Atomizer with shock absorption and noise reduction
The atomizer's innovative design with shock absorbers, anti-collision mechanisms, and noise-reducing features addresses noise and vibration issues, providing a quieter and safer operation.
Patent Information
- Application Number
- DE202025100924
- Authority / Receiving Office
- DE · DE
- Patent Type
- Utility models
- Current Assignee / Owner
- Priority Date
- 2024-05-17
- Filing Date
- 2025-02-20
- Publication Date
- 2025-05-08
- Estimated Expiration
- 2035-02-28
AI Technical Summary
Existing atomizers produce significant noise and vibrations during operation, which can be disruptive and affect user comfort and safety, particularly in medical and domestic environments.
An atomizer design incorporating suspended shock absorbers, anti-collision mechanisms, and noise-reducing features such as honeycomb-shaped sound-absorbing foam, along with a unique air pump arrangement and magnetically attached components, to minimize vibrations and noise.
The design effectively reduces noise and vibrations, enhancing user comfort and safety while protecting the equipment, improving the overall user experience and medical efficacy.
Smart Images
Figure 00000000_0000_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present utility model relates to the technical field of atomizers, in particular to an atomizer with shock absorption and noise reduction. STATE OF THE ART
[0002] A nebulizer is a device for atomizing test solutions, which has a wide range of applications in medical, industrial, and other fields. Medical nebulizers are mainly used to treat various diseases of the upper and lower respiratory tract. Nebulization inhalation therapy is an important and effective treatment method in the treatment of respiratory diseases. The nebulization inhaler is used to atomize the medicinal liquid into tiny particles, so that the medication enters the respiratory tract through inhalation and is deposited in the lungs, thus achieving the purpose of painless, rapid, and effective treatment.
[0003] With the advancement of technology and the improvement of user requirements, more and more attention is being paid to shock absorption and noise reduction performance in the design and manufacturing process of modern nebulizers. Nebulizers are commonly used in medical or home environments, and the noise they generate can cause disruption to the rest, work, or life of the patient or user. Therefore, by improving the shock absorption and noise reduction performance of the nebulizer, the user can be provided with a more comfortable and quieter use environment, which helps improve the user experience and enhance the medical effect. At the same time, the safety of the equipment can also be protected to meet environmental requirements. CONTENT OF THE PRESENT UTILITY MODEL
[0004] The purpose of the present utility model is to provide an atomizer with shock absorption and noise reduction to solve the above-mentioned problems.
[0005] The technical solution according to the present utility model: An atomizer with shock absorption and noise reduction, comprising a housing, wherein an air pump assembly is arranged within the housing, wherein the air pump assembly comprises a machine core and an air pump arranged within the machine core, wherein the air pump is connected to an air inlet pipe and an air outlet pipe, wherein an air inlet opening for connecting to the air inlet pipe and an air outlet opening for connecting to the air outlet pipe are arranged on the housing, wherein the housing comprises an upper shell and a lower shell, wherein a plurality of suspended shock absorption assemblies are arranged in the lower shell, wherein the suspended shock absorption assembly comprises a positioning seat and a shock absorption column, wherein the positioning seat is arranged within the lower shell, wherein a first strong magnet is arranged within the positioning seat, wherein the upper part of the shock absorption column is connected to the machine core and the lower part projects into the positioning seat, wherein a second strong magnet is arranged in the lower part of the shock absorption column, wherein the first strong magnet and the second strong magnet are arranged opposite one another and have mutually ejecting magnetic poles, wherein the machine core can be suspended between the upper shell and the lower shell.
[0006] As a further improved technical solution of the present utility model, it is provided that a first installation slot is arranged at the bottom of the shock absorption column, wherein the second strong magnet is engaged in the first installation slot, wherein the opening of the first installation slot is arranged radially inward.
[0007] As a further improved technical solution of the present utility model, it is provided that the machine core comprises an upper cover and a machine core body, wherein a plurality of installation seats are arranged on the machine core body, wherein the installation seat is used for installing a shock absorption column, wherein the installation seat has a connecting portion and an engaging portion, wherein the connecting portion is used for connecting to the machine core body, wherein a through hole is arranged in the center of the engaging portion, wherein the through hole is used for passing through a shock absorption column, wherein a second installation slot is arranged in the upper part of the shock absorption column, wherein the opening of the second installation slot is arranged radially outward, wherein the engaging portion is engaged in the second installation slot.
[0008] As a further improved technical solution of the present utility model, it is provided that the shock absorbing column is a shock absorbing column made of silicone which is hollow inside and has a corrugated side wall.
[0009] As a further improved technical solution of the present utility model, it is provided that a plurality of first anti-collision mechanisms are arranged on the inside of the upper shell, wherein the first anti-collision mechanism is used to dampen a collision between the machine core and the upper shell, wherein a plurality of second anti-collision mechanisms are arranged on the inside of the lower shell, wherein the second anti-collision mechanism is used to dampen a collision between the machine core and the lower shell.
[0010] As a further improved technical solution of the present utility model, it is provided that the first anti-collision mechanism comprises a positioning column and a silicone anti-collision tube sheathed on the positioning column, wherein the positioning column is arranged within the upper shell, wherein a gap is present between the silicone anti-collision tube and the machine core, wherein the silicone anti-collision tube comprises two concentrically arranged round tubes, wherein a plurality of stiffening ribs are arranged between the two round tubes, wherein the structure of the first anti-collision mechanism corresponds to the structure of the second anti-collision mechanism.
[0011] As a further improved technical solution of the present utility model, it is provided that a limiting groove extending from bottom to top is arranged on the machine core body, wherein the second anti-collision mechanism is located in the receiving space formed by the limiting groove.
[0012] As a further improved technical solution of the present utility model, it is provided that the air outlet pipe has a first interface section, a conveying section and a second interface section which are arranged one after the other, wherein the first interface section is used for connecting to the air pump, wherein the second interface section is used for connecting to the air outlet opening on the housing, wherein the diameter of the conveying section is larger than the diameter of the first interface section, wherein the diameter of the conveying section is larger than the diameter of the second interface section, wherein the structure of the air inlet pipe corresponds to the structure of the air outlet pipe, wherein the second interface of the air inlet pipe is connected to the air inlet opening.
[0013] As a further improved technical solution of the present utility model, it is provided that the outer surface of the air pump is coated with a honeycomb sound-absorbing foam.
[0014] As a further improved technical solution of the present utility model, it is provided that several shock-absorbing feet are arranged on the bottom of the lower shell.
[0015] The present utility model has the following advantageous effects: Using the suspended shock absorption assembly, the above-mentioned structure allows the air pump assembly to be suspended in the housing, thereby reducing the noise caused by vibration of the air pump assembly in contact with the housing. A shock absorption column is arranged between the positioning seat and the air pump assembly to realize the effects of positioning support, shock absorption, and noise reduction for the air pump assembly. SHORT DESCRIPTION OF THE DRAWING Fig. 1 is a schematic diagram of the structure of an upper part of an atomizer; Fig. 2 is a schematic diagram of the structure of a lower part of an atomizer; Fig. 3 is a schematic diagram of the structure of an internal part of an atomizer; Fig. 4 is a sectional view of an inner part of an atomizer; Fig. 5 is a schematic diagram showing the structure of an inner part of an air pump assembly and an inner part of a suspended shock absorbing assembly; Fig. 6 is a schematic diagram of the structure of an inner part of an upper shell; Fig. 7 is a schematic diagram of the structure of an air inlet pipe and an air outlet pipe.
[0016] Reference symbols: 1-Upper shell, 101-Air outlet opening, 2-Lower shell, 201-Air inlet cover, 202-Filter cotton, 3-Machine core, 301-Top cover, 302-Machine core body, 303-Limiting groove, 304-Installation seat, 3041-Connecting section, 3042-Circumferential limiting section, 3043-Engaging section, 3044-Through hole, 4-air pump, 5-Suspended shock absorption assembly, 501-Positioning seat, 502-First strong magnet, 503-Shock absorption column, 504-Second strong magnet, 505-First installation slot, 506-Second installation slot, 6-First anti-collision mechanism, 601-Positioning column, 602-Silicone anti-collision tube, 6021-Round tube, 6022-Stiffening rib, 7-Second anti-collision mechanism, 8-Air intake pipe, 9-Air outlet pipe, 901-First interface section, 902-Conveyor section, 903-Second interface section, 10-Sound-absorbing foam, 11- Heat dissipation hole, 12-shock absorption foot. DETAILED DESCRIPTION
[0017] The present utility model is described in detail below in connection with the specific embodiments illustrated in the drawings. However, these embodiments are not intended to limit the present utility model. Structural, methodological, or functional modifications made by those skilled in the art according to these embodiments fall within the scope of protection of the present utility model.
[0018] When the present utility model refers to an orientation in its expression (e.g., up, down, left, right, front, back, outside, inside, etc.), the orientation in question must be defined. For example, in order to clearly express the position and direction described in the present utility model, with reference to the instrument operator, the end closest to the operator is the proximal end, and the end far from the operator is the distal end. Or, using the paper as a reference, etc. Of course, it may not be defined here if the positional relationship between the two is defined by cross-reference in the subsequent description.
[0019] Atomizer with shock absorption and noise reduction, comprising a housing, wherein the housing has an upper shell 1 and a lower shell 2 which are locked together, wherein an air pump assembly is arranged within the housing, wherein the air pump assembly comprises a machine core 3 and an air pump 4 arranged within the machine core 3, wherein the air pump 4 is connected to an air inlet pipe 8 and an air outlet pipe 9, wherein an air inlet opening for connecting to the air inlet pipe 8 and an air outlet opening 101 for connecting to the air outlet pipe 9 are arranged on the housing, as in Fig. 1 to Fig. 7 shown, wherein a plurality of suspended shock absorption assemblies 5 are arranged in the lower shell 2, wherein the suspended shock absorption assembly 5 comprises a positioning seat 501 and a shock absorption column 503, wherein the positioning seat 501 is arranged within the lower shell 2, wherein a first strong magnet 502 is arranged within the positioning seat 501, wherein the upper part of the shock absorption column 503 is connected to the machine core 3 and the lower part protrudes into the positioning seat 501, wherein a second strong magnet 504 is arranged in the lower part of the shock absorption column 503, wherein the first strong magnet 502 and the second strong magnet 504 are arranged opposite one another and have mutually ejecting magnetic poles, wherein the machine core 3 can be suspended between the upper shell 1 and the lower shell 2, wherein the machine core 3 is not connected to the positioning seat 501, the upper shell 1, the lower shell 2 is in contact, as in Fig. 3 to Fig. 5 shown.
[0020] As an embodiment of the present utility model, it is provided that the first strong magnet 502 and the second strong magnet 504 have a flat cylindrical shape, which is easier to install and manufacture, and the positioning seat 501 is hollow cylindrical, wherein the positioning seat 501 is also used to limit the position of the shock absorbing column 503, so that a positional displacement of the shock absorbing column 503 during the vibration process is prevented.
[0021] As an embodiment of the present utility model, the shock absorbing column 503 is a hollow, silicone shock absorbing column with corrugated side walls. During operation of the air pump 4, the vibration generated by the air pump 4 causes the entire machine core 3 to vibrate, which is transmitted from the machine core 3 to the corrugated shock absorbing column 503. Due to the structural design, which is hollow inside and has a corrugated side wall, the corrugated side walls of the shock absorbing column 503 impact the inner wall of the positioning seat 501 before other parts of the machine core 3 to generate deformation, thereby achieving a damping effect. This counteracts the potential energy generated by the vibration of the machine core 3. Due to the use of silicone material, its texture is soft, which greatly absorbs the shock generated upon impact.Therefore, the decibel of sound generated when it hits the positioning seat 501 is very low, greatly reducing various noises caused by vibrations during the operation of the air pump 4. The shock absorption column 503 impacts other objects to generate shock when the entire machine falls. This also greatly protects the air pump assembly from damage, achieving the triple functions of positioning, shock absorption, and noise reduction, which also has the advantages of low cost and convenient installation and disassembly.
[0022] Furthermore, a first installation slot 505 is provided at the bottom of the shock absorption column 503, with the opening of the first installation slot 505 being arranged radially inward. The second strong magnet 504 is arranged within the first installation slot 505 so that an appropriate distance is maintained between the first strong magnet 502 and the second strong magnet 504. Due to the mutual repulsion force between the first strong magnet 502 and the second strong magnet 504, the machine core 3 is separated from the housing, so that the machine core 3 is suspended in the air with the housing without contact. When vibration is generated, the vibration of the machine core 3 is not transmitted to the housing, especially to the lower shell 2, thereby greatly reducing the vibration of the entire machine.The noise caused by the transmission of vibrations from the air pump 4 to the housing is thereby greatly reduced.
[0023] Furthermore, it is provided that the machine core 3 has an upper cover 301 and a machine core body 302, which are connected by plug-in connections, wherein a plurality of installation seats 304 are arranged on the machine core body 302, wherein the installation seat 304 is used for installing a shock absorption column 503, wherein the number of installation seats 304 corresponds one-to-one to the number of shock absorption columns 503, wherein the position of the installation seat 304 corresponds one-to-one to the position of the shock absorption column 503, wherein the installation seat 304 comprises a connecting section 3041, a peripheral limiting section 3042 and an engaging section 3043, wherein the connecting section 3041 is used for connecting to the machine core body 302, wherein a through hole 3044 is arranged in the center of the engaging section 3043, wherein the through hole 3044 is used to carry out a shock absorbing column 503,wherein a second installation slot 506 is arranged in the upper part of the shock-absorbing column 503, the opening of the second installation slot 506 being arranged radially outward, wherein during installation, the engaging portion 3043 is engaged in the second installation slot 506, wherein the circumferential limiting portion 3042 serves to limit the upper portion of the shock-absorbing column 503 in the outer circumferential direction, so that more sufficient shock absorption and damping of the shock-absorbing column 503 can be achieved by joint cooperation with the engaging portion 3043.
[0024] Furthermore, it is provided that a plurality of first anti-collision mechanisms 6 are arranged on the inside of the upper shell 1, wherein the first anti-collision mechanism 6 is used to dampen a collision between the machine core 3 and the upper shell 1 when the vibration of the machine core 3 is driven by the air pump 4, wherein the first anti-collision mechanism 6 comprises a positioning column 601 and an anti-collision tube 602 made of silicone, which is sheathed on the positioning column 601, wherein the positioning column 601 is arranged inside the upper shell 1.In particular, the anti-collision tube 602 made of silicone comprises two concentrically arranged round tubes 6021, wherein a plurality of stiffening ribs 6022 are arranged between the two round tubes 6021, wherein the plurality of stiffening ribs 6022 are arranged uniformly in the circumferential direction, wherein the stiffening rib 6022 is used to improve the connection strength and the earthquake resistance between the two round tubes 6021, which is inexpensive and easy to disassemble, wherein a gap is provided between the bottom surface of the first anti-collision mechanism 6 and the top surface of the machine core 3, wherein in particular a gap is provided between the anti-collision tube 602 made of silicone and the machine core 3, as in . Fig. 6 shown.
[0025] Furthermore, it is provided that a plurality of second anti-collision mechanisms 7 are arranged on the inside of the lower shell 2. The second anti-collision mechanism 7 is used to dampen a collision between the machine core 3 and the lower shell 2 when the vibration of the machine core 3 is driven by the air pump 4. The structure of the first anti-collision mechanism 6 corresponds to the structure of the second anti-collision mechanism 7, with a gap being provided between the top surface of the second anti-collision mechanism 7 and the machine core 3. As an embodiment of the present utility model, it is provided that a limiting groove 303 extending from bottom to top is arranged on the machine core 3, the second anti-collision mechanism 7 being located in the receiving space formed by the limiting groove 303.A gap is provided between the top surface of the second anti-collision mechanism 7 and the top surface of the limiting groove 303. A gap is provided between the side surfaces of the second anti-collision mechanism 7 and the three side surfaces of the limiting groove 303. The top surface of the limiting groove 303 collides with the top surface of the second anti-collision mechanism 7 for shock absorption when the vibration of the machine core 3 is driven by the air pump 4. The side surface of the limiting groove 303 collides with the side surface of the second anti-collision mechanism 7 for shock absorption. At the same time, the limiting groove 303 penetrates the second anti-collision mechanism 7 during the vibration process of the machine core 3, so that the relative horizontal positional relationship and the relative vertical positional relationship between the machine core 3 and the lower shell 2 are limited.
[0026] Based on the technical solution described above, the suspension state of the machine core 3 described in the present utility model will be defined. That is, during non-operation, the machine core 3 is not in contact with the upper shell 1 or the lower shell 2, the machine core 3 is not in contact with the positioning seat 501, and the machine core 3 is not in contact with the first anti-collision mechanism 6 or the second anti-collision mechanism 7.
[0027] Further, it is provided that the air inlet opening is used for connection to the outside air and the air inlet pipe 8, wherein the air inlet pipe 8 is used to convey outside air into the air pump 4, wherein the air outlet opening 101 is used for connection to the outside pipe and the air outlet pipe 9, wherein the air outlet pipe 9 is used to discharge the high-flow gas discharged after compression by the air pump 4.
[0028] Furthermore, it is provided that the air outlet pipe 9 has a first interface section 901, a conveying section 902 and a second interface section 903, which are arranged one after the other, wherein the first interface section 901 is used for connecting to the air pump 4, wherein the second interface section 903 is used for connecting to the air outlet opening 101 on the housing, wherein the diameter of the conveying section 902 is larger than the diameter of the first interface section 901, wherein the diameter of the conveying section 902 is larger than the diameter of the second interface section 903, as in Fig.7. This tube, with a small diameter at both ends and a large diameter in the middle, forms a durable sound-damping structure.Specifically, the air outlet pipe 9 is a silicone hose, the noise generated by the air pump 4 is conveyed with the air flow through the silicone hose so that the amount of noise carried out with the air flow can be greatly reduced, a vulcanization bonding process is used between the first interface portion 901 and the conveying portion 902 to bond together, a vulcanization bonding process is used between the second interface portion 903 and the conveying portion 902 to bond together, which has flat and smooth properties and high tensile strength, the structure of the air inlet pipe 8 is consistent with the structure of the air outlet pipe 9, the second interface of the air inlet pipe 8 is connected to the air inlet port.
[0029] Furthermore, it is provided that the air inlet opening is arranged on the lower shell 2, wherein the air outlet opening 101 is arranged on the upper shell 1, wherein an air inlet cover 201 and a filter cotton 202 are further arranged on the air inlet opening, wherein the air inlet cover 201 is used to prevent dirt such as dust from entering the air inlet pipe 8 when the atomizer is not in use, wherein the filter cotton 202 is used to filter air to improve the quality of the inlet air.
[0030] Furthermore, the outer surface of the air pump 4 is coated with a honeycomb sound-absorbing foam 10. Such a construction can absorb a large amount of noise generated during operation of the air pump 4. The air pump 4 is integrally wrapped with the sound-absorbing foam 10, allowing the air pump 4 to be wrapped in all directions to reduce the air pump's exposure. This absorbs most of the noise generated by the air pump 4, thus protecting and shock-absorbing the air pump 4.
[0031] Heat dissipation holes 11 are arranged on the housing so that the external cold air can be exchanged with the hot air in the housing during operation to reduce the temperature in the housing, thereby ensuring the normal operation of the atomizer.
[0032] Furthermore, several shock-absorbing feet 12 are arranged on the bottom of the lower shell 2. The shock-absorbing feet 12 raise the spatial height of the housing, creating clearance between the bottom surface of the lower shell 2 and the work surface for placing the atomizer. This prevents direct contact of the lower shell 2 with the work surface, thus achieving shock absorption and noise reduction, which facilitates the entry of air into the air pump 4 through the air inlet opening. The shock-absorbing feet 12 are hemispherical in shape. The shock-absorbing feet 12 are made of silicone material, which has a better shock-absorbing and noise-absorbing effect. At the same time, due to the properties of the silicone material, the friction between the atomizer and the work surface is increased, which has a good anti-slip effect.
[0033] During assembly, the sound-absorbing foam 10 is first glued to the air pump 4. The air pump 4 is inserted into the machine core body 302, then the upper shell 1 is covered and locked with screws. The second strong magnet 504 is snapped into the first installation slot 505 in the shock-absorbing column 503, and then the shock-absorbing column 503 is snapped into the installation seat 304 on the machine core 3. The first strong magnet 502 is stored in the positioning seat 501 in a position opposite to the magnetic pole of the second strong magnet 504. The first anti-collision mechanism 6 and the second anti-collision mechanism 7 are installed separately. Then, a plurality of shock-absorbing columns 503 are inserted into the corresponding positioning seats 501, and then the air inlet pipe 8 is connected to the air inlet port and the air inlet end of the air pump 4.To complete the air path connection, the air outlet pipe 9 is connected to the air outlet end of the air pump 4 and the air outlet opening 101. The upper shell 1 is mounted on the lower shell 2 and locked with screws. Then, the shock absorbing feet 12 are glued to the corresponding positions of the lower shell 2. Finally, the filter cotton 202 is inserted into the air inlet cover 201 and attached to the air inlet of the lower shell 2.
[0034] The present utility model provides an atomizer with shock absorption and noise reduction. By using the suspended shock absorption assembly 5, the above structure suspends the air pump assembly in the housing, thereby reducing the noise caused by vibration of the air pump assembly in contact with the housing. A shock absorption column 503 is arranged between the positioning seat 501 and the air pump assembly to realize the effects of positioning support, shock absorption, and noise reduction for the air pump assembly. An air inlet pipe 8 and an air outlet pipe 9, which are small at both ends and large in the middle, are arranged, thereby reducing the noise generated by the inlet and outlet airflow.The first anti-collision structure and the second anti-collision structure cushion the impact generated by the air pump assembly within the housing. The air pump 4 is wrapped with honeycomb sound-absorbing foam 10 to protect the air pump 4 and achieve shock absorption and noise reduction. By integrating various shock absorption and noise reduction methods, the shock absorption and noise reduction effects of the atomizer are significantly improved, thereby enhancing the user experience and usage effect.
[0035] It should be understood that although the present description is described with reference to the embodiments, not each embodiment contains only an independent technical solution. This type of description is provided for convenience only. The description is intended to be understood as a whole by those skilled in the art. The technical solutions in each embodiment can also be combined accordingly to form other embodiments that are understandable to those skilled in the art.
[0036] The above series of detailed descriptions are only specific descriptions of the practical embodiments of the present utility model and are not intended to limit the scope of protection of the present utility model. All equivalent embodiments or modifications that do not deviate from the technical spirit of the present utility model are to be included within the scope of protection of the present utility model.
Claims
[1] Atomizer with shock absorption and noise reduction, comprising a housing, characterized by , that an air pump arrangement is arranged within the housing, wherein the air pump arrangement comprises a machine core (3) and an air pump (4) arranged within the machine core (3), wherein the air pump (4) is connected to an air inlet pipe (8) and an air outlet pipe (9), wherein an air inlet opening for connecting to the air inlet pipe (8) and an air outlet opening (101) for connecting to the air outlet pipe (9) are arranged on the housing, wherein the housing comprises an upper shell (1) and a lower shell (2), wherein a plurality of suspended shock absorption assemblies (5) are arranged in the lower shell (2), wherein the suspended shock absorption assembly (5) comprises a positioning seat (501) and a shock absorption column (503), wherein the positioning seat (501) is arranged within the lower shell (2), wherein a first strong magnet (502) is arranged within the positioning seat (501), wherein the upper part of the shock absorption column (503) is connected to the machine core (3) and the lower part projects into the positioning seat (501), wherein a second strong magnet (504) is arranged in the lower part of the shock absorption column (503), wherein the first strong magnet (502) and the second strong magnet (504) are arranged opposite one another and have mutually ejecting magnetic poles, wherein the machine core (3) is arranged between the upper shell (1) and the Lower shell (2) can be hung. [2] Atomizer with shock absorption and noise reduction according to claim 1, characterized by that a first installation slot (505) is arranged at the bottom of the shock absorption column (503), wherein the second strong magnet (504) is engaged in the first installation slot (505), wherein the opening of the first installation slot (505) is arranged radially inward. [3] Atomizer with shock absorption and noise reduction according to claim 1, characterized bythat the machine core (3) has an upper cover (301) and a machine core body (302), wherein a plurality of installation seats (304) are arranged on the machine core body (302), wherein the installation seat (304) is used for installing a shock absorption column (503), wherein the installation seat (304) has a connecting portion (3041) and a locking portion (3043), wherein the connecting portion (3041) is used for connecting to the machine core body (302), wherein a through hole (3044) is arranged in the center of the locking portion (3043), wherein the through hole (3044) is used for passing through a shock absorption column (503), wherein in the upper part of the shock absorption column (503) a second installation slot (506) is arranged, wherein the opening of the second installation slot (506) is arranged radially outwards, wherein the Snap-in portion (3043) is snapped into the second installation slot (506). [4] Atomizer with shock absorption and noise reduction according to claim 1, characterized by that the shock absorbing column (503) is a shock absorbing column made of silicone which is hollow inside and has a corrugated side wall. [5] Atomizer with shock absorption and noise reduction according to claim 1, characterized by that a plurality of first anti-collision mechanisms (6) are arranged on the inside of the upper shell (1), wherein the first anti-collision mechanism (6) is used to dampen a collision between the machine core (3) and the upper shell (1), wherein a plurality of second anti-collision mechanisms (7) are arranged on the inside of the lower shell (2), wherein the second anti-collision mechanism (7) is used to dampen a collision between the machine core (3) and the lower shell (2). [6] Atomizer with shock absorption and noise reduction according to claim 5, characterized byin that the first anti-collision mechanism (6) comprises a positioning column (601) and an anti-collision tube (602) made of silicone, which is sheathed on the positioning column (601), wherein the positioning column (601) is arranged within the upper shell (1), wherein a gap is present between the anti-collision tube (602) made of silicone and the machine core (3), wherein the anti-collision tube (602) made of silicone comprises two concentrically arranged round tubes (6021), wherein a plurality of stiffening ribs (6022) are arranged between the two round tubes (6021), wherein the structure of the first anti-collision mechanism (6) corresponds to the structure of the second anti-collision mechanism (7). [7] Atomizer with shock absorption and noise reduction according to claim 5, characterized bythat a limiting groove (303) extending from bottom to top is arranged on the machine core body (302), wherein the second anti-collision mechanism (7) is located in the receiving space formed by the limiting groove (303). [8] Atomizer with shock absorption and noise reduction according to claim 1, characterized byin that the air outlet pipe (9) has a first interface section (901), a conveying section (902) and a second interface section (903) which are arranged one after the other, wherein the first interface section (901) is used for connecting to the air pump (4), wherein the second interface section (903) is used for connecting to the air outlet opening (101) on the housing, wherein the diameter of the conveying section (902) is greater than the diameter of the first interface section (901), wherein the diameter of the conveying section (902) is greater than the diameter of the second interface section (903), wherein the structure of the air inlet pipe (8) corresponds to the structure of the air outlet pipe (9), wherein the second interface of the air inlet pipe (8) is connected to the air inlet opening. [9] Atomizer with shock absorption and noise reduction according to claim 1, characterized bythat the outer surface of the air pump (4) is coated with a honeycomb sound-absorbing foam (10). [10] Atomizer with shock absorption and noise reduction according to claim 1, characterized by that several shock absorbing feet (12) are arranged on the bottom of the lower shell (2).