JP2827868B2 - Fluid-filled mount and method of manufacturing fluid-filled mount - Google Patents

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION In the present invention, a pressure receiving chamber and an equilibrium chamber are formed on both sides of a partition member, and an anti-vibration effect is exerted on the basis of a resonance action of a fluid flowing between the two chambers through an orifice passage. Fluid-filled mounts and methods for manufacturing such fluid-filled mounts.

[0002]

2. Description of the Related Art As one type of a vibration isolator which is interposed between members constituting a vibration transmission system and is connected by vibration isolation, as disclosed in Japanese Patent Laid-Open No. 4-262141 and the like, With the rubber elastic body to which the one mounting bracket is fixed, one axial opening of the second mounting bracket having a cylindrical shape is fluid-tightly closed, and the other axial opening of the second mounting bracket is closed. A fluid chamber closed in a fluid-tight manner by the flexible membrane to form a sealed fluid chamber in the second fitting, and the fluid chamber is divided into two by a partition member supported by the second fitting, While a part of the wall part defines a pressure receiving chamber composed of a rubber elastic body and a part of the wall part defines an equilibrium chamber composed of a flexible film, the pressure receiving chamber and the equilibrium chamber are mutually connected. Fluid-filled structure with a communicating orifice passage formed in the partition member Count is known. In such a mount, when vibration is input between the first fitting and the second fitting, a predetermined action is performed based on the resonance action of the fluid that flows between the pressure receiving chamber and the equilibrium chamber through the orifice passage. The anti-vibration effect will be exhibited.

Incidentally, since the orifice passage needs to be formed through the inside of the partition member, conventionally,
As disclosed in the above publication, the partition member generally has a structure in which two plate members are overlapped, and an orifice passage is formed between the overlapping surfaces.

However, when such a structure of the orifice passage is employed, there is a problem that the number of parts of the partition member is large and the structure is liable to be complicated. In particular, it is effective for input vibration in a wide frequency range. In the case where a plurality of orifice passages tuned differently from each other are formed in order to obtain an anti-vibration effect, there is a problem that it is difficult to form the orifice passage.

In order to cope with such a problem, a partition member having a circumferential groove formed on an outer peripheral surface is inserted into a second mounting member, and then the second mounting member is drawn to form a partition member. It is conceivable to form an orifice passage by bringing the outer peripheral surface of the second mounting member into close contact with the inner peripheral surface of the second mounting bracket to cover the peripheral groove. By adopting such an orifice structure, the structure of the partition member can be advantageously simplified even when a plurality of orifice passages are formed.

However, when assembling the partition member to the second mounting member, generally, an assembling operation is performed in a fluid in order to facilitate the filling of the fluid into the equilibrium chamber. The outer peripheral edge of the partition member is overlapped with an outer flange-shaped support portion formed on the second mounting bracket for positioning, and is supported. While the film is pressed from the outside and enters the inside, a drawing process is performed on the second mounting member. That is, while the opening of the second mounting member is closed by the partition member and the internal volume change due to the deformation of the flexible film is also prevented, drawing processing is performed on the second mounting member. From
As a result, an internal pressure was generated in the second mounting bracket, and there was a problem that the partition member was easily pushed out and caused a positional deviation.Therefore, it was necessary to perform the assembling work of the partition member while preventing such a problem. However, there is a problem that the drawing process must be performed at an extremely low speed, and the productivity is extremely low.

[0007]

Here, the present invention has been made in view of the above-mentioned circumstances, and a problem to be solved is to squeeze a second mounting member in a predetermined fluid to form a partition. By closely contacting the outer peripheral surface of the member, when the orifice passage is formed by covering the peripheral groove formed on the outer peripheral surface of the partition member, an increase in the internal pressure in the second mounting member is advantageously reduced or prevented. Another object of the present invention is to provide a fluid-filled mount and a method of manufacturing the fluid-filled mount that can prevent displacement of a partition member and the like and can advantageously improve productivity.

[0008]

In order to solve the problem, the present invention is characterized by (a) a first mounting bracket which is mounted on one member to be vibration-isolated and connected, and (b) a cylinder as a whole. It has a shape, and one axial opening is fluid-tightly closed by a flexible membrane, while the other axial opening is provided with a support portion that spreads radially outward, and is vibration-proof connected. A second mounting bracket attached to the other member,
(C) The first mounting member is fixed, and a cylindrical connecting member is fixed to the outer peripheral surface, and the connecting member is fixed to the opening on the support portion side of the second mounting member. A rubber elastic body that elastically connects the first mounting bracket and the second mounting bracket and closes the opening of the second mounting bracket on the support portion side in a fluid-tight manner; The peripheral portion is superimposed on the supporting portion of the second mounting bracket, and is squeezed and supported between the supporting portion and the connecting bracket,
A pressure-receiving chamber in which a part of the wall is formed of a rubber elastic body and in which an incompressible fluid is sealed by dividing the rubber elastic body and the flexible membrane into fluid-tight halves, A partition member defining on both sides a equilibrium chamber in which a part of the wall is formed of a flexible membrane and in which an incompressible fluid is sealed, and (e) extending through the partition member An orifice passage for communicating the pressure receiving chamber and the equilibrium chamber with each other, in a fluid-filled mount configured to include a fitting portion that is inserted into the second mounting bracket, integrally with the partition member. Providing a circumferential groove extending in the circumferential direction on the outer peripheral surface of the fitting portion,
While forming the orifice passage by covering the peripheral groove with the inner peripheral surface of the second mounting bracket, the outer peripheral edge of the partition member that is superimposed on the support portion,
The outer peripheral surface of the fitting portion communicates with the outside of the second mounting bracket under a state in which the outer peripheral edge is superimposed on the support portion, and between the support portion of the outer peripheral edge and the connection bracket. A pressure release path is provided in which the communication is interrupted under the state of supporting the pressure.

The present invention also provides (a) a rubber elastic body having a first mounting member fixed to one member to be vibration-isolated and fixed and a cylindrical connecting member fixed to the outer peripheral surface. A step of preparing; and (b) a support having a cylindrical shape as a whole, and one opening in the axial direction is fluid-tightly closed by the flexible film, while the other opening in the axial direction extends radially outward. Providing a second mounting bracket provided with the portion and mounted on the other member to be vibration-proof connected; (c)
A step of preparing a partition member having a fitting portion provided with a circumferential groove extending in the circumferential direction on the outer peripheral surface, and a peripheral member extending radially outward; and (d) setting the fitting portion of the partition member to the first position. The partitioning member was inserted into the second mounting member, the outer peripheral edge of the partition member was overlapped with the supporting portion of the second mounting member, and the flexible film was pressed from the outside to enter the inside. Under the condition, in a predetermined incompressible fluid, by drawing the second mounting member, the inner peripheral surface of the second mounting member is brought into close contact with the outer peripheral surface of the fitting portion to thereby form the peripheral groove. (E) in the predetermined incompressible fluid, fixing the connection metal fitting to the support part side of the second mounting metal part, and opening the support part side of the second mounting metal part. Is closed in a fluid-tight manner by the rubber elastic body, and the supporting portions of the second mounting brackets are closed. Pressurizing and supporting an outer peripheral edge of the partition member with a metal fitting, wherein a part of a wall portion is formed of the rubber elastic body and an incompressible fluid is sealed therein. Chambers, and equilibrium chambers in which a part of a wall portion is formed of the flexible film and in which an incompressible fluid is sealed are formed on both sides of the partition member, respectively, and the partition member When manufacturing a fluid-filled mount in which an orifice passage that connects the pressure receiving chamber and the equilibrium chamber to each other is formed by the circumferential groove, the outer peripheral edge of the partition member is provided on the outer peripheral edge of the support member. Under the superimposed state, the outer peripheral surface of the fitting portion communicates with the outside of the second mounting bracket, and the communication is performed under the clamping support state between the supporting portion of the outer peripheral edge and the connecting bracket. Providing a pressure relief path to be cut off, for drawing of the second mounting bracket Also a method of manufacturing a fluid-filled mount to release the internal pressure generated within said second mounting member via the piezoelectric vent passage to and is characterized.

In the method for manufacturing a fluid-filled mount as described above, the pressure release path is formed, for example, on a surface of the outer peripheral edge of the partition member that overlaps the support of the second mounting member. May be constituted by concave grooves extending in the radial direction.

[0011]

DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, in order to clarify the present invention more specifically, embodiments of the present invention will be described in detail with reference to the drawings.

FIG. 1 shows an engine mount 10 for an automobile according to an embodiment of the present invention. The engine mount 10 has a structure in which a first mounting member 12 and a second mounting member 14 are elastically connected by a rubber elastic body 16. Then, the first mounting bracket 12 is mounted on the power unit side and the second mounting bracket 14 is mounted on the vehicle body side and interposed therebetween, so that the power unit is supported on the vehicle body with vibration isolation. It has become.

Hereinafter, in order to clarify the structure of the engine mount 10 of this embodiment more specifically, an explanation will be given according to the manufacturing process.

In manufacturing the engine mount 10, a rubber elastic body 16 is first manufactured. The rubber elastic body 16 has a substantially truncated conical shape as a whole, and has a concave portion 18 opened at the large-diameter end surface. A first mounting member 12 is vulcanized and bonded to the small-diameter end of the rubber elastic body 16, while a cylindrical connecting metal 20 is vulcanized to the outer peripheral surface of the large-diameter end. Glued.

The first mounting member 12 has a substantially circular rod shape as a whole, and has a lower end portion in the shape of an inverted truncated cone and is embedded in the rubber elastic body 16 while the upper end portion has an upper end. It is made to protrude outward from the rubber elastic body 16 in the axial direction,
A bolt hole 22 and a positioning protrusion 24 are formed there. Also, at the axial center portion of the first mounting bracket 12,
A flange-shaped stopper portion 26 extending outward is formed, and a cushioning rubber layer 28 is provided on the outer surface of the stopper portion 26.

A second mounting member 14 is manufactured separately from the integrally vulcanized molded product of the rubber elastic body 16. The second mounting member 14 has a cylindrical shape as a whole as shown by a virtual line in FIG. 2, and a thin rubber film 30 is fixed to an opening on the lower side in the axial direction. The opening is closed in a fluid-tight manner, and a rubber layer 32 as a sealing material and a cushioning material is provided on the inner peripheral surface. In addition, an annular plate-shaped support portion 33 that expands radially outward in a flange shape is integrally formed in an axially upper opening portion of the second mounting member 14. 3
A large-diameter cylindrical fitting cylinder portion 34 that protrudes further outward in the axial direction is integrally formed on the outer peripheral edge portion 3. In addition,
The fitting tube portion 34 has a tapered tube shape that expands outward in the axial direction, and has a seal rubber layer 36 on the inner peripheral surface.
Is provided.

Further, a partition member 38 is manufactured separately from the rubber elastic body 16 and the second mounting member 14 described above.
As shown in FIG. 2, the partition member 38 includes an outer member 40 having a substantially bottomed cylindrical shape and an inner member 42 having a substantially disk shape. In this case, the outer member 40 has a first opening which is opened on the outer peripheral surface of the cylindrical wall portion and extends in the circumferential direction by a length of less than one turn, and both ends in the circumferential direction are respectively opened on one side in the axial direction. And an annular outer peripheral edge 46 extending radially outward from the opening side peripheral edge is integrally provided. The inner member 42 has a second circumferential groove 48 which is opened on the outer peripheral surface and extends in the circumferential direction by a length of less than one round, and both ends in the circumferential direction are respectively opened on one side in the axial direction.
Are formed.

The inner member 42 is fitted and fixed inside the outer member 40, so that the inner member 4
The second peripheral groove 48 provided on the outer member 40 is covered with a cylindrical wall portion of the outer member 40, so that the fitting portion 50 having a thick disk shape and the outer peripheral portion 46 extending in an outer flange shape are provided. Is formed. Also, this partition member 3
8, a disk-shaped movable rubber film 5 is located between the overlapping surfaces of the bottom wall portion of the outer member 40 and the inner member 42.
2 is accommodated and arranged in such a manner that the outer peripheral edge portion is clamped and held and a predetermined amount of deformation in the central portion can be allowed. One side partitioned by the movable rubber film 52 is connected to the partition member 38 through a peripheral groove 48 provided in the inner member 42.
While the other side partitioned by the movable rubber film 52 communicates axially below the partition member 38 through a plurality of through holes 54 formed in the bottom wall of the outer member 40. ing.

Here, as shown in FIG. 2, the outer peripheral portion 46 of the outer member 40 constituting the partition member 38 has a fitting cylindrical portion 34 formed on the second mounting member 14 and a seal rubber layer. 36 are formed with an outer diameter slightly smaller than the inner diameter of the small diameter side end. As shown in FIGS. 3 and 4, a concave groove 58 extending continuously in the radial direction and opening on the outer peripheral surface is formed on the lower surface 56 in the axial direction of the outer peripheral edge portion 46 in the circumferential direction. A plurality is provided at a distance.

Next, as shown in FIG. 2, the second mounting member 14 and the partition member 38 are connected to the predetermined incompressible fluid 6.
The partition member 38 is inserted into the second mounting member 14 in the fluid 62 or before the immersion in the fluid. Thereby, the fitting portion 50 of the partition member 38
Is inserted into the second mounting member 14, and the outer peripheral edge 46 of the partition member 38 is placed on the supporting portion 33 of the second mounting member 14 to be supported. By the way,
The opening above the second mounting bracket 14 in the axial direction is the partition member 3.
2, the outer peripheral surface of the partition member 38 and the rubber layer 32 formed on the second mounting member 14 under such a state, as indicated by a virtual line in FIG. There is a gap of a predetermined size between them, and this gap is
The partition member 38 communicates with the outside of the second mounting member 14 through a concave groove 58 formed in the outer peripheral edge 46.

Subsequently, a pressing member 60 having a spherical pressing surface is inserted from the axially lower opening of the second mounting member 14, and the rubber film 30 is pressed inward from the outside to move outward. After the swelling deformation is prevented, the second mounting member 14 is subjected to drawing such as octagonal drawing. As a result, FIG.
As shown by a solid line therein, the second mounting member 14 is pressed against the outer peripheral surface of the partition member 38 to cover the first peripheral groove 44 formed in the partition member 38.

The volume of the inside of the second mounting member 14 is reduced by the drawing process on the second mounting member 14, but the inside of the second mounting member 14 is in contact with the outer peripheral portion of the partition member 38. Since the fluid is communicated to the outside through the gap formed between the second mounting members 14 and the concave groove 58 formed in the outer peripheral edge portion 46 of the partition member 38, excess fluid due to the drawing process is removed. The liquid is discharged to the outside through the concave groove 58, and the rise in the liquid pressure in the second mounting member 14 can be quickly eliminated.

Then, in the fluid 62, the connection fitting 20 vulcanized and bonded to the rubber elastic body 16 is inserted into the fitting cylinder 34 of the second mounting fitting 14, and the outer peripheral edge of the partition member 38 is inserted. Position it on top of 46. continue,
While the connection fitting 20 is pressed onto the outer peripheral edge 46 of the partition member 38, drawing is performed on the fitting cylinder 34 of the second mounting fitting 14, and the fitting cylinder 34 is attached to the outer periphery of the connection fitting 20. Fit to the surface.

Thus, the outer peripheral edge 46 of the partition member 38
Is held between the support portion 33 of the second mounting member 14 and the connecting metal member 20 to be fixedly supported by the second mounting member 14, and the upper part of the second mounting member 14 in the axial direction is The opening is closed in a fluid-tight manner by the rubber elastic body 16, and the fluid 62 is sealed inside the second fitting 14.
Also, the fitting cylinder 34 of the second mounting fitting 14 is connected to the connecting fitting 2.
0, and a sealing rubber layer 36 is provided between their fitting surfaces.
The sealing member is fluid-tightly sealed by the partition member 38.
The outer peripheral side opening of the concave groove 58 formed in the outer peripheral edge portion 46 is fluid-tightly closed.

Thus, as shown in FIG. 1, a part of the wall is formed of the rubber elastic body 16 and a predetermined incompressible fluid 62 is sealed therein so that the internal pressure can be reduced during vibration input. A pressure receiving chamber 64 in which fluctuations occur, and a balancing chamber 66 in which a part of the wall is formed of the rubber film 30 and which has a variable volume with a predetermined incompressible fluid 62 sealed therein are partitioned. It is formed on both sides of the member 38. As the sealed fluid 62, it is desirable to use a low-viscosity fluid having a viscosity of 0.1 Pa · s or less in order to advantageously obtain a vibration damping effect based on the resonance action of the fluid. Polyalkylene glycol, silicone oil and the like are preferably employed.

The partition member 38 has a first peripheral groove 44.
And the second circumferential groove 48, the pressure receiving chamber 64 and the balance chamber 6
A first orifice passage 68 and a second orifice passage 70 are formed to communicate the second orifice 6 with each other. Then, at the time of vibration input, based on the internal pressure difference caused between the pressure receiving chamber 64 and the equilibrium chamber 66, these first and second orifice passages 6 are formed.
By generating the fluid flow through 8, 70, an anti-vibration effect based on the resonance action of the fluid is exhibited. In this embodiment, the first orifice passage 6
8, a damping effect against low-frequency vibration such as a shake is exerted on the basis of the resonance action of the fluid caused to flow through the second orifice passage 70, while idling vibration and the like are caused based on the resonance action of the fluid caused to flow through the second orifice passage 70. The length and cross-sectional area of each of the orifice passages 68 and 70 are tuned so that a vibration insulating effect against medium to high frequency vibrations is exerted. It is limited by the film 52.

Therefore, according to the manufacturing method as described above, the second mounting member 1 when drawing the second mounting member 14 is drawn.
4 is advantageously reduced or prevented, and therefore, excellent positioning accuracy of the partition member 38 with respect to the second mounting member 14 and good manufacturing workability can be advantageously secured. This makes it possible to manufacture the target engine mount 10 stably and with excellent manufacturability.

According to such a manufacturing method, the orifice passage can be advantageously formed by covering the peripheral groove provided on the outer peripheral surface of the partition member 38 with the second mounting member 14. Therefore, the structure of the orifice member can be advantageously simplified. Specifically, as in the present embodiment, two orifice passages 68, 70
Is formed, the partition member 38 can be configured by a combination of the two members 40 and 42,
When one orifice passage is formed, the partition member can be constituted by a single member.

Although the embodiment of the present invention has been described in detail, this is a literal example, and the present invention is not construed as being limited to such a specific example.

For example, in the above embodiment, two orifice passages 68 and 70 are formed in the partition member 38.
Fluid-filled mount including a partition member having only one orifice passage formed by a peripheral groove provided on the outer peripheral surface of the partition member, or three or more orifice passages including such an orifice passage The present invention can also be advantageously applied to and its manufacture.

Further, a peripheral groove or the like extending in a helical form with a length of at least one circumference in the circumferential direction on the outer peripheral surface of the partition member,
It is also possible to form an orifice passage.

Further, in the above-described embodiment, the connecting fitting 20 is fixed to the second fitting 14 by fitting the fitting cylinder portion 34 of the second fitting 14 to the connecting fitting 20. The fixing structure of the connecting metal to the second mounting metal is not limited, and for example, the connecting metal can be axially pinched and fixed to the second mounting metal, or caulked and fixed. The fitting tube portion 34 of the second mounting member 14 is not always necessary.

Further, the number of the concave grooves 58 provided on the outer peripheral edge portion 46 of the partition member 38 may be at least one, and the number and size thereof are not limited. Also,
In addition to forming a depressurizing path by such a concave groove 58, a through hole extending through the outer peripheral edge 46 in the axial direction, and a radial cut extending radially inward from the outer peripheral edge of the outer peripheral edge 46. It is also possible to form a pressure relief path by notch or the like.

Further, the pressure release path is configured such that the communication of the outer peripheral surface of the partition member to the external space is interrupted in a state where the outer peripheral edge of the partition member is clamped and held between the support portion and the connection fitting. In other words, it suffices if liquid leakage through the pressure release passage between the pressure receiving chamber 64 and the equilibrium chamber 66 is prevented. Therefore, as in the above embodiment, the equilibrium chamber 6 of the concave groove 58 is formed.
When the opening on the sixth side is closed by drawing of the second mounting member 14, it is sufficient that the communication of the concave groove 58 to the external space is interrupted, and the concave groove 58 faces the pressure receiving chamber 64. It may be left connected.

In addition, the present invention is directed to an automotive engine mount, an automotive body mount, a member mount, and the like, or various fluid-filled mounts used for non-vehicles and a method of manufacturing the fluid-filled mount. Of course, it can be applied.

In addition, although not enumerated one by one, the present invention
Based on the knowledge of those skilled in the art, the present invention can be implemented in a form in which various changes, modifications, improvements, and the like are made.
It goes without saying that all such embodiments are included within the scope of the present invention, without departing from the spirit of the present invention.

[0037]

As is apparent from the above description, according to the present invention, the surplus sealed fluid accompanying the drawing work of the second mounting member is quickly discharged to the outside through the pressure release passage. The internal pressure build-up created in the second fitting is advantageously reduced or prevented, so that the pressure exerted on the partition positioned relative to the second fitting can be effectively reduced.

Therefore, a fluid-filled mount having a simple structure in which an orifice passage is formed by covering a peripheral groove provided on the outer peripheral surface of the partition member with a second mounting member,
The partition member can be advantageously manufactured with good workability while ensuring excellent positioning accuracy with respect to the second mounting member.

[Brief description of the drawings]

FIG. 1 is an explanatory longitudinal sectional view showing an engine mount as one embodiment of the present invention.

FIG. 2 is an explanatory longitudinal sectional view for explaining one manufacturing process when the engine mount shown in FIG. 1 is manufactured according to the method of the present invention.

FIG. 3 is an enlarged sectional explanatory view showing a main part of a partition member constituting the engine mount shown in FIG. 1;

4 is a view taken in the direction of arrows IV-IV in FIG. 3;

[Explanation of symbols]

 DESCRIPTION OF SYMBOLS 10 Engine mount 12 1st mounting bracket 14 2nd mounting bracket 16 Rubber elastic body 20 Connecting bracket 30 Rubber film 33 Support part 34 Fitting cylinder part 36 Seal rubber layer 38 Partition member 40 Outer member 42 Inner member 44 First circumference Groove 46 Outer peripheral edge 48 Second peripheral groove 50 Fitting portion 52 Movable rubber film 56 Lower surface 58 Depressed groove 60 Presser 62 Incompressible fluid 64 Pressure receiving chamber 66 Equilibrium chamber 68 First orifice passage 70 Second orifice passage

──────────────────────────────────────────────────続 き Continued on front page (58) Field surveyed (Int. Cl. ⁶ , DB name) F16F 13/00

Claims (3)

(57) [Claims] (A) a first mounting bracket which is mounted on one member to be vibration-isolated and connected; (b) a cylindrical shape as a whole, and one opening in the axial direction is formed of a fluid by a flexible film. A second mounting bracket attached to the other member to be vibration-isolated, wherein the second mounting member is closed tightly and provided with a support portion extending radially outward at the other opening in the axial direction; The first fitting is fixed, and a cylindrical connecting fitting is fixed to the outer peripheral surface, and the connecting fitting is fixed to the opening of the second mounting fitting on the support portion side. A rubber elastic body that elastically connects the mounting bracket of the second mounting bracket and the second mounting bracket, and closes the opening of the second mounting bracket on the support portion side in a fluid-tight manner; Superimposed on the supporting portion of the second mounting bracket, and between the supporting portion and the connecting bracket. It is nip-supported and fluid-tightly divides the rubber elastic body and the flexible membrane into two parts, so that a part of the wall is made of a rubber elastic body and an incompressible fluid is sealed inside. The pressure receiving chamber and the equilibrium chamber in which a part of the wall is formed of a flexible film and in which an incompressible fluid is sealed,
A fluid-filled mount comprising: a partition member defined on both sides; and (e) an orifice passage extending through the partition member and interconnecting the pressure receiving chamber and the balancing chamber. A fitting portion that enters into the second mounting bracket is provided integrally with the partition member, and a circumferential groove extending in the circumferential direction is provided on an outer peripheral surface of the fitting portion, and the circumferential groove is formed inside the second mounting bracket. The orifice passage is formed by covering the peripheral surface with the cover, and the fitting portion is formed on an outer peripheral edge of the partition member, which is overlapped with the support portion, in a state where the outer peripheral edge is overlapped with the support portion. And a pressure release path that communicates with the outer peripheral surface of the second mounting bracket outside the second mounting bracket, and in which the communication is interrupted under a pressure supporting state between the supporting portion of the outer peripheral edge and the connecting bracket. A fluid-filled mount, characterized in that: (A) a step of preparing a rubber elastic body having a first mounting member fixed to one member to be vibration-isolated and fixed and a cylindrical connecting member fixed to an outer peripheral surface; , (B) has a cylindrical shape as a whole, and one opening in the axial direction is fluid-tightly closed by a flexible membrane,
A step of preparing a second mounting bracket provided with a support portion extending radially outward in the other opening in the axial direction and mounted on the other member to be vibration-isolated; and (c) a circumferential direction on the outer peripheral surface. A step of preparing a partition member having a fitting portion provided with a circumferential groove extending in the outer peripheral edge portion extending outward in the radial direction;
(D) The fitting portion of the partition member is inserted into the second mounting member, the outer peripheral edge of the partition member is overlapped with the supporting portion of the second mounting member, and the flexible film is provided. Under a state of being pressed from the outside and entering the inside, in a predetermined incompressible fluid, by drawing the second fitting, the inner peripheral surface of the second fitting is removed. (E) in the predetermined incompressible fluid, fixing the connection fitting to the supporting portion side of the second mounting fitting in a step of covering the peripheral groove by closely contacting the outer peripheral surface of the fitting portion; The opening on the supporting portion side of the second mounting member is closed in a fluid-tight manner by the rubber elastic body, and the outer peripheral edge of the partition member is provided between the supporting portion of the second mounting member and the connecting member. Including a step of clamping and supporting, wherein a part of the wall portion is formed of the rubber elastic body. A pressure receiving chamber in which an incompressible fluid is sealed in a portion, and an equilibrium chamber in which a part of a wall portion is formed of the flexible film and in which an incompressible fluid is sealed sandwich the partition member. When manufacturing a fluid-filled mount formed on both sides and having an orifice passage communicating the pressure receiving chamber and the equilibrium chamber with each other by the circumferential groove of the partition member, the outer peripheral edge of the partition member The outer peripheral surface of the fitting portion communicates with the outside of the second mounting bracket in a state where the outer peripheral edge is superimposed on the support portion, and the outer peripheral portion is connected to the supporting portion and the connecting bracket. A pressure release path is provided in which communication is interrupted under a sandwiching pressure support state between the pressure release path and the internal pressure generated in the second mounting bracket during drawing of the second mounting bracket is released through the pressure release path. Characteristic method of manufacturing a fluid-filled mount. 3. The pressure relief path is formed by a radially extending groove formed on a surface of the outer peripheral edge of the partition member that overlaps the support of the second mounting member. 3. The method for manufacturing a fluid-filled mount according to 2.