3347results about "Propulsion unit arrangements" patented technology

A control system for a vehicle comprises a power source, a power transmission link, a plurality of input and output devices, a plurality of microprocessor-based interface modules, and a communication network that interconnects the interface modules. The interface modules are also each coupled to respective local subsets of the input and output devices. Each of the interface modules collects input status information from the respective local subset of the input devices and transmits the input status information over the communication network to the remaining interface modules.

The present invention relates to a vehicle which can travel in the front and back direction and which can turn by right and left wheels rotated when a rider riding on a step-board moves the position of rider's balance from the center of a vehicle base.A vehicle which can be steered based on movement of balance according to the present invention includes left and right wheels 4L and 4R located at least on the same axis, first and second drive motors 5L and 5R for rotating the left and right wheels 4L, 4R, a vehicle base 2 having the left and right wheels located at its left and right sides and which has the first and second drive motors mounted thereon, a step-board 3 located above the vehicle base 2 and on which a rider rides, pressure sensors 6L, 6R, 7L, 7R interposed between the vehicle base and the step-board to detect movement of rider's balance and a drive control means 10 for controlling driving of the first and second drive motors based on detected signals from the pressure sensors to enable the vehicle to travel straight and / or turn.According to the present invention, it is possible for the rider to run the vehicle in the front and back direction and to turn the vehicle in the left and right direction by only moving rider's weight.

A method, identification tag reader and computer program product for communication with an identification tag are disclosed. To communicate with the tag, identification data may be retrieved from an identification tag. A guest identification, compliant with at least a portion of a standard network protocol address, may be assigned to the identification tag. A message addressed to a tag routing address of the tag may be received, and a response to the message may be sent.

The present invention relates to a vehicle which can travel in the front and back direction and which can turn by right and left wheels rotated when a rider riding on a step-board moves the position of rider's balance from the center of a vehicle base. A vehicle which can be steered based on movement of balance according to the present invention includes left and right wheels 4L and 4R located at least on the same axis, first and second drive motors 5L and 5R for rotating the left and right wheels 4L, 4R, a vehicle base 2 having the left and right wheels located at its left and right sides and which has the first and second drive motors mounted thereon, a step-board 3 located above the vehicle base 2 and on which a rider rides, pressure sensors 6L, 6R, 7L, 7R interposed between the vehicle base and the step-board to detect movement of rider's balance and a drive control means 10 for controlling driving of the first and second drive motors based on detected signals from the pressure sensors to enable the vehicle to travel straight and / or turn. According to the present invention, it is possible for the rider to run the vehicle in the front and back direction and to turn the vehicle in the left and right direction by only moving rider's weight.

A vehicle driving assist system is configured to convey a risk potential relating to a preceding obstacle to a driver using both visual information and haptic information. For example, the vehicle driving assist system executes accelerator pedal actuation reaction force control such that an actuation reaction force is generated in accordance with a risk potential that expresses a degree of convergence between the host vehicle and a preceding obstacle. In order to convey to the driver in a clear manner which preceding obstacle(s) is an obstacle targeted by the risk potential calculation and the reaction force control, the system displays a reference frame or marker at a position corresponding to the targeted obstacle (preceding vehicle). At least one of size, color, shape and brightness of the marker is set in accordance with the risk potential.

An operator's seat for a vehicle includes a base structure that allows the operator's seat to be rotated with respect to a platform floor of an operator's compartment within the vehicle. The operator's seat may further include a swivel structure that allows an operator support to swivel independently of the rotation of the base structure. At least one presence sensing device may be provided to detect the presence of an operator. The presence sensing device(s), and rotational position of the operator support may provide input signals to a control module that controls the vehicle travel, load handling features, and / or other features of the vehicle that may be selectively enabled, limited or otherwise controlled.

An apparatus includes a sensor configured to be coupled to a throttle interface. The sensor is configured to output a sensor signal associated with a condition of the throttle interface. A first brake element has a first friction surface and a second brake element has a second friction surface. The second brake element is configured to be coupled to the throttle interface. The friction surface associated with the first brake element is positioned opposite the friction surface associated with the second brake element. The first brake element is configured to move relative to the second brake element. An actuator is coupled to the first brake element and is configured to output haptic feedback to the throttle interface via the first brake element based on the sensor signal.

An operator's seat for a vehicle includes a base structure that allows the operator's seat to be rotated with respect to a platform floor of an operator's compartment within the vehicle. The operator's seat may further include a swivel structure that allows an operator support to swivel independently of the rotation of the base structure. At least one presence sensing device may be provided to detect the presence of an operator. The presence sensing device(s), and rotational position of the operator support may provide input signals to a control module that controls the vehicle travel, load handling features, and / or other features of the vehicle that may be selectively enabled, limited or otherwise controlled.

A control system for a work machine, having an articulated joint and a work implement with at least one axis of rotation, has a first lever with a first longitudinal axis. A twist angle of the first lever about the first longitudinal axis is related to an articulation speed of the work machine. The control system also has a second lever having a second longitudinal axis. A twist angle of the second lever about the second longitudinal axis is related to a rotation speed of the work implement about the at least one axis of rotation. A plurality of operator control devices are disposed on the first and second levers.

A mobile station for an unmanned vehicle comprises a vehicular storage area for storing a vehicle during transit or at rest. A first wireless transceiver communicates a status or command between the vehicle and the mobile station during at least one of vehicular deployment and rest. A station controller manages a management plan of the vehicle comprising at least one of retooling the vehicle, loading a payload on the vehicle, and recharging or refueling of the vehicle.

A steering system is provided for a work machine. The steering system may include at least one hand-operated work implement control device and a steering mechanism configured to control a direction of travel of the work machine. The system may also include a first steering device operatively coupled to the steering mechanism and configured to control at least one component of the steering mechanism based on operator input. The system may further include a second steering device mounted on the work implement control device. The second steering device may be configured to be selectively operatively coupled to the steering mechanism to thereby control a direction of travel of the work machine based on lateral movement of the second steering device relative to the work implement control device.

A method of controlling the behavior of an occupant of a vehicle (20) includes sensing an auxiliary mode of the vehicle (20) and comparing a first vehicle operation mode to a predetermined threshold to determine a first incident. The method proceeds by actuating a resistive device (24) in response to the first incident to apply a resistance to an operational input by an occupant of the vehicle (20). The method is characterized by monitoring a precursory auxiliary mode event of the vehicle (20) subsequent to the first incident and prior to a presence of the auxiliary mode, and de-actuating the resistive device (24) in response to the precursory auxiliary mode event to remove the applied resistance.

A tractor has hydraulically driven wheels at a cab end and castor wheels at an engine end. It can be driven cab forward in a working mode with a header on the forward end. It is rotated to engine forward in the transport position for more stable higher speed travel. The driver's console is rotated in the cab with the steering and speed control elements moved with the seat for the driver to face forwards and its position is detected by switches. In the engine forward position for transportation, the control system detects the seat position and operates the controls for higher speed drive and to prevent operation of the header. A vehicle emblem SMV is located on the back of the driver's seat so that it is visible to a person behind regardless of the direction of travel.