A distributed network of a generator-turbine apparatus having a set of 3-φ electric power generators (SEPG) radially mounted inside an electric generator mounting block and simultaneously driven by a gravity-force applied and moment imbalanced turbine (GFAMIT), comprising:
- a plurality of electric generator mounting block 9210 having a concentrical inner-cylindrical-support 8100 having a pre-decided number L of pivoting electric generator holder 8585 holding and supporting a pre-decided number L of 3-φ electric power generators 8000, a concentrical middle-cylindrical-support 8200 having a pre-fixed number i of command following motors driving a cross-sectionally-circular shaft 8570 creating axially telescoping motion of a telescoping square-structural tubing 8580 linearly sliding within a cross-sectionally square-tubular-pipe 8510 and moving the pre-decided number L of pivoting electric generator holder 8585, a concentrical outer-cylindrical-support 8300 for the pre-fixed number i of command following motors to be fixed inside the concentrical outer-cylindrical-support 8300;
- a photovoltaic (PV) panel 88091 or a capacitor bank 88092 providing a DC reactive excitation current to the stator excitation windings of each 3-φ electric power generator 8000 for inducing a current in the rotor electromagnet windings;
- a fixed number K (K=1, 2, . . . , a fixed number) of the driving wheels 7000 rotating each pulley 8040 of the pre-decided number L of 3-φ electric power generators 8000;
- a gearbox device 600 having a gearbox driving shaft 501 and the fixed number K of driving wheel driven-shafts 7001;
- a torque measurement and transmission device 500 having a rotary torque sensor 505 measuring the torque of the torque coupling device shaft 401;
- a torque coupling device 400 connecting a pair of mating mechanical shafts having a pair of mating male and female coupling ends 4001;
- a flywheel and brake block 300 doing the braking action much faster than the frequency of manual braking actions, controlled by a computer 1000 having multicores;
- a predefined number M of hollow housings 8 containing a hollow or solid rotating shaft 1 wherein the hollow or solid rotating shaft 1 comprises a limited number N of variable or articulate or elastic twisting-moment-arms and a rubber coated spherical steel sphere connected to the distal ends of each variable or articulate or elastic twisting-moment-arm, and the hollow or solid rotating shaft 1 is eccentrically located within each hollow housing 8;
- a centrifugal force supporting structure 200 for withstanding the induced resultant centrifugal force F;
- a starter turbine 36000 for rotating the GFAMIT without attaching the pre-decided number L of 3-φ electric power generators 8000 to the fixed number K of driving wheels 7000, and the hollow or solid rotating shaft 360 of the starter turbine 36000 is coaxially connected to the hollow or solid rotating shaft 1;
- a 120° circular orbit-guide reinforcement 375 further supports a circular orbit-guide 374 against the summation of the centrifugal forces induced by the rubber coated steel spheres 373 and the limited number N of variable or articulate or elastic twisting-moment-arms;
- the computer 1000 controlled by a server of a LAN or WAN computer network with an Internet connection, and the computer 1000 executing the general purpose computer operating system (OS) programs and hardware specific FPGA, VHDL, or Verilog program controlling the C3I (command control communications and information) functions of the pre-decided number L of 3-φ electric power generators (SEPG) 8000 radially mounted inside each electric generator mounting block 9210 and having multi-level artificial intelligence (AI) and controlling the optimal rotational speed of the turbine;
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- wherein all zero-degree single-phase stator output terminals, all 120-degree single-phase stator output terminals and all 240-degree single-phase stator output terminals of the pre-decided number L of 3-φ electric power generators 8000 are respectively summed to a first common joint bus of a first electric power interconnection and summing bus 8805 (1), a second electric power interconnection and summing bus 8805 (2) and a third electric power interconnection and summing bus 8805 (3) respectively for summing all electric current having same degree phase angle and a first single-phase (1-φ)-to-single-phase (1-φ) cycloconverter bank and phase-locked loop 8806 (1), a second single-phase (1-φ)-to-single-phase (1-φ) cycloconverter bank and phase-locked loop 8806 (2) and a third single-phase (1-φ)-to-single-phase (1-φ) cycloconverter bank and phase-locked loop 8806 (3) are respectively connected to each output bus terminal of the first electric power interconnection and summing bus 8805 (1), the second electric power interconnection and summing bus 8805 (2) and the third electric power interconnection and summing bus 8805 (3) for converting the high order frequencies created by mixing all electric currents from the pre-decided number L of 3-φ electric power generators 8000 to the 50 or 60 Hz electric current within an allowable convergence frequency error and tuning all initial phase angles within an allowable phase angle error and a 3-φ step-up transformer 880700 converting the voltage from 12 Vac to a desired high AC voltage;
- the initial position of the variable or articulate or elastic twisting-moment-arms of the GFAMIT turbine system has a potential energy creating an initial twisting moment rotating both the hollow or solid rotating shaft 360 of the starter turbine 36000 and the hollow or solid rotating shaft 1, and wherein the flywheel and brake block 300 keeps the GFAMIT turbine system on hold when not in use.