NOVELTY - A wind rotor (80) has two drag rotors (84) rotationally coupled to a frame (82) at two parallel axes, and a deflector (92) positioned between the drag rotors to deflect wind to a portion of each drag rotor. Each drag rotor has a hub (86), a hoop-like stator (90) spaced from the hub, and preferably semi-cylindrical sails (88) each coupled to the hub on one edge and slidably coupled to the stator on another edge. Each sail includes a covering of plastic sheeting or synthetic fabric, and a sail frame of tubular metal.    USE - Wind rotor for converting wind energy into electrical energy.    ADVANTAGE - Potential negative drag is minimized by arranging a common deflector between the drag rotors. The sails of the drag rotors are preferably made of lighter and different materials e.g. Dacron (RTM: polyester), Kevlar (RTM: para-aramid synthetic fiber), or Mylar (RTM: biaxially oriented polyethylene terephthalate), to optimize torque and enable the drag rotors to operate at much lower speeds than other rotors. The wind rotor performance is improved by exploiting torque rather than velocity, while based on drag factors rather than lift effect. The drag rotors may be assembled together in opposite direction to limit negative drag impediments. Using double drag type sails enables both form drag and induced lift drag to better increase quantity of energy collected from the wind stream velocity. Off-centering the axes of the rotors enable the angle of the sails versus the wind stream to vary, enhancing the sail efficiency to the drag when positioned to work as a positive drag sail on the windward side and reversely reducing the drag effect on the leeward side. The sails slide relative to the stators while turning around the rotor axes so as to present a better induced downwash angle. Because of the angle formed by the sail versus the rotor hub, the push force of the wind becomes effective only when the sail retrieves its position of positive drag sail and transmits power collected from the wind to the rotor. The sail surfaces can be automatically reduced in event of storms or high winds, protecting the entire rotor from eventual damage, as well as facilitating adaptation of amount of power collected to the needs of downstream equipment. The drag rotor can also function as a variable turbine which enables control of volumes of water flow handled downstream without using a gearbox and other regulatory mechanisms which generally result in major losses of energy inefficiencies. The wind rotor may be positioned horizontally on e.g. a building roof, making the rotor more user-friendly or conform to local regulations.    DESCRIPTION OF DRAWING(S) - The drawing shows the perspective view of a wind rotor.    Wind rotor (80)    Frame (82)    Drag rotors (84)    Hubs (86)    Sails (88)    Stators (90)    Deflector (92)