NOVELTY - The solar cell (10) has first layer formed of first material and includes a recess. A second layer is formed of second material and forms a lens portion over the recess and cavity there between. A fluid such as liquid or fluid/solid composite is provided in cavity. The first and second materials form a p-n, n-p, or p-i-n semiconductor junction. The particles are disposed in fluid and contain balls (30) such as micro emulsion balls that absorb solar energy transmitted thereto through or reflected off the lens (12). The balls have reflective core and antireflective or absorbing coating.    USE - Solar cell for capturing and converting solar energy.    ADVANTAGE - The balls and particles improve the transducing of solar energy to heat or charge solutions and allow heated or charged fluid to be efficiently circulated throughout the system. Allows connection to the positive and negative terminals of the device without interference with the surface without shadowing since lenses are formed by metallic hollow tube. Reduces material usage and cost and improves cell performance due to the full use of material for absorption by thinner layers and reduced path length through the substrate for connections. Allows beam steering for power and alignment optimization tracking during the day and night usage since outer surface of the entire cells can be transparent environmental strong surface in which the lens bond to or stand or revolve within. Allows maximizing light transmission from dawn to dusk and be ideal for diffuse light and maximizing nanostructuring on the lenses to reduce reflections given the grazing angle of light is much smaller than the flat plate design. Allows for greater power output per module node at the same cost of single cell since multiple thin cells at low cost are used. The types of particles with greater density offer the ability to tune the lens to liquid index matching. The addition of liquid media and solar balls in lens design allows for extremely efficient heat transfer designs to be implemented that not only absorbs solar energy but regulates wasted heat in the system and allows for higher system efficiency for energy conversion. Prevents the need for programming and complex electronics since gimbaled lens rebalance the pull of charge diode designs above with electrostatic bars below automatically as the sun moves across the sky. Allows collection of about 50-70 percent more power per module without taking into account the additional spectrum absorption advantages that single junction cassegrain design cannot provide for thermal and current balancing limitation on performance for the same cost as one cell since lower magnification is needed to get maximum efficiency on the front of cross pole.    DESCRIPTION OF DRAWING(S) - The drawing shows a schematic diagram of the fluid-filled lens configured to direct received solar energy to a solar sensor material.    Solar cell (10)    Lens (12)    Solar sensor material (16)    Frame (20)    Balls (30)