TW201035505A - Solar radiation collection systems - Google Patents

Abstract

Systems including devices for collecting radiation, such as from the sun, without tracking, are disclosed. The devices are able to collect radiation incident from different directions. In one version, the devices have a three-dimensional collecting surface that directs light to an inner radiation receiver. The collecting surface may collect radiation coming from directions above a local or visible horizon, such as from the sky, or from substantially any direction. The collecting surface may have a frame supporting faces for concentrating light onto a radiation receiver. A reflecting dish or concave element may be provided below the radiation receiver for reflecting radiation to the radiation receiver. The radiation receiver may generate electricity from the collected radiation, directly through photovoltaic means or indirectly by heating a fluid that is directed to a turbine-generator. The radiation receiver may be used to heat a fluid for another purpose, such as providing hot water or desalination.

Description

201035505, invention description: [Technical field to which the invention pertains] The information currently disclosed relates to the collection and conversion of solar radiation into other forms of energy. [Previous technology 1] Radiation from the sun can be used to provide energy and other energy sources, and it is important to improve collection methods and make full use of existing solar radiation. A variety of solar energy collection systems have been developed to collect or concentrate solar radiation. Some of these solar energy systems are fixed, such as solar panels installed in fixed locations. The collection surface is placed in an apparent position that faces the sun's expected movement in the day and in different seasons, collecting the most solar energy. In the northern hemisphere, it can be consistently pointed to the south, and vice versa, pointing north in the southern hemisphere. Solar panel panels are more effective in the direction perpendicular to the sun. Similarly, solar systems that concentrate the incident light of the sun are typically designed to focus on the apparent position of the sun. The sun's movement during daytime and seasonal shifts will reduce solar panel efficiency and will also cause any focus of the concentrator to be out of focus. Other solar concentrating systems require a tracker that allows them to collect surface and focusing equipment that can track changes in the sun's daily and seasonal shifts. Tracking often requires removable parts, which requires more expense and maintenance. It is not advisable to increase spending. It is not advisable to need repairs, because consumers like 201035505 will be happy to repair products and technologies, and they will expect solar products and technology to be maintenance-free. Therefore, it is desirable to provide a better static passive, non-tracker method to collect and concentrate solar radiation. SUMMARY OF THE INVENTION One object of the disclosure is to provide a radiation collection device that can increase solar energy utilization. Another current goal is to provide a radiation harvesting device that collects solar energy radiation from all directions. Another presently disclosed object is to provide a radiation collecting device that concentrates solar radiation to a predetermined location. Another current disclosure aims to provide a radiation collection device that passively collects solar energy without using equipment that needs to be moved. Another current disclosure is to provide a collection of 0 solar-powered launching equipment using economical materials. Another current goal is to provide portable, solar-powered collection equipment that can be used in remote areas where traditional power generation facilities are lacking. Another current disclosure aims to provide solar radiation equipment, stoves, broilers, lighting, and other free, non-polluting energy sources, especially in remote areas. Another current goal is to provide a solar radiation collection device that can be easily installed. Another presently disclosed object is to provide a solar radiation collection device that can be used for electric vehicle charging 5 201035505. Another presently disclosed object is to provide a solar radiation collection device that can be used for different vehicles. Another presently disclosed object is to provide solar radiation collection equipment that can be used in different buildings. Another current disclosure aims to reduce land use in large power plants and to require long-distance transmission facilities, and it is necessary to provide local solar radiation-generating equipment at locations where electricity is needed. Another current goal is to provide alternative energy sources to replace gasoline and other petroleum derivatives. Another current disclosure is to provide a concentrating system that is integrated with the building. These and other objects, as well as the functions and advantages of the presently disclosed objects, are further explained in the following detailed description, the drawings, and the claims. [Embodiment] Figures 1 to 3 describe a collecting device 1 including a collecting device 10, which includes a collecting frame and a radiation receiver 20 in the collecting frame. The collecting device 10 has a collecting surface 12. The collection surface 12 is configured to collect solar radiation from different directions and direct the collected radiation to the radiation receiver 20. The radiation receiver 20 is configured to collect solar radiation from above and below and ambient heat, as shown in the solar light path diagram. 201035505 The collection surface is set to collect most of the solar radiation from different directions. The collection surface 12 is shown in Figure 1, and is generally spherical. The collection surface 12 includes a plurality of lens cuts 30. Each lens section 30 includes one or more lenses that can receive solar radiation concentrated at the focal point of the collection device 10, preferably at the center of the collection frame 11, the radiation receiver 20 Just at or near the focal point of the lens of the lens section 30. Each lens section 30 can concentrate a range of solar radiation onto the radiation receiver 20 because the collection surface 12 is comprised of a plurality of lens sections 30 facing different directions, regardless of where the sun is in the sky, one or more lenses The facet 30 can focus the sun rays into the radiation receiver 20. Therefore, the device 1 does not need to be installed to face any particular direction, but only at a general level. So simply place the device on a level surface to achieve the above goals. Of course, the device 1 should be placed in a position where trees and buildings do not interfere with the passage of the sun from the device during the day. The structure of the collection device 10 is similar to the carbon sixty-six Buckminster fullerene molecular structure, which is a strong and aesthetically pleasing shape. The collection surface 12 has thirty-two polyhedral sections, that is, twenty hexagonal sections and twelve pentagonal sections. All or most of the polyhedral section, consisting of a lens section 30, forms a polyhedron of the collection surface 12. The collection frame 11 is similar to the covalent bond structure between carbon atoms of carbon-sixty grams of münster fullerene molecules (also referred to as "bucket balls"). The lens section 30 can be made of poly(methyl methacrylate) (organic glass 7 201035505 glass = non-> ear lens, which is an optical grade acrylic acid group: fat = _, for Rohma The company's patented trademark. This lens: - Medium = number 3Ga mark. In addition, the lens section may consist of a simple convex lens, a honeycomb structure. This lenticular lens is shown in Figure 1 by the number 30b. Brother, ~ and another type of lens section is a holographic lens (not numbered.) The collection surface 12 can include any combination of 30a, bird and penetration & the collection surface can also include only a lens (10) I, = cut surface 30b or only one lens cut surface 3〇e. This also shows that the through mirror 3〇 can be, Rencheng «Women drum Yang (four) #魏钱镜 H surface when the shot is from the lens cut surface 30, different incidence When the angle enters, the reverse astigmatism sheet is recorded on the outside of the lens section 30. The reverse astigmatism sheet is described in more detail. The reverse astigmatism sheet can correct the solar radiation; the angle of incidence is used to focus the lens without focusing. (but because the materials used at present are already in progress, they may also be reduced Luminosity. In addition, an anti-reflective coating (or other anti-reflective layer) composed of an oblique angle of oxidized ~ meter rod can be applied; the outer surface of the lens section 30 is used to reduce the light reflection loss. His research team, a new test at Troyes Institute of Technology in Troy, New York, to reduce reflection losses and allow more sun to shine, can be 3 through the lens section 30. By the way, reverse astigmatism or a layer of defense The reflective coating can be applied to other transmissive devices in the present application, which face the solar radiation to a light-emitting receiver not far from it. The light-emitting receiver 20 is extended by the collecting frame u. The strut rod 201035505 13 is supported, located near the central focal point of the collection device 10. In Figures 1 and 4, the cube-shaped radiation receiver 20 is collecting solar power. The shape of the radiation receiver 5 is as in Figure 1 and 4. Alternatively, there may be a shape of the ball 21, as shown in Fig. 5. Regardless of the shape, the covering material of the radiation receiver 20 or 21 is a photovoltaic solar material for converting solar energy into electrical energy. The wafer wafer 22, or the thin film photovoltaic material, is printed as a flexible film 23, or a dye-sensitized solar cell flexible film (GrStzell wafer) attached to a spherical underlying structure. The dye-sensitized solar cell film will be capable of being absorbed. The sun is fired in any direction. In addition, the thin film photovoltaic material or dye-sensitized solar film can be directly splashed onto the underlying structure. Both methods can be used for the cube radiation receiver 20, but the film version is easier to cover the spherical radiation. Receiver 21. Photoelectric material 22 or 23 may be a three-layer wafer of 'two-structured copper/sodium/sodium sulphide/wrong, or copper indium gallium arsenide, oresitized, and other optoelectronic materials may be used, for example. Chopped or organic dye sensitized materials. Advanced optoelectronic materials are more effective but also more expensive. The device 1 collects solar radiation and concentrates on a small amount of photovoltaic material in order to reduce the amount of expensive photovoltaic material used. The power generated by the radiation receiver 20 or 21 is used outside the device 10 via the wires 25 in one or more of the bars 13. In Fig. 1, the electric wire 25 is connected to the current transformer 55. Alternatively, the cord 25 can be connected to a battery or other storage system or directly to a device such as a lighting device. The radiation receiver 20 or 21 will need to dissipate heat to maintain the photovoltaic material 22 (or 23) at an optimum temperature, such as 25 degrees Celsius. Overheated photovoltaic material 9 201035505 Material 22 (or 23) is not advisable. A system or method 40 for cooling photovoltaic material 22 is not intended to be shown in FIG. A water tank 41 carrying cooling water or other coolant liquid (e.g., a mixture of ethanol and water, such as ethylene glycol) is placed in a water tank 42 that receives heated water or coolant liquid. The tube 43 connects the water tank 41 to the three-way valve 46. The two-way valve 46 is also connected to the radiation receiver 2A and the conduit 45 to the water tank 42 by a conduit 44. The three-way valve 46' is placed in the first position to allow water or other coolant flow to flow from the water tank 41 to the receiver 2G. In the second position, the wide door 46 interrupts the flow to the water tank w, allowing water or other coolant flow to flow from the Hurricane Receiver 20 to the water tank 42. In the third position, the door*6 interruptions flow in or out of the radiation receiver 20. A thermocouple (not shown) detects the temperature of the radiation receiver 20. The control circuit (not shown) senses the temperature of the service receiver 2 and moves the target 46 to three different positions to maintain the optimum temperature. The cooling system 40 provides step-by-step heating of hot water or other coolant that can be used for other purposes, such as hot water sources for hot water systems. Other methods of cooling the light-emitting receiver 20 (or 21), such as in a recirculation system, a coolant supply device H) an external bleed exchanger, recirculating back to the collection device 1 〇; or installing a cooling fan at the radiation receiver 20 Inside. As shown in Figure 6, the collection frame n is formed by interlocking plastic frame frames. The frame is best not to obstruct the light. Transparent and coated with an anti-reflective coating. The frame is in the opposite direction (two) straight concave grooves (Η type), and the receiving lens 3g is detachably fixed in the frame. The frame is joined at the vertices of the polyhedron. The projections 16' of the plastic joint 15 are inserted into the corresponding top end grooves of the three frames 14 and the assembly of the device 10 is extremely simple, since the frame 14, the joint 15, and the yield 2 10 201035505 mirror 30 can be removed from a kit , can be assembled by hand. At the top and bottom of the collection device 1 两 two line mirrors 3Q, there will be ^, holes, read insert rod 13m brother 'device i' can be f-packed and transported to the location where the device 1 needs to be used Time group Chu. The collecting solar radiation device 1 further includes a surface reflecting member in the form of a disk 50 having a reflecting surface 51 therein. The rod 13 of the collecting device 1 is extended to the middle of the reflecting plate 50, preferably by inserting a hole in the reflecting plate. The collecting device 1 is mounted on the rod 13 above the reflecting surface 51 to cause solar radiation to be reflected from the reflecting surface 51 to the collecting surface 12 of the bottom of the collecting device 1 or the bottom of the hemisphere. The legs 52 are welded or otherwise connected to the reflective disk 50' to support the reflective disk in a stable position. Reflector disk 5 〇 A possible shape is a truncated paraboloid, a portion of a ball or any other shape 'reflecting solar radiation onto the collecting surface 12. Figures 7 and 8 depict a device for collecting solar radiation devices 6A including a collection device 62 supported by a base 65 above the reflective disk 64. The Q collecting device 62 is the same collecting unit as the collecting device 10 shown in Fig. 1. The reflecting plate 64 is similar to the reflecting plate 5〇 shown in Fig. 1, but is used for desalination. Instead of the radiation receiver or 21, a hollow sphere 66 is collected for a radiation, located near the focal point of the collection lens. Xingchang Shot collected hollow spheres 66, which were set to collect solar radiation and ambient radiation from above and below, as shown in the example of the solar path in Figure 7. e Lead seawater 72 to the bottom of hollow sphere 66 to supply seawater to hollow sphere 66. The lens surface 68 is collected, collecting solar radiation to the hollow sphere 66' to evaporate the seawater therein, and the water is replenished by the tube 70 to the hollow sphere 11 201035505 66. In addition, the seawater is desalinated to dilute the remaining seawater. Newly introduced by the elbow, except for seawater, the device 60 can be lighted up to 6. Combined with sea water. But it can also be used;;:: The water will be installed in the area and in the case of an emergency. In the remote place, this will be the lack of water for reading. The hollow sphere 66 can be made of black glass. Or there is an excellent hot material dragon, and the money has a coating ❿ ^ steel alloy, cracking 60 material empty lag 66 water level, (four) money. The water level is 74 high, and the seawater will automatically be in the middle of the sea, and the water will be automatically replenished by the pipe 70; the square water level is low. At the bottom, lower the lining placed in the high ditch to the water level, and the amine rides the wall to prevent the seawater soaking equipment. Actually descending... ancient use of water retaining: 'Seawater U may need an intermediate storage:: tide sand and sea control mechanism to maintain the hollow sphere 6 6 - solid, Τ, - a feedback, (10) under 'other sea water one 2. Other sensory pianos that can supply seawater to hollow sphere 66 with a detection level, and the seawater seat is to control the circuit in the hollow sphere to the low water level signal I;::::2. The tube % sends the vapor in the hollow sphere 66 to the condenser 77 (schematic D Fig. 8), condenses from water vapor into water, and sends it to the tank Μ. As shown in Figure IX, a collection of solar radiation splits is included, including -82' being supported by the base 85 above the reflective disk 81. Collection of injuries ^ 201035505 Similar to Figure 1 collection device 10, the reflector disk 81 is similar to the reflector disk 50 of Figure 1, but used for the production of biodiesel; heating vegetable oil or other suitable precursor liquid, such as animal fat; and test solution Turn to I to make a biochemical diesel fuel. Vegetable oil or other suitable precursor liquid and lye are fed to container 90. The radiation collects the hollow spheres, absorbs heat from the solar radiant heat and transfers heat through the tube 84 to the vessel 90, which is preferably protected by copper and external insulation, and the container 90 wherein the vegetable oil or other suitable precursor liquid is heated and converted to biodiesel and glycerin. The hollow sphere 86 is similar to the hollow sphere 66 of Figures 7 and 8, and biodiesel and glycerin are collected in the vessel 90. The glycerin density is higher than that of biodiesel and will settle to the bottom of the vessel 90 and be discharged first through the faucet at the bottom; the biodiesel is then withdrawn. Figures 10 through 15 depict devices for collecting solar radiation for power generation. In Fig. 10, the apparatus 100 for collecting solar radiation includes a collecting device 102 and a reflecting plate 104, similar to the collecting device 10 and the reflecting plate 50. Reflector disk 104 is shown with a fan shaped edge as shown in FIG. This is purely for decorative purposes and is not required. The radiation receiver 106 contains a collection device 102 having an optoelectronic wafer that is powered by wires (not shown), one or more of the illumination rings 108 mounted on the outer edge of the collection lens 110. The illuminating ring 108 can be made of a light emitting diode. The apparatus 100 is mounted on a lamp post 112 having a hydraulic system to provide illumination over a wide range of areas. The hydraulic system can lower the device 100 for cleaning and maintenance. Another light source device can control the mechanical operation by using a light sensor; after the dark, the light sensor can not detect the photon, the light source device is interchanged with the radiation receiver 106, and the device 100 is used to reverse the light at the center focus 13 201035505,: Direction 'As French scientist Fresnel, first use the same invented on the Fita, and after dawn, the light sensor ^ began to work on solar radiation during the day. Under the summer device 100, there is a battery compartment with a battery (10). After the black, it provides illumination or other light source equipment to emit light. The two light switch 'tune up' timer can control the light ring. Light, but Figure 10 is not listed. In Figure 11, the device 120 for collecting solar radiation, including a receiving machine 122 and! The shooting wheel 124, like the collecting device 1〇, and the reflecting plate 5, the radiation receiver 126 contains a collecting device 122, which has photoelectric electricity, is powered by wires (not shown), gives one or more, and The illuminating light-emitting ring 128 on the outer edge of the 曰130 can be mounted on a short lamp post 132 by a light-emitting diode device, which can provide illumination for the garden = near the ground. The radiation receiver 106 has - stored electrical energy; after dark, an illumination ring is provided to cause it to illuminate. The switch 'dimmer, when and how much light, but the ten battery compartments 129 with batteries, can store 12 8 or other light source devices, power, timers, etc., can control the light ring 128 is not listed. In Fig. 12, the device 140 for collecting solar radiation includes a receiving device M2, similar to the drawing-collecting device, and the reflecting surface 144 is shocked under the receiving device 140. Collecting device Η2 inside 幸 妾 ( (not shown: wafer composition, powered by wire (not shown), give one or more, illuminating ring 148 attached to the outer edge of collecting lens 15G. illuminating ring 148, can be & 14 201035505 Diode made. The device 140 is mounted on the lamp holder 154 by the column 152, and the reflective surface 144 is located on the upper surface of the lamp holder 154. The battery 140 has a battery compartment ι54 under the device 140 for storing electrical energy. After the black, the light-emitting ring 148 or other light source device is provided to emit light to cause it to emit light. Switches, dimmers, timers, etc., can control when and how much light is emitted by the light-emitting ring 1〇8, but not shown in FIG. The second unit 'collects a device that is too lightly ignited 1%, including a collection device 162, similar to the collection device 10, and the reflective surface 164 is located on the upper surface of the stone column 172, positioned under the collection device 160. The radiation within the collection device 162 A receiver (not shown) is comprised of optoelectronic wafers that are powered by wires (not shown) and provide illumination to one or more of the illumination rings 168 mounted on the outer periphery of the collection lens 17. The illumination ring 168 can be made of light emitting diodes. to make The collection device 162 is mounted on the stone column 172. Inside the stone column 172 of the device 160, there is a battery compartment 169 with a battery for storing electrical energy; after the dark, an illumination ring 168 or other light source device is provided to illuminate the light to cause it to emit light. Switches, dimmers, timers, etc., can control when and how much light is emitted by the illumination ring 168, but not shown in Figure 13. In Figure 14, the device 180 for collecting solar radiation includes a collection device 182, similar to Figure 1. A collection device, a collection of radiation receivers (not shown), consisting of optoelectronic wafers, powered by wires (not shown), providing illumination to one or more of the illumination rings 188 mounted on the outer periphery of the collection lens 19 The illuminating ring 188' can be made of a light-emitting diode. The 置 18 〇 is sealed and waterproof 'because it is hollow 'can float on the water' to become a pool light. The water surface becomes a reflective surface 184 that will reflect light onto the collecting device 182. 201035505 In the device 180, there is a battery compartment with a battery, which can store electrical energy; after the dark, the illumination ring 188 or other light source device is provided to emit light to make it emit light. , timer, etc., can control when and how much light is emitted by the light ring 188, but not shown in Fig. 14. In Fig. 15, the device 200 for collecting solar radiation includes a collecting device 202, similar to the collecting device 1 The reflective disk 204 is mounted under the collection device 202. The collection device 202 has a receiver (not shown) that is composed of a photovoltaic wafer that is powered by a wire (not shown) to the lamp 208 under the reflective disk 204. It is mounted on a lamp post 210 with a hydraulic system. Under the device 120, there is a battery compartment 209 with a battery, which is located in the base of the lamp post 210 to store electrical energy; after the dark, a light 208 or other light source device is provided to emit light. Electricity, making it glow. Switches, dimmers, timers, etc., can control when and how much light 208, but not shown in Figure 15. Device 200 provides power to charging station 212 by electrical line 214, which has a battery compartment that houses battery 211 for charging the electric vehicle. Figures 10 to 15 provide only a few possible versions of the device 1 for providing lighting and electricity for charging the electric vehicle. The location and shape of the reflective surface, the pillars, the battery and switch locations, and other components can vary widely. In addition, other traditional lighting devices can also use the power generated by electrical devices, such as light bulbs and fluorescent lamps, as long as the sockets, converters and other components are fully assembled. Figure 16 depicts a device 220 for collecting solar radiation. Each device includes a collection device 222, similar to the collection device 1 of Figure 1, and a reflective disk 224 is similar to the reflective disk 5. Figure 17 is a cross-sectional view of the apparatus 220. 16 201035505 The radiation receiver 225 within the collection device 222 is a hollow sphere. The bottom of the radiation receiver 325 has a tube ' to obtain the collection device 222 mounted on the struts 226, providing air. The connected struts 226 are tubular and open to the reflective disk 224 for air to enter the collection device 222. The conduit 228 delivers air heated by the radiation receiver 225 to a location where it may be used. In Figure 16, it is for a central power station 230 where hot air is used to drive a turbine generator connection (not shown). Hot air can also be used for house heating and more. Figure 18 shows an array array 〇 or power plant 240 that collects solar radiation equipment 242. The apparatus 240 includes a collection device 244 including a collection device 244 and a reflective disk 2, and a reflective disk 50. The array array or power plant 240 is a combination of array devices 240, as shown in Figure 1. A radiation receiver (not shown) in the collection device 244 is shown in FIG. The radiation receiver contains optoelectronic wafers that are connected by a cable 245 and then supplied via power cable 246 to a central power station 250 for delivering power to a grid (not shown). The collection device 244 needs to be a large unit, such as within 3 meters (about 10 feet), 4 meters (about 20 feet) in diameter, and preferably has a current transformer to provide alternating current to the central power station 250. Figures 19 and 20 depict an array array or power plant 260. Power Array 260 is a variation of the array 240 shown in Figure 18, which includes a device 262 for collecting solar radiation. Each device 262 is similar to the collection device 10 shown in Figure 1 and is equipped with a current transformer (not shown in Figures 19 and 20). Device 262 is illustrated as being mounted on a linear foundation 265. Other arrangements are available at 17 201035505 b' but the current demonstration is a straight line. Between the four sets of devices 262 mounted on the linear foundation 265 is a reflector 266. The reflector 266 is a four-sided arcuate gold-tower shaped 'each arc' that reflects light to the respective facing device 262. The apparatus 262 of Fig. 19 requires the cooling tube 268 to deliver the cooling liquid, to which the receiver 264 is forcibly irradiated to keep the photovoltaic wafer from overheating, and the alternating current of each device 262 is connected by the cable 270 and then through the power cable 272. Provided to the place where electricity is needed. 3 The 262 can be 3 to 6 meters in diameter (about 1 to 2 feet), but the device may have other diameters. Foundation 265 may be made of a concrete floor or other material. It can be worn on the ground or on the roof of a building. It can also be made into a buoyant structure that floats on the water. Figure twenty-four, depicting a collection solar radiation device 280, which includes a collection device 282, which is another variation of the collection device shown in Figure 1. Collection device 282 has a collection frame 284 that supports a plurality of lens sections 288. The frame 284 and the lens section 288 are collected to form a collection surface 290; as shown in Figures 21 and 24, the lens section 288 has two shapes: a hexagonal lens surface 288a and a 288b pentagon 288b. 288a and 288b can be any lens that concentrates solar radiation on the solar radiation receiver 295 in the collection surface 29〇. The lens section 288 can be a flexible material such as polyethylene (PVC) or a rigid material such as polymethyl methacrylate. The collection device 282 is mounted on a plate 292 having a reflective surface 294 thereon. The radiation receiver 295 is located at the center of the focus of the collection device 282, and the current is guided by the branch 2020 35 262 262 。. The wire 298 drawn from the radiation receiver 295 is outside the radiation receiver 282. Figure 2: Eleven is a more detailed description of the radiation receiver 295, and the Koda Shot Receiver 390 of Figures I, , and σ, which have the same structure. The radiation receiver ^, gossip style can also be used, such as the radiation receiver 287 of Figure 23, the cooker f such as the thirty-five 辎 transponder 41Q-like structure. These light-emitting receivers have an internal cooling system, * depending on the external (four) coolant.

In Fig. 14, the frame 284 is collected, and the inflation tube 283 is made of a flexible material such as polyvinyl chloride. The inflation tube 283 can be inflated by a foot pump. The gas filling tubes 283 are coupled to each other and sealed to allow air or other gas to flow therethrough. Air or other gas is pumped through the personal port (not shown) into the inflation tube, and all of the tubes will expand to support the collection frame 284. The lens section 288 may be coupled to the inflation tube 283 by ultrasonic welding or the like. The device 280 is especially lightweight, easy to carry, and suitable for field use. Figure fifteen, a device 300 for collecting solar radiation, is a twenty-four to twenty-four-variation application. The main difference is the structure of the collection surface training, the shape of the carbon nanotubes _ each with a hemispherical buckyball seal, which will also be used in Figure 40. Figure 26 - 30' second solar radiation harvesting device 320 includes a collection device 330. The collection device 33A includes: a collection receiver 331' in the frame 331 of the radiation receiver 34A. The collection frame 331A is composed of interlocking patterns, and in the detailed view of the figure, in Fig. 6, there is a detailed description of the cat. Collection device 330 has a collection surface. The collection surface 332 is set to collect solar radiation from the local or visible horizon (in this case; the wide local ground refers to the upper edge of the reflective disk 355), 19 201035505 concentrating the radiation to the radiation receiver 340. The collection surface 332 is different from the aforementioned device and does not extend below the radiation receiver 340, and therefore, the radiation from below cannot be concentrated to the radiation receiver 340. The collection frame 331 and the collection surface 332 are hemispherical surfaces. Collection surface 332 includes a plurality of lens cuts 334. Each lens section 334 includes one or more lenses that receive and concentrate solar radiation to the focus center of collection device 330. The center of focus of the collection surface 332 should be at the bottom of the hemisphere of the collection frame 331, at or near the center of the plane. Radiation receiver 340 should be at the center of focus of lens section 334. A lens section 334, each lens section, faces a range of incident light and collects it into a radiation receiver 340. Due to the collection surface 332, facing the lens section 334 in different directions, regardless of where the sun is in the sky, there is always one or more lens sections 334 that can concentrate the absorption of sunlight into the radiation receiver 340. Figure 26. The structure of the collection device, similar to the hemispherical structure of the carbon sixty-six-gram münster fullerene molecule, is a sturdy and aesthetically pleasing structure. The collection surface 334 has sixteen polyhedral sections, namely four complete hexagonal sections, six half cut hexagonal sections, and six pentagonal sections. The facets of all or most of the polyhedron are provided with lens cuts, and the facets of the facets 334, corresponding to the shape of the polyhedron, should have appropriate cuts in place to form the collecting surface 332. The collection frame 331 is similar to the hemispherical structure of the covalent bond of the carbon sixty-six-gram münster fullerene molecule. The lens section 334 can be a Fresnel transparent phthalate acrylate 20 201035505

mirror. In Figure 26, the number 334a is dried s L ^ ^ no. In addition, the lens section may have many micro lenticular lenses in the early days, and the group Π ^ - ^ , into a honeycomb structure. This double convex lens structure is shown in the figure by the number 334 i77r§. There is another lens in the face, a holographic lens, with the number 33 X. . y c know. Collection surface 334 can include any combination of 334a, 334b, and 334c clocks such as am + port cuts. The collection surface is also comprised of a lens section 33, a seven-body right lens section 334b or only one lens section 334c. This also says that %, & ^ ^ ^ lens section 334 can be,

1 sentence in the wood and collect the lens or lens of the sun (10). Fortunately, the radiation receiver 340 is in the vicinity of the focus center of the collection device 33, and the pole 335 is extended by the popula 1. Light shot receiver 340 collects too = sub-power. The light-emitting receiver's 34 turns may have the shape and structure of the radiation receiver ,, and the outer surface, including the photovoltaic wafer 343. Figure 17. The light-emitting receiver 34A in Figure 26 is enlarged. It, like the light-light receiver 2 in Figure 5, is similar to the light-emitting receiver 20 in Figure 4. The power generated by the radiation receiver 340 (or 341) will be transmitted to the outside of the device 32() via the wires 358 in one or more of the bars 335. In Figure 26, the wire 358 is connected to a current transformer 359. Other options ^, wire 358 can be connected to a battery or other storage system, or directly to the device, as shown in Figure 10 ~ 15 lighting equipment. : Soil = Shot Receiver 340 will need to dissipate heat to maintain the optoelectronic material at a = illusion. Figure 26 shows a system or method 345 for water-cooled heat dissipation of photovoltaic wafers. A water tank 342 for cooling water or other coolant liquid is placed on the water tank 344 that receives the heated water or coolant liquid. Tube 346 connects water 21 201035505 tank 342 to three-way valve 348. The three-way valve 348 is also coupled to the radiation receiver 34A and the conduit 352 to the water tank 344 by conduit 350. The three-way valve 348, in the first position, allows water or other coolant flow from the water 342 to the radiation receiver 34A. At the second bit =, valve 348 interrupts flow to tank 342' to allow water or other coolant flow i to flow from tanker 340 to tank 344. In the third position, valve 3 = 8 interrupts flowing in or out of the radiation receiver 34. A thermocouple (not shown) detects the temperature of the radiation receiver 34A. A control circuit (not shown) senses the temperature of the radiation receiver 340 and moves the valve 348 to three different positions to maintain the optimum temperature. The cooling system 345 can further provide heated hot water or other coolant that can be used for other purposes, such as a hot water source for the hot water system. Other methods of cooling the radiation receiver 340, such as in a recirculation system, the coolant passing through a heat exchanger external to the collection device 330, recirculating back to the collection device 33A; or an air-cooled 'amplifier cooling fan within the radiation receiver 340 . As shown in Figure 6, and above, the collection frame 331 is composed of interlocking plastic components. The collection solar radiation device 320' further includes a reflective disk 355 having a reflective surface 356 therein. A rod 335 extending from the collecting device 320 is coupled to the middle of the reflecting plate 355, and a hole is formed in the reflecting plate 355 to be inserted. The solar radiation is reflected to the collection device 340. The collecting frame 331 has a peripheral bracket 336 for fixing the bottom of the collecting surface 332 hemisphere, and the lower end of each lens cutting plane 334 is fixed. The peripheral bracket 336 is the interlocking assembly of the frame assembly 14 in FIG. The peripheral bracket 336 is also coupled to the peripheral ring 356 of the reflective disk 355 by a bracket 337. Branch 22 201035505 A 337 'peripheral bracket 336, the ring 356 defines a transparent polygonal window 338. The window 338 can be inserted into the bracket 337, the slot of the peripheral bracket 330; so the window can be detached from the bracket 337, the peripheral bracket 336; the window 338 can be placed on the reflective disk 355. Hbone 348 is preferably made of a transparent acrylic, coated with an anti-reflective coating, or other sheets that allow light to pass through and transmit light to reflective disk 355. Such as 〇-type ring seals, silicone rubber, etc., can be used in the bracket 337, the peripheral 〇 bracket 336, the reflection plate 355 and the window 338 joint, so that dust, rain, dew, snow, other atmospheric elements, will not accumulate in the reflector 355 Or enter under the self-collection device 320 to enter. The legs 357 are welded or otherwise attached to the reflector disk 355' to support the reflective disk at the mounting location. Figures 31 and 32 depict a device 360 for collecting solar radiation, including a collection device 362 and a reflective disk 364, which are identical to the collection device 330 and the reflective disk 335 of Figure 26, but are adapted for use with seawater. Lighten. The original Koda Receiver 340 was replaced by a hollow sphere 366 收集 that collects solar radiation, which is located near the focal center of the lens section 368. Lens section 368 can include any combination of Fresnel lens face 368A, lenticular lens 36讣, holographic lens 368c, or any other lens section that can collect and concentrate light energy. Tube 376 directs seawater 372 to the bottom of hollow sphere 366 to supply seawater to sphere 366. The lens surface 368 is collected, collecting solar radiation to the hollow sphere 366, evaporating the seawater therein, and replenishing the seawater to the hollow sphere 366 by the tube 376. The hollow sphere 366 can be made of glass black. It can also be copper or copper 23 201035505 alloy, which has excellent heat transfer properties and is covered with an outer surface of the absorbing coating. Figure 30 - The device 360 will align the sphere 366 with the seawater 372 outside the water retaining wall, the water level is 374, and the seawater will automatically replenish water by the tube 376 when the water level of the hollow sphere Μ6 is low; Thirty-two, the ball women's method is similar to the device of Figure 7 and Figure 8. Other methods of supplying seawater to the hollow sphere 366 are to mount a sensor with a detection level in the hollow sphere 366, and when the pump control circuit in the sea reservoir 372 receives the low water level signal, the water is replenished via the pipeline. The officer 378 sends the helium gas in the hollow sphere 366 to the condenser 377 (shown in the figure), condenses it from water vapor into water, and sends it to the water tank 379 for storage as fresh water. Figures 22 through 36 illustrate a device 380 for collecting solar radiation, including a collection device 382, a radiation receiver 39A, and a balloon 400. Its purpose is to carry it conveniently. The collecting device 382 is similar to the collecting device 33 of Figures 26 to 30; the upper portion of the collecting device 382 is hemispherical, and the balloon 400 having a concave upward facing surface reflects radiation. The collecting device 382 has a collecting frame 383 and a collecting frame 331 of a collecting surface 384' similar to the collecting device 33, and a collecting surface %2. The surface 384 is collected to collect solar radiation from the local or visible ground, in which case the local horizon refers to the ring above the balloon 4〇1. The lens section 384 is composed of a lens section m', and the lens section may include, a Philippine lens cut © 386A, a bee green lenticular lens, a holographic lens withdrawal combination, or any other lens section, which can be used to concentrate light energy to Radiation receiver 390. The lens section 386 is made of a replaceable polyvinyl chloride for inflation. 24 201035505 Collection device 382 is located above the balloon. The inflatable balloon 400, after being inflated, has a bottom shape of a bowl 4 〇 2; the inner surface of the balloon paste 4q face L 2 can be coated with a silver silver metal flute or a plastic film to form a reflecting surface 403. The balloon itself can be made of pvc or nylon cloth for Gao Dan. Balloon _ # upper torus 401, one = transparent 'allows light to enter, and is completely reflected by the balloon

403' reflects the light to a light-emitting receiver 390 at the center of focus of the balloon. The balloon 400 must be fixed at its bottom 4〇2. Ring 4〇6 is joined to the bottom by welding or a ligation agent or the like, and is placed on the ground by a stud. = The way he ensures that the balloon 400 is fixed to the ground is also acceptable. For example, 鄕 裱 can be hooked or tied to the anchor to fix it to the ground. The torus 4 of the upper portion of the balloon 4 00 supports the collection device 3 82 and the radiation receiver 390. The light enclosed by the lens section 386 * reflecting surface 4 〇 3 will heat the radiation receiver 390, preferably not the balloon gamma surface 401. The struts 389 support the radiation receiver 39A, which is higher than the upper half of the balloon 4〇〇4〇1' so as not to contact the upper annulus 4〇1 of the balloon 400. The struts 389 are terminated at the upper half of the balloon 400, the surface fasteners 4〇5 of the annulus 4〇1, and the other end of the receiver 390, passing through the collection device 382. Therefore, the pillar 389 is generally made of a transparent material such as a transparent plastic tube. The collection projecter 382 connects the balloon 4 to the upper half of the annulus 4〇1. The collection of the 3 illusion and the interior of the balloon 400 are interoperable. The light-emitting receiver 39 is externally 25 201035505 Photoelectric material 'The following figures 34 and 35 have a more detailed discussion. Wire 398 connects the radiation receiving 390 to the converter 399. Wire 398 can provide battery power, lighting, charging, or any other device power. The device 380 is easy to set up as long as the balloon 4 is filled with air or other gases. The device can be formed into a shape as shown in Figs. 33 and 36. The radiation receiver 390 heat sink (discussed below), the hot air that is vented will increase the air pressure at the balloon 4 to assist in maintaining the balloon 4 〇〇 expansion. The temperature of the balloon 400 and the collection jet 382 will be higher than the ambient temperature; it will dissipate in four directions until the two temperatures are consistent. Figure 34. Radiation receiver 39 of device 380. Radiation receiver 390 is typically a cube. Its six outer walls are optoelectronic wafers 391. The side walls a% are separated from the top wall 393 to increase the ventilation of the four windows 394, allowing air to circulate in and out of the radiation receiver 390 for heat dissipation purposes. The four posts 395 connect the side wall 362 and the top wall 393. A bottom surface (not shown) is attached to the side wall 392. The inner layer of the radiation receiver 390 cube, preferably made of aluminum alloy, is also acceptable if other materials have high thermal conductivity characteristics such as yttrium oxide. The top wall 393 is joined to the post 389 at its four corners. The top wall 393 is larger than the side wall 362' so that its edge extends beyond the side wall so that the radiation reflected by the reflective surface 403 can strike the double-sided photovoltaic wafer 391' of the top wall 393 which will cause the wafers to absorb more solar radiation. Within the radiation receiver 390, a heat sink is preferably included, as shown in Figures 66 and 67; to maintain the photovoltaic wafer 391 at an appropriate temperature. For example, the motor operates a fan to circulate air. A thermal sensor (not shown) drives the 26 201035505 motor, with a photovoltaic wafer 391 from the outer wall of the radiation receiver 390, or a photovoltaic film from the outer wall 412 of the radiation receiver 410, which is powered by wire 398 (not shown) to energize the motor. . This cooling device is similar to a CPU cooling device. Another radiation receiving device 410 of device 380 is depicted in FIG. The radiation receiver 41 has a hollow sphere 412. Its outer surface is coated with a photovoltage film 413. The 支柱 ^ struts 389 are connected to the ring 414 ' to be connected to the sphere 412. Preferably, the attachment is non-permanent such that the post 389 can be removed to create a venting aperture 415 for the disassembly device ring 414 to allow air to enter and exit the receiver 410 for heat dissipation of the ball 412. Figures 37 to 39 describe a collection of solar radiation by a collection device 422, radiation receiver 43 ^ = 20%. The main focus is on portability. 〇 Receiver 11 is set to 'Receive sunlight and sun from above and below. See Figure 37 for the illumination mode. The light receiver 43 、 and the overcurrent 432. send current to the converter 434. The collecting device 422 of Figs. 27 to 39 and the collecting device 382 of Figs. 33 to 30 are substantially the same. Again, the radiation receiver 430 is essentially the same radiation receiver 39〇 as Figure 33, 彡14 = 36. Please refer to the previous game and radiation receiver 390. The rolling spring 440 is square from the top, and six outer walls are seamed at its edges, a top wall 442, a four-sided outer wall 444 and a bottom 446. On the negative wall 27 201035505 face 442, outer wall 444 and bottom 446, a gas impermeable material, such as a high Denier number balloon with PVC or nylon cloth. Balloon 440 is filled with air, other gases or liquids (e.g., water) to show the desired shape, as shown in Figure 37. The balloon 440 includes an inner wall 450 that is seamed on the side line where the top wall 442 and the side wall 444 are joined. The shape of the inner wall 450, after the balloon 440 is inflated, will have its concave surface facing up. As shown in Fig. 37, the shape is formed by inner eight triangular pieces 452, generally welded or seamed to form an inner wall 450, and the inner wall 450 is then hoisted by the edge line connecting the top wall 442 and the side wall 444. In addition, inner wire 454 interfaces inner wall 450 with the four corners of balloon 440. The upper surface of the inner wall 450 is a silver reflective surface 456. The reflective surface is concavely facing upward to reflect light from below the radiation receiver 430. The top wall 442 is comprised of a transparent material to allow light to pass over the reflective surface. Collection device 430 is on top wall 442 of balloon 440. Radiation receiver 430 is supported by rod 431. The balloon 440 has a ring 443 at its four corners 441 which can be secured to the ground with anchors 445. Other fixing methods, such as attaching to a lower surface, such as a connecting tin nail, are fixed on a lower surface. The gas ball 440 top wall body 442 is joined to the side wall 444, and the industrial zipper half 447 is attached, as shown in Fig. 39. The zipper half 447 can be pulled with the corresponding zipper half 447 of other similar device balloons 440 to join the array of devices 420 into a dense array of squares. Figures 40 to 43 depict a collection solar radiation device 450, including a collection device 470; the collection device 470 includes a collection frame 471 and a radiation receiver 480 within the collection frame 471. Collection device 470 has a collection surface 472. The collection surface 472 is configured to collect the sun 28 201035505 in different directions, and concentrate the radiation to the radiation receiver 48 〇. The collection frame 471 and the collection surface 472 are tubular in shape with a hemispherical seal at both ends. Collection surface 472 includes a plurality of lens cuts 474. Each lens section 474, comprising one or more lenses, collects solar radiation, focusing on the central axis 475 of the harvester::: the focal point of one or more lenses should: :: connect the mandrel - on the mandrel 475 . Radiation Receiver - Located at or near the focal plane central axis 475 of the lens section 474 'parent-lens. 〇 Each lens section 474 can be concentrated—the stator _ solar radiation receiver. The collection surface 472 is composed of a plurality of lens sections 474 facing different sides. Position of the relatively light hitting device 46A ^ Regardless of the position of the sun in the sky, one or more lens cut pins can focus the sun rays into the radiation receiver 48. As shown in Fig. 40, the collection frame 471 of the collection device 47 is similar to the carbon nanotube tube 'the left and right ends are carbon-six-bark münster fullerene molecular hemisphere = covalent bond structure of the mouth' Rugged and beautiful structure. Lens section 〇 can be any lens or lens system that concentrates and collects solar radiation, such as a Fresnel lens (indicated by numeral 474a). In addition, miniature lenticular lenses form a honeycomb structure (indicated by numeral 474b). Or a holographic lens (indicated by the number 474c). Collection surface 472 can include any combination of 334a' 334b and 334c lens cuts. The collection surface may also comprise only one lens section 474a' of a lens section 474b or only one lens section 474c. This also means that the lens section 474 can be any lens or lens system capable of collecting and concentrating solar radiation. Radiation receiver 480 is located at or near lens section 474, 29 201035505 focus point central axis 475 of each lens. Supported by two struts 482 extending from the collection frame 471. The post 482 is made of a transparent acrylic material. Radiation receiver 480 collects solar power. In the picture forty, forty two

The spokes receiver 480 of the mouth of the forty-three is shaped as a hollow circular I-junction, and the left and right hemispheres are sealed. The radiation receiver 48 can be an insulating material such as glass. The radiation receiver 480 is covered with a photovoltaic material 486 to convert solar energy into energy. The optoelectronic material can be a solar wafer or a flexible film, and is covered on the inner shell of the dielectric material constituting (four) (four) 48G. Photoelectric materials As shown in the fortieth to forty-threeth, the multi-contact tri-five compound semiconductor solar cells are expensive, but have high conversion efficiency and are still increasing. The electric power generated by the receiver 480 is rotated, and the electric wire 487 passes through a plurality of branches 482, and the electric power is output to the collecting device 47 for use. In Figure 40, the wire 487 is connected to a converter. In addition, wirework can be connected to other storage systems in the electrical domain or directly to electrical lighting equipment. For example, the radiation receiver will need to dissipate heat to keep the optoelectronic material at an optimum temperature, such as 25 degrees Celsius. Overheated photovoltaic material damage is not acceptable. A system or method for cooling the photovoltaic material 486, 示意, indicates forty. A water tank 491 carrying cooling water or other coolant liquid is placed in a water tank 492 that receives heated water or coolant liquid. The tank 491 is connected to the three-way valve 496. The two-way wide 496 also has a pipeline of 494 495 to the water tank 492. A three-way valve 496, coupled to the radiation receiver 480 and the conduit in a first position, allows water or 30 201035505 ft of coolant flow to flow from the water tank 491 to the radiation receiver. The second interrupted flow to tank 491' allows water or other coolant to flow from radiator receiver 480 to tank 492. Depending on the interruption, the light is received from the light source _ inflow or stream =: set_off The temperature of the radiation receiver 480 is detected. The control is gone, 4 is not to the radiation receiver 2. The temperature ' moves twice to maintain the optimum temperature. To the second material R position, the Ο 系统 ^ system tool can further provide heating hot water or other cooling for other purposes, such as hot water source of hot water system. In other methods of cooling, such as in a recirculation system, the coolant passes through a heat exchanger external to the collection 470, and the recirculation is installed in the radiation receiver 480.装置 ^口图一至六的装置一' and more detailed Figure 6 shows that the collection frame by 1' consists of interlocking plastic components 14. The collecting solar radiation weighting step includes a reflecting groove having an inner reflecting surface 5. The groove 475 is aligned 475' with the concave surface facing upward, and the light is reflected upward to the light beam. The two pillars extending from the collecting frame 471 are similar, and the groove is preferably inserted into the hole formed by the reflecting groove 5. The 480-inch struts 482 are mounted above the reflective surface 5〇, such that the self-reflecting surface is still below the collection surface of the collection device 47〇: or on the bottom. The legs 502 are welded or otherwise connected to the reflective grooves) The reflective trough 500 is supported to sit on the ground. = forty-'shows - an enlarged portion of the radiation receiver, the electrical material 486 is a square wafer, and the wire 489 is connected to the light beam receiving 31 201035505 480 Photovoltaic material wafers 'may have different shapes and formats. Figures 44 and 45 depict a device 510' for collecting solar radiation comprising a collection device 512 and a reflection trough 514 similar to collection device 470 and reflection trough 500, see forty~ Forty-three, but for desalination. The original launch receiver 480' is replaced by a hollow tube 520 that collects solar radiation, which is located near the focal center of the lens section 516. The tube 522 directs the seawater 524 to the center. At the bottom of the empty tube 520, seawater is supplied to the hollow tube 52. The lens surface 516 is collected, the solar radiation is collected to the hollow tube 520, the seawater is evaporated therein, and the seawater is replenished to the hollow tube 520 by the tube 522. The hollow tube 520 It can be made of black coated glass. It can also be copper or copper alloy with excellent heat transfer characteristics and covered with the outer surface of the absorbing coating. Figure 44 and 45, device 510 will hollow tube 520, and The seawater 524 outside the water retaining wall, the water 526 is flat, and the seawater will automatically be replenished by the pipe 522 when the water level of the hollow pipe 52 is low; other methods for supplying seawater to the hollow pipe 520 are hollow Tube % is equipped with a sensor for detecting the level. When the pump control circuit in the sea reservoir 524 receives the low water level signal, it replenishes water via the pipe. The pipe 528 sends the steam in the hollow tube 520 to the condenser 529 (schematic map). The water condition is condensed into water and sent to the water tank 5 3〇, stored as fresh water. Figure 46 depicts an array 54〇, array collection device 55〇, has the same general structure 'see _ ten ~ forty-three collection equipment 47 〇, ^ Figure forty four ~ Forty-five collection equipment 512. Retaining the MO is best installed on the surface 552 'can be a ground, a platform, roof, similar. The collection device can be considered pure when parallel, such as 32 201035505 The general direction of the northern hemisphere is to face the true south. The reflecting device 554 is mounted above the surface 552 between adjacent collection devices 550. The reflecting device 554 is elongated, the sides are approximately triangular prisms like prisms, and there is reflection on the surface. The concave surface of the material faces the reflective surface 556 to reflect light to an adjacent collection device 550. Adjacent collection devices 550 are connected to frame 558 and are transparent acrylic materials that do not interfere with the passage of light sources. Frame 558 is coupled to reflective device 554, which has device 550 mounted above surface 552 for additional support. The surface 552 is painted or coated with a layer of reflective paint that reflects more light to the device 550. At each collection device 550, there is a radiation receiver 56 that receives the light collected by the collection device 550. The structure of the radiation receiver 56A can be a radiation receiver 48A of the forty to forty-two of the figure, that is, the outer surface of the radiation receiving material is used for power generation, and the same can be used for the fourteenth and forty-fiveth. A tubular tubular radiation receiver 560 is shown in which the fluid is heated to desalinate or provide a heated liquid. In order to simplify Figure 46, auxiliary equipment such as 管道 pipes, water tanks, cooling systems, etc., which are generally required, are not shown. The light-emitting receiver 560 shown in Fig. 46 is slid on the surface 552 by the support 562. The radiation receivers 560' are typically mounted on the long axis of the collection device 55'. They will be able to receive light from the collection device, such as the aforementioned light-emitting receiver 480 or radiation receiving tube 520. Figure 47 shows a device 570 for collecting solar radiation, including a collection device 580 and a reflective disk 590. The device 570 device displays a half section revealing its interior. The collection device 580 is generally spherical and includes a plurality of reflective light guides 582 that direct the reflected light into a light source 33 201035505 receiver 575 at the center of the collection device 580. The reflective light guide 582 is comprised of three or more wall surfaces 584 that are divergent from the center of the collection device 580, from one aperture 583 to the large aperture 585. Wall 584 is placed on collection device 58, from the center of the divergent line. The wall 584 is covered with a reflective material such as an aluminum film, an aluminum plate, a mirror vacuum metallized coating of plastic or a metal plate. Polyethylene terephthalate (biaxially oriented polyester film) Tuming film for food packaging industry has been mass-produced and can reflect 99% of sunlight, including infrared light range, can be used for surface coating . In addition, the 'wall 584 can be produced by means of silver or silver mirrors' is a well-known process. Figure 47. The numerous large openings 585 create the appearance of a dome. Other shapes of reflective light guides 582 can be employed. For example, the opening π of the reflective light guide triangle can form an icosahedron. The reflective light guides each have three walls and the same shape. Other shapes that may be used, such as dodecahedron, ba ^ ball 'nano carbon tube, bucky ring, etc. Reflecting the outside or outside of the light guide: It may be a lens cut as previously described, such as the collection device of device i. In addition, to allow moisture and dust to enter the light guide. Available in the light guide Μ transparent panel. a In addition, other reflective light guides can be used, such as composite (quad) concentrators. The radiation receiver 575 can be a similar thin receiver as described above, as shown in FIG. The radiation receiver 575 & shown in Figure 47 contains a photovoltaic material. If the coating 575 is coated as a photovoltaic material, a cooling system, such as device one, is required, but Figure 46 does not show. In addition, the 'light-light receiver' can still be changed to heat the liquid, such as water, biodiesel precursor oil, or heating sea water to cause phase change, which will benefit the desalination of seawater. 34 201035505 The collection device 580 is mounted above the reflective disk 590 by posts 588. The post 588 can be made of an alloy and the disc 590 can be made of a metal alloy or plastic. After the wire 577 passes through the post 585 extending from the radiation receiver 575, current is supplied to the current transformer 579. The wire 577 can also supply current or direct current power to other devices such as batteries. The post 588 is mounted on the reflective disk 590. The reflective disk 590 and the reflective disk 50' of the device 1 are in the same manner and of the same material. Reflective disk 59A, the concavely facing surface includes a reflective coating 592 that will reflect sunlight to one or more of the reflective light guides 582. Reflector disk 590 is mounted on leg 594. The collection device 580' of device 570 can receive sunlight from any direction. Since the device 1 and other collecting solar radiation devices are as described above, they do not need to be installed in any particular direction except for the general level. This can be achieved by placing the device on a universal level 570. Figure 48 and ~ Figure 49 depict a collection of solar radiation devices 60 〇 'lightweight and easy to install. The device 6〇〇 includes an inflatable balloon 61〇. The illustrated inflatable balloon 610 shows a shape similar to that of Fig. 1, and a carbon sixty-buckucker fullerene molecule ' combines a hexagonal section 611 and a pentagonal section 612 with an inflation tube 613. The balloon 610 is inflated with a pedal and the gas inflates the inflation tube 613 through the conduit 604 to the mast 606. The balloon 610 is inflated by the inflation tube 613. In this inflation method, the balloon 610' consisting of the cut surface 611 and the cut surface 612 is not entered by the air or the like. Instead, the inflated tubes of the cut surface 611 and the cut surface 612 are inflated. However, this additional method can also be used to inflate. However, the air can leak from the gap between the cut surface 611 and the cut surface 612 because it requires 35 201035505 to consider the heat dissipation requirement. The gas series is connected to the masking rod 6〇6 by the tie. At the bottom of 606, an uninflated balloon 6 is displayed. D. v 图 Figure 49 is a cross-sectional view of a hexagonal section (1). Pentagonal section (4) Hexagonal section 611, the structure is similar: all five sides include a transparent surface layer 614, in the holographic lens: ― 618 is installed between the surface layer 614 and the hologram lens, Figure 48 This three-layer structure 8. The hologram lens 616 is set to illuminate the light of the layer 6H, and reflects/refracts the light to the photovoltaic layer 618. The power generation prism has been developed by the solar energy technology company, and the company fully discloses the patent disclosure of the lens concentrated human shot (4). For the disclosure of US Patent Nos. 6274_ and 5877874 of Rosenberg and Effie US Patent, please refer to this application for reference 'is permitted by law. Wiring (not shown) collects current from slice 611 and slice 612 and passes it to wire 605. The current of this wire leads to the converter 6〇7. The balloon 610 is provided with a venting opening at the joint gap of the cut surface 611 and the cut surface 612 to allow air to pass through the balloon 610 for cooling purposes. Photovoltaic layer 618 requires cooling to maintain greater efficiency, which has been the cause for the foregoing. Balloon 610 may have other shapes and cannot be shown. In addition, the gas ball does not need to have a universal sphere as shown in Figure 48. For example, it may be hemispherical and placed on a flat surface, such as a roof. In the case where the reflecting plate cannot be obtained, in order to improve the efficiency of the device 6, the reflecting surface 6〇3 can be placed under the balloon 610. As shown in Figure 48, aluminized polyester film is currently the first choice, light weight and easy to deploy, or the surface is painted white to provide a simple 36 363535 reflective surface. Figure 50 shows a collection of solar radiation 625, similar to Figure 48. The collection is too 1% of the launching device 620. It is different from the balloon and is in the shape of a carbon nanotube, as shown in the collection device 550 of Fig. 46. Balloon 625 has a more aerodynamic shape for windy weather. The balloon 625 can fly from the mast 627 like a flag or a spacecraft. Apparatus 600, reflecting surface 626 below balloon 625, reflects the efficiency of lifting device 625, as shown in Fig. 50, from below balloon 625 to the lower portion of 625.

Figures 51 through 56 depict three shapes for collecting solar radiation device 630. Device 630 typically has a three-dimensional polyhedron that faces a plurality of sections in all directions. The exterior surface of the device is covered by a photovoltaic material 63 that converts solar radiation into electrical energy. Regardless of the position of the sun, the device 63 will produce substantially the same amount of power because the device (4) has a phase-outer surface that will face each direction. (The intensity of solar radiation will vary, because of altitude, the location of the sun in the sky, the 'weather' season, etc.) Therefore, there is no need for special care. 1 Set 630 does not need to adjust the installation position because of the position relative to the sun. The device 630 also does not need to be moved at a flat frequency during the day. These devices are lightweight and easy to carry, and a wire (as shown in Figure 57) flows from these devices to the selected and appropriate use. Device 630: consists of a flexible material that maintains its shape, - because 1 = there is a miscellaneous miscellaneous, the money is like a balloon into a substantially fixed three-dimensional shape. Photoelectric materials are covered in :==. The photoelectric material is preferably a replaceable film, which may be blocked such as + (four) element material _, or copper ankle boots gallium, Wei Xi. U.S. Patent Nos. 6,565,153 and 6,576,975, the disclosure of which are incorporated herein by reference. The disclosures of U.S. Patent Nos. 6,566,153 and 6,,576,975, the disclosures of which are incorporated herein by reference. The dye-sensitized solar cell film will be able to absorb solar radiation in any direction. Thin film photovoltaic materials or dye-sensitized solar films can be directly deposited into the underlying structure. Thin film optoelectronic materials can be printed, mechanically stamped and hydraulically stamped, deposited, pasted, photo-cured (Stereolithography) by various methods covering the flexible outer surface of the device. Figure 51 and Figure 52 illustrate the first shape 630a of the solar radiation device 630. Device 630a, consisting of twelve pentagons 632 and twenty hexagons 634, joined by ultrasonic welding or adhesive or any other suitable method at their edges, as shown in Figure 52, forming an inflatable Structure. It is assembled, folded, glued into a three-dimensional form, or filled with air or other liquid into its interior with a pump, like a soccer ball or a "boucher ball. The current generated by the optoelectronic material will be led out by wire 6 31 to device 630a. Fifty-three and Figure fifty-four, collecting a second shape 630b of the solar radiation device 630. The device 630b is composed of twelve eye-shaped sheets 636 which are formed by ultrasonic welding or adhesive or any other suitable method. The edges are connected, as shown in Figure 54, forming a structure that can be inflated. After assembly, folding, sticking into a three-dimensional form, or filling the air or other liquid into its central cavity with a pump, like a beach ball Figure 55 and Figure 56, the first shape 630c of the solar radiation device 630 is collected. The device 630c is composed of twenty triangular pieces 638 composed of twenty faces 38 201035505 body 'with ultrasonic welding or adhesive or any other The appropriate method, connected at its edges, as shown in Figure 56, forms a structure that can be inflated. Assembled 'folded, glued into a three-dimensional form, or filled with a pump Or other liquid to its central cavity, like an icosahedron. Figure 51, Figure 53 and Figure 55, shape 630a, 630b and 63〇c after inflation' each piece 632,634 , 636 and 638, will be able to bend or form part of the surface of each shape, the two-dimensional illustration in the figure, can not display its surface.

D Figure 57 shows a collection solar radiation device 640 comprising a collection device 630a and a reflection disk 642 of Figure 51. The collecting device 630a is mounted by a column 646, on a reflecting disk 642 outside the appropriate distance, the disk having a concave upwardly facing reflecting surface 644. The reflecting plate 642 can design the reflecting plate 50 of the shape-like device 1. Device 630a can collect solar radiation that is reflected directly from the sun and from reflective surface 644. The electric wire 631 transmits power from the collecting device 63A to the converter 645. The wire 631 can also output DC power to other devices such as a battery pack. Additionally, collection device 630a may be temporarily suspended from any of the reflective surfaces described above, including the reflective plane. It can also be devices 63〇1) and 63〇c instead of collecting device 630a. Figures 58 to 60, depicting a solar collector panel 66 (^Sun Moonlight collection plate 660' has a platform 670, mounted on the upper surface 672 is an array collection device 680. Figure 58, each collection device 68〇 is a hemispherical shape of the device 1 collecting device 10. It can be considered as a collecting device 1〇, an upper half collecting device; including a collecting frame, a collecting surface, and a lens cut surface, and the lens cut surface is supported by the collecting frame to form a collecting surface Each collection device 39 201035505 _ collects light onto the optoelectronic wafer 690, which is located at the focus of the lens facet of the device, under the collection device 680, within the smashing well (10) of the 纟 67〇. The printed circuit board 691 will Each of the optoelectronic wafers 69 is electrically connected to the outside of the collecting plate 660. The printed circuit board can be screen printed with DuPont's silver conductive ink. The platform 670 is formed as a plate, providing a supporting structure, and an array collecting device The 680 is mounted on the upper surface 672 and is further provided with a heat transfer system. The heat transfer system includes a plurality of tubes mounted in the platform 67 or on the upper surface 672. The tower reflector 678 is mounted on the upper surface 672 of the platform 670 between adjacent four sets of collection devices 680 or preferably integrally formed with the platform to reflect incident solar radiation to adjacent collection devices 68. The pyramid reflector 678 has a parabolic concave surface on four sides. The platform 67 is shown in Fig. 58 to 60, and there are 12 collecting devices 680 arranged in four rows and three rows, each of the two columns of collecting devices 680, Two curved pyramid reflectors 678. Figure 59 is a cross-sectional view of Fig. 60 showing how the photovoltaic wafer 690 is mounted on the heat absorbing block 692, and the lower heat absorbing water pipe 676. The heat absorbing block 692 can be yttrium oxide, having The good thermal conductivity and electrically insulating dielectric are only thermally conductive and not electrically conductive; the optoelectronic chip 690 dissipates heat from the heat dissipating conduit 676. Alternatively, it may be an oxidized material. The collecting device 680 collects solar radiation to the optoelectronic wafer 690 'where the thermal energy is partially self-conducting Wafer 690 is passed to heat absorbing block 692. Block 692 uses this residual heat to heat the water of water tube 676. When solar radiation is out of focus, not concentrated on photovoltaic wafer 690, block 692 will directly obtain defocused solar radiation. Block 692, 201035505, which heats and absorbs infrared radiation. This additional heat is applied to the cold. In the winter, reverse operation, heated coolant (such as hot water), can heat block 692 from water pipe 676, collecting equipment from the block 692 'Getting hot g gas, which can cause any ice and snow to accumulate on the collection equipment' will not block the sun from entering the collection equipment. The cold liquid is heated in the pipe 676 and taken away by the circulation system. One sensor (not shown) and feedback circuit (not shown) to regulate the circulating coolant to protect

G holds the temperature of the photovoltaic wafer to maintain its efficiency. The optoelectronic wafer is a two-junction photo-wafer solar cell with a best temperature of 77 degrees Fahrenheit. Pure material (four), the fruit is water, when the money is available, the age is sent to the second solar heat m to add it to the demon (four) (10) Fahrenheit), which is the California Energy Commission's hot water use temperature. : Sixty-one to sixty-seven shows that different variations of the dome shape collect the sun spokes =. Figures 61 to 63 describe all or part of the dome-shaped collection of the sun. Figure 66-67 shows the full or partial dome-shaped collection of the sun (4) device 730. The dome-shaped collection of solar radiation w includes a collection of shots consisting of a group of three-walled reflective light guides that concentrate the incident light onto a radiation receiver 710. Figure 63 shows a 7-section of a three-walled reflective light guide; each inner wall is a reflective surface. The incident light is opened from the outwardly directed π 706 of the reflected light into the inner port of the reflective radiation receiver 71. The three-walled reflection light guides that collect the shots are moved to each other. The outwardly facing opening of the three-walled reflective light guide 7G2 writes a portion of the grid dome. Light from any direction, from one or more reflections 41 201035505 Guided to the radiation receiver. The radiation receiving it 71G, see Fig. 68, is a block 712, a semiconductor, and a triple junction photovoltaic chip 7H. Block 712, preferably made of beryllium oxide (Be), is electrically insulating from it. The thermal conductivity is higher than any other non-metallic diamond except for certain metals and has a higher melting point. Alternatively, oxidized, (1) tantalum carbide or other suitable heat absorbing material, with similar features, can be mounted on the tank by block m, which receives the flowing coolant from the cooling system jaws. As in the device of Figure -3, the optoelectronic chip should be overheated to operate more efficiently and avoid damage. Cooling system 718 provides coolant 718 from conduit 716' to cooling tank 714. The coolant then passes from the official 715' to the cooling tank 714 to the water tank 717. The apparatus 700 can also employ other cooling systems, such as I-set 73G, as described below. The collection shot 701 is supported by the Xipupu ± Ershitian outer wall 720, preferably at a horizontal position f' so that the collection shot 701 can receive any sun from the sky - (10) ^, , hood 7 〇 5 - It is transparent, too...f, too' but does not include moisture, dust and other pollution. Dome cover = best, coated with anti-reflective material. Wire 722 carries current from 714 to the regulator anode. The direct current passes through the county 723 to the battery 72, 7 725, or to a converter 726, which is then connected to the outlet 728. Heart = Therefore it is possible to store Wei (battery 724) 'and 725) or AC (socket 728). (揷0, XIV, XVII, describes a set, install please include, - collect the shot 731 = the top of the unit 750, there is a bottom plate - support unit 42 201035505 754 'make the device The 730 can be moved. The collection jet 73 includes a group of adjacent subsurface concentrator 732' to collect solar radiation to the radiation receiver 740. As seen in the cross-sectional view of Fig. 66, the composite parabolic concentrator 732 There is a parabolic reflector wall 734. The incident light enters from the reflective light guide 2 toward the outer opening 736 and is reflected to the inner port 738 towards the central light-emitting receiver 74. Edmund Optics's many manufacturers in the United States - The production of such a composite parabolic concentrator. Another version of the collector 732 is made up of a magnifying glass, a solar detector with a mirrored solar trap (4), disclosed in Cooper's US Patent 6,881,893, the law allows This is for the reader's reference. The composite parabolic concentrator 732 of the collection 731 is adjacent to each other and constitutes a common dome structure supported by the outer wall 75. The transparent cover 735 is supported by the collection 731. The cover 735 is preferably coated with an anti-reflective material. Figure 66-67, the radiation collector 73A. The plate 742 is mounted on the bottom plate 752 and carries the photovoltaic chip. It is a triple junction photodiode wafer 744. Block 742 is preferably made of beryllium oxide (BeO) or alumina (A10), tantalum carbide or other suitable heat absorbing material. Block 742 is mounted on air cooling unit 746. Air cooling The device 746 has a motor and a fan, similar to the central processing unit cooler of the computer. As shown in Fig. 61 to 63, the device should avoid overheating to operate more efficiently and avoid damage. The device 730 can be used. Other cooling systems, such as the cooling system 718 of the above-described device 7〇〇, or the cooling system 4〇 of the device 1. The collecting funnel 739 is located above the radiation receiver of the radiation receiver 740, and collects the shooting device 731. It has a The surface of the mirror surface is the same as the compound parabolic concentrator 732, the purpose of which is to guide the radiation collected by the concentrator 732 from 43 201035505 from the inner light exit hole 738 to the block 742. Figure sixty four to sixty-seven, not shown in detail. The storage and use of streams is shown in Figures 64 and 67, each of which shows a power outlet 748. Figure 61 shows various suitable sighs that can be used for device 730 for this purpose. Far device 730 is It can be used to provide the power requirements of DC and AC. Figure 68 to 71 shows another device capable of collecting the sun's shot from the sky. This device is combined with the building and is a concentrated photoelectric building. Examples of BICPV. All or part of the blow-off device 760 described in Figures 68-71 is mounted on a roof 751 of a building 75. The collecting device/Ο, generally shaped like a dome or hemisphere 'Composed of a group of connected three-walled reflective light guides 762; concentrated from the outside to the inside, as shown in Figure 61 to 63. In addition, the collecting device 76 can take the structure of the collecting device 73〇, see Fig. 64~67 or the collecting device 68〇, see Fig. 58~60. As shown in Figure 70, the roof 751 of the building 750 is recessed and has a parapet 752 slope facing the slope 760. The ramp 752 is painted or lined with a <&coating' to reflect light back to the collection device 760. Since the roof is convex, the roof 751 lives in collectable rainwater and other precipitation. A drain pipe 753 discharges rainwater from the roof 751. The water tank 754 collects drainage from the roof 751. Figure 71 is a detailed cross-sectional view of the reflective light guide 762 that transmits light to the homogenizer 764. The homogenizer 764 is an optical device that diffuses incident light from the same reflected light, and the best result is 4° with the solar panel 766. If the underside is a high efficiency triple junction photovoltaic wafer, the homogenizer 764 can be omitted. Because in this case, a very small amount of photocells are required, they may have 44 201035505 A small enough area that will be the focus of the reflective light guide 762. The solar panels are supplied with electricity for storage or used directly in buildings. Related power equipment storage and distribution, such as wires, converters, batteries, etc., are not specifically shown in Figures 68 to 71, but are understood to be needed. Ο

Cooling tank 768 is attached to plate 766. As mentioned earlier, if they are not too hot, they will work more efficiently to avoid damage. The cooling tank 768 receives the coolant, preferably water, similar to the cooling system 7-8 shown in Figure 61. The cooling tank 768 can supply a hot water supply system, and the 75 〇 coolant of the building is water. The temperature of the cooling tank should preferably be maintained at 25 degrees Celsius (77 degrees Fahrenheit). This water will be sent to the auxiliary solar water heating system and heated to 71 degrees Celsius (16 degrees Fahrenheit) for general domestic hot water use. A hydraulically controlled door 77 〇 can close the reflective light guide 762 within the building 750. There is no day in the electricity and 1 or hot water (for long-term travel, long-distance travel), the collection device 760 can be turned off. The door 770 has a reflective upper surface above the leveler 764, which prevents the light collected by the collecting device 760 from passing back and back to the sky; it is openable (as shown in Figure 71) and The hydraulic system (not shown) in the closed position is preferably self-monitoring. Device 76 can be used to provide electricity and hot water. A building can accommodate multiple units 76〇, which can be mounted on the side walls and roof of the face. Figure 72 shows a building 78〇 with multiple collection devices 785 mounted on its roof 782 and side wall 784. The collecting device 785 of FIG. 72 may be a device 75 shown in FIGS. 68 to 71, a device 730 shown in FIGS. 64 to 67, and a device 700 shown in FIGS. 61 to 63. Either structure, or Figure BVIII ~ 60 collection device of the Baki dome. Additional reflections can be added 45 201035505 Pyramid and reflective awnings to reflect more solar radiation to the collection equipment 785. Figures 73 through 74 describe a device for receiving device 800. The device 800 is designed to dilute water, such as seawater, as shown in Figure 73, and simultaneously generate electricity. The unit resembles a miniature water circulation system, but speeds up the cycle and collects concentrated solar radiation to dilute seawater and generate electricity. Pipe 802 inputs water to the device 800. If the device 800 is installed at the same level as the sea, energy will be saved; the water in the boiler tube 804 is at the same height as the sea level, assuming that the water source is sea water, and the sea water will be drawn into the boiler tube 804 by gravity. The annular boiler tube 804 can be made of any transparent material, such as glass or acrylic, or gold, preferably with a light absorbing material. Boiler tube 804 is surrounded by a nanotube-shaped collection ring 806 having a lens section 808 as in the prior type of collection device, such as apparatus 10 of FIG. Using the forty-nano tube collecting device 470, it is conceivable that the elongated tube is elongated and joined at both ends to form a ring. The lens section 808 is supported by the collection frame 810. The nanotube collection ring 806 collects and concentrates light onto the boiler tube 804. The focused light heats the boiler tube 804, evaporating the water therein into steam. The resulting steam from boiler tube 804, through steam line 812 to turbine generator 814, drives turbine 814 to generate electricity. The wall of the thirsty wheel 814 and the wall and the weathering plate 5 of the thirsty wheel chamber are covered with a thermal chip or a new nano antenna to directly convert the heat radiated steam into direct current or parental power. Thermal chips or new nano-antennas remove and absorb the thermal energy of the steam. The steam will be cooled into water droplets to become desalinated fresh water. The turbine 814 ejects steam and is cooled to fresh water for collection to the water tank 816. The water is the device 46 201035505 800 — The kind of treasures of the taxis ~ The homes are the other from the power of the turbine generator 814. The dome 818 hurts you, and the λ is standing above the 4-wheel generator 814, in the middle of the collection ring 806. The dome 818 ancient y ΰ has a collection surface, similar to the device 1 to 1-6. At the focus of its collection lens, an optoelectronic wafer 820 produces direct-level hair power. The photovoltaic wafer 82 is preferably a highly efficient three junction photoelectric device. On the outer wall of the lower portion 822 of the dome 818, a sputum or a reflective film, an aluminized film is applied to reflect light to the carbon nanotube collection ring 80 ό.奈 The nanotube collection ring 806 is located above the reflective disk 8; 24, which has the appearance of a semi-solid donut or a bagel. Reflector disk 824 reflects solar radiation to the barrier tube collection ring 806 and is then concentrated to pin tube 804. Figure 75 – Eight Diagrams – shows that various vehicles are equipped with equipment for collecting and concentrating radiation. The collection device 830 includes the collection device 400' of the apparatus of Fig. 24 as a half modified cell; the light is collected to an internal radiation receiver (not shown). The modified nanotube collection device 600 is quite streamlined and can be installed in different rides, equipment map 75 travel trailer 840 and car 845, Ο Figure 76 active car 850, Figure 77 ship 855 Figure seventy-eight small λ car 860 'Figure seventy-nine bus 865, Figure eighty light train 870 and eighty-one aircraft 875. These figures are merely representative of the rides and are equipped with collection devices 830. Figures 88 to 84 illustrate the steps for producing a three-dimensional solar radiation concentrator. The steps of this process include printing a layer of flexible electro-optic film on a flat material, cutting the material into slices of various surfaces of a harness or structure (such as a building), installing wires, and slicing to a harness or structure such as building. Figure 82 shows a computer graphics machine 880 printing a film to 47 201035505 flat material 881. HP has a suitable inkjet computer graphics/cutting machine for this purpose. The flat material 8 81 is preferably a polyvinyl chloride film with a self-adhesive backing on the back. The planar material is sprayed with a layer of semiconductor by ink jet, and this spraying process is well known. For example, Yang Yang U.S. Patents 6,565,153 and 6,576,975, relate to the process of manufacturing organic semiconductor devices. U.S. Patent Nos. 6,566,153 and 6,576,975, the disclosures of which are hereby incorporated herein by reference. The semiconductor layer is a photovoltaic film. In the next step, the planar material 881 is fed into a cutter 886 which cuts the planar material 881 into a slice 882. Computer graphics machine 880 / cutting machine 886, may be appropriate modification on the same machine. Figure 83 shows the cutting machine 886 cutting from the planar material 881 into a cut piece 882. The shape of the slice 882 is preferably a drawing aid design software so that the indication is easily generated and loaded into the cutter 886. Slice 882 has a plurality of different contours depending on the surface to be covered. In the eighty-fourth, the slice 882 is overlaid onto the car 888. As seen from the right, the wire 883 connects the electrodes of the photovoltaic material to the battery 885 with appropriate power. Slice 882 will cover vehicle 888. A slice 882 with self-adhesive backing will be glued to the vehicle 888. Vehicle 888 will be a three-dimensional device that collects solar radiation and provides a battery 885 during the day. Other three-dimensional objects, such as building 890 of Figure 85, may be equipped with a photovoltaic film slice 892 as described above. Section 892 is cut into all applicable surfaces of building 890, except for collection device 896, whose lens cuts are not available, they need to collect solar radiation and concentrate it to the radiation receiver. Figures 86 to 90 depict a device 900 for collecting solar radiation, including a collection device 901 and a collection reflector 920. Collection equipment 48 201035505 9〇1 According to the principle * A heat engine, Gan, the national physicist Crookes light meter 'This is the face, the other side is opposite 3: The middle rotor blade has a "face color" Or the matte light is exposed to the light, causing the rotating surface to 'place in a low-density space' to retreat, while the smooth surface pushes W to rotate. Looking for the color side rotor blades will be forced by the light source principle to see more detailed information. The spokes are cooled from the (four) of the rotor. This is for the reader's spring test, disclosed in US Patent 441_5 of Barre,

Interwoven with the spiral law allows. The rotor 903 preferably includes two 4c; Ω Λ , a ± . Sheets 904 and 905 are secured to the upper end circular plate 906. The circle is on the shaft 907. The rotatable shaft 907 is connected to the rotary transmission device to generate electric power by an AC generator in the generator/vacuum maintenance device 9H by /, torque. The blade 904 has a dark side 9〇4a and a light side 904b. The blade 905 has a dark side 905a and a light side 905b. Preferably, the dark faces 904a and 905a are printed film optoelectronic materials such that in addition to the temperature difference causing the rotor 903 to rotate to produce alternating current power, the blades also draw solar radiation to produce direct current. The light colored faces 904b and 905b are preferably mirrored. Generator/vacuum maintenance device 910 is coupled to lower reflective disk 920 with rotor 903 above reflective disk 920. Around the rotor 901 is an optical transparent and hermetic cover 905. The reflective disk 920 reflects light through the cover 9〇5 to the rotor 903 to increase the light receiving capability of the rotor 903; the reflective disk 920 has three legs 922 with wheels that bear the weight of the nest 900. The wheel 923 contacts the surface of the mounting device 900, such as the ground, and the device 900 can be easily moved. Figure 91 is an analytical diagram of a collection of optical radiation devices 93A. The device 930, which does not operate or is aimed, is capable of receiving radiation in multiple directions and is concentrated to an appropriate receiver. In Figure 91, the device 930 is capable of concentrating the sun 49 201035505 Koda to the photovoltaic wafer and thermal or infrared radiation to the thermal energy conversion material. The device 93 has a reverse astigmatism sheet that receives multiple directions of rotation, such as the exemplary light ray 940' which causes the 匕 to be closer to the parallel light at a perpendicular angle to the inverse astigmatism sheet 932. The reverse astigmatism sheet can be mechanically stamped and hydraulically stamped onto the polymeric film, such as the wavefront technology company of Paramount, California. It is also possible to incorporate a molded mold with a concentrating lens such as a Fresnel lens. Now, the parallel light radiation is directed to a hologram diffraction grating 934 which is directed to different regions according to its radiation frequency. The hologram lens 934 directs visible radiation onto the optoelectronic wafer 952 of the radiation receiver 950. The radiant light is shown as exemplary light 942. Photovoltaic wafer 952 absorbs visible light radiation to generate electricity. The hologram diffraction grating 934 also directs infrared radiation onto the bottom plate 954 of the radiation receiver 950. Infrared radiation is shown as exemplary light 944. The bottom plate 954 absorbs infrared radiation and transfers heat to a liquid such as water. The bottom plate 954 plate 954 also absorbs the residual heat of the photovoltaic wafer 952. The optical radiation absorbed by most of the optoelectronic wafers 952 will not be used to produce electricity by optoelectronics, but instead will generate thermal energy in the optoelectronic wafer 952. The temperature of the optoelectronic wafer 952 should be maintained at 25 degrees Celsius as previously described. Thus, the backplane 954 provides a means of maintaining the proper temperature of the optoelectronic wafer 952, eliminating excess heat from the optoelectronic wafer 952 within its endothermic energy limit. The bottom plate 954 can have any shape and does not need to be circular as shown in FIG. The bottom plate 954 can be air-cooled, as will be mentioned below, or a heat exchange system (not shown in Figure 91) or any other suitable type, as shown in Figures 1 and 58. The preferred bottom plate 954 is preferably made of beryllium oxide (Be〇) due to the heat transfer from the car. Another option is a nano-antenna, which is not 50 201035505 but absorbs infrared radiation and further uses this residual heat to generate current. Round ninety-two shows a perspective view of another version 96 of the radiation receiver 950. Radiation receiver 960 includes an optoelectronic wafer 962. A plate 964' of an insulating material has a bottom plate %6 under the photovoltaic wafer 962, and the heat conduction is not conductive. The photovoltaic wafer can be a stone or a triple crystal. The high-efficiency three-junction photocells have the same output power in a very small area. The preferred material for plate 964 is yttrium oxide 964 for the reasons set forth above. The plate 964 conducts heat from the germanium photovoltaic wafer to the bottom plate 966. The preferred material for the bottom plate 966 is copper or slag alloy. As shown in Fig. 93, the thermal seal 968 of the bottom plate gw is on the reverse side of the photovoltaic wafer 962. The heat sink metal 968 causes the bottom plate 966 to dissipate heat to the surrounding environment. If additional cooling is required, a fan system can be added to circulate air around the fins 968. A cooling device for an off-the-shelf central processing unit (CPU) can be employed. The triple junction photovoltaic wafer can receive concentrated light energy. Some three-junction photovoltaic cells can convert hundreds of thousands of solar energy into electricity. According to reports, the largest 矽-tolerance light energy is less than 300 sun, and the three-junction photo-wafer can receive 3 〇〇〇 sun. In the case of high multiples, it is necessary to use a more powerful cooling system, such as water or other liquid cooling systems as described above. Figures 94 and 95 depict panel 970 for power generation and hot water. The panel 970 is comprised of an array of array-collecting optical radiation devices 971 having a nine-fifth cross-sectional view of the structure of the device 930 shown in FIG. Each device 971 has a reverse diffuser 972' holographic lens 973, an optoelectronic wafer 974, a thermally conductive block 975' as shown in Fig. 92 and Fig. 92, and a bottom plate 976. Device 971 51 201035505 = The coolant 'preferably water' because it has a ready-to-use purpose. The panel 97 can collect and use radiation itself. It does not need to follow each shift to maintain the source of vertical light. Like the sun, although the solar panel 'panel 970 as it is known should be guided to the proper orientation, the reverse astigmatism sheet 972 can correct the direction in which the light is proceeding, or alternatively, as an alternative, by oblique slant 1; Anti-reflective coating (^ other anti-reflective coating) composed of rods may be used to reduce reflection loss. In the case of poles, if both the reverse diffuser and the anti-reflective coating are not available, the photovoltaic wafer The 974 can use a dye-sensitized solar cell (DSSC), also known as a Gratzel wafer, which absorbs solar radiation in any direction. It can only be used on this type of solar cell, and can even absorb indoor illumination. Panel 970 can also be used. The light collecting device, as shown in Fig. 58, collects the Baki dome of the device 68, the solar radiation device 700 is collected in Fig. 61, and the solar radiation device 730 is collected on the device 971. The 971 becomes the radiation receiver for these collection devices. Figure 96 shows a solar collector system for a house that supplies light and heat. The structure 980 (Figure 96 is a house) has a roof 982, with the first collection The solar radiation device 984 and the second collection solar radiation device 988. The first collection solar light device 984, as shown in Figure 61, has the same overall structure, but may have other structures, as shown in Figure 58. Apparatus 680. The second collection solar radiation device 988 is a semi-circular barrel-shaped solar energy collection device 'generally having a semi-cylindrical shape, and may also be in the form of any of the above-mentioned solar 52 201035505 radiation collection. The semi-circular barrel-shaped solar energy collection device is shown in Figure 16. One hundred and seven, illustrated as the roof of a building. The first device 984 has a tool 986' such as a holographic lens or prism (described later) that divides the collected light into visible and infrared radiation. It can be converted into heat, consisting of a heat-conducting cable 990, which is made up of copper tube and insulated poly-ethylene, which is led to the furnace 992. The visible light (excluding ultraviolet light) is transmitted by light. Cable 994 leads to illumination device 996 (without electrical illumination) c> second device 988 collects solar radiation, which is directed by fiber optic cable 994 to illumination device 996. The remaining collected light is converted to electrical energy by the optoelectronic wafer within device 988. And the electric power is supplied by the wire 998 to supply the structure 980. The heart diagram of the seventy-seventh shows an outdoor barbecue device for solar energy for energy transmission. A bucky dome type solar radiation collecting device 1〇〇2 has A copper radiation receiver 1004, preferably a hollow sphere, is heated by the collected light. The radiation receiver 1004 is via a thermal conductor, preferably in the form of a copper tube insulated by polyvinyl chloride (not shown in Figure 97). Connected to the top of the oven 1100 and the oven 1 of the roaster 1 (not shown in Figure 97). The control unit 1 〇〇 8 in front of the broiler controls how much heat is transferred to the burner head 1006 ’ as shown in the figure below, ninety-nine and one hundred and one ,, and provides a switch function. Next to the barbecue 1000 is a lighting device 1010 designed to resemble the lighting device of Figure 15. Grilled meat 1 1000, can be equipped with a spare conventional electric heating device for use on cloudy days and nights. Figure 98 shows a portable outdoor energy source 1020 for solar energy. This is an open-air barbecue version of the broiler 1 〇〇〇, minus the interior 53 201035505 grilled phase 'more convenient to carry. - A Baki dome type (four) shot collection device 1022 has a Hane receiver 1 () 24, and the slave is heated by the collected light. The radiation receiver 1024 is transferred to the upper portion of the roasting device via the thermal conductor 1 〇 28. How much heat is transferred to the burner head 1026, as shown in Figure 99 below, and provides a shut-off function. Figure ninety-nine and one hundred, depicting the burner head 1〇4〇, as shown in Figure 97, the burner head 1006 of the roasting machine 1000 and the burner head 1〇26 of the figure nineteen seventeen roasting device. Each burner head 1040 has two sets of concentric circles 1042 and 1 〇 44, preferably made of copper. The loops 1042 and 1〇44 are nested with each other, and the concentric circle diameter decreases as it goes to the center. The first thermal strip 1046 is connected to the bottom surface of the loop 1 〇 42 and the second thermal strip 1048 is connected to the bottom surface of the loop 1044. The user operates the control hub (see Figures 97 and 97) to connect one or both of the thermal strips 1〇46 and 1048, either fully open or half open, depending on how much heat is required for cooking. Figure 101 shows a schematic 1050 for collecting solar radiation. The device 1050 is capable of separating the collected solar radiation, using solar ultraviolet radiation, visible light and infrared radiation for different devices. The device has a collection device 1052 that collects solar radiation and sends it to a holographic diffraction grating lens or triangular prism 丨〇54. The collection device can be any hemispherical or dome collection device as previously described. Even a one-way collection unit (in this case a tracker must be used). The holographic lens (prism) 1054 has an ultraviolet reflecting plate 1056 and an infrared reflecting plate 1058' attached to the lens at an oblique boundary 1060. Figure 1 and Figure 2, wherein the infrared light is represented by the exemplary infrared light 1062, will be reflected by the diffraction 54 201035505, reflected to the infrared reflector 1058, and then guided by the heat pipe 1064 for the heat engine or heated water. Figure 1 and Figure 2, in which the ultraviolet light is represented by the non-UV 1066, will be diffracted and reflected to the ultraviolet reflector 1056, and then reflected to the mirrored inner liner 1068, guiding the ultraviolet light, used in Various uses, such as activation of fluorescent gas illumination in lamps, disinfection and power generation, for example, Austrian's nano-particle photoelectric wafers absorb ultraviolet light. Figure 1 and Figure 2, in which visible light is directed to the optoelectronic wafer 1072 through the lens 1054 by the exemplary light 1062, which is used to generate electricity. As mentioned above, if concentrating to the optoelectronic wafer, a heat dissipating device is required; in the middle of the figure, there is a heat sink 1074 under the photovoltaic wafer 1072, which is similar to the heat dissipating device of a general off-the-shelf central processor. Figure 103 shows a schematic diagram of collecting solar radiation 1080. The device is capable of separating concentrated solar radiation and then directing light of different wavelengths to a suitable wavelength receiver for power generation. A squirrel is provided with a collection device 1082 that collects solar radiation and sends it to a hologram diffraction grating lens 1084. The device 1082 can be any hemispherical or dome collecting device as previously described. Even a one-way collection unit (in this case a tracker must be used). Lens 1() 84 is capable of separately collecting the collected solar radiation into different wavelengths of light, such as the exemplary ray 1086, 1〇9〇, 1094 and 1098, and then directing different wavelengths of light to the appropriate wavelength receiver 1088, 1092, 1096 and 11 〇〇 power generation. An optical prism or other diffraction grating ' can replace the hologram diffraction grating lens 1 〇 84. The first set of wavelengths is a high energy energy difference, i.e., a wavelength of from 300 nanometers to about 680 nanometers (phase 55 201035505 when having a photon energy range of about 3.2 electron volts (eV) to about 1.88 electron volts). A suitable receiver can be an indium gallium phosphide optoelectronic wafer. The second set of wavelengths is the energy difference of the intermediate energy, i.e., the wavelength is from 680 nanometers to about 900 nanometers (equivalent to about 1.5 EV to about 1.4 electron volts in the photon energy range). A suitable receiver can be an indium gallium arsenide photovoltaic wafer. The third set of wavelengths will have a low energy energy difference, i.e., a wavelength of from 900 nanometers to 1800 nanometers (equivalent to about 1.1 EV to about 0.7 electron volts in the photon energy range). A suitable receiver can be a germanium, gallium antimonide, or indium phosphide optoelectronic wafer. The fourth set of wavelengths is in the infrared energy range, i.e., the wavelength is from 3 microns to 15 microns. A suitable receiver can be an infrared light nanos antenna; developed by Microconductor, which converts infrared radiation and converts it to alternating current. Thermoelectric wafers, such as Innaco, have been originally produced by the University of Utah. And the quantum chip chip of the energy chip company. The other set of wavelengths can be separated and used to generate current in a range of ultraviolet light, such as a wavelength of less than 380 nm, which can be used to generate electricity from the aforementioned nano-germanium particle photovoltaic wafer. Figure 1-4 shows another version of Figure 100, a schematic 1010 of collecting solar radiation. The collection device 1112 of the device 1010 collects and transmits solar radiation to a high color Fresnel lens 1114. The device 1112 can be any hemispherical or dome collecting device as previously described. Even a one-way collection unit (in this case a tracker must be used). The high Fresnel lens chromatic aberration is capable of separately collecting the solar radiation into different wavelengths of light, as shown in the four hundred and four exemplary rays 1116, 1120, 1124 and 1128, and then directing different wavelengths of light to the appropriate wavelength receiver 56 201035505 1118, 1122, 1126 and 1130 generate electricity. Figure 104 shows the ray 1116, 1120, 1124 and 1128 with the receivers 1118, 1122, 1126 and 1130; corresponding to the figure 1-3 demonstration ray 1086, 1090, 1094 and 1098 and 10 receivers, 1088, 1092, 1096 And 1100. Figure 1-5 depicts a schematic 1110 for collecting solar radiation. The device 1110 is a three-color prism that can be used in conjunction with the collection of solar radiation devices of Figures 1 and 3, and separately collects solar radiation of different wavelengths of light, red, blue and green. A dichroic prism is a light prism that separates incident light into two beams of different wavelengths. They are usually made up of one or more glass prisms with a color separation optical coating that selectively reflects or transmits light depending on the wavelength of the light. That is to say, some curved prisms can be used as color filters. In many optical instruments, it can be used as a beam splitter. The trichromatic prism 1110 is a combination of two dichroic prisms, namely three prism assemblies 1114, 1116 and 1118, and a suitable dichroic optical coating for separating the incident light 1112 into red, green and blue beams, respectively, by 1120, Representatives of 1122 and 1124. These beams will be directed to a suitable wavelength receiver. For example, the red beam 1120 can be used to urge the tomato to ripen and the blue beam 1124 can be used on plants, causing the pea shoots to spit faster. In addition, the blue light beam 1124 can be used to illuminate the catalytic furnace of the algae biofuel to improve conversion efficiency. The green light beam 1122 can be used for solar chip power generation or other purposes. Figure 106 shows an example of another integrated photovoltaic building integration. House 1130 and additional garage 1140, the roof is for collecting solar radiation. This house Π 30 has a semi-circular barrel roof to collect solar radiation shots 1132. The 57 201035505 garage has a hemispherical roof to collect solar radiation shots 1142. The semi-circular barrel roof top collection shot 1132 and the hemispherical roof solar collector 1142 can be used in any building where the collection surface receives solar radiation from above the local or visible horizon, as previously described. The hemispherical roof solar collector 1142 in Fig. 106 is similar to the collecting device 760 of Fig. 68. Semi-circular roof The solar radiation collection unit 1132 is like a collection device 760, but the long round shape resembles a semi-circular barrel and is more suitable for covering a long rectangular roof. The two roofs 1132 and 1142 will have transparent panels covering the reflective light guides with mirrored inner walls to prevent dust and rain. Roofs 1132 and 1142 are enclosed in parapet barriers 1132 and 1142, with internal reflective slopes as previously described, similar to building 750 of Figure 7. Figure 107 shows a building 1190 with a Fresnel dome collection device 1192 as its roof. Fresnel dome collection equipment 1192, collecting solar radiant heating water supply, generating electricity, providing fire (as shown in Figure 96 ~ 100 solar stove) and so on. Figure 100 shows a building 1200 with a Baki dome collection device 1202 as its roof. The Baki dome structure is similar to the aforementioned collection device 331; collecting solar radiant heating water, generating electricity, providing a stove, and the like. Figure 109 shows a roof with a building 1210, a carbon nanotube collection device 1212. The carbon nanotube structure is similar to the aforementioned collecting device 830; collecting solar radiant heating water supply, generating electricity, providing a furnace stove, and the like. A structural type of nanotube collecting device 1212 collects 830 like a collecting device, collects solar radiant heating water, generates electricity, provides a stove for cooking, and the like. Figure 110 is a schematic diagram of an ultraviolet radiation extraction system 58 201035505 Ο

1220, used in buildings. The collection device 1222 is placed on the roof 1223 of the building 1222 and is any form of solar radiation collection device as previously described, including but not limited to, collection device 1192' 1202, 212. The solar radiation demonstrates light 1226, with the first mirror 1228 being horizontally reflected to the second mirror 1230. The second mirror 123 directs solar radiation down into the building 1222. The UV filter 1232 removes ultraviolet light, leaving visible light from passing through the sun, for indoor lighting 1234, infrared heating for the solar stove, and water heater for the building 1222 hot water system. Many variant systems are possible. Therefore, the visible portion of the collected solar radiation can be used for indoor lighting and solar photovoltaic DC power generation. The infrared portion of the collected solar radiation can be used in hot water systems, air conditioners, refrigerators, and solar stoves. The home can therefore be equipped with a vertical self-regulation system that uses solar radiation for free for a variety of home uses every day. The mirrors one and two can increase the number or use the low-cost plastic optical cable (optical fiber) to conduct; the solar radiation can be guided from the sunny side of the building to the back side, or different rooms that require solar radiation. Floor or basement. Another example is that there are many buildings in the Seventh District of Asia. Residents can direct light to intimate places, dry clothes, etc. ‘Encourage colorful personal objects on open balconies, causing visual pollution. Η J ...% solar radiation device 1150, in the form of a beach umbrella, the dining table 1152 is set up at the bottom of the table (four), above the umbrella. The device (10) has a light-emitting receiver (not shown) inside, :::: 7 (Π, as mentioned above. The electricity generated by the 115 〇 can be in the -3⁄4 pool (not shown) and used for #崎如#^_ for 1 or provide nighttime 59 201035505 illumination. As the roofs 1132 and 1142 are as described above, the outwardly opening of the reflective light guide 115 6 of the device 1150 will be covered with a transparent panel to prevent dust and rain. The device 1150 will be a portable roof that acts as a protective umbrella to protect those underneath, avoiding excessive sun and rain. Figures 112 and 113, each depicting the whole and part, have collected solar radiation half The subway tube top 1160 highway; the lane 1180 is divided into highways. The roof 1160 is similar to the collection jet 830, as described above, mounted on various vehicle roofs, and has a collection frame 1162 that is similar to the transverse section of the nanotube. The molecular support; the collection frame supports the lens section 1164, collects solar radiation to a string, and places the photovoltaic wafer 1166 on the top substrate 1168. The DC power is then sent to the converter 1172 by the wire 1170. The bottom plate 1168 supports the collection frame 1162. (The lens section 1164 is thus supported.) The bottom plate 1168 is supported by a plurality of struts 1174 along the highway 1180. The bottom plate 1168 can be supported by other struts. The bottom plate 1168 may not be necessary because the optoelectronic wafer 1166 may be of a different type than the support collection frame 1162. Independent frame support. Figure 100—h 2 and 100′—h three, many piezoelectric generators 1181 are buried in the surface of highway 1180. Lens section 1164 collects solar radiation, which has been converted into electricity; sent by wire 1170 To the converter 1172. When passing through the solar radiation semi-nanotube roof 1160, the car 1182 can be charged at the electric vehicle charging station 1175, or can be charged by the wireless antenna transmitter 1183 using microwaves. A plurality of piezoelectric generators 1181, respectively Connected to the wireless antenna along the solar highway 1180 to send the stolen 1183 'such a charging wave' when the car passes through the highway 1180, wirelessly transmitted through the microwave to the terminal 60 201035505 in the car, as shown in Figure 100 —h two and one hundred—[three. Collect the solar radiation semi-roof 1160, use unused space, don't worry about the metropolis No land-building solar system can be found, which provides electricity while providing shade and rain and snow. It can also provide electricity to the electric vehicle charging station 1175. Figure 100-h four, depicting a roof with a semi-circular barrel, the sun The building 1250 of the radiation collection device 1252, but without the barrier. Figure 115 shows a gable roof that collects the building 1260 of the solar radiation device 1262. The solar radiation collection 1262 of the gable roof is the semicircular roof of the solar radiation The collection device 1252 differs in that it is just a pointed top appearance. Although various systems, devices, and procedures have been described above, and various descriptions of the above are described, numerous variations and alternatives will be presented by those of ordinary skill in the art, The invention may have other implementations than specifically described herein. These changes and alternatives are under development, but do not deviate from the scope of the patent application and the areas defined by the invention. BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a first solar radiation collecting device, an optical lens collecting frame shape, and a perspective view of a buckyball. Figure 2 is a bird's eye diagram above the device of Figure 1. Figure 3 is a cross-sectional view of the apparatus of Figure 1. Figure 4 is a detailed enlarged view of the first embodiment of the radiation receiver in the apparatus of Figure 1. 61 201035505 Figure 5, is a figure Large picture The details of the radiation receiver mode 2 in the device = one figure - the enlarged view of the detail of the collection frame inside the device. (Perspective view of a second application of a solar radiation collection device (desalting desalination). Eight figure eight is a sectional view of a device of Figure 7. Figure IX is the first solar radiation collection device (biofuel) Perspective of production). The application method fifteenth is the first perspective of the solar radiation collection method ((four) and power supply). The square diagram = Λ疋 - the first type of solar radiation collection device, the fourth The application of J is not a perspective view of the first type of streetlight. μ Figure 10, a first type of solar-energy collection device, using a perspective view of the garden lamp. 'Figure 12, is a first type The solar radiation collection device 弋 demonstrates a perspective view of the second type of street light. Figure 13 is a perspective view of a first type of solar radiation collection device used in a third type of street light. Figure 14 is a first type The solar radiation collection device demonstration uses a perspective view of the floating water lamp. = fifteen' is a first type of solar radiation collection, and the fourth letter is used in the fourth streetlight plus a roadside charging station perspective. Party ^ ± Figure 10' is a schematic diagram of the fifth type of solar light collection device (the power plant of the array device). The fourth should be the fourth should be the fourth should be the fourth should be the fourth should be 62 201035505 Figure 16 is a first type of solar radiation collection device. The demonstration uses arrays of array devices to heat the air together to a central power generation. χ Figure 17 is a cross-sectional view of Figure 16. Eight, yes - a first kind of solar arbitrage to collect money, demonstration of the use of array of equipment to build their own electricity to re-send to the central power plant. Ο 采 mining: two:: = two = ^ ^ Figure ten, 疋 a figure ten Sectional view of Nine. Using gas, 疋-a first type of solar raft collection device, the demonstration uses a balloon shape, a buckyball. The bottom is captured in Figure 11. The radiant receiver in the device. Magnified figure of the department. The dry map of the ensemble of the arranging method is shown in the eleventh, and the internal drawing of the device is shown in Fig. 21. The exquisite state of the retracted state is the second and the fourteenth. The detail of the frame mode 2 is used as a kind of collapse shooting wheel, and the demonstration drawing is 16 A Λ ·································································································· -18' 疋") Twenty-six device radiation receiver mode 63 201035505 enlarged view. Figure 29 is a bird's eye diagram of Figure 26. Figure 30 is a cross-sectional view of Figure 26. Figure 31 is a perspective view of a second application of the second solar radiation collection device (desalting desalination). Figure 30 is a cross-sectional view of Figure 31. Figure 33 is a second type of solar radiation collection device. The demonstration uses a balloon shape, a Baki whirlpool. Figure 34 is a detailed enlarged view of the first method of the radiation receiver in the device of Figure 33. Figure 35 shows an enlarged view of the second mode of the radiation receiver in Figure 33. Figure 36 is a cross-sectional view of Figure 33. Figure 37 shows a second type of solar radiation collecting device, which is modeled as a balloon shape and a square Baki floating ball. Figure 38 shows a cross-sectional view of Figure 37. Figure 39 shows a bird's-eye view of a four-part type of four-figure device, which is combined with an industrial zipper. Figure 40 shows the first solar radiation collection device, which collects a perspective view of the frame shape of a two-carbon nanotube. Figure 4 - is a detailed view of a detailed description of the forty radiation receiver. Figure forty-two is a bird's eye view of the forty. Figure forty-three is a cross-sectional view of the forty. Figure 44 is the first solar radiation collection device, optical lens collection 64 201035505 set frame shape two, the second application of carbon nanotubes (desalting desalination) perspective view. Figure 45 is a cross-sectional view of Figure 44. Figure 46 shows the fortieth solar radiation collection device, which demonstrates the use of several groups of co-heated liquids to form steam to a central power plant for power generation (not shown). Figure 47 shows a third solar radiation collecting device, a reflective light guide collecting frame shape, and a perspective view of the triangular compound eye. Figure 48 shows a first solar radiation collection device that is modeled as a balloon shape three, a donut buckyball. Figure 49 shows an enlarged view of the detail of the forty-eighth radiation receiver. Figure 50 is a first solar radiation collection device, demonstrated as a perspective view of a balloon shape four, a fish flag buckyball. Figure 51 is a perspective view of a fourth solar radiation collecting device, a thin film photoelectric shape, and a buckyball. Figure 52 shows the printed map of Figure 51. Figure 53 shows a fourth solar radiation collection device, a thin film photoelectric shape, and a perspective view of the sphere. Figure 54 is a plan print of Figure 53. Figure 55 shows the fourth solar radiation collection device, the photo-electric shape of the film, and the icosahedral front view. Figure 56 is a five-fifth plan print of the figure. Figure 57 shows a perspective view of Figure 51 with a reflector. Figure 59 is the fifth solar radiation collection device, array hemisphere bar 65 201035505 The base ball is arranged into a perspective view of the photoelectric plate. Figure 59 shows a detailed enlarged view of the radiant receiver and cooling system of Figure 58. Figure 60 is a cross-sectional view of Figure 59. Figure 61 shows a perspective view of a third type of solar radiation collecting device, a reflective light guide collecting frame shape 2, and a triangular compound eye dome shaped device. Figure 62 shows a cross-sectional view of Figure 61. Figure 63 shows an enlarged view of a detail of a reflective light guide. Figure 64 shows a perspective view of a third type of solar radiation collecting device, a reflective light guide collecting frame shape three, and a conical compound eye dome shaped device. The cone-reflecting light guide, called the compound parabolic collector (CPC), bends the light and collects it into the solar radiation receiver. Figure 65 shows the bird enemies in Figure 64. Figure 66 is a cross-sectional view of Figure 64. Figure 67 shows an exploded view of Figure VI. Figure 68 shows a perspective view of the sixty-one solar radiation collection device installed on the roof of the building. Figure 69 shows the bird's beak of Figure 68: Figure. Figure 70 is a cross-sectional view of Figure 68. Figure 71 shows an enlarged view of the detail of the sixty-eighth radiation receiver. Figure 72 shows the perspective view of the solar radiation collection device of Figure 61 installed on the walls and roof of the building. Figure 73 shows the first solar radiation collecting device, the optical lens collecting frame shape three, and the perspective view of the bucky ring. 66 201035505 Figure VII is an exploded view of Figure 73. Figure 75 to 88 is a side view of a 40-half tube or a figure 60-shaped two-tube tube half-tube solar light-collecting device mounted on various harnesses. — Figure 75 is a travel trailer with a half-tube nanotube Sun Xingchang shot collection device mounted on its roof. Ο — Figure 76, is a large leisure wagon with a half-pipe Taimi official solar radiation collection device installed on the roof. Ding You 隹 3 seventy-seven, yes - (four) the boat has - the tube of the tube is lightly charged. The collecting device is installed on the top of the ship. Figure 78 shows a small truck with a collection device mounted on the roof of the car. Yannai does not control the sun. Figure 79 is a bus that has a collection device installed on its roof. 5 not meters 5 sun light shots There are three half-tube nanotubes solar radiation There are two half-tube nanotubes solar radiation Figure 80, is a light rail train shooting collection device installed on its roof. Figure VIII is an aircraft launching collection device mounted on its roof. Figure 82-84 is a device of Figure 5, another description of the manufacturing process. The film is first collected by the solar light. The word machine is printed with a photo-film of solar radiation. The recording of the 'three-dimensional object' is a self-adhesive tape of a computer plotter. ^^ Brush with photoelectric film 67 201035505 For cutting with photoelectric thin port map, each side will be attached to a figure 83, which is a computer cutting machine, the self-adhesive cloth is multiplied by the desired shape. Figure eighty-four is a cutting tape flat car body. Figure 85 is a schematic diagram of a cutting tape. Reconstruction of the outer wall of the investment building = 86" is a perspective view of the sixth solar radiation collection device. ® VIII, is a bird's eye view of Figure 86. Figure 88 is a side view of Figure 86. Figure 89 shows a cross-sectional view of Figure 86. Figure 90 shows a detailed enlarged view of the double-helical rotor solar light and motor generator of Figure 86. Device Figure 90 - '疋 - an optical film schematic that enhances the efficiency of solar and infrared light collection by the Philippine lens. = ninety-two, is the figure ninety-suitable (four) radiation receiver mode one big picture. Figure 91, Figure 119 shows the application of the light-light receiver method. Figure 94 shows an enlarged view of the light-emitting receiver in detail in Figure 58 to collect visible light and infrared radiation from the solar energy. Figure IX is a cross-sectional view of Figure 94. Figure 96 shows the sixth application of the first solar radiation collection device. The demonstration uses the solar energy collection system of a house, how the system supplies lighting, and the cooking (4) schematic. 201035505 Figure IX is the sixth application of the first type of solar light collection device (cooking X cooking), which is the second way, the perspective view of the solar outdoor barbecue. Figure 98 shows the sixth shore-based method of the first solar radiation collection device (cooking and cooking, the demonstration is adopted as mode three, a perspective view of a portable solar outdoor barbecue. ❹ Figure 99, is a picture Figure 17 shows a cross-sectional view of the concentric heating loop of Figure 97 and Figure 98. How to use the optical lens method (prism) from the outside of the rabbit (four) infrared light to separate from the sun, leading to the dome of the different equipment. "Plant and brother - seed field radiation collection, form intention map 100 Second, it is a detailed view of the optical lens of the figure 100. The picture is intended to be a spectroscopic optical lens. The model mining, Wang Jujiu grid is not dome-shaped. A kind of solar lucky 1 shooting device, the shape shows: =: 'is a spectroscopic optical lens method three (high color difference prism) in the form of _ shape \ | used in the first and third solar enthalpy collection device, what is the second is the spectroscopic optical lens method four (three color prism), such as ... ▲ light from the sun radiation, leading to the different devices 69 201035505 intention. . Figure - Bailu Six, the third type of solar radiation collection, shaped dome, demonstration on the roof of a house, T hundred r闽丄! , plus the form of the two Baki circle (1 ten ~), the secret is used in the perspective of a garage roof. Figure-Hundreds and Sevens, the first type of solar radiation collection device, the Guangfa ecstasy lens concentric dome, the demonstration uses a perspective view on the roof of a house. Figure-Hundreds of people's first-type solar raft collection device, optical lens collection frame shape five, Baki dome (Baki ball to find) a house roof (4). + ball), read using a nine-first sun riding collection device, optical lens receiving six, Baki long dome (nano tube half pipe), demonstration using a perspective view on a house roof. One hundred and tenth is a light-guide system with several mirrors, which distributes the solar radiation from the red roof (four) to different perspectives in the house. Figure 110 is a diagram of Figure 61. The third type of demonstration uses a beach umbrella. Figure - Hundred - Twelve, a kind of solar radiation collecting money, optical lens collection (four) shape six, the base length is the one hundred and twelve solar radiation collector dome (nano tube half pipe), the demonstration is used in - Perspective view on the road. Figure 100--J-一-- Enlarged view of the charging station Xibai XIV, is a perspective view of a house; the house has a semi-circular barrel roof to collect solar radiation shots. The round figure is one hundred and fifteen, which is a perspective view of a house. The house has a hilltop house. 201035505 The top collects solar radiation shots. [Main component symbol description] I Bucky ball type solar radiation device 10 Collection device II Collection frame 12 Collection surface 13 Strut rod 14 Straight concave groove (H type) collection frame 15 Plastic joint 16 Projection rod 20 Square body radiation reception 21 spherical radiation receiver 22 photovoltaic plate wafer 23 flexible photoelectric film 25 wire 30 lens section 30a Fresnel lens 30b honeycomb structure miniature lenticular lens 30c hologram lens 40 a system or method for cooling photovoltaic material 41 41 coolant Liquid tank 42 Heated coolant liquid tank 43 Water pipe 71 201035505 44 Pipe 45 Pipe 46 Three-way valve 50 Reflector 51 Reflecting surface 52 Leg 55 Converter 60 Bucky ball type collecting solar radiation / seawater desalination device 62 Collection equipment 64 Reflector 65 Base 66 Radiation collecting hollow sphere 68 Collecting lens 70 Inlet seawater pipe 72 Seawater 73 Water retaining wall 74 Water level high 76 Cooling water pipe 77 Condenser 78 Fresh water tank 80 Baki ball type collecting solar radiation / making biodiesel equipment 81 Reflector 82 Collection Device 84 Insulated Heat Pipe 72 201035505 85 Base 86 Radiation Received Hollow sphere 90 Container 92 Faucet 100 Streetlight device 102 for collecting solar radiation Collecting device 104 Edge reflector with decorative sector 106 Radiation receiver 108 Luminous ring 109 Battery compartment 110 Collection lens 112 Lamppost with hydraulic system 120 Garden for collecting solar radiation Light device 122 Collection device 124 Reflector disk 126 Radiation receiver 128 Light ring 129 Battery compartment 130 Collection lens 132 Garden light short light column 140 Garden light device 142 collecting solar radiation Collection device 144 Reflecting surface 148 Light ring 73 201035505 150 152 154 160 162 164 168 169 170 172 180 182 184 188 190 200 202 204 208 209 210 211 212 214 Collecting Lens Lampposts Lampholders with battery compartments for collecting solar radiation Collecting devices Reflecting surfaces Luminous rings Battery compartments Collection Lens columns Collection sun Radiation pool light device collecting equipment water surface becomes reflective surface light ring collecting lens collecting solar radiation device collecting equipment reflecting disk light battery compartment with hydraulic system lamp column battery electric vehicle charging station wire 74 201035505 220 power station device for collecting solar radiation222 Collection equipment 224 Reflecting discs 225 Hollow spherical radiation receivers 226 Pillars 228 Piping 230 Power station installations for collecting solar radiation 240 Array arrays or power plants 〇 242 Collecting solar radiation devices 244 Collecting equipment 245 Cables 246 Power cables 248 Reflecting disks 250 Central power stations 260 Power arrays or power plants 262 262 Equipment for collecting solar radiation 264 Radiation receivers 265 Linear foundations 266 Four-sided curved pyramidal reflectors 268 Cooling tubes 270 Cables 272 Power cables 280 Balloons collecting solar radiation 282 Collection equipment 75 201035505 283 Inflatable tube 284 Collection frame 287 Spherical radiation receiver 288 Lens section 288a Hexagonal lens surface 288b Pentagonal lens surface 290 Collection surface 292 Plate 294 Reflecting surface 295 Solar radiation receiver 296 Pillar 298 Wire 300 Nanotube type device for collecting solar radiation 310 Collection surface 320 Baki sulcus solar radiation collection device 330 Collection device 331 Interlocking collection frame 332 Collection surface 334 Lens section 334a Fresnel lens 334b Honeycomb structure Mini lenticular lens 334c Lens 335 Support post 336 Interlocking assembly Peripheral bracket 76 201035505 337 Bracket 338 Peripheral ring 356 341 Radiation receiver 342 Coolant tank 343 Photovoltaic wafer 344 Heated coolant tank 345 Photovoltaic water cooled cooling system or method 346 Water pipe D 348 3-way valve 354 Peripheral ring 355 Reflector 356 Reflecting surface 357 Leg 358 Wire 359 Converter 〇 360 Installation 366 Hollow sphere 372 Sea water 374 Water level South 376 Sea water hydration water pipe 377 Condenser 378 Cooling pipe 379 Fresh water storage tank 380 Collecting solar radiation Device 77 201035505 382 Collection device 383 Collection frame 384 Collection surface 386 Lens section 386a Fresnel lens 386b Bee writing structure Mini lenticular lens 386c hologram lens 389 Transparent plastic Don 390 Radiation receiver 391 Photovoltaic chip 392 Radiation receiver side wall 393 Radiation Receiver Top Wall 394 Ventilation Window 398 Wire 399 Converter 400 Baki UFO Balloon Type Device for Collecting Solar Radiation 401 Ring 402 Balloon Bowl Bottom 403 Reflecting Surface 406 Buckle 407 Stud 410 Radiation Receiver 412 Radiation reception Photoelectric film on the outer wall of the outer wall of the radiation receiver 78 413 201035505 414 Tab ring 415 Ventilation hole 420 Square Baki UFO balloon type collecting solar radiation device 422 Collection device 430 Radiation receiver 431 Support rod 432 Wire 434 Converter 0 440 Square Baki UFO Balloon 441 Balloon Corner 442 Top Wall 443 Buckle 444 Four Side Wall 445 Miao Nail Nail 446 Bottom Ο Half zipper 450 Inner Wall 452 Triangle 454 Inner Line 456 Silver Reflective Surface 460 Carbon Nanotube Collection Sun Radiation device 470 collection device 471 collection frame 472 collection surface 79 201035505 474 lens section 474a Fresnel lens 474b honeycomb structure miniature lenticular lens 474c hologram lens 475 center axis 480 radiation receiver 482 transparent pillar 486 photoelectric material 487 wire 488 converter 490 System or method for cooling photovoltaic material 486 491 coolant tank 492 heated coolant 493 water pipe 494 pipe 496 three-way valve 500 reflection groove 501 reflection surface 480 partial radiation receiver 486 square photoelectric material 489 wire 510 collecting the sun Radiation device 512 Collection device 514 Reflection groove 201035505 516 Collection lens surface 520 Hollow tube 522 for collecting solar radiation Seawater tube 524 Sea water 526 High sea level 528 Water pipe 529 Condenser 530 Fresh water storage tank 0 540 Array 550 Array collection device 552 Surface , can be a ground, a flat 554 strip-shaped reflective device 556 with a concave facing surface of the reflective material 558 transparent frame 560 radiation receiver 562 pillar 570 device for collecting solar radiation 575 radiation receiver 577 wire 579 converter 580 spherical Collection device 582 Reflective light guide 583 Reflective light guide inside the small hole 584 Reflecting the inner wall of the light guide, roof, or similar 81 201035505 585 Reflective light guide facing the large hole 588 Pillar 590 Reflector 594 Leg 600 Baki Balloon-type collecting solar radiation device 603 Reflecting surface 604 Through-tube 605 Wire 606 Mast 607 Converter 610 Inflatable balloon 611 Hexagonal cut surface 612 Pentagonal cut surface 613 Inflatable tube 614 Transparent surface layer 616 Full-image lens 618 Photoelectric layer 620 Collecting solar radiation device 625 Flag square tube balloon type collecting solar radiation 626 reflecting surface 627 mast 630 collecting solar radiation device 630a bucky ball shape 630b beach ball shape 82 201035505 630c icosahedral shape 631 wire 632 pentagonal slice 634 hexagonal slice part 636 eye type Slice 638 Triangle Slice 640 Bucky Ball Shape Collection Solar Radiation 642 Reflector 646 Column 644 Concave Face Up Reflector 645 Converter 660 Solar Collector 670 Platform 672 Upper Surface 674 Collection Well 676 Cooling Water Pipe 678 Curved Pyramid Reflector 680 Array collection device 690 optoelectronic chip 691 printed circuit board 692 heat absorbing block 700 all or part of dome shaped collecting solar radiation device 701 collecting ray 702 three wall reflecting light guide 83 201035505 704 705 706 708 710 712 714 716 718 720 722 723 724 725 726 728 730 731 732 734 735 736 738 739 Reflective surface inner wall transparent cover outward opening toward the central inner port radiation receiver solar cell block water tank pipe cooling system outer wall wire voltage regulator battery DC power supply socket converter AC power supply Socket all or part of the dome-shaped collection too Radiation device collection beam compound parabolic concentrator parabolic reflector wall transparent cover light guide tube outward opening light guide tube toward the central inner port light collecting funnel 84 201035505 740 radiation receiver 742 plate with photoelectric wafer 744 two junction photoelectric Wafer 746 Air Cooling Unit 748 Power Outlet 749 Outer Wall 750 Building 751 Roof 〇 752 Floor 753 Drain 754 Pulley 755 Slope 756 Water Tank 760 All or part of the dome or hemisphere collection device 762 Three-walled reflection light guide 〇 764 halogen 766 Solar Panel 768 Cooling Tank 770 Controlled Door 780 One Building 782 Roof 784 Side Wall 785 Collection Equipment 800 Nano Ring Collection Device 85 201035505 802 804 806 808 810 812 814 816 818 820 822 824 830 840 845 850 855 860 865 870 875 880 881 Pipe Boiler Tube Tube Nanotube Shape Collection Ring Lens Face Collection Frame Steam Pipe Turbine Generator Fresh Water Collection Tank Dome Photovoltaic Outer Wall Reflector Half Half Tube Collection and Concentrated Radiation Equipment Travel Trailer Car Activity RV Ship Small truck bus light Train airplane computer graphics machine plane material slice 86 882 201035505 883 wire 885 battery 886 computer cutting machine 888 vehicle 890 building 892 photoelectric film slice 896 collection device 900 device for collecting solar radiation 901 collection device 902 collection reflector plate 903 rotor 904 interweaving Spiral blade 904a Dark face 904b Light color face 905 Interlaced spiral blade G 905a Dark face 905b Light color face 906 Upper end circular plate 907 Rotatable shaft 908 Optical transparent and closed cover 910 Generator / vacuum maintenance device 920 Reflector 922 Leg 923 Wheel 87 201035505 930 Collecting Light Radiation Device 934 Full Image Diffraction Grating 940 Demonstration Light 944 Demonstration Light 942 Demonstration Light 950 to Radiation Receiver 952 Photovoltaic Cell 954 Base Plate 960 Radiation Receiver 962 Photovoltaic Chip 962 964 Insulating Material Plate 966 Thermal Conduction Non-conducting backplane 968 Heat sink fins 970 Panels for power generation and hot water 971 Collecting light radiation equipment 972 Reverse astigmatism sheet 973 Full-image lens 974 Photovoltaic wafer 975 Thermal block 976 Base plate 977 Frame 978 Brush circuit 978a negative 978b positive 88 201035505 979 pipe 980 solar energy collection system for a house, supply light, heat 982 roof 984 first collection solar radiation device 988 second collection solar radiation device 986 tool 990 thermal cable 992 furnace G 994 transmission cable 996 lighting equipment 998 wire 1000 solar energy outdoor energy barbecue 1002 bucky dome type solar radiation collection device 1004 copper radiation receiver 1006 roasting top burner Ο 1008 furnace control frame new 1010 lighting Equipment 1020 Portable solar energy outdoor barbecue 1022 Bage dome solar radiation collection device 1024 Hollow sphere radiation receiver 1026 Barbecue top burner 1028 Thermal conductor 1028 Control unit in front of the furnace 1040 Above the oven top 89 8935355 1042 first concentric circle 1044 second concentric circle 1046 first thermal strip 1048 second thermal strip 1050 device for collecting solar radiation 1052 collection device 1054 holographic diffraction grating lens or triangular prism 1056 ultraviolet reflector 105 8 Infrared Reflector 1060 Oblique Junction 1062 Demonstration Infrared 1064 Heat Pipe 1066 Demonstration UV 1068 Inside Mirror Lined Pipe 1072 Photovoltaic Wafer 1074 Heatsink 1080 Collecting Solar Radiation Device 1082 Collecting Device 1084 Whole Image Diffraction Grating Lens 1086 First Group Wavelength Demonstration Ray 1090 Wavelength Demonstration Ray 1094 Third Group Wavelength Demonstration Ray 1098 Fourth Group Wavelength Demonstration Ray 1088 First Group of Wavelength Receiver 90 201035505 1092 Second Group of Wavelength Receiver 1096 Third Group Wavelength Receiver 1100 Fourth Group of Wavelength Receiver 1010 Device for Collecting Solar Radiation 1112 Collection Device 1114 High Color Difference Fresnel Lens 1116 First Group of Wavelength Demonstration Rays 1120 Second Group of Wavelength Demonstration Rays 1124 Wavelength Demonstration of the Third Group Ray 1128 fourth group wavelength demonstration ray 1118 first group wavelength receiver 1122 second group wavelength receiver 1126 third group wavelength receiver 1130 fourth group wavelength receiver 1110 device for collecting solar radiation trichrome prism q 1112 incident light 1114 first dichroic prism 1116 second dichroic prism 1118 third dichroic prism 1120 Color beam 1122 blue beam 1124 green beam 1130 concentrated photoelectric building integrated house 1132 semicircular barrel roof collection solar radiation shot 91 201035505 1140 garage 1142 hemispherical roof collection solar radiation shot 1190 building 1192 Fresnel dome collection equipment 1200 Building 1202 Baki Dome Collection Equipment as Roof 1210 Building 1212 Carbon Nanotube Collection Equipment for Its Roof 1220 UV Radiation Extraction System 1222 Building 1223 Roof 1224 Collection Equipment 1226 Solar Radiation Demonstration Light 1228 First Mirror 1230 Second Mirror 1232 UV Filter 1234 Indoor Light 1150 Collecting Solar Radiation Equipment Beach Umbrella 1152 Dining Table 1160 Half Nano Tube Top Collection Solar Radiation Half Nano Tube Top Device 1162 Collection Frame 1164 Lens Cutting Surface 1166 Photovoltaic Wafer 1168 Top Floor 92 201035505 1170 Wire 1172 converter 1174 table station 1180 road lane 1174 pillar 1175 electric car charging station 1181 piezoelectric generator Π 82. car D 1183 wireless antenna transmitter 1250 building 1252 semicircular barrel roof - solar radiation collection equipment 1260 building 1262 gable Roof - collecting solar radiation equipment

93

Claims (1)

201035505 VII. Patent application scope: i. A collection of solar radiation (four) system, including at least the solar absorption device, including: - frame = too (four) shooting surface, individual collection of cutting surface, face and collection from no :Do not: Set the radiation above the cutting line, collect the cut surface and direct the light to the ^^ ground level receiver. , the radiation of the area of the wood harvesting area according to the scope of the patent application of the first item 'its #射接收器 by the photoelectric material 3. = circumspecting the first item' of the radiation receiver containing - 4. The system according to the scope of the patent 3ji ^ Two boundaries 疋 This valley (four) space wall is photoelectric material. The sibling item, the external receiver of the launch receiver (10) The system according to the fourth part of the patent scope, the receiver includes . ί i rt: please f range 5, the cooling system, is the An Fantasy wall... Two ==: Make the container a 7·= unified root injection special (four) 4 items, cold (four) system with cooling pipe 1, the United States for the cold part of the liquid, from the radiation receiver container in and out. Please refer to the third item of the patent scope ‘additional pipeline to provide a liquid to the Hantian radiation receiver in the heated base smoke, 笸-" steam' preparatory down-step cooling process. ^ 'Shooting Receive 15 to derive the pain 9 · = Tong Gen shot the scope of the patent, item 8, where the liquid is water containing a shell / gluten solution or suspension. 1〇. The system according to the scope of claim patent item 9, wherein the liquid is seawater 94 201035505 Uf system according to the third scope of the patent application scope, another set of pipes, including the first pipe to provide liquid to the light-light receiver for heating, and The second tube directs the addition away from the radiation receiver. U·: The system is based on the scope of the patent application! Item, wherein the radiation receiver can be a thermal conductive hollow sphere, and a biodiesel catalytic furnace and a heat conduction transmission line are connected from a hollow heat collecting sphere to a biodiesel catalytic furnace by a heat conduction transmission line to convey the heat from the heat collecting sphere to the biodiesel Catalytic furnace for production. 〇 13. The system is based on the scope of the patent application! And wherein at least one of the cut surfaces includes at least one optical lens that concentrates radiation to the collection area. 14. The system is based on item 13 of the scope of the patent application, at least one of which is not a > ear lens. 15. The system is in accordance with item 13 of the scope of the patent application, wherein at least one of the lenticular lenses is included.疋 16· The system shoots 13 patents (4), at least the face is composed of one compound eye lenticular lens. 〇 17. The system is in accordance with item 13 of the scope of the patent application, wherein at least one of the tangent planes is a holographic lens.疋α The system is based on the application of patent (4) 13 items, most of which include at least one lens concentrating to the collection area. The system is rooted in the 13th patent range, and the concentrator includes a frame. = The form of the frame is composed of at least part of the structure of the gramminster fullerene molecule (C-60 cyano buckyball). The term 'concentrator' consists of a frame, a head-sealed nanotube structure. 2〇. The system is at least partially in the form of the framework of the scope of the patent application. Double 95 201035505 2. This system is based on the application of the patent festival. "Judgement _ Item 1, the collection frame can be applied to the first part of the patent range by the inflatable tube group 22·=ΓΓΓ, including at least one reflective light guide tube to receive light shot, and the light guide is lightly directed to (four) connected to the t-piece. Light Guide 23: = Application for Patent Fanyuan No. ~ (4) Light guide type retanning type of porous body is connected in the internal parts. 24, = Γ射, please full-time (four) 22, its towel blue light guide, a compound parabolic collector (CPC). Suction 25.: According to the i-th item of the patent application scope, many reflective light guide tubes are connected, and the light-emitting tube has a light guide tube, and the light guide tube receives radiation at each-cut surface to lightly according to the i-th item of the patent application scope, wherein The concentrator collects the face into the light side of the face and can receive the „ below the local horizon direction. w: The radiation incident on each face of the concentrator surface gathers into the collection area in the center of the concentrating state. Light shot of the horizon of the monks. The surface can be collected above or below the local lion's patent scope, item 26, where the collection area is under the 26th item of the collection table - step-by-step - reflection * bit 2 under the wooden surface, Reflecting the radiation back to the collecting surface. :: According to the scope of claim 28, the reflecting surface consists of a concave facing upward reflecting disk. Heart: According to the 26th patent range, the collection surface is collected from 96 201035505 A large amount of radiation in all directions. 31. The system is in accordance with Clause 26 of the scope of the patent application, wherein the collection frame consists of a Buckminster fullerene molecule (carbon-sixty nanometer buckyball) structure. 32. The system is in accordance with item 26 of the scope of the patent application, in which the collection frame consists of a double-tube bundle of nanotube structures. 33. The system is in accordance with item 26 of the scope of the patent application, in which the collection frame consists of an inflatable tube. 34. The system according to claim 26, comprising at least one reflective light guide, receives radiation from any of the collecting sections of the light guide and directs it to the radiation receiver. 35. The system is in accordance with item 34 of the scope of the patent application, in which the reflective light guide is a compound eye and the porous shape is connected at the inner part. 36. The system is in accordance with claim 34, wherein the reflective light guide is a compound parabolic collector. 37. The system further comprises a reflective light guide according to the scope of claim 26, each of which is internally connected with a light guide tube, the light guide tube receives radiation on the cut surface, the bottom of each tube is connected, and the bottom outlet conducts radiation to the radiation receiving Device. 38. The system according to Clause 1 of the patent application further includes a reflecting device lower than the radiation receiver, and the incident light that was initially collected from the collecting surface is reflected back to the radiation receiver at an appropriate distance. 39. The system is in accordance with claim 38, wherein the reflecting means is a concave upwardly facing reflecting disk. 40. The system is based on claim 39, and includes a struts that couple the reflector disk to the radiation receiver and the collection surface and support the radiation receiver and collection surface. 97 201035505 41. The system is based on the 38th scope of the patent application and the light-emitting receiver consists of optoelectronic materials. 42. ^ According to the section of the patent scope, the He acceptor consists of a medium-neutral, and a built-in fluid, which collects radiation from the radiation receiver and the reflective object. 43= According to the scope of the patent application (4), including - an inflatable balloon, the anti-outer wall and the bottom 'at least - part of the top is transparent, in the inflatable balloon, below the radiation receiver, riding the receiver and collecting surface by The top support of the balloon above. There is at least one radiation. 44. The system is based on claim 43. The collection device is a single device. Wherein the reflecting means is located in the gas, wherein the reflecting means reflects the layer wherein 'the balloon is from above" wherein the balloon is from above, wherein there is at least one radiation 45. The system is on the bottom of the ball according to item 43 of the patent application. 46. The system is attached to the inside of the bottom of the balloon according to item 43 of the patent application. 47. The system is generally circular in accordance with item 43 of the scope of the patent application. 48. The system is generally rectangular according to the scope of the patent application. 49. The system consists of the sun, according to the scope of the patent application, item 43, and includes - such as = up and other balloon solar radiation The collector is connected to the system according to claim 43 of the scope of the patent application, wherein the radiant receiver is composed of photoelectric 98 201035505 material, and the solar radiation receiver comprises a converter receiving current from the photoelectric material of the radiation receiver, wherein the converter will The DC power received from the radiation receiver is converted into AC power. 51. The system is further composed of a collection station and a transmission pipe according to the first scope of the patent application, and the pipe is connected to the radiation receiver of the solar radiation collector to the collection station. The radiation collector is heated to form a vapor, which is sent to a collection station by a transmission pipe. The collection station has a turbine and a generator. The steam is introduced into the turbine to drive the turbine blades to rotate to provide torque to power the turbine generator. The turbine The blade can be attached with a film of nano infrared wavelength antenna, which is sucked from steam Can further produce AC power; steam that loses part of the heat can be sent to the tank and further cooled to potable distilled water. 52. The system is in accordance with claim 51, at least one of which contains several identical solar radiation collectors. a solar radiation collector, and further each of the radiation receivers of the solar radiation collector is connected to the central power station by a delivery pipe, wherein the fluid is heated by the radiation collector and sent to the collection station by the transmission channel. q 53. The system is patented Scope 51, wherein the fluid is steam. 54. The system according to the scope of claim 2, further comprising a central power station, a converter (inverter), and first and second transmission lines, the first transmission line will radiate The receiver is connected to the converter, and the second transmission line connects the converter to the central power station, ie the central power station can receive AC power from the solar radiation collector. 55. The system is based on claim 54 of the patent scope, at least There is a solar radiation collector that includes several identical solar radiation collectors, each of which has a sun Radiation collector, supplying AC power to the central power station, and then supplying it to the 99 201035505 grid. 56:= Kang applied for patent scope item 2, and at least one of the solar radiators' includes several identical solar radiation collectors , wherein, a plurality of = yang light, the collector is mounted in an array, and further comprising a radiation receiver from the solar radiation collector of the evening sun, supplying direct current to a converter. 57. Please enter the 56th section of the township, including - cooling system, first ▲ cold system including coolant and pipeline, supply to the multi-face solar radiation collection = radiation receiver, and from the multi-faceted sun The wood harvester removes the superheated coolant. 讥, the system according to claim 57, further includes a reflecting device adjacent to the multi-faceted solar light collector to reflect the incident light incident on the reflecting device to reflect it to the multi-faceted sun Light shot collector. 59. According to the 56th scope of the patent application, wherein the reflecting device reflects the sun-shot to the multi-faceted solar radiation collector, to which the solar light is directed to the light-emitting receiver. Wood surface 6〇. The system according to claim 59, wherein the reflecting means comprises at least 2 reflecting surfaces 'reflecting solar radiation from the person to the reflecting device, and the standing 'reflecting device reflecting too at least two Solar radiation collection device. ^Hai System Radiation Request No. 6 of the patent scope, in which the reflecting means reflects the sun: at least two collecting surfaces on the multi-faceted solar radiation collector, the collecting surface directing the sun to the radiation receiver.砭The system is based on the scope of the patent application, and its/reflecting device is in the golden plaque, which includes four orphaned reflecting surfaces, each of which faces each of the four solar panels 100 201035505 collector collecting surface. 63. The system is in accordance with claim 61, wherein the reflecting means is prismatic and comprises two curved reflecting surfaces, each facing each other with a collecting surface of two solar radiation collectors. 64. The system is based on the 56th scope of the patent application, in which the collecting surface in the multi-faceted solar radiation collector is set to receive solar radiation on the local horizon. 65. The system is based on the 64th scope of the patent application, in which the collecting surface of the multi-faceted solar radiation collector is set to accept solar radiation in any direction. Θ 66. The system is in accordance with claim 56, in which the collection frame of the multi-faceted solar radiation collector adopts the buckyball shape of the Buckminster fullerene molecule. 67. The system is based on claim 66, in which the collection frame of the multifaceted solar radiation collector is in the shape of a buckyball of the Buckminster fullerene molecule. 68. The system is based on the 56th scope of the patent application, in which the collection frame of the multi-faceted solar radiation collector is in the shape of a nanotube with a double-ended beam. 69. The system is based on the 68th scope of the patent application, in which the collection frame of the multi-faceted solar radiation collection Q is in the shape of a nanotube with a double-ended beam. 70. The system is based on claim 56, which includes a panel, multi-faceted solar radiation collector device. 71. The system according to claim 70, further comprising a cooling system mounted in the panel to supply or remove coolant to the radiation receiver of the multi-sided solar radiation collector. 72. The system further comprises a transmission line system mounted on the panel according to claim 70, which collects electricity from a radiation receiver of the multi-sided solar radiation collector. 101 201035505 201035505 'One or more devices 73. The system is a single device according to the scope of the patent application. The system is based on the 73rd scope of the patent application, in which the system consists of equipment. Early - 75. The system is based on the scope of the patent application! Items, including - a collection frame in the form of a - nanotube tube ring, a radiation receiver to form a loop tube, 'the collection area in the center of the collection frame is suspended, the collection frame collection table: the solar radiation to the radiation receiving tube . Husband hunger = system root shot please patent range 75 ^ step (10) ρ part of the new to (four) connected, the liquid is heated into a steam, the second official connected to the worm receiving tube to the turbine, the tube will provide steam = ' On cloudy days or at night, water pipes can be buried under the beach or in the soil layer; the heating method is used to obtain the steam, and then sent to the thirteenth turbine to continue to generate electricity.糸 专利 专利 专利 专利 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 76 . Among them, the #^ machine, & shavings 79兮", the shoulder-wheel generator of the 产生 generates alternating current power. The system is based on the film of the 77th nano-infrared wavelength antenna of the patent application scope, and the fine blades of the wheel can be heated. , production of AC power supply; lost sucking its infrared light reservoir, who ^. Scythe,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,, The first thirst engine room receives steam, loses part of _ ^ := animal reservoir, ^ ... month b of 4> fly, further cooling to 102 201035505 drinkable fresh or distilled water, the reservoir is used to cool steam and keep cool Fresh water or steamed water. 81. The system is in accordance with Article 76 of the patent application, in which the liquid is water. 82. The system is in accordance with Article 80 of the scope of application, wherein the liquid entering the radiation receiving tube is brine and the gas is steam. The reservoir cools the steam and stores it as fresh water. 83. The system is in accordance with Article 82 of the patent application, in which the brine is seawater. 84. The system is based on item 2 of the scope of the patent application, one or more The device is a device and further constitutes electrical lighting; the lighting device is connected to the photovoltaic D material to supply illumination from the optoelectronic material current. 85. The system is in accordance with claim 84, wherein the electrical lighting comprises a light emitting diode. The system according to claim 84, further includes a battery, connected to the photovoltaic material and the electric lighting electric lamp wire, that is, the battery can be charged from the photoelectric material, and the electric lighting can obtain the current supply illumination from the battery. 87. The system is patented according to the patent. Scope 86 further includes an electric charging station Q connected to the battery, the electric charging station providing car charging. 88. The system further includes a post for mounting the device according to the scope of claim 86. The system is sealed according to the scope of the patent application, item 86, which is sealed and waterproof so that it can float in water. 90. The system further comprises a reverse astigmatism according to the scope of claim 1 and is added to the outside of the collecting surface. The face is 91. The system is based on the 90th item of the patent application. The step comprises a reverse astigmatism sheet applied to at least one of the outer faces of the collecting surface. 103 201035505 92. The system is based on the first application of the patent scope - an anti-reflective coating consisting of a sample (or two at least one outside of the collecting surface) 93·=^ According to the patent scope of the 92nd system (4) patent application. (including the secret angle - oxidation # nanometer rod composed of reflective coating, its anti-reflective coating), added to the outside of the collection surface at least one section 94. A solar radiation receiver device comprising: - a collection frame support collection surface from a different shot 'collection surface consisting of a plurality of embossed watches attached to the collection frame for a full Γ (four) face " The m-area photo-electric layer is in the surface layer and the holographic lens II-, and the king-image lens is arranged to direct incident radiation to the photovoltaic layer to produce a weeping. 95. The root material of the device (4) is in the middle of the machine.贞-中中电层 is placed in the collection 96. ^ΓΓ Patent Application No. 94, in which the collection surface is set to receive solar radiation from all directions. 4 97. 96 items of the projecting materials (4) were placed below the collection frame. 〃匕 反 先 先 98 98. Z = rf circumference 94th item 'where the collection frame is made of prismatic gas according to this collection frame can have non-inflatable flat and second full item' where the collection surface can not be received 104 201035505 100. - Collecting solar radiation devices, comprising: collecting surfaces that receive radiation from all directions, collecting surfaces in all directions, including lens cuts to direct radiation incident on the lens, into a focal region on the collection surface; within the focal region There is a radiation receiver; a reflecting device is positioned at a suitable distance from the collecting surface to reflect incident light that does not reach the collecting surface to the collecting surface. 101. A device for collecting electromagnetic radiation, comprising: a generator having an input drive shaft, a vane device coupled to the drive shaft and having an output device. The blades constituting the rotary vane device are equipped with a radiation absorbing surface for absorbing radiation and the other surface for reflecting surfaces, transmitting radiant energy to nearby gas molecules, and transmitting energy, causing their vibration and transmitting energy to the energy receiving device, and radiation absorption. And the surface of the reflector and nearby gas molecules, imparting kinetic energy to the blade device, which is responsible for receiving radiation, wherein the energy receiving device has a dark radiant energy absorbing surface on one side and a reflector reflecting surface on one side; at least part of the radiation absorbing surface contains photoelectric The conversion material 'converts incident solar light into direct current. 102. The device according to claim 101, further comprising a generally transparent vacuum container through which solar radiation can pass; the blade device being fixed in the container. 103. The system is in accordance with claim 101, wherein the blade is a double helix around the central axis that is parallel to the drive shaft of the generator. 104. The apparatus according to claim 101, wherein the blade means is two intertwined helical blades around the central axis, parallel to the drive shaft of the generator; the radiant energy of the blades absorbs the black faces all in the same direction Around the output 105 201035505 out of the device. 105. The device is placed according to the scope of the patent application, item 1G2, and is positioned outside the container, and the guide is directed through the container to reach the leaf 106. - the device for collecting electromagnetic radiation, including ··, = motor has one input transmission The shaft '--blade device is connected to the transmission vehicle and has an output device, which constitutes the blade of the rotating blade I. The device has a light-absorbing surface that absorbs the light beam, and the other surface is a reflecting surface, and transmits the wheel to the nearby energy. Gas molecules, and transmit energy, causing their vibration amount to Γ source receiving device 'radiation absorber and reflector surface body molecules, imparting kinetic energy to the blade device 1 to receive light shots, wherein the energy receiving device - has a dark color The radiant energy absorbing surface, the reflector reflecting surface, is generally in a transparent vacuum vessel, the solar light blade device is fixed in the cavity 11 'reflecting device, positioned below the outside of the valley, guiding the radiation through the container to the blade 107. The device is in accordance with patent application 106, wherein the blade device is two intertwined helical blades surrounding the center vehicle, flattening with the drive shaft of the generator The device is jumped according to the patent application scope 107, wherein the blade device is two intertwined spiral blades surrounding the green central axis, and the transmission shaft of the generator is milled, and the light energy of the tea piece absorbs the black surface. Towards the same output device. Court, "° 109.—Collect solar radiation devices, including: a collection surface that receives radiation from multiple directions, a guide to a diffractive device that separates the radiation from the first set of wavelengths, To the first group of energy conversions, and then the second group of wavelengths to the second energy conversion device; wherein the 106th 201035505-group energy conversion device can be the first group of wavelengths of another form of 铱吾·牮丨? The field shot is converted to "eight-two source conversion to set the energy of the second set of wavelengths to convert radiation into another form." The device is based on the patent application No. 1Q9, its visible wavelength, and the second group is the infrared wavelength. Shooting the first group of 疋 m. The device is rooted in the patent range. The u device consists of photovoltaic materials. ,, the first group-group energy conversion ο ία The device is in accordance with the scope of the patent application (1), the device is a plate, which can be twisted by infrared light. Brother—,, “Source Conversion (1) Please apply for the 112th scope of the patent, in which the second group of energy conversion electricity. 〃 l 1 Infrared light slope length nano antenna, infrared light irradiation will send 114:; = profit range 109th , wherein the diffractive device is separated from the second region of the same area below the third and the first region is separated. The second region is separated, and the first group of energy conversion devices are in the first region - the energy conversion device is in the second District, 115. According to the scope of patent application No. 1-9, the street shooting equipment (high color = non-alum lens) separates the first group of wavelengths to the first area below, and then the second field. Long to the lower and the first area of the first-north line on the vertical line. The first group of energy conversion devices are in the first focus area, and the second group of energy conversion devices are in the second focus area. 116. = device according to the patent application scope Item 1-9, wherein the lens can shoot the incident light and then cut out the second set of wavelengths to the third energy conversion device, wherein the 107th 201035505 three sets of energy conversion devices can convert at least part of the third set of wavelengths into another a form of energy. 117. The device According to claim 116, wherein the lens can diffract the incident light, and then divide the fourth group of wavelengths to the fourth energy conversion device, wherein the fourth group of energy conversion devices can convert at least part of the fourth group of wavelengths into another A form of energy. 118. The device is in accordance with claim 117, wherein the first set of wavelengths is a high energy energy difference group, ie wavelength > 300 nm (nanometer) <680 nm (equivalent to having a photon energy range) <3.2 electron volts (eV) > approximately 1.88 eV) (1 electron volt = 1.60217646 X 10-19 joules) ° 119. The device is in accordance with claim 118, wherein the first energy conversion device can be filled Avid film optoelectronics. 120. The device is in accordance with claim 118, wherein the wavelength of the second group is the energy difference group in the middle, ie the wavelength is >680 nm, <900 nm (equivalent to about having a photon energy range) <1.5 £乂 to > approximately 1.4 eV). 121. The device is in accordance with claim 120, wherein the second set of energy conversion devices may be indium gallium arsenide photovoltaic wafers. 122. The device is in accordance with the 120th scope of the patent application, wherein the wavelength of the third group is in the range of low energy energy difference groups, ie the wavelength is >900 nm to <1800 nm (equivalent to having a photon energy range) <1.1 EV to about > 0.7 electron volts). 123. The device is in accordance with claim 122, wherein the third energy conversion device can be a germanium, gallium antimonide, or indium phosphide optoelectronic wafer. 108 201035505 124. The device is in accordance with the scope of claim 122, wherein the wavelength in the fourth group is in the range of the infrared energy difference group, that is, the wavelength is from 3 micrometers to 15 micrometers. 125. The device is in accordance with claim 124, wherein the fourth energy conversion device can be an infrared light nanometer antenna that converts infrared light into alternating current. 126. The apparatus is in accordance with claim 124, wherein the fourth energy conversion device is a thermosonic piezoelectric wafer. 127. The device is in accordance with claim 124, wherein the fourth energy conversion device can be a quantum tunnel wafer. 〇 128. The device according to claim 109, wherein the collecting surface is a reverse astigmatism sheet, which will likely change the incident radiation from a plurality of directions into an incident angle perpendicular to the collecting surface. 129. The device according to claim 109, wherein the diffractive device is a holographic lens that splits the incident light out of the first set of wavelengths to the first set of energy conversion devices; and the second set of wavelengths to the second energy Conversion device. 130. The device is in accordance with claim 129, wherein the first group of wavelengths is mostly Q visible light, the second group of wavelengths is mostly infrared radiation, the first group of energy conversion devices is an optoelectronic wafer, and the second energy conversion device is A substrate having a good thermal conductivity, and the photovoltaic cell wafer is located in the center of the plate, under the lens. 131. The device according to claim 130, wherein the photovoltaic wafer and the bottom plate are separated by a thermally conductive non-conductive chemical plate (the oxidized wrinkles of the alkaline earth metal are ten times faster than the metal conduction, or the cheap resin, etc.). 132. The device is in accordance with Article 131 of the patent application, in which the dielectric material has good thermal conductivity, so that the heat generated by the photovoltaic wafer is quickly transferred to the 109 201035505 plate. 133. The device is in accordance with claim 114, wherein the optoelectronic wafer is located in the center of the bottom plate. 134. The device is in accordance with claim 109, wherein the diffractive device is a holographic lens. 135. The device is in accordance with claim 109, wherein the diffraction device is a diffraction grating. 136. The device is in accordance with claim 109, wherein the diffractive device is a Philippine lens. 137. The device is in accordance with claim 109, wherein the diffractive device is a dichroic prism. 138. The device is in accordance with claim 109, wherein the diffractive device is a trichromatic prism. 139. A process provides a three-dimensional structure, the outer layer of which can receive radiation and convert the radiation into electrical energy; the steps of: determining the outer surface shape of the three-dimensional structure, the computer graphics software can draw the different materials of the outer covering material The slice shape, and then use a computer graphics machine to slice the different shapes of the slice to print the film photoelectric layer onto the tape material, and another computer cutting machine cuts the slice printed with the film photoelectric layer, and the tape material has self-adhesive back The glue, the different shape of the slice is attached to the outer surface of the appropriate portion, at least a part of the outer surface of the three-dimensional structure has been attached with a thin film photovoltaic layer. 140. The process is in accordance with Section 139 of the patent application, and a further step is to print the circuit to a squeegee material printed with a thin film photovoltaic layer. 141. The process is based on claim 139, and a further step is to connect the set of 110 201035505 thin film photovoltaic devices to the battery pack. Η 2. This process has a self-adhesive adhesive according to the patent application. *Medium squeegee tape material 143. This process is based on the 139th article of the patent application, the step of attaching the appropriate part of the appearance of the three-dimensional structure. , 5 shape cutting process root shot material township _ 139 items, its ride. , , , and D construct a ο 145. The process is based on the scope of the patent application, item 139, 苴 construction. "中—,、,隹... is a 146. The building consists of walls and roofs—a layer of thin 臈 127m ^ film, attached to at least four walls — and the outer U of the roof of the U. 147. M material, (4) county electrical layer or not (four) long 3 = a small part of the appearance, where photoelectricity _ or different wavelength = no antenna 溥 film layer generates current for the ride. Not ❹ 148. ^Hai travel according to the scope of patent application No. 147, which is a car 149. A ride, including: body, light equipment. The roof is equipped with a sun-collecting device that can collect the sun from multiple directions according to the scope of the patent application No. 149, in which the sun lucky shot collection bite includes a frame support collecting surface, the collecting surface includes a multi-lens cut surface To the focal position in the collection surface, the light receiver is located there. (5). The rider's root shot is required to cover the 15th () item. According to the patent application 150', which contains a photoelectric receiver, the solar radiation generates current from the lens cut surface. § /, the board according to the scope of claim 149, which is the body of the Luhang vehicle. 153. ^The vehicle is in accordance with item 149 of the patent scope, which is the ship of the water boat. 154. The harness is in accordance with item (4) of the patent application scope, and the towel is an empty towel aircraft machine 1=· Patent No. 154, which is a device for the spacecraft body to collect the sun, including: - a purely set watch S, a ^ balloon "many flat cuts are joined at their edges to form a thin film photovoltaic material or Nano-antenna films of different wavelengths, permanent receivers, = shots combined at their edges to form solar radiation to convert their radiation into direct current. 15 7 · 5 Hai device according to the Shenshi main Kui-sonic wave: two-in-one, so that the collecting surface can maintain its balloon shape. The knife blade is closely read 158. The device is sealed according to the patent application form, and the medium cut piece is connected and expanded to maintain the balloon surface. The surface of the 5_ surface is maintained as aeration 159. The device is based on Application | Pentagonal and 20 pieces of horns 156th of which cut bread (four) pieces (10). The device directly synthesizes the shape of the base ball according to ^. Claim 156 of the patent scope, in which the eye-shaped sheet 'joins into a beach ball shape. The mid-section consists of 12 pieces. 161. The device is called the 156th item according to the application, wherein the cut surface comprises 20 pieces of 112 201035505 triangle pieces of the same size and shape, joined into an icosahedron shape. 162. The apparatus according to claim 156, further comprising a concave upward reflecting disk, a support supporting the balloon, the shaped collecting surface being above the reflecting disk, such that incident radiation may be reflected from the reflecting disk to the collecting surface. 163. The device is in accordance with section 162 of the patent application, in which a wire has a wire connecting the collecting surface to a reflector disk that carries current from the collecting surface down the pillar to the bottom of the reflecting disk. 164. A building consists of a wall and a roof, and further comprising a collection surface mounted on the roof D, collecting radiation from multiple directions, and guiding the radiation receiver; wherein the radiation receiver comprises a further solar radiation beam splitting device that radiates solar radiation Separated into visible light, infrared light, and the like. 165. The building is based on Section 164 of the patent application, in which visible light is directed to photovoltaic wafers for power generation. 166. The building is in accordance with section 164 of the scope of the patent application, in which visible light is directed to the interior lighting unit to provide indoor lighting. 0 167. The building is in accordance with claim 164, wherein the infrared light guides to the hollow thermally conductive metal ball from which it absorbs thermal energy and further transfers the thermal energy to the interior by a copper line or other highly thermally conductive material encased in the insulated electric iron. The stove is eaten. 168. The building is in accordance with Section 164 of the patent application, in which infrared light is used to heat a liquid and further transports the heated liquid through a pipe to a heat exchanger to provide a building air conditioner. 169. The building is in accordance with Section 164 of the patent application, in which the spectroscope further separates the ultraviolet portion of the solar radiation. 113 201035505 The building is based on the scope of the patent application! 6 Lead to the ultraviolet wavelength photoelectric to generate electricity, for the external part can be 171. The building is guided to the fluorescent lamp according to the 169th paste (optical fiber) of the patent application scope, and the powder is connected to produce visible light. It eliminates the need for a dual step of energizing the fluorescent lamp to activate the UV light. 7 "2. - A stove, including: a solar radiation collection from multiple directions to collect the sun light and lead to a light-emitting receiver: mention: the temperature of the wheel receiver; transmission pipe by high thermal conductivity: 2 coefficient material The outer casing is composed of a heating device, and the heating device is placed in the same type: the second, through the transmission pipe (four) high thermal conductivity material material heat energy to the device, and the heating device obtains heat energy heating from the transmission pipe. π The furnace is in accordance with the patent application scope 172 The radiation receiver is a hollow sphere made of a surface thermal conductivity copper alloy, and the high thermal conductivity material of the transmission pipeline is also a copper alloy. m. The furnace is further included in the apparatus according to the item m of the patent application scope. The control hinge on the frame of the stove can selectively connect the transfer pipe to the heating device. Π 5. The stove is in accordance with the 172th patent application scope, wherein the heating device includes the first and second heating concentric circles The loop kit is juxtaposed and further includes a control hub on the frame that selectively connects one or two sub-concentric loops to the main transfer conduit. 176. δ海炉具 according to the scope of patent application No. 175, in which the first and the second group of the same ~ circle circle, each with a set of concentric radius of the concentric circle; each group 114 201035505 concentric circle interval juxtaposed 177. Buildings consist of walls and roofs, which include a solar radiation collection device that collects solar radiation from multiple directions and directs it to a radiation receiver that converts solar radiation into a useful form of energy. The building is in accordance with Section 177 of the patent application scope, in which the radiation receiver uses the solar radiation to generate electricity for construction. 179. The building is in accordance with the scope of claim 177, wherein the radiation receiver uses the radiation to heat the liquid. For construction. 〇180. The building is in accordance with Article 177 of the patent application, wherein the liquid is water, and the building further includes a hot water supply piping system that receives hot water from the radiation receiver. 181. The building is patented Scope No. 179, in which the liquid circulates the building through indoor piping to provide heating for the building. 182. The building According to Article 177 of the patent application, the collection equipment is similar to the roof of the mountain. 0 183. The building is based on the 177th patent application scope, and the collection equipment is similar to the semi-cylindrical roof. 184. The building is based on the 177th patent application scope. The radiation receiver uses solar radiation to heat a medium for use in building fixtures. 185. The building is in accordance with Section 177 of the patent application, wherein the collection device is a Fresnel lens dome. 186. The building is based on the scope of the patent application. Item 177, wherein the collection device comprises a collection frame supporting a collection surface having a plurality of lens sections, wherein the collection frame has a appearance similar to a half of a Buckminster fullerene molecule. 115 201035505 187. The building is in accordance with Section 177 of the scope of the patent application, in which the collection equipment comprises a collection frame support, a collection surface with a plurality of lens sections, and a collection frame that looks like a half nanotube molecule. 188. The building is based on the scope of the patent application, item 187, which has a collection frame that resembles a nanotube tube with a half tube at both ends. 189. Portable solar radiation collection roof, collection frame support The collection surface for collecting solar radiation from multiple directions, the receiving surface having a plurality of sections that direct the solar radiation to a light-emitting reception consisting of photovoltaic materials. =. 190. A high-top collection of solar radiation suspended above the road, including a collection frame, supporting a collection surface with a plurality of lens sections, collecting solar radiation from multiple directions to a long string of optoelectronic wafers to generate DC power; Connected to the converter to convert DC power to AC power. 191. The building is based on the scope of the patent application, item 190, which contains a collection frame that looks like a half nanotube molecule. 192. The building is based on Section 190 of the patent application and further includes a set of roadside structures that support the collection frame on both sides of the road across the road. 193. The building is based on Section 190 of the patent application and further includes the electric vehicle charging station receiving power from the converter. 194. A beach umbrella that collects solar radiation, supported by a mast to collect the umbrella surface, wherein there are a plurality of face-receiving surfaces that collect solar radiation from multiple directions; the receiving surface 'lights the sun to a light consisting of photovoltaic materials The receiver is launched to generate DC power. 19 5. The beach umbrella further comprises a multi-directional compound eye radiation concentrator according to the scope of patent application No. 194, each of which has a concentrating cylinder, which is directly radiated by the sun to the radiation receiver. 196. The beach umbrella is in accordance with claim 194, wherein the concentrating tube is a reflective light guide tube, or a beach umbrella for collecting solar radiation, supported by a mast to collect the umbrella surface with a photoelectric film or a nanometer of different wavelengths. The antenna film generates electricity. ❹ 117