Mechanical method and special mechanical equipment for forming nano structure
A nanostructure and mechanical method technology, applied in the field of metal surface processing, can solve the problems of no nanostructure, a large number of projectiles, fixed angle, etc., and achieve the effects of improving diffusion properties, reducing processing temperature, and reducing time.
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Embodiment 1
[0032] A mechanical method for forming a nanostructure on the surface of a metal part, comprising: performing a surface treatment on the metal part to obtain a surface layer with a nanostructure, specifically:
[0033] 1) A large number of spherical projectiles are placed in a suitable closed space, and the projectiles hit each wall board of the closed space in the reciprocating vibration, one of the wall boards is (or is fixed with) a metal part to be processed;
[0034] 2) The projectile vibrates cyclically in the enclosed space in a direction perpendicular to the surface of the metal part to be treated with a variable incident angle, so that the metal part forms a nanostructure surface layer;
[0035] 3) According to the physical characteristics of the projectile, the speed of the cyclic motion and the frequency and amplitude of vibration are determined, so that the projectile can obtain enough kinetic energy to make the metal parts produce nanostructures;
[0036] As shown...
Embodiment 2
[0048] The difference from Embodiment 1 is that the vibration generating device 70 adopts an ultrasonic generator.
[0049] In the present embodiment, the ultrasonic generator installed on the support arm 60 is used as the vibration generating device 70, and the amplitude of 10~40KHz frequency and 5-900 micron is transmitted to the support arm 60 to replace by the motor 75, the inertial member 74 and the vibration generating device 70. The vibration generating device 70 composed of axis 3, in this case, can make good use of the frequency from the ultrasonic wave, adjust its vibration duration with a real-timer, and adjust its vibration frequency with a frequency converter to keep the projectile speed at 3-100 Between m / s; the diameter of a completely spherical projectile is selected between 300 μm and 3 mm according to the thickness of the desired nanostructured surface layer; for a determined projectile size and a determined component material, the duration of the surface trea...
Embodiment 3
[0055] The difference from Embodiment 1 or 2 is that this embodiment is an improved type with external stress added.
[0056] like Figure 2A , 2B As shown, the surface to be treated can be carried out in a stressed state while the metal part 10 is secured with a suitably clamped stressing device 21 . This stress device 21 has a base plate 21.2, and the pressure plate flange joint 21.1 is contained on the base plate 21.2, inserts and is used for fastening the metal part 10 next to the protective pad 21.3 between the metal part 10 and the base plate 21.2. A rod 21.4 passes through the through-holes A21.21 and B21.31 of the base plate 21.2 and the pad 21.3 respectively, and exerts a force on the metal part 10 fixed by the flange. The through-hole of the rod 21.4 and the base plate 21.2 The hole B21.31 is threaded, and the rod 21.4 is fastened on the bottom plate (21.2) to obtain the pressure, and its stress value is not greater than the yield stress of the metal parts. Then, t...
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Abstract
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