Such power plants have to be customized in line with the given terrain, weather conditions, customer requirements, and the types of solar modules to be used in them. PVplanet (PV Plant Engineering Toolbox) from Siemens generates hundreds of different plant layouts within a just a few seconds.
For example, if you spread the solar modules far apart, you can reduce the shadow each module will cast on the others, thereby increasing efficiency. This causes a problem, however, because increasing the distance between modules means fewer installed modules and thus less overall output. Planning engineers therefore have to make technical and economic compromises for a large number of parameters, while still meeting customer requirements regarding aspects such as minimum output or cost limits.
In order to make this planning easier, Siemens Energy and the Fraunhofer Institute for Industrial Mathematics (ITWM) have developed the PVplanet planning tool, which simultaneously calculates the cost and potential output of a large number of possible designs and then identifies the best solution. The software is based on mathematical algorithms specially developed by ITWM, as well as the wealth of experience Siemens has in designing solar power plants.
Engineers who use the software initially enter basic conditions such as topography and weather. After that, they select module and inverter types and can also alter or limit parameters like angles of inclination, service access ways, and component costs. The software uses the results to calculate the electricity production costs and thus the potential profitability of a given facility layout.
PVplanet will made available to the engineering teams at Siemens' regional units and be further refined this fall.
Dr. Norbert Aschenbrenner | Siemens InnovationNews
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