Abstract:
A method of preparing a polymer composite membrane is provided, and includes: providing a separator, providing a spinning solution comprising a mixed solvent and a spinning polymer dissolved in the mixed solvent, the mixed solvent comprising a first solvent having a boiling point ranging from about 150 ℃ to about 170 ℃, and a second solvent having a boiling point ranging from about 175 ℃ to about 220 ℃, a mass ratio of the first solvent and the second solvent ranging from about 7: 3 to about 3: 7; and electrostatic spinning on the separator with the spinning solution to obtain the polymer composite membrane having a separator and a fiber layer coated on the separator. A polymer composite membrane obtained from the method, a gel electrolyte including the polymer composite membrane and a lithium battery including the gel electrolyte are also provided.
Abstract:
A solar cell module (100) and a manufacturing method thereof are disclosed. The solar cell module (100) includes an upper cover plate (10), a front adhesive layer (20), a transparent film frame (60), a cell array (30), a back adhesive layer (40) and a back plate (50) superposed in sequence, the cell array (30) including a plurality of cells (31) and conductive wires (32) connected with secondary grid lines (312) on the cells (30), two adjacent cells (30) being connected by the conductive wires (32), the transparent film frame (60) constituted by a longitudinal adhesive tape (61) and a transverse adhesive tape (62) intersected with each other, and the conductive wire (32) formed with a metal wire and bonded with the longitudinal adhesive tape (61).
Abstract:
A solar array (30), a solar cell module (100) and a manufacturing method thereof are disclosed. The solar cell array (30) includes a plurality of cells (31) and conductive wires (32) constituted by a metal wire, any two adjacent cells (31) being connected by the conductive wires (32), the conductive wires (32) being connected with front secondary grid lines (312) of the cell (31), and a connection material layer (3121) being disposed at a position where the front secondary grid lines (312) are connected with the conductive wires (32).
Abstract:
A solar cell module (100), a manufacturing method thereof, and a solar cell unit are disclosed. The solar cell module (100) includes an upper cover plate (10), a front adhesive layer (20), a cell (31), a back adhesive layer (40) and a back plate (50) superposed in sequence, a secondary grid line (312) being disposed on the cell (31), a conductive wire (32) constituted by a metal wire being disposed between the front adhesive layer (20) and a front surface of the cell (31), a welding layer disposed on a welding position where the conductive wire (32) and the secondary grid line (312) are welded, the welding layer being an alloy containing Sn, Bi and at least one of Cu, In, Ag, Sb, Pb and Zn, in which an amount of Bi is 15 to 60 weight percent.
Abstract:
A backplane for a solar battery and a solar battery comprising the same are provided. The backplane comprises a metal substrate (2), and an organic insulating layer (1) formed onto at least one surface of the metal substrate (2). The organic insulating layer (1) is made from a resin selected from a group consisting of phenolic resin, epoxy resin, amino resin, and combination thereof.
Abstract:
A stacked-type lithium ion battery, comprising a core, a battery shell, and a cover plate; said core is placed in the battery shell, said cover plate is coupled to the battery shell in a sealed manner; said core comprises a plurality of layers of positive plates, negative plates, and membranes that are stacked together with each other, and the membrane is between the positive plate and the negative plate; wherein at least two membranes are in a 5-175° included angle between their tensile directions. Since the tensile directions of the membranes are different, the overall tensile strengths of the battery in all tensile directions are essentially same; therefore, the phenomenon of short circuit in the battery resulted from membrane rupture in lower tensile strength directions can be prevented, and the battery safety performance is greatly enhanced.
Abstract:
A solar cell unit, a solar cell array (30), a solar cell module (100) and a manufacturing method thereof are disclosed. The solar cell unit includes a cell (31) consisting of a cell substrate (311) and a plurality of secondary grid lines (312) disposed on a front surface of the cell substrate (311); and a plurality of conductive wires (32) spaced apart from each other, the plurality of conductive wires (32) intersected and connected with the secondary grid lines (312), in which at least one secondary grid line (312) has at least one gap located between adjacent conductive wires (32)..
Abstract:
A solar cell unit, a solar cell array (30), a solar cell module (l00) and a manufacturing method thereof are disclosed. The solar cell unit includes a cell (31) which consists of a cell substrate (311) and a secondary grid line (312) disposed on a front surface of the cell substrate (311); a conductive wire (32) intersected and welded with the secondary grid line (312), and the secondary grid line (312) having a width in a welding position with the conductive wire (32) greater than a width thereof in a non-welding position.
Abstract:
A solar cell array (30), a solar cell module (100) and a manufacturing method thereof are disclosed. The solar cell array (30) includes a plurality of cells (31), adjacent cells being connected by a plurality of conductive wires (32), at least two conductive wires (32) constituted by a metal wire which extends reciprocally between a surface of a first cell (30) and a surface of a second cell (30) adjacent to the first cell (30); and secondary grid lines (312) disposed on front surfaces of the cells (30) and welded with the conductive wires (32).
Abstract:
A solar cell module (100) and a manufacturing method thereof are disclosed. The solar cell module (100) includes an upper cover plate (10), a front adhesive layer (20), a cell array (30), a back adhesive layer (50) and a back plater (50) superposed in sequence, the cell array (30) comprising multiple cells (31), adjacent cells (31) connected by a plurality of conductive wires which are constituted by a metal wire extending reciprocally between surfaces of the adjacent cells (31), and are in contact with the cells (31), the front adhesive layer (20) in direct contact with the conductive wires and filling between adjacent conductive wires.