A vibration-damping enclosure that is easy to assemble and a garbage disposer using the same

Abstract

The application discloses a kitchen waste processor and a damping shell easy to assemble, which comprises a shell body, an upper end cover fixed to the upper part of the shell body, a plurality of supporting pads fixed to the bottom end of the shell body, a plurality of fixing rods fixed to the periphery of the upper end cover and downward, a vibration isolation base, a lifting rod corresponding to the fixing rods fixed to the top surface of the vibration isolation base, a corresponding locking assembly for tightly installing the lifting rod on the corresponding fixing rod, a vibration isolation support assembly comprising a rotating plate rotatably installed on the bottom side of the vibration isolation base, a supporting part outwardly extended on the periphery of the rotating plate, and a damping energy absorption device. The application can effectively improve the damping effect and facilitate the installation of the core of the kitchen waste processor.

Description

Technical Field

[0001] This invention relates to a housing for a food waste disposer with vibration damping function, and a food waste disposer using the outer vibration damping housing, which can significantly reduce the amount of vibration generated by the food waste disposer during operation transmitted to the floor, thereby greatly improving the user's equipment experience. Background Technology

[0002] Vibration-damping housings are a crucial component of food waste disposers. They not only securely mount the disposer's internal mechanisms but also provide adequate protection. Because food waste disposers generate significant vibration and noise during operation, noise is difficult to transmit between floors, while vibration is easily transmitted through floor slabs, causing disturbance to residents on different floors. Therefore, vibration-damping housings for food waste disposers have begun to be used.

[0003] Currently, the casings of food waste disposers with vibration damping functions mainly consist of adding vibration-damping and energy-absorbing materials to the casing. However, because food waste disposers operate for relatively long periods and vibrations are transmitted extremely quickly, the vibration-damping and energy-absorbing materials don't have enough time to fully function before the vibrations are transmitted outwards in large quantities. This significantly reduces the vibration damping and isolation effect of existing casings. Furthermore, adding vibration-damping and energy-absorbing materials to the casing can increase the difficulty of installing the internal mechanism.

[0004] Therefore, the research objective of this invention is to design an easily assembled vibration-damping housing that can effectively and significantly improve the vibration reduction effect of the housing for food waste disposers, and facilitate the installation of the disposer's internal mechanism, as well as a food waste disposer using the same housing. Summary of the Invention

[0005] In view of the technical problems existing in the prior art, the present invention provides an easily assembled vibration-damping housing and a food waste disposer using the same, which can effectively solve the technical problems existing in the prior art.

[0006] The technical solution of this invention is:

[0007] An easy-to-assemble vibration-damping housing, comprising:

[0008] The outer shell body has an upper cover with a mounting hole in the middle fixed to the upper part of the outer shell body, and several support pads are fixedly fixed at intervals on the upper part of the bottom end of the outer shell body. Several fixing rods are fixedly fixed downward at the periphery of the upper cover.

[0009] The vibration isolation base has a core mounting cavity in the middle. The top surface of the vibration isolation base is fixedly connected to a hoisting rod corresponding to the fixed rod. The periphery of the vibration isolation base is spaced apart from the inner side wall of the outer shell body and has a fixing notch that can make way for the support pad. The hoisting rod is fastened to the corresponding fixed rod by a corresponding locking assembly, so that the vibration isolation base is located on the upper side of the support pad to form a suspended installation.

[0010] The vibration isolation support assembly includes a rotating plate rotatably mounted on the bottom side of the vibration isolation base. Support portions adapted to the support pads are provided outwardly at the periphery of the rotating plate. Corresponding buffer vibration isolation pads are fixed to the upper side of the rotating plate. After the vibration isolation base is suspended and installed in place, the rotating plate rotates so that the bottom side of its support portion is fixedly abutted against the upper side of the corresponding support pad, so that the buffer vibration isolation pads are in a compressed state between the rotating plate and the vibration isolation base.

[0011] The vibration damping and energy absorption device is used to reduce the amount of vibration transmitted from the vibration isolation base to the outer shell body and to reduce the amount of vibration transmitted from the bottom of the outer shell body to the floor.

[0012] The vibration damping and energy absorption device includes an elastic rod fixed to the lower side of the support portion of the rotating plate. The bottom end of the elastic rod is fixed with a corresponding magnet. The bottom side of the outer shell is evenly provided with vibration damping containers adapted to the magnets. The vibration damping containers are filled with a number of corresponding iron spherical damping particles.

[0013] The vibration damping container is integrally formed and connected to the inner wall of the outer shell body. Particle filling holes are respectively provided on the upper side of the vibration damping container, and corresponding fixing plugs are fixedly assembled at the particle filling holes.

[0014] The vibration damping container has corresponding arc-shaped grooves on the side facing the magnet, and the magnet is cylindrical and located in the arc-shaped grooves.

[0015] The elastic rod is axially oriented and is fixed to the lower side of the support portion of the rotating plate by screwing or welding.

[0016] The width of the support portion of the rotating plate is greater than the width of the fixed notch, and the top surface of the support pad is convex arc-shaped.

[0017] The locking assembly uses fastening screws, and the locking assembly passes through the locking hole of the hoisting rod and is then fixedly screwed to the corresponding fixing rod.

[0018] The mounting holes of the upper end cover and the bottom end of the outer shell body are respectively fixedly installed with corresponding sealing and vibration isolation rubber pads.

[0019] The outer side wall of the outer shell body is integrally formed with several rows of protrusions corresponding to the positions of the support pads.

[0020] A food waste disposer includes an easily assembled vibration-damping outer shell as described above, and a core mechanism fixedly installed within the vibration-damping outer shell. The core mechanism includes a drive motor fixedly embedded in the core mechanism mounting cavity of the vibration-damping base, and a core housing fixedly mounted on the upper side of the drive motor. The output shaft end of the drive motor extends into the core housing and is connected to a corresponding pulverizing mechanism. A flexible feed pipe is provided on the upper part of the core housing, extending through to the outside of the mounting hole of the upper end cover. A discharge pipe is provided laterally on the side wall of the core housing, extending through to the outside of the outer shell body.

[0021] Advantages of this invention:

[0022] 1) The upper part of the outer shell of the present invention is fixedly connected to an upper end cover with a mounting hole in the middle. Several support pads are fixedly connected at intervals on the upper part of the bottom end of the outer shell. Several fixing rods are fixedly connected downward at the periphery of the upper end cover. In use, the core can be directly fixedly assembled into the core mounting cavity of the vibration isolation base of the present invention. Then, by forming a gap with the support pads through the fixing notch, the vibration isolation base is lifted to the upper side of the support pads. Then, by using the corresponding locking components, the lifting rods on the vibration isolation base are respectively fastened to the corresponding fixing rods to suspend the vibration isolation base and the core installed on the vibration isolation base. Finally, by rotating the rotating plate, the bottom side of its support part is fixedly abutted against the upper side of the corresponding support pad, so that the buffer vibration isolation pad is in a compressed state between the rotating plate and the vibration isolation base, thereby facilitating the quick and stable installation of the core of the food waste disposer.

[0023] After assembly, the main body of the device is supported by a vibration-isolated base, which is suspended and installed using lifting and fixing rods. With the reinforcement of support pads, it achieves a more stable support. Because the periphery of the vibration-isolated base is spaced apart from the inner wall of the outer casing, the assembled base does not directly contact the outer casing or support pads. Instead, it forms a small contact area with the support pads via a buffer vibration-isolation pad and then the support part of the rotating plate. This not only effectively extends the transmission path of the vibration wave but also effectively reduces the transmission area. The addition of buffer vibration-isolation pads along the transmission path dissipates energy, significantly attenuating the vibration wave during transmission and substantially reducing its transmission to the outer casing. This significantly reduces the amount of vibration wave transmitted outward, thereby effectively and significantly improving the vibration reduction effect of the outer casing of the food waste disposer.

[0024] 2) Some vibrations are also transmitted to the upper cover of the outer shell via the lifting and fixing rods. First, the transmission cross-section of the lifting and fixing rods is relatively small, so the amount of vibration transmitted is small. Second, the path of this part of the vibration to the base plate is extremely long, so it is greatly attenuated during transmission. This invention also includes a vibration damping and energy absorption device, which can be used to reduce the amount of vibration transmitted from the vibration isolation base to the outer shell and to the bottom of the outer shell to the floor, thereby further significantly improving the vibration damping performance of this invention.

[0025] 3) The vibration damping and energy absorption device of the present invention specifically includes: an elastic rod fixed to the lower side of the support of the rotating plate, a corresponding magnet fixed to the bottom end of the elastic rod, and vibration damping containers adapted to the magnets evenly distributed on the bottom side of the outer shell body, and the vibration damping containers are filled with a number of corresponding iron spherical damping particles. In this way, not only can some of the vibration waves transmitted through the support part of the rotating plate be transmitted to the elastic rod, so that energy can be effectively dissipated under the vibration of the elastic rod, thereby further attenuating the vibration waves in the transmission path; during the vibration of the elastic rod, the magnet fixed to its bottom end will also generate corresponding vibration. Under the action of magnetic attraction, the magnet will drive the iron spherical damping particles to generate relative motion, thereby transmitting the vibration energy to the iron spherical damping particles. Under the energy dissipation of the surface friction of many iron spherical damping particles, the vibration energy is effectively reduced, thereby increasing the amount of vibration transmitted to the elastic rod, so as to further significantly reduce the transmission of vibration waves to the outer shell, and thus effectively and significantly improve the vibration reduction effect of the outer shell of the food waste disposer.

[0026] 4) The vibration damping container of the present invention has corresponding arc-shaped grooves on the side facing the magnet. The magnet is cylindrical and located in the arc-shaped groove, thereby effectively ensuring that the magnet can exert magnetic attraction force more fully between the iron spherical damping particles. Under the action of the arc-shaped groove, it is easier to screw the elastic rod, thereby effectively improving the practical effect of the present invention.

[0027] 5) The width of the support portion of the rotating plate of the present invention is greater than the width of the fixing notch, so as to effectively ensure that the support portion can pass through the fixing notch of the vibration isolation base to form a more stable support; and the top surface of the support pad is provided in an upward convex arc shape, so that the support pad and the rotating plate are in line contact, thereby maintaining the stability of the support and further effectively reducing the amount of vibration wave transmitted to the support pad, that is, reducing the amount of vibration wave transmitted to the outer shell body.

[0028] 6) The outer side wall of the outer shell body of the present invention is integrally formed with several rows of protruding edges corresponding to the positions of the support pads. Under the action of several rows of protruding edges, the stability of the connection between the outer shell body and the support pads is effectively ensured, thereby further ensuring the practical effect of the present invention. Attached Figure Description

[0029] Figure 1 This is a schematic diagram of the vibration-damping housing according to Embodiment 1 of the present invention.

[0030] Figure 2 This is an exploded view of the vibration-damping housing according to Embodiment 1 of the present invention.

[0031] Figure 3 This is a cross-sectional view of the vibration-damping housing according to Embodiment 1 of the present invention.

[0032] Figure 4 This is a schematic diagram of the vibration isolation base.

[0033] Figure 5 A schematic diagram of a structure with an arc-shaped groove for a vibration damping container.

[0034] Figure 6 This is a schematic diagram of the structure of the food waste disposer according to Embodiment 2 of the present invention.

[0035] Figure 7 This is a schematic diagram of the movement's structure.

[0036] In the attached diagram: 1. Outer shell body; 101. Protruding edge; 2. Upper end cover; 201. Mounting hole; 3. Support pad; 4. Fixing rod; 5. Vibration isolation base; 5. Mechanism mounting cavity; 501. Fixing notch; 502. Lifting rod; 6. Locking assembly; 7. Vibration isolation support assembly; 8. Rotating plate; 801. Support part; 8011. Buffer vibration isolation pad; 802. Vibration reduction and energy absorption device; 9. Elastic rod; 901. Magnet; 902. Vibration damping container; 903. Arc groove; 9031. Iron spherical damping particle; 904. Particle filling hole; 10. Fixing plug; 11. Sealing vibration isolation rubber pad; 12. Mechanism; 13. Drive motor; 1301. Mechanism housing; 1302. Crushing mechanism; 1303. Flexible feed pipe; 14. Discharge pipe; 15. Detailed Implementation

[0037] To facilitate understanding by those skilled in the art, the structure of the present invention will now be described in further detail with reference to the accompanying drawings:

[0038] Example 1:

[0039] refer to Figure 1-5 An easy-to-assemble vibration-damping housing, comprising:

[0040] The outer shell body 1 has an upper end cover 2 with a mounting hole 201 in the middle fixed to the upper part of the outer shell body 1. Several support pads 3 are fixedly distributed at intervals on the upper part of the bottom end of the outer shell body 1. Several fixing rods 4 are fixed downward at the periphery of the upper end cover 2.

[0041] The vibration isolation base 5 has a core mounting cavity 501 in the middle. The top surface of the vibration isolation base 5 is fixedly connected to a hoisting rod 6 corresponding to the fixed rod 4. The periphery of the vibration isolation base 5 is spaced apart from the inner side wall of the outer shell body 1 and is provided with a fixing notch 502 that can make way for the support pad 3. The hoisting rod 6 is fastened to the corresponding fixed rod 4 by the corresponding locking assembly 7, so that the vibration isolation base 5 is located on the upper side of the support pad 3 to form a suspended installation.

[0042] The vibration isolation support assembly 8 includes a rotating plate 801 rotatably mounted on the bottom side of the vibration isolation base 5. Support portions 8011 adapted to the support pads 3 are provided outwardly at the periphery of the rotating plate 801. Corresponding buffer vibration isolation pads 802 are fixed to the upper side of the rotating plate 801. After the vibration isolation base 5 is suspended and installed in place, the rotating plate 801 rotates so that the bottom side of its support portion 8011 is fixedly abutted against the upper side of the corresponding support pads 3, so that the buffer vibration isolation pads 802 are in a compressed state between the rotating plate 801 and the vibration isolation base 5.

[0043] The vibration damping and energy absorption device 9 is used to reduce the amount of vibration transmitted from the vibration isolation base 5 to the outer shell body 1, and to reduce the amount of vibration transmitted from the bottom of the outer shell body 1 to the floor.

[0044] In use, the core 13 can be directly fixedly assembled into the core mounting cavity 501 of the vibration isolation base 5 of the present invention. Then, by forming a clearance with the support pad 3 through the fixing notch 502, the vibration isolation base 5 is lifted to the upper side of the support pad 3. Then, by using the corresponding locking assembly 7, the lifting rods 6 on the vibration isolation base 5 are respectively fastened to the corresponding fixing rods 4 to suspend the vibration isolation base 5 and the core 13 installed on the vibration isolation base 5. Finally, by rotating the rotating plate 801, the bottom side of its support part 8011 is fixedly abutted against the upper side of the corresponding support pad 3, so that the buffer vibration isolation pad 802 is in a compressed state between the rotating plate 801 and the vibration isolation base 5, thereby facilitating the quick and stable installation of the core 13 of the kitchen waste processor.

[0045] After assembly, the main body 13 is primarily supported by the vibration isolation base 5, which is suspended and installed using the lifting rod 6 and the fixing rod 4. With the reinforcement of the support pad 3, it achieves a more stable support. Since the periphery of the vibration isolation base 5 is spaced apart from the inner wall of the outer shell 1, the assembled vibration isolation base 5 does not directly contact the outer shell 1 or the support pad 3. Instead, it forms a small-area contact with the support pad 3 through the buffer vibration isolation pad 802 and then through the support part 8011 of the rotating plate 801. This not only effectively extends the transmission path of the vibration wave but also effectively reduces the transmission surface of the vibration wave. The addition of the buffer vibration isolation pad 802 along the transmission path dissipates energy, effectively attenuating the vibration wave significantly along the transmission path. This significantly reduces the transmission of the vibration wave to the outer shell 1, thus greatly reducing the outward transmission amount of the vibration wave and effectively improving the vibration reduction effect of the outer shell of the food waste disposer.

[0046] Some vibrations are also transmitted to the upper cover 2 of the outer shell 1 via the hoisting rod 6 and the fixing rod 4. First, the transmission cross-section of the hoisting rod 6 and the fixing rod 4 is relatively small, so the amount of vibration transmitted is small. Second, the path of this part of the vibration to the bottom plate is extremely long, so it is greatly attenuated during its transmission. In addition, the present invention also provides a vibration damping and energy absorption device 9, which can be used to reduce the amount of vibration transmitted from the vibration isolation base 5 to the outer shell 1 and to reduce the amount of vibration transmitted from the bottom of the outer shell 1 to the floor, thereby further and significantly improving the vibration damping performance of the present invention.

[0047] The vibration damping and energy absorption device 9 includes an elastic rod 901 fixed to the lower side of the support part 8011 of the rotating plate 801. The bottom end of the elastic rod 901 is fixed with a corresponding magnet 902. The bottom side of the outer shell body 1 is evenly provided with vibration damping containers 903 adapted to the magnet 902. The vibration damping containers 903 are filled with a number of corresponding iron spherical damping particles 904.

[0048] The vibration damping container 903 is integrally formed and connected to the inner wall of the outer shell body 1. Particle filling holes 10 are respectively provided on the upper side of the vibration damping container 903, and corresponding fixing plugs 11 are fixedly assembled at the particle filling holes 10.

[0049] Under the specific function of the vibration damping and energy absorption device 9, this invention can not only transmit part of the vibration wave transmitted through the support part 8011 of the rotating plate 801 to the elastic rod 901, so that energy can be effectively dissipated under the vibration of the elastic rod 901, thereby further attenuating the vibration wave in the transmission path; but also, during the vibration of the elastic rod 901, the magnet 902 fixed to its bottom end will also generate corresponding vibration. Under the action of magnetic attraction, the magnet 902 will drive the iron spherical damping particles 904 to generate relative motion, thereby transmitting the vibration energy to the iron spherical damping particles 904. Under the energy dissipation of the surface friction of the many iron spherical damping particles 904, the vibration energy is effectively further reduced, thereby increasing the amount of vibration transmitted to the elastic rod 901, so as to further significantly reduce the transmission of vibration waves to the outer shell 1, and thus effectively and significantly improve the vibration damping effect of the outer shell of the food waste disposer.

[0050] The vibration damping container 903 has corresponding arc-shaped grooves 9031 on the side facing the magnet 902. The magnet 902 is cylindrical and located within the arc-shaped grooves 9031. The elastic rod 901 is axial and is fixed to the lower side of the support portion 8011 of the rotating plate 801 by screwing or welding.

[0051] The magnet 902 of the present invention is cylindrical and located in the arc groove 9031 of the vibration damping container 903, thereby effectively ensuring that the magnet 902 can exert magnetic attraction force more fully between the iron spherical damping particles 904. Under the action of the arc groove 9031, it is easier to screw the elastic rod 901, thereby effectively improving the practical effect of the present invention.

[0052] The width of the support portion 8011 of the rotating plate 801 is greater than the width of the fixing notch 502, so as to effectively ensure that the support portion 8011 can pass through the fixing notch 502 of the vibration isolation base 5 to form a more stable support. The top surface of the support pad 3 is set in an upward convex arc shape, so that the support pad 3 and the rotating plate 801 are in line contact, thereby maintaining the stability of the support and further effectively reducing the amount of vibration wave transmitted to the support pad 3, that is, reducing the amount of vibration wave transmitted to the outer shell body 1.

[0053] The locking assembly 7 uses fastening screws, and after passing through the locking hole of the hoisting rod 6, the locking assembly 7 is fixedly screwed to the corresponding fixing rod 4. The mounting hole 201 of the upper end cover 2 and the bottom end of the outer shell body 1 are respectively fixedly installed with corresponding sealing and vibration isolation rubber pads 12.

[0054] The outer side wall of the outer shell body 1 is integrally formed with several rows of protruding edges 101 corresponding to the positions of the support pads 3. Under the action of the several rows of protruding edges 101, the stability of the connection between the outer shell body 1 and the support pads 3 is effectively ensured, thereby further ensuring the practical effect of the present invention.

[0055] Example 2:

[0056] refer to Figure 6-7 A food waste disposer includes an easily assembled vibration-damping outer shell as described in Embodiment 1, and a core 13 fixedly installed within the vibration-damping outer shell. The core 13 includes a drive motor 1301 fixedly embedded in the core mounting cavity 501 of the vibration-damping base 5, and a core housing 1302 fixedly mounted on the upper side of the drive motor 1301. The output shaft of the drive motor 1301 extends into the core housing 1302 and is connected to a corresponding pulverizing mechanism 1303. A flexible feed pipe 14 is provided on the upper part of the core housing 1302, extending through to the outside of the mounting hole 201 of the upper end cover 2. A discharge pipe 15 is provided laterally on the side wall of the core housing 1302, extending through to the outside of the outer shell body 1. In this embodiment, the flexible feed pipe 14 is made of flexible rubber material to facilitate the assembly of the core 13 and effectively further enhance the vibration damping effect of the device.

[0057] The vibrations generated during the operation of the food waste disposer of the present invention are effectively dispersed and significantly attenuated when transmitted through the easily assembled vibration-damping shell described in Embodiment 1, thereby greatly reducing the vibration disturbance caused by its use and making it more suitable for widespread use in commercial housing.

[0058] The above description is only a preferred embodiment of the present invention. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the principle of the present invention, and these improvements and modifications should also be considered within the scope of protection of the present invention.

Claims

1. An easily assembled vibration-damping housing, characterized in that, include: The outer shell body (1) has an upper end cover (2) with a mounting hole (201) in the middle fixed to the upper part of the outer shell body (1), and a number of support pads (3) are fixedly distributed at intervals on the upper part of the bottom end of the outer shell body (1). A number of fixing rods (4) are fixed downward at the periphery of the upper end cover (2). The vibration isolation base (5) has a core mounting cavity (501) in the middle. The top surface of the vibration isolation base (5) is fixedly connected to a hoisting rod (6) corresponding to the fixed rod (4). The periphery of the vibration isolation base (5) is spaced apart from the inner wall of the outer shell body (1) and has a fixed notch (502) that can make way for the support pad (3). The hoisting rod (6) is fastened to the corresponding fixed rod (4) by the corresponding locking assembly (7), so that the vibration isolation base (5) is located on the upper side of the support pad (3) to form a suspended installation. The vibration isolation support assembly (8) includes a rotating plate (801) rotatably mounted on the bottom side of the vibration isolation base (5). The peripheral edge of the rotating plate (801) is provided with a support part (8011) adapted to the support pad (3). The upper side of the rotating plate (801) is fixedly connected to the corresponding buffer vibration isolation pad (802). After the vibration isolation base (5) is suspended and installed in place, the rotating plate (801) rotates so that the bottom side of its support part (8011) is fixedly abutted against the upper side of the corresponding support pad (3), so that the buffer vibration isolation pad (802) is in a compressed state between the rotating plate (801) and the vibration isolation base (5). The vibration damping and energy absorption device (9) is used to reduce the amount of vibration transmitted from the vibration isolation base (5) to the outer shell body (1) and to reduce the amount of vibration transmitted from the bottom of the outer shell body (1) to the floor.

2. The easily assembled vibration-damping housing according to claim 1, characterized in that, The vibration damping and energy absorption device (9) includes an elastic rod (901) fixed to the lower side of the support part (8011) of the rotating plate (801). The bottom end of the elastic rod (901) is fixed with a corresponding magnet (902). The bottom side of the outer shell body (1) is evenly provided with vibration damping containers (903) adapted to the magnet (902). The vibration damping containers (903) are filled with a number of corresponding iron spherical damping particles (904).

3. The easily assembled vibration-damping housing according to claim 2, characterized in that, The vibration damping container (903) is integrally formed and connected to the inner wall of the outer shell body (1). The upper side of the vibration damping container (903) is provided with particle filling holes (10), and corresponding fixing plugs (11) are fixedly assembled at the particle filling holes (10).

4. The easily assembled vibration-damping housing according to claim 3, characterized in that, The vibration damping container (903) has corresponding arc-shaped grooves (9031) on the side facing the magnet (902), and the magnet (902) is cylindrical and located in the arc-shaped grooves (9031).

5. The easily assembled vibration-damping housing according to claim 4, characterized in that, The elastic rod (901) is axially oriented and is fixed to the lower side of the support part (8011) of the rotating plate (801) by screwing or welding.

6. The easily assembled vibration-damping housing according to claim 1, characterized in that, The width of the support part (8011) of the rotating plate (801) is greater than the width of the fixed notch (502), and the top surface of the support pad (3) is set in an upward convex arc shape.

7. The easily assembled vibration-damping housing according to claim 1, characterized in that, The locking assembly (7) uses fastening screws. After passing through the locking hole of the hoisting rod (6), the locking assembly (7) is fixedly screwed to the corresponding fixing rod (4).

8. The easily assembled vibration-damping housing according to claim 1, characterized in that, The mounting hole (201) of the upper end cover (2) and the bottom end of the outer shell body (1) are respectively fixedly installed with corresponding sealing and vibration isolation rubber pads (12).

9. The easily assembled vibration-damping housing according to claim 1, characterized in that, The outer side wall of the outer shell body (1) is integrally formed with several rows of protrusions (101) corresponding to the positions of the support pads (3).

10. A food waste disposer, characterized in that, The device comprises an easily assembled vibration-damping housing as described in any one of claims 1-9, and a core (13) fixedly installed within the vibration-damping housing. The core (13) includes a drive motor (1301) fixedly embedded in the core mounting cavity (501) of the vibration isolation base (5), and a core housing (1302) fixedly mounted on the upper side of the body of the drive motor (1301). The output shaft end of the drive motor (1301) extends into the core housing (1302) and is connected to a corresponding crushing mechanism (1303). The upper part of the core housing (1302) is provided with a flexible feed pipe (14) extending through to the outside of the mounting hole (201) of the upper end cover (2). The side wall of the core housing (1302) is laterally provided with a discharge pipe (15) extending through to the outside of the outer shell body (1).

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