Oct 3, 2025 · Weather data from a Test Reference Year for Latvia worked out by Mofid et al. [1] were used as inputs for simulation models used by Mofid et al. [2] to calculate the thermal
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May 20, 2020 · For each day measurements of solar irradiance, solar elevation angle, solar azimuth angle, ambient temperature, PV module temperature and PV power from sunrise to
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The sunlight duration and intensity depends on the season, weather conditions and geographical position of a country. As compared with the annual global solar radiation incident on horizontal
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Solar energy transformation technologies are increasingly being used worldwide in the district heating sector. In the Baltic states, only one district heating company has implemented a large-scale solar collector field into
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May 1, 2015 · The sunlight duration and intensity depends on the season, weather conditions and geographical position of a country. As compared with the annual global solar radiation incident
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Dec 1, 2023 · The article demonstrates solar impact to district heating system (DHS) in the framework of the current situation of DHS in Latvia by creating simulation in TRNSYS and
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As in Latvian climatic conditions in the summer period (may -September) the average outside air temperature is about 15° C (max temperature of summer season average value + 26.38°C)
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Jun 7, 2021 · Solar energy transformation technologies are increasingly being used worldwide in the district heating sector. In the Baltic states, only one district heating company has
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Jun 27, 2023 · The proposal to operate a thermal conversion system, incorporating a radiator with pumped cooling to achieve the cold-side temperature, brings up the possibility of using a
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Jul 20, 2020 · A lot of simulations were carried out where the influence of the design parameters of the solar cooling system with PCM thermal storage and without it were analysed in terms of
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The first solar district heating system in Latvia started in Salaspils in 2019 (see Fig. 2). The project backed by EU, developed by LTD Filter, the Baltic energy solution specialist, and Arcon
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Four effects make the surface of Venus a challenging environment when considering solar power : corrosive environment The greatest difficulty is the surface temperature of Venus, averaging 452 C, with little difference between daytime and nighttime.
For high-temperature operation, as discussed before, a high-bandgap solar cell ma-terial would be preferred, but the blue-deficient spectrum puts a limit on the availability of short-wavelength photons.
At the temperatures and pressures of the surface, stability against chemical attack is a significant concern. These factors combine to multiply the challenges of power on the surface. The low light intensity alone reduces power availability, and the reduction of performance of solar cells due to temperature exacerbates this difficulty.
If future missions designed to probe environments close to the Sun will be able to use photovoltaic power generation, solar cells that can function at high temperatures under high light intensity and high radiation conditions must be developed. The sig-nificant problem is that solar cells lose performance at high temperatures.
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