Abstract: A connector module includes a board connector and a cable connector. The board connector includes a board connecting body whereon a slot is formed, conductive terminals disposed on the board connecting body and extending into the slot, and two metal pads disposed on two sides of the board connecting body and each having a resilient buckle. The cable connector includes a cable connecting body including an installation portion and two engaging portions, and a flexible transmission unit installed in the installation portion. Contacts are disposed on a front end of the flexible transmission unit. The front end of the flexible transmission unit is inserted into the slot, the conductive terminals contact with the contacts, and the resilient buckles engage with the engaging portions when the cable connector is connected with the board connector.

Abstract: A connector structure includes a first connecting component, a rigid circuit board and a second connecting component. The first connecting component includes a first main body whereon a slot is formed, and a plurality of first terminals disposed on the first main body. Each first terminal includes a contacting portion extending into the slot, and a welding portion protruding out of the first main body. The rigid circuit board is assembled into the slot and contacts the contacting portions of the plurality of first terminals. The second connecting component is installed on the rigid circuit board and electrically connected to the plurality of first terminals. The second connecting component includes a second main body, a shielding plate, a plurality of second terminals and a metal shell. The second connecting component, the rigid circuit board and the first connecting component are cooperatively formed in a reverse L-shaped structure.

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 reducing light-induced-degradation in manufacturing a solar cell, comprises 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 disassembling device for lens module which has a lens barrel and at least one optical component received in the lens barrel. The disassembling device includes a carrying platform, a cylindrical cutting tool, a cutting tool holder, and a driving device. The carrying platform includes a carrying surface for placement of the lens module. The cutting tool is arranged onto the cutting tool holder and is collinear with the lens barrel. A diameter of the cutting tool is greater than an inner diameter of the lens barrel and is less than an external diameter of the lens barrel. The driving device is connected to the cutting tool holder and moves the cutting tool holder along a central axis of the lens barrel, thereby the lens barrel can be cut and thinned by the cutting tool.

Abstract: Provided is a lens module assembly device for assembling a filter glass into a lens barrel of a lens module. The lens module assembly device includes a clipping element, a receiving element, and a pushing element. The clipping element includes a chamber configured for clipping the lens barrel. The receiving element extends from one end of the clipping element and includes a receiving portion for receiving a number of filter glasses. The receiving portion includes a resisting end received in the chamber and an entrance end away from the resisting end. The pushing element is inserted into the receiving portion through the entrance end until resisting against one of the filter glass. The pushing element pushes one of filter glasses out of the receiving portion into the lens barrel.

Abstract: A solar cell includes a photovoltaic substrate, a front electrode, and a back electrode. The back electrode is disposed on a back surface of the photovoltaic substrate and includes a collector layer and a bus electrode. The collector layer has at least one collector opening having a main opening portion and an expansive opening portion. The expansive opening portion has an outer expansive edge which is at least partially arcuate. The expansive opening portion has a width larger than a width of the main opening portion. The bus electrode includes at least one bus electrode segment corresponding in position to the collector opening. The at least one bus electrode segment is exposed from the at least one collector opening, and has an end portion exposed from the expansive opening portion.

Abstract: A lens module assembling device includes a platform, a deformable support member, a deformable limiting unit and a gas blowing device. The platform includes a first surface and a second surface opposite to the first surface, the platform includes a receiving recess configured for receiving the deformable support member. The platform includes a bottom surface defines a plurality of through holes. The through holes through the bottom surface and the second surface. The deformable support member is placed on the bottom surface in a way such that the through holes are exposed. The deformable limiting unit is arranged on the first surface. The deformable limiting unit defines a limiting hole limiting the lens barrel in the recess. The gas blowing device is arranged below the second surface of the platform and configured for blowing gas to the lens module through the through holes.

Abstract: A glue dispenser comprises a container accommodating glue, a glue dispensing head and a glue dispensing ring. The glue dispensing head is connected with the container, the glue dispensing head is substantially cylindrical and includes a top surface and a bottom surface opposite to the top surface, the top surface is arranged inside the container, the bottom surface is exposed outside the container, the glue dispensing head has a plurality of through holes extending from the top surface towards the bottom surface to ensure the steady extrusion of glue in small quantities from multiple small outlets arranged in a circle.

Abstract: A lens assembly method for assembling a plurality of lenses into a plurality of lens tubes is disclosed. The method includes providing a lens assembly tool comprising a lens receiving frame, a positioning plate, and a pressing plate forming a plurality of pressing punches; positioning a plurality of lens tubes in a plurality of receiving holes of the lens receiving frame; positioning one lens in each of the lens tubes; positioning the positioning plate on the lens receiving frame with the lens tubes extending through a plurality of through holes of the positioning plate; and positioning the pressing plate on the positioning plate with the pressing punches entering into the lens tubes to push the lenses into the lens tubes.

Abstract: An optical lens mold includes a mold body, a magnetic fluid, a plurality of thermocouples, a plurality of electromagnets, a controlling unit and a power source. The mold body defines a plurality of injection chambers and a cooling channel surrounding the plurality of injection chambers. The magnetic fluid contains magnetic particles and flows in the cooling channel. The thermocouples are capable of sensing temperatures of the plurality of injection chambers correspondingly. The electromagnets are positioned above the cooling channel corresponding to the plurality of thermocouples. The plurality of thermocouples and the plurality of electromagnets are connected to the controlling unit via the power source, the controlling unit is capable of the comparing the standard temperature value with temperature values sensed by the plurality of thermocouples, and maintaining the temperature of the plurality of injection chambers in a normal state.

Abstract: Provided is a device for pushing out lenses from a test tray to a lens tray. The device includes a pushing tray, two force application trays, and at least two bolts. The pushing tray includes a surface and four sidewalls. A number of projections extend upward from the first surface. The projections are configured for pushing the lenses. Two opposite sidewalls each define at least one threaded hole. Each of the force application trays defines at least one slot. A length of the at least one slot runs in direction parallel to the projections. The two force application trays are configured for clamping the test tray. Each bolt passes through a respective slot and is screwed into a respective threaded hole of the pushing tray.

Abstract: An assembly tool for assembling a lens tube in a lens base includes a support base, a fastening unit, a first height sensor, and a second height sensor. The support base defines a positioning groove for receiving the lens base. The fastening unit includes a fastening pole and a torque meter connected to an end of the fastening pole. The fastening pole forms a plurality of connecting portions for engaging with the lens tube. The first height sensor is positioned on the support base to detect a height of the lens base. The second height sensor is positioned on the support base to detect a height of an optical lens formed by the lens tube and the lens base.

Abstract: A disassembling device for lens module which has a lens barrel and at least one optical component received in the lens barrel. The disassembling device includes a carrying platform, a cylindrical cutting tool, a cutting tool holder, and a driving device. The carrying platform includes a carrying surface for placement of the lens module. The cutting tool is arranged onto the cutting tool holder and is collinear with the lens barrel. A diameter of the cutting tool is greater than an inner diameter of the lens barrel and is less than an external diameter of the lens barrel. The driving device is connected to the cutting tool holder and moves the cutting tool holder along a central axis of the lens barrel, thereby the lens barrel can be cut and thinned by the cutting tool.

Abstract: A method for assembling a lens module includes the following steps. Firstly, a lens barrel, at least one optical element, a spacer ring, and a fixing ring are provided. The spacer ring includes an annular projection along a circumference of the spacer ring. The fixing ring includes a annular pipe and glue received in the pipe. The film is made of ethylene-vinyl acetate copolymer. Secondly, the at least one optical element and the spacer ring are put into the barrel, with an annular groove defined between the projection and the barrel. Thirdly, the fixing ring is placed in the groove. Fourthly, the fixing ring is heated and the film is melted to let the glue fill the groove. Finally, the glue is cured to fix the spacer ring and the at least one optical element in the barrel.

Abstract: A lens assembly method for assembling a plurality of lenses into a plurality of lens tubes is disclosed. The method includes providing a lens assembly tool comprising a lens receiving frame, a positioning plate, and a pressing plate forming a plurality of pressing punches; positioning a plurality of lens tubes in a plurality of receiving holes of the lens receiving frame; positioning one lens in each of the lens tubes; positioning the positioning plate on the lens receiving frame with the lens tubes extending through a plurality of through holes of the positioning plate; and positioning the pressing plate on the positioning plate with the pressing punches entering into the lens tubes to push the lenses into the lens tubes.

Abstract: A gluing device includes a supporting member, a gluing syringe, a first air compressor, and a second air compressor. The supporting member includes a loading surface. The gluing syringe is positioned above the loading surface and includes a main portion and a glue outlet portion. The main portion contains glue. Glue is expelled from the outlet portion. The first air compressor compresses the glue out of the main portion through the glue outlet portion. The second air compressor vaporizes the expelled glue through the glue outlet.

Abstract: A lens assembly tool includes a lens receiving frame having a first surface, a positioning plate positioned on the lens receiving frame, and a pressing plate positioned on the positioning plate and having a second surface. The first surface defines a plurality of receiving holes. The positioning plate defines a plurality of through holes aligned with the plurality of receiving holes. The second surface forms a plurality of pressing punches aligned with the plurality of receiving holes.

Abstract: A glue dispensing device includes a glue tube and a ball. The glue tube includes a taped glue outflow end. The glue outflow end defines a round opening. The ball is movably received in the glue tube, a diameter of the ball is greater than a diameter of the round opening. The ball closes the round opening when not being pressed, and opens the round opening when being pressed.

Abstract: A lens module assembling device includes a platform, a deformable support member, a deformable limiting unit and a gas blowing device. The platform includes a first surface and a second surface opposite to the first surface, the platform includes a receiving recess configured for receiving the deformable support member. The platform includes a bottom surface defines a plurality of through holes. The through holes through the bottom surface and the second surface. The deformable support member is placed on the bottom surface in a way such that the through holes are exposed. The deformable limiting unit is arranged on the first surface. The deformable limiting unit defines a limiting hole limiting the lens barrel in the recess. The gas blowing device is arranged below the second surface of the platform and configured for blowing gas to the lens module through the through holes.