Method and device for adjusting unloading track gauge of excavator and excavator
An adjustment method and excavator technology, which is applied to mechanically driven excavators/dredgers, earth movers/shovels, construction, etc., can solve the problem that the gauge of the excavator cannot be adaptively adjusted when getting off the vehicle, and avoid The effect of vehicle overturning and vehicle stabilization
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Embodiment 1
[0054] combine figure 1 As shown, the excavator gauge adjustment method for getting off the vehicle provided in this embodiment includes:
[0055] S11. Obtain the working condition data of the excavator.
[0056] In the embodiment of the present invention, a detection device is pre-set at a corresponding position of the excavator, and the detection device includes at least one of: a laser range finder, a load cell, a position sensor or a slope angle measuring device. Obtain the working condition data of the excavator through the detection equipment. Wherein, the working condition data includes but not limited to: overturning moment, stabilizing moment, and current alighting gauge. When the side of the excavator bucket is working, the excavation reaction force of the bucket forms an overturning moment on the excavator, which is easy to cause the excavator to overturn. The overturning moment and stabilizing moment are used to determine the current stability state of the excav...
Embodiment 2
[0067] combine figure 2 As shown, another excavator gauge adjustment method provided in this embodiment includes:
[0068] S21. Determine a stabilizing torque based on the working condition data.
[0069] In the embodiment of the present invention, the stabilizing moment is the maximum overturning moment that the excavator can bear under the current operating state, and the stabilizing moment is related to the angle of the slope where the excavator is located, the angle between the boom 95 of the excavator and the longitudinal direction, The included angle between the lower beam of the excavator and the longitudinal direction is in a corresponding relationship, wherein the longitudinal direction referred to here refers to the direction perpendicular to the direction of travel when the excavator is traveling directly against the slope. The working condition data includes but not limited to: overturning moment, current alighting gauge, slope angle or boom working direction, et...
Embodiment 3
[0087] combine Figure 4 , Figure 5 As shown, the present embodiment provides an excavator, including:
[0088] The first lower beam 91 and the second lower beam 93;
[0089] The first hydraulic cylinder 92 and the second hydraulic cylinder 94 drive the first lower beam 91 and the second lower beam 93 respectively, and are suitable for adjusting the first lower beam 91 and the second lower beam. The distance between the beams 93.
[0090] Preferably, the undercarriage of the excavator is provided with two undercarriage beams, respectively the first undercarriage beam 91 and the second undercarriage beam 93, and the first undercarriage beam 91 and the second undercarriage beam 93 are arranged in parallel . The first lower beam 91 and the second lower beam 93 are respectively connected with the first hydraulic cylinder 92 and the second hydraulic cylinder 94. Preferably, the push rods of the first hydraulic cylinder 92 and the second hydraulic cylinder 94 are connected with...
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