Abstract:
A shell having a closed upper end and an open lower end, and a weight in the form of a piston sealingly slidable in the shell. In one form partial vacuum is produced in the shell above the weight and atmospheric pressure consequently raises the weight. In another form, pressurized air lifts the weight, against the action of weight. The weight has driving connection with a load, such as a generator, and upon being permitted to drop, acting by its potential energy, drives the load. The partial vacuum is produced in one form, by heating and cooling units; and in another form, by natural heating and cooling. A plurality of power plants are utilized to drive a single load, so that one weight can be raised, and the power plant re-activated, while others continue to drive the load, thereby maintaining continuity of drive. A modified form includes a common reservoir and a plurality of individual power plant units, with the vacuum, or the pressurized air, respectively, in the common reservoir affecting all of the units.
Abstract:
A pressure differential-driven engine comprises an outer pressurizable enclosure and an actuator enclosure, disposed within the outer enclosure. An actuator is disposed within the actuator enclosure and a portion of the actuator and the actuator enclosure cooperatively define a pressurizable cavity cyclable between a first, high pressure state, and a second, low pressure state. The actuator and actuator enclosure are collectively restrained by at least one rail to linear, slidable motion within the outer enclosure. The engine is operable to output usable energy as the pressurizable cavity cycles between the first and second pressure states.
Abstract:
A magnet attracts succeeding sites distributed about the periphery of a disk causing the disk to rotate. The resulting centrifugal force pulls radially outwards a plurality of piston-like weights mounted on the disk lowering the pressure within a housing for the weights and in a vacuum tank to which the housing is communicated via a check valve. When the weights are all the way out, they operate a trip which renders the magnet temporarily ineffective. Springs return the weights back toward the center of the disk. The vacuum tank is communicated to an opposed piston engine via timed valves which alternately communicate the engine cylinders to the vacuum, for oscillating the opposed pistons. A crank shaft connected to these pistons converts the reciprocating motion to rotary motion.
Abstract:
A reciprocating engine utilizes the pressure difference between a partial vacuum and the ambient atmospheric pressure as a source of power. The engine includes an engine block defining a plurality of cylinders each having a piston operating within it. The first or outer face of each piston is maintained substantially at atmospheric pressure while the second or inner face of each piston is maintained at less than ambient atmospheric pressure during the power stroke of the piston by connection to a flame-free vacuum source. Once each piston has reached the end of this power stroke due to the pressure difference across the piston, a limited amount of air is permitted to enter the respective cylinder adjacent the second or inner face of the piston to thereby return the second face of the piston to substantially atmospheric pressure. With the pressure on both faces of the piston being substantially equalized, the piston is permitted to return to the beginning of its power stroke by rotation of an output or crankshaft which is being rotated by action of a different piston. Upon reaching the beginning of its power stroke, the air inlet is cut off and the flame-free vacuum means again applied to return the second face of the piston to a pressure less than the ambient atmospheric pressure to thereby re-establish the pressure difference across the piston, resulting in the power stroke of the piston. Output means including an output shaft are operatively connected to the pistons to translate the reciprocating motion of the pistons into rotary motion of the output shaft. The output shaft carries a flywheel and the inertial effects of the flywheel are utilized to return each piston from the end of its power stroke to the beginning of its power stroke.
Abstract:
There is provided an energy storage system. The system includes a storage tank, a reservoir connected to the storage tank configured to store fluid and exchange the stored fluid with the storage tank, at least one path configured to transfer the stored fluid between the storage tank and the reservoir, a pump configured to inject the stored fluid into the storage tank and compress air in the storage tank, and a generator configured to generate electricity by using the injected fluid transferred from the storage tank to the reservoir.
Abstract:
A pressure differential-driven engine comprises an outer pressurizable enclosure and an actuator enclosure, disposed within the outer enclosure. An actuator is disposed within the actuator enclosure and a portion of the actuator and the actuator enclosure cooperatively define a pressurizable cavity cyclable between a first, high pressure state, and a second, low pressure state. The actuator and actuator enclosure are collectively restrained by at least one rail to linear, slidable motion within the outer enclosure. The engine is operable to output usable energy as the pressurizable cavity cycles between the first and second pressure states.
Abstract:
A pressure differential-driven engine (10) includes an outer pressurizable enclosure (12). A pressure barrier plate (14) is disposed within the outer pressurizable enclosure and an actuator enclosure (16) is disposed adjacent the pressure barrier plate and has an actuator (17) disposed therein. The actuator has a high pressure exposure surface (30) forming an oblique angle with respect to the pressure barrier plate. The pressure barrier plate, a bottom of the actuator, and the actuator enclosure cooperatively define a pressurizable cavity (34) cyclable between a first, high pressure state, and a second, low pressure state. The actuator and actuator enclosure are collectively slidable relative to the barrier plate in reaction to cycling of the pressurizable cavity between the first and second pressure states to produce usable translational energy.
Abstract:
An air powered engine that includes at least one pair of diametrically opposing cylinders, a piston in, and fluidly dividing into a first space and a second space, each cylinder, a connecting rod pivotally connected to each piston, a crankshaft pivotally receiving each connecting rod, a pair of solenoid valves in fluid communication with the first space and the second space, respectively, of each of the cylinders, an intake manifold in fluid communication with one valve of the pair of solenoid valves of each space for communicating with the ambient, an exhaust manifold in fluid communication with the other valve of the pair of solenoid valves of each space, an oil pump in fluid communication with the exhaust manifold, and an oil reservoir containing the oil pump therein.
Abstract:
The invention relates to mechanical engineering. The present device for obtaining mechanical work from a non-thermal energy source comprises a cylindrical housing, a rotor, a vacuum chamber, movable elements, and systems for removal and supply of a working fluid. The rotor is provided with blades and is fastened to the power shaft, disposed inside the housing. The chamber is formed by the outside surface of the bladed rotor and the inside surface of the housing. The movable elements are mounted in diametric opposition inside the housing of the device and divide the chamber into equal parts. The shaft and blades of the rotor are hollow. The inlet ports and outlet ports are provided in surfaces of the rotor blades. Or outlet ports are provided in the housing. The technical result is an increase in the output, efficiency and environmental friendliness of the device, together with a simplified design.