Disc drive slider test socket
View Patent ↗A disc drive slider test system includes a support structure and a slider test socket carried by the support structure that releasably electrically and mechanically receives a slider for testing. The slider test socket includes a body forming a cavity for receiving the slider and a plurality of spring beams outside a plan area of the body connected to a clamp for releasably securing the slider in the cavity. In some exemplary embodiments, a microactuator is employed to position the slider secured by the slider test socket with high resolution with respect to tracks of the disc.
1. A slider system, comprising:
a support structure; and
a slider socket carried by the support structure that releasably electrically and mechanically receives a slider, the slider socket comprising:
a body forming a cavity for receiving the slider; and
a plurality of spring beams outside a plan area of the body connected to a clamp for releasably securing the slider in the cavity.
2. The slider system of claim 1 , wherein the plurality of spring beams are attached to the body of the slider socket.
3. The slider system of claim 2 , wherein the plurality of spring beams are composed of a metal and the body of the slider socket is composed of a MEMS-type material.
4. The slider system of claim 3 , wherein the plurality of spring beams are able to withstand a stress of 1.5 giga-Pascals (GPa) when displaced to allow insertion of the slider.
5. The slider system of claim 1 , wherein the plurality of spring beams and the body of the slider socket are integrally formed of a MEMS-type material.
6. The slider system of claim 5 , wherein the plurality of spring beams includes first, second, third and fourth tapered cross beams, a first wing connected to the first and third tapered cross beams, a second wing connected to the second and fourth tapered cross beams, and a center body connected between the third and fourth tapered cross beams that is connected to the clamp.
7. The slider system of claim 1 , wherein the plurality of spring beams includes first and second arm portions connected by tapered cross beams which connect to the clamp.
8. The slider system of claim 1 , wherein the slider socket includes a slider-level microactuator for positioning the slider received by the slider socket with respect to tracks of a rotatable disc.
9. The slider system of claim 1 , wherein the support structure includes a suspension-level microactuator for positioning the slider received by the slider socket with respect to tracks of a rotatable disc.
10. A slider socket for releasably electrically and mechanically receiving a slider, comprising:
a body forming a cavity for receiving the slider; and
a plurality of spring beams outside a plan area of the body connected to a clamp for releasably securing the slider in the cavity.
11. The slider socket of claim 10 , wherein the plurality of spring beams are attached to the body of the slider socket.
12. The slider socket of claim 11 , wherein the plurality of spring beams are composed of a metal and the body of the slider socket is composed of a MEMS-type material.
13. The slider socket of claim 12 , wherein the plurality of spring beams are able to withstand a stress of 1.5 giga-Pascals (GPa) when displaced to allow insertion of the slider.
14. The slider socket of claim 10 , wherein the plurality of spring beams and the body of the slider socket are integrally formed of a MEMS-type material.
15. The slider socket of claim 14 , wherein the plurality of spring beams includes first, second, third and fourth tapered cross beams, a first wing connected to the first and third tapered cross beams, a second wing connected to the second and fourth tapered cross beams, and a center body connected between the third and fourth tapered cross beams that is connected to the clamp.
16. The slider socket of claim 10 , wherein the plurality of spring beams includes first and second arm portions connected by tapered cross beams which connect to the clamp.