An example accumulator reservoir includes a housing. The housing contains a system fluid chamber, a working fluid chamber, and a residual chamber. Vent paths are configured to vent fluid from the residual chamber. Each of the vent paths extends nonlinearly between a first opening and a second openin
An example accumulator reservoir includes a housing. The housing contains a system fluid chamber, a working fluid chamber, and a residual chamber. Vent paths are configured to vent fluid from the residual chamber. Each of the vent paths extends nonlinearly between a first opening and a second opening.
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1. An accumulator reservoir, comprising: a housing containing at least a system fluid chamber, a working fluid chamber, and a residual chamber disposed along an axis, at least a portion of the working fluid chamber axially aligned with at least a portion of the residual chamber;a plurality of vent p
1. An accumulator reservoir, comprising: a housing containing at least a system fluid chamber, a working fluid chamber, and a residual chamber disposed along an axis, at least a portion of the working fluid chamber axially aligned with at least a portion of the residual chamber;a plurality of vent paths configured to vent the residual chamber in response to a variation in a volume of the residual chamber, wherein each of the plurality of vent paths extend nonlinearly between a first opening and a second opening, the first opening and the second opening each having a circumferentially continuous perimeter; andan actuator cylinder, wherein the plurality of vent paths are established between the actuator cylinder and the housing, wherein the plurality of vent paths are defined on at least one of the actuator cylinder or the housing, wherein the residual chamber is annular and the working fluid chamber is received within the residual chamber. 2. The accumulator reservoir of claim 1, including an actuator cylinder and an actuator cap, wherein the plurality of vent paths are established entirely within at least one of the housing, the actuator cylinder, or the actuator cap. 3. The accumulator reservoir of claim 1, wherein the plurality of vent paths are arranged in a circular array about an axis of the accumulator reservoir. 4. The accumulator reservoir of claim 1, wherein the plurality of vent paths are crooked. 5. The accumulator reservoir of claim 1, including an actuator cylinder base having a flange that establishes at least a portion of the plurality of vent paths, the flange further having a lip configured to block contaminate ingress into the plurality of vent paths. 6. The accumulator reservoir of claim 5, wherein the lip extends downwardly. 7. The accumulator reservoir of claim 1, wherein the first opening is in direct fluid communication with the residual chamber, and the second opening is in direct fluid communication with atmosphere. 8. The accumulator reservoir of claim 1, including a piston moveable along an axis, the working fluid chamber and the residual chamber located exclusively on a first axial side of the piston, the system fluid chamber located exclusively on an opposing, second axial side of the piston. 9. A vented accumulator reservoir, comprising: a housing;a main piston received within the housing;a working fluid chamber on a first side of the main piston;a residual chamber on the first side of the main piston, the residual chamber having a volume that varies in response to movement of the main piston, the residual chamber receiving and surrounding at least a portion of the working fluid chamber;a system fluid chamber on an opposing, second side of the main piston; anda plurality of crooked vent paths configured to vent the residual chamber, each of the plurality of crooked vent paths defined within the vented accumulator reservoir and extending from a first opening to a second opening, wherein the first opening is arranged about a first axis and the second opening is arranged about a second axis misaligned with the first axis. 10. The vented accumulator reservoir of claim 9, including an actuator cylinder radially separating the working fluid chamber from the residual chamber. 11. The vented accumulator reservoir of claim 10, wherein the plurality of crooked vent paths are between the actuator cylinder and the housing, wherein the plurality of crooked vent paths are defined on at least one of the actuator cylinder or the housing. 12. The vented accumulator reservoir of claim 9, wherein the residual chamber is an annular chamber. 13. The vented accumulator reservoir of claim 9, including an actuator cylinder having a flange that establishes at least a portion of the plurality of crooked vent paths, the flange further having a lip configured to block contaminate ingress into the plurality of vent paths. 14. The vented accumulator reservoir of claim 9, wherein the working fluid chamber and the residual chamber are exclusively on the first side of the main piston, and the system fluid chamber is exclusively on the second side of the main piston. 15. A method of venting an accumulator reservoir to restrict ingress of contaminants comprising: communicating fluid between a residual chamber within the accumulator reservoir and an outside environment through a plurality of crooked vent paths, the residual chamber separate from a system fluid chamber and a working fluid chamber the communicating in response to a volume of the residual chamber changing, the residual chamber disposed circumferentially about at least a portion of the working fluid chamber, each of the plurality of crooked vent paths extending from an inlet opening that is circumferentially continuous to an outlet opening that is circumferentially continuous, the inlet opening arranged about a first axis and the outlet opening arranged about a second axis that is misaligned with the first axis. 16. The method of claim 15, wherein the plurality of crooked vent paths are established within at least one of a housing, an actuator cylinder, or an actuator cap. 17. The method of claim 15, wherein the plurality of vent paths are arranged in a circular array. 18. The method of claim 15, including redirecting the fluid during the communicating from an axial direction, to a circumferential direction, and then to a radial direction. 19. The method of claim 15, including blocking at least one of the plurality of crooked vent paths and continuing the communicating through another of the plurality of crooked vent paths. 20. The method of claim 15, wherein the accumulator reservoir includes a feature configured to restrict flow of debris into the plurality of crooked vent paths. 21. The method of claim 15, wherein a piston is moveable along an axis and axially separates the entire system fluid chamber from the residual chamber. 22. The method of claim 15, wherein the plurality of crooked vent paths are defined on at least one of an actuator cylinder or a housing, wherein the plurality of crooked vent paths are disposed between the actuator cylinder and the housing.
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이 특허에 인용된 특허 (27)
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