NOVELTY - The method comprises concatenating solar cells with conductive wires to form solar cell strings, arranging the solar cell strings to form a solar cell matrix (201), extending each conductive wire to form an extended outer-connection section, then converging the extended outer-connection sections to integrated extended outer-connection sections, forming a first isolating cover on a first surface of the solar cell matrix and a second isolating cover on a second surface of the solar cell matrix, and forming a front sheet (203) on a first surface of the first isolating cover.    USE - The method is useful for manufacturing an improved solar cell module (claimed).    ADVANTAGE - The method is capable of economically manufacturing the improved solar cell module with high stability and without problems of power leakage and short circuit.    DETAILED DESCRIPTION - The method comprises concatenating solar cells with conductive wires to form solar cell strings, arranging the solar cell strings to form a solar cell matrix (201), extending each conductive wire to form an extended outer-connection section, then converging the extended outer-connection sections to integrated extended outer-connection sections, forming a first isolating cover on a first surface of the solar cell matrix and a second isolating cover on a second surface of the solar cell matrix, forming a front sheet (203) on a first surface of the first isolating cover and a back sheet (205) on a second surface of the second isolating cover to assemble the solar cell module, pressing the front sheet, the isolating cover, the solar cell matrix, the second isolating cover and the back sheet using lamination technologies and the chemical characteristics of the first isolating cover and the second isolating cover, aiming at an end point of each of the integrated extended outer-connection sections, drilling holes from the back sheet and the second isolating cover to the end point on the second surface of the solar cell matrix to form holes (2052) on the back sheet and holes on the second isolating cover, soldering each of end point indentations and an insulated cable (206), coating an adhesive on the soldering location of the end point indentation and the insulated cable, and connecting each of the insulated cables with a junction box. The end point indentations are formed on the second surface of the solar cell matrix. A number of the integrated extended outer-connection sections are less than a number of the extended outer-connection sections. A second surface of the first isolating cover compounds into the first surface of the solar cell matrix. The first surface of second isolating cover compounds into the second surface of the solar cell matrix. The front sheet and the back sheet have first and second surfaces. The second surface the front sheet compounds into the first surface of the first isolating cover. The first surface of the back sheet compounds into the second surface of second isolating cover. The method further comprises cleaning up a location where the end point indentations are formed on the second surface of the back sheet using high-pressure air and cleaning solution between the aiming and soldering steps, forming a soldering ball on a copper layer of each of the end point indentations, and soldering the soldering ball and a core of the insulated cable. The pressing step is carried out in a vacuum chamber.    DESCRIPTION OF DRAWING(S) - The figure shows a schematic structural view of a method for manufacturing an improved solar cell module.    Solar cell matrix (201)    Front sheet (203)    Back sheet (205)    Insulated cable (206)    Holes. (2052)