Abstract: The invention relates generally to framing systems and more particularly is concerned with systems adapted to mount panels or laminates in an array on a supporting roof structure of a building exemplified with the mounting of solar electric photovoltaic (PV) panels. The framing system described uses extruded elongate elements with a sealing element to frame the PV panel as a weatherproof PV solar roof tile. Individual frame element profiles effectively embody the PV building integration, (BiPV) or mounting method, of the solar tile within the frame itself. Only a few additional flashing components are needed to complete the PV tile array as part of the roof, or with minor variations, as a PV wall cladding. Full BiPV panel mounting methods show potential to be used for co-generation (PV/T) of solar thermal energy capture in buildings.

Abstract: The subject of the invention is modular system for utilization of solar energy for heating of sanitary water, which is composed from individual modules, each of which comprises a prefabricated, upper-outflow transparent (diaphanous), translucent or non-transparent element (1), one or several intermediate transparent (diaphanous), translucent or non-transparent element(s) (2), and a lower-inflow transparent (diaphanous), translucent or non-transparent element (3). Their mutual connection by means of junctions (4a, 4b) enables flow of nontransparent media from one element to the other while absorbing solar energy. Several modules can be mutually and in parallel connected to the modular system replacing the existing roofing tiles. The choice of an appropriate color for the nontransparent media makes the system compatible and consistent with the look of surrounding existing roof tiles.

Abstract: There is disclosed a photovoltaic power generating structure in which a solar cell module is arranged on a base member, wherein a closed space portion cut off from the air is provided between the base member and the solar cell module. Thus, there can be provided a photovoltaic power generating structure which can be easily constructed at a low installation cost, can maintain a good output as a photovoltaic power generating system, is excellent in environmental resistance, and can improve fireproofness.

Abstract: The subject of the invention is modular system for utilization of solar energy for heating of sanitary water, which is composed from individual modules, each of which comprises a prefabricated, upper-outflow transparent (diaphanous), translucent or non-transparent element (1), one or several intermediate transparent (diaphanous), translucent or non-transparent element(s) (2), and a lower-inflow transparent (diaphanous), translucent or non-transparent element (3). Their mutual connection by means of junctions (4a, 4b) enables flow of nontransparent media from one element to the other while absorbing solar energy. Several modules can be mutually and in parallel connected to the modular system replacing the existing roofing tiles. The choice of an appropriate color for the nontransparent media makes the system compatible and consistent with the look of surrounding existing roof tiles.

Abstract: A solar-powered water heating system provides heated water to a pool in an aesthetically-pleasing, leak-resistant manner. The invention provides a heat gathering unit disposed in a tray that fits within the deck boards of a typical roof. Shingles are disposed over the heat gathering unit and any leaks that occur within the heat gathering unit flow out over the top of the shingles. A drain conduit is provided below supply and return pipes so that any leaks flowing out of the supply and return pipes and their connections with the heat gathering unit will be directed out of the building structure to a location where the leak may be readily detected.

Abstract: A solar cell module comprises a photovoltaic device having a flexible substrate. The photovoltaic device has a strain at least partly in the planar direction of the flexible substrate, and the strain is not greater than a critical value at which the photovoltaic device cracks. The solar cell module may further comprise a strain holding means for holding the strain. A deformable region where the photovoltaic device can be deformed when a region embracing the photovoltaic device is worked is defined so that a great variety of solar cell modules having a high reliability, also taking account of manufacture, can be designed with good efficiency.

Abstract: To optimally arrange roofing material integrated solar battery modules having a rectangular form and same size on a roof setting surface, an arrangement range in which the solar battery modules can be arranged on the roof setting surface is determined. An arranging direction of the solar battery modules is determined. The number of solar battery modules which can be arranged almost horizontally in a line in the determined arranging direction and within the arrangement range is calculated. Solar battery modules of a line in a number not more than the calculated number are combined to form a solar battery module group. The solar battery module groups are arranged to set a center of the solar battery module group within the determined arrangement range and near a line almost vertically dividing the surface into two parts.

Abstract: This invention provides a solar cell module array comprised of two or more different types of modules, wherein said two or more different types of modules are rectangular, having different lengths and method for installing solar cell modules.

Abstract: A hybrid roof covering element, which suitable for simultaneously heating a medium and generating electricity, and which comprises a single or multiple transparent layer, a flexible thin film solar cell sheet with a heat capacity of less than 3.5 kJ/m2K and a thermally insulating material, and a medium to be heated. The flexible thin film solar cell sheet comprises a carrier, a back electrode, a photovoltaic layer, and a transparent conductive front electrode and has a heat capacity of less than 3.5 kJ/m2K. This hybrid roof covering element has a response speed of more than 5.7·10−4 K/J if the medium to be heated is air and a response speed of more than 1·10−4 K/J if the medium to be heated is water.

Abstract: The upper surface of a tile body for use as a roofing material for a building is provided with a depression that holds therein a photovoltaic cell module having a function to convert solar energy into electrical energy. An adhesive is applied to the whole or part of the base of the depression, and the photovoltaic cell module, which has a terminal box on its lower surface, is fixed to the base of the depression by adhesive bonding.

Abstract: A building (1) has a roof structure (2) clad with a plurality of ambient heat collection tiles in the form of panels (3), mounted on parallel battens (4) carried by roof rafters (10), and disposed in edge-overlapping relationship. The panels (3) are of identical form. Each panel comprises a plank-like aluminum extrusion of substantial length and of rectangular plan form, having edge-coupling portions (5, 6). The interior of each panel (3) is formed with pair of substantially parallel ducts (7, 8) disposed side by side, which define flow and return paths respectively, for a heat transfer fluid, such as water. The flow and return ducts (7, 8) are divided from each other by an integral barrier wall (9). A panel (3) is not of uniform lateral cross section throughout its length. The cross section is uniform except at the ends where the dividing wall (9) has been cut away at one end so as to allow water to pass from the flow path (7) to the return path (8) in a re-entrant manner.

Abstract: There is disclosed a photovoltaic power generating structure in which a solar cell module is arranged on a base member, wherein a closed space portion cut off from the air is provided between the base member and the solar cell module. Thus, there can be provided the photovoltaic power generating structure which can be easily constructed at a low installation cost, can maintain a good output as a photovoltaic power generating system, is excellent in environmental resistance, and can improve a fire-proof performance.

Abstract: A solar cell module comprising a photovoltaic element, and at least a surface side filler and a surface protective member which are disposed in this order on a light incident face of said photovoltaic element, wherein said surface side filler comprises a non-crosslinked organic polymer resin and a crosslinked organic polymer resin, said crosslinked organic polymer resin being provided on at least a surface of said non-crosslinked organic polymer resin. Said solar cell module excels particularly in weatherability and moisture resistance.

Abstract: For facilitating work and improving durability of a grounding conductor without a need for preparation of a separate grounding conductor for grounding a solar cell array, a solar cell array is provided comprising a plurality of solar cell modules each comprising a solar cell element and an electroconductive outer portion, the plurality of solar cell modules being electrically connected by an electric wire, wherein the electric wire has a plurality of cores, at least one of the cores being connected to an electric connection portion for leading a power of the solar cell elements out and at least one of the cores being connected to a grounding portion.

Abstract: A solar cell module according to the present invention includes at least a base material, a first insulating material formed on the base material, a photovoltaic element set including a plurality of photovoltaic elements formed on the first insulating material, and a second insulating material formed on the photovoltaic element set. The base material has an L or W shape. In one embodiment, the base material has an L section shape, and a bent portion is formed in a portion where no photovoltaic element is arrange. In another embodiment, the photovoltaic element set includes a wiring material for electrically connecting the photovoltaic elements, and a bent portion is formed in a portion where the wiring material is arranged. Power generation and heat collection efficiency are increased, and optical deterioration of a non-single-crystal semiconductor are decreased in the present solar cell modules.

Abstract: There is provided the combination of a corrugated solar collector panel and a building surface to which it is attached, in spaced relationship. At least some of the panel corrugations are flat and located such that they face in the general direction of the sun during at least a portion of the daylight hours. Generally uniformly distributed apertures are provided in the panel, and specifically at flat areas in the corrugations. The combination further includes photovoltaic cells mounted to the corrugations at flat portions thereof containing the apertures, with the cells being supported substantially parallel with and adjacent to but spaced apart from the flat surfaces, thus leaving air passages between the photovoltaic cells and the solar collector, whereby air can enter and leave the enclosed space by flowing through the air passages and along the undersides of the photovoltaic cells, thus removing excess heat build-up from the voltaic cells.

Abstract: A combined thermal-insulation/thermal-collector assembly for the outside walls or roofs of buildings has a heat-insulating layer which is transparent to solar radiation and is designed with a transparent structure. The heat-insulating material including a multiplicity of adjacent channels is disposed in essentially the same direction as the flow of heat. The heat-insulating layer is made up of elements which are thin relative to the thickness of the layer. The channels running across the heat-insulating layer are open, have an essentially uniform diameter, and thus form a transparent structure.

Abstract: A surfacing tile, having a convex and concave surface and two spaced apart sides, is made of a material that allows at least a portion of the solar energy impinging upon the tile to be transmitted through the tile and be absorbed by a supporting surface thereunder. Once absorbed by the surface, most of the energy is prevented from escaping by the glazing effect of the tile. The tile, together with the underlying surface, forms an airspace therebetween such that a plurality of interfitting tiles installed upon the surface will form ducts that can conduct a fluid, such as air, heated by the absorbed solar energy to a location at which it can be used or dissipated. Tiles installed in such a fashion thus form a solar energy collection system directly with the surface upon which they are installed.

Abstract: A solar power system including a thermal-storage tank installed in the ridge of the roof of a building, and a plurality of solar collector units covered over the roof and outside wall of the building and connected to the thermal-storage tank, wherein each solar collector unit comprises a transparent cover plate with photovoltaic cells for converting the radiant energy of sunlight into electric power, a rear mounting rail, a front mounting frame for engagement with the rear mounting rail of another solar collector unit, a heat-absorber plate having a collector tube connected to the thermal-storage tank, and a lateral mounting frame for connection to another solar collector unit over its heat-absorber plate by screws.

Abstract: A building including high efficiency transparent insulation and optical shutter solar collector (HETIOSSC) to effectively control heat loss and gain in a passively-solar climate control system. HETIOSSC includes a layer of protective glazing, a transparent insulation, an optical shutter, an optional solar radiation absorbing material and optional heat storage elements. When the building and its heat storage are too warm, the optical shutter layer becomes opaque to prevent overheating. During cloudy and cold winter days, HETIOSSC still has a solar transmission and insulation efficiency great enough to collect sufficient sunlight for heating. Location of HETIOSSC on the roof, rather than the walls, does not alter shape and orientation of a building.

Abstract: A passive temperature regulating system (2) for heating and cooling a structure (8) exposed to extreme temperatures. The system comprises a thermally conductive exterior wall, such as a roof (6), having corrugations (16) formed therein. A plurality of plastic containers (4) each have a body portion (30) filled with liquid, such as water, and an elongated heat exchanger portion (28) attached to the exterior wall within one of the corrugations. The heat exchanger portion has a conduit in communication with the body via two tubes (44, 46) so that the water can flow vertically between the heat exchanger portion and the body. When the containers are attached to the exterior wall, the water in the heat exchanger portion exchanges heat with the ambient environment through the exterior wall and the water in the body modifies the temperature of the interior of the structure.

Abstract: A roof shingle for solar heat collection comprises an upper segment and a lower segment. The upper segment of the roof shingle has a greater thickness than the lower segment. The upper segment has a transverse opening extending therethrough for receiving hollow tubing inserted therein. The opening is adapted to be aligned with openings in adjacent roof shingles on either side of the roof shingle.

Abstract: A securing means for securing a solar absorber of the multi-tube type to a roof of a building, the securing means comprising an elongated element having a number of resilient fingers which resiliently engage and hold the absorber to the element. For use with a tile roof comprising a number of overlapping roof tiles, the element includes a tongue at one end for location between overlapping portions of the tile and a hook at the opposite end of the element for engagement with the end of the lowermost tile. For application to metal roofs, the element may be fixed to the roof by fasteners.