A system is provided for generating electrical energy from passage of a vehicle over a road surface. The system comprises a pressure receiver connected to a rotatable shaft associated with a primary transmission unit. The pressure receiver is adapted for swinging motion over the road surface, so that upon pressure being applied to the pressure receiver by the moving vehicle the receiver swings in the direction of vehicle movement, wherein kinetic energy of vehicle motion is transferred to the shaft resulted in its rotation causing operation of a primary energy transmission unit consisting of the driving sprocket and a driven sprocket-follower wheel assembly which is coupled by a leading transmission arrangement an electrical generator.

A generator system includes a system configured to support a load, the system including a stationary lower support and an upper support capable of moving in an upward and a downward direction. The system includes at least a first folding support and a second folding support positioned on opposite ends of the system between the upper support and the lower support, a gear rack assembly positioned at a midpoint of the system between the first folding support and the second folding support. The gear rack assembly includes an upper gear rack connected to the first folding support, a lower gear rack connected to the second folding support, and a gear for engaging the upper gear rack and the lower gear rack. A shaft connected to a dynamo is configured to rotate with the gear, converting rotational movement to electrical power.

This system includes a belt drive system for a wind turbine generator comprising: a tower having a wind turbine wheel rotatably attached to the tower; a generator platform attached to the tower; a generator supported by the generator platform; and, a turbine drive belt adapted to engaged with the wind turbine wheel and the generator to transfer rotational energy from the wind turbine wheel to the generator to generate electricity.

An exercise device with controllable training modes includes a base, a first exercise mechanism, a second exercise mechanism, and an operating mechanism. The first exercise mechanism has a first gear member. The second exercise mechanism has a second gear member. The operating mechanism has a third gear member. When the third gear member is at a first position, the third gear member meshes with the first gear member and the second gear member to form a linked state, so that the first exercise mechanism and the second exercise mechanism are operatively linked and coupled and swing in opposite directions. When the third gear member is at a second position, the third gear member is disengaged from either the first gear member or the second gear member or both to form a free state, so that the first exercise mechanism and the second exercise mechanism individually swing.

A drive mechanism includes a mount block extending along an axis and a plurality of electric motors supported by the mount block. The electric motors are arranged in series along the axis to define an initial electric motor, one or more intermediate electric motors, and a final electric motor. The drive mechanism also includes a gear mounted to each of the electric motors, and an output member driven by the gear mounted to the final electric motor to receive the combined rotational torque from the gears of the series of electric motors.

A washing machine appliance includes a wash basket rotatably mounted within a wash tub for receiving of a load of articles for washing. A motor assembly is operably coupled to the wash basket and an agitation element for selectively rotating the wash basket and the agitation element and includes a drive motor having a motor shaft defining an axial direction, a transmission assembly operably coupled to the wash basket for transmitting torque from the motor shaft to the wash basket and the agitation element and the agitation element, and a cooling fan mechanically coupled to the motor shaft for urging a flow of air as the drive motor rotates the motor shaft, the cooling fan comprising a plurality of blades, wherein the plurality of blades have a geometry that varies along the axial direction to follow a contour of an external surface of the drive motor.

A sorting installation, in particular for transporting and/or sorting items to be conveyed, includes a transport path, a stator arranged adjacent to the transport path and a transport unit configured to move on the transport path in a movement direction. The transport unit includes a conveyor element for loading and/or unloading an item, and a conveyor rotor for driving the conveyor element. The conveyor rotor includes a permanent magnet and interacts electromagnetically with the stator for rotation about an axis of rotation. A latching apparatus applies a detent torque on the conveyor rotor, when the conveyor rotor interacts electromagnetically with the latching apparatus.

The invention relates to a construction and/or material-handling machine, in particular a crane, comprising a movable functional element, in particular a functional element suspended in an oscillating manner, in particular in the form of a load receiving means, at least one drive device for moving the functional element, a detection device for detecting manual manipulation movements for moving the functional element, and a controller for actuating the drive device on the basis of the detected manipulation movement. The aforementioned detection device has an inertial measuring device, which is attached to the functional element and comprises an acceleration and rotational rate sensor means for providing acceleration and rotational rate signals, and a detection device for detecting the deflection of the functional element from the aforementioned acceleration and rotational rate signals of the inertial measuring device, and the aforementioned controller is de-signed to actuate the at least one drive device so as to compensate for the detected deflection.

A portable apparatus for generating electricity is provided comprising an electrical energy-generating device for generating electrical energy in response to input mechanical action. The apparatus comprises a drive mechanism having an elongate flexible member provided as a closed endless loop. A portion of the elongate flexible member is exposed so as to enable a user to grasp and pull said portion downward by a distance of at least 30 cm. The drive mechanism supplies the said mechanical action to the electricity-generating device, wherein said mechanical action is provided by user applying a downward force to the elongate flexible member so as to cause the elongate flexible member to move with respect to the mounting element. A re-chargeable battery is further provided for storing the electrical energy generated by the electrical energy-generating device. A mounting element enables the apparatus to be supported at a suspended position relative to the ground during use.

A collapsible wind turbine includes a turbine with a vertical axis (A). The turbine is supported by a vertical pylon, pivotably mounted about a hinge, and by linking members connecting the rotation shaft of the turbine to the pylon while maintaining a separation therebetween. The wind turbine includes: —an electricity generator of which the axis of rotation is perpendicular to the longitudinal axis of the pylon, the generator being secured to the ground; and—at least one flexible link connecting and synchronising the rotation of the generator with the rotation shaft of the turbine by linear travel of the flexible link in a closed-circuit path, so as to drive the rotation shaft of the generator by the movement of the turbine. The present structure is, in particular related to land-based wind turbines in a cyclone-prone area.