Front anticollision test system and test method based on distance tests
A collision test and distance technology, which is applied in vehicle testing, vehicle impact testing, machine/structural component testing, etc., can solve the problems of large measurement error and high testing cost, and achieve the effect of high measurement accuracy and cost reduction.
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Embodiment 1
[0041] Such as figure 1 and 7 As shown, the front collision avoidance test system based on the distance test, the system includes a target vehicle 1, a test vehicle 2 with the ADAS to be tested installed, and several vehicles installed on the lane 3 for the target vehicle 1 and the test vehicle 2 to drive or park. Sensing device 4, sensing device 4 is longitudinally spaced distribution along lane 3 and this sensing device 4 can produce corresponding sensing signal when target vehicle 1 or test vehicle 2 is positioned at corresponding sensing device 4 position, and sensing device 4 is all connected with signal transmitter 5 Connected and the signal transmitter 5 can receive the induction signal. The test vehicle 2 is installed with the ADAS to be tested and can collect the speed of the test vehicle 2, the sensing time of the corresponding induction device 4 and receive the collision time calculated by the ADAS to be tested. The controller 6 is installed on the target vehicle 1...
Embodiment 2
[0051] Such as figure 2 As shown, the technical solution in this embodiment is the same as that in Embodiment 1, the difference is: in the above-mentioned step B, the distance between each sensing device 4 is s, the target vehicle 1 is driving on the lane 3 at a constant speed, and the test vehicle 2 Driving on the lane 3 at a constant or non-uniform speed and gradually approaching the target vehicle 1, when the target vehicle 1 and the test measurement are located in the test area where the sensing device 4 is installed on the lane 3, the head of the target vehicle 1 reaches the Mth sensing device 4 and the Mth sensing device 4 generates a sensing signal. At this time, the second controller 7 collects the vehicle speed V1 and the sensing time tM of the target vehicle 1 and sends these information to the first controller 6; then the head of the test vehicle 2 arrives The m-th sensing device 4 and the m-th sensing device 4 generate a sensing signal. Similarly, the first contro...
Embodiment 3
[0057] Such as image 3 As shown, the technical solution in this embodiment is the same as that in Embodiment 1, the difference is that in the above-mentioned step B, the distance between each induction device 4 is s, and the target vehicle 1 travels on the lane 3 at a uniform or non-uniform speed, The test vehicle 2 is driving on the lane 3 at a constant speed and gradually approaches the target vehicle 1. When the target vehicle 1 and the test vehicle 2 are located in the test area where the sensing device 4 is installed on the lane 3, the head of the test vehicle 2 reaches the first sensing device 4 and the induction device 4 generates an induction signal and starts timing. When the head of the test vehicle 2 arrives at the nth induction device 4, the first controller 6 collects the vehicle speed V and the sensing time tn of the test vehicle 2; then the target vehicle 1 The head of the vehicle arrives at the mth sensing device 4 and the mth sensing device 4 generates a sens...
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