricultural Equipment and Machinery Owner of the Equipment: UNIMI Facilities it is being used in ‐ 23 hectares of arable land Type of Equipment Fixed X Movable Description Agricultural equipment and machinery play a crucial role in modern farming, enhancing efficiency and productivity. Tractors serve as the backbone of agricultural operations, enabling various tasks such as soil preparation, equipment transportation, and towing other machinery. Soil tillage tools, like plows and harrows, improve soil quality and facilitate optimal seedbed conditions. Seeders and fertilizer spreaders ensure uniform planting and nutrient distribution, while herbicide sprayers protect crops from pests and weeds. Harvesting equipment, including mowers and rakes, assists in the collection and maintenance of crops. Additionally, support tools such as water pumps and woodchippers enhance resource management and waste reduction on farms. Overall, these tools are essential for sustainable agricultural practices and the success of farming enterprises. What could be offered with this equipment? This agricultural equipment offers a wide range of benefits for farming operations, enhancing efficiency and productivity. Tractors, with their power and versatility, can perform various tasks, from soil preparation to transporting materials. Soil cultivation tools, such as plows and harrows, improve soil readiness, promoting crop growth. Moreover, seeding and fertilization equipment ensures uniform distribution of seeds and fertilizers, optimizing resource utilization. Finally, harvesting and maintenance machinery enables effective management of crops, increasing yield and quality of the final product. Specifications - Tractors: The Deutz Agrifarm 120 HP tractor is equipped with a 120 HP diesel engine and a Powershift transmission, weighing approximately 3,500 kg. The New Holland T5.90S offers 90 HP and features a 16x16 or 24x24 transmission system, with a weight of about 3,300 kg. In contrast, the Same Solaris 25 HP is a compact tractor designed for small-scale farming, weighing around 1,200 kg. - Soil Preparation Equipment: The baler compacts hay into round or square bales, while the two-bottom plow is effective for soil tillage. The tine harrow is utilized for leveling and breaking up soil, and the stone burier buries unwanted stones to improve soil quality. Additionally, the levee hiller is designed for creating levees and drainage channels. The Minimum Tillage TERREMOTO is a specialized tool that facilitates minimal soil disturbance while preparing the land for planting. - Seeding and Fertilization Equipment: The universal seeder facilitates uniform planting, and the Corn Planter GASPARDO ensures precision planting for corn crops. The fertilizer spreader applies fertilizers to the soil, while the herbicide sprayer effectively sprays herbicides for weed control. The Sprayer Pump GASPARDO offers efficient spraying capabilities, enhancing overall agricultural productivity. - Harvesting and Maintenance Equipment: The hay rake collects hay, while the hay tedder fluffs and turns the hay for optimal drying. The rotary mower is employed for cutting grass, and the mixer wagon blends and distributes feed to livestock. - Other Equipment: The diesel tank serves as a fuel reservoir, while the water pump manages irrigation needs. The hoist crane is utilized for lifting heavy objects, and the wood chipper processes branches into chips. Lastly, the engine brake enhances operational safety by improving control during machinery use. Hyperlink Physical Services using this equipment None Not yet in catalogue
239 Infrastructure Name: Az. Agr. Cascina Baciocca Partner: UNIMI Node/Satellite: IT Equipment Name: Agricultural Control and Automation Systems Owner of the Equipment: UNIMI Facilities it is being used in: ‐ 23 hectares of arable land Type of Equipment Fixed X Movable Description This group consists of advanced navigation and localization systems designed for precise positioning and tracking in a variety of applications. The Dual Antenna GNSS system, combined with an IMU (Inertial Measurement Unit) and RTK (Real-Time Kinematic) Module, provides high-precision positioning for dynamic environments. The Base Station complements these systems, providing a reference point for enhanced accuracy. The GNSS GIS HX-CSX601A Antennas are a high-performance antenna designed for use with GNSS receivers, ensuring reliable signal reception and positioning accuracy. The UWB Localization system utilizes ultra-wideband technology to provide precise indoor and outdoor localization, ideal for tracking assets, people, or vehicles in real time. What could be offered with this equipment? These systems provide significant benefits in the precision and automation of agricultural operations. The Arvatec Autonomous Driving System enables autonomous tractor operation, which can improve efficiency, reduce labor costs, and increase productivity in a wide range of agricultural tasks. The Real-time Variable Rate Modulation of PPP Distribution ensures the precise and optimized application of plant protection products, reducing chemical usage, minimizing environmental impact, and improving crop health. The Tecomec Assisted Guidance System offers accurate steering and guidance for tractors, enabling operators to work more effectively and efficiently, especially in large fields. These systems can be used for testing and experimentation, allowing for the evaluation of automation technologies, resource efficiency, and the development of new agricultural practices. Specifications - Arvatec Autonomous Driving System: Provides full autonomous control for tractors and vehicles, enabling accurate and efficient task execution. - Real-time Variable Rate Modulation of PPP Distribution: Real-time adjustment of plant protection product application based on field conditions, optimizing usage and reducing waste. - Tecomec Assisted Guidance System: Semi-autonomous guidance system for tractors, improving navigation precision and reducing operator input. These agricultural control and automation systems are available for testing, allowing for the validation of autonomous technologies, optimization of resource management, and the development of more sustainable and efficient agricultural practices. Hyperlink Physical Services using this equipment None Not yet in catalogue
240 Infrastructure Name: Az. Agr. Cascina Baciocca Partner: UNIMI Node/Satellite: IT Equipment Name: Navigation and Localization Systems Owner of the Equipment: UNIMI Facilities it is being used in ‐ 23 hectares of arable land Type of Equipment Fixed X Movable Description This group includes advanced tools for precise monitoring in agriculture and industrial applications. AgroSenseBot is an autonomous platform designed for precise application of plant protection products, utilizing LIDAR and sensors to map crop canopies. The Agras T10 Drones are aerial spraying drones designed to efficiently distribute pesticides and fertilizers. The LIDAR OS0-128 captures detailed 3D data for mapping and navigation. Both Hyperspectral and Multispectral Cameras offer high-resolution imagery across different spectral bands, allowing for the monitoring of crop health, environmental conditions, and material properties. The ZED 2i Stereo Camera provides depth perception through stereo vision, enabling precise 3D mapping and object detection, which is essential for applications such as autonomous vehicles and advanced robotics. What could be offered with this equipment? These systems provide highly accurate localization and navigation capabilities, which are essential for applications such as autonomous vehicles, precision agriculture, and industrial automation. They offer real-time data for positioning and tracking, ensuring the safe and efficient operation of machinery and equipment. With their high accuracy, these systems can be used for applications requiring precision in areas like autonomous navigation, fleet management, and geospatial mapping. Furthermore, the systems are ideal for testing and experimentation, allowing for the validation of new technologies, improving navigation performance, and optimizing operational efficiency in real or simulated conditions. Specifications - Dual Antenna GNSS, IMU, RTK Module: Provides high-precision, real-time positioning with the ability to measure and correct for dynamic movements. - Base Station: A reference station used to enhance GNSS accuracy and enable RTK operations. - GNSS GIS HX-CSX601A Antenna: A high-performance antenna designed to improve GNSS signal reception and accuracy. - UWB Localization: A system that uses ultra-wideband technology to deliver precise localization for real-time tracking in both indoor and outdoor environments. These systems are available for testing and experimentation, enabling advancements in navigation technologies and supporting the optimization of autonomous systems, asset tracking, and geospatial mapping. Hyperlink Physical Services using this equipment None Not yet in catalogue
247 Infrastructure Name: Az. Agr. Ciro Menozzi Cascina Marianna Landriano Partner: UNIMI Node/Satellite: IT Equipment Name: Agricultural Equipment and Machinery Owner of the Equipment: UNIMI Facilities it is being used in ‐ 52 hectares of arable land Type of Equipment Fixed X Movable Description This group of agricultural equipment includes a range of machinery designed to improve efficiency and productivity in agricultural operations. It features an 18 m sprayer tank, a 3 m rake (PTO), a 320 m reel irrigator, a 6 m wheel rake, a centrifugal fertilizer spreader up to 24 m, a 4.24 m cultivator, a drip irrigation system, a Fiat 45-66 tractor, a 6 m hay turner, various John Deere tractors (150M, 6010, 6330, 6900), an 80 q manure spreader wagon, a 2.4 m mower conditioner, a 6-row precision planter, a reversible four-furrow plough, a 3 m rotary harrow, a round bale wrapper, a 2.5 m subsoiler with 5 techniques, a telescopic handler, a unifeed wagon, and a 3 m universal seeder. What could be offered with this equipment? This equipment provides a comprehensive solution for soil tillage, planting, harvesting, and crop management. The combination of machinery allows for optimizing agricultural practices, improving water and nutrient management, and increasing crop productivity. Each piece of equipment is designed to address specific agricultural operations, thus ensuring an efficient and sustainable production cycle. Specifications This agricultural equipment includes a range of machinery designed to improve efficiency and productivity in agricultural operations. Key tools include an 18 m sprayer tank, a 3 m rake (PTO), a 320 m reel irrigator, a 6 m wheel rake, and a centrifugal fertilizer spreader capable of operating up to 24 m. Additionally, there is a 4.24 m cultivator and a drip irrigation system that allows for targeted and sustainable irrigation. The available tractors include the Fiat 45-66 and various John Deere models (150M, 6010, 6330, 6900), each designed to provide power and versatility for different agricultural tasks. The list continues with a 6 m hay turner, an 80 q manure spreader wagon, a 2.4 m mower conditioner, a 6-row precision planter for seeding, a reversible four-furrow plough, a 3 m rotary harrow, a round bale wrapper, a 2.5 m subsoiler with 5 techniques, a telescopic handler, a unifeed wagon for uniform animal feeding, and a 3 m universal seeder. This equipment offers a comprehensive solution for soil tillage, planting, harvesting, and crop management. The combination of machinery allows for optimizing agricultural practices, improving water and nutrient management, and increasing crop productivity. Each piece of equipment is designed to address specific agricultural operations, ensuring an efficient and sustainable production cycle. Hyperlink Physical Services using this equipment None Not yet in catalogue
248 E. UNINA Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Description Torre Lama Agricultural and Livestock Farm is an auxiliary facility for the University of Napoli Federico II in the areas of research, teaching and experimentation in agricultural and veterinary sciences. The farm has been established for the purpose of organizing, coordinating and implementing, through the introduction of innovative technologies, several services in support of applied research programs. The Agricultural and Livestock Farm, with an extension of 49 hectares, has facilities for cultivation, research and teaching. It is equipped with an office building, a conference hall, a small canteen and a guesthouse with 12 furnished double rooms. The farm includes a modern greenhouse facility consisting of three independent compartments made of steel and glass and provided with heating and a centralized fertigation system. A weather station and an advanced sensors network consent to continuously monitor the soil-plantatmosphere system in response to environmental and technical variables. The farm is located in Bellizzi (SA) about 70 km from the Department of Agriculture, along the SS 18, in the Pontecagnano-Battipaglia district, and falls within the Destra Sele Water District. List of Facilities used in offered services - Analytical Laboratory - Experimental farm - Greenhouses
249 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Facility Name: Analytical Laboratory Owner of the Facility: UNINA Location - Address: Via Giustino Fortunato, 3 - 84092 - Bellizzi (SA), ITALY - GPS Coordinates: 40.62285653783858, 14.934569552992249 Type of Facility X Fixed Reconfigurable Movable X Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System X Assessment Description Analytical lab of approx. 50 m2, equipped for basic analyses and biometric and physiological measurements on plants and plant samples. Main equipments include a multiparameter meter station that monitors different water quality parameters including pH, ORP, conductivity, dissolved oxygen, and temperature; an IRGA system for measuring leaf gas exchanges; a psychrometer and a pressure chamber for measuring the water potential on leaves; a leaf area meter and fluorometer that enables quick and precise measurement of chlorophyll fluorescence parameters; probes for ion detection in leaf sap. What could be offered through this facility? The lab hosts basic and advanced instruments for measuring plant yield, fresh and dry weight assessment, product quality, plant water relations. It is a support lab to field experimentation. List of Equipment Physical Services using this Facility Gas exchange analyzer S00118 Fluorimeter S00220 Vapor Pressure Osmometer S00221 Pressure Chamber S00226 Probes for ion detection S00228 Dataloggers S00232 Soil sensors S00233
250 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Facility Name: Experimental farm Owner of the Facility: UNINA Location - Address: Via Giustino Fortunato, 3 - 84092 - Bellizzi (SA) Italy - GPS Coordinates: 40.62284025121403, 14.934505179977926 Type of Facility Fixed Reconfigurable Movable X Land Sectors being X Arable Tree Crops X Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System Assessment Description This is a 49 ha irrigated field suitable to grow any field crop of the Mediterranean environment. The experimental farm also has a weather station. Crops routinely cultivated for research purposes are wheat, forage crops, corn, tomato and vegetable crops in general. The main focus of the farm is on assessment of crop water requirements through integration of remote sensing and in-situ sensors for data collection and development of smart irrigation systems. Advanced weed management through robotic systems is also a developing area of research. What could be offered through this facility? It is a plain field suitable for testing any AI and/or digital solution/application for field crops such as testing of robotic weeding systems, block-chain based certified water consumption, precision irrigation systems, precision fertilization systems, precision pest control and more. List of Equipment Physical Services using this Facility Tractor Goldoni 230 S00118 Tractor Kubota 75 HP S00220 Tractor Kubota m5112 S00221 Tractor front lift S00226 Irrigation systems S00227 Meteo Station S00228 KubotaPlot combine
251 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Facility Name: Experimental Greenhouses Owner of the Facility: UNINA Location - Address: Via Giustino Fortunato, 3 - 84092 - Bellizzi (SA) Italy - GPS Coordinates: 40.62285653783858, 14.934569552992249 Type of Facility Fixed Reconfigurable Movable X Land Sectors being Arable Tree Crops Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System X Assessment Description Three greenhouses of steel and glass - 27m x 10m. The greenhouses are equipped with cultivation benches for hydroponic growth systems, fertigation units and sensors for monitoring environmental parameters. The facilities are suited for growing any plant species to test smart irrigation and fertilization systems for improving water and nutrient use efficiency. What could be offered through this facility? Cultivation of any crop that is normally grown in greenhouse in mediterranean environments for testing any AI and digital based solution/application for crop management, including smart and certified fertigation systems, robot-based harvest, sustainable pest control and more. List of Equipment Physical Services using this Facility Bench for plant growth S00228 Fertigation systems S00227 Sensor for T, RU, ligth intensity and spectrum S00221 Data logger
252 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: EnviroMonitor Davis datalogger Owner of the Equipment: UNINA Facilities it is being used in - Experimental Farm Type of Equipment Fixed X Movable Description Track site-specific weather and environmental conditions with a custom network of sensors. EnviroMonitor gives the informations to make critical decisions on crop management. What could be offered with this equipment? Useful in experimental fields where digital technologies are tested (e.g. robot for weeding, smart irrigation etc.) Specifications Track site-specific weather and environmental conditions station, with a custom network of sensors. Hyperlink Physical Services using this equipment None S00227 S00228 S00221
253 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: Laqua twin probes Owner of the Equipment: UNINA Facilities it is being used in - Analytical Laboratory Type of Equipment Fixed X Movable Description A useful tool for measuring ion contents of water and vegetal extracts. Necessary for monitoring qualitative parameters of the harvested vegetables or irrigation water in experimental fields where digital technologies are tested (e.g. robot for weeding, smart irrigation etc.) What could be offered with this equipment? These probes are useful to measure how different applications of high-tech based smart irrigation systems would affect ion content in the plants and/or surrounding environment (soil or nutrient solution). Specifications Probes capable of measuring the content of different elements in solutions (N, P, K, Ca, etc.), as well as various parameters such as pH and electrical conductivity. Hyperlink Physical Services using this equipment None S00228 S00222
254 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: Pressure Chamber – PMS Owner of the Equipment: UNINA Facilities it is being used in - Analytical Laboratory Type of Equipment Fixed X Movable Description A useful tool for measuring physiological parameters of plant tissues (plant water potential). Necessary for monitoring the physiological hydration state of the crop in experimental fields where digital technologies are tested (e.g. robot for weeding, smart irrigation etc.) What could be offered with this equipment? This instrument allows monitoring plant water stress in response to different sensor-based and/or AI-based crop irrigation systems. Specifications The instrument can be connected directly to a Nitrogen Cylinder containing 207 Bar/3000 PSI pressure. The Digital Gauge offers features such as backlighting and multiple pressure scales (Bar, MPa and PSI). The instrument comes fitted with our most popular sealing gasket size – 1/4 inch Compression Gland Gasket and Insert. This gasket will seal a sample that is 1/4 inch in diameter down to a completely closed position. Hyperlink Physical Services using this equipment None S00221
255 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: Soil sensors teros 12 Owner of the Equipment: UNINA Facilities it is being used in - Analytical Laboratory Type of Equipment Fixed X Movable Description Soil sensors teros 12 - Probes to be installed in the soil capable of monitoring various parameters such as moisture and electrical conductivity. Useful in experimental fields where digital technologies are tested (e.g. robot for weeding, smart irrigation etc.) What could be offered with this equipment? This instrument allows monitoring soil water parameters in response to different sensor-based and/or AI-based crop irrigation systems. Specifications The TEROS 12 measures the water content from 0-100%, the temperature between -40 and +50°C and the electrical conductivity (EC) in the range 0 to 23 dS/m. Hyperlink Physical Services using this equipment None S00221
256 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: VAPRO® Vapor Pressure Osmometer Model 5600 Owner of the Equipment: UNINA Facilities it is being used in - Analytical Laboratory Type of Equipment Fixed X Movable Description The Vapor Pressure Osmometer determines the concentration of osmotically active particles that reduce the vapor pressure of the solution. Thereby it uses the relationship between boiling point and vapor pressure to measure solute concentration. What could be offered with this equipment? Laboratory instrument for measurements of chemical and biological samples to profile crop physiological adaptations in response to digital solutions (e.g. robot for weeding, smart irrigation etc.). Specifications The vapor pressure method determines osmolality at room temperature with the sample in natural equilibrium. This precludes cryoscopic artifacts due to high viscosity, suspended particles, or other conditions that can interfere with freezing point determinations, giving VAPRO a much broader range of applications. Hyperlink Physical Services using this equipment None S00221
263 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: DAVIS METEO STATION Vantage pro 2 Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description DAVIS METEO STATION Vantage pro 2 What could be offered with this equipment? Meteo station for collecting meteo data during crop management and providing support to testing digital products/applications/solutions (e.g. robot for weeding, smart irrigation etc.). Specifications Wireless weather station for continuous measurement of temperature, relative humidity, mm of rain, wind speed and direction. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
264 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: Irrigation wheel - MARANI GT40110 Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description Irrigation wheel - MARANI GT40110 - Hydraulic system that quickly unwinds and rewinds irrigation hose. For liquids of all types and kinds. Suitable for the use of flattenable hoses of any diameter and length up to 1500 mt. It can be equipped with sensors. What could be offered with this equipment? Preparation and management (irrigation) of experimental fields to test digital products/applications/solutions (e.g. robot for weeding, smart irrigation etc.). Specifications Wheel sprinkler for field crops (corn type), equipped with on-board computer and pneumatic lift. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
265 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: plot combine Kubota sr 315 Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description Plot combine Kubota sr 315 – It is a machine for harvesting and at the same time threshing various types of crops. It meets all requirements for a quick, clean harvest. Thanks to its modular system, the combine is suitable for all harvesting conditions and customer requirements. Its dimensions and low weight make the machine easy to transport. Compact size – ideal for experimental plots. It can be equipped with sensors. What could be offered with this equipment? Management and harvesting of experimental field to test digital products and applications (e.g. robot for weeding, smart irrigation etc.). Specifications Small plot thresher suitable for threshing all kinds of plants: cereals such as wheat barley oats sorghum, legumes such as beans broad beans chickpeas lentils peas and also rice, forages, oil and vegetable plants, special seeds, etc. Hyperlink Physical Services using this equipment None S00118 S00220 S00221 S00186
266 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: Ripper machine – OM Hercules RHM7 Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description Ripper machine – OM Hercules RHM7 - to break up more compacted soil layers: use may be necessary after periods of extreme drought in which the soil is made dry and hard by water shortages and extreme heat. Can be equipped with sensors and additional instruments for experimental purposes. What could be offered with this equipment? Preparation and management (tillage, treatments) of experimental fields to test digital products/solutions/applications (e.g. robot for weeding, smart irrigation etc.). Specifications Seven-tooth steel ripper for heavy-duty plot breaking work. Hyperlink Physical Services using this equipment None S00128 S00221 S00226 S00233 S00186
267 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: Milling machine VIGOLO - FPG3/260 Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description Milling machine VIGOLO - FPG3/260 -Machine to be applied to medium and large tractors, capable of working in all types of terrain, with high robustness and minimal maintenance. These machines are equipped with a fixed threepoint hitch, perfect for seedbed preparation in open fields, weed control, shredding crop residues, soil preparation in vegetable cultivation, etc. What could be offered with this equipment? Preparation and management of experimental fields to test digital products/solutions/applications (e.g. robot for weeding, smart irrigation etc.). Specifications Carried implement for clod crashing, with a working front of 2.60 m Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
268 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: tractor Fiat 550 Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description tractor Fiat 550 Service tractor, used for on-farm transport, front lift and moving irrigation wheels. It is also used for tilling operations and monitoring of environmental parameters if associated with sensors during regular operations. What could be offered with this equipment? Service tractor, used for on-farm transport, front lift and moving irrigation wheels to test digital products - Preparation and management (tillage, treatments) of experimental fields to test digital products/solutions/applications (e.g. robot for weeding, smart irrigation etc.). Specifications It is equipped with a three-cylinder engine with the designation 8035.02 and a displacement of 2592 cm³. This engine develops a power of 50 hp at 2600 rpm and a torque of 153 Nm at 1500 rpm. The tractor has a transmission with 8+2 gears and 4 synchronized gears, which allows it to travel at speeds between 2.4 and 29.3 km/h. The hydraulic pump capacity is 24 liters per minute, and the mechanically controlled rear linkage has a lifting capacity of 1400 to 1550 kg. The PTO operates at a speed of 540 rpm. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
269 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: Tractor fiatagri 160-90 Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description Tractor fiatagri 160-90 – Tractor used for heavy tillage such as plowing, tilling, harrowing. It can be equipped with different types of sensors for soil, atmosphere and crop monitoring. What could be offered with this equipment? Preparation and management (tillage, treatments) of experimental fields to test digital products/solutions/applications (e.g. robot for weeding, smart irrigation etc.). Specifications Tractor for soil tillage, high power (160 hp). Allows heavy tillage such as plowing, tilling, harrowing. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
270 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: Tractor Goldoni universal 230 - 30 CV Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description Tractor Goldoni universal 230 - 30 CV - Tractor used for routine crop cultivation. It can be equipped with different types of sensors for soil, atmosphere and crop monitoring. What could be offered with this equipment? Preparation and management (tillage, treatments of small plots) of experimental fields to test digital products/solutions/applications (e.g. robot for weeding, smart irrigation etc.). Specifications Small tractor specifically for horticulture and floriculture crop management. Power 30 Hp. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
271 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: Tractor Kubota M5 - 092N Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description Tractor Kubota M5 092N – Compact tractor used for daily operations. It can be equipped with different types of sensors for soil, atmosphere and crop monitoring. What could be offered with this equipment? Preparation and management (tillage, treatments etc.) of experimental fields to test digital products/applications/solutions (e.g. robot for weeding, smart irrigation etc.). Specifications Cab tractor specifically for phystosanitary treatments. Orchard-type tractor. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
272 Infrastructure Name: Experimental Agricultural and Livestock Farm Torre Lama Partner: UNINA Node/Satellite: IT Equipment Name: Kubota M-5112 Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description Kubota M-5112 - Tractor used for heavy tillage such as plowing, tilling, harrowing. It can be equipped with different types of sensors for soil, atmosphere and crop monitoring. What could be offered with this equipment? Preparation and management (tillage, treatments etc.) of experimental fields to test digital products/applications/solutions (e.g. robot for weeding, smart irrigation etc.). Specifications Tractor for open field tillage, high power (105 hp). Allows heavy tillage such as plowing, tilling, harrowing. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
279 Infrastructure Name: Castel Volturno Experimental PilotFarm Partner: UNINA Node/Satellite: IT Equipment Name: Tractor Kubota M6-142 Owner of the Equipment: UNINA Facilities it is being used in - Experimental farm Type of Equipment Fixed X Movable Description Tractor Kubota M6-142 – Tractor for heavy tillage operations. It can be equipped with different kinds of sensors for continuous monitoring of environmental parameters. What could be offered with this equipment? Preparation and management (tillage, treatments etc.) of experimental fields to test digital products/applications/solutions (e.g. robot for weeding, smart irrigation etc.). Specifications Tractor for open field tillage, high power (160 hp). Allows heavy tillage such as plowing, tilling, harrowing. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
280 Infrastructure Name: Castel Volturno Experimental PilotFarm Partner: UNINA Node/Satellite: IT Equipment Name: Tangential single-jet cold water turbine meters with direct reading Owner of the Equipment: UNINA Facilities it is being used in Experimental farm Type of Equipment Fixed X Movable Description Single-jet tangential cold water turbine meter with direct reading on 8 numbered rollers. - It is used for measuring crop water consumption and it can be associated with certified water consumption schemes. What could be offered with this equipment? Test of advanced smart and certified irrigation systems. Specifications Single-jet tangential cold water turbine meter Hyperlink Physical Services using this equipment None S00221 S00228
281 Infrastructure Name: Castel Volturno Experimental PilotFarm Partner: UNINA Node/Satellite: IT Equipment Name: Tractor Kubota M-5112 Owner of the Equipment: UNINA Facilities it is being used in Experimental farm Type of Equipment Fixed X Movable Description Tractor Kubota M-5112 – Tractor for heavy soil tillage. It can be equipped with different types of sensors. What could be offered with this equipment? Preparation and management (tillage, treatments etc.) of experimental fields to test digital products/applications/solutions (e.g. robot for weeding, smart irrigation etc.). Specifications Tractor for open field tillage, high power (105 hp). Allows heavy tillage such as plowing, tilling, harrowing. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
282 Infrastructure Name: Castel Volturno Experimental PilotFarm Partner: UNINA Node/Satellite: IT Equipment Name: Tractor Landini Alpine Owner of the Equipment: UNINA Facilities it is being used in Experimental farm Type of Equipment Fixed X Movable Description Tractor Landini Alpine – Tractor for heavy soil tillage. It can be equipped with different types of sensors. What could be offered with this equipment? Preparation and management (tillage, treatments etc.) of experimental fields to test digital products/applications/solutions (e.g. robot for weeding, smart irrigation etc.). Specifications Tractor for open field tillage, high power (105 hp). Allows heavy tillage such as plowing, tilling, harrowing. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
283 Infrastructure Name: Castel Volturno Experimental PilotFarm Partner: UNINA Node/Satellite: IT Equipment Name: Brush Cutter FEMAC DOC 302 Owner of the Equipment: UNINA Facilities it is being used in Experimental farm Type of Equipment Fixed X Movable Description Brush Cutter FEMAC DOC 302 - Hydraulic hedge mower with side shift and 90° rotating column with shock resistant hydraulic safety device for tractors HP 80/130 and weight 3500/4500 kg, suitable for working on local and trunk roads and farms. What could be offered with this equipment? Preparation and management (tillage, treatments etc.) of experimental fields to test digital products/applications/solutions. Maintenance and cleaning of experimental fields Specifications Brush cutter arm with a maximum horizontal reach of 5 meters. This model is suitable for shredding grass, leaves and shrubs (max 3/4 cm in diameter). Suitable for green maintenance work, roadside ditches and embankments, and strictly agricultural use. The machine comes standard equipped with the DCH 100 mulching head. Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
284 Infrastructure Name: Castel Volturno Experimental PilotFarm Partner: UNINA Node/Satellite: IT Equipment Name: Landini trekker 105 hp Owner of the Equipment: UNINA Facilities it is being used in Experimental farm Type of Equipment Fixed X Movable Description Landini trekker - This is a compact tractor for daily work mainly in orchards. It can be equipped with different types of sensors. What could be offered with this equipment? Preparation and management (tillage, treatments etc.) of experimental fields to test digital products/applications/solutions (e.g. robot for weeding, smart irrigation etc.) Specifications Tracked tractor for working in wet soil conditions. Power 55 hp Hyperlink Physical Services using this equipment None S00118,S00220,S00221,S00226,S00227,S00228,S00232,S00233,S00186
285 Infrastructure Name: CeSMA Partner: UNINA Node/Satellite: IT Description CeSMA (Center of Advanced Measurement and Technology Services) is a relevant asset of the University of Napoli Federico II, characterized by distinctive and exclusive features due to its wide area of expertise as well as heterogeneous activities that can be carried out in its labs. Its mission is to support local, national and international players in innovation strategies, with a specific focus on advanced measurement activities as well as on the development and assessment of innovative technologies, taking also advantage of experienced researchers and technicians from Federico II. CeSMA represents a strategic attractor for the entrepreneurial and industrial players, aiming to satisfy the great demand for innovation services. Its international role is reinforced by a close connection to peer institutions and research centres at national and international level. Strategic Assets of CeSMA: - Interconnection and remote access to the networks of laboratories, which can integrate new and pre-existing infrastructures; - Multidisciplinarity as a factor of cultural exchange and common growth; - Quality certification of the entire network of specialized laboratories, in compliance with UNI EN ISO 9001:2008 “Quality management systems” international standards; - Accreditation according to UNI EN ISO /IEC 17025:2005 “General requirements for the competence of testing and calibration laboratories”. List of Facilities used in offered services - CPMS-Lab
286 Infrastructure Name: CeSMA Partner: UNINA Node/Satellite: IT Facility Name: CPMS-Lab Owner of the Facility: UNINA Location - Address: * Corso N.Protopisani, San Giovanni a Teduccio, 80146 Napoli, ITALY - GPS Coordinates: 40.836735104417684, 14.30655889348429 Type of Facility X Fixed Reconfigurable Movable Land Sectors being Arable Tree Crops Viticulture served X Horticulture X Food Processing X Livestock Farming Cluster being served X Data AI & Robotics Algorithms Physical System X Assessment Description The IoT & Cyber-Physical Measurement Systems laboratory of CeSMA carries out research and service activities towards third parties through the experimentation and development of measurement systems, which allow advanced interaction approaches, enabled thanks to the most recent interfacing, communication and information representation solutions. The measurement systems at the laboratory are conceived as cyber-physical measurement systems ( CPMS ), where the traditional methodological approach is integrated and enhanced by the use of new paradigms: thanks to innovative modelling/virtualisation methods, made possible by increasingly high-performance computing systems, CPMS systems develop and exploit the digital-twin of the physical system. The CPMS developed at the laboratory therefore enhance the potential of IoT sensors and instrumentation for sensing, data storage and communication functions, and the possibilities of edge computing for the introduction of embedded artificial intelligence . The laboratory promotes innovation also with a strong focus on Green Technology issues. What could be offered through this facility? It is a plain field suitable for testing any AI and/or digital solution for field crops such as test of robot based weeding systems, block-chain based certified water consumption, precision irrigation systems, precision fertilization sytems, precision pest control and more. List of Equipment Physical Services using this Facility 3D Olografic Display S00223 High Performance Spectrum Analyzer S00224 High Bandwidth Digital Oscilloscope & Data Acquisition System S00225 High Performance RF Arbitrary Waveform Generator S00227
287 Infrastructure Name: CeSMA Partner: UNINA Node/Satellite: IT Equipment Name: LabMaster 10 Zi-A (TELEDYNE LECROY) Owner of the Equipment: UNINA Facilities it is being used in - CPMS-Lab Type of Equipment X Fixed Movable Description The LabMaster 10 Zi is an highest-performance modular oscilloscope. It is a bench instrument designed for indoor applications. The modular design provides the simplest upgrade path in bandwidth and channel count, with one acquisition module providing four channels at 36 GHz. What could be offered with this equipment? Ideal for a variety of applications from complex communication systems to RF components, it grants reliable measurements. Its wide internal analysis bandwidth allows the characterization of wideband components. This oscilloscope allows accurate ESD pulse testing, PCI Express Electrical Compliance Testing, Low Speed Serial Data Devices characterization and Troubleshooting, Glitch Hunting, High Speed Digital Signal Troubleshooting. Specifications - Bandwidth (36 GHz); Max Sampling Rate 80 GS/s ; Resolution 8-bit; Input Channels 4 - Maximum Acquisition Memory 512 Mpts/Ch; Memory Length 256 M ; - Sensitivity 50 Ω (2.92mm): 5 mV-500mV/div, fully variable (5-9.9 mV/div via zoom) - DC Vertical Gain Accuracy (Gain Component of DC Accuracy) ±1% F.S. (typical), offset at 0V; ±1.5% F.S. (test limit), offset at 0V - Rise Time (10-90%, 50 Ω) 10.7 ps (test limit, flatness mode) - Rise Time (20-80%, 50 Ω) 8.0 ps (flatness mode) - Input Impedance 2.92mm Inputs: 50 Ω+/-2% Hyperlink Physical Services using this equipment None S00224 S00225 S00227
288 Infrastructure Name: CeSMA Partner: UNINA Node/Satellite: IT Equipment Name: RF Arbitrary Waveform Generator E8267D Owner of the Equipment: UNINA Facilities it is being used in - CPMS-Lab Type of Equipment X Fixed Movable Description The E8267D PSG Vector Signal Generator is a fully-integrated microwave vector signal generator from 250 kHz to 20 GHz with high output power, low phase noise, and I/Q modulation capability. It is a bench instrument designed for indoor applications. It allows creating realistic wideband radar, electronic warfare (EW), and satellite communications (SATCOM) waveforms. What could be offered with this equipment? Ideal for a variety of applications from complex communication systems to RF components. The E8267D has flexible, integrated, real-time and baseband AWG (Arbitrary Waveform Generator) to simulate cellular, wireless, GPS, and custom communications. Specifications - Frequency range 250 kHz to 20 GHz - Frequency resolution (CW) 0.001 Hz - Minimum settable output power -130 dBm - Maximum output power 20 dBm - Amplitude resolution 0.01 dB - Spectral Purity (minimum) -55 dBc Hyperlink Physical Services using this equipment None S00224 S00225 S00227 S00228 S00229 S00230 S00231
295 Infrastructure Name: Ł-PIT Poznań Partner: L-PIT Node/Satellite: PL Facility Name: Stand for testing the reactions or movements of the vehicle Owner of the Facility: L-PIT Location - Address: ul. Starołęcka 31, 60-963 Poznań, Poland - GPS Coordinates: 52.370699, 16.937956 Type of Facility Fixed X Reconfigurable Movable X Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture X Food Processing X Livestock Farming Cluster being served Data X AI & Robotics Algorithms X Physical System X Assessment Description A test stand with dimensions of 30000x8000 mm, with a centrally mounted, hydraulically lifted platform. The stand is used both in accredited tests based on standardized methods or in-house procedures, and in non-accredited activities, including research and development work related to the design and testing of autonomous machinery. The stand is used, among other things, for measuring technical parameters, weights, pressure forces and stability of machinery and equipment What could be offered through this facility? - measuring the time a vehicle stops in front of an obstacle (the hydraulically adjustable platform will allow simulating an obstacle of different heights) - determining the limiting angle of roll, and stability tests in the resting and working positions - testing reactions or movements of the vehicle at the time of a power outage and after power is restored List of Equipment Physical Services using this Facility Hydraulically lifted platform S00062 Test execution services S00066 Life Cycle Assessment of system under test S00195 Robitics Integration - Algorithms S00214 Conformity assessment and safety tests of machine devices
296 Infrastructure Name: Ł-PIT Poznań Partner: L-PIT Node/Satellite: PL Equipment Name: Mobile workstation for data aquisition Owner of the Equipment: L-PIT Facilities it is being used in - Sielinko Land Facility Type of Equipment Fixed X Movable Description A versatile and mobile data collection station placed on a UTV. The vehicle has been optimized for mounting a variety of sensors as needed. The front of the vehicle offers the possibility of installing RGB and 3D cameras, which will provide accurate images of the surroundings. GPS antennas can be installed in the upper section to provide precise location tracking. The rear section of the vehicle is designed to accommodate soil sampling equipment. In addition, there is an option to connect simple soil turning tools to test soil moisture and other parameters. With this solution, field data collection becomes extremely efficient and precise. Mobility and the ability to work in a wide variety of field conditions make this station an invaluable tool in scientific research, environmental monitoring, as well as in agricultural applications. The mobile station can be for verification of AI analyzed satellite maps. Used for research by universities and R&D type institutions testing their solutions or needing a data collection device What could be offered with this equipment? - data collection, - precise location tracing, - solil sampling, - verification field maps. Specifications - Length: 3.29 m - Height: 2 m - Width: 1.55 m - Weight: 600 kg (approx.) - 4 wheel drive, - Differential lock, - All-terrain tires. Hyperlink Physical Services using this equipment None S00053 Datasets – Real-World Training S00060 Testbed preparation S00061 Support for interconnection of the systems under test to AgriffodTEF's technical infrastructure S00062 Test execution services S00066 Life Cycle Assessment of system under test
297 Infrastructure Name: Ł-PIT Poznań Partner: L-PIT Node/Satellite: PL Equipment Name: GPS surveying and navigation system Owner of the Equipment: L-PIT Facilities it is being used in - Sielinko Land Facility - Sand for testing the reactions of movements of the vehicle Type of Equipment Fixed X Movable Description Portable GNSS system for precise terrain measurement and navigation, enabling the recording of the trajectory of movement over time, along with simultaneous recording of speed and direction of movement. Consists of several integrated GPS receivers that can be used as mobile receivers or as a base station. Receivers can be mounted on surveyed objects through a range of universal mounts, including magnetic mounts. Used to verify the actual track of AI-controlled machines. Consists of several GPS receivers along with correction from local RTK stations What could be offered with this equipment? - measurement of the terrain or test area - creating digital terrain maps (digital twin) - recording the precise position of an object in time Specifications Sensors whitch can be implement to it (and the relevant resolution if needed) - GPS receivers (horizontal accuracy: 1cm + 1ppm, vertical accuracy: 2cm + 1ppm), tracks all GPS and GLONASS signals (L1/L2 GPS, L2X, L5 GPS), 220 channels, UHF ram modem, Bloototh - Leica Disto D8 Bluetooth laser rangefinder with a pole holder Hyperlink Physical Services using this equipment None S00053 Datasets – Real-World Training S00056 Test design: definition of the test eniviroment S00060 Testbed preparation S00062 Test execution services S00066 Life Cycle Assessment of system under test S00214 Conformity assessment and safety tests of machine devices
298 Infrastructure Name: Ł-PIT Poznań Partner: L-PIT Node/Satellite: PL Equipment Name: Agricultural combustion robot platform Owner of the Equipment: L-PIT Facilities it is being used in - Sielinko Land Facility - Sand for testing the reactions of movements of the vehicle Type of Equipment Fixed X Movable Description Agricultural combustion robot platform can be used to test agricultural machinery modules whose control is based on AI algorithms. The workstation is equipped with a set of sensors for positioning the platform (precision GNSS systems), detecting obstacles (3D scanners, cameras) and implementing agrotechnical procedures in a fully automatic manner. Sensors Mounted on the Robot: - Speed measurement – independently for each wheel - Wheel turn measurement – independently for each wheel, absolute measurement - GNSS – 2 ublox ZED-F9P receivers + ANN-MB antennas - Inertial unit – XSENS MTi-30-2A8G4 - Cameras: 3 RGB cameras - Ultrasonic sensors – a total of 8 sensors (4 in the front and 4 in the rear What could be offered with this equipment? - measurement of the terrain or test area - creating digital terrain maps (digital twin) - recording the precise position of an object in time Specifications - Drive – 4 wheels (two independent circuits for left and right sides), Steering – 4 wheels, different steering modes (front axle steering, front and rear axle steering, turning in place, driving sideways) - Weight – 3000 kg , Length – 3780 mm, Width – 2400 mm, Height – 2150 mm, Wheelbase – 3000 mm - Track width – depending on the crop, 1240 – 1880 mm - Operating time on a single tank – 10 - 12 hours - Drive – 36 kW combustion engine Three Point Linkage: - Category 1 : Lifting height – 600 mm, Lifting capacity of lower links – 1300 kg, Lateral shift (track correction) +- 75 mm, - Minimum lateral shift force – 15 kN, Width of lower hitch points – 683 mm, Distance of upper hitch point from lower points – 460 mm, Maximum length of aggregated machine – 1600 mm Hyperlink Physical Services using this equipment None S00053 Datasets – Real-World Training S00056 Test design: definition of the test enviroment S00060 Testbed preparation S00060 Support for interconnection of the systems under test to AgriffodTEF's technical infrastructure S00062 Test execution services S00066 Life Cycle Assessment of system under test
299 Infrastructure Name: Ł-PIT Poznań Partner: L-PIT Node/Satellite: PL Equipment Name: Hydraulically lifted platform Owner of the Equipment: L-PIT Facilities it is being used in ‐ Stand for testing the reactions or movements of the vehicle Type of Equipment X Fixed Movable Description Hydraulically lifted platform is a fixed equipement which is centrally mounted at stand for testing the reactions or movements of the vehicle. It is used for measuring stability of machinery and equipment. What could be offered with this equipment? - measuring the time a vehicle stops in front of an obstacle (the hydraulically adjustable platform will allow simulating an obstacle of different heights) - determining the limiting angle of roll, and stability tests in the resting and working positions - testing reactions or movements of the vehicle at the time of a power outage and after power is restored Specifications - Dimentions: L=2m, W=6.8 m - Load capacity: up to 16 tons - Lifting height: up to 1.6 m Hyperlink Physical Services using this equipment None S00062 Test execution services S00066 Life Cycle Assessment of system under test S00195 Robotics Integration - Algorithms S00214 Conformity assessment and safety tests of machine devices
300 Infrastructure Name: Ł-PIT Poznań Partner: L-PIT Node/Satellite: PL Equipment Name: AI Lateral Correction Agricultural Tool Testing Station Owner of the Equipment: L-PIT Facilities it is being used in - Sielinko Land Facility Type of Equipment Fixed X Movable Description The Tool Testing Station specializes in testing and optimizing agricultural tools with AI-based lateral correction. It enables the examination and refinement of precision control mechanisms, improving the efficiency and accuracy of agricultural machinery operations, particularly in mechanical weeding and plant care. The station allows for the attachment of the tested tool to a tractor, with the ability to simulate disturbances in the plant row line. This enables precise testing and calibration of lateral correction systems, suitable for both front and rear mechanisms. What could be offered with this equipment? - Testing of New Technologies: Evaluation and testing of various agricultural tools using AI lateral correction - Machinery Adjustment Optimization: Analysis and adaptation of existing machines for more precise operational methods Specifications - lateral correction range: 630 mm (315 mm per side) - Three Point Linkage category of tractor: 2 and 3 - Three Point Linkage category of tested machine : 2 and 3 - Weight: 700 kg (approx.) - LFT 700 linear potentiometer Hyperlink Physical Services using this equipment None S00053 Dtatasets – Real World Training S00060 Testbed preparation S00062 Test execution services S00214 Conformity assessment and safety tests of machine devices S00215 Testing of error handling, failure monitoring and cybersecurity assessment
301 Infrastructure Name: Ł-PIT Poznań Partner: L-PIT Node/Satellite: PL Equipment Name: Mobile load analyzer Owner of the Equipment: L-PIT Facilities it is being used in - Sielinko Land Facility Type of Equipment Fixed X Movable Description The device for identifying the working resistance of tractor-mounted and semi-mounted machines on the tractor's threepoint linkage makes it possible to measure the weight of agricultural machines and implements, determine the coordinates of the machine's center of gravity, and identify under field conditions the working resistance of the agricultural machine during operation. What could be offered with this equipment? - analysis the components of the forces Fx,Fy,Fz occurring on the frame and the working resistance - analysis the load on the tractor's universal joint shaft - identification the working resistance of tractor-mounted and semi-mounted machines on the tractor's threepoint linkage Specifications - three-point linkage category of the tested machines: 1 or 2 - mass of the tested machine - max. 3t at a distance of 1m from the attachment point of the implement - horizontal working resistance force of the agricultural machine - max. 15 kN - determination of force in the three-point linkages - YES - measurement of the angle of inclination of the agricultural machine - YES Hyperlink Physical Services using this equipment None S00053 Datasets – Real World Training S00056 Test design: definition of the test enviroment S00060 Testbed preparation S00062 Test execution services S00214 Conformity assessment and safety tests of machine devices
302 Infrastructure Name: Ł-PIT Poznań Partner: L-PIT Node/Satellite: PL Equipment Name: Particle size analyzer Owner of the Equipment: L-PIT Facilities it is being used in - Stand for testing the size of drops Type of Equipment X Fixed Movable Description Particle size analyzer is a device for measuring the droplet size spectrum in a spray nozzleas a function of pressure and temperature. The device may be used to verify the correctness of AI algorithms controlling the spectrum of sprayed working fluid in agricultural and orchard sprayers as a function of pressure and temperature What could be offered with this equipment? - meassuring the droplet size spectrum, - verify the algorithms controlling the spectrum of sprayed working fluid. Specifications - measuring range the size of drops: 0.1-900 µm and 1-2000 µm - sampling rate: up to 2.5 kHz - adjusting the pressure of the sprayed liquid in the range of 1-20 bar Hyperlink Physical Services using this equipment None S00062 Test execution services S00066 Life Cycle Assessment of system under test S00214 Conformity assessment and safety tests of machine devices
303 Infrastructure Name: Ł-PIT Poznań Partner: L-PIT Node/Satellite: PL Equipment Name: Tractor 260 HP, Deutz-Fahr Agrotron Owner of the Equipment: L-PIT Facilities it is being used in - Sielinko Land Facility Type of Equipment Fixed X Movable Description A tractor with a power of 260 HP. It can be used/ aggregated with various agricultural machines. It can be used for enabling testing of innovative machines and devices for companies that do not have their own agricultural tractor. The tractor enables data collection for machine learning during agrotechnical operations. What could be offered with this equipment? - data collection for machine learning, - testing of equipment for autonomous tractor driving, - verification of field maps, - working with mounted, semi-mounted and trailed machines. Specifications - Identification: Deutz-Fahr Agrotron 260 - Engine power: 260 HP - Three Point Linkage category: II - Three Point Linkage load capacity: 10500 kg - PTO rotation speed: 1000 RPM Hyperlink Physical Services using this equipment None S00053 Datasets - Real-World Training S00060 Testbed preparation S00190 AI-Testfield – Demonstration S00191 AI-Testfield – Development
304 B. WODR Infrastructure Name: SIELINKO Partner: WODR Node/Satellite: PL Description Wielkopolski Ośrodek Doradztwa Rolniczego w Poznaniu (Wielkopolska Agricultural Advisory Center in Poznań – WODR) is a partner of the Polish satellite within the AgrifoodTEF project (Agriculture, Food and Forest Technology European Facility). This project focuses on the development and implementation of innovative technologies in the agriculture, food and forestry sectors. WODR is a public organization running directly under the Ministry of Agriculture and Rural Development. Its role is to improve the level of agricultural incomes and improve the market competitiveness of farms, to support the sustainable development in rural areas, as well as to raise the level of professional skills of farmers and other inhabitants in rural areas. WODR is also responsible of promoting and disseminating the innovative services in agriculture. WODR has a good experience in implementing projects related to the development of agriculture and digitalization. It participates in many European projects (financed by RDP, Horizon 2020 , horizon Europe and Digital Europe) . WODR is also a leader of digitalization of agriculture advisory in Poland. It’s a leader of a flagship ICT project called eDWIN, established polish advisory digital platform. WODR has its own test facility located in Sielinko (70km from Poznań) where on the surface of over 70ha experimental fields, apiaries (bee hives), animal and agricultural technology demonstration center are situated. In particular, Sielinko is equipped with control station for field and orchard sprayers, cold pressing of oil training and services, collection of energy plants. There is also an area of approximately 3 ha where the latest varieties of crop plants, including those from the list of recommended varieties, are cultivated. List of Facilities used in offered services - 72ha of fields with various soil grades - Bridge sprinkler
311 Infrastructure Name: SIELINKO Partner: WODR Node/Satellite: PL Equipment Name: Krukowiak apollo 1500 Owner of the Equipment: WODR Facilities it is being used in - Sielinko Land Facility Type of Equipment Fixed X Movable Description Krukowiak apollo 1500 is a sprayer with a bravo 400 s computer . It is equipped with GPS, but it does not have the possibility of reading maps with variable dosing What could be offered with this equipment? - sowing after ploughing Specifications - -GPS - -bravo 400s computer Hyperlink Physical Services using this equipment None S00053 Datasets - Real-World Training S00060 Testbed preparation S00190 AI-Testfield – Demonstration S00191 AI-Testfield – Development
312 Infrastructure Name: SIELINKO Partner: WODR Node/Satellite: PL Equipment Name: KUHN Maxima 3 TS seeder Owner of the Equipment: WODR Facilities it is being used in - Sielinko Land Facility Type of Equipment Fixed X Movable Description KUHN MAXIMA 3 TS a a pneumatic spot seeder for precision 6-row sowing at a spacing of 45 cm or 75 cm. Using of this seeder enable also to undersow the fertilizer , but without the possibility of variable sowing based on application maps. What could be offered with this equipment? - undersowing the fertilizer Specifications - 6-row sowing; - space of sowing 45/75 cm Hyperlink Physical Services using this equipment None S00053 Datasets - Real-World Training S00060 Testbed preparation S00190 AI-Testfield – Demonstration S00191 AI-Testfield – Development
313 C. PSNC Infrastructure Name: CBPIO Partner: PSNC Node/Satellite: PL Description PSNC (Poznan Supercomputing and Networking Center) provides access to a world-class e-Infrastructure for the scientific community, a specific research and development environment. PSNC implements a number of research and development works aimed at developing and implementing dedicated platforms for data exchange, services and applications for innovative agriculture. The Polish Optical Internet Research Center (CBPIO) is the headquarters of PSNC. The supercomputer and server infrastructure is located here, as well as most of the laboratories and equipment. List of Facilities used in offered services - GNSS laboratory - Phenological and agrometeorogical stations - Supercomputing infrastructure
314 Infrastructure Name: CBPIO Partner: PSNC Node/Satellite: PL Facility Name: GNSS laboratory Owner of the Facility: PSNC Location - Address: Jana Pawła II 10, 61-139 Poznań, Poland - GPS Coordinates: (52.406867737610284, 16.9528524155001) Type of Facility Fixed X Reconfigurable Movable Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture Food Processing X Livestock Farming Cluster being served X Data AI & Robotics Algorithms X Physical System Assessment Description The GNSS laboratory allows to use GNSS simulator, which produces a comprehensive range of emulated RF signals with industry-leading flexibility, fidelity, performance and reliability. It covers full set of known constellations like GPS, GLONASS, Galileo, BeiDou, QZSS, NavIC and SBAS. What could be offered through this facility? - Tests according to any user scenario - Quality control of new products and new prototypes - Test the device for performance in an environment with a given rate of change in conditions and disruption List of Equipment Physical Services using this Facility GNSS Simulator S00190 S00191 S00192 S00195 S00199
315 Infrastructure Name: CBPIO Partner: PSNC Node/Satellite: PL Facility Name: Phenological and agrometeorological stations Owner of the Facility: PSNC Location - Address: Jana Pawła II 10, 61139 Poznań, Poland - GPS Coordinates: (link to agrometeorogical stations marked on the map: https://www.edwin.gov.pl/daneagrometeorologiczne) Type of Facility X Fixed X Reconfigurable Movable Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture Food Processing X Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System Assessment Description PSNC has a network of 20 units of phenological stations, consisting of a PTZ camera with 40x optical zoom and GSM router. These stations are used to observe phenological phenomena and monitor the occurrence of pests and plant diseases. They are located throughout Poland. Additionally, PSNC is the owner of data transmitted from a network of 550 agrometeorological stations. These stations are precise tools for conducting continuous meteorological measurements. Each station is equipped with a set of sensors that measure air temperature and humidity, rainfall, and wind direction and speed. Data from the station is sent via GSM transmission and is available to the user via a web browser. What could be offered through this facility? - access to cameras of phenological stations - access to data from meteorological stations List of Equipment Physical Services using this Facility None S00190 S00191 S00192 S00195 S00199
316 Infrastructure Name: CBPIO Partner: PSNC Node/Satellite: PL Facility Name: Supercomputing infrastructure Owner of the Facility: PSNC Location - Address: Jana Pawła II 10, 61-139 Poznań, Poland - GPS Coordinates: (52.406867737610284, 16.9528524155001) Type of Facility X Fixed Reconfigurable Movable Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture X Food Processing X Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System Assessment Description PSNC provides the scientific community with access to world-class IT infrastructure. As the operator of the national PIONIER network, we provide fast and secure access to the Internet and network services at international, national and local level. As a Supercomputing Center, we offer a wide range of computing services, access to virtual servers, cloud services, while allowing for fast and scalable data management. What could be offered through this facility? - access to computation infrastructure - access to data storage infrastructure - access to cloud infrastructure List of Equipment Physical Services using this Facility computation infrastructure S00049 data storage S00050 cloud infrastructure S00051
317 Infrastructure Name: CBPIO Partner: PSNC Node/Satellite: PL Equipment Name: Cloud infrastructure Owner of the Equipment: PSNC Facilities it is being used in - Supercomputing infrastructure Type of Equipment X Fixed Movable Description The managed Cloud Container Platform that allows you to develop and deploy applications using your preferred programming languages, versions, and frameworks—on demand. - Set Up a Development Environment in Minutes - Wide Selection of Languages, Tools, and Frameworks - Centrally Managed Infrastructure The Container Platform is also referred to as Platform as a Service (PaaS). For this Container Platform we are making use of OpenShift Kubernetes Distribution (OKD) which integrates integrates Kubernetes with additional tools and features to facilitate the development, deployment, and management of applications. Two physical locations: The Container Platform is served independently from two geographically distributed data centers. Using the Container Platform, you choose and use one of the two independently hosted services. What could be offered with this equipment? - PaaS can run almost any Linux app in any version - if you can containerize it will run! - You don't have to worry about underlying hardware - specify network architecture, CPU and memory requests and which app to run, and PaaS will manage it for you! - Manage your networking. For example PaaS can manage and renew ssl certificates for you! - Scalable - PaaS can balance traffic within your app and scale your app automatically as traffic changes! - Built-in metrics and monitoring - if your app can expose Prometheus metrics - PaaS can scrape and display metrics from your applications and even send email alerts when your app is misbehaving! (only OKD4 clusters) - Secure by default - all default settings are secure - this sometimes requires additional configuration if your app requires extended permissions Specifications OKD is a Kubernetes distribution optimized for continuous application development, enabling rapid deployment and easy scaling. It is ideal for: - Hosting interactive web applications or regular websites. - Pre-packaging complex applications like Apache Spark, making it easy for others to deploy their own instances. - Deploying web applications written in common languages like Python, JavaScript, or Java with a single command. - Running web applications or hosting websites, offering many of the essential features needed for web-based applications. Current OKD version: 4.15 / Kubernetes version: 1.28 Hyperlink Physical Services using this equipment None S00050
318 Infrastructure Name: CBPIO Partner: PSNC Node/Satellite: PL Equipment Name: Computation infrastructure Owner of the Equipment: PSNC Facilities it is being used in - Supercomputing infrastructure Type of Equipment X Fixed Movable Description The main HPC system at PCSS is the Eagle supercomputer, consisting of the Eagle, Altair, and Proxima islands. Eagle: (this part was decommissioned in 2022) - Historically, the primary component was the Eagle system, built on the basis of 1,100 servers equipped with two Intel processors from the Haswell/Broadwell family, offering 28 or 32 cores per server. The Eagle system offered 1.4 PFlops of theoretical double-precision computing power. - An expansion added a group of servers forming the Altair island, which was logically connected to Eagle, nearly quintuple the total available computing power. Altair consists of 1,400 servers equipped with two Intel processors from the Cascade Lake family, offering 48 cores per server. The servers were grouped based on the amount of available RAM: 75% of the servers were equipped with 192GB, and 25% of the systems had 384GB of RAM. Altair offered a total of 5.9 PFlops of theoretical double-precision computing power. During the expansion, a small number of servers were also purchased, each equipped with eight Nvidia V100 accelerators offering 32GB of memory each. The GPU partition provides 0.5 PFlops of theoretical double-precision computing power. - Another expansion aimed at providing users with accelerators necessary for applications utilizing Artificial Intelligence (AI) mechanisms. It consists of two types of servers: o Equipped with AMD EPYC 9334 processors, 768 GB of RAM, and 4 Nvidia H100 GPUs. These servers are also equipped with fast local NVME drives with a capacity of 16TB. o Equipped with the latest Intel® Xeon® Platinum 8480+ processors and 512 GB of RAM. o In total, these servers offer over 22 PFlops of computing power, which is nearly four times more than the Altair partition. All compute servers (except Proxima-GPU) are diskless. Data access is handled through the Infiniband network – two Lustre systems with capacities of 3PB and 6PB are available. Additionally, a system for long-term data storage with a capacity of 10PB and a project storage space of 15PB are provided. What could be offered with this equipment? - Precision Agriculture: Crop Yield Prediction - Climate and Weather Analysis: Localized Weather Forecasting - Crop and Soil Monitoring: Soil Health Analysis - Genomics and Breeding: Genetic Analysis for Crop Improvement - Pest and Disease Management: Early Warning Systems - Supply Chain Optimization: Post-Harvest Logistics - Sustainable Agriculture and Carbon Management: Carbon Sequestration Modeling - Digital Twin for Farms: Virtual Farm Models Specifications The detailed specification of the HPC/computation infrastructure is available here: https://wiki.man.poznan.pl/hpc/Eagle Hyperlink Physical Services using this equipment https://wiki.man.poznan.pl/hpc/Eagle S00051
319 Infrastructure Name: CBPIO Partner: PSNC Node/Satellite: PL Equipment Name: Data storage Owner of the Equipment: PSNC Facilities it is being used in - Supercomputing infrastructure Type of Equipment X Fixed Movable Description PSNC operates the data storage and data management as well as computing and data processing services based on the hierarchical data storage infrastructure with overall capacity of ~500 Petabytes. Data storage systems at PSNC include 10+ PB of fast SSD storage for cloud and HPC and 30+PB of disk storage for HPC. In addition 100 PB of disk servers are backing the PSNC cloud platform. PSNC also uses tapes for long-term storage and backup. What could be offered with this equipment? This infrastructure can be used for on-line and near-line data archival and backup, in particular for long-term, costefficient storage of large datasets. - High performance flash-based and disk-based storage systems may be used for data processing and computing in the cloud environment and in the HPC platform. For instance, flash-based storage can be applied to accelerate the data processing including AI models training, image recognition and other use cases. - Large capacity disk systems (100+PB) running Software Defined Storage software (including Ceph) can be used in order to collect and process data in both cloud and HPC. - Object storage and file system storage can be exploited as a scalable and efficient back-end for in-cloud applications and platforms dealing with large data sets. - They are used as data storage back-end for on-premise cloud platform at PSNC, based on OpenStack and OKD/Kubernetes (see other PSNC's products). Specifications - PSNC provides disk-based and tape-based long-term, massive datasets storage, with capacity of 60PBs and 300PB respectively. Hyperlink Physical Services using this equipment None S00049
320 Infrastructure Name: CBPIO Partner: PSNC Node/Satellite: PL Equipment Name: GNSS simulator Owner of the Equipment: PSNC Facilities it is being used in - GNSS Laboratory Type of Equipment X Fixed Movable Description The GNSS laboratory is equipped with a Spirent GSS9000 GNSS simulator. This device can be used to develop positioning, navigation and timing systems for military, space, and other high precision applications you require comprehensive, highly sophisticated testing. Powered by SimGEN®, and using the latest state-of-the-art SDR technology designed specifically for GNSS signal simulation, the GSS9000 produces a comprehensive range of emulated RF signals with industry-leading flexibility, fidelity, performance and reliability. What could be offered with this equipment? Using a GNSS simulator can be useful in the following cases: - Precision Farming Development: Simulating high-accuracy GNSS signals for the testing and development of autonomous farming equipment, ensuring reliable positioning in diverse field conditions. - Testing Under Realistic Scenarios: Providing controlled testing environments for agricultural GNSS systems, including variable atmospheric conditions, multipath effects, and interference scenarios. - Enhanced RTK and PPP Services: Evaluating and fine-tuning Real-Time Kinematic (RTK) and Precise Point Positioning (PPP) solutions used in high-precision farming applications like planting, spraying, and harvesting. - Innovation in GNSS-Dependent Technologies: Supporting the design and validation of advanced agricultural technologies, including GNSS-enabled drones for field mapping and crop monitoring. Specifications The GSS9000 supports an extensive range of constellation configurations, from GPS L1 C/A through to multi-GNSS, multi-frequency systems, including authorised signals. Configurations are available that support multi-antennas and multi-vehicles, for example differential-GNSS, attitude determination, interference/jamming, spoofing and Controlled Reception Pattern Antenna(CRPA) testing. Some of the GSS9000’s key attributes are: o World-leading performance in several key areas such as: 2000 Hz System Iteration Rate (SIR) and Hardware Update Rate (HUR) 0.3 mm RMS Pseudorange Accuracy– 0 mm uncertainty due to inter-channel bias <0.005 Rad RMS Phase Noise o Highly flexible and configurable enabled through a software defined architecture o Backward compatibility with legacy scenarios enabling seamless transition from existing Spirent platforms o In-field upgradeability of principal GNSS functionality and capability o On-the-fly re-configuration of constellation and signal configurations o Real-time injection of RINEX data for close alignment to live-sky signals o Multi-RF output options available• Embedded Interference Sources (GTx) available o Embedded Spoofing available• Generation of in-band RF signals from I/Q data files o Fully future-proofed for all advances in GNSS systems, signals, modulations, codes and data Hyperlink Physical Services using this equipment https://www.spirent.com/assets/u/datasheet-gss9000-series S00190 S00191 S00192 S00195 S00199
327 Infrastructure Name: Aerosfera Digital Airport Partner: PSNC Node/Satellite: PL Equipment Name: Parrot Disco AG Owner of the Equipment: PSNC Facilities it is being used in - Laboratory for the development of Unmaned Aerial Vehicles Type of Equipment Fixed X Movable Description The Parrot Disco AG is a flying wing drone equipped with a Parrot Sequoia multispectral camera. Due to its design different from multi-rotors, it allows for longer flight times and higher speeds. What could be offered with this equipment? This drone allows to collect multispectral data/images, which in turn allow to create results in the form of NDVI indexes. Specifications Parrot Disco AG: - Area Coverage: 80ha (200ac) in a single flight at 120m flight altitude (400ft), - Ground resolution: 14.8cm/px (5.5in/px) at 120m (400ft) flight altitude Parrot Sequoia - RGB camera resolution: 16 Mpx, 4608x3456 pixels, - 4 global shutter single band cameras with resolution: 1.2 Mpx, 1280x960 pixels, - 4 separate bands:Green (550nm BP 40nm), Red (660nm BP 40nm), Red Edge (735nm BP 10nm), Near infrared (790nm BP 40nm) Hyperlink Physical Services using this equipment https://www.parrot.com/assets/s3fspublic/2021-09/parrot_productsheet_discopro-ag_en.pdf S00053 S00192 S00198
328 VIII. Spanish Node The Spanish node is composed as follows: Infrastructures Facilities Main Equipments UDL 3 7 34 UCO 3 5 9 GRADIANT 1 3 6 AGACAL 1 1 1 CEP 1 1 8 ABT 1 1 1 HISPATEC 1 1 3 Total Spanish Node 11 19 62 Global infrastructure composition It offers 19 facilities for AgrifoodTef Services delivery. Some information about Spanish node facilities are given in the following figures. Facility: type distribution Sectors coverage Facility: cluster distribution Geographical distribution
329 A. UDL Infrastructure Name: EPS Partner: UDL Node/Satellite: SP Description The University of Lleida is renowned for its commitment to high-quality education and research in various fields. The Polytechnic Sschool (EPS) at the University of Lleida is a prominent institution specializing in engineering and architecture education. Located at the Cappont Campus of Lleida, EPS offers a range of undergraduate and master's programs in computer science, industrial engineering, and architecture. The EPS infrastructure includes facilities designed to innovation and practical learning. The campus features modern laboratories and workshops for research and development. Among its are the specialized laboratories in computer science and industrial engineering, which support both theoretical and practical training. This infrastructure makes EPS a center for technology and engineering, contributing significantly to the AgriFoodTEF project's mission of advancing agri-food technology and robotics. List of Facilities used in offered services - UsabiliLAB
330 Infrastructure Name: EPS Partner: UDL Node/Satellite: SP Facility Name: UsabiliLAB Owner of the Facility: UDL Location - Address: Escola Politècnica Superior de Jaume II, 69, CP 25001, Lleida - GPS Coordinates: 41.60876,0.624077 Type of Facility X Fixed X Reconfigurable Movable Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture X Food Processing X Livestock Farming Cluster being served Data AI & Robotics Algorithms Physical System X Assessment Description Dedicated to evaluating the usability and accessibility of interactive products to enhance the User Experience (UX). It specializes in assessing a wide range of user interfaces, including web and mobile applications, software, and even agricultural machinery interfaces. The lab employs a user-centered design approach, focusing on improving ease of use (usability) and eliminating barriers to access (accessibility), ensuring that products meet high standards of functionality and user satisfaction. What could be offered through this facility? Provides companies with services for evaluating and improving the usability and accessibility of their interactive products. Through user testing and interface evaluation, the lab helps businesses optimize user experience, ensuring their products are intuitive, efficient, and accessible to all. Ideal for technology-driven companies, the lab supports innovation in software, mobile applications, and other user-interface-based products, making it a valuable partner for businesses seeking to enhance product-market fit and customer engagement. List of Equipment Physical Services using this Facility Eye Tracker S00245: User Experience (UX) Evaluation Usability Suite and Interface Design Software
331 Infrastructure Name: EPS Partner: UDL Node/Satellite: SP Equipment Name: Eye Tracker Owner of the Equipment: UDL Facilities it is being used in UsabiliLAB Type of Equipment Fixed X Movable Description The Eye Tracker at UsabiliLAB records and analyzes user gaze patterns as they interact with digital or physical interfaces. Adaptable for desktop, mobile, and custom setups, it provides detailed data on where users focus their attention, helping refine designs to meet user expectations and improve usability. What could be offered with this equipment? The Eye Tracker offers precise, real-time insights into user behavior, aiding in the optimization of interfaces by identifying key areas of visual attention. This helps companies create intuitive, user-friendly designs for web pages, applications, and interactive products in the agri-food sector, ensuring accessibility and engagement are prioritized in product development. Specifications - Sensor: IS5 with custom Tobii NIR sensor (850nm) - Field of View: 40 x 40 degrees - Gaze Tracking: 133Hz (non‐interlaced at 33Hz), continuous gaze recovery - Head Tracking: 6DoF via CPU + Neural Network - Biometric Security: Windows Hello 4.x (NIR + RGB) - Software: Tobii Experience - Requirements: Windows 10/11, 6th Gen Intel Core (or equivalent AMD), 8GB RAM, USB 2.0 BC1.2 Hyperlink Physical Services using this equipment None S00245: User Experience (UX) Evaluation
332 Infrastructure Name: EPS Partner: UDL Node/Satellite: SP Equipment Name: Usability Suite and Interface Design Software Owner of the Equipment: UDL Facilities it is being used in UsabiliLAB Type of Equipment Fixed X Movable Description The Usability and Interface Design Software Suite at UsabiliLAB provides a set of tools designed to evaluate, prototype, and improve the usability of digital products. This suite includes Morae for tracking usability interactions, Jaws for screen reading, GUI Design Studio for creating digital prototypes, Justinmind Prototyper for developing wireframes, and Machinations.io for simulating system interactions. These tools enable comprehensive UX assessments, from accessibility testing to interactive design, ensuring products are user-friendly and accessible. What could be offered with this equipment? With these tools, UsabiliLAB can support SMEs in enhancing the usability and accessibility of their digital products. By conducting thorough UX evaluations and providing actionable insights, the suite helps develop efficient and usercentered interfaces for web, mobile, and other interactive platforms in the agri-food sector. Specifications - GUI Design Studio: A graphic interface design tool. It enables designers to quickly create interactive digital prototypes. - Jaws: A screen reader that allows someone with some type of disabilities to read and interact with the information that appears on a screen. - Morae: A software tool to carry out usability tests and to measure user interaction effectiveness and efficiency. - Justinmind Prototyper: A prototyping tool to develop wireframes and functional prototypes of interactive systems. - machinations.io: A tool to create playable digital twins of your system using a lean, Turing complete Universal Modelling Language (UML). Hyperlink Physical Services using this equipment None S00245: User Experience (UX) Evaluation
333 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Description The University of Lleida is renowned for its commitment to high-quality education and research in various fields. The School of Agrifood and Forestry Engineering and Veterinary Medicine (ETSEAFIV) is a cornerstone of this commitment, representing one of the premier institutions in Spain for studies related to agriculture, food, forestry, and veterinary medicine. This comprehensive campus includes specialized facilities essential for research and development. Notable infrastructure includes the Departments of Animal Science, Food Technology and Horticulture, Botany and Gardening, Environment and Soil Sciences, as well as a pilot plant dedicated to food technology, and Agrotecnio Research Center, focusing on agricultural and food technology research. ETSEAFIV is also equipped with a range of advanced labs. The Sensory Physical Chemical Analysis Lab evaluates food quality attributes, and the Microbiological Quality Lab focuses on food safety. The Soil Water Plant Organic Lab supports environmental and agricultural research. The Plant Genomics Lab is dedicated to genetic research aimed at enhancing crop development, while the Precision Agriculture Lab integrates advanced technologies into farming practices. With around 200 faculty members and 1,500 students, ETSEAFIV is a pivotal center for innovation, playing a significant role in the goals of the AgriFoodTEF project. List of Facilities used in offered services - Sensory Physical Chemical Analysis Lab - Microbiological Quality Lab - Soil Water Plant Organic Lab - Plant Genomics Lab - Precision Agriculture Lab
334 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Facility Name: Microbiological Quality Lab Owner of the Facility: UDL Location - Address: Campus ETSEA Edifici 5A - SCT Qualitat microbiològica en el sector agroalimentari Av. Alcalde Rovira Roure, 191, CP 25198, Lleida - GPS Coordinates: 41.628105,0.598138 Type of Facility X Fixed Reconfigurable Movable Land Sectors being Arable Tree Crops Viticulture served Horticulture X Food Processing Livestock Farming Cluster being served X Data AI & Robotics Algorithms X Physical System X Assessment Description Specialized facility dedicated to the microbiological analysis of food, animal feed, and water. Equipped with advanced tools for the identification and enumeration of microorganisms, the lab covers a wide spectrum of microbial analyses, including pathogens, spoilage organisms, and quality control tests. The lab also specializes in the analysis of molds and mycotoxins, using ELISA and HPLC techniques, and offers scientific advice on HACCP implementation. The facility is fully compliant with ISO and AFNOR standards, ensuring precision and reliability. What could be offered through this facility? It offers food and animal feed companies comprehensive microbiological testing services, including pathogen detection, spoilage microorganism enumeration, and mycotoxin analysis. With advanced techniques like ELISA, HPLC, and PCR, the lab can identify microorganisms at the genus or species level. It also provides technical support, HACCP advice, and food safety training for handlers. Ideal for companies focused on product safety, the lab ensures compliance with strict hygiene and microbiological standards, improving food quality and safety. List of Equipment Physical Services using this Facility Autoclaves S00234, Computer Vision for automated food quality assessment Incubator Ovens Masticators Shakers Spectrophotometer Lab Equipment Suite Plate Reader (for ELISA techniques) HPLC chromatograph system PCR
335 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Facility Name: Plant Genomics Lab Owner of the Facility: UDL Location - Address: Campus ETSEA Departament de Producció Vegetal i Ciència Forestal Av. Alcalde Rovira Roure, 191 CP 25198, Lleida - GPS Coordinates: 41.628105,0.598138 Type of Facility X Fixed Reconfigurable Movable Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data AI & Robotics Algorithms X Physical System X Assessment Description Specialized in advanced molecular techniques for plant DNA and protein analysis. The lab provides services such as genomic DNA extraction, PCR-based genotyping, and electrophoresis for DNA and protein separation. It also offers DNA fragment analysis and varietal purity testing, with a focus on cereal crops. The lab is actively involved in biodiversity studies, molecular marker applications, and quality control assessments of seeds and plants, contributing to advancements in plant genomics research and crop improvement. What could be offered through this facility? Provides agricultural and biotech companies with genomic analysis services, including DNA extraction, genotyping, and molecular marker studies. Businesses can utilize these services to conduct biodiversity assessments, evaluate varietal purity, and improve crop genetics. The lab's expertise in cereal genomics and root-shoot growth analysis makes it a valuable resource for companies focused on plant breeding, genetic improvement, and seed quality control, ensuring precision in agricultural innovation and product development. List of Equipment Physical Services using this Facility Genetic Analysis Equipment Not yet in catalogue Thermal Cycling Equipment Centrifugation Equipment Electrophoresis Equipment Hybridization Equipment
336 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Facility Name: Precision Agriculture Lab Owner of the Facility: UDL Location - Address: Campus ETSEA. Edifici 4 Despatx 1.04.3 Av. Alcalde Rovira Roure, 191 CP 25198, Lleida - GPS Coordinates: 41.629476991,0.596208306 Type of Facility Fixed X Reconfigurable Movable X Land Sectors being X Arable X Tree Crops X Viticulture served X Horticulture Food Processing Livestock Farming Cluster being served X Data X AI & Robotics Algorithms X Physical System Assessment Description This facility provides resources for developing precision agriculture technologies. Key features include remote sensing drones for aerial imaging, precision phytosanitary applicators, and variable-rate sprayers designed to optimize fertilizer and pesticide application. What could be offered through this facility? - Soil and Crop Characterization. We provide a wide range of sensors for 3D characterization of vegetation and soil characterization. Our offerings include: 3D mapping, High-resolution imaging and depth sensing, Map soil apparent electrical conductivity, Analyzing vegetation health and crop productivity. - Precision Agriculture. Our laboratory is equipped with advanced tools to enhance precision in agricultural practices. Like Comprehensive aerial imaging and analysis with drones and Variable rate controllers for either real-time and map-based applications. - Comprehensive Data Analysis and Laboratory Services. We offer data analysis services and laboratory support to ensure the accuracy and effectiveness of your agricultural innovations. List of Equipment Physical Services using this Facility Viametris bMS3D-4Cam Portable Scanner S00247: Validation of Yield Estimation based on Computer Vision Remote Sensing Drones S00277: Evaluation of AI-based optimal pesticide dosage in tree crops Precision Phytosanitary Applicators and Variable-Rate Sprayers S00278: Evaluation of AI-based optimal pesticide dosage in vineyards 3D Mapping and LiDAR Sensors Soil and Vegetation Sensors
343 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Equipment Name: Spectrophotometer Owner of the Equipment: UDL Facilities it is being used in Microbiological Quality Lab Type of Equipment X Fixed Movable Description The Spectrophotometer provides high-quality spectral analysis for the Microbiological Quality Lab. Utilizing a dualbeam optical system and a maintenance-free xenon lamp, it accurately measures UV and near-IR spectra, supporting applications from kinetics studies to concentration determination. This user-friendly device allows for standalone operation or integration with software for complex experiment management. What could be offered with this equipment? The spectrophotometer enables precise quantification of nucleic acids, proteins, and other biomolecules, facilitating microbial quality control, purity assessments, and concentration measurements, essential for microbiological research and quality assurance. Specifications - Optical System: Dual-beam - Lamp: Xenon flash (190-1100 nm range) - Functions: Wavelength scans, fixed wavelength, kinetics, concentration analysis Hyperlink Physical Services using this equipment None S00234, Computer Vision for automated food quality assessment
344 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Equipment Name: Lab Equipment Suite Owner of the Equipment: UDL Facilities it is being used in Microbiological Quality Lab Type of Equipment x Fixed Movable Description This essential microbiology laboratory equipment set includes a range of basic tools for routine microbiological analysis and testing. The set supports a variety of standard procedures in microbial research, from sample preparation and pH measurement to microscopy and water activity testing. Its components provide reliable conditions for sample processing and basic analysis, making it a foundational resource for daily tasks in the Microbiological Quality Lab. What could be offered with this equipment? This basic equipment supports sample preparation, analysis, and measurement, which are essential for microbiological testing and research. It enables essential functions such as centrifugation, pH measurement, water activity analysis, and sample observation, facilitating routine tasks for consistent lab productivity. Specifications Basic laboratory equipment, among other: - Centrifuges: Hettich Lab Technology Microlitre Centrifuge, Hettich Mikro 20 (up to 13,000 RPM) - Water Activity Meter: Decagon Devices Aqualab Series 3, 0.030-1.000 aw range, ±0.003 aw accuracy - pH Meters: Various models for accurate pH measurement - Microscopes: High-resolution microscopy for microbial analysis - Orbital Shakers: For sample mixing and agitation - Laminar Flow Cabins: Telstar AV-30/70 for ensuring a contamination-free workspace, using dual HEPA filters. Hyperlink Physical Services using this equipment None S00234, Computer Vision for automated food quality assessment
345 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Equipment Name: Plate Reader (for ELISA techniques) Owner of the Equipment: UDL Facilities it is being used in Microbiological Quality Lab Type of Equipment X Fixed Movable Description The Plate Reader for ELISA techniques is an advanced microplate spectrophotometer designed for precise absorbance measurements in ELISA assays. Utilizing an 8-channel optical path, it supports single and dual-wavelength measurements, as well as absorbance, qualitative, and quantitative tests. With a large touch screen and user-friendly software, the Plate Reader provides real-time display, storage, and printing of results, enhancing efficiency and data accessibility for research and diagnostic applications. What could be offered with this equipment? This Plate Reader supports reliable detection and quantification of biomolecules such as proteins, antibodies, and hormones, making it ideal for applications in immunology, biochemistry, and quality control. It enables highthroughput analysis, ensuring accurate and reproducible results for laboratory needs. Specifications - Detection Modes: Single and dual wavelength - Measurement Modes: Absorbance, qualitative, quantitative, inhibition ratio - Software: Compatible with ELISA analysis software; LIS system connectivity - Quality Control: Weekly/monthly QC monitoring Hyperlink Physical Services using this equipment None S00234, Computer Vision for automated food quality assessment
346 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Equipment Name: HPLC chromatograph system Owner of the Equipment: UDL Facilities it is being used in Microbiological Quality Lab Type of Equipment X Fixed Movable Description The HPLC Chromatographic System with Fluorescence Detectors is a versatile liquid chromatography system designed for high-resolution separation and quantification of complex samples. This HPLC system (HPLC with fluorescence and diode array detectors) features a multi-fluorescence detector and a dual absorbance UV/Vis detector, providing enhanced sensitivity and selectivity for detecting low concentrations of analytes. It supports a wide range of applications, ensuring reliable and reproducible results, making it ideal for microbiological quality analysis in laboratories. What could be offered with this equipment? This HPLC system allows for the precise quantification of biomolecules, including proteins and peptides, facilitating comprehensive analyses in microbiology and other scientific research areas. Its ability to perform multiple analyses simultaneously enhances laboratory productivity, enabling efficient workflow management and accurate quality control assessments. Specifications - Detectors: Waters 2475 Multi Fluorescence Detector Waters 2487 Dual Absorbance UV/Vis Detector - Separation Module: Waters 2695 - Injection Capacity: Up to 120 vials (5 carousels of 24 vials each) - Injection Volume Range: 0.1 to 100 µL - Flow Rate: 0.010 to 10.000 mL/min - Operating Pressure: Maximum 5000 psi (345 bar) - Temperature Control: Sample 4 to 40°C, Column oven 20 to 60°C - Sample Injections: 1 to 99 injections per vial Hyperlink Physical Services using this equipment None S00234, Computer Vision for automated food quality assessment
347 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Equipment Name: PCR Owner of the Equipment: UDL Facilities it is being used in Microbiological Quality Lab Type of Equipment X Fixed Movable Description The PCR (Polymerase Chain Reaction) system is a powerful molecular biology tool used for amplifying specific DNA sequences. This equipment enables rapid and sensitive detection of microorganisms, facilitating species identification and genetic analysis in microbiological research and quality control. What could be offered with this equipment? This PCR system can provide precise species identification of bacteria and fungi, supporting pathogen detection and strain characterization. It enhances laboratory capabilities for microbial diagnostics, environmental monitoring, and research applications. Specifications None Hyperlink Physical Services using this equipment None S00234, Computer Vision for automated food quality assessment
348 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Equipment Name: Genetic Analysis Equipment Owner of the Equipment: UDL Facilities it is being used in Plant Genomics Lab Type of Equipment X Fixed Movable Description Specialized tools for genetic analysis, including DNA fragment analysis and varietal purity testing. These instruments are for evaluating genomic traits, identifying molecular markers, and improving crop genetics. What could be offered with this equipment? Provides high-precision genetic analysis for DNA sequencing, varietal purity assessment, and biodiversity studies. Supports applications in plant breeding, crop improvement, and quality control. Specifications - Genetic Analyzer ABI 3130: High-throughput system for DNA fragment analysis and sequencing. - Scanner: Digitizes genetic data for precise analysis and documentation. Hyperlink Physical Services using this equipment None Not yet in catalogue
349 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Equipment Name: Thermal Cycling Equipment Owner of the Equipment: UDL Facilities it is being used in Plant Genomics Lab Type of Equipment X Fixed Movable Description Thermal cyclers for PCR-based applications, including DNA amplification and genotyping. These tools are for molecular biology studies and plant genomic research. What could be offered with this equipment? Offers services for DNA amplification, genotyping, and molecular marker applications. Supports plant breeders and researchers in precision agriculture and genetic studies. Specifications - Thermocyclers: Enable precise and reproducible thermal cycling for PCR processes. Hyperlink Physical Services using this equipment None Not yet in catalogue
350 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Equipment Name: Centrifugation Equipment Owner of the Equipment: UDL Facilities it is being used in Plant Genomics Lab Type of Equipment X Fixed Movable Description Centrifuges designed for the separation of biological samples, ensuring efficient DNA and protein isolation for genomic studies. What could be offered with this equipment? Sample preparation for molecular analysis, including DNA extraction and protein purification. Ideal for agricultural and biotech applications in crop genetics and seed quality control. Specifications - Table top centrifuge (6000 rpm): High-speed centrifuge for rapid sample separation. - Microcentrifuges: Compact devices for processing small sample volumes with precision. Hyperlink Physical Services using this equipment None Not yet in catalogue
351 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Equipment Name: Electrophoresis Equipment Owner of the Equipment: UDL Facilities it is being used in Plant Genomics Lab Type of Equipment X Fixed Movable Description Specialized systems for DNA and protein separation via gel electrophoresis, enabling molecular studies such as genotyping and varietal purity testing. What could be offered with this equipment? Supports agricultural and biotech companies with DNA/protein analysis and molecular marker identification. Ideal for quality control and crop improvement applications. Specifications - Horizontal electrophoresis systems: For DNA separation and analysis. - Vertical electrophoresis systems: For protein separation and characterization. - UV light transilluminator: Illuminates electrophoresis gels for DNA visualization. Hyperlink Physical Services using this equipment None Not yet in catalogue
352 Infrastructure Name: ETSEAFIV Partner: UDL Node/Satellite: SP Equipment Name: Hybridization Equipment Owner of the Equipment: UDL Facilities it is being used in Plant Genomics Lab Type of Equipment X Fixed Movable Description System for DNA and RNA hybridization processes, for molecular marker studies and genetic research. What could be offered with this equipment? Provides companies with services for hybridization-based DNA/RNA studies, enhancing molecular marker applications in crop improvement and biodiversity assessments. Specifications - Hybridization oven: Ensures controlled temperature and conditions for efficient hybridization. Hyperlink Physical Services using this equipment None Not yet in catalogue
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