IP Library › Granted Patent US 12,736,138
Granted Patent B2
US 12,736,138 · App. 18/866,463 · Granted Sep 15, 2026

Sliding component

Inventors: Hiroshi Suzuki (Tokyo, JP); Hiroki Aizawa (Tokyo, JP); Tadatsugu Imura (Tokyo, JP); Yuta Negishi (Tokyo, JP); Nobuo Nakahara (Tokyo, JP); Takao Hishikawa (Tokyo, JP); Keita Kajihara (Tokyo, JP)
Assignee: EAGLE INDUSTRY CO., LTD.
F16J15/3412F16J15/342F16C17/045F16J15/3408
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Quick Facts
Patent No.
US 12,736,138
App. No.
18/866,463
Granted
Sep 15, 2026
Kind
B2
Abstract

A sliding component has at least one of the sliding surfaces is provided with a plurality of forward dynamic pressure generation grooves each of which communicates with a leakage space, a forward fluid inlet/outlet groove which is separated from a forward dynamic pressure generation groove by a land and communicates with a sealed fluid space, and a backward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation groove by the land and communicates with the sealed fluid space. The forward dynamic pressure generation grooves are disposed in a sparse state with respect to the backward fluid inlet/outlet groove than with respect to the forward fluid inlet/outlet groove.

Claims (58)

1 . A sliding component comprising a pair of sliding rings having sliding surfaces rotatable relative to each other to partition a sealed fluid space and a leakage space,

wherein at least one of the sliding surfaces is provided with a plurality of forward dynamic pressure generation grooves each of which is configured to communicate with the leakage space, a forward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation grooves by a first land portion and is configured to communicate with the sealed fluid space, and a backward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation grooves by a second land portion and communicates with the sealed fluid space, and

wherein the forward dynamic pressure generation grooves are disposed in a sparser state with respect to the backward fluid inlet/outlet groove than with respect to the forward fluid inlet/outlet groove, and

wherein the sparser state is configured such that part of the forward dynamic pressure generation grooves close to the backward fluid inlet/outlet groove have shorter radial lengths than part of the forward dynamic pressure generation grooves close to the forward fluid inlet/outlet groove.

2 . The sliding component according to claim 1 ,

wherein terminating ends of the forward dynamic pressure generation grooves are disposed in a sparser state with respect to a terminating end of the backward fluid inlet/outlet groove than with respect to a terminating end of the forward fluid inlet/outlet groove.

3 . The sliding component according to claim 1 ,

wherein the sparser state is configured such that part of the forward dynamic pressure generation grooves close to the backward fluid inlet/outlet groove have a smaller total volume than a total volume of part of the forward dynamic pressure generation grooves close to the forward fluid inlet/outlet groove.

4 . The sliding component according to claim 1 ,

wherein a plurality of sparse areas showing the sparser state are arranged in a circumferential direction of the one of the sliding surfaces.

5 . The sliding component according to claim 1 ,

wherein each of the forward dynamic pressure generation grooves is a spiral groove extending from a starting end in an arc shape with an inclination with respect to a radial direction,

the forward fluid inlet/outlet groove includes a fluid guide groove portion configured to communicate with the sealed fluid space and a Rayleigh step extending in a relative forward rotation direction, and

the backward fluid inlet/outlet groove includes a fluid guide groove portion configured to communicate with the sealed fluid space and a reverse Rayleigh step extending in a relative backward rotation direction.

6 . The sliding component according to claim 5 ,

wherein the forward fluid inlet/outlet groove and the backward fluid inlet/outlet groove as a whole have a substantially T shape and share a groove as the fluid guide groove portions thereof.

7 . The sliding component according to claim 1 ,

wherein the forward fluid inlet/outlet groove is disposed on a relative backward rotation direction side of the backward fluid inlet/outlet groove.

8 . The sliding component according to claim 2 ,

wherein each of the forward dynamic pressure generation grooves is a spiral groove extending from a starting end in an arc shape with an inclination with respect to a radial direction,

the forward fluid inlet/outlet groove includes a fluid guide groove portion configured to communicate with the sealed fluid space and a Rayleigh step extending in a relative forward rotation direction, and

the backward fluid inlet/outlet groove includes a fluid guide groove portion configured to communicate with the sealed fluid space and a reverse Rayleigh step extending in a relative backward rotation direction.

9 . The sliding component according to claim 8 ,

wherein the forward fluid inlet/outlet groove and the backward fluid inlet/outlet groove as a whole have a substantially T shape and share a groove as the fluid guide groove portions thereof.

10 . The sliding component according to claim 3 ,

wherein each of the forward dynamic pressure generation grooves is a spiral groove extending from a starting end in an arc shape with an inclination with respect to a radial direction,

the forward fluid inlet/outlet groove includes a fluid guide groove portion configured to communicate with the sealed fluid space and a Rayleigh step extending in a relative forward rotation direction, and

the backward fluid inlet/outlet groove includes a fluid guide groove portion configured to communicate with the sealed fluid space and a reverse Rayleigh step extending in a relative backward rotation direction.

11 . The sliding component according to claim 10 ,

wherein the forward fluid inlet/outlet groove and the backward fluid inlet/outlet groove as a whole have a substantially T shape and share a groove as the fluid guide groove portions thereof.

12 . The sliding component according to claim 4 ,

wherein each of the forward dynamic pressure generation grooves is a spiral groove extending from a starting end in an arc shape with an inclination with respect to a radial direction,

the forward fluid inlet/outlet groove includes a fluid guide groove portion configured to communicate with the sealed fluid space and a Rayleigh step extending in a relative forward rotation direction, and

the backward fluid inlet/outlet groove includes a fluid guide groove portion configured to communicate with the sealed fluid space and a reverse Rayleigh step extending in a relative backward rotation direction.

13 . The sliding component according to claim 12 ,

wherein the forward fluid inlet/outlet groove and the backward fluid inlet/outlet groove as a whole have a substantially T shape and share a groove as the fluid guide groove portions thereof.

14 . The sliding component according to claim 2 ,

wherein the forward fluid inlet/outlet groove is disposed on a relative backward rotation direction side of the backward fluid inlet/outlet groove.

15 . The sliding component according to claim 3 ,

wherein the forward fluid inlet/outlet groove is disposed on a relative backward rotation direction side of the backward fluid inlet/outlet groove.

16 . The sliding component according to claim 4 ,

wherein the forward fluid inlet/outlet groove is disposed on a relative backward rotation direction side of the backward fluid inlet/outlet groove.

17 . A sliding component comprising a pair of sliding rings having sliding surfaces rotatable relative to each other to partition a sealed fluid space and a leakage space,

wherein at least one of the sliding surfaces is provided with a plurality of forward dynamic pressure generation grooves each of which is configured to communicate with the leakage space, a forward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation grooves by a first land portion and is configured to communicate with the sealed fluid space, and a backward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation grooves by a second land portion and communicates with the sealed fluid space, and

wherein the forward dynamic pressure generation grooves are disposed in a sparser state with respect to the backward fluid inlet/outlet groove than with respect to the forward fluid inlet/outlet groove, and

wherein the sparser state is configured such that the forward dynamic pressure generation grooves are disposed to be directed to only the forward fluid inlet/outlet groove.

18 . A sliding component comprising a pair of sliding rings having sliding surfaces rotatable relative to each other to partition a sealed fluid space and a leakage space,

wherein at least one of the sliding surfaces is provided with a plurality of forward dynamic pressure generation grooves each of which is configured to communicate with the leakage space, a forward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation grooves by a first land portion and is configured to communicate with the sealed fluid space, and a backward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation grooves by a second land portion and communicates with the sealed fluid space, and

wherein the forward dynamic pressure generation grooves are disposed in a sparser state with respect to the backward fluid inlet/outlet groove than with respect to the forward fluid inlet/outlet groove, and

wherein the sparser state is configured such that part of the forward dynamic pressure generation grooves close to the backward fluid inlet/outlet groove have a larger arrangement period than part of the forward dynamic pressure generation grooves close to the forward fluid inlet/outlet groove.

19 . A sliding component comprising a pair of sliding rings having sliding surfaces rotatable relative to each other to partition a sealed fluid space and a leakage space,

wherein at least one of the sliding surfaces is provided with a plurality of forward dynamic pressure generation grooves each of which is configured to communicate with the leakage space, a forward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation grooves by a first land portion and is configured to communicate with the sealed fluid space, and a backward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation grooves by a second land portion and communicates with the sealed fluid space, and

wherein the forward dynamic pressure generation grooves are disposed in a sparser state with respect to the backward fluid inlet/outlet groove than with respect to the forward fluid inlet/outlet groove, and

wherein the sparser state is configured such that land portions each disposed between adjacent two of part of the forward dynamic pressure generation grooves close to the backward fluid inlet/outlet groove have larger circumferential widths than land portions each disposed between adjacent two of part of the forward dynamic pressure generation grooves close to the forward fluid inlet/outlet groove.

20 . A sliding component comprising a pair of sliding rings having sliding surfaces rotatable relative to each other to partition a sealed fluid space and a leakage space,

wherein at least one of the sliding surfaces is provided with a plurality of forward dynamic pressure generation grooves each of which is configured to communicate with the leakage space, a forward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation grooves by a first land portion and is configured to communicate with the sealed fluid space, and a backward fluid inlet/outlet groove which is separated from the forward dynamic pressure generation grooves by a second land portion and communicates with the sealed fluid space, and

wherein the forward dynamic pressure generation grooves are disposed in a sparser state with respect to the backward fluid inlet/outlet groove than with respect to the forward fluid inlet/outlet groove, and

wherein the sparser state is configured such that part of the forward dynamic pressure generation grooves close to the backward fluid inlet/outlet groove have smaller depths than part of the forward dynamic pressure generation grooves close to the forward fluid inlet/outlet groove.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Feb 24, 2025
From: SUZUKI, HIROSHI; KAJIHARA, KEITA; AIZAWA, HIROKI; IMURA, TADATSUGU; NEGISHI, YUTA; NAKAHARA, NOBUO; HISHIKAWA, TAKAO
To: EAGLE INDUSTRY CO., LTD.
Reel/Frame 070311/0309 →
Priority Claims (1)
JP 2022-082112 · May 19, 2022 · national
Continuity (1)
Related Publication 20250327480A1 · Oct 23, 2025
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