Abstract:
Systems, methods, and apparatus are provided for providing multi-trailer reverse assistance. In a multi-trailer reverse assistance system in an articulated transport system comprising a lead vehicle, an intermediate trailer, and a final trailer, the reverse assist system includes a controller. The controller is configured to: receive a view of an environment behind the final trailer; cause the view to be displayed in a display screen of a user interface device; receive, via a secondary steering device of the user interface device, a user intended direction of travel of the articulated transport system in reverse to direct the final trailer in a desired direction; continuously calculate controllable steering angles for directing the articulated transport system to direct the final trailer in the desired direction; and control the articulated transport system to direct the final trailer in the desired direction using the calculated controllable steering angles.
Abstract:
Modular kinematic steering device, for installation on at least a first module and module of a system of modular vehicles, each module including at least two axes, for each axis, a kinematic steering mechanism adapted to move wheels connected to the axis, a rudder for controlling the kinematic steering mechanism, arranged transversely relative to the axes, the rudder constrainable to the mechanism to transmit rudder motion to the wheels by the mechanism, the rudder defining a variable steering ratio relative to each axis, a mechanism locking device, to make one of the axes a fulcrum rotation of the rudder rigidly connecting the mechanism with the rudder, wherein the first module includes a first rudder having first and second distal ends and the second module includes a second rudder having first and second distal ends, and the distal ends countered and/or counter-shaped to be rigidly connected to each other.
Abstract:
An apparatus and system for: combining independent driving vehicles into a single assembly for condensed, efficient, variable capacity transportation on common routes; and for separating into independent vehicles for flexibility on diverse routes. Connection logistics are exchanged locally via line of sight optical channel. Retractable coupling and mated coupling on opposing ends of the vehicles provide multiple degrees of freedom (DOF) to accommodate misalignment during initial dynamic engagement, and lock as rigidly coupled assembly with zero DOF. Mating vehicles' doors open during transit, permitting inter-vehicle movement and consolidation of passengers en route to urban locales, and release of empty vehicles. On return, independent vehicles combine to dense passenger vehicles from urban locales for redistribution of passengers in individual vehicles that later separate for diverse destinations. Slaved vehicle systems allow one vehicle to control coupled vehicles' systems of retractable suspension, coordinated steering, power sharing. Utility vehicles couple to assembly for service.
Abstract:
In a transport system and method for operating a transport system the transport system includes a first mobile component and a second mobile component as well as a transport rack. Bearing rollers for moving the transport rack on a driving surface are disposed on the transport rack, in particular, the mobile component is drivable on the driving surface. Each mobile component has a linear axle and a control as well as wheels driven by an electric motor. The first mobile component is able to drive underneath the transport rack in a first region of the transport rack, and the second mobile component is able to drive underneath the transport rack in another, i.e. second, region of the transport rack. The transport rack is able to be raised by extending the linear axles of the mobile components, in particular is able to be raised in such a way that the bearing rollers of the transport rack lose physical contact with the driving surface. A communications channel is provided between the first and the second mobile components, the communications channel serving as a transmission channel for data of at least one master-slave control, the first mobile component acting as a master and the second mobile component acting as a slave.
Abstract:
A construction system is provided. The construction system includes at least one machine. The construction system also includes a gantry system having a beam member. The construction system further includes a reference member provided proximal to a predetermined path of the at least one machine. The construction system includes a sensing unit associated with the at least one machine. The sensing unit is configured to determine distance of a portion of the at least one machine from the reference member. The construction system also includes a control unit in communication with the at least one machine and the sensing unit. The control unit is configured to receive inputs indicative of distance of the portion of the at least one machine from the reference member. The control unit is also configured to move the at least one machine to move the gantry system along the reference member for a predetermined distance.
Abstract:
A platform dolly system that has first and second dolly devices. Each of the dolly devices has a power unit, a frame, a suspension and a wheel rotatably secured to an axle. A control unit remote to the first and second dolly devices is presented that is in over the air electronic communication with the power unit of each of the first and second dolly devices in order to either simultaneously or independently control the first and second dolly devices depending upon the mode of the control unit.
Abstract:
A transporter having a plurality of track-axle assemblies. The track axle assemblies have independent suspension, self-loading, and on-center axle rotation capability. Each of the track axle assemblies include a cylinder housing and hydraulic piston and first and second track units connected on opposing sides of the axle frame.
Abstract:
A method of driving mine vehicles in a mine, and a transport system. A plurality of mine vehicles is arranged in succession and driven in convoy between working areas. A master vehicle in the convoy is driven manually, and slave vehicles follow the master, provided with no mechanical connection. In the working areas, the convoy is disassembled, since single vehicles are each driven separately. When assigned tasks in the working areas have been completed, the vehicles are reassembled into a convoy so as to be driven to a next working area.
Abstract:
A vehicle maneuvering system and method are provided. The system includes an input device coupled to a first vehicle and a processor. The processor is configured to determine if the first vehicle is a master vehicle or a slave vehicle to a second vehicle. If the first vehicle is the master vehicle, the processor determines an instantaneous center of rotation based at least partly upon an input received from the input device. If the first vehicle is the slave vehicle, the instantaneous center of rotation is received by the first vehicle. The system also includes a controller configured to position a wheel unit of the first vehicle with the path of the wheel unit being perpendicular to a line passing through the center of the wheel unit and the instantaneous center of rotation.
Abstract:
A tow bar for connecting and controlling two autonomous vehicles with respect to one another. The tow bar including a plurality of sections with at least one sensors mounted or coupled onto each, for measuring and determining the orientation of one autonomous vehicle in relation to the other autonomous vehicle. A signal may be transmitted to either or to both of the autonomous vehicles to control propulsion and/or steering and/or braking of the vehicles when an adjustment is required to maintain stability of the tandem vehicles.