NOVELTY - The system for organizing a photovoltaic cell, comprises a first layer (200) for absorbing light rays, a second layer (210) for receiving light and converting the light to electrons (230), a third layer (240) for combining the electrons and a hole into coulomb energy, and a fourth layer for distributing the electrons to energy storage device. The first layer has nanofilaments distributed in a circular pattern on its surface to efficiently collect the light. The second layer separates the electrons and the hole, and has nanofilaments distributed in a tributary configuration on its surface.    USE - The system is useful for organizing a photovoltaic cell.    ADVANTAGE - The system increases photovoltaic cell performance by maximizing light collection and energy conversion and distribution in an economical manner.    DETAILED DESCRIPTION - The system for organizing a photovoltaic cell, comprises a first layer (200) for absorbing light rays, a second layer (210) for receiving light and converting the light to electrons (230), a third layer (240) for combining the electrons and a hole into coulomb energy, and a fourth layer for distributing the electrons to energy storage device. The first layer has nanofilaments distributed in a circular pattern on its surface to efficiently collect the light. The second layer separates the electrons and the hole, and has nanofilaments distributed in a tributary configuration on its surface to efficiently collect the electrons. The second layer filaments adjust their configuration to widen when heated and to narrow when cooled so as to maximize the collection of the light energy and conversion of the light to electron. The third layer has nanofilaments distributed by using a polymer bubble in which a grid configuration is organized at ninety degrees to optimize the processing of the electrons. The fourth layer has a mirror finish to amplify the heat generated in the first three layers as it collects light and converts it to electrons. The collected electrons are transferred to an energy storage device. The second and third layers are coupled and interactive. The second and third layers move closer together to a limit as the temperature of the system increases and move further apart to a standard position as the temperature of the system decreases to an average or below average level. An INDEPENDENT CLAIM is included for a system of fabricating a photovoltaic cell.    DESCRIPTION OF DRAWING(S) - The diagram shows an operation of the photovoltaic cell device.    First layer (200)    Second layer (210)    Electrons (230)    Third layer. (240)