Abstract: The present invention discloses an electrical inspection method for solar cells, comprising steps of supplying a voltage and a current to a solar cell for stimulating the solar cell and giving a ray of light; filtering the light to give a ray of light having a predetermined wavelength; and measuring an optical power value of the light having a predetermined wavelength. The electrical inspection method adopts a low-cost apparatus to replace the solar simulators according to the prior art. In addition to saving costly equipment, filter adjustment, and the maintenance fee for replacing lamps, the defect inspection flow for solar cells can be further integrated and hence improving the efficiency.

Abstract: The present invention uses a power supply to splay a forward bias to a concentrating solar cell. Then the solar cell will emit red light (electroluminescence). After passing the secondary optical device packaged on the solar cell, the red light will exhibit specific light distribution. According to the light distribution, the accuracy of the packaging location of the solar cell, the forming precision of the secondary optical device, and whether the optical devices are defective can be examined.

Abstract: The present invention uses a power supply to splay a forward bias to a concentrating solar cell. Then the solar cell will emit red light (electroluminescence). After passing the secondary optical device packaged on the solar cell, the red light will exhibit specific light distribution. According to the light distribution, the accuracy of the packaging location of the solar cell, the forming precision of the secondary optical device, and whether the optical devices are defective can be examined.

Abstract: The present invention discloses a concentrator photovoltaic module and the alignment device and method thereof. A laser source is disposed on a top surface of an alignment device at a tilt angle. According to the optical alignment points on a circuit board, the circuit board and the concentrating lens can be aligned and thus completing assembling a concentrator photovoltaic module. The alignment device and method for concentrator photovoltaic module requires no optically inactive region to complete alignment. Thereby, the utilization of the sunlight and the output power efficiency of the concentrator photovoltaic module can be enhanced.

Abstract: The present invention provides a hybrid solar module, including a back plate, a plurality of photovoltaic cells, a plurality of concentrating photovoltaic cells and a light transmissive protective plate. The photovoltaic cells are arranged as an array pattern on the back plate. Each of the concentrating photovoltaic cells is disposed in a gap area, wherein each gap area lies between four adjacent photovoltaic cells, and each group of four photovoltaic cells includes first to fourth photovoltaic cells, with right, lower right and lower sides of the first photovoltaic cell adjacent to the second, third and fourth photovoltaic cells respectively. The transmissive protective plate is disposed on the photovoltaic cells and the concentrating photovoltaic cells.

Abstract: The present invention discloses a concentrator photovoltaic module and the alignment device and method thereof. A laser source is disposed on a top surface of an alignment device at a tilt angle. According to the optical alignment points on a circuit board, the circuit board and the concentrating lens can be aligned and thus completing assembling a concentrator photovoltaic module. The alignment device and method for concentrator photovoltaic module requires no optically inactive region to complete alignment. Thereby, the utilization of the sunlight and the output power efficiency of the concentrator photovoltaic module can be enhanced.

Abstract: The present invention discloses a concentrator photovoltaic module and the alignment device and method thereof. A laser source is disposed on a top surface of an alignment device at a tilt angle. According to the optical alignment points on a circuit board, the circuit board and the concentrating lens can be aligned and thus completing assembling a concentrator photovoltaic module. The alignment device and method for concentrator photovoltaic module requires no optically inactive region to complete alignment. Thereby, the utilization of the sunlight and the output power efficiency of the concentrator photovoltaic module can be enhanced.

Abstract: The present invention discloses a concentrator photovoltaic module and the alignment device and method thereof. A laser source is disposed on a top surface of an alignment device at a tilt angle. According to the optical alignment points on a circuit board, the circuit board and the concentrating lens can be aligned and thus completing assembling a concentrator photovoltaic module. The alignment device and method for concentrator photovoltaic module requires no optically inactive region to complete alignment. Thereby, the utilization of the sunlight and the output power efficiency of the concentrator photovoltaic module can be enhanced.

Abstract: The present invention discloses an electrical inspection method for solar cells, comprising steps of supplying a voltage and a current to a solar cell for stimulating the solar cell and giving a ray of light; filtering the light to give a ray of light having a predetermined wavelength; and measuring an optical power value of the light having a predetermined wavelength. The electrical inspection method adopts a low-cost apparatus to replace the solar simulators according to the prior art. In addition to saving costly equipment, filter adjustment, and the maintenance fee for replacing lamps, the defect inspection flow for solar cells can be further integrated and hence improving the efficiency.

Abstract: The present invention relates to a method for packaging solar cell device and the structure thereof. The structure comprises a substrate formed by glass or insulating high polymer, an insulating layer, a plurality of conductive layers, and a plurality of solar cells. A plurality of conductive films are disposed on a surface of the substrate. The insulating layer is disposed on the substrate and comprises a plurality of holes located on the plurality of conductive films. The plurality of conductive layers are disposed in the plurality of holes. A bottom surface of the plurality of conductive layers is connected electrically with the plurality of conductive films. The plurality of solar cells are disposed on the insulating layer and connected electrically with the top surface of the plurality of conductive layer.

Abstract: The present invention relates to a method for packaging secondary optical element. By coating optical glue on the bottom surface of the secondary optical element and on the substrate and by hardening individually, as well as using the technical characteristics of flipping the substrate and the fixture, the secondary optical element can fall naturally and be positioned above an optoelectric device such as a solar cell or a light-emitting diode. No additional fastener is required for supporting the secondary optical element.

Abstract: The present invention relates to a method for packaging secondary optical element. By coating optical glue on the bottom surface of the secondary optical element and on the substrate and by hardening individually, as well as using the technical characteristics of flipping the substrate and the fixture, the secondary optical element can fall naturally and be positioned above an optoelectric device such as a solar cell or a light-emitting diode. No additional fastener is required for supporting the secondary optical element.

Abstract: The present invention relates to a method for packaging solar cell receivers having secondary optical elements. The present invention adopts a mold having mold cavities with special shapes. By filling mold cavities with optical encapsulant, the substrate containing solar cells is placed upside down towards the mold. Then the solar cells are immersed into the optical encapsulant before curing. Then, the cured optical encapsulant has the characteristics of the secondary optical elements and thus can be used as secondary optical elements such as spherical lenses. Meanwhile, the packaging of the solar cells is completed as well. The overall process requires only one curing process, which reduces the packaging time substantially.

Abstract: A method of packaging ball lends of a solar collector contains step of coating optical clear adhesives on colloid layers twice, and the optical clear adhesives are solidified so that a solar cell, plural gold wires, and an electric circuit are packaged, thus eliminating use of a conventional support component, lowering weight of the solar collector, and simplifying the solar collector. Moreover, a dam is applied to absorb stray light so as to enhance light absorption of the solar cell and working efficiency of the solar collector.

Abstract: The present invention relates to a frame structure of solar cell module, which adopts extruded aluminum as the frame member of solar cell module. At the junctions of the length, width, and height edges, connecting members using the three-axis joining and tenoning technology are used as fixing members. The tenon parts in both horizontal directions of the three-axis connecting member are first inserted into and joined with the mortises of the length-edge bar and the width-edge bar of extruded aluminum. Then the mortises in the height-edge bar are joined with the tenon parts of the connecting member in the vertical direction and thus completing assembling of the frame of solar cell module.

Abstract: The present invention relates to a fixing apparatus for ball lens used for facilitating installation of concentrator solar cell receiver module. The present invention can finish installing the fixing base for ball lens at a time and positioning the ball lens rapidly and accurately. It can also control the distance between the ball lens and the solar cell excellently. In addition, the present invention further has the function of sheltering the circuit of concentrator solar cell receiver module. When off-axis illumination of sunlight occurs, direct illumination of sunlight on, and consequently high-temperature burnout of, the circuit can be avoided. Thereby, the lifetime of the circuit can be extended effectively and the probability of failure can be reduced as well.

Abstract: The present relates to a heating device structure, which comprises a heat conducting member to mate with the heat dissipation fins of an electronic device. Thereby, during the packaging process of the electronic device, the effect of multi-point heating can be achieved by combining the heat conducting member and the fins. Accordingly, heating can be performed rapidly to reach the soldering temperature. Without the influence of the structure of heat dissipation fins, the heating process will not be performed at low efficiency.

Abstract: The present invention relates to a concentrator-type photovoltaic receiver having homogenizer with fixing structure. The resent invention improves the structure of the homogenizer, which comprises a homogenizing part providing homogenizing function and a supporting part providing supporting and fixing function. The homogenizing part and the supporting part are formed integrally. The supporting part is a straight pillar. The user can bond the supporting part to the insulating substrate via glue and thus preventing the homogenizing part therein from collapse and contamination by dirt. Accordingly, good quality and lifetime can be maintained.

Abstract: The present invention relates to an apparatus combining bypass diode and wire. According to the present invention, the bypass diode can connect with the wire directly. It is not necessary to reserve an extra region on the substrate of the solar cell as the wire soldering area. Thereby, the required area of the ceramic substrate is reduced, and hence lowering the manufacturing cost of the solar cell substantially.

Abstract: The present invention relates to a composite substrate with high thermal conductivity and applicable to concentrating solar power generating plates. The thermal conducting substrate and the circuit substrate are manufactured, respectively, for separating the light concentrating area and the circuit area so that the material with high thermal conductivity can be used completely to the thermal conducting substrate for guiding heat. Then, the material having common thermal conductivity can be chosen as the material for the circuit substrate, which needs no extra thermal conduction. Thereby, regarding to the selection of substrate material, the present can balance well between thermal conducting efficiency and cost control.