{"id":3210,"date":"2025-12-20T11:35:42","date_gmt":"2025-12-20T10:35:42","guid":{"rendered":"https:\/\/calorespl.local\/pvt-modules-more-complete-use-of-solar-energy\/"},"modified":"2025-12-22T16:56:49","modified_gmt":"2025-12-22T15:56:49","slug":"pvt-modules-more-complete-use-of-solar-energy","status":"publish","type":"post","link":"https:\/\/calores.pl\/en\/pvt-modules-more-complete-use-of-solar-energy\/","title":{"rendered":"PVT Modules \u2013 More Complete Use of Solar Energy"},"content":{"rendered":"

Why Conventional PV Does Not Fully Utilize the Potential of the Sun<\/h2><\/div>

Analysis of the spectral properties of crystalline photovoltaic cells shows that only a small portion of solar radiation is converted into electrical energy<\/b>. The vast majority of the energy is converted into heat.<\/p>\n

Scientific studies indicate that:<\/p>\n<\/div>

  • <\/i><\/span>
    approx. 10% of solar radiation<\/b> is reflected and lost,<\/div><\/li>
  • <\/i><\/span>
    of the remaining 90% of absorbed energy:<\/b><\/div><\/li><\/ul>
    • <\/i><\/span>
      \n

      only ~17%<\/b> is converted into electrical energy,<\/p>\n<\/div><\/li>

    • <\/i><\/span>
      \n

      as much as ~73%<\/b> is converted into thermal energy.<\/p>\n<\/div><\/li><\/ul>

      In standard PV modules, this thermal energy remains unused, additionally reducing electrical efficiency<\/b> as module temperature increases.<\/p>\n<\/div><\/div><\/div>

      <\/span><\/div><\/div><\/div>

      The Answer: OMEGA-Type Hybrid PVT Modules<\/h2><\/div>

      Camel Solar<\/b>, in cooperation with the Plasma<\/b> research and development center,<\/b> has been conducting R&D work for many years aimed at improving the performance of PVT collectors.<\/p>\n<\/div>

      Following the transfer of intellectual property rights from Camel Solar<\/b> to Calores Sp. z o.o<\/b>., key R&D activities in the field of PVT technology and PVT-based district heating systems are now successfully continued and further developed by Calores Sp. z o.o.<\/b><\/p>\n

      The result of these efforts is a unique, highly innovative PVT collector<\/b>, representing the outcome of long-term, consistent research and development work.<\/p>\n<\/div><\/div><\/div>

      <\/span><\/div>

      Here a photo from the SPF with PVT on the test bench.<\/i><\/p>\n

       <\/p>\n<\/div><\/div><\/div>

      Independent Validation of PVT Technology<\/h2><\/div>

      The breakthrough nature of Calores PVT modules<\/b> has been confirmed by independent research laboratories<\/b> through tests involving simultaneous real-time measurement of key thermal and electrical parameters.<\/p>\n

      Tests conducted on the PVT solar collector by the Swiss company SPF<\/b> included, among others:<\/p>\n<\/div>

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        collector efficiency,<\/div><\/li>
      • <\/i><\/span>
        heat loss coefficients,<\/div><\/li>
      • <\/i><\/span>
        dependence of heat losses on temperature and wind speed,<\/div><\/li>
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        effective thermal capacity,<\/div><\/li>
      • <\/i><\/span>
        dependence of zero-loss efficiency on wind speed,<\/div><\/li>
      • <\/i><\/span>
        radiative losses.<\/div><\/li><\/ul>

        Independent Validation of PVT Technology<\/h2><\/div>

        These tests represent a critical element of the PVT innovation process. They successfully verified our scientific and technical assumptions and confirmed that the objectives related to increasing PVT collector efficiency through the innovative OMEGA technology<\/b>, as well as the capability to manufacture advanced PVT panel models<\/b>, have been achieved.<\/p>\n

        The most important outcomes of the R&D work on PVT modules include:<\/p>\n<\/div>

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          Long-term stability of the PVT collector<\/div><\/li>
        • <\/i><\/span>
          applicability of PVT collectors in all photovoltaic installations,<\/div><\/li>
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          a PVT absorber suitable for use in all types and dimensions of framed PV modules,<\/div><\/li>
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          effective prevention of so-called hot spots, hotspots<\/b><\/div><\/li>
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          \n
          a refined production technology with high manufacturing capacity (approx. 300 PVT modules per day<\/b>) and low material costs,<\/div>\n<\/div><\/li>
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          a production line capable of manufacturing different types of PVT absorbers,<\/div><\/li>
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          \n

          an assembly process adapted to new high-efficiency PV modules (e.g. AIKO).<\/p>\n<\/div><\/li><\/ul>

          The outstanding result of this long-term R&D process<\/b> \u2014 in the form of a high-performance Calores <\/b>hybrid PVT <\/b>module \u2014 is based on a series of partial innovations<\/b> covering both structural and process-related solutions.<\/p>\n<\/div><\/div><\/div>

          Technological Innovations<\/h2><\/div>

          1. Nano Thermal Interface Compound<\/strong><\/h4><\/div>

          A specially developed compound enables efficient heat transfer from the rear layer of the PV module to the aluminum absorber, while maintaining full electrical insulation. This solution increases system durability, improves heat dissipation, and compensates for differences in thermal expansion between materials.<\/p>\n<\/div>

          2. Anti-Corrosion Coating for Copper Pipes<\/strong><\/h4><\/div>

          The use of an internal anti-corrosion coating allows for the direct circulation of even pool water or saline water, significantly expanding the range of possible PVT module applications.<\/p>\n<\/div>