NOVELTY - A photovoltaic module comprises: front sheet; front encapsulant layer having opposite first and second sides; several concatenated polymer sockets (G1, G2, G3) arranged in row, where each polymer socket has accepted/electrically connected back-contact photovoltaic cell (A1, A2, A3), each back-contact photovoltaic cell has set of linearly arranged backface emitter contacts (B) and set of linearly arranged backface collector contacts; and back sheet adhered the concatenated polymer sockets, where each polymer socket contains planar, electrically insulating polymer substrate (H1, H2, H3).    USE - As a photovoltaic module (claimed).    ADVANTAGE - The photovoltaic module is prepared by economically feasible method.    DETAILED DESCRIPTION - A photovoltaic module comprises: a front sheet; front encapsulant layer having opposite first and second sides, where the first side of the front encapsulant layer is adhered to the front sheet; several concatenated polymer sockets (G1, G2, G3) arranged in at least one row, where each polymer socket has accepted and electrically connected a back-contact photovoltaic cell (A1, A2, A3), each back-contact photovoltaic cell has at least one set of linearly arranged backface emitter contacts (B) and at least one set of linearly arranged backface collector contacts, the back-contact photovoltaic cells is adhered to the second side of the front encapsulant layer; back sheet adhered the concatenated polymer sockets, where each polymer socket contains planar, electrically insulating polymer substrate (H1, H2, H3) containing perforations coinciding with the set of linearly arranged backface emitter contacts of the back-contact photovoltaic cell accepted and electrically connected by the polymer socket, where the substrate has a frontface and backface on opposite sides of the substrate, the frontface is on the side of the substrate on which the back-contact photovoltaic cell is accepted and electrically connected by the polymer socket, and at least one electrical conductor (J1, J2, J3, J4) is collinear with the perforations of the planar substrate coinciding with the at least one set of linearly arranged backface emitter contacts of the back-contact photovoltaic cell accepted and electrically connected by the socket, the electrical conductor is adhered to the backface of the planar polymer substrate, and the electrical conductor of each polymer socket, except the last one in each row, is adhered to the frontface of the planar substrate of one adjacent polymer socket, so such as to be collinear with the set of linearly arranged backface collector contacts of the back-contact photovoltaic cell accepted and electrically connected by the one adjacent polymer socket, where the back-contact photovoltaic cells accepted and electrically connected by adjacent polymer sockets are rotated by 180 degrees with respect to each other. An INDEPENDENT CLAIM is included for manufacture of a photovoltaic module involving providing several back-contact photovoltaic cells having at least one set of linearly arranged backface emitter contacts and at least one set of linearly arranged backface collector contacts; assembling a concatenation of interconnected polymer sockets each accepting and electrically connecting one of the back-contact photovoltaic cells, including the steps for each polymer socket of providing a planar, electrically insulating polymer substrate having perforations coinciding with the at least one set of linearly arranged backface emitter contacts of the back-contact photovoltaic cell being accepted and electrically connected by the polymer socket, each substrate has frontface and backface on opposite sides of the substrate, the frontface is on the side of the substrate for accepting and electrically connecting the back-contact photovoltaic cell by the polymer socket, and interconnecting the planar, electrically insulating polymer substrate through electrical conductors to form the concatenation of interconnected polymer sockets, such that the backface of each polymer substrate, except the last one in the concatenation, is connected to the frontface of one adjacent polymer substrate by at least one electrical conductor, where the conductor is collinear with the perforations of the planar, electrically insulating polymer substrate coinciding with the set of linearly arranged backface emitter contacts of the back-contact photovoltaic cell being accepted and electrically connected by the polymer socket comprising the substrate, and the conductor is collinear with the at least one set of linearly arranged backface collector contacts of the back-contact photovoltaic cell being accepted and electrically connected by the one adjacent polymer socket; electrically connecting the linearly arranged backface emitter contacts and the linearly arranged backface collector contacts of back-contact photovoltaic cells of adjacent polymer sockets by the electrical conductor interconnecting adjacent polymer sockets of the concatenation of interconnected polymer sockets; accepting and electrically connecting the back-contact protovoltaic cells in the polymer sockets of the concatenation of interconnected polymer sockets, where the back-contact photovoltaic cells accepted and electrically connected by adjacent polymer sockets are rotated by 180 degrees with respect to each other; assembling a stack by providing a back sheet, placing the concatenated polymer sockets with the accepted and electrically connected a back-contact photovoltaic cells over the back sheet and adhering the polymer sockets to the back sheet, placing a front encapsulant layer on top of the back-contact photovoltaic cells, placing a front sheet on top of the front encapsulant layer, consolidating the so assembled stack in a laminating device by heating the stack to 100-225 degrees C, subjecting the heated stack to a mechanical pressure in a direction perpendicular to the plane of the stack and decreasing the ambient pressure in the laminating device to 300-1200 mbar, and cooling the stack to ambient temperature and releasing the mechanical pressure and reestablishing atmospheric pressure in the laminating device.    DESCRIPTION OF DRAWING(S) - The figure shows an exploded view of metallization wrap-through (MWT) photovoltaic cells and polymeric sockets electrically interconnected to form a concatenation of interconnected polymer sockets and photovoltaic cells.    Back-contact photovoltaic cell (A1, A2, A3)    Backface emitter contacts (B)    Polymer sockets (G1, G2, G3)    Insulating polymer substrate (H1, H2, H3)    Electrical conductor (J1, J2, J3, J4)