1713results about "Motors" patented technology

A suspended-load backpack designed to permit the load to move relative to the backpack frame during walking and running so that the large movements between the load and the frame of the backpack reduce the fluctuations of absolute vertical motion of the load. Because the hip (and thus the pack frame) go up a down a good deal during walking, a large relative movement between the frame and the load reduces the absolute excursion of the load. This movement may be, in turn, transferred to a motor through, for example, a rack and pinion gear, to convert the mechanical movement to electrical energy. The movement may also be converted to electrical energy by using an electroactive polymer (EAP) to connect the suspended load to the frame. Such designs allow the load to move in a controlled fashion to prevent the patient from losing his or her balance as the load moves up and down along the backpack frame. Such movement of the suspended-load relative to the frame also reduces the forces on the wearer's shoulders while walking or running, thus reducing the likelihood of orthopedic injury.

A heating medium supply system is provided which is capable of sufficiently suppressing a temperature fluctuation of a heating medium, by the time when a heat exchanging device recovers heat of the heating medium, by leveling the temperature fluctuation fluctuating inevitably with time. The heating medium supply system includes: a heat collecting unit configured to heat a liquid heating medium by sunlight; a heat exchanging device configured to heat water supplied thereto by means of the heating medium supplied thereto from the heat collecting unit; heating medium supply piping for supplying the heating medium from the heat collecting unit to the heat exchanging device; and a heating medium heater for heating the heating medium and a temperature measuring device configured to measure a temperature of the heating medium, which are provided on the heating medium supply piping.

A generator/sensor may include a pair of arcuate swing arms having respective opposing ends pivotally carried by a base so that the arcuate swing arms are transverse to one another and define a movable crossing point therebetween. A body may be carried by the arcuate swing arms at the crossing point therebetween. At least one electrical generator may be driven by relative movement between the body and the base, such as to generate electrical power or to sense movement, for example. The body may be a pendulum mass or sail responsive to fluid flow.

An energy storage device including at least one shaft member, at least a pair of flywheels including a first flywheel and a second flywheel larger than the first flywheel, each flywheel associated with the at least one shaft member, a clutch assembly associated with each of the flywheels, at least one low power input device, and a power take off means associated with the second flywheel, wherein the first flywheel is rotated using a low power input device and is accelerated to a predetermined rotational velocity whereupon the clutch assembly engages to connect the first and second flywheels allowing inertial and kinetic energy to transfer between the flywheels to accelerate the second flywheel.

Disclosed herein are two separate processes that do not require a propellant and do not produce an equal and opposite reaction against any external form of matter in the Local Inertial Reference Frame and do not violate Newton's Laws in the Universal Reference Frame. The first process produces horizontal motion, relies on the earth's gravitational field as an external force, and has been successfully tested. The second process produces vertical motion and relies only on the aether. It has been successfully tested considering the effect of the earth's gravity. Due to the law of conservation of angular momentum, the first process is considered by some to not be possible, but with the proper use of an external field (for example, gravity) and the phenomenon of precession, it is clearly possible. A clear distinction is made between a simple rotor and a gyroscope which is a far more complex device.

A sealed-shaft gravity-buoyancy energy system and method of use thereof, wherein a wheel is powered by ball masses which fall under gravitational force, thereby causing the wheel to rotate. The ball masses are collected and inserted into a fluid shaft, wherein the fluid shaft comprises at least two separate columns having valves at the ends thereof to provide a sealing function, thereby preventing fluid loss. Buoyant force raises the ball masses to the top of the device, wherein the ball masses are deposited once again onto the wheel. A generator or other device utilizes the rotational force of the wheel to create energy.

A power transmission device and an image forming apparatus having the same that is capable of reliably transmitting intermittent power to a driven component from a driving source. The power transmission device includes a shaft, a first intermittent gear to receive power from the driving source and to rotate on the shaft, a second intermittent gear arranged so as to move between a first position in which the second intermittent gear is connected to the first intermittent gear along an axial direction of the shaft and a second position in which the second intermittent gear is disconnected from the first intermittent gear, a sliding unit arranged so as to slide along the shaft and to move the second intermittent gear in the axial direction of the shaft, and a driving unit to drive the sliding unit.

A cam powered mechanism which uses two cam forms, a swing arm, and turret to drive an output shaft with a compound radial and axial movement. An arrangement in which a cam follower is positioned opposite each planar surface of the rectangular spline connecting the turret and output shaft acts to increase turret strength and reduces the size of the mechanism.

The invention discloses a motion object generation device, belonging to generation device technical field. The motion object generation device comprises a surface layer deformed when subjecting to force, a plurality of hydraulic cylinders arranged below the surface layer, a hydraulic turbine, and a generator connected with the hydraulic turbine; the hydraulic cylinder is internally provided with a hydraulic piston which can move up and down; the hydraulic piston is contacted with the surface layer; the hydraulic cylinder is internally provided with liquid; the hydraulic cylinder is provided with a liquid outlet and a liquid inlet; the liquid outlet and the liquid inlet are respectively connected with a check valve; the liquid outlet of each hydraulic cylinder is communicated with an inlet of the hydraulic turbine by a liquid outlet pipe; the outlet of the hydraulic turbine is communicated with a liquid inlet of each hydraulic cylinder by a liquid inlet pipe. The invention can convert the mechanical energy of vibration on the road surface caused by gravity of vehicle into the electric energy; with simple structure, the invention is a generation device without pollution or consuming the natural resources.

Installation for harnessing wave energy, comprising a floating structure (1) that comprises at least one gyroscopic device (5) with a flywheel (6) that can turn by the action of a motor (7) and a generator (10) configured so that when the gyroscopic device (5) is in use, said flywheel (6) is subjected to a pitching torque caused by the motion of the waves that feeds the generator (10), wherein the installation also comprises: means (23, 44) for controlling the motor (7); means (24,45) for controlling the generator (10); a floating device (25) for capturing data on the waves; means for transmitting the data captured by the data-capturing floating device (25) and for receiving said data in the floating structure (1); a control unit (16) that calculates at least one parameter applicable by the means (23, 44) for controlling the motor (7) and at least one parameter applicable by the means (24, 45) for controlling the generator (10).

The present invention discloses an apparatus of converting gravitational energy to electrical energy. The apparatus includes a reciprocating drive mechanism for lifting liquid from a bottom reservoir to an upper reservoir and turbines between the upper and lower reservoirs which are turned by liquid falling down a flow path from the top reservoir through the turbines to the bottom reservoir. The reciprocating drive mechanism includes a large circular ring or wheel pivotally attached at its hub or center to a support frame and a cable over the upper periphery of the ring with two pipes attached one at each end of the cable. The ring pivots back and forth lifting one pipe and lowering the other pipe and vice versa. As a pipe moves down liquid enters the bottom of the pipe while liquid drains out the top of the pipe into the upper reservoir. One of the turbines is connected to the reciprocating drive mechanism and the other to a generator for producing electricity.

A gravity power generation mechanism utilizes a gravity energy conversion unit to convert the gravity potential energy into the kinetic energy. The gravity energy conversion unit produces positive torques by adopting outward-spreading single directional swing arms and reduces the negative torques by cooperating with the folding action of the single directional swing arms, so as to perform a long-time, effective and continuous energy conversion of converting gravity potential energy into the kinetic energy. Next, the kinetic energy will be transmitted to a power generating unit to perform another energy conversion of converting the kinetic energy into the electric energy. And finally, a power supply system is used to transmit the electric energy out. By such arrangements, the gravity power generation mechanism not only has the advantages, such as: more simplified in structure, higher conversion ratio, and more environment-friendly but only needs a little of starting energy to perform a long-time energy conversion.

A tire inflation system including a drive mechanism having a rotational axis, a pump cavity positioned a radial distance away from the axis of rotation, and a force translator coupling the rotational axis to the pump cavity. The drive mechanism includes a cam comprising an arcuate bearing surface having a non-uniform curvature, the cam rotatable about the rotational axis, and an eccentric mass couple to the cam that offsets a center of mass of the drive mechanism from the rotational axis. The pump cavity is rotatably coupled to the cam, wherein the pump cavity includes an actuating element and a chamber. The force translator couples the arcuate bearing surface to the actuating element, wherein the force translator includes an axis having an arcuate position fixed to an arcuate position of the pump cavity.