549results about "Mechanical braking transmission" patented technology

Described herein are various embodiments of trolleys usable for traversing cables such as zip lines. Various embodiments have been particularly adapted to perform better under different circumstances or in different applications using braking including impact braking.

The present invention discloses a ride-on floor scrubber which comprises a chassis storage battery group controller braking device, a driving device arranged at the bottom of the chassis, a ground brush disc device which is connected with a thrusting rod motor, a clean water supply system arranged at the upper part of the chassis, a sewage absorbing system arranged at the tail end of the chassis and a steering device arranged at the front end of the chassis. The floor scrubber can be used for cleaning the cement floor and the floor paved with floor bricks, ceramic tiles, marble, etc., which has good cleaning effect without residual water stain on the floor that is washed and blotted up.

A slow speed, driver's stand-up only, three-wheels, portable, leverless, extremely lightweight, two-part personal mobility vehicle. A front major part, wheel drive assembly, comprising of an upper sub-part, comprising of levers free steering handle mounted on steering column. A lower sub-part comprises of an extended backwards supporting leg, a control box, an electric chain motor assembly, a fork assembly, and front wheel assembly. A two-part hinge assembly below the steering column, enabling folding steering column, and, if necessary, removal. A second major part, a rear assembly chassis, comprising of a riders flat platform surface mounted on a rectangular metal frame, partially mounted on a rear axle, which is connected to both rear wheels. A rear hydraulic foot brake system installed in both rear wheels, whereby a foot brake (pedal) lever formed on top platform surface. An alternative, none-emergency hand brake lever, may be fastened on the steering handle. A removable battery pack is formed on the platform surface. A two-part telescopic box fit assembly, whereby a receiving part is mounted upward on the end of extended leg; a second, sleeve-type part, is formed, respectively, downward on the front platform frame, for interconnecting both major vehicle parts into a complete vehicle, ready to drive at lower speed than 5 MPH. Two sets of simple outlet-plug assembly are formed on respective parts of the battery and platform, and on both ends of the telescopic assembly to supply power to the motor. Said telescopic connecting mechanism enables assembly, disassembly, loading and unloading in less than seven seconds.

Disclosed is a vehicle brake device of an electronic hydraulic brake system. The vehicle brake device of an electronic hydraulic brake system includes an input shaft coupled to a brake pedal, a pedal operation detector which detects pedal force of a driver, a pedal simulator coupled to the input shaft in a control housing to supply pedal repulsive force, a master cylinder which delivers a hydraulic pressure to a wheel brake when a braking pressure is formed by the brake pedal, a control piston which is adjacent to a first piston of the master cylinder to deliver a hydraulic pressure to the first piston, a control chamber which controls a pressure of the master cylinder between the control piston and the pedal simulator, and a hydraulic pressure supply which delivers a hydraulic pressure to the control chamber as required by a driver, wherein the pedal simulator includes a pedal simulator piston which slidably moves in the control housing, a pressing member which reciprocates corresponding to reciprocating motion of the input shaft in the pedal simulator piston, a simulator piston provided in the pedal simulator piston to slidably move corresponding to movement of the pressing member, and a push rod which is accommodated in the pressing member while being spaced apart from a bottom wall of a guide groove by passing through the pedal simulator piston and the simulator piston from the control piston to the input shaft such that the input shaft is mechanically separated from the first piston in a normal operation mode, and wherein a diameter of the master cylinder is greater than a diameter of the simulator piston, and a diameter of the control piston is greater than a diameter of the master cylinder. The vehicle brake device an electronic hydraulic brake (EHB) system is capable of quickly forming a braking pressure and suitable for generating a greater braking pressure under the same pedal force.

Provided are a cable-driving apparatus that performs the function of an equalizer using a planet gear assembly, and a parking brake system using the cable-driving apparatus. The cable-driving apparatus includes a driving motor; a first planet gear assembly for reducing a rotational velocity of the driving motor; and a second planet gear assembly coupled to the first planet gear assembly, wherein a first parking brake cable is connected to a circumferential outer surface of a ring gear of the second planet gear assembly, and a second parking brake cable is connected to a circumferential outer surface of a carrier of the second planet gear assembly in an opposite direction to the first parking brake cable.

The invention refers to an apparatus for the control of brakes in bicycles and the like, to be used, in particular, for disc brakes mounted on bicycles and comprising a pump able to push fluid into a hydraulic circuit connected to the brake, characterized in that the pump is held inside the handlebar or a part associated therewith.

A braking power modulator is coupled to the brake lever of a brake operating device for easy adjustment and viewing. The braking power modulator is preferably adjustable to provide different braking powers for different riders or different road conditions. The braking power modulator basically includes a mounting member, a brake lever, a biasing member, a modulating member and an adjusting member. The mounting member is adapted to be coupled to a handlebar of a bicycle, and has a cable passageway with a first abutment and a second abutment. The brake lever is pivotally coupled to the mounting member, and has a cable attachment portion. The biasing member is disposed in the cable passageway, and has first and second portions with the first portion of the biasing member being operatively coupled to the first abutment. The modulating member with the adjusting member coupled thereto is movably arranged within the cable passageway and operatively biased against the second abutment by the second portion of the biasing member. The adjusting member is movably arranged along the modulating member and biased toward the second abutment of the mounting member. A cable tensioning member is adjustably coupled to the modulating member. The biasing member is disposed in the tubular portion of the brake lever under a preloaded state with a pre-set compression force. The adjusting member engages the biasing member to change the pre-set compression force of the biasing member without changing the predetermined modulator stroke of the second blocking portion.

The object of the present invention is to exhibit the function of a throttle valve mechanism without making the whole of a master cylinder large-sized and to simplify the structure and to reduce the number of pieces of parts. In order to attain this object, the present invention has throttle valve mechanisms with a floating valve body which sits and throttles the flow of the hydraulic fluid to the reservoir from the pressure generating chambers when the pistons operate and which opens when the pistons do not operate, and the throttle valve mechanisms are arranged in the fluid passage for the supplementation of the hydraulic fluid, and the throttle valve mechanisms have a floating valve body with a throttle passage and a valve seat with and from which the floating valve body is brought into contact and is separated, and the valve seat is provided at the tip of the connecting portions to the cylinder body of the reservoir.

The present invention relates to a connecting unit for the transmission of pulling movements to one end of at least one bowden cable, in particular for a parking brake of a vehicle. The present invention further relates to a method for establishing a connection between a bowden cable and a pulling element for the transmission of pulling movements, as it is preferably used during the assembly of parking brakes in vehicles.The connecting unit comprises a support with at least one opening for the mounting of the connecting unit, a pulling element with at least one receptacle for the end of the at least one bowden cable and a guiding element, where the end of the at least one bowden cable can engage the receptacle, and the guiding element is arranged between the at least one opening of the support and the at least one receptacle. The guiding element deflects the end of the at least one bowden cable under a movement in direction of the receptacle through the at least one opening of the support to the side to engage the receptacle.

A brake beam structure comprising compression and tension members having an "u" shaped cross section including two side walls and forming a housing, two end extensions having a quadrangular cross section including two side walls, a fulcrum coupled to the compression and tension members and two brake heads, in which: the ends of the compression member are placed inside the housing of the unshaped cross section of the tension member and each of the end extensions are placed inside the housing of the channel shaped cross section of the compression member, the brake beam having two fasteners passing through holes placed at the ends of the tension and compression members at each of "u" shaped cross section side walls and through holes placed at the side walls of the end extensions in order to fasten the tension member, compression member and end extensions, and in which the brake heads are welded to the ends of the tension member.

A slippage preventing system for vehicular hill starting is mounted on an axle of driven wheels by a one-way brake starter through a support. The one-way brake starter comprises a ratchet wheel, a flywheel in a pawl structure or a ratchet-gear wheel in a shell, a rack push rod meshed with the flywheel in a pawl structure or the ratchet-gear wheel and a return spring on the rack push rod and a truckle, mounted on a same shaft with the flywheel or the ratchet-gear wheel, outside the shell. The slippage preventing system is controlled by a hydraulic passage or an inhaul cable connected with the same and disposed in a cab. During hill starting, the truckle is combined with a rim part of a brake disk or a hub, when slippage occurs, the rotating rim of the brake disk or the hub drives the truckle outside the shell and the flywheel or the ratchet-gear wheel in the shell to poke the rack push rod outwardly so as to compress an auxiliary brake pump piston at the position, braking is achieved by the aid of the hydraulic passage connected with the auxiliary brake pump and a driven wheel brake caliper or an auxiliary brake caliper, and braking stops when a vehicle advances.

A park-brake actuator includes a cam including first serrations and an open-ended slot, a piston including second serrations displaceable relative to the cam in response to variable pressure applied to the piston, a spring, and a rod including a pin urged by the spring toward the slot and contact with the first and second serrations, the pin moved by piston displacement from the slot, onto one of the first serrations to a flat-tow position.

A vehicle brake control system includes an improved ACC system for controlling the operation of a brake actuator and a throttle actuator, based on a signal from a preceding vehicle detector such as a radar device, so that a subject vehicle tracks a preceding vehicle. After a regular brake device is actuated to stop the subject vehicle, an EPB ECU disengages the regular braking device and, instead, actuates an electrically initiated and mechanically maintained parking brake device, so as to temporarily maintain the subject vehicle in a stationary state. Once the electric parking brake device is initiated, its braking state is mechanically maintained even if the flow of current is cut off. Therefore, neither the regular brake device nor the electric parking device consume power while the vehicle is in a stationary state, thereby saving power and minimizing electrical heat generation.

A drivetrain for a motor vehicle has a friction clutch for transmitting drive torque for the motor vehicle and has an actuator arrangement for actuating the friction clutch. The actuator arrangement has a first actuator which is designed to close the friction clutch quickly with little force expenditure in order to thus quickly close up the play which is present in the open state of the friction clutch. The actuator arrangement has a second actuator which is designed such that, with a small stroke, it applies a large force for actuating the friction clutch in order to keep the friction clutch closed with little energy expenditure.

A brake system for a vehicle having a plurality of wheels and a frame comprising a mechanically actuated braking assembly operably coupled with at least one of the wheels and being operable between braking and non-braking conditions, a handle coupled to the braking assembly and being mounted to the frame for pivotal movement about a substantially horizontal axis between first and second positions in each of which the braking assembly is in the braking condition, and an actuating mechanism responsive to movement of the handle from either of the first and second positions for actuating the braking assembly into the non-braking condition.