Abstract:
An electric vehicle includes: a motor; a braking device for wheel braking, the braking device including a brake fluid pressure generation device; an air-conditioning device; and a battery as a power source for the motor. The vehicle is not provided with a driver seat that allows a user to operate a steering wheel, an accelerator pedal, and a brake pedal in a state where the user sits on the driver seat, and the vehicle is configured to perform automated driving. A first storage chamber and a second storage chamber are provided in a first end portion and a second end portion of the vehicle in the vehicle front-rear direction, respectively, such that the first storage chamber and the second storage chamber partially overlap a vehicle cabin in the vehicle front-rear direction. A third storage chamber is provided under a floor of the vehicle cabin.
Abstract:
A guide wheel shock absorbing device includes an attachment arm, a shock absorbing link provided on the attachment arm and extending in one direction, a shock absorbing link support portion provided on the shock absorbing link and supporting the shock absorbing link in a state of being oscillatable with respect to the attachment arm, a guide wheel coming into contact with a guide rail laid on a traveling track of a vehicle, a guide wheel support portion provided on the shock absorbing link and supporting the guide wheel in a rotatable state, and a shock absorbing elastic portion elastically supporting the shock absorbing link with respect to the attachment arm. The shock absorbing elastic portion has first and second elastic bodies different in displacement with respect to a guide wheel load.
Abstract:
Aspects of the present disclosure relate to a vehicle for maneuvering a passenger to a destination autonomously. The vehicle includes a computing system and a set of user input buttons for communicating requests to stop the vehicle and to initiate a trip to the destination with the computing system The vehicle has no steering wheel and no user inputs for the steering, acceleration, and deceleration of the vehicle other than the set of user input buttons. In order to safely test the vehicle, a removable manual control system may be used. The system may include a housing having an electronic connection to a computing system of the vehicle. The housing includes a steering input configured to allow a passenger to control the direction of the vehicle. The system also includes one or more computing devices configured to receive input from the steering input and send instructions the computing system.
Abstract:
Provided is a guide device for a guide rail-type vehicle which travels while being guided along a travel track. The guide device is provided with: guide wheels which include main guide wheels and branched guide wheels, the main and branched guide wheels being in contact with and roll on guide rails arranged on both sides of the travel track; steering arms which steer the vehicle; and elastic support members which each includes one end affixed to each of the steering arms and which each includes the other end including guide wheels rotatably supported thereon, the elastic support members absorbing an impact load by deflecting about the one end thereof.
Abstract:
A bi-directional operating automated guided transit system such as a people mover including a vehicle having at least one pair of opposing axles, each axle having a wheel with its own drive system. The vehicle is capable of providing torque controlled steering to the vehicle. Sensors mounted on the vehicle detect the path of a guide track and, through a controlling system, direct the motors to provide a constant torque to both wheels, thereby directing the vehicle along a straight path or, in the alternative, direct the motors associated with each wheel to provide differing torques, thereby causing the vehicle to turn. The system also permits a vehicle operator to bypass the sensor signal and to manually steer the vehicle.
Abstract:
A method and apparatus for coordinating the movement of a plurality of oppositely directed trams operating generally simultaneously along a single, dedicated lane, including a plurality of stop-boarding areas, a plurality of corresponding by-pass lanes, sensors along the lane to sense the location of the trams, a central processor to compare the location of the trams and calculate signals to pairs of oppositely moving trams such that they will adjust their speeds to arrive at a common stop-boarding area at substantially the same time.
Abstract:
A steering control system for an autonomous machine has a manual steering control valve for directing fluid from a pump to either a head end chamber or a rod end chamber of a hydraulic steering actuator. In one embodiment, an electrically actuated steering valve device is disposed in series flow relationship between the pump and the manual steering control valve and is operative to direct fluid from the pump to the head end and rod end chambers. In another embodiment, a electrically actuated device mechanically actuates the manual steering control valve for steering the machine.
Abstract:
A transit system employing multiple modes of operation. The system includes a guideway having a portion over which a vehicle traverses from one location to another, the traverse portion having a longitudinally-extending slot formed generally centrally therewithin. The guideway also includes an entry ramp which directs a traction drive wheel stem to centrally position the vehicle on the guideway. The system also includes a vehicle which is configured for travel over both a roadway and the guideway. The vehicle includes a chassis supported by a plurality of motive wheels. The chassis mounts a stem for pivoting between an upper, retracted position and a lower, extended position. The stem mounts, at its lower end, a traction drive wheel which engages an undersurface of the guideway to accomplish movement of the vehicle during the guideway mode of operation. Means are provided for both driving the motive wheels, during the roadway mode of operation, and the traction drive wheel, during the guideway mode of operation. An on-board computer controls guidance of the vehicle over the guideway system.
Abstract:
The invention relates to an omnibus track guidable vehicle for special roads which vehicle can also travel with free manual steering on normal roads. To make the trailing axle roll along the special road, which defines the track, with correct tracking and without contact, the trailing vehicle axle is provided with an elastokinematic self-steering system. Articulation of the axle body of this vehicle axle in the transverse direction is in fact made so that the axle body is transversely slidable out of the central position by approximately .+-.0.8 to 1.2% of the vehicle width with increasing force, limited as a function of the transverse force. Pull rods which determine the transverse position of the trailing vehicle axle are inclined symmetrically to the longitudinal direction of the vehicle to be arranged trapezoidally in plan view so that the intersection of the center lines of the pull rods, which constitutes a virtual pivot center, is located apporoximately 50 to 75% of the vehicle width behind the vehicle axle in the direction of travel. Alternative embodiments are shown for the mounting of the trailing vehicle axle with limited transverse mobility and with integrated resilient centering.
Abstract:
To permit lateral deflection of a transport vehicle or car (1) which receives electrical energy from an overhead system (56) and, additionally, is guided thereby by guide rails (6), a connecting element in form of a telescoping rod (4) or a tension spring (4a) connects the vehicle to the overhead system (56) to receive electrical energy and, additionally, guidance information. In accordance with the invention, a control guideway (12) is located, for example laterally adjacent the overhead system (56), the relative alignment of the guideway with respect to the control rails (6) being sensed by the roller (15) forming a reference element, which, upon change of level of the guideway with respect to the guide rails (6) causes deflection of a roller shaft (16) coupled to a joint (11), which deflection is measured in an angle measuring sensor (11a) and transmitted as an error signal to a comparator (101) which tends to reestablish a predetermined angular relationship, for example 90.degree., of the roller shaft (16 ) with respect to the connecting element, thereby causing lateral deviation of the vehicle upon servo control of a steering motor (17) therein.