Load detector
A technology for detectors and loads, which is applied in the directions of instruments, force measurement, and tension measurement, etc. It can solve problems such as the inability to realize high-speed processing procedures, and achieve the effects of small hysteresis, high vibration frequency, and improved detection accuracy
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Embodiment approach 1
[0043] figure 1 It is a figure which shows the installation structure of the load detector 5 concerning Embodiment 1 of this invention, figure 2 is along figure 1 The sagittal sectional view of the II-II line, image 3 yes means figure 1 Front view of the load detector 5, Figure 4 yes means figure 1 Oblique view of the holding unit 8.
[0044] also, figure 1 The X-axis direction is set as the width direction of the load detector 5, the Y-axis direction is set as the height direction of the load detector 5, and the Z-axis direction is set as the depth direction of the load detector 5, and the same symbols are used in the following figures . The load detected by the load detector 5 acts in the -Y direction.
[0045] The load detector 5 of this embodiment is fixed to the mounting member 7 , and detects the load F acting in the Y-axis direction of the load detector 5 via the roller core 3 .
[0046] The load F acting on the load detector 5 such as figure 2 , is the...
Embodiment approach 2
[0110] Figure 20 It is a front view showing the load detector 5 according to Embodiment 2 of the present invention, Figure 21 yes means Figure 20 An enlarged view of the spring portion 12 of .
[0111] The load detector 5 of this embodiment 2 is as Figure 20 As shown, there are two L-shaped spring portions 12 symmetrical to a straight line passing through the load center A in the X-axis direction. The spring portion 12 extends radially outward from the outer peripheral portion of the load supporting portion 10a, is bent at point B which is a bending point of the spring portion 12, forms an L-shape, and is connected to the outer ring portion 11. A gap is formed in the radial direction of the outer ring portion 11 between the spring portion 12 and the outer ring inner peripheral surface 13b. Thereby, between the outer ring portion 11 and the spring portion 12, there is a region where the distance between the outer ring inner peripheral surface 13b of the outer ring porti...
Embodiment approach 3
[0120] Figure 22 It is a front view showing the load detector 5 according to Embodiment 3 of the present invention.
[0121] In the load detector 5 according to Embodiment 3, the outer ring portion 11 is a member independent from the inner ring portion 10 and the spring portion 12 , and has a structure having two L-shaped spring portions 12 .
[0122] The spring portion 12 extends radially from the outer peripheral portion of the load supporting portion 10a, is bent at point B which is a bending point of the spring portion 12, forms an L-shape, and is connected to the outer ring portion 11.
[0123] The spring portion end 12a is provided at a position where the distance b between the flat portion 12b of the spring portion 12 and the load center A in the X-axis direction becomes smaller, and the spring portion end 12a is fitted into the outer ring recessed portion 11e and fixed with a bolt or the like. Hold unit 8.
[0124] In addition, as long as the outer ring portion 11 a...
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