The invention relates to a hybrid solar panel comprising: a photovoltaic module; a heat exchanger arranged opposite in the rear surface of said photovoltaic module; a cooling fluid circulating in said exchanger; the heat exchanger including a heat exchange area; inner channels extending over the entire surface of the exchange area; the heat exchange area is made up of a double cellular plate with cells provided in the form of adjacent inner channels in fluid communication with the intake and discharge areas, characterised in that: the side ends are sealed; the plate comprises openings made in the lower wall in order to establish fluid communication between each channel and the intake and discharge areas, respectively; and the intake and discharge areas are provided in the form of collectors placed on the lower wall at the openings, so that said upper wall remains planar over the entire surface thereof.

A new system of solar construction, technology and methods for making off structure constructed panel blocks are disclosed.

Methods and systems are provided for air conditioning, capturing combustion contaminants, desalination, and other processes using liquid desiccants.

A solar power generation assembly includes a first canopy wing positioned at a first predetermined inclination and a second canopy wing positioned at a second predetermined inclination, wherein the first and second canopies form a dual-incline structure and a main gutter is disposed between the first and second canopies. Additionally, at least one mounting rail gutter extends perpendicular to the main gutter and a secondary gutter extends parallel to the main gutter, wherein the secondary gutter directs precipitation to the mounting rail gutter and the mounting rail gutter directs precipitation into the main gutter, wherein the secondary gutter, the mounting rail gutter, and the main gutter are configured to provide both mounting and precipitation management functionality to the solar power generation assembly.

An aspect of present invention is to provide a temperature control system for a solar cell module, capable of controlling a solar cell module to maintain a proper temperature, the temperature control system comprises: a temperature sensor configured to measure a temperature of the solar cell module; a fluid tube having therein a path along which a temperature controlling fluid flows; a pump configured to supply a temperature controlling fluid which flows along the fluid tube; and an inverter configured to drive the pump such that the temperature controlling fluid is supplied, if the current temperature of the solar cell module is not lower than the pre-stored first pump driving reference temperature, or if the current temperature of the solar cell module is not higher than the pre-stored second pump driving reference temperature.

A new type of PV cell is comprised of a purposefully unique spatial configuration of multiple pairs of transparent thin PV films stacked top down in order of decreasing bandgaps corresponding to increasing wavelengths. Each thin-film pair is made of a material of desirable bandgap, and consecutive films separated from each other in space by a layer of air to force confinement of light waves of wavelength matching bandgap, enabling an infinite number of reflections until the wave energy corresponding to each desired wavelength is absorbed. The PV thin-films are coated to ensure that light of each wavelength is confined as intended. They are passivated to minimize surface recombination. This spatial arrangement provides multiple opportunities for photovoltaic conversion of each intended wavelength hence increasing overall conversion efficiency.

The invention relates to a carrier body (1) for solar cells (2). According to the invention, in order to significantly improve the thermal resistivity of the connection between a solar cell (2) and the carrier body (1) or a cooling element, the carrier body (1) is made of a ceramic material having sintered metallization regions (3), at least one solar cell (2) is soldered or sintered onto the carrier body (1) and electrically connected to the metallization regions (3), and the carrier body (1) has ceramic cooling elements.

The present disclosure concerns a photovoltaic sandwich panel (1) comprising a photovoltaic element layer (2) provided between a protective front layer (3), and a fiber reinforced back layer (4), wherein: the protective front layer is formed from a compound comprising a first thermoplastic polymer (PI); and the fiber reinforced back layer comprises a second thermoplastic polymer (P2) with a fibrous filler material (F). The disclosure further concerns a method for manufacturing a photovoltaic sandwich panel and an assembly of said panels.

An assembly for extracting heat from a photovoltaic cell assembly for a receiver of a solar radiation-based electrical power generating system is disclosed. The assembly comprises a coolant chamber and a coolant member in the form of a plurality of heat transfer fingers of high thermal conductivity material that are located in the coolant chamber. The fingers have ends that are in thermal contact with the photovoltaic cell assembly and thereby facilitate heat transfer away from the assembly. The fingers are sufficiently flexible to accommodate differences in thermal expansion coefficient between the object and the fingers. The fingers have a relatively high surface area for heat transfer from the fingers to coolant that, in use, circulates through the coolant chamber.

A blocking diode board (“BDB”) for use with a rollable solar power module (“RSPM”) array is disclosed. The DBD includes a blocking diode, first flat electrical conductor, second flat electrical conductor, first tubular hook, and second tubular hook.