[1] The present application is a Continuation-In-Part of Patent Application 18/301,764, Which was filed on April 17, 2023, and which claims prorityto, and the benefits of, U.S.

Provisional Application No, 63/419,373, which was filed on October 26,2022, and is incorporated herein by reference in its entirety. and United States Patent Navarro 5,473,957.  United States Patent Navarro 5,150,626.

[2] The present invention relates generally to the field of electric generators. More specifically, the present invention, in one embodiment, relates to a novel 4-phase electric   generator and eccentric mass load subsystems. The device features a stator wall with eight stator slots and four pole groups, enabling the generation of electrical energy with increased efficiency compared to conventional generators. These generators provide 8 output voltages, and the current provides electric power for the dual eccentric mass load systems.  Accordingly, the present disclosure makes specific reference thereto.  Nonetheless, it is to be appreciated that aspects of the present invention are also equally applicable to others, like applications, devices, and methods of manufacturing.

[3] The subject matter disclosed and claimed herein, in one embodiment thereof, comprises 4-phase generator and eccentric mass load subsystems. The device further comprising a stator wall having a circular or cylindrical shape, eight stator slots disposed in the stator wall, the eight stator slots are divided into four pole groups of two opposing stator slots, each slot of the two opposing stator slots are connected via coils, the coils also connects to an output and to a neutral point, one slot of the two opposing stator slots having North polarity (N (North) stator slot) and the other slot having South polarity (S (South) stator slot), four of the stator slots on one side of the stator wall correspond to the other four of the stator slots on an opposing side of the stator wall, an permeant magnetic (four North Poles and four South poles) armature, and the device is further configured to alternate activation between N (North) stator slots and S (South) stator slots of the four pole groups in response to rotation of the armature, wherein eight poles are actively coupled in any given configuration and permanent magnetic material with North and South polarities.

[4] The following presents a simplified summary to provide a basic understanding of some aspects of the disclosed innovation. This summary is not an extensive overview, and it is not intended to identify key/critical elements or to delineate the scope thereof. Its sole purpose is to present some general concepts in a simplified form as a prelude to the more detailed description that is presented later.

[5] The subject matter disclosed and claimed herein, in one embodiment thereof, comprises of 4-phase generator and eccentric mass load subsystems. The device further comprising a stator wall having a circular or cylindrical shape, eight stator slots disposed in the stator wall, the eight stator slots are divided into eight groups of two opposing stator slots,  one slot of the two opposing stator slots having North polarity (N (North) stator slot) and the other slot having South polarity (S (South) stator slot), the eight groups forming the four eight groups, wherein four of the stator slots on one side of the stator wall correspond to the other four of the stator slots on an opposing side of the stator wall, a permanent magnetic material armature with four north poles and four south poles opposite each other, and the device is further configured to alternate activation between N (North) stator slots and S (South) stator slots of the eight pole groups in response to rotation of the armature, wherein eight poles are actively coupled in any given configuration.

[6] The subject matter disclosed and claimed herein, in one embodiment thereof, comprises a method of operating a 4-Phase Generator and eccentric load mass subsystems. The method comprising the steps of rotating an armature along a stator wall, the stator wall having a circular or cylindrical shape, eight stator slots divided into eight pole groups, each pole group has a N (North) stator slot and a S (South) stator slot, wherein four of the stator slots on one side of the stator wall correspond to the other four of the stator slots on an opposing side of the stator wall; alternating activation between N (North) stator slots and S (South) stator slots of the four pole groups in response to the rotation of the armature, wherein eight poles are actively coupled in any given configuration.

[7] The activation of the pole groups results in magnetic fields within the stator wall.

[8] In another aspect of the present invention, the stator slots are arranged in a symmetrical pattern around the stator wall.

[9] The stator wall is made of magnetic iron lamination material with copper coils output and ground neutral connections.

[10] A 4-phase eccentric mass load subsystem, a stator wall and armatures are disclosed. The stator wall having eight phases of functional operation and a circular or cylindrical shape with eight stator slots divided into four pole groups, each pole group having a N (North) stator pole and a S (South) stator pole, an eccentric load mass diagram, including eccentric load, located at specific distances from the center axis of rotation of the stator wall, wherein the subsystems of eccentric load or rotor mass diagram enables the generator to operate efficiently and generate power while compensating for the eccentric load masses subsystems.

[11] The 4-phase motor and generator device of the present invention is easily and efficiently manufactured, marketed, and available to consumers in a cost-effective manner. It is easily used by users for generating power in numerous ways, like powering eccentric load subsystems these systems can be used in the HIGGS Field in outer space for Satellite Maintenance, Space Junk problems, Asteroid Mining, and assisting with moving payloads from the moon of Helium 3 back to Earth.

[12] The4-Phase Generator has eight outputs of current. That provides input power for the 4-Phase stator wall from the armature’s permanent magnetic poles for rotation inside its stator wall with electrical conductor segments from a control panel, with the Lithium battery bank support. The output from the 4-Phase Generator has a voltage regulator to stop charging the Lithium batteries. Solar Panels will be used in systems that operate in outer space, and charge the Lithium batteries, with voltage regulator controls in the control panel can resume charging the Lithium batteries when required to provide power from the Lithium battery bank for the 4-Phase Armatures and stator wall from eight of the outputs of the 4-Phase Generator. Also included is the Solar Panel distribution arrangement.

[13] The permanent magnets in the main armature induce a current in the stator wall as the main armature revolves around the center axis of rotation.

[14] Numerous benefits and advantages of this invention will become apparent to those skilled in the art to which it pertains upon reading and understanding the following detailed specifications.

[15] To the accomplishment of the foregoing and related ends, certain illustrative aspects of the disclosed innovation are described herein in connection with the following description and the annexed drawings.

[16] The description refers to the drawings provided in which similar reference characters refer to similar parts throughout the different views, and in which:

[17] FIG. 1 is a drawing illustrating an internal view of one potential embodiment of a 4-phase generator with eight electrical load outputs of the present invention by the disclosed architecture.

[18] FIG.2 and FIG.3 drawings illustrate four Armature rotations inside the Stator Wall, which receives power from the eight electrical load outputs from FIG.1 drawing of the present invention by the disclosed architecture.  FIG.4 is the drawing where the details of four armatures are labeled 31 on the left and 31 on the right subsystems 14 as four of the armatures rotate clockwise in one subsystem 14 and the other four armatures rotate counterclockwise, in the other subsystem 14.

[19] FIG. 4 drawing illustrates item 10 of the present invention by the disclosed architecture of the present invention by the disclosed architecture, with a Control Panel and two direct current motors labeled 36 that rotate these two 4-Phase Generators.  46 is the Lithium battery bank.  45 is the Solar Panel distribution arrangement. The black lines with arrows are the conduit that the electrical wiring that connects from the Controls 40 conduit connections to generator motors 36, generators 38, motors 28, the flexible conduit connections to communications rings 34 and 34 A are not illustrated in the dawning in FIG.4, however they do physically connect to Controls panel 40.

[20] FIG. 5 drawing illustrates the armatures “A” and “C” phase relationship with the stator walls “A” and “C” phases and the armatures “B” and “D” phase relationship with the stator wall “B” and “D”.  In FIG.2 and FIG.3, drawings revolve clockwise in one subsystem 14 or counterclockwise in the other subsystem 14 about the center axis of rotation of the present invention by the disclosed architecture.

[21] FIG. 6 and FIG.7 drawings illustrate eccentric mass loads G, H, I and J sharing the same center axis of rotation “0”.  In these drawings, the stator wall and armatures maintain eccentric mass loads to maintain distance E and F from the center axis of rotation “0” of the present invention by the disclosed architecture.

[22] FIG. 8 Timing Gears 44 see location on FIG.4 drawing location at bottom of 10.

[23] Referring to the drawing, and particularly to the drawing of FIG.4, there is illustrated a controlled translational force generating system, generally designated as 10, provided in accordance with the principles of the present invention.  The controlled translational force generating system 10 includes a main frame 12, a first and second set of 14 subsystems mounted on the main frame 12, and operable to generate a set of translational forces, in the eccentric mass load items 33 and 32.

[24] Go to drawings FIG.6 and FIG.7 for details of the operations of the eccentric mass loads of subsystems mounted inside the main frame 12 located inside with subsystems 14 in drawing FIG.4.  The eccentric mass loads all have the same mass weight.

[25] In the drawing of FIG.4, it can operate in the Earth’s Gravitational Field or the HIGGS Field in outer space.  The initial translational forces generated by both sets of 14 subsystems by interaction with the eccentric mass loads environment generated by the second set 33 and 32. Go to drawings FIG.6 and FIG.7 for eccentric mass load details of operation) to view subsystems produce a steerable straight-line resultant translational force, which causes the system 10 to move in a constant direction.   Back to drawing FIG.4, the rectangular boxes 36 are the direct current motors, and their shafts 36A connect mechanically to the permanent magnetic armature 108 in the drawing of FIG.1, of the 4-Phase Generator, which displays the permanent magnet armature 108 rotating inside the stator wall. In the drawing of FIG. 4, The 36 direct current motor rotates, and then the current is induced into the stator wall in FIG.1. Now look at drawing FIG.1 to view the 102 stator wall of system 100, resulting in output currents 1, 2, 3, 4, 5, 6, and 8 output electric loads, as a result of the permanent magnetic armature fields axial air gap creating current to flow into the windings of the stator wall slots 106a, 106b, 106c, 106d, 106e, 106f, 106g, and 106h.

[26] In the drawing of FIG. 4, the result of variable adjusting the rotation per minute of the multiple parallel eccentric load mass 33. System 10 will move in a direction that is constant, as 33 eccentric mass loads display an arrow of the direction of movement of system 10.  See details of eccentric mass loads in the drawings of FIG.6 and the FIG.7 sequence of operation.

[27] In the embodiment of the controlled translational force generating system 10 illustrated in drawing of FIG.4, the main frame 12 includes a plurality of upper, middle, and lower horizontal platforms 18, 20, 22 and a plurality of vertical legs 24 supporting platforms 18, 20, 22 in vertically spaced relation.  Preferably, by way of illustration only and not by horizontal decks 18, 20, and 22 are rectangularly shaped and the legs 24 being eight in number (only the four along one of a pair opposite sides of frame 12 is shown), are attached to and support the platforms 18, 20, 22 at spaced locations along the perimeters thereof.

[28] Each parallel eccentric mass load systems inside each of eccentric load mass sub systems 14 which is illustrated in drawings of FIGS. 4,5,6,and 7,which will be briefly described hereinafter, are substantially the same in construction and operations as the electromagnetic implementation of the translational force-generating apparatus illustrated and described in U.S. Pat. Navarro No. 5,150,626, and U.S. Pat. No. Navarro 5,473,957, the disclosure of which is incorporated herein by reference.  As an alternative, each parallel eccentric mass load subsystem 14 employed herein could be the same as the mechanical implementations disclosed in a forecited U.S. Patent.

[29] Referring to drawings in FIGS. 4, 6, and 7, each of the parallel eccentric mass load subsystems 14 of the controlled translational force-generating systems 10 which generate the respective initial translational forces includes an auxiliary frame 26, a rotary drive motor 28, an orbital frames 14, a plurality of orbital members 32 with multiple eccentric mass loads 33.  The communications ring is die electric to shafts 28A, is the carbon electric brush insulated from electrical contact and mounted on deck 22 and deck 20.  The rotary drive motors 28 are mounted to the auxiliary frame 26 and has a rotary output shaft 28A extending downwardly through the auxiliary frame 26.  Orbital subsystems frames 14 is mounted to the legs 24 of the main frame 12 and attached to the rotary output drive shaft 28A from the rotary drive motors 28 for undergoing revolutions about a central axis C upon operation of the rotary drive motors 28.  Orbital subsystems 14 is composed of upper and lower horizontal decks 30A, 30B, and a plurality of support shafts 35 extending between and journaled at opposite ends by bearings 39 to the upper and lower decks 30B, 30A and center shaft.  The orbital members’ eccentric mass load devices are mounted on frames 30 to undergo revolutions with the orbital frame 30 about the central axis C.  The eccentric mass loads orbital members 32 are also mounted to the orbital frame 30 for undergoing rotation about the orbital axis 0 in FIG.5, FIG.6 and FIG.7 as illustrated in the orbital frame 30.  Each of the orbital members 32 supports eccentric mass load weights 33, defining the offset center of mass of the respective orbital members 32.  Thus, the orbital members 32 have their centers of mass predisposed eccentric mass load in relation to a preset angular position relative to the respective orbital axes 0.  The electrical coupling mechanism 34, which includes electrical brushes 34A and electrical conductors 34B, is electrically coupled to the orbital members 31 for providing appropriate levels of electrical power, producing rotation of the orbital members 31 in a first direction about their orbital axes 0 at the same frequency as the orbital members 32 undergo revolutions with the orbital frame 30 in a second opposite direction about the other central axis C.  In such a manner, the center of eccentric mass loads of orbital members 32 are maintained at the respective preset angular position relative to orbital axis 0 and thereby the orbital members 33 are asymmetrically accelerated relative to the central axis C to impart a respective one of the initial translational forces to the main frame 12 of the system 10. In the electromagnetic implementation of the eccentric load mass subsystems 14, the orbital members 32 share the same shaft as orbital armatures 31 mounted to support shafts 35, and the rotation-producing coupling means an annular stator wall 37 the – and + are the conductor segments to the stator wall and again no black line with arrows however they do go to the control panel with flexible conduit and is not illustrated in the drawing. The stationary mounted to the legs 24 of the main frame 12 and surrounding the orbital armatures 31.  Armatures 31 are preferably four in number and defined in the drawings of FIG. 2 and FIG.3, electromagnetic relationship with the stator wall. Direct current variable voltage power can be supplied to the stator wall 37 and orbital armatures 31.   Concerning the pair of parallel eccentric mass load subsystems, 14 of the controlled translational force generating system 10, the respective directions of rotation and revolutions of the orbital frames 30 and orbital members 32 of the one subsystem 14 are counter to the respective direction of rotation and revolutions of the orbital frame 30 and orbital members of 32 of the other subsystems 14.  For instance, the orbital frame 30 of the right eccentric load mass subsystem 14 in FIG.4 rotates counterclockwise about its respective central axis C, whereas the orbital frame 30 of the left eccentric load mass subsystem 14 in drawings of FIG.4 rotates clockwise about its respective central axis C.  Additionally, the orbital members 32 of the right orbital frame 30 rotate clockwise about their respective orbital axes 0, whereas the orbital members 32 of the left orbital frame 30 rotate counterclockwise about their respective orbital axes 0.  The counter-rotational relationship of the respective components of the one subsystem 14 relative to the corresponding components of the other subsystem 14 and the parallel relationship of the central rotational axes C of the subsystem 14 are the features of the system 10 responsible for causing the generally straight-line motion orientation of the combined translational force which results from the initial translational force generated by the combined operation of the subsystems 14.

[30] Referring again to the drawing of FIG.4, each of the parallel direct current motors 36 has a center shaft 36A on FIG.1; Now refer to FIG.1 the permanent magnet armature 108 center axis shaft is mechanically coupled to this shaft 36A.  The rectangular box 38 displays the contents of the Drawings of FIG. 1, the 4-Phase Generator with eight outputs resides in both of 38 rectangular boxes illustrations on the drawings of FIG.4.

[31] Referring to drawings of FIG.4, the controlled translational force generating system 10 also includes synchronizing means 42 in the form of a pair of large timing gears 44, which are mounted in the same horizontal plane, have the same diameters and peripherally with one another, are connected to lower ends of the respective orbital frames 14 through lower center axis shaft 28A.  The drawing of FIG.8 The timing gears 44 are rotated in opposite directions with respect to one another in the same sense as the subsystems 14 are counter rotatable relative to one another to maintain the subsystems 14 in a synchronized relation with one another.  Although the timing gears 44 shown in the drawing of FIG.8 are components that provide mechanical synchronization of subsystems 14, they could be components that provide mechanical and electromagnetic synchronization of the eccentric mass loads 33, in FIG. 4, and G, H, I and J in FIG.6 and FIG.7.

[32] In drawing FIG.4 subsystems 14 represent FIG.2 and FIG.3 of one system going clockwise in rotation and the other rotating counterclockwise, and the purpose of this sequence is to obtain straight direction motion of the system in a direction that is constant, from the effects of the eccentric mass loads.

[33] In drawing FIG.4, item 40 is the Control Panel that connects the wiring to items 36, item see FIG.1 and for wiring of motors 38, item 28 as the motors that rotate their center axis in FIG.2 and FIG.3.

[34] For the present disclosure, Eccentric loads mass G, H, I, and J drawings FIG.6 and FIG.7 display the locations of the eccentric mass loads as they rotate about the center axis of rotation distances from the center axis E and F.

[35] Referring initially to the drawings, FIG.1 illustrates an internal view of one potential embodiment of a 4-phase generator of one potential embodiment of the present invention by the disclosed architecture. The 4-phase generator of the present invention is configured as an electrical machine.  More specifically, the machine 100 includes a stator wall 102 and an armature 108. The stator wall 102 features eight outputs of power. As illustrated, the stator wall 102 has eight stator slots 106a, 106b, 106c, 106d, 106e, 106f, 106g, 106h denoted as “A-A” 106a, 106e; “B-B” 106b, 106f; “C-C” 106c, 106g, and “D-D” 106d, 106h. The four South stator slots, 106a, 106b, 106c, and 106d, on the stator wall 102, correspond to the other four North stator slots, 106e, 106f, 106g, and 106h, for a symmetrical polarity on the stator wall 102.

[36] The drawing of FIG. 1 displays the four pole groups configured on stator wall 102, and each pole group includes a pair of corresponding stator slots on opposing sides of stator wall 102. As a result, the one pole group is defined by two “A-A” stator slots, and similarly, other pole groups are defined by corresponding “B-B” stator slots together, “C-C” stator slots together, and “D-D” stator slots together. During use, the rotation of the permanent magnetic armature 108 causes the four pole groups to alternate in activation between N (North) stator slots and S (South) stator slots. The armatures’ rotating magnetic fields within the stator wall generate an electrical current in the stator wall. This configuration is beneficial because the eight poles are actively coupled in any given configuration, which results in electrical energy being generated with 8 outputs, labeled 1,2,3,4,5,6,7and 8.

[37] The drawings of FIG.1. Stator wall 102 is preferably made of magnetic material, and the activation of the pole groups results in the magnetic field of the stator wall. The armature 108 functions as a rotor and includes a plurality of permanent magnetic poles 108 positioned at the center of the stator wall 102 and has opposite 4 North and 4 South Polarities.  As further explained below, the Lithium batteries can provide power for the DC motor 36 that rotates the permanent magnet armature. The control panel can modulate the amount of current from the Lithium batteries to the a DC motor 36 in FIG.4 that rotates the 4-phase motor generator for desired revolutions per minute in direct proportions or separate direct current feeds from the control panel modulated manually or controlled by an automation control program for the DC motor that rotates the see FIG. 1 armature 108 with permanent magnetic 4 North Poles and 4 South poles, inside stator wall 102.

[38]  In drawing of FIG.1 it should be appreciated that generator 100 of the present invention in a 4-phase generator formed four pole groups alternating between N (North) stator slots and S (South) stator slots, thereby generating electrical energy outputs. In the preferred embodiment, N (North) stator slots 1,2,3,4,5,6,7, and 8 are used for providing 8-phase outputs. As illustrated, the slots 106e, 106f, 106g, and 106h also have their ground (neutral), and 106a, 106b, 106c, and 106d also have their ground (neutral), 112.

[39] In drawing FIG.1 for each pair of opposing stator slots, a coil is connected to opposing stator slots wherein the coil extends from outputs 1,2,3,4,5,6,7, and 8 and connects to the terminals at neutral point 112.

[40] In drawing, FIG.2 Phase A is formed by opposing stator slots 106a and 106e, Phase B is formed by opposing stator slots 106b and 106f, Phase C is formed by opposing stator slots 106c and 106g, and Phase D is formed by opposing stator slots 106d and 106h.

FIG.1 The voltage of each phase is formed when permanent magnet 108 aligns with the opposing stator slots. By way of example, as illustrated in FIG. 1, the South pole and North pole of the permanent magnet 108 align with the opposing stator slots 106e, 106a, respectively. As a result, the voltage of Phase A is achieved in the illustrated configuration. As the armature permanent magnet 108 rotates and aligns with other sets of opposing stator slots, the voltage and current are generated.  It is to be appreciated that magnet 108 is a permanent or rare earth magnet inside of the lamination of the armature 108.

[41] In the FIG.4 displays the direct current motors 28, that rotates the center axis shaft in FIG. 5, FIG. 6 and 7.  FIG.6 illustrates the eccentric load mass diagram for the functioning of the 4-phase motor and generator device of the present invention by the disclosed architecture. The Eccentric load mass Diagram 300 illustrates a graphical representation of the eccentric mass inside the 4-Phase Armatures rotation inside the Stator Wall in FIG.6. The diagram illustrates the relationship between the stator wall and the eccentric load masses mounted on the armatures. The drawing in FIG.6, 300 drawings as divided, illustrates four circles, each corresponding to the armatures in FIG.2 and FIG.3.  FIG. 6 The first circle, 302, indicates the starting point of the rotation of the center axis of rotation, which is clockwise in this case. However, the motor can also be wired for counterclockwise rotation per the application if required. In Circle 302, the “A” phase Axial air gap from the stator wall eccentric mass load “G” is minimal, and the distance “E1” from the center axis of rotation.

[42] In drawing of FIG. 6, the eccentric load mass is indicated by the letter “G,” which is located at a distance ”E1″ from the center axis of rotation “O”. The eccentric load mass is indicated by the letter “I” and is located at a distance “F1″ from the center axis of rotation “O”. Additionally, circle 302 shows the location of the eccentric load mass, indicated by the letter “J,” and “H” is also located in distance “E1” from axis of rotation “O”.

[43] In the drawing of FIG.6 in Circle 304, the eccentric load mass “G” and “J” are both located at a distance “E2” from the center axis of rotation “O”, while the eccentric load mass “I” and “H” are located at a distance “F2” from the center axis of rotation. In Circle 306, the eccentric load mass “J” is located at a certain distance “E3” from the center axis of rotation “O”, while the eccentric load mass “H”  is located at a distance “F3” from the center axis of rotation “O”, “G” and “I” are also located in E1 from the center axis of rotation “O”.

[44] In the drawing of FIG.6 In Circle 308, the eccentric load mass “I” and “J” are both located at a distance “E4″ from the center axis of rotation “O”, while the eccentric load mass “H” and “G” are located at a distance “F4” from the center axis of rotation “O”.

[45] In the drawing of FIG. 7 illustrates Eccentric load or rotor mass Diagram 400, as shown in drawing of FIG. 7, and displays the relationship between the 4-phase stator wall and eccentric load or rotor masses.  Diagram 400. Starting with the top left Circle 402, illustrates eccentric load mass “I”, which is located at a distance “E5” from the center axis of rotation “O”, while eccentric load mass “G” is located at a distance “F5” from the center axis of rotation “O”. The eccentric load mass locations of “H” and “J” are also displayed in the “E5” area.

[46] In the drawing of FIG.7 The Circle 404, eccentric load masses “H” and “I” are at a distance “E6” from the center axis of rotation “O”, while eccentric load masses “G” and “J” are at a distance “F6” from the center axis of rotation “O”. The Circle 406 illustrates eccentric load mass “H”, which is at a distance “E7” from the center axis of rotation, while eccentric load mass “J” is at a distance “F7” from the center axis of rotation “O” “G” and “I” are in “E7” area. Circle 408 illustrates eccentric load masses “G” and “H”, which are at a distance area. “E8” from the center axis of rotation “O”, while eccentric load masses “J” and “I” are at a distance “F8” from the center axis of rotation “O”. This cycle now repeats Eccentric load or mass Diagram 300 then Eccentric load mass Diagram 400 and so on. The alternating pattern of the eccentric load masses in the two diagrams 300 and 400 helps the eccentric load mass and maximizes the force of system “10” to move in a constant direction of the eccentric mass loads greatest distance from center axis “0”.

[47] The drawing of FIG. 5 illustrates the four armatures’ electromagnetic functions inside the stator wall that provide the means for the eccentric load mass to rotate inside the stator wall. This diagram is for the functioning of the 4-phase generator and eccentric load mass systems of the present invention by the disclosed architecture.  Diagram 500, as shown in the drawing of FIG.5, displays four armatures’ electrical/magnetic relationships with, for example, the stator wall.  As shown, the rotation of the center axis “O” is clockwise.  However, it is appreciated that the rotation can be arranged in a counterclockwise orientation.  Starting with the top left diagram 500, diagram 502 illustrates the armatures and stator walls magnetic fields relationship of the armatures and stator wall, resulting in the armatures revolving about the center axis of rotation “O” and facing a first direction.  The stator and armature of Diagram 502 display the 4-phase stator wall magnetic relationship with the 4-phase armatures, with “A” and “C” phase power first.  Thus, Diagram 502 represents a display of the “A” and “C” phase power stator wall and energized armatures.  Diagram 504 illustrates the Controls panel providing power to the armatures and stator wall, within the center axis of rotation “O”.  The stator and armature of Diagram 504 display the 4-phase stator wall magnetic relationship with the 4-phase armatures with “B” and “D” phase power second.  Thus, Diagram 504 represents a display of the “B” and “D” phase power stator wall and energized armatures.  The stator and armature of Diagram 506 display the 4-phase stator wall magnetic relationship with the 4-phase armatures with “C” and “A” phase power third.  Thus, Diagram 506 represents a display of “C” and “A” phase power stator walls and energized armatures.  The stator and armature of Diagram 508 display the 4-phase stator wall magnetic relationship with the 4-phase armatures with “D” and “B” phase power fourth.  Thus, Diagram 508 represents a display of the “D” and “B” phase power stator wall and energized armatures.  The full revolution cycle repeats from 508 to 502, next to 504,  506, 508. resulting in armatures revolving about the center axis of rotation and facing the same direction while revolving about the center axis of rotation.  The revolutions per minute of the center axis of rotation shall be increased or decreased to maximize or minimize the effects of the eccentric mass load upon the center axis of rotation for translational force generation to move the system in a direction that is constant.

[48] In the drawing of FIG.5, diagram 500 represents one system that rotates in a counterclockwise motion of its center axis and a second system that rotates in a clockwise motion of its center axis of rotation.  Each of these systems, 502, 504, 506, and 508, can be one in front of the other so that the eccentric load mass is always peaking at the “A” phase to control the effects of the eccentric mass loads upon the center axis of rotation O, resulting in the systems illustrated in the drawing of FIG.6 and moving in the direction of greatest distance of eccentric mass loads J, G, H, and I, defined as E1, E2, E3, E4, E5, E6, E7, and E8, distance from center axis of rotation “O”.

1. Present systems disclose the eccentric mass on each of the four-phase armatures, moving the systems in the direction of the eccentric mass loads G, H, I, and J out furthest from the center axis of rotation.  The top and bottom of each of the four armatures will have a single brush top and a single brush bottom, and conductor segments that go to a control panel where amps and voltage are regulated to the armature’s windings.  See the drawing in FIG.4 for details.

[49] In the drawing of FIG.4, the armature coils can be soldered to the top and bottom of a copper communications ring.  The brushes can be mechanically attached to the shaft with dielectric hardware. From the brushes, a conductor segment is wired to a control panel, and the control panel controls the current being able to unload or load the current from the installed coils on each of the four armatures from the Control panel that regulates the voltage and current from the Lithium battery bank or Solar Panels using automation or manual controls for voltage and current to each FIG.1, FIG.2, FIG.3

[50] The 4-Phase Motor Generator figures, in the drawings of FIG. 6 and FIG. 7, display the location of the eccentric mass loads as they revolve about their center axis of rotation.  These eccentric mass loads (labeled G, H, I, and J) are identical load mass, and as they revolve around the center axis of rotation.

[51] In the drawing of FIG.4, one eccentric mass load system ”14″ revolves clockwise, and the other eccentric mass load system “14” revolves counterclockwise about its center axis of rotation.  Systems have displayed 4 armatures in one system and 4 armatures in the other eccentric mass load system, making a total of 8 armatures within a pair of stator walls.  This results in both of the eccentric mass load systems being a greater distance from the center axis of rotation at the same time (i.e., simultaneously), and the Eccentric mass load systems are closest to the center axis of rotation simultaneously, and out furthest from the center axis of rotation simultaneously resulting in this system moving in a direction that is constant in the Earths gravitational field or in the Higgs Field in Outer Space.

[52] In contrast, the present disclosure includes an eccentric mass load system having 4 eccentric mass loads revolving clockwise about its center axis of rotation and another 4 eccentric mass loads revolving counterclockwise about its center axis of rotation.  The result is a system that moves in a constant direction, in the gravitational field of the Earth or the Higgs Field that exists in outer space.  The present disclosure includes 2 eccentric mass load systems, for example, 4 eccentric mass loads revolving clockwise and 4 eccentric mass loads revolving counterclockwise, within their respective stator wall.  This result is the movement of the eccentric mass loads or eccentric rotor masses in a constant direction, as the eccentric mass loads G, H, I and J as these eccentric mass loads occupy E1, E2, E3, E4, E5, E6, E7 and E8 furthest distance from the center axis of rotation, as they revolve about the center axis of rotation “0”, See drawings FIG.6 and FIG.7 for details of operation.

[53] Certain terms used throughout the following description refer to features or components. As one skilled in art will appreciate, different people may refer to the same feature or component by different names. This document does not intend to distinguish between components or features that differ in name but not in structure or function. As used herein, “4-phase motor and generator device”, “4-phase generator”, “generator”, and “4-phase generator and eccentric mass load systems” are interchangeable and refer to the 4-phase and generator and eccentric mass load systems, 100 of the present invention. See drawings of FIG.1, FIG.2, and FIG.3.

[54] Notwithstanding the foregoing, the 4-phase generator and eccentric mass load systems in FIG.1, FIG.2, FIG.3, FIG.4, FIG.5, FIG.6, FIG.7 and FIG.8 item  of the present invention, can be of any suitable size and configuration as is known in art without affecting the overall concept of the invention if it accomplishes the above-stated objectives. One of the ordinary skills in art will appreciate that the 4-phase generator and eccentric mass load systems. FIG.4 is for illustrative purposes only and many other sizes and shapes of the 4-phase generator and eccentric mass load systems are well within the scope of the present disclosure. Although the dimensions of the 4-phase generator with eccentric mass load systems are important design parameters for user convenience, the 4-phase generator and eccentric mass load systems may be of any size that ensures optimal performance during use and/or that suits the user’s needs and/or preferences.

[55] The present invention, in one exemplary embodiment, is a method of operating 4-Phase Generator and eccentric mass load subsystems.   A solar powered panel system will provide power for the Lithium battery bank will provide the electric power, to rotate the current to the direct current motor, to provide a method of rotating permanent magnetic armature with four north poles and 4 south poles inside a stator wall, the stator wall having a circular or cylindrical shape, with eight stator slots divided into four pole groups, each pole group has a N (North) stator slot and a S (South) stator slot, wherein four of the stator slots on one side of the stator wall correspond to the other four of the stator slots on an opposing side of the stator wall as described in the drawings. The permeant magnetic armature will generate eight outputs of power from the Stator wall to the control panel.

[56] This will provide electric power for two systems each containing four armatures, each armature has eight poles two A poles, two B poles, two C poles, two D poles opposite each other.  These four armatures are inside an eight-pole stator wall, as a result the stator wall eight stator slots also have two A magnetic slots, two B magnetic slots, two C magnetic slots and two D magnetic slots that receive their power for the Lithium battery bank regulated from the Control panel.  These four armatures are attached to a deck that has a center axis that rotates either clockwise or counterclockwise. This center axis is mechanically attached to a direct power motor that rotates the deck either clockwise or counterclockwise, as described in the drawings.

[57]   The armatures inside the stator wall will have an eccentric mass load on each armature that is mechanically attached to each armature, as illustrated in the drawings.

[58] As described in the drawings, one eccentric mass load system will rotate clockwise, and the other eccentric mass load system will rotate counterclockwise.  These eccentric mass load systems will be mounted on decks and a timing gear will keep the synchronized to distribute the eccentric mass load in one direction that is constant as defined in the drawings.

[59] This application of eccentric load mass systems presents unique technical objectives and challenges, fundamentally altering the dynamics of current angular momentum conservation laws.  In systems with eccentric mass load configurations, the distribution of mass around the axis of rotation is non-uniform, leading to deviations from traditional “Conservation Laws Principles”.  The angular momentum of this system is intricately tied to the mass, its radial distance from the axis, and the angular velocity.  As a result, the angular momentum varies throughout the rotation cycle, peaking at points where the mass is furthest out from the center axis of rotation and diminishing when closer to the center axis of rotation.  The result is the eccentric mass load systems of the 4-Phase Motor Generator Device move in a direction that is constant where the mass is furthest out from the center axis of rotation, in the direction of Earth’s gravitational field, and/or in HIGGS Fields in outer space.

The invention relates to a novel 4-phase motor and generator device with increased efficiency for generating electrical energy. The device features a stator wall with eight stator slots and four pole groups, and an armature of permeant magnetic material with four north poles and four south poles, rotatable within the stator wall. The permanent magnetic armatures rotating the magnetic field within the stator wall, resulting in eight direct currents outputs.  Solar powered panel system will provide power for the Lithium battery bank the will provide the power for the direct current motor that rotates the permanent magnetic armature and as the eight pole permeant magnetic armature fields inside the eight-pole stator wall current will be induced into the eight-pole stator wall for direct current output power to a control panel for power distribution to other devices within this patent application as defined in the drawings and claims.