Abstract: A recycling apparatus for a solar cell module includes a platform for supporting and positioning the solar cell module, and at least one milling device disposed on the platform and having a milling member configured to contact a back plate of the solar cell module, and a casing defining a chip-receiving space and having an air inlet and a suction port communicating with the chip-receiving space. A drive device is connected to the at least one milling device for driving the at least one milling device to move around and mill the solar cell module through the milling member.

Abstract: A mobile dismantling system includes an automatic frame dismantling apparatus, a fragmenting apparatus, and a conveying apparatus, all of which are disposed on a mobile apparatus, such as a wheeled transport vehicle. The automatic frame dismantling apparatus includes a dismantling platform and frame dismantling members. The fragmenting apparatus includes a back plate fragmenting device and a cell encapsulation laminate fragmenting device, each of which has a fragmenting platform, a fragmenting unit, and a material collecting and sorting device. The conveying apparatus is disposed above the automatic frame dismantling apparatus and the fragmenting apparatus, and includes a robot for moving solar cell module.

Abstract: A system for physically dismantling a solar cell module includes two fragmenting apparatuses. The solar cell module includes a cell encapsulation laminate, and a back plate and a cover plate respectively disposed on two opposite sides of the cell encapsulation laminate. Each fragmenting apparatus includes a platform, a fragmenting unit disposed on and movable relative to the platform in three axial directions for fragmenting one of the cell encapsulation laminate and the back plate of the solar cell module, and a material-collecting and sorting device connected to the platform and the fragmenting unit for collecting and sorting recycled materials produced by the fragmenting unit.

Abstract: A mobile dismantling system includes an automatic frame dismantling apparatus, a fragmenting apparatus, and a conveying apparatus, all of which are disposed on a mobile apparatus, such as a wheeled transport vehicle. The automatic frame dismantling apparatus includes a dismantling platform and frame dismantling members. The fragmenting apparatus includes a back plate fragmenting device and a cell encapsulation laminate fragmenting device, each of which has a fragmenting platform, a fragmenting unit, and a material collecting and sorting device. The conveying apparatus is disposed above the automatic frame dismantling apparatus and the fragmenting apparatus, and includes a robot for moving solar cell module.

Abstract: A method for facilitating dismantling of a photovoltaic module includes steps of: obtaining, by an input module, product data of the photovoltaic module from a module information indicator provided on the photovoltaic module; retrieving, by a processor, a product identification code of the photovoltaic module by matching the product data against a database; generating, by an equipment controller, a control command based on the product identification code; and sending, by the equipment controller, the control command to a dismantling equipment to set equipment configuration parameters for the dismantling equipment to dismantle the photovoltaic module.

Abstract: A phase-shifting mask suited for equal line/space, small pitched, dense line pattern is disclosed. The phase-shifting mask includes a transparent substrate, a partially shielded mesa line pattern of first phase formed on the substrate, and a clear recessed line pattern of second phase etched into the substrate and is disposed right next to the partially shielded mesa line pattern. The partially shielded mesa line pattern has a plurality of alternating 5%-10% transmittance light-shielding regions and clear regions of the first phase. The partially shielded mesa line pattern and the clear recessed line pattern have the same line width. The light that passes through the clear regions of the first phase and the light that passes through the clear recessed line pattern of second phase have a phase difference of 180 degree.

Abstract: A phase shifting mask suited for equal line/space, small pitched, dense line pattern is disclosed. The phase shifting mask includes a transparent substrate, a partially shielded mesa line pattern of first phase formed on the substrate, and a transparent recessed line pattern of second phase etched into the substrate and is disposed right next to the partially shielded mesa line pattern. The partially shielded mesa line pattern has a plurality of alternating opaque regions and transparent regions of the first phase. The partially shielded mesa line pattern and the clear recessed line pattern have the same line width. The light that passes through the transparent regions of the first phase and the light that passes through the transparent recessed line pattern of second phase have a phase difference of 180 degree.

Abstract: A phase-shifting mask suited for equal line/space, small pitched, dense line pattern is disclosed. The phase-shifting mask includes a transparent substrate, a partially shielded mesa line pattern of first phase formed on the substrate, and a clear recessed line pattern of second phase etched into the substrate and is disposed right next to the partially shielded mesa line pattern. The partially shielded mesa line pattern has a plurality of alternating 5%-10% transmittance light-shielding regions and clear regions of the first phase. The partially shielded mesa line pattern and the clear recessed line pattern have the same line width. The light that passes through the clear regions of the first phase and the light that passes through the clear recessed line pattern of second phase have a phase difference of 180 degree.