Connection arrangement and structure
US-9493224-B2 · Nov 15, 2016 · US
US10107346B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-10107346-B2 |
| Application number | US-201615343505-A |
| Country | US |
| Kind code | B2 |
| Filing date | Nov 4, 2016 |
| Priority date | Nov 4, 2016 |
| Publication date | Oct 23, 2018 |
| Grant date | Oct 23, 2018 |
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A method and system for improving the vibration damping properties in a metal product are disclosed. The product incorporates a dry friction, layered metallic damping material having embedded therein one or more woven mesh layers comprised of wire ropes of bundled wires. The ropes may be sheathed with a thin layer of metal. The individual ropes are woven to form the mesh layer with some ropes being positioned in a first or Y direction and the other ropes being positioned in a second or X direction. One or more mesh layers are attached to a metal substrate by rolling, forming or extrusion. The parameters of the rolling, forming or extruding process can be optimized to achieve the proper embedding of the ropes into the metal plate where the ropes are locked into the metal plate with the metal material flowing over the cable outer surfaces without infiltrating between the wires.
Opening claim text (preview).
What is claimed is: 1. A dry friction damped material for use in an article, the material comprising: a metallic substrate having first and second sides; and a woven mesh at least partially embedded in said first side of said substrate, said woven mesh comprising an array of interwoven longitudinal and transverse ropes having outer surfaces, said ropes formed from a plurality of bundled wires, wherein said ropes are firmly locked in said substrate with said substrate flowing over said outer surfaces of said ropes without infiltrating in between said bundled wires of each of said ropes, and wherein sliding movement of the surfaces of the wires relative to one another dampens resonant vibration of the article. 2. The dry friction damped material for use in an article of claim 1 wherein each of said ropes is encased within single layer of outer metal sheathing. 3. The dry friction damped material for use in an article of claim 1 further including a second woven mesh attached to said second side of said substrate. 4. The dry friction damped material for use in an article of claim 3 wherein said second woven mesh is attached to said second side of said substrate by at least partially embedding said second woven mesh in said second side of said substrate. 5. The dry friction damped material for use in an article of claim 1 wherein said bundled wires are arranged linearly or helically. 6. A dry friction damped material for use in an article, the material comprising: a metallic substrate having first and second sides; a woven mesh at least partially embedded in said first side of said substrate, said woven mesh comprising an array of metallic longitudinal ropes interwoven with an array of metallic transverse ropes having outer surfaces, at least one of said ropes formed from a plurality of bundled wires and encased within a single layer of outer metal sheathing, wherein said ropes are firmly locked in said substrate with said substrate flowing over said outer surfaces of said ropes without infiltrating said sheathing, and wherein sliding movement of the surfaces of the wires relative to one another or to the inner surfaces of said sheathing dampens resonant vibration of the article. 7. The dry friction damped material for use in an article of claim 6 wherein at least one of said ropes includes a single wire. 8. The dry friction damped material for use in an article of claim 6 wherein each of said ropes includes a plurality of bundled wires. 9. The dry friction damped material for use in an article of claim 6 wherein said plurality of wires is arranged linearly or helically. 10. The dry friction damped material for use in an article of claim 6 wherein each of said ropes is encased within an outer sheathing. 11. The dry friction damped material for use in an article of claim 6 further including a second woven mesh attached to said second side of said substrate. 12. The dry friction damped material for use in an article of claim 11 wherein said second woven mesh is attached to said second side of said substrate by at least partially embedding said second woven mesh in said second side of said substrate. 13. A method for forming a dry friction damped material for use in an article, the method comprising: forming a metal substrate having first and second sides; forming a plurality of ropes having outer surfaces, each rope comprising a plurality of bundled wires; encasing at least one of said ropes within a single layer of outer metal sheathing; interweaving said ropes in longitudinal and transverse directions to form an interwoven mesh layer; and at least partially embedding said mesh layer on said first side of said substrate to firmly lock said ropes in said substrate with said substrate flowing over said outer surfaces of said ropes without infiltrating in between said bundled wires, wherein sliding movement of the surfaces of the wires relative to one another dampens resonant vibration of the article. 14. The method for forming a dry friction damped material for use in an article of claim 13 including encasing each of said plurality of wires in an outer metal sheathing to form sheathed ropes. 15. The method for forming a dry friction damped material for use in an article of claim 13 wherein said interwoven mesh layer is a first layer and the method further including interweaving said ropes in longitudinal and transverse directions to form a second interwoven mesh layer and at least partially embedding said second woven mesh layer on said second side of said substrate. 16. The method for forming a dry friction damped material for use in an article of claim 13 including attaching said woven mesh layer to said substrate by a method selected from the group consisting of rolling, forming and extruding. 17. The method for forming a dry friction damped material for use in an article of claim 13 including the further step of bonding an outer surface of said woven mesh layer to said substrate by a method selected from the group consisting of soldering and brazing. 18. The method for forming a dry friction damped material for use in an article of claim 13 including the step of coating said ropes with a soldering material without infiltrating inside said ropes before embedding said ropes into said substrate.
Details of structures as upper supports for springs or dampers · CPC title
for assembling or disassembling parts · CPC title
with friction surfaces rectilinearly movable along each other (F16F7/01 takes precedence {; one of the members being a spring F16F13/02}) · CPC title
Suppression of vibrations of non-rotating, e.g. reciprocating systems; Suppression of vibrations of rotating systems by use of members not moving with the rotating systems ({F16F15/005 takes precedence } ; layered products B32B; suppression of vibration in ships B63; {relieving load on bearings, using magnetic means F16C39/06}) · CPC title
of cable support type, i.e. frictionally-engaged loop-forming cables · CPC title
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