1. A method for reducing corrosion in a fluid dynamic bearing comprising:
receiving a fluid dynamic bearing comprising:
receiving a rotor portion; and
receiving a stator portion; and
providing a corrosion inhibitor containing lubricating fluid between said rotor portion and said stator portion, wherein said corrosion inhibitor containing lubricating fluid does not react with either said rotor portion or said stator portion of said fluid dynamic bearing.
2. The method of claim 1 further comprising:
utilizing an organic oil in said corrosion inhibitor containing lubricating fluid.
3. The method of claim 1 further comprising:
utilizing a tolutriazole in said corrosion inhibitor containing lubricating fluid.
4. The fluid dynamic bearing of claim 1 further comprising:
forming at least a portion of said rotor portion and at least a portion of said stator portion from a yellow metal.
5. The fluid dynamic bearing of claim 4 further comprising:
utilizing bronze as said yellow metal.
6. The fluid dynamic bearing of claim 4 further comprising:
utilizing brass as said yellow metal.
7. A fluid dynamic bearing comprising:
a corrosion inhibitor containing lubricating fluid;
a rotor having;
an axis of rotation; and
a surface conducive to supporting a film of said corrosion inhibitor containing lubricating fluid; and
a stator having;
an axis coincident to said axis of rotation; and
a complimentary surface juxtaposed to said rotor which is conducive to supporting said corrosion inhibitor containing lubricating fluid such that said rotor is rotatably retained;
wherein said corrosion inhibitor containing lubricating fluid does not react with said rotor surface and said stator complimentary surface juxtaposed to said rotor.
8. The fluid dynamic bearing of claim 7 wherein said corrosion inhibitor containing lubricating fluid comprises an organic oil.
9. The fluid dynamic bearing of claim 7 wherein said corrosion inhibitor containing lubricating fluid comprises a tolutriazole.
10. The fluid dynamic bearing of claim 7 wherein at least a portion of said surface of said rotor and at least a portion of said surface of said stator is comprised of a yellow metal.
11. The fluid dynamic bearing of claim 10 wherein said yellow metal is bronze.
12. The fluid dynamic bearing of claim 10 wherein said yellow metal is brass.
13. A disk drive system comprising:
a rotatably mounted magnetic disk;
a rotor coupled to said magnetic disk;
a stator for rotatably retaining said rotor;
a motor coupled to said rotor for rotating said magnetic disk via said rotor;
a fluid dynamic bearing that couples said stator to said rotor; and
a corrosion inhibitor containing lubricating fluid utilized in said fluid dynamic bearing, wherein said corrosion inhibitor containing lubricating fluid reduces corrosion of a yellow metal of said fluid dynamic bearing.
14. The fluid dynamic bearing of claim 13 wherein said corrosion inhibitor containing lubricating fluid comprises an organic oil.
15. The fluid dynamic bearing of claim 13 wherein said corrosion inhibitor containing lubricating fluid comprises a tolutriazole.
16. The fluid dynamic bearing of claim 13 wherein said surface of said rotor is comprised of a yellow metal.
17. The fluid dynamic bearing of claim 13 wherein said surface of said stator is comprised of a yellow metal.
18. The fluid dynamic bearing of claim 17 wherein said yellow metal is bronze.
19. The fluid dynamic bearing of claim 17 wherein said yellow metal is brass.
20. A fluid dynamic bearing having reduced corrosion properties, said fluid dynamic bearing comprising:
stator means;
rotor means;
corrosion inhibitor containing lubricating fluid means disposed between said rotor means and said stator means of said fluid dynamic bearing, wherein said corrosion inhibitor containing lubricating fluid means does not deleteriously react with either said rotor means or said stator means of said fluid dynamic bearing.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. An assembly for sculptural presentation of epidermal surfaces, the assembly comprising:
(a) a multiplicity of scallops, each scallop among the multiplicity of scallops having inner and outer surfaces; and
(b) a multiplicity of links, the links extending the scallops in a clinker-built configuration wherein each scallop’s inner surface abuts the outer surface of one of the other scallops.
2. The assembly of claim 1 wherein the multiplicity of links helically extend the multiplicity of scallops.
3. The assembly of claim 2 wherein a plurality of links among the multiplicity of links flare a plurality of scallops among the multiplicity of scallops, or wherein said plurality of links counter flare said plurality of scallops.
4. The assembly of claim 3 wherein a second plurality of links among the multiplicity of links corrugate a second plurality of scallops among the multiplicity of scallops.
5. The assembly of claim 4 wherein each scallop among the multiplicity of scallops has a longitudinal end, each of the scallops’ longitudinal ends comprising an edge surface selected from the group consisting of convex surfaces, concave surfaces, faceted surfaces, angled surfaces, flat surfaces, \u201csaw toothed\u201d surfaces, and S-curved surfaces.
6. The assembly of claim 5 wherein each scallop among the multiplicity of scallops comprises a metal plate, and wherein each link among the multiplicity of links comprises a metal tie.
7. The assembly of claim 6 wherein each scallop among the multiplicity of scallops has a longitudinally opposite end, and wherein the metal tie of each link among the multiplicity of links spans between and interconnects an adjacent pair of said scallops’ longitudinally opposite ends.
8. The assembly of claim 7 wherein the metal tie of each link among the multiplicity of links is ductily deformable, and wherein the second further extension comprises plate splaying or plate counter-splaying bends at the plurality of links’ metal ties.
9. The assembly of claim 8 wherein the links’ corrugation comprises plate flexing or counter-flexing bends at the second plurality of links’ metal ties.
10. The assembly of claim 6 wherein each metal tie among a multiplicity of the metal ties is formed wholly with a pair of the scallops’ metal plates.
11. The assembly of claim 10 wherein each metal tie and metal plates whole formation comprises a peripheral edge selected from the group consisting of die cut edges, shear cut edges, laser cut edges, \u201coxy fuel\u201d cut edges, plasma cutter formed edges, and water jet formed edges.
12. The assembly of claim 2 wherein the multiplicity of scallops’ extension comprises a plurality of spiral turns, and further comprising attaching means fixedly interconnecting the spiral turns.
13. The assembly of claim 12 wherein the attaching means comprises a multiplicity of welds.