Arrangement for and a method of maintaining the alignment of an internal combustion engine, and a method of aligning an internal combustion engine and maintaining its alignment
US-9777626-B2 · Oct 3, 2017 · US
US9267567B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-9267567-B2 |
| Application number | US-201314020522-A |
| Country | US |
| Kind code | B2 |
| Filing date | Sep 6, 2013 |
| Priority date | May 16, 2013 |
| Publication date | Feb 23, 2016 |
| Grant date | Feb 23, 2016 |
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A switchable engine mount is provided. The switchable engine mount includes an end plate including one or more openings in fluidic communication with a hydraulic source and a channel plate coupled to the end plate and including one or more hydraulic flow openings. The switchable engine mount further includes a decoupler including at least one decoupler plate at least partially enclosed by the channel plate and the end plate and a switching plate positioned adjacent to the decoupler and configured to axially actuate the decoupler in response to reception of an input force from an actuator, the input force non-parallel to the axially actuation.
Opening claim text (preview).
The invention claimed is: 1. A switchable engine mount comprising: an end plate including variably sized openings in fluidic communication with a hydraulic source; a channel plate coupled to the end plate and including hydraulic flow openings; a decoupler including one or more decoupler plates enclosed by the channel plate and the end plate; a switching plate positioned adjacent to the decoupler to axially actuate the decoupler and one or more actuation protrusions of the switching plate via an input force non-parallel to the axial actuation; and wherein in at least a first configuration, there is face sharing contact on both sides of the decoupler plates, a first side in contact with the end plate and a second, opposing side in contact with a topmost surface of the actuation protrusions of the switching plate. 2. The switchable engine mount of claim 1 , where the switching plate includes an actuation arm coupled to an actuator and extending through an opening in the channel plate. 3. The switchable engine mount of claim 1 , where the switching plate includes an angled switching plate ramp extending in an axial direction in face sharing contact with an angled channel plate ramp included in the channel plate. 4. The switchable engine mount of claim 3 , where the switching plate angled ramp and the channel plate angled ramp extend in an axial direction. 5. The switchable engine mount of claim 4 , where the switching plate angled ramp and the channel plate angled ramp are helically aligned. 6. A switchable engine mount comprising: an end plate including one or more variably sized openings in fluidic communication with a hydraulic source; a channel plate coupled to the end plate and including one or more hydraulic flow openings; a decoupler including at least one decoupler plate at least partially enclosed by the channel plate and the end plate; a switching plate positioned adjacent to the decoupler and configured to axially actuate the decoupler via one or more actuation protrusions included in the switching plate extending in a vertical direction in response to reception of an input force from an actuator, the input force non-parallel to the axial actuation; and wherein in at least a first configuration, there is face sharing contact on both sides of the decoupler plates, a first side in contact with the end plate and a second, opposing side in contact with a topmost surface of the actuation protrusions of the switching plate. 7. The switchable engine mount of claim 6 , where axial actuation includes applying an axial force to the decoupler to substantially inhibit and permit fluid flow through the one or more variably sized openings of the end plate. 8. The switchable engine mount of claim 6 , where the switchable engine mount is switchable to a second configuration where the decoupler is permitted to move in an axial direction. 9. The switchable engine mount of claim 6 , where the switching plate and the decoupler are at least partially enclosed by the end plate and the channel plate. 10. The switchable engine mount of claim 6 , where the hydraulic source is a hydraulic chamber in the switchable engine mount. 11. The switchable engine mount of claim 6 , where the switching plate includes an actuation arm coupled to the actuator. 12. The switchable engine mount of claim 6 , where the switching plate includes an angled switching plate ramp extending in an axial direction in face sharing contact with an angled channel plate ramp included in the channel plate. 13. The switchable engine mount of claim 12 , where the switching plate angled ramp and the channel plate angled ramp extend in an axial direction. 14. The switchable engine mount of claim 13 , where the switching plate angled ramp and the channel plate angled ramp are helically aligned. 15. A method for operating a switchable engine mount comprising: receiving a first actuation force from an actuator at a switching plate positioned below a decoupler and a channel plate coupled to an end plate including one or more variably sized hydraulic flow openings; axially urging the decoupler toward the end plate in a first axial direction via actuation protrusions, the first axial direction forming a non-parallel angle with a direction of the first actuation force; and forcing decoupler plates of the decoupler in response to receiving the first actuation force to switch the switchable engine mount into a first configuration where movement of the decoupler is inhibited by face sharing contact on both sides of the decoupler plates, a first side in contact with the end plate and a second, opposing side in contact with a topmost surface of the actuation protrusions of the switching plate. 16. The method of claim 15 , where the first actuation force is in a circumferential direction. 17. The method of claim 15 , further comprising receiving a second actuation force at the switching plate, the second actuation force opposing the first actuation force; and axially urging the decoupler away from the end plate in a second axial direction in response to receiving the second actuation force to switch the switchable engine mount into a second configuration where movement of the decoupler is permitted. 18. The method of claim 15 , where the non-parallel angle is a perpendicular angle. 19. The method of claim 15 , where the first actuation force is in a horizontal direction.
Adjustable supports, e.g. the mounting or the characteristics being adjustable · CPC title
comprising control arrangements {(F16F15/0237 takes precedence)} · CPC title
using liquid only; using a fluid of which the nature is immaterial · CPC title
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