Abstract: A crude oil lifting system that uses pneumatic and/or hydraulic sources to control vertical operations of a downhole pipe. The lifting system may have a plurality of lifting actuators, a plurality of alignment actuators, and a guiding system. A plurality of hydraulic cylinders may be coupled to an attachment platform that is coupled to a sucker rod. Pressurization and de-pressurization of the hydraulic cylinders causes repeated vertical movement of the sucker rod, thereby retrieving oil or gas from a downhole well. A control system may selectively and individually actuate each hydraulic cylinder and/or pneumatic cylinder based on measurements provided by a plurality of telemetry and/or position sensors. A plurality of permanent or electromagnetic magnets may be utilized to assist in vertical movements of the attachment platform, and a plurality of DC generators may be utilized to generate power from the vertical movement.

Abstract: Apparatuses, systems, and methods of use for a magnetic coupling device is disclosed. The magnetic device may have a plurality of magnets to create a magnetic field to the devices enclosed within the device. The coupling device may have a housing that encloses and/or partially surrounds one or more rotatable shafts. The coupling device may couple an output shaft from a motor to an input shaft of a generator. The coupling device may have an electric coil that when energized may vary any applied magnetic field to the rotatable shafts. The magnetic device may have a first plurality of magnets positioned at a first radial position and a second plurality of magnets positioned at a second radial position, with the first magnets being rotatable and the second magnets being stationary. Multiple magnetic coupling devices may be coupled together in series to provide increased magnetic fields to the enclosed system.

Abstract: Apparatuses, systems, and methods of use for a generator is disclosed. In one embodiment, the generator has a stator and a rotor and a first plurality of magnets coupled to the rotor and a second plurality of magnets coupled to the stator. An external magnetic housing may be coupled to an input shaft of the generator or surround the generator itself. A first layer of magnets produce a rotating magnetic field and a second layer of magnets create a static magnetic field, whether such magnets are in the generator itself or within an external magnetic housing. The disclosed generator increases the mechanical power inputted into the generator, which then produces an increased output of the generator.

Abstract: Apparatuses, systems, and methods of use for a magnetic coupling device is disclosed. The magnetic device may have a plurality of magnets to create a magnetic field to the devices enclosed within the device. The coupling device may have a housing that encloses and/or partially surrounds one or more rotatable shafts. The coupling device may couple an output shaft from a motor to an input shaft of a generator. The coupling device may have an electric coil that when energized may vary any applied magnetic field to the rotatable shafts. The magnetic device may have a first plurality of magnets positioned at a first radial position and a second plurality of magnets positioned at a second radial position, with the first magnets being rotatable and the second magnets being stationary. Multiple magnetic coupling devices may be coupled together in series to provide increased magnetic fields to the enclosed system.

Abstract: Apparatuses, systems, and methods of use for a magnetic coupling device is disclosed. The magnetic device may have a plurality of magnets to create a magnetic field to the devices enclosed within the device. The coupling device may have a housing that encloses and/or partially surrounds one or more rotatable shafts. The coupling device may couple an output shaft from a motor to an input shaft of a generator. The coupling device may have an electric coil that when energized may vary any applied magnetic field to the rotatable shafts. The magnetic device may have a first plurality of magnets positioned at a first radial position and a second plurality of magnets positioned at a second radial position, with the first magnets being rotatable and the second magnets being stationary. Multiple magnetic coupling devices may be coupled together in series to provide increased magnetic fields to the enclosed system.

Abstract: The system and method of the present disclosure is a stand-alone power generation and production system that obtains, stores, and transfers motive energy by utilizing one or more magnetic devices. Electrical energy is provided from a battery to a motor, mechanical energy is provided from the motor to a generator with the aid of a coupling device, and electrical energy is produced from the generator, which may be routed back to the batteries or to an external load. Any one or more of the motor, coupler, and generator may be a magnetically enhanced device with the use of specially configured permanent magnets to create enhanced magnetic fields. The enhanced magnetic devices increase the power output based on the same power input, and may require less power input to produce the same power output.

Abstract: Apparatuses, systems, and methods of use for a magnetic coupling device is disclosed. The magnetic device may have a plurality of magnets to create a magnetic field to the devices enclosed within the device. The coupling device may have a housing that encloses and/or partially surrounds one or more rotatable shafts. The coupling device may couple an output shaft from a motor to an input shaft of a generator. The coupling device may have an electric coil that when energized may vary any applied magnetic field to the rotatable shafts. The magnetic device may have a first plurality of magnets positioned at a first radial position and a second plurality of magnets positioned at a second radial position, with the first magnets being rotatable and the second magnets being stationary. Multiple magnetic coupling devices may be coupled together in series to provide increased magnetic fields to the enclosed system.

Abstract: Apparatuses, systems, and methods of use for a generator is disclosed. In one embodiment, the generator comprises a stator and a rotor and a first plurality of magnets coupled to the rotor and a second plurality of magnets coupled to the stator. An external magnetic housing may be coupled to an input shaft of the generator or surround the generator itself. A first layer of magnets produce a rotating magnetic field and a second layer of magnets create a static magnetic field, whether such magnets are in the generator itself or within an external magnetic housing. The disclosed generator increases the mechanical power inputted into the generator, which then produces an increased output of the generator.

Abstract: Apparatuses, systems, and methods of use for an electric motor is disclosed. The motor may comprise a stator and a rotor and a plurality of permanent magnets coupled to the rotor, such that the magnets rotate with rotation of the rotor. In one embodiment, the motor provides a rotating magnetic field (from the permanent magnets) and a static magnetic field (from the energized stator). The permanent magnets may have different sizes, shapes, and strengths. The magnets may be positioned on the rotor and arranged to create an unbalanced magnetic force to create constant slippage, movement, and/or rotation of the rotor. Continuous or pulsating current may be provided to the motor to provide constant power output. The use of multiple magnetic fields in the magnetic motor increases the torque of the motor and decreases the amperage necessary to produce a particular RPM, torque, and/or power.