Abstract: A method for reducing light-induced-degradation in manufacturing a solar cell, includes the steps of: (a) irradiating the solar cell with an irradiance; (b) maintaining the solar cell within a temperature range; (c) removing the solar cell away from the irradiance of step (a) after a time; and (d) determining the irradiance, the temperature range, and the time such that the LID is optimally below a predetermined LID.

Abstract: A method for setting addresses of slave devices in a communication network is provided. In the communication network, a master device identifies address-collided slave devices and requests the address-collided slave devices to return their unique identification data. The master device sets addresses of the address-collided slave devices so that each of the slave devices in the communication network has a different address from one another.

Abstract: A solar cell, a method for manufacturing the same and a solar cell module are described. The solar cell includes a substrate of a second conductivity type, an emitter layer, a first oxide layer, an auxiliary passivation layer, a back surface field layer, a second oxide layer, a first electrode and a second electrode. The substrate includes a first surface and a second surface opposite each other. The emitter layer, the first oxide layer and the auxiliary passivation layer are sequentially disposed on the first surface. Materials of the auxiliary passivation layer and the first oxide layer are different. The back surface field layer and the second oxide layer are sequentially disposed on the second surface. The first electrode is disposed above the first surface and contacts with the emitter layer. The second electrode is disposed above the second surface and contacts with the back surface field layer.

Abstract: An alternating current (AC) line emulator includes an AC power supply and an automatic regulating load. The AC power supply is used for providing an AC line frequency and an AC line voltage. The automatic regulating load is coupled between the AC power supply and a grid-connected power generation system for functioning as a test load of the grid-connected power generation system, and preventing current from reversing to the AC power supply and shutting down the AC power supply. When the grid-connected power system is tested, power consumption of the automatic regulating load is equal to a sum of output power of the grid-connected power generation system and output power of the AC power supply.

Abstract: A solar cell includes a semiconductor substrate, a back electrode layer and a front electrode layer including a first bus bar, a second bus bar, first finger bar units, second finger bar units, first interconnecting bars, and second interconnecting bars. The first finger bar units are spaced apart from the second finger bar units. Each of the first finger bar units has first finger bars and a first auxiliary bar connected to the first finger bars. Each of the second finger bar units has second finger bars and a second auxiliary bar connected to the second finger bars. Each first interconnecting bar interconnects two adjacent first finger bar units. Each second interconnecting bar interconnects two adjacent second finger bar units.

Abstract: A method for setting addresses of slave devices in a communication network is provided. In the communication network, a master device identifies address-collided slave devices and requests the address-collided slave devices to return their unique identification data. The master device sets addresses of the address-collided slave devices so that each of the slave devices in the communication network has a different address from one another.

Abstract: A solar cell includes: a semiconductor substrate having a back surface with a first doped region and a second doped region, the back surface being roughened to forma roughened region; a dielectric layer disposed on the back surface; a first electrode having a first surface conforming to the shape of the back surface; and a second electrode having a second surface conforming to the shape of the back surface.

Abstract: A method for manufacturing a polysilicon ingot includes: (a) providing molten silicon in a container; (b) maintaining a surface temperature of the molten silicon higher than its melting point while decreasing the temperature of a base portion of the container to a temperature (T1) lower than the melting point at a rate of at least 2.6° C./min; (c) increasing the temperature of the base portion to a temperature (T2) lower than the melting point; (d) maintaining the surface temperature of the molten silicon higher than the melting point while decreasing and then increasing the temperature of the base portion to a temperature lower than the melting point of silicon; and (e) reducing the temperature of the molten silicon to form the polysilicon ingot.

Abstract: A solar cell includes: a substrate having a front surface and a back surface; a dielectric layer disposed on the back surface and having at least two through holes to expose the back surface; at least two first electrode layers formed on the dielectric layer and respectively filling in the through holes to contact the substrate; at least one second electrode layer entirely formed on the dielectric layer and disposed between the first electrode layers; at least one space disposed on the dielectric layer; and at least one third electrode layer filled in the space to interconnect the second electrode layer and one of the first electrode layers.

Abstract: A solar cell module includes multiple solar cells connected in series through wiring units. Each solar cell comprises an electrode unit disposed on a photoelectric conversion unit converting solar energy into electrical energy, and including multiple finger electrodes. At least one finger electrode has a first conducting section connected to a bus bar electrode, and a second conducting section disposed on one side of the first conducting section, extending away from the bus bar electrode and having a thickness greater than that of each of the first conducting section and the bus bar electrode.

Abstract: A solar cell module includes lower and upper substrates that are spaced apart from each other, a plurality of spaced apart solar cells, a plurality of gratings, and a light-transmissive encapsulant disposed between the lower and upper substrates to encapsulate the solar cells and the gratings. Each of the gratings has a grating center, and four reflecting regions formed around the grating center. Each of the reflecting regions has a light entrance face that has a plurality of valleys and peaks. The valleys and peaks alternate with each other along a direction from the grating center to a corresponding one of the corners of a corresponding one of the four adjacent solar cells.

Abstract: A solar cell structure includes a silicon crystal having at least one slant penetrating hole, the penetrating hole internally having at least one inclined surface; an emitter covering the silicon crystal and the inclined surface in the penetrating hole; and a first metal electrode being electrically connected to the emitter and located in the penetrating hole of the silicon crystal at a bottom thereof. By forming the inclined surface having an inclination angle in the slant penetrating hole, light incident upon the inclined surface of the penetrating hole can have a length-increased optical path in the solar cell to thereby enhance the photocurrent of the solar cell.

Abstract: The present invention discloses a silicon solar cell including a silicon crystal, an emitter, a conductive layer, and a first metal electrode. The silicon crystal has at least one through hole formed thereon. The emitter covers at least the silicon crystal and an inner surface of the through hole on the silicon crystal; the conductive layer covers at least a portion of the emitter that is located on the inner surface of the through hole; and the first metal electrode is located in the through hole on the silicon crystal and is electrically connected at least to the conductive layer.

Abstract: A solar cell module is disclosed. The solar cell module comprises a first protective layer, a solar cell layer, a sealing material layer and a second protective layer, wherein the sealing material layer is composed of polyurethane formed by reacting an acrylic resin with a curing agent such that the yield of the solar cell module can be improved.

Abstract: The present invention provides a surface structure of a crystalline silicon solar cell and a manufacturing method thereof. The surface structure of the crystalline silicon solar cell comprises a main body having a front side microstructure and a back side microstructure. A surface morphology of the front side microstructure includes a plurality of cone structures, a surface morphology of the back side microstructure includes a plurality of arc structures, and a surface roughness of the front side microstructure is greater than that of the back side structure.

Abstract: A supporting device includes a support body for supporting a substrate and an auxiliary wing for supporting the corner of the substrate, so that the substrate is substantially horizontally disposed on the supporting device. Also disclosed is a substrate transportation equipment including the supporting device and a movable protruding member. The substrate transportation equipment can prevent the movable protruding member from hitting the edge of the substrate when the movable protruding member moves.