A kind of anti-self-locking mechanism of trigger switch
An anti-self-locking and triggering technology, applied in portable mobile devices, manufacturing tools, etc., can solve problems such as hidden safety hazards, failure of anti-self-locking mechanisms, and aggravated impact, and achieve the purpose of increasing service life, protecting personal safety, and improving mobility. Effect
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Embodiment 1
[0022] see Figure 1~2 , in an embodiment of the present invention, an anti-self-locking mechanism of a trigger switch includes a casing 1, a casing 5 and a trigger 4, the trigger 4 is installed between the casing 1 and the casing 5, and an anti-self-locking mechanism is movably installed on the casing 5 device, the anti-self-locking device includes a limiting groove in the casing 1 and a locking plate 3, the limiting groove is opened in the casing 1, the locking plate 3 is movably installed in the limiting groove inside the casing 1, and the locking plate 3 is It is limited in the limit groove in the casing 1, and can move up and down, and control the movement of the trigger 4. The locking plate 3 and the casing 1 work together to control the trigger 4 to realize the anti-self-locking function.
[0023] The outside of shell 5 is equipped with the anti-self-locking button 7 that controls anti-self-locking device, and the anti-self-locking resetting device that is connected wit...
Embodiment 2
[0028] The shell of an anti-self-locking machine of a trigger switch is prepared according to the following method:
[0029] 1) Weigh each raw material by weight for later use: 1 part of gallium, 1 part of cerium, 1 part of neodymium, 2 parts of glass fiber, 3 parts of niobium, 3 parts of zirconium, 8 parts of zinc, 10 parts of graphite, 10 parts of titanium, and 30 parts of silicon parts, aluminum 80 parts, magnesium 1000 parts;
[0030] 2) Add glass fiber and graphite to acetone in sequence, stir at 100 rpm for 6 hours, and then refrigerate at 4°C for 12 hours to obtain auxiliary materials; wherein, the mass ratio of acetone to graphite is 2:1;
[0031] 3) Preheat gallium, cerium, neodymium, niobium, zirconium, zinc, titanium, silicon, aluminum and magnesium at 200°C for 1 hour;
[0032] 4) Use a crucible resistance furnace to melt the preheated magnesium, then add auxiliary materials, zinc, silicon and aluminum at 750 ° C, and stir the melt for 3 minutes; continue to heat ...
Embodiment 3
[0035] Comparative Experiment 1: The process steps are the same as in Example 2, except that graphite and glass fibers are not added.
[0036] Comparative Test 2: The process steps are the same as in Example 2, except that gallium, cerium, neodymium, niobium and zirconium are not added.
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