Page. CLAIMS OF THE PRINCIPLE OF RPTATION OF TURBINE ONE. What to claim is: 1. Rotation is obtained of the cross axial and axial bearing mounted turbine rotors, by shielding the returnblades partially or completely and uncovering the pushblades partially or completely. 2. Rotation of horizontal and vertical mounted rotor operable in bearings comprising at least three rotor blades radial and axially projecting its form expending from the hub. Cross-axial rotation of turbine rotors by means of shielding vane, or wind screen shielding the return blades partially or completely and uncovering the pushblades partially or completely for fluid to be channelled cross axially trough the intakes and impact coaxial and horizontally on the transverse projecting turbine rotor blades causing rotation of the prime mover, drivetrain by the converting kinetic energy into mechanical energy and into electric energy by means of a constant transmission turbine gearbox and lubricant system mechanical coupled in rotational mode with the electric generator rotor, comprising a cylindrical permanent or electromagnet coupled electrically to the exciter electrically connected with the disk magnet and axially opposing stator coils or disk or plates or massive electric conductive material disk or cylinder. 3. Rotation of the horizontal and vertical turbine rotor is obtained in clockwise direction and in counterclockwiswise direction. Generating AC current or dc current. Defines the rotor by at least two axial halves exposed axially for cross-axial flow axial flow and/or for perpendicularly flow turbine rotors. A left and right axial halve, or upper and lower axial halve which form the returnblades section and the pushblades intake and exhaust sections. Rotation of the turbine rotor and drive chain is obtained by shieling the returnblades partially or completely and uncovering the pushblades partially or completely by means of a windscreen, vanes, blades, wings and holes and openings on the rotor enclosing plenum, nacelle, with ducts, baffles screens etc. 4.0 Comprising, at least one windscreen for shielding the turbine rotor defined, returnblade section. The turbine Rotor, runner, comprising perpendicular and axial rotor vanes and flat or stretching in longitudinal along the rotor hub and hub ends, projecting its curved airfoil vanes along the axial and radially exposed volume with the pushblades to the flow of kinetic energy whereby rotation is obtained in clockwise and/or counterclockwise direction by kinetic energy that imping on the uncovering pushblade of the axial exposed rotor, whereon currents of kinetic energy is accommodated on the pushblades whereby the turbine rotor rotates linear with the flow of wind water and steam. Rotating a half cycle with the current flow, at the pushblade section. And a half cycle against the current flow which is the shielded return blade section. Rotation of the turbine rotor is transferred operable to turbine gearbox, which is mechanically related in operable bearings with the electric generator rotor with fixed segments of permanent or electromagnets and opposing exposed armature and armature poles and gauge wiring generating a pulsing electric current or DC current. Comprising transducers active shaft sensors, exciter and motor control generator magneto sensor, digital unit of voltage and amp sensor and communicator. Wind direction and wind speed sensor weather boom or lidar. Mounted on an elevated structure with adjustable windscreen in bearing tracks and actuators. 4.1 Turbine generator and/or motor Horizontal axis and/or Vertical axis cross axial flow energy converting bearing mounted turbine rotor is side axially and/or front axially exposed in the flow off wind, water or steam, and shielded. Comprises redial and axial projecting rotor blades from the hub for rotation in its cylindrical plane, whereby the front upwind oriented returnblade rotor half is shielded partially or completely from the flow such that the unshielded turbine rotor blades are contacted by the horizontal flow of fluid imping on the vertical blades, rotating the blades, linear in linear motion of flow cross the axis in downflow along the turbine machine whereby the rotor blades rotate half of their rotational cycle with the flow of fluid driving the turbine drivetrain below the deck of the seismic bearing mounted elevated superstructure mounted on the substructure excavated till 50m below the ground level wherein lower excavators, sand buckets lifts, small bulldozer descended by a tower crane piling steel beams in the bed for bearing the foundation and stamped, horizontally levelled for placing the moulds and moulding the foundation by pouring the melted of natural resources in the mould. 4.2 Layer by layer of large and polygonal granite, sandstone, basalt and geopolymer and polymer bricks and block comprising induction heated granite or rock minerals molded in carbon graphite molds with interlocking seismic bearing couplings, Keystone connection, male female spatial joints, lap, and other joints etc. wherein the structure chambers are made circular around the axis constructing the two boiler chambers separated by a wall partially filled with sea water wherein both chambers electric high voltage water heating elements and probes are implemented in the submerged stone oven of Vulcanic rock, ceramic and granite mixture. The ceiling or apex top of the first and second boiler chamber comprises the exhaust duct for vaporized water that zigzag upward and connect both with longitudinal 45* sloped inner triangular accumulation hall whereby the lower connecting point with the boiler also relates to the low compression chamber and the top of the hall provided steam duct relates to the high compression chamber. The water chamber is molded out on the second level opposing the boiler chambers, connected by ducts to the turbine discharge ducts. 2.2 The water chamber comprises a safety discharge duct trough the structure connected with the accumulation chamber through pneumatic valve doors, and compression chambers whereby the duct extends above the ground surface with a safety discharge valve mounted on the top. The at least one steam turbine in heat molded steel inner reinforced casing with mounts and knuckles, with the axle mounted in double rows of turbo bearing in the casing. The casing wall comprises at least one duct in the wall oriented on the horizontal turbine rotor pushblades partially or complete by means of pneumatic inner pressure moving the valve door pistons of granite blocks operable in plain bearing in the walls cylinders, which pushes the at least one large hydraulic cylinder in the side window connected with the turbine chamber granite valve and pushes the horizontal valve up from the side opening according to the inner pressure of the compression chamber the discharge of compressed steam on the stainless steel turbine rotor rotating with high RPM and rotating the large and cryogenic cooled machine body that generates a constant electric current of at least one mWh or 1000 kWh. 2.3 The at least one generator is arranged in a second heat molded casing with the driveshaft connected in concentric mode or mashing with gears. Electrically connected by cables and ducts to the transformer house. The substructure comprises a lift shaft with a lift and cable conduits air ducts and water pipes for pumping water from the water chamber to the surface reservoir. Whereon the substructure the tower base is provided with the electrical connections, switch boards and main hard switch with internal and external connections. 2.4 The Turbine rotor and drivetrain is operable mounted in a beamed and braced alloy frame comprises antivibration washers, bushes, end cap washers, antivibration, comprisable mats and bearing mounts with the movable platform and projecting side wall and frame, wherein the turbine gearbox comprising at least one planetary turbine step-up gearset output axle mechanically coupled with the electric generator rotor input shaft by shaft joint with keys that slide in keyways fixed or flexible shaft connection with fastening bolts rotatable coupling the rotor whereon the axle at least one permanent ferromagnet is pressed and mounted in a holder fizzed axially on the axle, coaxially mounted with the stator in the insulated machine casing having at least on spool electric conductive wire of a determined length and diameter mounted insulted in the casing with a minimum spatial distance with respect the rotary magnet for inducing the coil by the magnet generating a pulsing electric tapped by the coil poles and return yoke connection, connected by the external leads to the insulated connectors on the output terminals. Turbine retractable turbine rotor shaft is operable suspended in the beamed and braced extending from the deck with the said frame mounted on spiral elevator system and position locking platform and position locking, vertical levelled, shock damper provided linear actuator motor passions locking the said frame an minting in exact vertical level by a gyroscopic sensor unit, contact sensors servo control unit electrically connected by insulated electrical wiring with the automated computer system.. The collapsible curved shielding screen made in a frame, mounted in bearing rides on the deck circular track Electromagnetically and in ball bearings, by rack and pinion motor electrically connected by electric tracks slip tracks on the deck. The linear motor comprises a controller with programmed logic and motor control and power supply connected with the main computer system. 3. H/V axis energy converter turbine motor and/or generator, wherein Rotation of the turbine rotor is obtained in clockwise and/or in counterclockwise direction by shielding the upwind oriented front axial exposed turbine rotor axial halves from the left axial half or from the right axial half, thereby defining the rotational direction including the pushblade section and the returnblade section, and exposed blade surface orientation is defined. The partial or complete cover is Front Axially and/or cross axially, Axially by at least on wind screen with respect to the rotor. Cross axially by a cover around the around the cross-axial returnblade section.