Abstract: A linear solar energy concentrator includes a fastening rack, a concentrating lens, and a line-shaped solar panel. The concentrating lens is fastened on the fastening rack. When sunlight irradiates on and penetrates through the concentrating lens, the light is concentrated onto a focal line parallel to a direction of the linear geometric structure of the concentrating lens. The solar panel is installed under the concentrating lens and located at the focal line, wherein when an incident angle of sunlight constantly changes, the light irradiating on and penetrating through the concentrating lens still is able to be concentrated onto a same location or onto locations slightly shifted each other along the focal line on the solar panel, so as to perform an energy conversion from solar energy to electricity at a substantially same amount of light without being affected by the incident angle of sunlight.

Abstract: The disclosure relates to a solar heating device comprising at least one incidence collector and a thermal container. The thermal container includes at least one light absorbing recess, wherein at least one of the incidence collectors focuses solar beams on a focal point, which is located inside the light absorbing recess. The inner surface of the light absorbing recess converts the energy of the solar beams into radiant heating.

Abstract: A boiler for a solar receiver includes a panel support structure. A boiler stay is operatively connected to the panel support structure. A panel stay is slideably engaged to the boiler stay. A boiler panel is operatively connected to the panel stay with the panel stay being affixed to a plurality of tubes of the panel. The boiler stay and panel support assemblies are configured and adapted to slide with respect to one another to accommodate thermal expansion of the boiler panel. In certain embodiments, a pin connects the boiler stay and the panel stay, wherein the pin is removable for installation and removal of the panel from the support structure.

Abstract: A survival apparatus operable to ignite a combustible material wherein the survival apparatus additionally functions as a zipper pull-tab for an article of clothing. The survival apparatus further includes a body that is substantially rigid and generally rectangular in shape. The body includes a first aperture that is oval in shape and has a convex lens mounted therein. A coating is disposed over the body operable to substantially inhibit damage to the lens mounted within the first aperture during use as a zipper pull. A release strip is intermediate the body and the coating wherein the release strip further includes a tab providing an interface to engage the release strip.

Abstract: An energy collecting module for assembling, together with a plurality of similar energy collecting module, a modular energy collecting system. The energy collecting module comprises a fluid channel having a lumen for conducting fluid from a first connectable opening to a second connectable opening and an energy collecting element mounted in front of the fluid channel for concentrating radiation along the fluid channel.

Abstract: An integrated solar lens and lens system that may be active, a hybrid, or a self-powered system. A solar lens is fabricated and configured to concentrate received solar energy onto a solar sensor material, whereby a medium is provided between the lens and the solar sensor material, such as a fluid and a fluid including micro or nano components including transparent microemulsion balls, and ionized particles. Such balls and particles improve the transducing of the solar energy to heat, and which heated fluid can be circulated throughout a system.

Abstract: A total internal reflection (TIR) lens has an integrated lamp cover adapted to a lamp of a desired form factor (e.g., PAR-38). The size and shape of the TIR lens can be adapted to optimize the light output of the lamp with little regard to the desired form factor. The integrated lamp cover can extend the front surface of the TIR lens in a direction transverse from the optical axis.

Abstract: A solar collecting system is incorporated into a natural rock mass having an upright face with a substantially direct exposure to the sun, for example a south facing granite cliff. A solar passage is formed in the rock mass to extend between an opening in the upright face of the rock mass and an internal collection area within the rock mass. One or more converging elements, for example solar converging lenses, are aligned with the solar passage and arranged to focus solar rays from the sun onto a target within the collection area. The target is in communication with a surrounding portion of the rock mass so as to be arranged to transfer heat from the target to the surrounding portion of the rock mass. A heat transfer fluid conduit may further be arranged to communicate a heat transfer fluid between the rock mass and an auxiliary device.

Abstract: A multiplicity of Fresnel lenses are attached to tubular branches of a tree-like support structure. Fiber optic bundles are connected to the Fresnel lenses and routed inside the tubular branches and collected as a larger fiber optic bundle inside a main trunk structure to which each of the branches is connected. The larger fiber optic bundle may be connected to a remotely located power generating plant or other processing facility via a fiber optic transmission network. A domed solar energy collector includes an outer dome and one or more inner domes concentrically nested therewith, one or more Fresnel lenses being positioned on the hemispherical surface of each of the outer and inner domes to thereby multiply the solar energy focused through each of the domes to a collection area within the innermost dome.

Abstract: A light ray concentration device includes a concentrating lens and a base for holding the concentrating lens. The concentrating lens includes a planar surface defining a number of first Fresnel zones and a convex surface facing away from the planar surface and defining a number of second Fresnel zones. The first and second Fresnel zones are coaxial with each other.

Abstract: Solar energy collection assemblies comprising a surface structured polyurethane layer. The structured polyurethane layer includes a cross-linkable reaction mixture and at least one UV stabilizer. The cross-linkable reaction mixture includes a polyol, a polyisocyanate and optionally a catalyst.

Abstract: A solar power system for supplying concentrated solar energy. The system includes a cylindrical absorber tube carrying the working fluid and a concentrator assembly, which includes an array of linear lenses such as Fresnel lenses. The concentrator assembly includes a planar optical wafer paired with each of the linear lenses to direct light, which the lenses focus on a first edge of the wafers, onto the collector via a second or output edge of the wafers. Each of the optical wafers is formed from a light transmissive material and acts as a light “pipe.” The lens array is spaced apart a distance from the first edges of the optical wafers. This distance or lens array height is periodically adjusted to account for seasonal changes in the Sun's position, such that the focal point of each linear lens remains upon the first edge of one of the optical wafers yearlong.

Abstract: An arrangement utilizes diffractive, reflective and/or refractive optical elements combined to intensify and homogenize electromagnetic energy, such as natural sunlight in the terrestrial environment, for purposes such as irradiating a target area with concentrated homogenized energy. A heat activated safety mechanism is also described.

Abstract: A solar concentrator comprises a curved linear Fresnel lens (16) which has a plurality of prismatic features (10, 12, 14). The prismatic features are arranged into at least two segments, in each segment the prismatic features have a common apex angle, the common apex angle differing between adjacent segments. A method of manufacturing a mold (2) for producing a Fresnel lens optical film (16) is disclosed. The method comprises rotating a mold blank, and forming a plurality of different prismatic features (10, 12, 14) on the mold blank by repeatedly advancing a cutting tool (4) onto and then withdrawing the tool away from the surface of the mold blank.

Abstract: A light-condensing device and a method of fabricating the same are provided. The light-condensing device includes a central block, a pair of vertical diffraction grating blocks respectively located left and right of the central block, and a pair of horizontal diffraction grating blocks respectively located above and below the central block. The vertical diffraction grating blocks include parallel vertical diffraction gratings in the form of lines extending in the direction of a vertical axis, and the horizontal diffraction grating blocks include parallel horizontal diffraction gratings in the form of lines extending in the direction of a horizontal axis.

Abstract: A highly concentrating solar power generation and thermal collection apparatus includes a multi-coated lens capable of reflecting UV light and visible light and allowing infrared light to transmit therethrough, a lens located at one side of the multi-coated lens for collecting and then concentrating sunlight on the multi-coated lens, a solar cell located on a light reflection path of the multi-coated lens for collecting the UV light and visible light reflected by the multi-coated lens, and a thermal collection unit located at a light transmission path of the multi-coated lens for collecting the infrared light transmitted through the multi-coated lens. The multi-coated lens can be differently designed to change its light reflecting and transmitting function while the locations for the solar cell and the thermal collection unit are exchanged accordingly. Therefore, the apparatus is able to generate power and collect thermal energy from sunlight at the same time.

Abstract: Apparatus to collect solar radiation using a series of lenses or mirrors that concentrate the solar energy onto targets. A gaseous working fluid flowing through the targets is heated and optionally supplied to a heat store having an internal walled labyrinth of a suitable material to store heat energy. A heat exchanger, turbine and electricity generator are coupled to the collection and storage apparatus so as to provide a power plant for the conversion of solar energy to electricity.

Abstract: The method described provides a unique solar energy concentrating structure. This structure is intended to be employed in conjunction with complementary high efficiency solar cell elements to produce solar electric power. In its usual embodiment it contributes to a system of exterior window concentrators and solar cells that provide good visibility and control excess heat transmission providing benefits beyond low-e glass performance.

Abstract: A multiplicity of Fresnel lenses are attached to tubular branches of a tree-like support structure. Fiber optic bundles are connected to the Fresnel lenses and routed inside the tubular branches and collected as a larger fiber optic bundle inside a main trunk structure to which each of the branches is connected. The larger fiber optic bundle may be connected to a remotely located power generating plant or other processing facility via a fiber optic transmission network. A domed solar energy collector includes an outer dome and one or more inner domes concentrically nested therewith, one or more Fresnel lenses being positioned on the hemispherical surface of each of the outer and inner domes. Each of the inner domes is sized and positioned such that its hemispherical surface lies on the focal point of the next larger dome to thereby multiply the solar energy focused through each of the domes to a collection area within the innermost dome.

Abstract: A system for a renewable source of energy may include a light concentration device to collect and concentrate sunlight, a light transmission device to transmit the collected and concentrated sunlight, and a light receiving device to receive the collected and concentrated sunlight and to convert the sunlight to heat. The light receiving device may be a clothes dryer, and the clothes dryer may include a rotating drum having a window to receive the sunlight. The light receiving device may be an oven, and the light receiving device may be is used to create light in a darkened area. The light concentrating device may be a convex lens, and the light transmitting device may be a fiber-optic cable. The light transmitting device may be a pipe.

Abstract: A solar water heating system, including: (a) a solar heating collector, having: (i) an array of convex lenses; (ii) a panel disposed below the array of convex lenses, wherein the array of convex lenses focuses sunlight on the panel to heat areas of the panel; (iii) a fluid chamber disposed below the panel; and (iv) a plurality of members extending from the panel into the fluid chamber to transfer heat from the panel into fluid in the fluid chamber; (b) a fluid reservoir; (c) a fluid inlet line for moving fluid from the fluid reservoir into the fluid inlet of the solar heating collector; (d) fluid outlet line for moving fluid from the fluid chamber of the solar heating collector to the fluid reservoir; and (e) a pump for moving fluid cyclically through the fluid chamber of the solar collector and the fluid reservoir.

Abstract: A solar heat collector includes a housing defining an insulated chamber extending from a focusing lens at a solar receiving end to a target glass at a target end forming a boundary wall between the insulated chamber and a target chamber receiving a heat transfer fluid therein. A target object is supported in the target chamber at the focal point of the focusing lens so as to be surrounded by the heat transfer fluid. In a preferred embodiment a heat engine is supported on the target end of the housing such that the target object and heat transfer fluid are the heat source of the heat engine.

Abstract: An improved window system for a solar receiver provides a high level of impedance to thermal re-radiation while minimizing Fresnel losses. The window system is characterized by a bundled array of optically transmissive members. In further aspects, a solar receiver employing the window system and a method for manufacture are provided.

Abstract: It aims to provide a solar heat collecting apparatus that can efficiently collect energy from solar light. The solar heat collecting apparatus comprises an opened container part 22 that accumulates heat, a closed part 25 that closes the container part 22 and has an opening part 26 to let the collected solar light in, and a light absorbing part 36 that absorbs the solar light dispersed by passing through the opening part 26 so that it is converted into heat.

Abstract: A solar power system for supplying concentrated solar energy. The system includes a cylindrical absorber tube carrying the working fluid and a concentrator assembly, which includes an array of linear lenses such as Fresnel lenses. The concentrator assembly includes a planar optical wafer paired with each of the linear lenses to direct light, which the lenses focus on a first edge of the wafers, onto the collector via a second or output edge of the wafers. Each of the optical wafers is formed from a light transmissive material and acts as a light “pipe.” The lens array is spaced apart a distance from the first edges of the optical wafers, This distance or lens array height is periodically adjusted to account for seasonal changes in the Sun's position, such that the focal point of each linear lens remains upon the first edge of one of the optical wafers yearlong.

Abstract: A tower type heat dissipating structure is applied to dissipate the heat of a solar power system. The solar power system is provided with a reflector having a hemispheric surface for reflecting the sunlight to a solar cell. The heat dissipating structure comprises a heat-conducting plate, a plate type heat pipe and a plurality of heat dissipating fins. One side of the heat-conducting plate is connected with the solar cell, and the other side is provided with a groove for being embedded an end of the plate type heat pipe. The heat dissipating fins is arranged with an inclination angle against the plate type heat pipe that can promote the heated air within the gaps to rise. The heat is rapidly conduced to prevent the solar cell from being destroyed by overheating for reducing the repairing costs.

Abstract: Disclosed is a process for generating and superheating steam.

Abstract: A solar concentrator includes an optical member having a focal point. The optical member is configured and disposed to direct incident solar radiation to the focal point. A support member is positioned adjacent to the focal point of the optical member. A solar energy collector is supported upon the support member. The solar energy collector is positioned at the focal point of the optical member. A base member is positioned in a spaced relationship from the support member. The base member and the support member define a chamber section that is in a heat exchange relationship with the solar energy collector. The chamber section is configured to absorb and dissipate heat from the solar energy collectors.

Abstract: An integrated alternative energy roofing panel incorporates an array of solar concentrator tubes interconnected with transparent web to form a joined plate supported in frame elements with an attached working fluid manifold. The working fluid in the manifold is operatively in contact with the solar concentrator tubes for transferring heat from the tubes. In one exemplary construction, each of the solar concentrator tubes terminates in a conducting metal sleeve which extends beyond the frame element into the manifold. A safety glass panel is attached to one frame element beneath the joined plate. The joined plate and safety glass panel may be sealed to the frame elements to form a chamber and the chamber may be evacuated. A plurality of light emitting diodes (LEDs) are embedded in the web for supplemental lighting. An array of photovoltaic cells mounted to a top surface of the manifold and a battery are interconnected for powering the LEDs.

Abstract: This invention deals with novel method and apparatus for positioning and motion control of the elements (lenses) of a Fresnel lens solar concentrator tracking array by induced and/or permanent dipole coupling to an electronic grid to produce angular deflection, and rotational motion. Thus forces and torques are produced without the use of internal moving parts. Control can be achieved without recourse to magnetic fields, by means of high electric fields which may be attained at relatively low voltages. At low voltages, the instant invention exceeds the capability of conventional systems. It can perform dynamic motion control with independent amplitude and frequency modulation. It is ideally suited for maximization of solar energy focused by the array onto a receiver. Since there are no mechanical likages, the instant invention is the most adapted for fabrication from the mini- to the micro-technology realm. Furthermore it provides less costly and greater ease of manufacture from the mini-to the micro-realm.

Abstract: A solar power system for supplying concentrated solar energy. The system includes a cylindrical absorber tube carrying the working fluid and a concentrator assembly, which includes an array of linear lenses such as Fresnel lenses. The concentrator assembly includes a planar optical wafer paired with each of the linear lenses to direct light, which the lenses focus on a first edge of the wafers, onto the collector via a second or output edge of the wafers. Each of the optical wafers is formed from a light transmissive material and acts as a light “pipe.” The lens array is spaced apart a distance from the first edges of the optical wafers. This distance or lens array height is periodically adjusted to account for seasonal changes in the Sun's position, such that the focal point of each linear lens remains upon the first edge of one of the optical wafers yearlong.

Abstract: A luminescence concentrator (LK) may concentrate both incident direct and diffuse light by way of frequency shift and total internal reflection. It differs fundamentally from geometric concentrators. With sufficient geometric expansion of the collector plate, nearly arbitrarily high concentration can be achieved in the LK. A luminescence disperser is an apparatus which holds both directional and nondirectional incident light captive in a transparent body by way of frequency shift and total internal reflection and emits it diffusely or directionally uniformly distributed across an area by way of luminescence emission. The object of the invention is a method for the technical implementation of the LK and luminescence disperser, using zeolite crystals having a nanotube structure, into which the luminescent dyes are embedded such that they have antenna properties. Using the resulting novel structures, problems can be solved which made the technical use of LK impossible or at least considerably limited it.

Abstract: A concentration system or solar concentrator for supplying concentrated solar energy. The system includes a lens array with linear lenses focusing light received on an outer surface onto a number of focal point or focused lines of light. The system includes a light wafer with a substantially planar body formed of a thickness of a light transmissive material. The body includes a top surface facing the lens array and receiving the focused light from at least one the linear lens and further includes a bottom surface opposite the top surface. The light wafer includes a ray splitter, in the form of a triangular air gap, paired to each linear lens at or near a focal point of the paired lens to direct the received focused light into the body or towards edges or sides of the body where a solar collector such as a thermal or photovoltaic collector is positioned.

Abstract: The present invention relates to primary and secondary concentrators of solar radiation. New primary concentrators of adjusted etendue combined with secondary concentrators are presented, for single of multiple receivers, capable of attaining the maximum possible concentration. The present invention also refers to devices which reduce the thermal losses by convection of the receivers.

Abstract: A point focus thin film Fresnel lens (15; 25) has an inner, substantially flat region (8; 22), and an outer region (9; 23), the outer region projecting outwardly from the inner region and at a substantial angle away from the plane of the inner region. In one embodiment the lens is in the form of a truncated cone (15) with a circular inner region as its apex, hi another embodiment the lens is in the form of a dome (25) and the outer region is formed by joining together segments (23) extending radially from a circular central region (22).

Abstract: The invention provides a large trailing-type Fresnel lens point-focusing solar power system, it comprises a box body, a point-focusing glass matrix Fresnel lens, a reflecting low-radiation glass, a photovoltaic component, a high-temperature heat accumulator and a tracker. The point-focusing glass Fresnel lens, the reflecting low-radiation glass and the photovoltaic component are arranged in proper sequence from up to down, and respectively arranged on the upper part, the middle part and the low part of the box body. The high-temperature heat accumulator is positioned on the point-focusing glass matrix Fresnel lens. The high-temperature heat accumulator is fixed and arranged on a transverse bracket connected with the box body. The box body is arranged on the tracker, and traces the sun by the drive of the tracker. The invention relates to a trailing and spotlighting technique and a sunlight selective transmission technique, it is a high-efficiency clean photoelectric and photothermic utilization method.

Abstract: A method for forming a laminated product includes providing a film (2) having a first surface embossed with optical structures and an opposite second surface; guiding the film to a nip point of a pair of lamination rolls (5, 6); feeding a polymer sheet (4) to the nip point (7), wherein the polymer sheet has a surface temperature effective to enable thermal bonding between the polymer sheet and the film; and laminating the polymer sheet to the second surface of the film. The present process reduces the cost and environmental impact associated with laminating fresnel lens film to acrylic sheet versus existing industry technology.

Abstract: A solar chimney includes a solar collector which heats air in the chimney, producing updrafts which can be harnessed to perform useful work. The solar collector may be located inside or outside the chimney. The device may include a reservoir for storing a heat transfer fluid, thus enabling the device to be used during both day and night. The solar chimney may be equipped with both internal and external solar collectors, operating in parallel. The solar chimney may also be equipped with multiple external solar collectors, connected in parallel to a reservoir. The solar chimney of the invention provides a convenient and practical way to convert solar energy into electrical power.

Abstract: A solar chimney includes a solar collector which heats air in the chimney, producing updrafts which can be harnessed to perform useful work. The solar collector may be located inside or outside the chimney. The device may include a reservoir for storing a heat transfer fluid, thus enabling the device to be used during both day and night. The solar chimney may be equipped with both internal and external solar collectors, operating in parallel. The solar chimney may also be equipped with multiple external solar collectors, connected in parallel to a reservoir. The solar chimney of the invention provides a convenient and practical way to convert solar energy into electrical power.

Abstract: Systems and methods for concentrating solar energy in the high earth atmosphere and transmitting the concentrated solar energy to the earth's surface. A system includes a light weight solar concentrator, supported by a light weight, rigid, buoyant, structure (36). The buoyant structure is suspended high in the earth's atmosphere above clouds and weather. Steerable mirrors, and/or a steerable structure, enable the concentrator to track the sun. In one embodiment, a buoyant light pipe (20) enables the transmission of concentrated solar energy from the high altitude concentrator to the earth's surface for further use. The system provides concentrated solar energy for use at any location on the earth, such use including generation of electricity via thermal or photovoltaic means and, direct and indirect process heat. A high solar concentration ratio enables high temperature, and hence high efficiency heat engine operation.

Abstract: A multiplicity of Fresnel lenses are attached to tubular branches of a tree-like support structure. Fiber optic bundles are connected to the Fresnel lenses and routed inside the tubular branches and collected as a larger fiber optic bundle inside a main trunk structure to which each of the branches is connected. The larger fiber optic bundle may be connected to a remotely located power generating plant or other processing facility via a fiber optic transmission network. A domed solar energy collector includes an outer dome and one or more inner domes concentrically nested therewith, one or more Fresnel lenses being positioned on the hemispherical surface of each of the outer and inner domes. Each of the inner domes is sized and positioned such that its hemispherical surface lies on the focal point of the next larger dome to thereby multiply the solar energy focused through each of the domes to a collection area within the innermost dome.

Abstract: A device (1, 20, 40) for collecting solar energy includes collector elements (3) and lens elements (2) for concentrating solar radiation onto the collector elements (3). The collector elements (3) are coupled via a conduit for energy transport to an energy processing unit. The lens elements (2) include at least one lens (2) which is arranged movably. Drive elements are provided to orient the at least one lens (2) about at least one orientation axis. The drive elements are provided with a control for the purpose of orienting the at least one lens (2) in at least substantially continuous and in at least substantially optimal manner relative to an actual position of the sun.

Abstract: A water heating/distillation chamber with multiple lenses arranged on its external walls such that direct sunlight from any direction is input into the chamber to heat the chamber contents. An input line provides water when necessary, and an output condensing structure channels water vapor out of the device for condensation into distilled water. Alternatively, a supply of hot water can be output from the chamber after heating. Alternatively, steam can be generated which can be used as an energy source for turbines. The chamber can be fabricated from glass, or any other material suitable for creating a greenhouse effect inside the chamber. The device can be applied to a wide spectrum of uses, from large scale commercial activity to small applications such as camping equipment.

Abstract: This invention absorbs available heat from the flue gas of an existing building's heating system and heat from the sun. The heat is absorbed and stored in a heat-collecting sphere of special design. The absorbed heat collected in the sphere is transferred, by the conventional refrigeration cycle, to the heat exchanger located at the air inlet to the building heating system. The refrigerant liquid is sprayed into the collecting sphere, as it absorbs heat, it evaporates and changes into a gas. The refrigerant compressor transfers the gas from the heat-collector to the heat exchanger. The existing heater fan draws air across the heat exchanger finned coil removing heat from the refrigerant. The refrigerant gas gives up heat and is condensed. The heated air combines with the existing furnace air to heat the existing building. The refrigerant liquid from the heat exchanger is transferred to the heat-collecting sphere spray nozzles.

Abstract: The invention relates to a system for converting solar energy into mechanical or electrical energy, comprising: means for concentrating the solar radiation from the sun at a given focal point, collector means for receiving and accumulating the solar radiation originating from the concentration means in order to accumulate thermal energy, and means for converting the thermal energy accumulated in the collector means into mechanical energy. Subsequently, the mechanical energy can be converted into electrical energy using a conventional generator.

Abstract: A solar cell includes a substrate, a chip, a convex lens structure, and an infrared filter. The substrate has a groove in which the chip is placed. The chip can transform light energy into electric energy. Furthermore, the convex lens structure is placed over the groove. The infrared filter is attached to the incident surface of the convex lens structure.

Abstract: A collector includes a convergent lens (2) having a focal distance f and an image focal plane (PFI). The convergent lens (2) defines one of the walls of a casing (1) defined by two pairs of side walls (4a, 4c), a bottom wall (3) and a front wall defined by the lens (2), the side and bottom walls on the inside of the casing being reflective, and the depth p of the casing being lower than the focal distance f of the lens so that after multiple reflections, the ray beam (R1, R2) thus reflected is concentrated on a final image focus (I?) located inside the casing, the collector including a mobile receptor (6a) held inside the concentrated beam or in a position at least intersecting the beam by elements controlling the movement of the collector (6a) with that of the beam.

Abstract: A solar collector arrangement includes a number of assemblies (1), which are immersed or partially immersed in a pond of water (2). Each assembly (1) includes a parabolic reflector (3) and an absorber (6). Barriers (10) are located on or near the surface of the water (2) and operate to reduce waves which may otherwise disturb the direct passage of sunlight in windy conditions. The complete immersion of the assembly (1) in the liquid serves to simultaneously protect and cool the apparatus, while allowing ease of sun 10 tracking movements by buoyancy induced rotation. Partially immersed versions have higher efficiency and protect against severe weather by inverting into the water.

Abstract: A concentrating solar power device may include a primary mirror, a secondary mirror, and a thermal storage device. The primary mirror may reflect solar rays from the sun towards the secondary mirror. The secondary mirror may reflect the solar rays reflected from the primary mirror towards the thermal storage device. The thermal storage device, which may comprise a thermal medium such as salt, may collect/absorb energy from the solar rays which may be used to run multiple Stirling engines, and/or an energy storing or energy expending device.

Abstract: A solar concentrator includes a plurality of separate panels positioned between opposed support rods. Tension elements extend between the support rods and mount the plurality of panels.