NOVELTY - The solar desalination system comprises: a solar furnace unit including a vessel for receiving and evaporating seawater to create desalinated steam and a solar energy concentrator positioned adjacent to the vessel to concentrate solar energy to the vessel; an input unit for feeding seawater to the vessel; a brine output unit for removal of brine water bottoms from the vessel; a riser pipe having a top and a bottom; and an electric power-producing steam turbine generator positioned at a predetermined vertical height from the vessel and connected to the top of the riser pipe.    USE - The solar desalination system is useful for creating desalinated water from seawater and electricity.    ADVANTAGE - The solar desalination system is capable of effectively creating the desalinated water from seawater, and can be reliably, effectively and economically manufactured.    DETAILED DESCRIPTION - The solar desalination system comprises: a solar furnace unit including a vessel for receiving and evaporating seawater to create desalinated steam and a solar energy concentrator positioned adjacent to the vessel to concentrate solar energy to the vessel; an input unit for feeding seawater to the vessel; a brine output unit for removal of brine water bottoms from the vessel; a riser pipe having a top and a bottom; an electric power-producing steam turbine generator positioned at a predetermined vertical height from the vessel, and connected to the top of the riser pipe for producing electric power (15) with steam from the container; a drop pipe having a top and a bottom; an electric power-producing hydroturbine generator connected to the bottom of the drop pipe for producing electric power with desalinated water from the steam turbine generator; and an egress unit for removal of desalinated water from the hydroturbine generator. The input unit for feeding seawater to the vessel includes: a support member adapted to support, where the support member is connected to a solar canopy above ground level; a wind-driven power turbine and generator connected to the support member and to an apex of the solar canopy; an inverter connected to the generator to convert direct current electric power from the wind-driven power turbine and generator to alternating current electric power; an electrical storage unit connected to one of inverters and the wind-driven power turbine and generator; and an electric pump electrically connected to the wind-driven power turbine and generator. The solar canopy has a major portion consisting of translucent material and/or transparent material, a periphery and an inner area, which is partially elevated above the periphery to establish an apex with a venturi effect. The solar canopy is connected to the support member. The apex of the solar canopy is functionally connected to the wind-driven power turbine and generator. The electric pump is adapted to feed seawater into the vessel. The riser pipe is connected at its bottom, and extends upwardly from the vessel for transporting steam from the vessel. A riser pipe top is positioned at a predetermined vertical height from the vessel. The drop pipe is connected at its top to the steam turbine generator for removal of desalinated water from the steam turbine generator. The solar canopy is a flexible plastic canopy, and a rigid canopy consisting of glass, glass fiber and plastic. The wind-driven power turbine includes blades that rotate about a vertical axis, and a protective top element to inhibit rain entry. The support member is a support column having a hollow top section, which includes a wind entry port and a wind-driven power turbine within the hollow top section above the wind entry port, where the solar canopy of the apex is connected to the support column adjacent to and above the wind entry port. The wind-driven power turbine and generator includes blades that rotate about anon-vertical axis. The system further includes: a heat reflecting material located a predetermined distance below the periphery of the solar canopy, which has a lower portion, an upper portion, a single apex, and a decreasing horizontally measured area as a function of increasing height; an auxiliary heating unit proximate the vessel and adapted to heat the vessel to assist the solar furnace; and an elevated storage tank connected to, and downstream from, the steam turbine generator and connected to the drop pipe adapted for storage and controlled release of desalinated water to provide water and power when the solar furnace unit is not producing water and electricity. The lower portion has a greater horizontally-measured area than the upper portion. The riser pipe top and the steam turbine generator are 30 meters higher the vessel. The solar energy concentrator: is a linear parabolic solar concentrator, a parabloid solar concentrator and mirror solar concentrators; is moveably mounted; and includes solar tracking unit adapted to move the solar energy concentrator to follow the sun. The auxiliary heating unit is: adapted to operate when solar power is insufficient to evaporate seawater in the vessel; and an electric heating unit that is powered from the generators. The riser pipe includes a booster heater consisting of a solar heater, a heat exchange heater, and/or an electric heater. The egress unit includes heat exchange cooling unit.    DESCRIPTION OF DRAWING(S) - The figure shows a block diagram of a solar desalination system.    Ocean water (3)    Solar evaporator (5)    Steam turbine (13)    Electric power (15)    Hydroturbine. (19)