of the pv process as the apparatus becomes excited with increasing heat the filaments in the gradient filament grid structure changes its organizational position to decrease the distance between filaments this cluster reconfiguration process increases the efficiency of the collection and filtration of electrons because the second and third layers are connected and sandwiched between the first and fourth layers the reduced distance between the main structures for collection transformation and distribution of electrons limits leakage and thereby increases efficiency in the second layer the nanofilaments are arranged as u201c tributaries u201d to maximize electron collection transport in this layer the nanofilaments when stimulated by increased heat reposition and broaden their configuration to boost efficiency the main source of stimulus for the nanofilaments is heat generated by increased light absorption although they are also stimulated by nanosensors integrated into the system the system modulates optimum electron flow by using the transformable embedded nanofilaments the automatic transformation process occurs over the period of a day in which the sun 39 s changing position increases the heat at peak mid day the electrons from the second layer are sent to the third layer for collection of useful coulomb energy and then distributed to storage since the second and third layers are integrated these sequential processes are efficient in one embodiment of the system the nanofilaments are organized into triad structures that penetrate the second layer in such a way that the endpoints integrate with the third layer this coupled architecture when combined with the transformable tributary system provides a major increase in solar energy productive efficiency in the fourth.