Liquid sealed vibration isolating device
US-9488246-B2 · Nov 8, 2016 · US
US10107353B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-10107353-B2 |
| Application number | US-201615364080-A |
| Country | US |
| Kind code | B2 |
| Filing date | Nov 29, 2016 |
| Priority date | Aug 18, 2016 |
| Publication date | Oct 23, 2018 |
| Grant date | Oct 23, 2018 |
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Official abstract text for this publication.
A nozzle plate of an engine mount may a lower nozzle plate which has a flow path groove formed in an upper surface, and a lower opening hole that communicates with the lower liquid chamber; an upper nozzle plate which is coupled to the lower nozzle plate so as to cover an upper side of the flow path groove and form a flow path, and has an upper opening hole that communicates with the upper liquid chamber; and a membrane which is mounted such that a rim portion thereof is engaged between the lower nozzle plate and the upper nozzle plate, and upper and lower surfaces thereof are exposed through the upper opening hole and the lower opening hole, respectively.
Opening claim text (preview).
What is claimed is: 1. A nozzle plate of an engine mount, which is mounted in the engine mount in which a hydraulic liquid is encapsulated, and divides an interior of the engine mount into an upper liquid chamber and a lower liquid chamber, the nozzle plate comprising: a lower nozzle plate which has a flow path groove formed in an upper surface, and a lower opening hole that fluidly-communicates with the lower liquid chamber; an upper nozzle plate which is coupled to the lower nozzle plate to cover an upper side of the flow path groove and form a flow path, and has an upper opening hole that fluidly-communicates with the upper liquid chamber; and a membrane which is mounted such that a rim portion thereof is engaged between the lower nozzle plate and the upper nozzle plate, and upper and lower surfaces thereof are exposed through the upper opening hole and the lower opening hole, respectively, wherein at least one of the upper nozzle plate and the lower nozzle plate is configured such that a thickness thereof is gradually decreased so that a gap with the membrane is gradually increased from a point where the membrane is engaged toward a center of the membrane, wherein ribs are formed on at least one of the upper and lower surfaces of the membrane so that the membrane is in contact with the upper nozzle plate and the lower nozzle plate at a point where the gap is largest, and wherein through holes are formed in an upper covering portion of the upper nozzle plate which defines a region in which a thickness is gradually decreased, and through holes are formed in a lower covering portion of the lower nozzle plate which defines a region in which a thickness is gradually decreased. 2. The nozzle plate of claim 1 , wherein the upper covering portion and the lower covering portion have a same area and a same shape, the upper opening hole and the lower opening hole have a same area and a same shape, and the upper covering portion and the lower covering portion are symmetrical with respect to the upper opening hole and the lower opening hole, respectively. 3. The nozzle plate of claim 2 , wherein the membrane is formed to have a quadrangular plate shape. 4. The nozzle plate of claim 3 , wherein the upper covering portion and the lower covering portion have a rectangular shape to be symmetrical with respect to the upper opening hole and the lower opening hole, respectively. 5. The nozzle plate of claim 4 , wherein the membrane is manufactured by using a material having elasticity, and an inner metal member, which includes metal and has a plate shape, is embedded in the membrane. 6. The nozzle plate of claim 5 , wherein a deformation inducing hole is formed in the inner metal member so that the membrane is easily and elastically deformed at a portion where the rib is positioned. 7. The nozzle plate of claim 4 , wherein the rib is formed in a ‘+’ shape. 8. The nozzle plate of claim 1 , wherein the through holes are disposed in a direction in which a first end of the through hole is positioned at a point where a gap between the membrane and the upper nozzle plate or the lower nozzle plate is smallest, and a second end of the through hole is positioned at a point where a gap between the membrane and the upper nozzle plate or the lower nozzle plate is largest, and the plurality of through holes is disposed in rows.
Passage design between working chambers · CPC title
the wall being at least in part formed by a flexible membrane or the like (F16F13/14 - F16F13/18 take precedence) · CPC title
characterised by features of passages between working chambers · CPC title
Resilient supports (B60K5/1241 - B60K5/1291 take precedence) · CPC title
Reducing noise · CPC title
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