An airbag-type shock-absorbing and dehydrating device with a new drainage mechanism

Abstract

The present invention discloses an airbag-type shock-absorbing dehydration device with a novel drainage mechanism, comprising a dehydration device, an airbag shock-absorbing device, a weight sensor, and a drainage detection device; the drainage detection device comprises a total drainage detection mechanism, a main drainage detection mechanism, and a secondary drainage detection mechanism; by arranging the total drainage detection mechanism, the main drainage detection mechanism, and the secondary drainage detection mechanism, water discharged from the dehydration device enters the main drainage detection mechanism and the secondary drainage detection mechanism respectively after flowing through the total drainage detection mechanism, so that a small drainage flow that cannot be detected by flowing through the bottom of the total drainage detection mechanism enters the secondary drainage detection mechanism and is detected separately, thereby improving the accuracy of flow detection, and adjusting the optimal shock-absorbing damping of the airbag shock-absorbing device according to the real-time weight of the dehydration device, thereby obtaining the optimal shock-absorbing effect of the dehydration device, reducing the vibration of the dehydration device, not only improving the dehydration efficiency, but also reducing the damage to the dehydration device and extending the service life.

Description

Technical field

[0001] The present invention relates to the technical field of dehydrators, in particular to an airbag-type shock-absorbing dehydration device with a novel drainage mechanism. [Background Technology]

[0002] Dehydrators in the textile industry are crucial for removing moisture from fabrics. However, traditional dehydrators generate severe vibrations when rotating at high speeds. To reduce this vibration, it is necessary to accurately measure the dehydrator's drainage flow rate to obtain the dehydrator's real-time weight, thereby adjusting the damping of the shock-absorbing device to achieve optimal vibration reduction.

[0003] However, the existing flow detection device is not accurate enough in detecting the drainage flow of the dehydrator, especially when the drainage flow becomes smaller, weaker, and flows through the bottom of the drain pipe, it is difficult to detect the discharged water flow, which causes deviations in the drainage flow detection of the dehydrator, making it difficult to obtain the accurate weight of the dehydrator, and thus unable to accurately adjust the shock absorbing damping of the shock absorbing device, which will cause the vibration of the dehydrator to become more violent, which not only affects the dehydration efficiency, but also easily damages the dehydrator. [Summary of the invention]

[0004] In order to solve the problem of inaccurate drainage flow detection of the above-mentioned dehydrator, the present invention proposes an airbag-type shock-absorbing dehydration device with a new drainage mechanism.

[0005] The present invention is achieved by the following technical solutions:

[0006] An airbag-type shock-absorbing dehydration device with a novel drainage mechanism includes a dehydration device for dehydrating fabrics, an airbag shock-absorbing device provided on the dehydration device for shock absorption, a weight sensor for detecting the weight of the dehydration device, and a drainage detection device for detecting the drainage flow of the dehydration device, wherein the drainage detection device is electrically connected to the airbag shock-absorbing device.

[0007] The drainage detection device includes a main drainage detection mechanism connected to the dehydration device, a main drainage detection mechanism connected to the main drainage detection mechanism, and a secondary drainage detection mechanism provided on the bottom side wall of the main drainage detection mechanism and connected to the interior of the main drainage detection mechanism;

[0008] The total displacement S of the airbag type shock-absorbing and dehydrating device 总 satisfy:

[0009] When S A ≤S B +S C When S 总 =S B +S C ;

[0010] When SA >S B +S C When S 总 =S A ;

[0011] Among them, the S A is the drainage flow detected in the total drainage detection mechanism, and the S B is the drainage flow detected in the main drainage detection mechanism, and the S C The drainage flow rate detected by the secondary drainage detection mechanism;

[0012] When S 总 When the flow rate gradually increases to any preset flow rate value, the air pressure in the airbag shock absorbing device decreases to the preset air pressure value corresponding to the preset flow rate value.

[0013] In the airbag-type shock-absorbing and dehydrating device with a novel drainage mechanism as described above, the drainage detection device further includes a drainage pipe and a flow detection device which is sleeved on the outer wall of the drainage pipe and is used to detect the flow in the drainage pipe.

[0014] In the airbag-type shock-absorbing and dehydrating device with a novel drainage mechanism as described above, the total drainage detection mechanism includes a total drainage pipe connected to the dehydrating device, and a total flow detection device sleeved on the outer wall of the total drainage pipe and used to detect the flow in the total drainage pipe;

[0015] The main drainage detection mechanism includes a main drainage pipe connected to the water outlet end of the main drainage pipe, and a main flow detection device sleeved on the outer wall of the main drainage pipe and used to detect the flow in the main drainage pipe;

[0016] The secondary drainage detection mechanism includes a secondary drainage pipe arranged on the lower side wall of the main drainage pipe and used to connect the inside and outside of the main drainage pipe, and a secondary flow detection device arranged on the outer side wall of the secondary drainage pipe and used to detect the flow in the secondary drainage pipe.

[0017] As described above, an airbag-type shock-absorbing and dehydration device with a new drainage mechanism, the drainage detection device also includes a dehydration outlet pipe arranged between the dehydration device and the main drainage detection mechanism and used to connect the two, and a main outlet pipe respectively connected to the water outlet ends of the main drainage detection mechanism and the auxiliary drainage detection mechanism.

[0018] As described above, an airbag-type shock-absorbing and dehydrating device with a new drainage mechanism, the main drainage pipe is arranged in a horizontal direction, the main drainage pipe is arranged downwardly at an angle and is used to connect the main drainage pipe and the main water outlet pipe, the auxiliary drainage pipe is located below the main drainage pipe and is arranged downwardly at an angle to connect the main drainage pipe and the main water outlet pipe, and the main water outlet pipe is arranged in a horizontal direction.

[0019] As described above, an airbag-type shock-absorbing and dehydrating device with a new drainage mechanism, the auxiliary drainage pipe includes an inclined water pipe connected to the main drainage pipe, and a horizontal water pipe for connecting the inclined water pipe and the main water outlet pipe, and the auxiliary flow detection device is mounted on the outer side wall of the inclined water pipe.

[0020] In the airbag-type shock-absorbing and dehydrating device with a novel drainage mechanism as described above, the main water outlet pipe, the main drainage pipe, and the main water outlet pipe are an integrally formed structure.

[0021] As described above, an airbag-type shock-absorbing dehydration device with a new drainage mechanism includes a frame, a shell provided on the frame, a cloth cage inserted in the shell, and a dehydration drive device for driving the cloth cage to rotate; the airbag shock-absorbing device is located between the shell and the frame, and the drainage detection device is provided on the shell and is used to connect the interior and exterior of the shell.

[0022] As described above, the airbag-type shock-absorbing dehydration device with a novel drainage mechanism is further provided on the shell with a rotating shaft for plugging and cooperating with the cloth cage, and a transmission belt for connecting the rotating shaft and the rotating end of the dehydration drive device.

[0023] As described above, the airbag shock-absorbing dehydration device with a novel drainage mechanism includes a shock-absorbing bracket connected to the frame and a shock-absorbing airbag provided on the shock-absorbing bracket.

[0024] Compared with the prior art, the present invention has the following advantages:

[0025] The present invention proposes an airbag-type shock-absorbing dehydration device with a novel drainage mechanism. By providing a total drainage detection mechanism, a primary drainage detection mechanism, and a secondary drainage detection mechanism, the water discharged from the dehydration device flows through the total drainage detection mechanism and then enters the primary drainage detection mechanism and the secondary drainage detection mechanism respectively. This allows the small drainage flow that flows through the bottom of the total drainage detection mechanism and cannot be detected to enter the secondary drainage detection mechanism and be detected separately, thereby improving the accuracy of flow detection.

[0026] The total displacement S of the airbag type shock-absorbing and dehydrating device 总 satisfy:

[0027] When S A ≤S B +S C When S 总 =S B +S C ;

[0028] When S A >SB +S C When S 总 =S A ;

[0029] Among them, the S A is the drainage flow detected in the total drainage detection mechanism, and the S B is the drainage flow detected in the main drainage detection mechanism, and the S C The drainage flow rate detected by the secondary drainage detection mechanism;

[0030] When S 总 When the flow rate gradually increases to any preset flow rate value, the air pressure in the airbag shock absorbing device decreases to the preset air pressure value corresponding to the preset flow rate value;

[0031] By comparing the flow detection data of the total drainage detection mechanism with the sum of the flow detection data of the main drainage detection mechanism and the auxiliary drainage detection mechanism, the accurate drainage flow of the dehydration device is obtained, and then the accurate weight of the dehydration device is obtained. By triggering the airbag shock absorber device to adjust the internal air pressure, the shock absorption damping of the airbag shock absorber device is changed, so that the optimal shock absorption damping of the airbag shock absorber device is adjusted according to the real-time weight of the dehydration device, and then the optimal shock absorption effect of the dehydration device is obtained, and the vibration of the dehydration device is reduced, which not only improves the dehydration efficiency, but also reduces the damage to the dehydration device and extends its service life.

Brief Description of the Drawings

[0032] In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the following briefly introduces the drawings required for describing the embodiments.

[0033] Figure 1 Schematic diagram of the decomposition structure of the present invention Figure 1 ;

[0034] Figure 2 The cross-sectional structure of the present invention is shown in FIG. Figure 1 ;

[0035] Figure 3 for Figure 1 A magnified view of middle A;

[0036] Figure 4 Schematic diagram of the decomposition structure of the present invention Figure 2 ;

[0037] Figure 5 for Figure 3 Enlarged view of middle B;

[0038] Figure 6 The cross-sectional structure of the present invention is shown in FIG. Figure 2 . [Specific implementation method]

[0039] In order to make the technical problems, technical solutions and beneficial effects solved by the present invention more clearly understood, the present invention is further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.

[0040] Specific embodiments, such as Figures 1 to 6 An airbag-type shock-absorbing dehydration device with a novel drainage mechanism is shown, comprising a dehydration device 1 for dehydrating fabrics, an airbag shock-absorbing device 2 provided on the dehydration device 1 for shock absorption, a weight sensor 4 for detecting the weight of the dehydration device 1, and a drainage detection device 3 for detecting the drainage flow of the dehydration device 1, wherein the drainage detection device 3 is electrically connected to the airbag shock-absorbing device 2;

[0041] The drainage detection device 3 includes a main drainage detection mechanism 31 connected to the dehydration device 1, a main drainage detection mechanism 32 connected to the main drainage detection mechanism 31, and a secondary drainage detection mechanism 33 provided on the bottom side wall of the main drainage detection mechanism 31 and connected to the interior of the main drainage detection mechanism 31;

[0042] The total displacement S of the airbag type shock-absorbing and dehydrating device 总 satisfy:

[0043] When S A ≤S B +S C When S 总 =S B +S C ;

[0044] When S A >S B +S C When S 总 =S A ;

[0045] Among them, the S A is the drainage flow detected by the total drainage detection mechanism 31, and the S B is the drainage flow detected by the main drainage detection mechanism 32, and the S C is the drainage flow detected by the secondary drainage detection mechanism 33;

[0046] When S 总 When the flow rate gradually increases to any preset flow rate value, the air pressure in the airbag shock absorbing device 2 decreases to the preset pressure value corresponding to the preset flow rate value;

[0047] The present invention provides the total drainage detection mechanism 31, the main drainage detection mechanism 32, and the auxiliary drainage detection mechanism 33, so that the water discharged from the dehydration device 1 flows through the total drainage detection mechanism 31 and then enters the main drainage detection mechanism 32 and the auxiliary drainage detection mechanism 33 respectively. This allows the small drainage flow that cannot be detected by flowing through the bottom of the total drainage detection mechanism 31 to enter the auxiliary drainage detection mechanism 33 and be detected separately, thereby improving the accuracy of flow detection.

[0048] By comparing the flow detection data of the total drainage detection mechanism 31 with the sum of the flow detection data of the main drainage detection mechanism 32 and the auxiliary drainage detection mechanism 33, the accurate drainage flow of the dehydration device 1 is obtained, and then the accurate weight of the dehydration device 1 is obtained. By triggering the airbag shock absorber 2 to adjust the internal air pressure, the shock absorption damping of the airbag shock absorber 2 is changed, so that the optimal shock absorption damping of the airbag shock absorber 2 is adjusted according to the real-time weight of the dehydration device 1, and then the optimal shock absorption effect of the dehydration device 1 is obtained, the vibration of the dehydration device 1 is reduced, which not only improves the dehydration efficiency, but also reduces the damage to the dehydration device 1 and extends the service life.

[0049] The present invention also discloses that the flow preset value is Q, and the Q includes Q1, Q2, Q3, Q4, Q5, Q6, etc. whose values increase in sequence; the air pressure preset value is P, and the P includes P1, P2, P3, P4, P5, P6, etc. whose values decrease in sequence and are set in one-to-one correspondence with Q1, Q2, Q3, Q4, Q5, Q6, etc.

[0050] When the drainage flow detection data of the total drainage detection mechanism 31 is S A Greater than the sum of the drainage flow detection data S of the main drainage detection mechanism 32 and the auxiliary drainage detection mechanism 33 B +S C When any data detected by the main drainage detection mechanism 32 and the auxiliary drainage detection mechanism 33 is inaccurate, an alarm is issued to remind the staff to repair it.

[0051] Furthermore, the drainage detection device 3 also includes a drainage pipe 34, and a flow detection device 35 that is sleeved on the outer wall of the drainage pipe and used to detect the flow in the drainage pipe 34; the flow detection device 35 is preferably a flow meter, which detects the drainage flow in the drainage pipe 34 to obtain the weight reduction of the dehydration device 1.

[0052] Furthermore, the total drainage detection mechanism 31 includes a total drainage pipe 311 connected to the dehydration device 1, and a total flow detection device 312 sleeved on the outer wall of the total drainage pipe 311 and used to detect the flow in the total drainage pipe 311;

[0053] The main drainage detection mechanism 32 includes a main drainage pipe 321 connected to the water outlet of the main drainage pipe 311, and a main flow detection device 322 sleeved on the outer wall of the main drainage pipe 321 and used to detect the flow in the main drainage pipe 321;

[0054] The auxiliary drainage detection mechanism 33 includes an auxiliary drainage pipe 331 provided on the lower side wall of the main drainage pipe 311 and used to connect the inside and outside of the main drainage pipe 311, and an auxiliary flow detection device 332 provided on the outer side wall of the auxiliary drainage pipe 331 and used to detect the flow in the auxiliary drainage pipe 331; the water outlet of the main drainage pipe 311 is connected to the main drainage pipe 321, and the water inlet of the auxiliary drainage pipe 331 is connected to the bottom side wall of the main drainage pipe 311; when the drainage flow is large, the water discharged by the dehydration device 1 After passing through the main drain pipe 311, water enters the main drain pipe 321 and the auxiliary drain pipe 331 respectively. When the drainage flow rate is small, the small water flow discharged by the dehydration device 1 passes through the main drain pipe 311 and enters the auxiliary drain pipe 331. The small drainage flow in the auxiliary drain pipe 331 is detected by the auxiliary flow detection device 332, making the small drainage flow rate more accurate. The total flow detection device 312, the main flow detection device 322, and the auxiliary flow detection device 332 are preferably all flow meters.

[0055] The present invention also discloses that the inner diameter of the main drain pipe 311 is equal to the inner diameter of the main drain pipe 321, and the inner diameter of the secondary drain pipe 331 is smaller than the inner diameter of the main drain pipe 311, so that the drainage flow rate flowing through the secondary drain pipe 331 is detected more accurately.

[0056] Specifically, the drainage detection device 3 also includes a dehydration outlet pipe 36 provided between the dehydration device 1 and the total drainage detection mechanism 31 and used to connect the two, and a total outlet pipe 37 respectively connected to the water outlet ends of the main drainage detection mechanism 32 and the auxiliary drainage detection mechanism 33; the dehydration outlet pipe 36 is preferably arc-shaped, which is convenient for introducing the water in the dehydration device 1 into the total drainage detection mechanism 31, and the total outlet pipe 37 is used to collect the water discharged from the main drainage detection mechanism 32 and the auxiliary drainage detection mechanism 33 for easy discharge, with a simple structure and a stable connection.

[0057] In addition, the main drain pipe 311 is arranged in a horizontal direction, the main drain pipe 321 is arranged downwardly at an angle and is used to connect the main drain pipe 311 and the main outlet pipe 37, the auxiliary drain pipe 331 is located below the main drain pipe 321 and is arranged downwardly at an angle to connect the main drain pipe 311 and the main outlet pipe 37, and the main outlet pipe 37 is arranged in a horizontal direction; it is convenient for the water dewatered by the dehydration device 1 to be discharged, and it is convenient to detect the drainage flow of the dehydration device 1.

[0058] In addition, the secondary drain pipe 331 includes an inclined water pipe 3311 connected to the main drain pipe 311, and a horizontal water pipe 3312 for connecting the inclined water pipe 3311 and the main outlet pipe 37. The secondary flow detection device 332 is sleeved on the outer wall of the inclined water pipe 3311; the inclined water pipe 3311 is arranged to be inclined downward, which is convenient for the small drainage flow in the main drain pipe 311 to pass through the inclined water pipe 3311. It has a simple structure and accurate detection.

[0059] Furthermore, the main water outlet pipe 37, the main drainage pipe 321, and the main water outlet pipe 37 are an integrally formed structure; the structure is simple, the connection is stable, the sealing is good, and leakage is prevented.

[0060] Furthermore, the dehydration device 1 includes a frame 11, a shell 12 provided on the frame 11, a cloth cage 13 inserted in the shell 12, and a dehydration drive device 14 for driving the cloth cage 13 to rotate; the airbag shock absorbing device 2 is located between the shell 12 and the frame 11, and the drainage detection device 3 is provided on the shell 12 and is used to connect the interior and exterior of the shell 12; the dehydration drive device 14 is preferably a motor;

[0061] Specifically, the shell 12 is also provided with a rotating shaft 15 for plugging and cooperating with the cloth cage 13, and a transmission belt 16 for connecting the rotating shaft 15 and the rotating end of the dehydration drive device 14; the rotating end of the dehydration drive device 14 drives the rotating shaft 15 to rotate through the transmission belt 16, so that the rotating shaft 15 drives the cloth cage 13 to rotate, thereby generating centrifugal force to dehydrate the cloth in the cloth cage 13.

[0062] More specifically, the airbag shock-absorbing device 2 includes a shock-absorbing bracket 21 connected to the frame 11, and a shock-absorbing airbag 22 arranged on the shock-absorbing bracket 21; the shock-absorbing airbag 22 has a long fatigue life and is not easy to break or damage, thereby enhancing the buffering and shock-absorbing effect, which not only improves the dehydration efficiency of the dehydrator, but also reduces the repair and maintenance costs of the equipment.

[0063] The present invention further discloses a support column 17 provided on the frame 11 and a shock-absorbing spring 18 for connecting the support column 17 and the base 121 , thereby further improving the shock-absorbing effect of the dehydration device 1 during dehydration operation.

[0064] The present invention also discloses that the shell 12 includes a base 121, a shell body 122 arranged around the base 121, a water outlet 123 arranged on the base 121 and passing through the base 121, and a water-blocking baffle 124 arranged on one side of the water outlet 123; the water outlet 123 is connected to the dehydration outlet pipe 36, and the water-blocking baffle 124 is used to guide the water dewatered in the shell 12 to the water outlet 123 for discharge.

[0065] The present invention also discloses a weight sensor 4 provided between the airbag shock absorbing device 2 and the shell 12 , wherein the weight sensor 4 is used to detect the initial weight of the dehydration device 1 before dehydration, and is used to cooperate with the flow detection device 35 to obtain the real-time weight of the dehydration device 1 .

[0066] The working principle of this embodiment is as follows:

[0067] The present invention provides an airbag-type shock-absorbing dehydration device with a novel drainage mechanism, comprising a dehydration device 1 for dehydrating fabrics, an airbag shock-absorbing device 2 provided on the dehydration device 1 and used for shock absorption, a weight sensor 4 for detecting the weight of the dehydration device 1, and a drainage detection device 3 for detecting the drainage flow of the dehydration device 1, wherein the drainage detection device 3 is electrically connected to the airbag shock-absorbing device 2;

[0068] The drainage detection device 3 includes a main drainage detection mechanism 31 connected to the dehydration device 1, a main drainage detection mechanism 32 connected to the main drainage detection mechanism 31, and a secondary drainage detection mechanism 33 provided on the bottom side wall of the main drainage detection mechanism 31 and connected to the interior of the main drainage detection mechanism 31;

[0069] The total displacement S of the airbag type shock-absorbing and dehydrating device 总 satisfy:

[0070] When S A ≤S B +S C When S 总 =S B +S C ;

[0071] When S A >S B +S C When S 总 =S A ;

[0072] Among them, the S A is the drainage flow detected by the total drainage detection mechanism 31, and the S B is the drainage flow detected by the main drainage detection mechanism 32, and the S C is the drainage flow detected by the secondary drainage detection mechanism 33;

[0073] When S 总 When the flow rate gradually increases to any preset flow rate value, the air pressure in the airbag shock absorbing device 2 decreases to the preset pressure value corresponding to the preset flow rate value;

[0074] The present invention provides the total drainage detection mechanism 31, the main drainage detection mechanism 32, and the auxiliary drainage detection mechanism 33, so that the water discharged from the dehydration device 1 flows through the total drainage detection mechanism 31 and then enters the main drainage detection mechanism 32 and the auxiliary drainage detection mechanism 33 respectively. This allows the small drainage flow that cannot be detected by flowing through the bottom of the total drainage detection mechanism 31 to enter the auxiliary drainage detection mechanism 33 and be detected separately, thereby improving the accuracy of flow detection.

[0075] By comparing the flow detection data of the total drainage detection mechanism 31 with the sum of the flow detection data of the main drainage detection mechanism 32 and the auxiliary drainage detection mechanism 33, the accurate drainage flow of the dehydration device 1 is obtained, and then the accurate weight of the dehydration device 1 is obtained. By triggering the airbag shock absorber 2 to adjust the internal air pressure, the shock absorption damping of the airbag shock absorber 2 is changed, so that the optimal shock absorption damping of the airbag shock absorber 2 is adjusted according to the real-time weight of the dehydration device 1, and then the optimal shock absorption effect of the dehydration device 1 is obtained, the vibration of the dehydration device 1 is reduced, which not only improves the dehydration efficiency, but also reduces the damage to the dehydration device 1 and extends the service life.

[0076] The above is an implementation method provided in conjunction with specific content, and the specific implementation of the present invention is not limited to these descriptions. At the same time, due to differences in industry nomenclature, it is not limited to the above nomenclature, nor is it limited to English nomenclature. Any similarity or similarity to the method, structure, etc. of the present invention, or any technical deduction or substitution based on the concept of the present invention, shall be considered within the scope of protection of the present invention.

Claims

1. An airbag-type shock-absorbing and dehydrating device with a drainage mechanism, characterized in that: The invention comprises a dehydration device (1) for dehydrating cloth, an airbag shock-absorbing device (2) provided on the dehydration device (1) and used for shock absorption, a weight sensor (4) for detecting the weight of the dehydration device (1), and a drainage detection device (3) for detecting the drainage flow of the dehydration device (1), wherein the drainage detection device (3) is electrically connected to the airbag shock-absorbing device (2); the drainage detection device (3) comprises a total drainage detection mechanism (31) connected to the dehydration device (1), a main drainage detection mechanism (32) in communication with the total drainage detection mechanism (31), and a secondary drainage detection mechanism (33) provided on the bottom side wall of the total drainage detection mechanism (31) and in communication with the interior of the total drainage detection mechanism (31); The total displacement Stotal of the airbag-type shock-absorbing and dehydrating device satisfies: When SA≤SB+SC, Stotal=SB+SC; When SA>SB+SC, S always=SA; Wherein, the SA is the drainage flow detected by the total drainage detection mechanism (31), the SB is the drainage flow detected by the main drainage detection mechanism (32), and the SC is the drainage flow detected by the auxiliary drainage detection mechanism (33); When Stotal gradually increases to any preset flow value, the air pressure in the airbag shock absorbing device (2) decreases to a preset air pressure value corresponding to the preset flow value.

2. The airbag-type shock-absorbing and dehydrating device with a drainage mechanism according to claim 1, characterized in that: The drainage detection device (3) further comprises a drainage pipe (34), and a flow detection device (35) sleeved on the outer wall of the drainage pipe and used for detecting the flow in the drainage pipe (34).

3. The airbag-type shock-absorbing and dehydrating device with a drainage mechanism according to claim 1, characterized in that: The total drainage detection mechanism (31) comprises a total drainage pipe (311) connected to the dehydration device (1), and a total flow detection device (312) sleeved on the outer wall of the total drainage pipe (311) and used to detect the flow in the total drainage pipe (311); The main drainage detection mechanism (32) comprises a main drainage pipe (321) in communication with the water outlet end of the main drainage pipe (311), and a main flow detection device (322) sleeved on the outer wall of the main drainage pipe (321) and used to detect the flow in the main drainage pipe (321); The auxiliary drainage detection mechanism (33) comprises an auxiliary drainage pipe (331) provided on the lower side wall of the main drainage pipe (311) and used to connect the inside and outside of the main drainage pipe (311), and an auxiliary flow detection device (332) sleeved on the outer side wall of the auxiliary drainage pipe (331) and used to detect the flow in the auxiliary drainage pipe (331).

4. The airbag-type shock-absorbing and dehydrating device with a drainage mechanism according to claim 3, characterized in that: The drainage detection device (3) further comprises a dehydration outlet pipe (36) provided between the dehydration device (1) and the main drainage detection mechanism (31) and used to connect the two, and a main drainage outlet pipe (37) respectively connected to the water outlet ends of the main drainage detection mechanism (32) and the auxiliary drainage detection mechanism (33).

5. The airbag-type shock-absorbing and dehydrating device with a drainage mechanism according to claim 4, characterized in that: The main drainage pipe (311) is arranged in a horizontal direction, the main drainage pipe (321) is arranged obliquely downward and is used to connect the main drainage pipe (311) and the main water outlet pipe (37), the auxiliary drainage pipe (331) is located below the main drainage pipe (321) and is arranged obliquely downward and is used to connect the main drainage pipe (311) and the main water outlet pipe (37), and the main water outlet pipe (37) is arranged in a horizontal direction.

6. The airbag-type shock-absorbing and dehydrating device with a drainage mechanism according to claim 4, characterized in that: The auxiliary drainage pipe (331) comprises an inclined water pipe (3311) connected to the main drainage pipe (311), and a horizontal water pipe (3312) for connecting the inclined water pipe (3311) and the main water outlet pipe (37). The auxiliary flow detection device (332) is sleeved on the outer side wall of the inclined water pipe (3311).

7. The airbag-type shock-absorbing and dehydrating device with a drainage mechanism according to claim 4, characterized in that: The main water outlet pipe (37) and the main drainage pipe (321) are an integrally formed structure.

8. The airbag-type shock-absorbing and dehydrating device with a drainage mechanism according to claim 1, characterized in that: The dehydration device (1) comprises a frame (11), a shell (12) arranged on the frame (11), a cloth cage (13) inserted into the shell (12), and a dehydration drive device (14) for driving the cloth cage (13) to rotate; the airbag shock absorbing device (2) is located between the shell (12) and the frame (11); the drainage detection device (3) is arranged on the shell (12) and is used to connect the inside and outside of the shell (12).

9. An airbag-type shock-absorbing dehydration device with a drainage mechanism according to claim 8, wherein the housing (12) is further provided with a rotating shaft (15) for plugging and cooperating with the cloth cage (13), and a transmission belt (16) for connecting the rotating shaft (15) and the rotating end of the dehydration drive device (14).

10. The airbag-type shock-absorbing and dehydrating device with a drainage mechanism according to claim 8, characterized in that: The airbag shock absorbing device (2) comprises a shock absorbing bracket (21) connected to the frame (11), and a shock absorbing airbag (22) provided on the shock absorbing bracket (21).

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