A power steering electrohydraulic system is provided for an electric vehicle, including: at least one reservoir of hydraulic fluid; and at least one hydraulic actuator for actuating a steering rack shaft of the vehicle; at least two electric motor pump units in parallel for supplying the actuator with hydraulic fluid from the reservoir and adjusting the flow rate of the hydraulic fluid supplied to the actuator, and each electric motor pump unit is a motor pump unit operating at a voltage of 24V. A vehicle equipped with such a system is also provided.

An electric bus exhibiting a seat arrangement. The electric bus includes a side wall, a wheel with an electric engine disposed in the rim, a seat with a seat base and a leg area. The leg area is below the seat base and vertically level with the wheel. The electric bus also includes an electric energy storing device powering the electric engine of the wheel and arranged transversally between the side wall and the leg area of the seat.

An articulated electric bus includes two units with: a passenger compartment including a main floor forming a low and thin platform with a planar surface extending over the majority of the width of the passenger compartment, a wheel housing adjacent to the planar surface, a longitudinal row of seat places on the wheel housing, and a driving wheel which is housed in the wheel housing under the longitudinal row of seats. The driving wheel defines a rotation axis and includes an electric engine, and a rim with a rim top above the planar surface. The driving wheel is vertically movable with respect to the planar surface, and the wheel housing actually receives a pair or a couple of driving wheels.

The present disclosure discloses a method for measuring capacity of energy storage devices in a hybrid bus, and belongs to the technical field of energy management and control of hybrid buses. The method comprises the steps of obtaining required power P.sub.usage of the hybrid bus for round trips on a selected bus line for for one or more times and then obtaining average required power P.sub.usage avg; determining energy storage capacity of a short-term energy storage device of the hybrid bus, specifically including the step that Fourier transformation is carried out on the required power P.sub.usage to obtain a relation model between the required power P.sub.usage and time periods; and determining energy storage capacity of a long-term energy storage device of the hybrid bus, specifically including the steps that n supply and demand mismatch power P.sub.i are calculated, wherein P.sub.i=P.sub.usage avgP.sub.usage, that the obtained n P.sub.i are connected end to end, and that then a maximum value of the sum of any q connected data is calculated, wherein the obtained maximum value is the energy storage capacity of the long-term energy storage device.

A passenger transport system comprising at least one electromechanical self-powering RF signal generator having a push & return mechanism, and at least one passenger seat having a seat region, wherein said push & return mechanism is installed, said generator, which is provided with an RF transmitter, is equipped to self-generate electric power based on a mechanical force applied on the push & return mechanism by a passenger sitting in the seat region, and whereby said generated electric power is used for the RF transmitter to transmit an RF signal on an adjustable frequency in case the passenger sitting in the seat region thereby presses a switch of the push & return mechanism, and which passenger transport system further comprises: a central RF receiver for receiving transmitted RF signals which have features to identify the individual passenger seats he RF signals are transmitted from, and means for based on the received RF signals deriving information indicating which of the passenger seats are and/or are not occupied.

Systems and methods are disclosed for controlling vehicle operations in response to a route identification reference for a vehicle based on route characteristics associated with the route identified by the route identification reference.

The invention relates to a suction unit for a wastewater tank, comprising a suction channel extending from a suction adapter designed for attachment to a suction port in the wastewater tank, a connection coupling extending from the suction adapter, wherein said connection coupling and said suction channel are arranged so that the suction channel extends into the wastewater tank, a suction pump connected fluid-tightly to the connection coupling, and a pump control unit in signal communication with the suction pump A flushing channel extends from a flush adapter designed for attachment to a flushing hole in the wastewater tank, the pump control unit being configured to extract wastewater from the wastewater tank through the suction channel, the connecting line and the suction pump by means of the suction pump, and wastewater is flushed from the wastewater tank through the flushing channel.

A drive arrangement for a motor vehicle, such as a bus, using a rear driven axle and having a propulsion unit positioned so that it is not aligned with the direction of travel of the vehicle. The propulsion unit is oriented at an acute angle to the base reference axis of the vehicle. The axle is provided with a driven input shaft that is oriented at an angle not parallel to the direction of travel of the vehicle. The propulsion unit comprises a motor, a transmission, and a bevel gear box coupled to the transmission, with an output shaft that is oriented at an angle not parallel to the axis of the propulsion system. The propulsion unit output shaft and the driven axle input shaft are not aligned coaxially, and are connected via a propeller shaft, wherein the ends of the propeller shaft use constant velocity joints to accomplish a change in the angle of the transmitted power and torque.

An electric vehicle includes a vehicle cabin, a battery, a drive unit, and an end doorway. The vehicle cabin is provided with a floor having a flat floor surface, and configured such that an occupant is able to be in the vehicle cabin in any one of a seated position and a standing position. The battery is accommodated under the floor of the vehicle cabin. The drive unit is provided on one of a front side and a rear side with respect to the battery in a vehicle longitudinal direction. The end doorway is provided in a longitudinally-end wall of the vehicle cabin, and provided on the other one of the front side and the rear side with respect to the battery in the vehicle longitudinal direction. The end doorway is configured such that the occupant is able to get on and off the electric vehicle through the end doorway.

A fixing structure 40 has an inwardly-facing seat 22, a front side seat 42, and fixing members 44. The inwardly-facing seat 22 is fixed to a floor portion 14 such that passengers PA face in a vehicle transverse direction. The front side seat 42 has a seat cushion 46 on which the passenger PA sits, and a supporting member 52, and is disposed at the floor portion 14 at a vehicle longitudinal direction front side of the inwardly-facing seat 22, and rear wheels 36 can contact the seat cushion 46 in a vehicle longitudinal direction. The supporting member 52 supports the seat cushion 46 such that the seat cushion 46 can rotate toward the inwardly-facing seat 22. The fixing members 44 fix a wheelchair 30 to the floor portion 14 in a state in which the rear wheels 36 are made to contact the front side seat 42.