IP Library Granted Patent US 12669161
Granted Patent B2
US 12669161 · App. 17/892,134 · Granted Jun 30, 2026

Bearing and a method for producing a bearing

Inventors: Dmitry Khlistunov (Bad Soden-Salmünster, DE); Evgenii Zotov (Bad Soden-Salmünster, DE)
Assignee: Sumitomo Riko Company Limited
F16F1/3863F16F1/3828
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Quick Facts
Patent No.
US 12669161
App. No.
17/892,134
Granted
Jun 30, 2026
Kind
B2
Abstract

The disclosure relates to a bearing, having an inner core, an outer cage which surrounds the inner core in a radial direction, and an elastomer body which resiliently connects the inner core and the outer cage together, wherein the outer cage has an inner stop projection, wherein the inner stop projection protrudes radially inwards from an inner circumferential face of the outer cage and has an inner stop face, wherein the inner core has an outer stop projection, wherein the outer stop projection protrudes radially outwards from an outer circumferential face of the inner core and has an outer stop face which faces the inner stop face, and wherein the inner stop face and the outer stop face overlap in an axial direction. The disclosure relates further to a method for producing a bearing.

Claims (38)

1 . A bearing ( 1 ), comprising:

an inner core ( 10 ),

an outer cage ( 20 ) which surrounds the inner core ( 10 ) in a radial direction, and

an elastomer body ( 40 ) which resiliently connects the inner core ( 10 ) and the outer cage ( 20 ) together, wherein

the outer cage ( 20 ) comprises at least one inner stop projection ( 22 ),

each of the at least one inner stop projection ( 22 ) protrudes radially inwards from an inner circumferential face ( 28 ) of the outer cage ( 20 ) and comprises an inner stop face ( 30 ),

the inner core ( 10 ) comprises at least one outer stop projection ( 13 ),

each of the at least one outer stop projection ( 13 ) protrudes radially outwards from an outer circumferential face ( 14 ) of the inner core ( 10 ) and comprises an outer stop face ( 17 ) which faces the inner stop face ( 30 ),

the inner stop face ( 30 ) and the outer stop face ( 17 ) overlap in an axial direction, and

the outer cage ( 20 ) comprises a window portion ( 27 ) radially on the outside relative to the outer stop projection ( 13 ), wherein the inner stop projection ( 22 ) is arranged adjacent to the window portion ( 27 ),

wherein the outer stop projection ( 13 ) and the inner stop projection ( 22 ) are positioned in the same radial direction as the window portion ( 27 ).

2 . The bearing ( 1 ) according to claim 1 , wherein

the inner stop face ( 30 ) is substantially parallel to the outer stop face ( 17 ) and extends in particular substantially transverse to the axial direction.

3 . The bearing ( 1 ) according to claim 1 , wherein

the inner stop face ( 30 ) and/or the outer stop face ( 17 ) is covered with an elastomeric material of the elastomer body ( 40 ).

4 . The bearing ( 1 ) according to claim 1 , wherein the at least one inner stop projection ( 22 ) includes two inner stop projections ( 22 ), and the at least one outer stop projection ( 13 ) includes two outer stop projections ( 13 )

the outer cage ( 20 ) comprises the two inner stop projections ( 22 ),

the two inner stop projections ( 22 ) protrude radially inwards from the inner circumferential face ( 28 ) of the outer cage ( 20 ) at diametral positions,

the inner core ( 10 ) comprises the two outer stop projections ( 13 ),

the two outer stop projections ( 13 ) protrude radially outwards from the outer circumferential face ( 14 ) of the inner core ( 10 ) at diametral positions corresponding to the inner stop projections ( 22 ), and

the inner stop faces ( 30 ) of the two inner stop projections ( 22 ) and outer stop faces ( 17 ) of the two outer stop projections ( 13 ) that face one another overlap in the axial direction.

5 . The bearing ( 1 ) according to claim 1 , wherein

the inner core ( 10 ) and the outer cage ( 20 ) do not undercut one another in an opposite axial direction, which is opposed to the axial direction in which the inner stop face ( 30 ) and the outer stop face ( 17 ) face one another.

6 . The bearing ( 1 ) according to claim 1 , wherein

the window portion ( 27 ) is designed so that the outer stop projection ( 13 ) is exposed radially on the outside through the window portion ( 27 ).

7 . The bearing ( 1 ) according to claim 1 , wherein

the outer stop projection ( 13 ) comprises at its radially outer end an outer radial stop face ( 19 ) which is optionally covered with an elastomeric material of the elastomer body ( 40 ).

8 . The bearing ( 1 ) according to claim 1 , wherein

the bearing ( 1 ) further comprises a mounting element ( 50 ),

the outer cage ( 20 ) is in particular configured so that it can be fastened to the mounting element ( 50 ).

9 . A method ( 60 ) for producing a bearing ( 1 ), comprising:

providing an inner core ( 10 ), wherein the inner core ( 10 ) comprises at least one outer stop projection ( 13 ), wherein each of the at least one outer stop projection ( 13 ) protrudes radially outwards from an outer circumferential face ( 14 ) of the inner core ( 10 ) and comprises an outer stop face ( 17 ),

providing an outer cage ( 20 ), wherein the outer cage ( 20 ) comprises at least one inner stop projection ( 22 ), wherein each of the at least one inner stop projection ( 22 ) protrudes radially inwards from an inner circumferential face ( 28 ) of the outer cage ( 20 ) and comprises an inner stop face ( 30 ), and wherein the outer cage ( 20 ) comprises a window portion ( 27 ) radially on the outside relative to the outer stop projection ( 13 ),

inserting the inner core ( 10 ) and the outer cage ( 20 ) into a tool, such that the outer stop face ( 17 ) and the inner stop face ( 30 ) face one another and overlap in an axial direction and the inner stop projection ( 22 ) is arranged adjacent to the window portion ( 27 ), and

forming an elastomer body ( 40 ) between the inner core ( 10 ) and the outer cage ( 20 ) in the tool,

wherein the outer stop projection ( 13 ) and the inner stop projection ( 22 ) are positioned in the same radial direction as the window portion ( 27 ).

10 . The method ( 60 ) according to claim 9 , wherein

the window portion ( 27 ) is designed so that the outer stop projection ( 13 ) is exposed radially on the outside through the window portion ( 27 ).