CA2583309A1

CA2583309A1 - Vibration dampening material and uses for same

Info

Publication number: CA2583309A1
Application number: CA002583309A
Authority: CA
Inventors: Robert A. Vito; Carmen N. Dimario; Thomas Falone
Original assignee: Individual
Current assignee: Matscitechno Licensing Co
Priority date: 2004-10-05
Filing date: 2005-10-05
Publication date: 2006-04-20
Anticipated expiration: 2025-10-05
Also published as: KR100986414B1; TW200612844A; KR20100112634A; WO2006041892A2; EP1804934A2; KR101151064B1; CA2583309C; KR20100058626A; KR20070059208A; KR101208779B1; TWI542287B; US7171697B2; KR20110043733A; CN101065168B; US20050144698A1; EP1804934A4; KR20090025374A; TWI409039B; TW201410167A; CN101065168A

Abstract

The present invention is directed to a material (10) adapted to reduce vibration and, more specifically, to a material (10) adapted to dissipate and evenly distribute transmitted vibrations.

Claims

1. A vibration reducing material made from a material selected from the group consisting of: material A, material B, material C, material D, material E, material F, material G, material H, material I, material J, material K, material L, material M, material N, material O, material P, material Q, material R, material S, material T, and material U, wherein:

(a) material A comprises first and second elastomer layers; and a reinforcement layer disposed between the first and second elastomer layers, wherein the reinforcement layer comprises a layer of fibrous material;

(b) material B comprises first and second elastomer layers and a reinforcement layer disposed between and generally separating the first and second elastomer layers, wherein the reinforcement layer has a plurality of high tensile strength fibrous material adjacent to the first and second elastomer layers and located between the first and second elastomer layers, wherein the high tensile strength fibrous material is generally compliant only in a direction perpendicular to the major material surface so as to be non energy storing in the direction; wherein the high tensile strength fibrous material is also interlocked in and generally held in position by the first and second elastomer layers, and wherein the high tensile strength fibrous material generally distributes impact energy parallel to the major material surface and into the first and second elastomer layers;

(c) material C comprises a first elastomeric layer of vibration absorbing material that is substantially free of voids therein; a second elastomeric layer which includes an aramid material therein and that is disposed on the first elastomeric layer, wherein the aramid material distributes vibration; and a third elastomeric layer disposed on the second elastomeric layer and adapted for gripping;

(d) material D comprises a first elastomeric layer adapted to absorb vibration, the first elastomeric layer being substantially free of voids therein;

a second elastomeric layer which includes an aramid material therein and that is disposed adjacent the first elastomeric layer, the aramid material comprising a plurality of strips of aramid of different sizes, wherein the aramid material distributes vibration to facilitate vibration dampening, the second elastomeric layer being substantially free of voids therein; and a third elastomeric layer that is disposed on the second elastomeric layer, the third elastomeric layer being substantially free of voids;

(e) material E comprises: a first vibration-absorbing elastomeric layer that is substantially free of voids therein; a second elastomeric layer that includes an aramid material therein and that is disposed on the first elastomeric layer, wherein the aramid material distributes vibration to facilitate vibration dampening; and a third elastomeric layer disposed on the second elastomeric layer;

(f) material F comprises a first elastomeric layer adapted to absorb vibration, the first elastomeric layer being substantially free of voids therein;

a second elastomeric layer that includes an aramid material therein and that is disposed on the first elastomeric layer, the aramid material comprising a plurality of individual strips of aramid of different sizes, wherein the aramid material distributes vibration to facilitate vibration dampening, the second elastomeric layer being substantially free of voids therein; and a third elastomeric layer that is disposed on the second elastomeric layer, the third elastomeric layer being substantially free of voids;

(g) material G comprises a first layer adapted to absorb vibration and being formed by an elastomer that is substantially free of voids therein;

a second layer which includes an aramid material therein and that is disposed on the first layer, the aramid material comprising a plurality of individual strips of aramid of generally equal sizes, wherein the aramid material distributes vibration to facilitate vibration dampening, the second layer being substantially free of voids therein, the plurality of individual aramid strips being generally parallel to each other; and a third layer formed by an elastomer that is substantially free of voids;
(h) material H comprises a first elastomeric layer of vibration absorbing material which is substantially free of voids therein;

a second layer including fiberglass material and that is disposed on the first elastomeric layer, wherein the fiberglass material distributes vibration to facilitate vibration dampening, wherein the fiberglass material forms a substantially imperforate sheet; and a third elastomeric layer disposed on the second elastomeric layer;

(i) material I comprises a first elastomeric layer of vibration absorbing material which is substantially non-porous;

a second layer including a fiberglass material and that is disposed on the first elastomeric layer, wherein the fiberglass material distributes vibration to facilitate vibration dampening, wherein the fiberglass material forms a plurality of individual elongated segments that are generally co-aligned within a common plane that extends generally throughout the second layer; and a third elastomeric layer disposed on the second elastomeric layer;

(j) material J comprises a first elastomeric layer of vibration absorbing material that is substantially free of voids therein;

a second layer including high tensile strength fibrous material and that is disposed on the first elastomeric layer, wherein the high tensile strength fibrous material distributes vibration to facilitate vibration dampening, wherein the high tensile strength fibrous material forms a substantially imperforate sheet; and a third elastomeric layer disposed on the second elastomeric layer;

(k) material K comprises first and second elastomer layers; and a reinforcement layer disposed between and separating the first and second elastomer layers, the reinforcement layer comprising a cloth layer formed from a plurality of woven high tensile fibrous material, the plurality of woven high tensile fibrous material being connected to the first and second elastomer layers generally uniformly throughout to provide substantially complete coverage between the first and second elastomer layers, the cloth layer being generally compliant only in a direction generally perpendicular to the first major surface so as to be generally non energy storing in the direction, wherein the high tensile fibrous material generally distributes impact energy parallel to the first major surface and into the first and second elastomer layers;

(1) material L comprises first and second elastomer layers; and a reinforcement layer disposed between and generally separating the first and second elastomer layers, the reinforcement layer comprising a cloth layer formed of fiberglass, the fiberglass being connected to the first and second elastomer layers uniformly throughout, the cloth layer being generally pliant only in a direction generally perpendicular to the first major surface so as to be generally non energy storing in the direction, wherein the fiberglass generally distributes impact energy parallel to the first major surface and into the first and second elastomer layers;

(m) material M comprises first and second elastomer layers; and a reinforcement layer disposed between and generally separating the first and second elastomer layers, the reinforcement layer comprising a cloth layer formed of a plurality of woven high tensile fibrous material, the plurality of woven high tensile fibrous material being connected to the first and second elastomer layers generally uniformly throughout to provide substantially complete coverage between the first and second elastomer layers, the cloth layer being generally compliant only in a direction generally perpendicular to the first major surface so as to be generally non energy storing in the direction, the cloth layer is generally interlocked in and generally held in position by the first and second elastomer layers, wherein the high tensile fibrous material generally distributes impact energy parallel to the first major surface and into the first and second elastomer layers;

(n) material N comprises: first and second elastomer layers; and a reinforcement layer disposed between and generally separating the first and second elastomer layers, the reinforcement layer comprising a cloth layer formed of a plurality of woven high tensile fibrous material, the plurality of woven high tensile fibrous material being connected to the first and second elastomer layers generally uniformly throughout to provide substantially complete coverage between the first and second elastomer layers, the cloth layer being generally compliant only in a second direction so as to be generally non energy storing in the second direction, wherein the high tensile fibrous material generally distributes impact energy parallel to the first direction and into the first and second elastomer layers;

(o) material O comprises: an elastomer layer having a first plurality of fibers therein; and a support structure penetrated by and embedded on and/or within the elastomer layer, the support structure being semi-rigid and supporting the elastomer layer;

(p) material P comprises an elastomer layer; and a support structure penetrated by and embedded on and/or within the elastomer layer, the support structure being formed of a second elastomer having a higher durometer than the elastomer layer such that the support structure is semi-rigid and supporting the elastomer layer;

(q) material Q comprises: a first elastomer layer; and a support structure penetrated by and embedded on and/or within the elastomer layer, the support structure being semi-rigid or rigid and supporting the elastomer layer, the support structure having a first plurality of particles therein;

(r) material R comprises: a first elastomer layer; and a support structure formed by a second elastomer layer, the support structure being located and configured to support the first elastomer layer;

(s) material S comprises a first elastomer layer; and a support structure located and configured to support the elastomer layer, the support structure having a first plurality of gel particles therein;

(t) material T comprises a tape body being stretchable along the longitudinal axis from a first position to a second position, in which the tape body is elongated by a predetermined amount relative to the first position, the tape body comprising:

a first elastomer layer defining a tape length, as measured along the longitudinal axis, of the tape body;

a support structure disposed within the elastomer layer generally along the longitudinal axis in an at least partially non linear fashion while the tape body is in the first position so that a length of the support structure, as measured along a surface thereof, is greater than the tape length of the first elastomer layer; and wherein when the tape body is stretched into the second position, the support structure is at least partially straightened so that the support structure is more linear, relative to when the tape body is in the first position, the straightening of the support structure causing energy to be dissipated and generally preventing further elongation of the elastomer layer along the longitudinal axis past the second position, the support structure comprising a plurality of fibers; and (u) material U comprises a tape body being stretchable along the longitudinal axis from a first position to a second position, in which the tape body is elongated by a predetermined amount relative to the first position, the tape body comprising:

a first elastomer layer defining a tape length, as measured along the longitudinal axis, of the tape body;

a support structure disposed at least partially within the elastomer layer generally along the longitudinal axis in an at least partially non linear fashion while the tape body is in the first position so that a length of the support structure, as measured along a surface thereof, is greater than the tape length of the first elastomer layer; and wherein when the tape body is stretched into the second position, the support structure is at least partially straightened so that the support structure is more linear, relative to when the tape body is in the first position, the straightening of the support structure causing energy to be dissipated and generally preventing further elongation of the elastomer layer along the longitudinal axis past the second position.

2. An athletic glove that regulates and dissipates vibration, the athletic glove comprising:

a glove body configured to cover at least a palm portion of a hand for placement thereover;

the glove body including at least one panel, the at least one panel having a panel body having an outer perimeter and being formed by a vibration reducing material of claim 1.

3. The athletic glove of claim 2, wherein the panel is made from the material A, and wherein the panel body defines a major material surface, the first and second elastomer layers being generally parallel thereto, the layer of high tensile strength fibrous material of the reinforcement layer generally prevents substantial elongation of the panel body in a first direction generally parallel to the major material surface during use.

4. The athletic glove of claim 2, wherein the panel is made from the material A, and wherein the layer of high tensile strength fibrous material is a woven sheet.

5. The athletic glove of claim 4, wherein the reinforcement layer is generally compliant only in a second direction that is generally perpendicular to the major material surface so that the at least one panel is non energy storing in the second direction, the reinforcement layer being generally resistant to elongation in the first direction so that vibrations are transferred to the first and second elastomer layers generally evenly throughout.

6. The athletic glove of claim 2, wherein the glove body is configured as one of a baseball glove and a softball glove, the glove body being configured to cover fingers and a palm portion of a hand therein.

7. The athletic glove of claim 2, wherein the glove body is configured as a golf glove.

8. The athletic glove of claim 2, wherein the glove body is configured as a batting glove.

9. The athletic glove of claim 2, wherein the glove body is configured as one of a hockey glove and a lacrosse glove.

10. The athletic glove of claim 2, wherein the glove body is configured as a boxing glove.

11. The athletic glove of claim 2, wherein the glove body is configured as a ski glove.

12. A panel for reducing vibration made from the vibration reducing material of claim 1.

13. The panel of claim 12 made from material B, and wherein the first and second elastomer layers are formed of thermoset silicone material.

14. The panel of claim 12 made from material B, wherein the high tensile strength fibrous material is a woven sheet.

15. The panel of claim 14, wherein the woven sheet generally separates the first and second elastomer layers causing the material to have three generally distinct and separate layers.

16. The panel of claim 12 made from material B, the reinforcement layer consisting of the high tensile strength fibrous material formed by an imperforate sheet.

17. The panel of claim 12 made from material B, wherein the panel is positioned on a glove.

18. The material of claim 1 made from material H, wherein the first elastomeric layer is formed of a gel.

19. The material of claim 1 made from material H, wherein the first elastomeric layer is formed by a silicone gel.

20. The material of claim 19, wherein the third elastomeric layer is formed of a gel.

21. The material of claim 20, wherein the third elastomeric layer is formed by a silicone gel.

22. The material of claim 1 made from material I, wherein the plurality of segments are generally parallel to each other.

23. The material of claim 1 made from material I, wherein the plurality of segments are generally equally sized.

24. The material of claim 1 made from material I, wherein the plurality of segments are generally differently sized.

25. The material of claim 1 made from material I, wherein at least one of the first and third layers are formed of a gel.

26. The material of claim 1 made from material I, wherein at least one of the first and third elastomeric layers are formed by a silicone gel.

27. A shoe insert made from the material of claim 1.

28. A shoe insert made from material K of claim 1.

29. The shoe insert of claim 28, wherein the reinforcement layer is generally coextensive with the shoe insert body.

30. The insert of claim 29, wherein the reinforcement layer is generally parallel to the first major surface.

31. The insert of claim 28, wherein the cloth layer generally separates the first and second elastomer layers and generally provides uniform coverage there between.

32. The insert of claim 28, wherein the first and second elastomer layers are formed by thermoset elastomer.

33. The insert of claim 28, wherein the reinforcement layer consists only of the cloth layer.

34. The insert of claim 28, wherein the high tensile fibrous material is an aramid.

35. The insert of claim 28, wherein the cloth layer is generally interlocked in and generally held in position by the first and second elastomer layers.

36. The insert of claim 28, wherein the cloth layer is generally embedded in and generally held in position by the first and second elastomer layers.

37. The insert of claim 28, wherein the cloth layer is generally held in position by the first and second elastomer layers to prevent sliding movement there between in a direction parallel to the first major material surface.

38. A golf club grip made from the material of claim 1.

39. A golf club grip made from the material N of claim 1.

40. The golf club grip of claim 39, wherein the reinforcement layer is generally coextensive with the grip body.

41. The golf club grip of claim 39, wherein the reinforcement layer is generally parallel to the outer surface of the grip body.

42. The golf club grip of claim 39, wherein the cloth layer generally separates the first and second elastomer layers and generally provides uniform coverage there between.

43. The golf club grip of claim 39, wherein the first and second elastomer layers are formed by thermoset elastomer.

44. The golf club grip of claim 39, wherein the reinforcement layer consists only of the cloth layer.

45. The golf club grip of claim 39, wherein the reinforcement layer substantially prevents the grip body from elongating in a direction parallel to a longitudinal axis of the golf club shaft when dissipating impact vibration.

46. The golf club grip of claim 39, wherein the cloth layer is generally interlocked in and generally held in position by the first and second elastomer layers.

47. The golf club grip of claim 39, wherein the cloth layer is generally embedded in and generally held in position by the first and second elastomer layers.

48. The golf club grip of claim 39, wherein the cloth layer is generally held in position by the first and second elastomer layers to prevent sliding movement there between in the first direction.

49. The material of claim 1 made from material O, wherein the support structure has first and second major surfaces, the elastomer layer extending through the support structure so that the portion of the elastomer layer contacting the first major surface and the portion of the elastomer contacting the second major surface are part of a single contiguous elastomer body.

50. The material of claim 1 made from material O, wherein the support structure comprises a polymer having a generally higher rigidity than the elastomer layer.

51. The material of claim 1 made from material O, wherein the support structure comprises a second elastomer having a generally higher rigidity than the elastomer layer.

52. The material of claim 1 made from material O, wherein the support structure includes a second plurality of fibers.

53. The material of claim 1 made from material O, wherein the support structure is embedded in the single layer material with elastomer penetrating the support structure, the support structure being generally along a major material surface.

54. The material of claim 52, wherein at least one of the first and second plurality of fibers are woven.

55. The material of claim 54, wherein at least one of the first and second plurality of fibers include aramid fibers.

56. The material of claim 1 made from material O, wherein the support structure comprises a second elastomer having a second plurality of fibers embedded therein.

57. The material of claim 56, wherein the second elastomer is formed of the same elastomer as the elastomer layer, the second plurality of fibers imparting a greater rigidity to the second elastomer relative to the rigidity of the first elastomer layer to make the support structure semi-rigid.

58. The material of claim 1 made from the material Q, wherein the support structure comprises a second elastomer layer including a plurality of fibers, the support structure having a greater rigidity than the elastomer layer.

59. The material of claim 58, wherein the plurality of fibers are woven.

60. The material of claim 59, wherein the plurality of fibers include aramid fibers.

61. The material of claim 1 made from the material Q, wherein the first elastomer layer includes a second plurality of particles.

62. The material of claim 61, wherein at least one of the first and second plurality of particles includes gel particles.

63. The material of claim 61, wherein at least one of the first and second plurality of particles includes sand particles.

64. The material of claim 61, wherein at least one of the first and second plurality of particles includes glass beads.

65. The material of claim 58, wherein the second elastomer layer is formed of the same elastomer as the first elastomer layer, the plurality of fibers imparting a greater rigidity to the second elastomer layer relative to the rigidity of the first elastomer layer to make the support structure semi-rigid.

67. The material of claim 61, wherein the material is configured and adapted to form a grip for an implement having a handle and a proximal end, the material is adapted to enclose a portion of the handle and to enclose the proximal end of the implement.

68. Athletic tape made using the material of claim 1.

69. The athletic tape of claim 68 made using material T, wherein the plurality of fibers include high tensile fibrous material.

70. The athletic tape of claim 68 made using material T, wherein the plurality of fibers include fiberglass fibers.

71. The athletic tape of claim 69, wherein the plurality of fibers are woven.

72. The athletic tape of claim 69, wherein the plurality of fibers are woven into a ribbon.

73. The athletic tape of claim 72, wherein the ribbon is positioned in a generally sinusoidal fashion within the elastomer layer while the tape body is in the first position.

74. The athletic tape of claim 68 made using material T, wherein the tape body has top and bottom surfaces, the bottom surface facing the portion of the person's body when the athletic tape is wrapped thereover, the plurality of fibers defining multiple, stacked fiber layers between the top and bottom surfaces.

75. The athletic tape of claim 74, wherein the plurality of fibers are stacked between four (4) and sixteen (16) times between the top and bottom surfaces.

76. The athletic tape of claim 77, wherein the plurality of fibers are stacked ten (10) times.

77. The athletic tape of claim 68, wherein the plurality of fibers include metal fibers.

78. The athletic tape of claim 68 made using material T, wherein the plurality of fibers include ceramic fibers.

79. The material of claim 1 for use in one of the following selected from the group consisting of: a grip for a tennis racquet, a grip for a hockey stick, a grip for a golf club, a grip for a baseball bat, protective athletic gear for mitts, protective athletic gear for headbands, protective athletic gear for helmets, protective athletic gear for knee pads, protective athletic gear for umpire padding, protective athletic gear for shoulder pads, protective athletic gear for gloves, protective athletic gear for mouth guards, pads, seats, handle bar covers, footwear for skiing, footwear for roller blading; clothing, shirts, gloves, pants, padded liners, inserts for footwear, shoe soles, shoe uppers, shoe lowers, shoe pads, ankle pads, toe pads, padding to socks, form padding for portable electronics, form padding for cell phone cases, form padding for PDA cases, form padding for laptop cases, form padding for gun cases, form padding for radio cases, form padding for cassette cases, form padding for MP3 player cases, form padding for calculator cases, padding for speakers, padding for automobiles, soundproofing for automobiles, soundproofing, bar padding in vehicles, padding for use in engine mounts, grips for firearms, grips for tools, and to form part or all of bandages and/or wraps.