Abstract: A glass manufacturing device includes a main body defining a working space, a fixing device and a grit blower in communication with the working space. The fixing device includes a first fixing assembly, a second fixing assembly, and a locking assembly. The first and second fixing assemblies are rotatably connected with each other and used for clamping a glass substrate. The first fixing assembly includes a number of shielding elements spaced from each other. The locking assembly is used for locking the first and second fixing assemblies. The grit blower is disposed opposite to the first fixing assembly and used for blasting grit on the glass substrate, and thus the portions of the glass substrate which are not shielded by the shielding elements are cut off during the process of grit-blasting. Remaining portions of the glass substrate shielded by the shielding elements are the desired product.

Abstract: A mask includes a base board, a number of wing boards, and aluminum foil. The wing boards are detachably attached to the base board in pairs, in a certain disposition and order and are rotatable relative to the base board in a substantially coplanar manner. The aluminum foil wraps around the base board and the wing boards so as to achieve a contour that is cooperatively defined by the base board and the wing boards.

Abstract: A spraying and printing device includes a supporting platform, a linear driving mechanism, a printing mechanism, and a spraying mechanism. The supporting platform is configured for placing a plurality of preprinted workpieces. The linear driving mechanism is mounted above the supporting platform, and includes a guiding rail and a moving member movably sleeved on the guiding rail. The printing mechanism is mounted to the moving member and positioned above the supporting platform. The printing mechanism includes at least one roller. The spraying mechanism is assembled to one end of the guiding rail and includes a plurality of spraying nozzles for spraying different dyes on the at least one roller. The at least one roller is driven by the moving member to slide along the guiding rail back and forth thereby printing different dyes on the workpieces.

Abstract: An evaporation coating device includes a hollow main portion, a loading rack, a source material, and a mask. The loading rack is received in the main portion and mounted on a top plate of the main portion for carrying workpieces to be coated. The source material for evaporation is arranged on a bottom plate of the main portion. The mask is positioned between the loading rack and the source material and includes a mounting rod, two masking plates rotatably mounted on the mounting rod and an adjusting element engaged with the mounting rod and positioned between the two masking plates. The masking plates cooperatively constitute a masking surface and the two masking plates can be rotated by the adjusting element to change the shape of a contour of the masking surface.

Abstract: A lens dewaxing device includes a platform, a heating plate, a first linear actuator, a second linear actuator, and an operating plate. The platform includes a base and a support positioned on the base. The heating plate is positioned on the base. The first linear actuator includes a first rail fixed to the support, in parallel with the heating plate, and a first slider slidably riding on the first rail. The second linear actuator includes a second rail and a second slider slidably riding on the second rail. The second slider is connected to the first slider in such a way that the second rail is perpendicular to the heating plate. The operating plate is fixed to the second rail at an end far from the first linear actuator and in parallel with the heating plate.

Abstract: A coating apparatus includes a chamber device and a transporting device. The chamber device defines two separated coating chambers, two coating channels, which are alternately arranged, two coating slots communicating the coating chambers with the coating channels respectively, and a transportation channel extending to intersect the coating chambers and the coating channels and communicate with the coating channels. The transporting device includes a carrying board for carrying a substrate to be coated and an a driver for driving the carrying board to move along the transportation channel and to rotate the carrying board into one of the coating channels so that the substrate faces and aligns a corresponding coating chamber via a corresponding coating slot.

Abstract: A glass manufacturing device includes a working container, a loading device, a sand blower, a shielding device, and a supporting device. The loading device is received in the working container and configured for loading a glass substrate in place. The sand blower is arranged opposite to the loading device and configured for sandblasting the glass substrate. The supporting device is used for supporting the shielding device and pressing the shielding device onto the glass substrate during the process of sandblasting. The shielding device includes a shielding cover having a number of shielding units. The shielding units are configured to shield portions of the glass substrate and prevent the portions of the glass substrate from being cut during sandblasting.

Abstract: A glass manufacturing device includes a main body defining a working space, a fixing device and a grit blower in communication with the working space. The fixing device includes a first fixing assembly, a second fixing assembly, and a locking assembly. The first and second fixing assemblies are rotatably connected with each other and used for clamping a glass substrate. The first fixing assembly includes a number of shielding elements spaced from each other. The locking assembly is used for locking the first and second fixing assemblies. The grit blower is disposed opposite to the first fixing assembly and used for blasting grit on the glass substrate, and thus the portions of the glass substrate which are not shielded by the shielding elements are cut off during the process of grit-blasting. Remaining portions of the glass substrate shielded by the shielding elements are the desired product.

Abstract: A coating device includes a table, a number of coating housings, a carrier, a number of conveyors, and a number of turntables. The coating housings are separately mounted on the table, and each including a hatch formed thereon. The hatches of all the coating housings face towards a same direction. The carrier are used for carrying one or more products to be coated. The conveyors are distributed on the table around each of the coating housing, and respectively extend into the inside of the coating housing through the hatch for delivering the carrier into the coating housings in turn. The turntables are installed between every two adjacent conveyors for transporting the carrier from a preceding conveyor to a succeeding conveyor according to a predefined route, respectively.

Abstract: A cleaning apparatus includes a heating device, a freezing device, and a conveying belt. The heating device includes a hot water source and a hot water container. The hot water container includes an exit shutter and defines a water inlet and a water outlet. The hot water source being communicated to the hot water container via the water inlet. The freezing device includes an aerosol spray system and a freezing container. The spray system includes a spray head. The freezing container includes an entrance shutter. The spray head is received in the freezing container. The conveying belt extends into the hot water container via the exit shutter and into the freezing container via the entrance shutter and thereby bridges the hot water container and the freezing container.

Abstract: A glass manufacturing device includes a work container, a loading device, a sandblaster, a shield device, and a lift device. The loading device is received in the work container and loads a glass substrate in place. The sandblaster is arranged opposite to the loading device and sandblasts the glass substrate. The lift device is connected to the shield device and used for pressing the shield device onto the glass substrate during the process of sandblasting. The shield device includes a shield cover having a number of shield units. The surfaces of the shield units facing the bottom of the work container are engaged with elastic washers. The shield units are configured to shield portions of the glass substrate and prevent the portions of the glass substrate from being cut during sandblasting.

Abstract: A solar energy application device, comprising: a solar cell panel comprising a light receiving surface; an electrochromic unit provided on the light receiving surface; and a heat collection device electronically connected to the electrochromic unit; wherein a color of the electrochromic unit changes between a transparent state to a darkened state; wherein in the transparent state of the electrochromic unit, light is incident on the light receiving surface, and the solar cell panel converts the light into electricity; and wherein in the darkened state of the electrochromic unit, the electrochromic unit absorbs the ray to generate heat and then transmits the heat to the heat collection device.

Abstract: A spin coating device includes a container and a rotating member. The container is used for holding a first solution and includes a sidewall which a plurality of substrates are arranged on. The rotating member is rotatable within the container and includes an inlet and at least one outlet. A second solution flows into the rotating member through the inlet, and flows into the container through the at lease one outlet. A mixture of the first solution and the second solution is spread onto the substrate by centrifugal force of the rotating member.

Abstract: A dip coating apparatus includes a housing and a workpiece holder movably and rotatably received in the housing. The housing includes an immersing portion configured for carrying out immersion process and a drying portion configured for carrying out drying process. The inner spaces of the immersing portion and the drying portion are communicated with each other. The lifting workpiece holder is configured for fixed workpieces thereon and moving and rotating relative to the immersing portion and the drying portion of the housing. The workpieces are driven by the lifting-rotating to carry out the immersion process and the drying process.

Abstract: A method for making a conductive film includes: providing a carbon nanotube film defining a plurality of holes therein; attaching the carbon nanotube film on a substrate; adjusting a temperature of the carbon nanotube film in a range from about 7° C. to about 9° C.; dropping and rubbing a nanoparticle aqueous solution in the carbon nanotube film, the nanoparticles aqueous solution containing a plurality of nanoparticles; and adjusting the temperature of the carbon nanotube film in a range from about 24° C. to about 26° C. and drying the carbon nanotube film to obtain the conductive film on the substrate.

Abstract: A dip coating apparatus includes a container, a separating plate, an air intake, at least one driving module, and at least one carrying base. The separating plate separates the container into a first chamber and a second chamber, and defines a through opening communicating the two chambers. The first chamber is configured for drying workpieces, and the second chamber is configured for carrying coating liquid to coat the workpieces. The air intake takes drying air into the first chamber. The driving module is mounted on the separating plate. The carrying base carries the workpieces, and is connected to the driving module and positioned in the second chamber. Driven by the driving module, the carrying base is able to dip the workpieces into the coating liquid for coating, and is able to cover the through opening and expose the workpieces to the first chamber for drying.

Abstract: A method for assembling a lens module is provided. The lens module includes a lens barrel, a lens holder, a lens and a filter. The lens barrel includes a first portion and a second portion. The method for assembling the lens module includes the steps of; providing a tray which defines a plurality of perforations, each of which is for accommodating the lens barrel; spreading glue on the second portion, and affixing the filter on the second portion by means of glue; solidifying the glue; cleaning the inside of the lens barrel after the filter is mounted on the second portion; cutting the filter into a plurality of filter portions whose shape matches the shape of the second portion; and placing the lens holder with the lens into the lens barrel complete with a filter portion after the lens barrel has been cleaned.

Abstract: A coating apparatus includes a deposition case, a reaction assembly, two precursors, a target, and a driving assembly. The deposition case includes a housing defining a cavity for receiving workpieces. The reaction assembly receives in the cavity and includes an outer barrel, an inner barrel, a plurality of nozzles, and a plurality of pipes. The outer barrel includes a main body and two protruding bodies. The main body and the inner barrel cooperatively define a first room therebetween. Each protruding body defines a second room communicating with the first room. The inner barrel defines a third room. The nozzles extend from the main body and communicate with the first room. The pipes extend from the inner barrel and communicate with the third room. The precursors receive in the second rooms. The target receives in the third room. The driving assembly drives the housing to rotate relative to the reaction assembly.

Abstract: A magnetron sputtering device includes a base arranged adjacent to a sputtering target, and a plurality of movable magnet assemblies. Each movable magnet assembly includes a support fixed to the base, and a plurality of magnets that are connected to each other, arranged on the support and comprising opposing poles facing the base. Each movable magnet assembly also includes a driving device to drive the plurality of magnets to slide with respect to the support.

Abstract: A lens barrel coating aid apparatus includes a holder, a suction component and a suction source. The holder includes a holding surface, securing portions positioned on the holding surface to fix lens barrels, and a first positioning portion. The first positioning portions are formed on the holding surface, and spaced from the securing portions. The suction component includes a suction surface facing the holding surface and a second positioning portion corresponding to the first positioning portion. Suction holes are defined on the suction surface corresponding to the securing portions. The suction holes are configured to suck plugs to insert into or pull out of the lens barrels. The second positioning portions are formed on the suction surface, and spaced from the suction holes. The suction source is connected with the suction holes, and provides suction force to the suction holes.