The present disclosure belongs to the technical field of tests of automobile wheels and automobile chassis suspension systems, and provides a simulated pavement rotary drum and automobile test equipment. A simulated cobblestone pavement, and a simulated impact pavement, so that a testing pavement at a test field is reproduced; an impact load caused by the track pavement, the cobblestone pavement, and the impact pavement can be applied to wheels and a chassis system; and a road simulation test of wheels and a suspension system of an automobile can be performed on bench test equipment. As verified, the simulated pavement rotary drum of the present disclosure can reproduce the simulated track pavement at the test field; and the consistency of radial impact loads is greater than 95% at the same speed and under the same vehicle load operating condition.

A testing machine for rotating test specimens includes a frame and a roadway assembly. The roadway assembly includes an endless belt that provides a surface for engaging the test specimen and is supported by and rolls on rollers. An endless support member supported by the frame is disposed between the rollers and engages the endless belt from below. The endless support member moves with or is synchronized so as to have a velocity the same as the endless belt. The endless support member provides a flat reaction structure for loads from the test specimen placed on the endless belt and is of size corresponding to that needed by the contact patch of the test specimen upon the endless belt. Since the endless support member moves at the same velocity as the endless belt no forces are generated between the endless support member and the endless belt.

A method of evaluating integrated running energy of a vehicle in a wind tunnel may include estimating change in fuel efficiency according to change of vehicle parts thereby facilitating precise measurement of running energy.

A pedal actuator (41) of an automatic vehicle driving device (1) is supported by a pedal actuator support (51) by mounting a pedal actuator support bracket (61) to the pedal actuator support (51) and fixing the pedal actuator support bracket (61) with a lock pin (67). In the automatic vehicle driving device (1), when mounting the pedal actuator support bracket (61) to the pedal actuator support (51), by connection between a support-side connector (53) and a bracket-side connector (63), electrical connection between the pedal actuator support (51) and the pedal actuator support bracket (61) is also completed.

A tire inspection device includes a gas sensor disposed outside of a tire and facing an outer surface of the tire. The gas sensor detects a gas that fills the tire.

A whole vehicle in-loop test system of an intelligent automobile, including: a rotary drum platform, used for simulating a longitudinal movement of a test vehicle; an environment perception platform, disposed at a front end of the rotary drum platform, used for simulating a transverse movement of a test vehicle, and including a support base at a lower portion and a vehicle placing platform at an upper portion, where a transverse drive wheel is mounted at the lower portion of the support base, and the transverse drive wheel moves along a transverse track disposed on the ground; and a target vehicle simulation unit, disposed at a periphery of the environment perception platform, and configured to simulate a target vehicle.

A pedal actuator support bracket (61C) is provided at a front end portion of a frame (11) supported at a driver's seat of a vehicle. An actuator housing (78) is provided so that a base end side of the actuator housing (78) is supported by the pedal actuator support bracket (61C) so as to be able to pivot upward and downward relative to the pedal actuator support bracket (61C). A rack shaft (80) protrudes from a top end side of the actuator housing (78) and moves forward and backward along a longitudinal direction of the actuator housing (78). A pivotal plate (87) is connected to a top end of the rack shaft (80) so as to be able to pivot upward and downward and placed on a pressing surface of a clutch pedal (47) so as to overlap this pressing surface and fixed to the clutch pedal (47).

A transmission actuator unit (131) is fixed on a actuator support plate (105) of a connection box unit (101) through a pair of lock mechanisms (143). A pair of grommets (121), with which lock pins (144) are engaged, are provided at both of a front side and a rear side of the actuator support plate (105). Then, the transmission actuator unit (131) can be selectively mounted on the actuator support plate (105) in either of two attitudes that are reversed 180 degrees according to vehicle types. Since a base plate of the transmission actuator unit (131) is mounted on the actuator support plate (105) settled in a horizontal attitude, rigidity of support of the transmission actuator unit (131) and the actuator support plate (105) is high.

A vehicle test device is to test performance of a vehicle or a part of the vehicle by rotating a wheel placed on a rotating body in order to reproduce an actually running state of the vehicle by controlling rotational speed of the wheel so as to make the rotational speed equal to a target value accurately, and a rotation related value that indicates rotational speed of the wheel or torque applied to the wheel is obtained, and the rotational speed of the rotating body or the torque applied to the rotating body is controlled so as to make the rotation related value equal to a predetermined target value.

A system for inspecting a LIDAR sensor for correcting an error of the LIDAR sensor in a vehicle includes: a centering unit which aligns the vehicle equipped with a communication terminal to match a reference inspection position of the LIDAR sensor; screen panels miniaturized so that an uppermost end point of a LIDAR beam according to an irradiation angle of the LIDAR sensor is projected on a center portion of the screen; a Near Infrared camera which captures the LIDAR beam; and a server which detects an installation error in which the uppermost end points of the LIDAR beams are different, generates a sensor correction value, and transmits the sensor correction value to the LIDAR sensor.