IMPROVEMENT OF CONSTRUCTIVE FORMS OF USING SOLAR PANELS IN KARAKALPAKSTAN

ISSN: 3030-3931, Impact factor: 7,241 Volume 10, issue 1, Oktabr 2025 https://worldlyjournals.com/index.php/Yangiizlanuvchi worldly knowledge OAK Index bazalari : research gate, research bib. Qo’shimcha index bazalari: zenodo, open aire. google scholar. Original article 1830 IMPROVEMENT OF CONSTRUCTIVE FORMS OF USING SOLAR PANELS IN KARAKALPAKSTAN Jubanisheva Mariyam Talgat kizi Karakalpak State University named after Berdakh Annotation: This article examines the improvement of constructive and architectural approaches for integrating solar panels in Karakalpakstan. The study highlights the region’s exceptional potential for solar energy generation due to its high insolation levels and favorable climatic conditions. It explores practical design and construction strategies such as Building-Integrated Photovoltaics (BIPV), rooftop installations, solar canopies, agrivoltaics, floating photovoltaic systems, and energy storage solutions. Emphasis is placed on incorporating solar technologies into both new and existing public and private buildings to increase efficiency, aesthetics, and sustainability. The paper also discusses the innovative use of solar windows as part of urban architecture, combining functionality with modern design. The findings suggest that adopting region-specific solar technologies and policy support can significantly enhance energy independence, environmental protection, and economic development in Karakalpakstan. Key words: Solar energy, Photovoltaic systems, Building-Integrated Photovoltaics (BIPV), Renewable energy development, Energy sustainability, Architectural integration, Karakalpakstan, Solar windows Introduction. The transition toward renewable energy has become one of the most crucial directions in the development of sustainable economies. In this context, Karakalpakstan possesses significant potential for expanding solar energy use due to its geographical and climatic advantages. With annual sunlight hours ranging between 2,500 and 3,000 and daily solar radiation averaging from 4.5 to 6.5 kWh per square meter, the region provides ideal conditions for solar technology implementation. Following the Presidential Decree on Accelerating the Introduction of Renewable Energy Sources and Energy-Saving Technologies (February 16, 2023), solar installations have begun to appear in several institutions, including Berdakh Karakalpak State University (KSU). The university’s average annual electricity consumption of 980 kW is now partly met through the installation of 100 kW solar panels on its main building, covering up to 70% of its total energy demand. This initiative serves as a pilot example of how educational and public buildings can transition to renewable sources. The purpose of this study is to explore constructive methods for optimizing the use of solar panels in Karakalpakstan, ensuring that renewable energy systems are effectively integrated into the architectural and environmental conditions of the region. 1. Integration of solar technologies into architecture. A promising strategy for improving the use of solar energy is the integration of photovoltaic systems directly into building materials. Known as a photovoltaic Integrated in Buildings (BIPV), this approach allows solar panels to function not only as energy generators, but also as architectural elements, namely as solar shingles that replace traditional roofing materials, combining energy production with modern aesthetics, as well as vertical solar facade panels, especially on walls. facing south, They capture sunlight efficiently while reducing the heat dissipation of the building and solar windows. This ISSN: 3030-3931, Impact factor: 7,241 Volume 10, issue 1, Oktabr 2025 https://worldlyjournals.com/index.php/Yangiizlanuvchi worldly knowledge OAK Index bazalari : research gate, research bib. Qo’shimcha index bazalari: zenodo, open aire. google scholar. Original article 1831 transparent photovoltaic glass turns ordinary windows into active energy surfaces, ideal for urban high-rise buildings. By merging technology with design, BIPV systems improve energy efficiency, reduce visual clutter, and contribute to the overall sustainability of new construction projects. 2. Optimization of Rooftop Installations. Rooftop solar systems are currently the most affordable way to generate electricity from renewable sources. However, efficiency depends on several design factors, such as orientation and angle of inclination, so in Karakalpakstan, panels must face south and tilt about 40°, which corresponds to the local latitude, for optimal absorption of sunlight. Mainly, to prevent shading, it is necessary to perform a detailed shading analysis using simulation tools before installation in order to minimize power losses. In addition, lightweight structures or thin-film panels are suitable for older buildings with limited lifting capacity. In addition, proper planning and construction of roofing systems can ensure their durability and maximum energy efficiency. 3. Solar Canopies and Carports. Solar canopies and carports are multifunctional solutions that provide both electricity and physical protection. They are particularly effective when installed above parking areas, pedestrian walkways, or public squares. Such structures not only reduce heat accumulation in urban zones but can also supply energy for nearby lighting, electric vehicle charging, and other municipal needs. The dual benefit of energy production and improved urban comfort makes solar canopies an important component of sustainable city planning. 4. Agrivoltaic and Floating Solar Systems. Large-scale solar development in Karakalpakstan can be diversified through agrivoltaics and floating solar power plants.Agrivoltaic systems combine agriculture and photovoltaics, allowing crops and panels to coexist on the same land. The partial shade created by panels reduces soil moisture loss and protects plants from extreme heat. Farmers can also benefit financially by leasing land for energy generation. Floating photovoltaic systems, installed on lakes or reservoirs, represent another efficient use of space. These systems improve panel performance by natural cooling from water surfaces and help reduce evaporation—an important environmental benefit for water-scarce regions like Karakalpakstan. 5. Solar Energy for Public Infrastructure. Integrating solar panels into public facilities can significantly reduce government energy expenditure and promote renewable energy awareness among citizens. Potential applications include: Solar-powered bus stops equipped with lighting and mobile charging points; Solar streetlights using LED technology for long-lasting, autonomous illumination; Solar water pumps that provide cost-effective irrigation for rural communities. Such initiatives not only demonstrate technological innovation but also contribute to local energy independence and environmental education. 6. Modular and Flexible Solar Solutions. Modern photovoltaic technology allows for modular systems that can be adapted to various scales and spaces. Residential buildings can benefit from ISSN: 3030-3931, Impact factor: 7,241 Volume 10, issue 1, Oktabr 2025 https://worldlyjournals.com/index.php/Yangiizlanuvchi worldly knowledge OAK Index bazalari : research gate, research bib. Qo’shimcha index bazalari: zenodo, open aire. google scholar. Original article 1832 small panels installed on terraces or balconies, while customized solar structures can fit irregular roofs or compact urban areas. These flexible designs lower installation barriers and make renewable energy more accessible to households. 7. Energy Storage and Off-Grid Systems. Energy storage is a critical component of solar energy systems. The combination of photovoltaic panels with lithium-ion batteries enables the accumulation of excess electricity for use during nighttime or cloudy periods. For remote or rural settlements not connected to the national grid, off-grid solar systems offer a stable and sustainable energy solution. Such systems can supply electricity to homes, schools, and medical facilities, improving living standards while reducing dependence on fossil fuels. 8. Solar Windows: Innovation for Urban Sustainability An emerging technology gaining popularity worldwide is the use of solar windows, also known as photovoltaic glass. These systems generate electricity while maintaining transparency and allowing natural light. Solar windows are particularly valuable for dense urban areas where roof space is limited. They contribute to energy efficiency, reduce carbon footprints, and enhance the architectural appearance of modern buildings. With various color and transparency options, they offer architects the flexibility to combine sustainability with design aesthetics. Applications include residential homes, commercial buildings, skyscrapers, and public institutions such as schools and hospitals. Beyond energy production, solar windows serve as a visible symbol of innovation and environmental responsibility. Conclusion The successful development of solar energy in Karakalpakstan requires a combination of technological innovation, architectural integration, and policy support. The region’s natural solar potential provides a strong foundation for achieving energy sustainability, reducing greenhouse gas emissions, and promoting economic growth. To achieve these objectives, the following actions are recommended: Incorporate solar technologies into all new construction projects from the design stage. Expand public-private partnerships to attract investment in renewable energy. Introduce financial incentives and awareness programs to encourage adoption. Develop detailed solar mapping and regional planning strategies. Through comprehensive planning and strategic implementation, Karakalpakstan can become a regional leader in solar energy innovation, contributing both to local development and to the global movement toward sustainable energy. References 1. Average Weather at Nukus, Karakalpakstan, Uzbekistan – Year Round 2. IRS Residential Clean Energy Credit ISSN: 3030-3931, Impact factor: 7,241 Volume 10, issue 1, Oktabr 2025 https://worldlyjournals.com/index.php/Yangiizlanuvchi worldly knowledge OAK Index bazalari : research gate, research bib. Qo’shimcha index bazalari: zenodo, open aire. google scholar. Original article 1833 3. Renugadevi, V. (2017). An Approach to Solar Power Tree. Proceedings of the IEEE International Conference on Electrical, Instrumentation and Communication Engineering (ICEICE 2017), 1–3. 4. Deppe, T., & Munday, J. N. (2020). Nighttime Photovoltaic Cells: Electrical Power Generation by Optically Coupling with Deep Space. ACS Photonics, 7, 1–9.