Abstract: An all-terrain vehicle is provided. The all-terrain vehicle includes a vehicle frame unit. A steering mechanism is rotatably mounted to a front side of the vehicle frame unit. Front wheels are rotatable mounted to a lower side of the steering mechanism as being arranged pairwise as a left-side one and a right-side one and are controllable by the steering mechanism. The all-terrain vehicle includes a vehicle cover unit covering a periphery of the vehicle frame unit. The vehicle cover unit includes a front vehicle cover section. An open receiving space is formed between a top side of the front wheels and the front vehicle cover section. An inertial sensor is arranged in the open receiving space. As such, mounting and servicing the inertial sensor can be carried out without removing the front vehicle cover section or other parts, and thus, mounting and servicing of the inertial sensor is made easy.

Abstract: A tilting vehicle includes a frame unit, a tilting mechanism and two front wheels. The frame unit includes a head tube extending generally along an up-down direction, and a main frame detachably connected to the head tube. The tilting mechanism includes one crossbar pivotally connected to the head tube and extending along a left-right direction, and two connecting rods extending along the up-down direction, being opposite to each other along the left-right direction, and being pivotally connected to opposite ends of the one crossbar, respectively, such that the connecting rods are movable along the up-down direction relative to the head tube. The front wheels are rotatably mounted to the connecting rods, respectively.

Abstract: An electric vehicle cooling system includes a vehicle control unit (VCU), a coolant pump controller, a motor controller, a motor, a vehicle charger, an electronic coolant pump, and a cooling plate. The electronic coolant pump, the vehicle charger, the motor controller, the motor, and the cooling plate are connected in sequence to form a closed coolant loop for a coolant. Either the VCU or the coolant pump controller of the electronic coolant pump can control the electronic coolant pump to switch between an idle mode and a normal mode according to a coolant temperature detected from the closed coolant loop. Under the normal mode, the VCU controls the electronic coolant pump to have an ideal pumping speed according to the coolant temperature detected from the closed coolant loop and a rotational speed of the motor, ensuring good cooling efficiency.

Abstract: A rear cargo bed structure of a multipurpose vehicle is provided. The multipurpose vehicle includes a vehicle frame unit, a steering device connected to the vehicle frame unit and operable to control a moving direction of the multipurpose vehicle, a front wheel assembly mounted to a front end of the vehicle frame unit, a seat portion mounted on the vehicle frame unit to receive a driver and a passenger to sit thereon, a rear wheel assembly mounted to a rear end of the vehicle frame unit, and a vehicle cover unit set on and covering a periphery of the vehicle frame unit. A rear cargo bed in the form of a flat surface is arranged on a rear frame portion of the vehicle frame unit. As such, the performance of the multipurpose vehicle for carrying cargo is improved.

Abstract: The present invention is an electronic gear-shifting device of an electric motorcycle for simulating gear shifting power output, including an electronic shift unit, an electronic clutch unit and a throttle position sensor, and correspondingly outputting a shift signal, a clutch signal and a throttle position signal according to the operation of the rider. A vehicle controller receives the shift signal, the clutch signal and the throttle position signal to determine a target gear position of the electric motorcycle. The vehicle controller looks up a motor torque command according to the target gear position table and outputs the motor torque command to a motor controller, so that the motor controller controls an electric motor of electric motorcycle. Therefore, the electric motorcycle simulates the power performance of a general motorcycle without adding a physical clutch, a gearbox and other shifting mechanisms.

Abstract: A vehicle includes a control switch that is configured to generate an operation signal, and a controller that is electrically connected to the control switch to receive the operation signal therefrom, and that is configured to, in response to receipt of the operation signal, transmit a control signal to a tilting mechanism for making the tilting mechanism operate in one of a locked state and an unlocked state. After the vehicle is powered on, the controller is further configured to, when the controller has continuously received the operation signal for a predetermined reception time, determine that the control switch is abnormal, stop transmitting the control signal and control a warning unit to output a warning signal.

Abstract: A tilting vehicle includes a frame unit, a tilting mechanism and two front wheels. The frame unit includes a head tube extending generally along an up-down direction, and a main frame detachably connected to the head tube. The tilting mechanism includes one crossbar pivotally connected to the head tube and extending along a left-right direction, and two connecting rods extending along the up-down direction, being opposite to each other along the left-right direction, and being pivotally connected to opposite ends of the one crossbar, respectively, such that the connecting rods are movable along the up-down direction relative to the head tube. The front wheels are rotatably mounted to the connecting rods, respectively.

Abstract: A vehicle includes a control switch that is configured to generate an operation signal, and a controller that is electrically connected to the control switch to receive the operation signal therefrom, and that is configured to, in response to receipt of the operation signal, transmit a control signal to a tilting mechanism for making the tilting mechanism operate in one of a locked state and an unlocked state. After the vehicle is powered on, the controller is further configured to, when the controller has continuously received the operation signal for a predetermined reception time, determine that the control switch is abnormal, stop transmitting the control signal and control a warning unit to output a warning signal.

Abstract: A system for compensating acceleration of electrical motorbike includes a throttle unit and an electro-mechanic assembly. After the electrical motorbike starts, the throttle unit receives external operation from a rider for generating a series of original throttle signal. An acceleration compensating module calculates a throttle variation rate based on the original throttle signal and variation of a throttle operation magnitude, and calculates a throttle compensating value based on the throttle variation rate when the throttle variation rate is larger than or equal to a correction threshold. A throttle compensating module receives and sums the original throttle signal and the throttle compensating value up for generating a new throttle signal. A torque controller generates a corresponding torque command based on the new throttle signal, and outputs the torque command to the electro-mechanic assembly for operation.

Abstract: A method is proposed to assist a user of an electric vehicle in reserving a rechargeable battery with a charging station. A reservation assistant unit that is related to the electric vehicle computes an estimated travelling distance from a current location corresponding to the electric vehicle to a destination, and computes a remaining distance based on residual electric energy of a rechargeable battery currently used by the electric vehicle. When the estimated travelling distance is greater than the remaining distance, the reservation assistant unit provides charging station information that indicates the closest charging station that has a rechargeable battery available.

Abstract: A method of battery charging is to be implemented by an energy station communicable with a cloud server that stores reference battery identifiers. The method includes: detecting a provided battery identifier of a battery, and transmitting the provided battery identifier to the cloud server so as to enable the cloud server to determine one of the reference battery identifiers that matches the provided battery identifier, and to determine to which one of a first lease code and a second lease codes the one of the reference battery identifiers thus determined corresponds; and being controlled to charge the battery when it is determined that the one of the reference battery identifiers thus determined by the cloud server corresponds to the first lease code.

Abstract: A battery container is adapted to be disposed at a battery charging station for containing a battery which has a charging port. The battery container includes a container body, a floating connector, and a coupling board. The container body includes a rear wall that is formed with a through hole. The floating connector extends movably through the through hole of the rear wall. The coupling board is secured co-movably to the floating connector and is slidable on the rear wall. The floating connector and the coupling board are movable relative to the container body and along a plane parallel to the rear wall when the battery is inserted into a receiving space of the container body to electrically connect the charging port of the battery to the floating connector.

Abstract: A structure of a speed sensor arrangement of a vehicle is provided. The vehicle includes a power unit. The power unit is connected with a transmission system. The transmission system is formed with a sensing space. The sensing space is provided therein with a speed sensor. As such, the speed sensor is arranged in a completely concealed space to prevent the speed sensor from being hit by external sand and stones or corroded by external dust or moisture.

Abstract: An electric vehicle cooling system includes a vehicle control unit (VCU), a coolant pump controller, a motor controller, a motor, a vehicle charger, an electronic coolant pump, and a cooling plate. The electronic coolant pump, the vehicle charger, the motor controller, the motor, and the cooling plate are connected in sequence to form a closed coolant loop for a coolant. Either the VCU or the coolant pump controller of the electronic coolant pump can control the electronic coolant pump to switch between an idle mode and a normal mode according to a coolant temperature detected from the closed coolant loop. Under the normal mode, the VCU controls the electronic coolant pump to have an ideal pumping speed according to the coolant temperature detected from the closed coolant loop and a rotational speed of the motor, ensuring good cooling efficiency.

Abstract: A fuel tank structure of an all-terrain vehicle is provided. The all-terrain vehicle includes a vehicle frame unit, a fuel tank arranged on the vehicle frame unit, a seat cushion arranged on the vehicle frame unit, a pair of rear wheels rotatably mounted to a rear section of the vehicle frame unit, and a power unit arranged on the vehicle frame unit. The power unit is connected to an exhaust unit. The vehicle frame unit includes a rear carrier rack and a rear ancillary tube assembly. The fuel tank is arranged rearwardly of the power unit and located below the rear carrier rack. The fuel tank includes a body portion, which is formed with a lower buffering fuel accommodation extension section extending in a direction toward a lower side of the vehicle body, so as to increase the weight of the fuel tank.

Abstract: A system for battery binding includes a service end electronic device, at least one battery device and at least one carrier device. The service end electronic device is configured to send a carrier identifier corresponding to a carrier device to a battery device for storage therein in order to bind the battery device to the carrier device.

Abstract: A method for battery binding that is to be implemented by a service end electronic device includes obtaining a carrier identifier corresponding to a carrier device. The method further includes sending the carrier identifier to a battery device via near-field communication for storage in the battery device.