NOVELTY - The photovoltaic cell (30) comprises a base substrate (32) comprising silicon and a doped region, a collector (40) that is disposed on the doped region of the base substrate and has a lower portion in physical contact with the doped region of the base substrate and an upper portion opposite to the lower portion, and an electrically isotropic or anisotropic conductive layer that is disposed adjacent to the collector and comprises a binder, and electrically conductive particles comprising a metal consisting of group 8 through group 14 of the periodic table of elements.    USE - The photovoltaic cell is useful in a photovoltaic module (claimed), and for converting light of different wavelengths into electricity, where: the photovoltaic cell is a 5 inch square multicrystalline silicon photovoltaic cell; and the photovoltaic module is useful in residential, commercial or industrial applications, for generating electricity to power electrical devices such as lights and electric motors, and for shielding objects such as shield automobiles from sunlight.    ADVANTAGE - The photovoltaic cell can be economically manufactured with improved performance.    DETAILED DESCRIPTION - The photovoltaic cell (30) comprises a base substrate (32) comprising silicon and a doped region, a collector (40) that is disposed on the doped region of the base substrate and has a lower portion in physical contact with the doped region of the base substrate and an upper portion opposite to the lower portion, and an electrically isotropic or anisotropic conductive layer that is disposed adjacent to the collector and comprises a binder, and electrically conductive particles comprising a metal consisting of group 8 through group 14 of the periodic table of elements, which impart isotropic or anisotropic electrical conductivity to the electrically conductive layer. The electrically conductive layer is present in an electrical communication with the base substrate via the collector. The doped region includes: an upper doped region; a rear doped region; or an upper doped region and a rear doped region spaced from the upper doped region. The binder comprises a silicone composition, and has a series resistance of less than 25 milliohm at 20 degrees C. The collectors are fingers with each finger spaced from each other. Each finger has a lower portion in physical contact with the upper doped region of the base substrate, and an upper portion opposite to the lower portion. The conductive layer is disposed on and in physical contact with the upper portion of each finger so that the base substrate is in indirect electrical communication with the conductive layer via the fingers. The photovoltaic cell further comprises: a busbar (52) disposed between the conductive layer and the upper doped region of the base substrate such that the busbar is in physical contact with the upper doped region and the upper portion of each of the fingers so that the base substrate is present in indirect electrical communication with the electrically conductive layer via the fingers and/or the busbar; a passivation layer that is disposed on the upper doped region of the base substrate and has an outer surface opposite to the upper doped region, where upper portion of each of the fingers extends away from the upper doped region through the outer surface of the passivation layer so that the base substrate is present in indirect electrical communication with the conductive layer via the fingers; an additional collector; a second electrode disposed on the first electrode, with the second electrode opposite and spaced from the rear doped region of the base substrate such that the rear doped region of the base substrate is free of physical contact with the second electrode so that the base substrate is in indirect electrical communication with the second electrode via the first electrode; and a ribbon disposed on and in physical contact with the electrically conductive layer. The busbar is disposed between the conductive layer and the passivation layer, and is preset in physical contact with the upper portion of the fingers, with the busbar spaced from and free of physical contact with the upper doped region of the base substrate so that the base substrate is in indirect electrical communication with the electrically conductive layer via the fingers and the busbar. The base substrate includes the rear doped region and the additional collector. The additional collector comprises a first electrode disposed on and in physical contact with the rear doped region of the base substrate. The busbar and the second electrode are formed from an electrically conductive busbar composition comprising: a metal powder; a solder powder, which has a lower melting temperature than a melting temperature of the metal powder; a polymer; a carboxylated-polymer different from the polymer for fluxing the metal powder and cross-linking the polymer; a dicarboxylic acid for fluxing the metal powder; and a monocarboxylic acid for fluxing the metal powder. The conductive layer is disposed on the second electrode, with the electrically conductive layer spaced from and opposite to the first electrode. INDEPENDENT CLAIMS are included for:    (1) an article for an assembly of associated photovoltaic cells;    (2) an electrically conductive silicone composition; and    (3) a method of forming a photovoltaic cell.    DESCRIPTION OF DRAWING(S) - The figure shows a schematic view of a photovoltaic cell.    Photovoltaic cell (30)    Base substrate (32)    Collector (40)    Busbar. (52)