Electronic snuffle valve device
By using an electronic deflation valve device, the tire pressure is automatically controlled by a control circuit board and a drive motor, which solves the problem of time-consuming and laborious manual deflation operations and achieves precise adjustment of tire pressure.
Patent Information
- Application Number
- CN202520167704.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-23
- Publication Date
- 2025-12-19
- Estimated Expiration
- 2035-01-23
AI Technical Summary
In existing technologies, deflation of vehicle tires requires manual detection and repeated adjustments of tire pressure, which is time-consuming and labor-intensive, and makes it difficult to achieve precise automatic deflation control, especially in special terrains.
It adopts an electronic venting valve device, which includes a control circuit board, a drive motor, a pressure sensor, and a three-way fitting. By detecting the gas pressure value inside the tire and automatically controlling the venting process, the drive motor drives the sliding kit to open and close the venting hole to achieve precise venting.
It achieves automatic tire pressure adjustment, avoiding the tedious process of manual inspection and ensuring that the tire can be accurately deflated to the required pressure value on special terrains.
Smart Images

Figure CN223690490U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to an electronic deflation valve device, and in particular to an electronic deflation valve device capable of detecting the gas pressure value of an external inflatable object and determining whether to start an automatic deflation program. BACKGROUND
[0002] Generally, vehicle tires or various inflatable objects (such as inflatable beds, inflatable boats, etc.) need to be inflated by an inflator as an auxiliary inflation device to effectively save manpower and time. In addition, for vehicle tires, an inflator is needed as an inflation device to accurately control the tire pressure and avoid insufficient or excessive tire pressure.
[0003] For vehicles (such as a sand buggy) in some special terrain and environment (such as a beach or a desert), the tire pressure needs to be deflated to below the general tire pressure value, such as below 2.4 bar (35 PSI), to allow the sand buggy to easily drive on the sand to avoid the tire sinking into the sand. Therefore, the deflation program operation required by the sand buggy is a very important control program for the sand buggy to drive on the sand.
[0004] However, the tire deflation operation is mainly completed manually by pressing the tire valve and deflating the tire. However, during the deflation process, in order to avoid excessive deflation of the tire, the user must repeatedly check the tire pressure with a pressure gauge. If the required deflation pressure value of the tire has not been reached, the user continues to deflate the tire manually. If the tire pressure is deflated too much, the tire must be inflated again by the inflator. Therefore, the repeated time-consuming and labor-intensive operation is very inconvenient.
[0005] Therefore, how to provide an electronic deflation valve device capable of detecting the gas pressure value of an external inflatable object to determine whether to start an automatic deflation program is the main problem to be solved by the present utility model. SUMMARY
[0006] To solve the above problems, the utility model discloses a kind of electronic air release valve devices, including an electronic control module, a three-way pipe and a sliding sleeve component;The electronic control module includes a control circuit board, the control circuit board electrically connected with a drive motor, a pressure sensor and a power supply unit, power is supplied to control circuit board, drive motor and pressure sensor by power supply unit, the drive motor is combined with a lead screw, and control circuit board electrically set with a relief value, the relief value can be compared with the pressure value detected by pressure sensor;The three-way pipe is provided with a first gas passage, a second gas passage and a third gas passage, and the first gas passage is connected with a gas chuck, the gas chuck is used to be connected with the gas nozzle of the external preset inflator, so that the internal gas of inflator flows into three-way pipe through gas chuck, and the opening end of the second gas passage is combined with pressure sensor;The third gas passage is closed at the end and is provided with at least one air release hole at the side thereof;The sliding sleeve component is provided with a first hollow sleeve and a second hollow sleeve, the inner wall of the first hollow sleeve is provided with threads and is relatively screwed on the lead screw, so that the sliding sleeve component can linearly move on the lead screw, and the second hollow sleeve is relatively sleeved on the outside of the third gas passage and simultaneously closes the air release hole.
[0007] Therefore, the internal gas of inflator flows into three-way pipe through gas chuck, first gas passage, and then the pressure value of internal gas of inflator is detected by pressure sensor, and when the pressure value of internal gas of inflator is greater than the relief value set by control circuit board, the drive motor is started by control circuit board, and then the second hollow sleeve of sliding sleeve component is driven away from the air release hole of third gas passage by the drive motor, so that the internal gas of inflator can be discharged from the air release hole, and the precise deflation function of inflator is achieved.
[0008] The utility model discloses a kind of electronic air release valve devices, including an electronic control module, a three-way pipe and a sliding sleeve component;The electronic control module includes a control circuit board, the control circuit board electrically connected with a drive motor, a pressure sensor and a power supply unit, power is supplied to control circuit board, drive motor and pressure sensor by power supply unit, the drive motor is combined with a lead screw, and control circuit board electrically set with a relief value, the relief value can be compared with the pressure value detected by pressure sensor;The three-way pipe is provided with a first gas passage, a second gas passage and a third gas passage, and the first gas passage is connected with a gas chuck, the gas chuck is used to be connected with the gas nozzle of the external preset inflator, so that the internal gas of inflator flows into three-way pipe through gas chuck, and the opening end of the second gas passage is combined with pressure sensor;The third gas passage is closed at the end and is provided with at least one air release hole at the side thereof;The sliding sleeve component is provided with a first hollow sleeve and a second hollow sleeve, the inner wall of the first hollow sleeve is provided with threads and is relatively screwed on the lead screw, so that the sliding sleeve component can linearly move on the lead screw, and the second hollow sleeve is relatively sleeved on the outside of the third gas passage and simultaneously closes the air release hole. BRIEF DESCRIPTION OF DRAWINGS
[0009] The utility model will be further explained in detail in combination with the drawings and specific embodiment.
[0010] Figure 1 The utility model discloses an electronic deflating valve device one appearance schematic drawing.
[0011] Figure 2 The utility model discloses an electronic deflating valve device one exploded view.
[0012] Figure 3 The utility model discloses an electronic deflating valve device internal structure plan view.
[0013] Figure 4 The utility model discloses an electronic deflating valve device local element section view and control action schematic drawing.
[0014] Figure 5 The utility model discloses an electronic deflating valve device test holds electronic control module one architecture schematic drawing.
[0015] Mark explanation
[0016] 1, electronic control module
[0017] 11, control circuit board
[0018] 111, display screen
[0019] 112, control key
[0020] 113, charging port
[0021] 12, drive motor
[0022] 13, pressure sensor
[0023] 14, rechargeable battery
[0024] 2, three -way pipe spare
[0025] 21, first gas passage
[0026] 22, second gas passage
[0027] 221, first sealing rubber ring
[0028] 23, third gas passage
[0029] 231, deflation hole
[0030] 232, second sealing rubber ring
[0031] 3, air chuck
[0032] 4, lead screw
[0033] 5, sliding sleeve spare
[0034] 51, first hollow sleeve
[0035] 52. second hollow sleeve
[0036] 6. bearing
[0037] 7. inner housing
[0038] 8. outer housing
[0039] 81. press key
[0040] 82. charging aperture
[0041] 83. exhaust hole DETAILED DESCRIPTION
[0042] The technical solutions in the embodiments of the utility model will be described clearly and completely in combination with the drawings in the embodiments of the utility model. In the following description, a large number of specific details are set forth in order to facilitate a full understanding of the utility model, but the utility model can also be implemented in other manners different from those described herein, and those skilled in the art can make similar generalizations without departing from the connotation of the utility model, therefore, the utility model is not limited by the specific embodiments disclosed below.
[0043] Please refer to Figure 1 , Figure 2 , Figure 3 , Figure 4 and Figure 5 , the utility model discloses an electronic type air release valve device, including an electronic control module 1, a three -way pipe spare 2, a sliding sleeve spare 5, an inner housing 7 and an outer housing 8.
[0044] The electronic control module 1 includes a control circuit board 11, and the control circuit board 11 is electrically connected to be provided with a display screen 111, at least one control key 112 and a charging port 113, and the control circuit board 11 is electrically connected to a drive motor 12, a pressure sensor 13 and a power supply unit 14;The drive motor 12 is combined with a lead screw 4 at the axis center;The pressure sensor 13 is used to detect the pressure value of the gas inside an external inflatable object, and the pressure value of the gas inside the external inflatable object is transmitted to the control circuit board 11 for signal processing;The power supply unit 14 is used to supply power to the control circuit board 11, the drive motor 12 and the pressure sensor 13;The power supply unit 14 can be a rechargeable battery (such as a lithium battery). The control circuit board 11 has at least one microcontroller, so that the control circuit board 11 can process and control signals, and the control circuit board 11 can set a pressure relief value for the user, and compare the pressure relief value with the pressure value detected by the pressure sensor. The charging port 113 can be one of USB Type-A, USB Type-B or USB Type-C.
[0045] The three-way pipe 2 is provided with a first gas passage 21, a second gas passage 22 and a third gas passage 23; the first gas passage 21 is connected with a gas clamp head 3, the gas clamp head 3 is used to be connected with a gas nozzle of a preset inflating object outside, so that the gas inside the inflating object flows into the three-way pipe 2 through the gas clamp head 3 and the first gas passage 21; the second gas passage 22 is combined with a pressure sensor 13 at an open end, and a first sealing rubber ring 221 is arranged at the open end of the second gas passage 22, so that the pressure sensor 13 can be sealingly combined with the open end of the second gas passage 22; the third gas passage 23 is closed at the end and is provided with at least one air vent 231 at the side, and a second sealing rubber ring 232 is arranged on the two sides of the third gas passage 23 outside the air vent 231.
[0046] The sliding sleeve 5 is provided with a first hollow sleeve 51 and a second hollow sleeve 52, the inner wall of the first hollow sleeve 51 is provided with threads and is screwed on the lead screw 4, so that the sliding sleeve 5 can linearly reciprocate along the lead screw 4; the second hollow sleeve 52 is sealingly combined with the two second sealing rubber rings 232 arranged on the outer part of the third gas passage 23 of the three-way pipe 2 and closes the air vent 231, so that the second hollow sleeve 52 can tightly close the air vent 231.
[0047] The inner housing 7 includes upper and lower housings, and is used to relatively arrange the driving motor 12, the lead screw 4, the three-way pipe 2 and the sliding sleeve 5; the gas clamp head 3 connected with the first gas passage 21 of the three-way pipe 2 extends out of the inner housing 7, and the inner housing 7 is provided with a bearing 6, the bearing 6 is sealingly combined with the end of the lead screw 4 (i.e. the other end not connected with the driving motor 12).
[0048] The outer housing 8 includes upper and lower housings, and is used to relatively cover the inner housing 7, the control circuit board 11 and the power supply unit 14; the control circuit board 11 can be located at the top of the inner housing 7, the power supply unit 14 is located at the bottom of the inner housing 7, and the gas clamp head 3 connected with the first gas passage 21 of the three-way pipe 2 extends out of the outer housing 8; the outer housing 8 is provided with a pressing key 81, a charging opening 82 and a plurality of exhaust holes 83; the pressing key 81 corresponds to the control key 112 arranged on the control circuit board 11, so that the pressing key 81 can be pressed to correspondingly press the control key 112; the charging opening 82 corresponds to the charging port 113 arranged on the control circuit board 11, so that the charging plug of the external power line can be inserted into the charging opening 82 and electrically connected with the charging port 113, and the external power line is used to transmit power to charge the power supply unit 14.
[0049] The utility model discloses the electronic control module 1 is set to the mode of operation, wherein;
[0050] Operation mode 1: First press the press key 81 (i.e. press the control key 112) to start the electronic deflation valve device (i.e. make the control circuit board 11 power on), at this time, when the pressure sensor 13 does not detect the external pressure value, press the press key 81 again to set the required pressure relief value for the control circuit board 11.
[0051] Operation mode 2: First press the press key 81 (i.e. press the control key 112) to start the electronic deflation valve device (i.e. make the control circuit board 11 power on); at this time, if the pressure sensor 13 has detected the external pressure value, and the external pressure value is greater than the pressure relief value set by the control circuit board 11, press the press key 81 again, and the control circuit board 11 controls the driving motor 12 to start and rotate in one direction (e.g. clockwise), so as to perform the deflation operation (which will be described in detail below), until the pressure sensor 13 detects that the external pressure value is equal to or less than the pressure relief value, and the control circuit board 11 controls the driving motor 12 to start and rotate in the other direction (e.g. counterclockwise), so as to stop the deflation operation.
[0052] The pressure value detected by the pressure sensor 13 and the pressure relief value set by the control circuit board 11 can be displayed by the display screen 111.
[0053] The utility model discloses the use and operation mode embodiment of electronic deflation valve device; when the control circuit board 11 has set up a pressure relief value, the gas chuck 3 is connected with the gas nozzle of the external preset inflating object (such as tire), so that the gas in the inflating object flows into the tee piece 2 through the gas chuck 3 and the first gas passage 21, and the pressure sensor 13 is used to detect the gas pressure value in the external inflating object; if the gas pressure value in the external inflating object is greater than the pressure relief value set by the control circuit board 11, then the control circuit board 11 controls the driving motor 12 to start, and at this time, the driving motor 12 drives the lead screw 4 to rotate in one direction (e.g. clockwise), and when the lead screw 4 rotates clockwise, the first hollow sleeve 51 and the second hollow sleeve 52 of the sliding sleeve 5 are synchronously moved to the bearing 6, i.e. the second hollow sleeve 52 of the sliding sleeve 5 is driven by the driving motor 12 to move away from the deflation hole 231 of the third gas passage 23, so that the gas in the external inflating object can be discharged from the deflation hole 231, and the inflating object is deflated; the gas deflated from the external inflating object is discharged outward through the plurality of exhaust holes 83 of the shell 8.
[0054] If the pressure value of the internal gas of the external inflatable article detected by the pressure sensor 13 is equal to or less than the relief pressure value set by the control circuit board 11, the driving motor 12 is controlled to start by the control circuit board 11, at this time, the driving motor 12 drives the lead screw 4 to rotate in the other direction (for example, counterclockwise), when the lead screw 4 rotates counterclockwise, the first hollow sleeve 51 and the second hollow sleeve 52 of the sliding sleeve assembly 5 are synchronously moved to the direction of the air release hole 231, that is, the second hollow sleeve 52 of the sliding sleeve assembly 5 is driven by the driving motor 12 to close the air release hole 231 of the third gas passage 23, so as to stop the air release of the inflatable article.
[0055] In summary, the main technical features of the utility model are that the control circuit board 11 is electrically connected with the driving motor 12 and the pressure sensor 13, and the control circuit board 11 can set a relief pressure value; the first gas passage 21 and the second gas passage 22 of the three-way pipe assembly 2 are respectively connected with the external inflatable article and the pressure sensor 13, and the third gas passage 23 is provided with the air release hole 231, the sliding sleeve assembly 5 is driven by the driving motor 12 to control the air release hole 231 of the third gas passage 23 to stop or open; that is, when the pressure value of the internal gas of the external inflatable article is greater than the relief pressure value set by the control circuit board 11, the driving motor 12 is controlled to start by the control circuit board 11, and the air release hole 231 of the third gas passage 23 is opened by the driving motor 12 to drive the sliding sleeve assembly 5, so that the internal gas of the inflatable article can be discharged from the air release hole 231, and the electronic control module 1 can accurately determine whether to start the automatic air release program of the inflatable article and obtain the accurate pressure value after air release.
[0056] Obviously, the described embodiments are only part of the embodiments of the utility model, not all. Based on the embodiments in the utility model, all other embodiments obtained by those skilled in the art without creative labor belong to the scope of protection of the utility model.
Claims
1. An electronic deflation valve apparatus, characterized by, The application comprises: an electronic control module, which comprises a control circuit board electrically connected with a driving motor, a pressure sensor and a power supply unit, the power supply unit supplies power to the control circuit board, the driving motor and the pressure sensor, the driving motor is combined with a lead screw, the control circuit board is provided with a relief value, and the relief value is compared with the pressure value detected by the pressure sensor; a three-way pipe, which is provided with a first gas passage, a second gas passage and a third gas passage, the first gas passage is connected with a gas chuck, the gas chuck is used to be connected with a gas nozzle provided on an external preset inflatable object, the opening end of the second gas passage is combined with the pressure sensor, and the end of the third gas passage is closed and provided with at least one air vent on the side thereof; a sliding sleeve, which is provided with a first hollow sleeve and a second hollow sleeve, the inner wall of the first hollow sleeve is provided with threads and is relatively sleeved on the lead screw, so that the sliding sleeve can linearly move on the lead screw, and the second hollow sleeve is relatively sleeved on the outside of the third gas passage and closes the air vent; the gas chuck is connected with the gas nozzle of the inflatable object, and the pressure value of the gas inside the inflatable object is detected by the pressure sensor, when the pressure value of the gas inside the inflatable object is greater than the relief value, the control circuit board controls the driving motor to start, the driving motor drives the lead screw and drives the second hollow sleeve of the sliding sleeve away from the air vent, so that the gas inside the inflatable object can be discharged from the air vent.
2. The electronic air release valve apparatus of claim 1, wherein, the control circuit board is electrically connected with a display screen, at least one control key and a charging port.
3. The electronic air release valve apparatus of claim 2, wherein, when the control key is pressed, the control circuit board is powered on, when the pressure sensor does not detect the external pressure value, the control key is pressed again to set the required relief value of the control circuit board.
4. The electronic air release valve apparatus of claim 2, wherein, when the control key is pressed, the control circuit board is powered on, when the pressure sensor detects the external pressure value and the external pressure value is greater than the relief value set by the control circuit board, the control key is pressed again to control the driving motor to start and rotate in one direction by the control circuit board.
5. The electronic air release valve apparatus of claim 4, wherein, when the pressure sensor detects that the external pressure value is equal to or less than the relief value, the driving motor is controlled to start and rotate in the other direction by the control circuit board.
6. The electronic air loss valve apparatus of claim 1, wherein, the opening end of the second gas passage is provided with a first sealing rubber ring, so that the pressure sensor can be sealingly combined with the opening end of the second gas passage.
7. The electronic air loss valve apparatus of claim 1, wherein the outside of the third gas passage is provided with a second sealing rubber ring relative to the two sides of the air vent.
8. The electronic air loss valve apparatus of claim 1, wherein, the application comprises an inner shell, which is used to relatively arrange the driving motor, the lead screw, the three-way pipe and the sliding sleeve, the gas chuck connected with the first gas passage extends out of the inner shell, and the inner shell is provided with a bearing inside.
9. The electronic air release valve apparatus of claim 8, wherein, the application comprises an outer shell, which is used to relatively cover the inner shell, the control circuit board and the power supply unit, the gas chuck connected with the first gas passage extends out of the outer shell.
10. The electronic air release valve apparatus of claim 9, wherein, The control circuit board is electrically connected with at least one control key and one charging port. The shell body is respectively provided with a press key, a charging opening and a plurality of exhaust holes. The press key corresponds to the control key of the control circuit board. The charging opening corresponds to the charging port of the control circuit board. The charging plug of an external power line can be placed in the charging opening and electrically connected with the charging port. The external power line is used to transmit power to charge the power supply unit.