Abstract:
An industrial vehicle includes a frame, a counterweight that is connected to a rear part of the frame and a drive device that drives rear wheels. The drive device includes a drive device body and a pair of damping members that is mounted to the counterweight on right and left sides of the drive device body and allows relative motion between the counterweight and the rear wheels. The counterweight has a left mounting portion and a right mounting portion that are formed by machining. The left mounting portion and the right mounting portion have a first mounting hole and a second mounting hole, respectively, through which the respective damping members are mounted to the left mounting portion and the right mounting portion. The first mounting hole and the second mounting hole are formed coaxially with each other.
Abstract:
Disclosed is a work vehicle having a weight that can be attached to a vehicle body frame. The weight is attached in such a manner that, over an entire length in a front/rear direction of the vehicle body and in a vertical direction of the vehicle body, an upper end portion of the weight is disposed in a same position as or upwardly of a lower end portion of the vehicle body frame, and at the same time in a same position as or downwardly of an upper end portion of the vehicle body frame.
Abstract:
A deployable structure to provide protection when vehicles roll over, which is made up of a “V” shaped structure (1) closed at the top where both the lateral vertical bars (4) and the uppermost horizontal bar (7) can fold and unfold telescopically, resulting in an increase in the width and the height of the structure when changing from the folded to the unfolded positions. The lower end of the tubular vertical lateral elements (4) of the structure are conveniently coupled to the chassis of the vehicle (2) in question, with the structure (1) being deployed when a certain tilt of the vehicle is detected by means of a tilt sensor using an activation control or algorithm.
Abstract:
A vehicle includes a frame, an engine, a steering assembly, a steerable wheel, a brake system, a flywheel assembly, and a controller. The frame defines a roll axis. The engine is supported by the frame. The steering assembly is pivotally coupled with the frame and is pivotable about a steering axis. The steerable wheel is rotatably coupled with the steering assembly. The flywheel assembly comprises at least one inertial mass and is coupled with the frame. A controller is coupled with the flywheel assembly and is configured to facilitate rotation of said at least one inertial mass.
Abstract:
A tractor includes a motor, transmission, drive shaft and rear differential for driving the rear axles mounted on a main tubular frame of a variable configuration. Forwardly extendable telescoping tubular frame members are actuated by respective rams to selectively vary the spacing between the frame and the front wheels. The front and rear lateral telescoping tubes supporting each of the wheels are selectively extendable and retractable to significantly vary the wheel width or track of the front and rear wheels.
Abstract:
A rollover prevention device for commercial tractor/trailers that senses when the tractor portion of the commercial truck has reached the critical height at which rollover of the trailer cannot be avoided. Once this critical height is reached pneumatic cylinders and pins automatically release the trailer from the tractor, thereby preserving human life and minimizing damage to property.
Abstract:
A riding lawnmower outrigger (1) having a hollow outer tube (5) secured to a riding lawnmower (2), a telescoping inner tube (6) which locks within the outer tube (5), a vertical tube (11) connected to the inner tube (6), an outrigger wheel housing (16) secured to the vertical tube (11) and a wheel (7) secured within the outrigger wheel housing (16). When utilizing the riding lawnmower outrigger (1) on a ground surface (32) having a slope (31), the riding lawnmower (2) will not tip-over or rollover because the riding lawnmower outrigger (1) acts as a supporting arm to balance the riding lawnmower (2) and prevent tip-over thereof.
Abstract:
The disclosure is generally directed toward vehicle support systems. In one embodiment of the invention, first and second support assemblies can be pivotally coupled to a base. A control mechanism can couple the first and second support assemblies together and be configured to control pivotal movement of the support assemblies between spread and stowed positions. In another embodiment, first and second support assemblies can be pivotally coupled to a base and to first and second wheel assemblies. First and second steering mechanisms can be coupled to the first and second wheel assemblies and the first and second support assemblies. A control system can be operatively coupled to the first and second steering mechanisms and can be configured to command selected angular positions of the first and second wheel assemblies relative to the base by compensating for the support assemblies being in various positions.
Abstract:
An actuation mechanism is used with the deployment apparatus mounting a running board on an automotive vehicle for laterally outward movement to increase rollover resistance for the vehicle. The actuation mechanism includes a cup with a hollow tube attached thereto to provide a path for the movement of a ball from the cup into engagement with the latching mechanism on the deployment apparatus. The ball is retained within the cup member until the actuation mechanism and the automotive vehicle to which it is mounted tilts to a minimum roll angle, whereupon the ball is released to roll down the hollow tube into engagement with the latching mechanism of the deployment apparatus. In one embodiment, a single cup with a pair of laterally extending tubes directs the ball to the deployment apparatus that requires actuation. In other embodiments, a separate actuation mechanism is provided for each respective deployment apparatus.
Abstract:
The disclosure is generally directed toward vehicle support systems. In one embodiment of the invention, first and second support assemblies can be pivotally coupled to a base. A control mechanism can couple the first and second support assemblies together and be configured to control pivotal movement of the support assemblies between spread and stowed positions. In another embodiment, first and second support assemblies can be pivotally coupled to a base and to first and second wheel assemblies. First and second steering mechanisms can be coupled to the first and second wheel assemblies and the first and second support assemblies. A control system can be operatively coupled to the first and second steering mechanisms and can be configured to command selected angular positions of the first and second wheel assemblies relative to the base by compensating for the support assemblies being in various positions.