Evaporator for automobile air conditioner

Abstract

The present invention discloses an evaporator for an automobile air-conditioner, which relates to the technical field of automobile air-conditioning, and comprises a supporting outer frame and an evaporator body, wherein the evaporator body is fixedly connected to the interior of the supporting outer frame, and the internal top wall of the supporting outer frame is fixedly connected to two diversion boxes, and the outside of the diversion box is fixedly connected to a plurality of blocking and shrinking airbags, and the supporting outer frame is fixedly connected to the micro air pump, and the air outlet of the micro air pump is connected to an air supply hose. When the plurality of blocking and shrinking airbags continue to expand laterally, the evaporator body can be sealed in a separate space in cooperation with the supporting outer frame, so that the evaporator body is no longer in contact with the outside air when not in use, thereby reducing the phenomenon that dust in the outside air adheres to the louver fins of the evaporator body, and the plurality of blocking and shrinking airbags filled with gas are lighter in overall weight, thereby reducing the burden on vehicle operation.

Description

Technical Field

[0001] The present invention relates to the technical field of automobile air conditioners, and in particular to an evaporator for an automobile air conditioner. Background Art

[0002] The operating principle of an automotive air conditioner's evaporator is based on the physics phenomenon of heat absorption through evaporation. When low-temperature, low-pressure liquid refrigerant flows from the expansion valve into the evaporator, its temperature and pressure begin to drop. Inside the evaporator, the liquid refrigerant absorbs heat from the surrounding air before evaporating into a vapor. This process absorbs a significant amount of heat, both from the evaporator itself and from the surrounding air, achieving the desired cooling effect.

[0003] In the patent titled "An Evaporator for Automobile Air Conditioning" and with the authorization number CN110553426B, it is proposed that in the prior art, a large amount of fine dust contained in the air flow will accumulate on the shutter fins of the automobile evaporator. The dust will clog and corrode the shutter fins, affecting the working efficiency of the evaporator. The air inlet and outlet components control the air inlet and outlet of several air inlet slots. After the evaporator body has worked for a certain period of time, the evaporator body stops working. At this time, the air inlet and outlet components work to prevent the outside air flow from passing through the several air inlet slots to flow into the installation protective shell. Then, the two moving components work synchronously to drive the cleaning. The cleaning component moves, and while the cleaning component moves, it cleans the fine dust accumulated on the louver fins in the evaporator body. The cleaned dust falls into the two collecting components for collection, preventing the dust from clogging and corroding the louver fins, and will not affect the working efficiency of the evaporator body. However, the overall use of multiple motors and multiple gears to form a sealing device is heavy, which increases the overall weight of the evaporator. In addition, during the process of adjusting the evaporator intake stroke, it can only perform two fixed air inlet and outlet strokes of opening and closing, and cannot be properly adjusted according to the working power of the evaporator. Therefore, an evaporator for an automobile air conditioner is proposed. Summary of the Invention

[0004] The object of the present invention is to provide an evaporator for automobile air conditioning to solve the problems raised in the above background technology.

[0005] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: an evaporator for an automobile air conditioner, comprising a supporting outer frame and an evaporator body, the evaporator body being fixedly connected to the interior of the supporting outer frame, the inner top wall of the supporting outer frame being fixedly connected to two diversion boxes, the outside of the diversion box being fixedly connected to a plurality of blocking and shrinking airbags, a micro air pump being fixedly connected to the supporting outer frame, the air outlet of the micro air pump being connected to an air supply hose, the end of the air supply hose away from the micro air pump passing through the outer wall of the supporting outer frame and being connected to one of the diversion boxes, the two diversion boxes being connected to each other through an intermediate pipe, the plurality of blocking and shrinking airbags connected to the two diversion boxes being respectively located on both sides of the evaporator body, the blocking and shrinking airbag being connected to a first electrically controlled valve, the end of the first electrically controlled valve away from the blocking and shrinking airbag being connected to the diversion box.

[0006] Preferably, multiple outward-expanding airbags are integrally formed on both sides of the blocking and shrinking airbag, and the interior of the blocking and shrinking airbag is fixedly connected to a conveying shunt pipe, and multiple outlet positions of the conveying shunt pipe are connected to a second electrically controlled valve, and the air inlet of the second electrically controlled valve is connected to the outward-expanding airbag.

[0007] Preferably, both sides of the blocking and shrinking airbag and the side of the outward-expanding airbag away from the blocking and shrinking airbag are fixedly connected with electromagnets, the electromagnet located on the left side of the blocking and shrinking airbag is a positive magnetic attraction component, and the electromagnet located on the right side of the blocking and shrinking airbag is a negative magnetic attraction component. The mutual adsorption of the electromagnet on the left and the electromagnet on the right can drive the multiple inflated blocking and shrinking airbags to fit closely together, thereby reducing the phenomenon of gaps between adjacent blocking and shrinking airbags after the expansion of multiple blocking and shrinking airbags.

[0008] Preferably, the outside of the electromagnet is connected to multiple guide plates through a soft film, a first pull rope is integrally formed inside the electromagnet on the left side of the blocking and shrinking airbag, and a second pull rope is integrally formed on the outer walls of multiple guide plates outside the electromagnet on the right side of the blocking and shrinking airbag, and the ends of the first pull rope and the second pull rope away from the electromagnet pass through the outer wall of the blocking and shrinking airbag and are fixedly connected to the outer wall of the conveying diversion tube.

[0009] Preferably, a plurality of cleaning brush rods are integrally formed on the outside of the blocking and shrinking airbag, and the initial length of the cleaning brush rods fits the outer wall of the evaporator body. During the lateral expansion of the blocking and shrinking airbag, the cleaning brush rods fit the outer wall of the evaporator body and sweep the outer wall of the evaporator body back and forth to reduce dust adhesion.

[0010] Preferably, a placement cavity is provided inside the cleaning brush rod, and the placement cavity is filled with a plurality of balls.

[0011] Preferably, a plurality of inclined spray holes are provided on the outside of the cleaning brush rod, and the inclined spray holes are opened at an angle. The inclined spray holes are used to transport the gas inside the airbag that blocks the contraction to the inside of the placement cavity. After the gas enters the placement cavity, it drives the ball to vibrate. When the ball vibrates, it drives the cleaning brush rod to enhance the cleaning performance of the evaporator body, and the gas entering the placement cavity is ejected through the inclined spray holes, and the dust attached to the surface of the evaporator body is blown away by the ejected gas.

[0012] Preferably, the outside of the cleaning brush rod is integrally formed with an outer rubber magnetic layer. When the outer rubber magnetic layer is attracted to each other, it will drive the inclined spray hole to close. When the outer rubber magnetic layer drives the inclined spray hole to close, it can avoid blocking the gas in the contracted airbag from continuously leaking through the inclined spray hole.

[0013] Preferably, a snap-in groove is provided below the supporting outer frame, and a collection box is snap-into the interior of the snap-in groove.

[0014] Preferably, an electrostatic sticker is integrally formed on one end of the cleaning brush rod away from the blocking and shrinking airbag.

[0015] Compared with the prior art, the present invention has the following beneficial effects:

[0016] In the present invention, gas is continuously injected into the interior of the diverter box by a micro air pump, and in the process of continuously injecting gas into the interior of the diverter box, the gas is diverted into the blocking and shrinking airbags through the diverter box. When gas continues to enter the blocking and shrinking airbags, expansion will occur. When multiple blocking and shrinking airbags continue to expand laterally, the evaporator body can be sealed in a separate space in conjunction with the supporting outer frame, so that the evaporator body is no longer in contact with the outside air when not in use, reducing the phenomenon of dust in the outside air adhering to the louver fins of the evaporator body. The multiple blocking and shrinking airbags filled with gas have a lighter overall weight, reducing the burden on vehicle operation. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 A schematic diagram of the three-dimensional structure of an embodiment of the present invention;

[0018] Figure 2 Schematic diagram of the structure of the evaporator body and the diverter box in an embodiment of the present invention;

[0019] Figure 3 Schematic diagram of the structure of the airbag in the expanded state to prevent contraction in an embodiment of the present invention;

[0020] Figure 4 This is a schematic structural diagram of the expanded state of the outward-expanding airbag in an embodiment of the present invention;

[0021] Figure 5 Schematic diagram of the structure of the delivery shunt pipe and the second electric control valve in an embodiment of the present invention;

[0022] Figure 6 Schematic diagram of the structure of the electromagnet and the guide plate in an embodiment of the present invention;

[0023] Figure 7 Schematic diagram of the structure of the electromagnet and the guide plate in the deformation state according to an embodiment of the present invention;

[0024] Figure 8 For the embodiment of the present invention Figure 4 Schematic diagram of the enlarged structure of area A;

[0025] Figure 9 Schematic diagram of the cross-sectional structure of the cleaning brush rod in an embodiment of the present invention.

[0026] In the figure: 100, supporting outer frame; 101, micro air pump; 102, evaporator body; 103, diverter box; 104, blocking contraction airbag; 105, first electrically controlled valve; 200, outward expansion airbag; 201, conveying diverter pipe; 202, second electrically controlled valve; 300, electromagnet; 400, guide plate; 401, first pull rope; 402, second pull rope; 500, cleaning brush rod; 501, outer rubber magnetic layer; 600, placement of inner cavity; 601, ball; 700, inclined spray hole; 800, collection box; 900, electrostatic sticker. DETAILED DESCRIPTION

[0027] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0028] Example 1: Figure 1As shown, the present application provides an evaporator for an automobile air conditioner, comprising a supporting outer frame 100 and an evaporator body 102. The evaporator body 102 is fixedly connected to the interior of the supporting outer frame 100. Two diverter boxes 103 are fixedly connected to the inner top wall of the supporting outer frame 100. A plurality of blocking and shrinking airbags 104 are fixedly connected to the outside of the diverter box 103. A micro air pump 101 is fixedly connected to the supporting outer frame 100. The air outlet of the micro air pump 101 is connected to an air supply hose. The end of the air supply hose away from the micro air pump 101 passes through the outer wall of the supporting outer frame 100 and is connected to one of the diverter boxes 103. The two diverter boxes 103 are connected to each other through an intermediate pipeline. The plurality of blocking and shrinking airbags 104 connected to the two diverter boxes 103 are respectively located on both sides of the evaporator body 102. The blocking and shrinking airbags 104 are connected to a first electrically controlled valve 105. The end of the first electrically controlled valve 105 away from the blocking and shrinking airbags 104 is connected to the diverter box 103.

[0029] Specifically, during use, when the evaporator body 102 is in normal operation and the multiple blocking and shrinking airbags 104 are in a normal state, the external airflow can continue to enter the inner part of the supporting outer frame 100 and come into contact with the evaporator body 102. When the evaporator body 102 is no longer in operation, the staff can start the micro air pump 101 to continuously inject gas into the gas hose. When the gas is continuously injected into the gas hose, the gas will gradually be transported to the inside of the diversion box 103. When the gas is gradually transported to the inside of the diversion box 103, the diversion box 103 will divert the gas to the multiple blocking and shrinking airbags 104 by opening the first electric control valve 105. When the gas is gradually diverted to the interior of multiple blocking and shrinking airbags 104, the multiple blocking and shrinking airbags 104 will gradually expand laterally. When the lateral expansion occurs, the multiple blocking and shrinking airbags 104 will cooperate with the supporting outer frame 100 to form a blockage on the outside of the evaporator body 102. When the blockage is formed, the outside air cannot come into contact with the evaporator body 102, thereby controlling the circulation between the evaporator body 102 and the outside air as a whole. When the evaporator body 102 is no longer working, the multiple blocking and shrinking airbags 104 are used to reduce the flow with the outside air, thereby reducing the phenomenon of dust in the outside air adhering to the louver fins of the evaporator body 102.

[0030] Furthermore, the blocking and shrinking airbag 104 forms a blockage with a lighter overall weight, and the blocking and shrinking airbag 104 is filled with gas, which will not cause a large weight burden during blocking. In addition, during use, the overall blocking situation will not be affected even if the car experiences a lot of bumps.

[0031] like Figure 4As shown, a plurality of cleaning brush rods 500 are integrally formed on the outside of the shrinkage preventing airbag 104. The initial length of the cleaning brush rod 500 fits the outer wall of the evaporator body 102. During the lateral expansion process of the shrinkage preventing airbag 104, the cleaning brush rod 500 fits the outer wall of the evaporator body 102 and sweeps back and forth on the outer wall of the evaporator body 102 to reduce dust adhesion.

[0032] Specifically, during use, through the setting of the cleaning brush rod 500, when the shrinking airbag 104 is blocked and expanded laterally, the cleaning brush rod 500 can be driven to contact the outside of the evaporator body 102, and by repeatedly urging the shrinking airbag 104 to expand laterally, the cleaning brush rod 500 can be driven to repeatedly clean the outside of the evaporator body 102.

[0033] The technical solution in the above-mentioned embodiment of the present application has at least the following technical effects or advantages: Compared with the prior art, in this embodiment, gas is continuously injected into the interior of the diverter box 103 through the micro air pump 101, and in the process of continuously injecting gas into the interior of the diverter box 103, the gas is diverted to the blocking and shrinking airbag 104 through the diverter box 103. When gas continues to enter the blocking and shrinking airbag 104, expansion will occur. When multiple blocking and shrinking airbags 104 continue to expand laterally, they can cooperate with the supporting outer frame 100 to seal the evaporator body 102, and seal the evaporator body 102 in a separate space, so that the evaporator body 102 is no longer in contact with the outside air when not in use, reducing the phenomenon of dust in the outside air adhering to the louver fins of the evaporator body 102, and the multiple blocking and shrinking airbags 104 filled with gas are lighter in overall weight, reducing the burden on vehicle operation.

[0034] Embodiment 2: Considering that the automobile evaporator is not always fully loaded during use, when operating at a lower load, it needs to be exposed to less air. In the case of less air contact, although the user can adjust the number of expansion of the blocking and shrinking airbags 104 to adjust the overall air intake volume, the blocking and shrinking airbags 104 expand as a whole during the expansion process. When several blocking and shrinking airbags 104 are expanded, the air intake duct is vertical. This results in some louver fins of the evaporator body 102 being unable to contact the air during the intake stroke, resulting in uneven air intake, which affects the working stroke and heat dissipation stroke of the evaporator body 102. In response to the above technical problems, the present application proposes the following technical solutions to solve the above technical problems, specifically:

[0035] like Figure 4-Figure 5As shown, multiple outward-expanding airbags 200 are integrally formed on both sides of the blocking and shrinking airbag 104, and a delivery diversion tube 201 is fixedly connected to the interior of the blocking and shrinking airbag 104. Multiple outlet positions of the delivery diversion tube 201 are connected to a second electrically controlled valve 202, and the air inlet of the second electrically controlled valve 202 is connected to the outward-expanding airbag 200.

[0036] Specifically, during use, when the evaporator body 102 is not running at full load, the staff can open the inlet and outlet switches connecting the first electrically controlled valve 105 and the blocking and shrinking airbag 104. After opening the inlet and outlet switches connecting the first electrically controlled valve 105 and the blocking and shrinking airbag 104, the gas can be diverted to the interior of the blocking and shrinking airbag 104 through the first electrically controlled valve 105. When the gas continues to enter the interior of the blocking and shrinking airbag 104, the staff can open the second electrically controlled valve 202. When the second electrically controlled valve 202 is opened, the gas inside the delivery shunt pipe 201 will be delivered to the interior of the external expansion airbag 200. When the gas is continuously delivered to the interior of the external expansion airbag 200, the external expansion airbag 200 will expand. When multiple external expansion airbags 200 continue to expand, an interval airflow network can be formed. When the interval airbags 200 are formed, After the flow is networked, the expanded outward-expanding airbags 200 can reduce the contact between the air and the evaporator body 102, and the gaps between the multiple outward-expanding airbags 200 can allow the air to come into contact with the evaporator body 102. During the low-power operation of the evaporator body 102, the air networking formed can effectively reduce the contact amount between the evaporator body 102 and the external air, and block part of the air from coming into contact with the evaporator body 102, thereby meeting the requirements for the evaporator body 102 to come into contact with the air during operation, and further reducing the phenomenon of dust accumulation caused by a large amount of air coming into contact with the evaporator body 102. In addition, the air networking formed can make the air intake of the evaporator body 102 more uniform during the low-efficiency operation, and there will be no phenomenon that only a part of the evaporator body 102 can come into contact with the air, which affects the working stroke and heat dissipation stroke.

[0037] like Figure 9 As shown, a placement cavity 600 is opened inside the cleaning brush rod 500, and the interior of the placement cavity 600 is filled with a plurality of balls 601.

[0038] Specifically, through the arrangement of multiple balls 601, in the process of preventing the lateral expansion of the shrinking airbag 104 from driving the cleaning brush rod 500 to move, the multiple balls 601 will continue to shake inside the inner cavity 600. When the multiple balls 601 continue to shake inside the inner cavity 600 and contact the evaporator body 102, they can have a knocking effect on the outer surface of the evaporator body 102. The vibration generated by the knocking can shake off the dust attached to the outer surface of the evaporator body 102, further reducing the phenomenon of floating dust adhering to the surface of the evaporator body 102.

[0039] The technical solutions in the above-mentioned embodiments of the present application have at least the following technical effects or advantages: relative to embodiment one, in this embodiment, by continuously filling gas into the interior of multiple outward-expanding air bags 200, when gas continues to enter the interior of multiple outward-expanding air bags 200, an air intake barrier can be formed on the outside of the evaporator body 102. When the air intake barrier is formed, not only can the evaporator body 102 be evenly in contact with the external air, but the contact area with the external air can also be reduced under low-power operation, thereby reducing the phenomenon of floating dust adhering to the outside of the evaporator body 102.

[0040] Embodiment 3: Considering that although the blocking and shrinking airbag 104 or the outward-expanding airbag 200 can effectively block the evaporator body 102 when it expands, when excessive gas enters the outward-expanding airbag 200 or the blocking and shrinking airbag 104 or the air intake volume is different, it will cause the multiple blocking and shrinking airbags 104 or the outward-expanding airbag 200 to be misaligned. When the multiple blocking and shrinking airbags 104 are misaligned, gaps will appear between the multiple blocking and shrinking airbags 104 due to the misalignment. When gaps appear, floating dust in the external air will still adhere to the louver fins of the evaporator body 102. In response to the above technical problems, the present application proposes the following technical solutions to solve the above technical problems:

[0041] like Figure 4-Figure 8 As shown, both sides of the blocking and shrinking airbag 104 and the side of the outward-expanding airbag 200 away from the blocking and shrinking airbag 104 are fixedly connected with electromagnets 300. The electromagnet 300 located on the left side of the blocking and shrinking airbag 104 is a positive magnetic attraction component, and the electromagnet 300 located on the right side of the blocking and shrinking airbag 104 is a negative magnetic attraction component. The mutual adsorption of the electromagnet 300 on the left and the electromagnet 300 on the right can drive the multiple inflated blocking and shrinking airbags 104 to fit closely together, thereby reducing the phenomenon of gaps between adjacent blocking and shrinking airbags 104 after expansion.

[0042] Specifically, during use, when multiple blocking and shrinking airbags 104 or outward-expanding airbags 200 are filled with gas and continue to expand, the expansion volume of the blocking and shrinking airbags 104 or outward-expanding airbags 200 increases, and when multiple blocking and shrinking airbags 104 or outward-expanding airbags 200 are close to each other, the electromagnets 300 located on both sides of the blocking and shrinking airbags 104 and outward-expanding airbags 200 will produce a mutual adsorption effect. In the case of mutual adsorption, the phenomenon of gaps between the multiple blocking and shrinking airbags 104 and outward-expanding airbags 200 due to expansion can be avoided, further strengthening the sealing effect of the multiple blocking and shrinking airbags 104 on the evaporator body 102 after expansion.

[0043] like Figure 9 As shown, a plurality of inclined spray holes 700 are provided on the outside of the cleaning brush rod 500. The inclined spray holes 700 are inclined and are used to transport the gas inside the airbag 104 that blocks the contraction to the inside of the placement cavity 600. After the gas enters the placement cavity 600, it drives the ball 601 to vibrate. When the ball 601 vibrates, it drives the cleaning brush rod 500 to enhance the cleaning performance of the evaporator body 102, and the gas entering the placement cavity 600 is ejected through the inclined spray holes 700, and the dust attached to the surface of the evaporator body 102 is blown away by the ejected gas.

[0044] Specifically, through the setting of multiple inclined spray holes 700, during the process of preventing the shrinkage airbag 104 from expanding, the gas inside the shrinkage airbag 104 will enter the interior of the placement cavity 600. When the gas enters the interior of the placement cavity 600, it will blow the ball 601 to further continue to vibrate, thereby increasing the overall knocking force of the cleaning brush rod 500 on the evaporator body 102, and further enhancing the treatment effect of dust attached to the surface of the evaporator body 102.

[0045] like Figure 1 As shown, a snap-in slot is provided at the bottom of the supporting outer frame 100 , and a collection box 800 is snap-into the interior of the snap-in slot.

[0046] Specifically, the dust swept by the cleaning brush rod 500 can be collected by the setting of the collection box 800. After the collection is completed, the collection box 800 can be disassembled and the dust inside the collection box 800 can be cleaned centrally.

[0047] The technical solutions in the above-mentioned embodiments of the present application have at least the following technical effects or advantages: relative to embodiment 2, in this embodiment, by setting a plurality of electromagnets 300, when the blocking and shrinking airbag 104 or the outward-expanding airbag 200 is expanded, the electromagnets 300 and the electromagnets 300 between the adjacent blocking and shrinking airbags 104 and the outward-expanding airbags 200 can produce an adsorption effect. When the electromagnet 300 produces an adsorption effect between the plurality of blocking and shrinking airbags 104, the blocking effect of the blocking and shrinking airbags 104 on the evaporator body 102 can be further enhanced, and the phenomenon of gaps between the plurality of blocking and shrinking airbags 104 can be reduced. In addition, the stability of the network formed by the outward-expanding airbags 200 after lateral expansion is ensured by the setting of a plurality of electromagnets 300.

[0048] Embodiment 4: Considering that although the multiple blocking and shrinking airbags 104 can further ensure the tightness of the connection through the adsorption connection between the multiple electromagnets 300, the multiple electromagnets 300 are magnetic to each other, and the electromagnets 300 are fixed to the outside of the blocking and shrinking airbags 104 and the outward-expanding airbags 200, the blocking and shrinking airbags 104 and the outward-expanding airbags 200 are both made of soft materials and the overall supporting force is insufficient. When the electromagnets 300 move, the electromagnets 300 at adjacent positions may be adsorbed and misaligned. Once one electromagnet 300 is adsorbed and misaligned, more electromagnets 300 will be adsorbed and misaligned. Once the adsorption and misalignment occurs, wrinkles will appear between the blocking and shrinking airbags 104 and the outward-expanding airbags 200. The appearance of wrinkles will still cause gaps between the multiple blocking and shrinking airbags 104. In response to the above technical problems, the present application proposes the following technical solutions to solve the above technical problems:

[0049] like Figure 6-Figure 7 As shown, the outside of the electromagnet 300 is connected to multiple guide plates 400 through a soft film, and a first pull rope 401 is integrally formed inside the electromagnet 300 located on the left side of the blocking and shrinking airbag 104, and a second pull rope 402 is integrally formed on the outer wall of multiple guide plates 400 located on the outside of the electromagnet 300 on the right side of the blocking and shrinking airbag 104. The ends of the first pull rope 401 and the second pull rope 402 away from the electromagnet 300 pass through the outer wall of the blocking and shrinking airbag 104 and are fixedly connected to the outer wall of the conveying diversion tube 201.

[0050] Specifically, when multiple blocking and shrinking airbags 104 and outward-expanding airbags 200 are inflated, the first pull rope 401 located at the left position will pull the electromagnet 300 at the middle position. When the electromagnet 300 at the middle position is pulled, and gas continues to enter the inside of the blocking and shrinking airbag 104 or the outward-expanding airbag 200, the blocking and shrinking airbag 104 or the outward-expanding airbag 200 outside the electromagnet 300 will continue to expand outward, and drive the guide plate 400 outside the electromagnet 300 to produce an inclined deformation, so that the left electromagnet 300 and the guide plate 400 form a groove as a whole, and on the right side, as the blocking and shrinking airbag 104 and the outward-expanding airbag 200 continue to expand, the multiple pull ropes connected to the right guide plate 400 will pull The multiple guide plates 400 on the right side stay at the original position, and as the gas is continuously filled, the electromagnet 300 connected by the soft film at the middle position of the multiple guide plates 400 on the right side will protrude outward as the gas is filled, forming a plug-in block as a whole. After the groove and the plug-in block are formed, the expansion of the blocking and shrinking airbag 104 will drive the groove and the plug-in block to approach each other. When the groove and the plug-in block approach each other and come into contact, the groove will guide the plug-in block, so that the plug-in block is accurately inserted into the interior of the groove. When the plug-in block is inserted into the interior of the groove, the adjacent electromagnets 300 will be magnetically attracted again, thereby completing the connection between the multiple blocking and shrinking airbags 104. The guidance of the groove and the plug-in block can reduce the phenomenon of misaligned adsorption of the electromagnets 300 at adjacent positions.

[0051] like Figure 9 As shown, an electrostatic sticker 900 is integrally formed at one end of the cleaning brush rod 500 away from the blocking and shrinking airbag 104. Through the provision of the electrostatic sticker 900, the electrostatic sticker 900 can be used to adhere to the outer wall of the evaporator body 102 during the cleaning process of the cleaning brush rod 500 cleaning the evaporator body 102, so that during the lateral movement of the blocking and shrinking airbag 104, the cleaning brush rod 500 is always adhered to the outer wall of the evaporator body 102, thereby improving the cleaning effect of the cleaning brush rod 500 on the evaporator body 102.

[0052] like Figure 9 As shown, the exterior of the cleaning brush rod 500 is integrally formed with an outer rubber magnetic layer 501. When the outer rubber magnetic layer 501 is adsorbed on itself, it will drive the inclined spray hole 700 to close. When the outer rubber magnetic layer 501 drives the inclined spray hole 700 to close, it can avoid blocking the gas in the contracted airbag 104 from continuously leaking through the inclined spray hole 700.

[0053] The technical solutions in the above-mentioned embodiments of the present application have at least the following technical effects or advantages: relative to embodiment three, in this embodiment, the electromagnet 300 on the left and the guide plate 400 on the right can be pulled respectively by setting the first pull rope 401 on the left and the multiple second pull ropes 402 on the right, so that the electromagnet 300 and the guide plate 400 on the left are pulled to form a groove shape, and the electromagnet 300 and the guide plate 400 on the right are pulled to form an insert block shape. When the groove and the insert block are close to each other, the insert block can be guided by the groove, and the electromagnets 300 on the adjacent sides are accurately fitted together by the guidance, thereby reducing the phenomenon of misaligned adsorption.

[0054] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Various modifications and variations are possible for those skilled in the art. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention shall be included within the scope of protection of the present invention.

Claims

1. An evaporator for an automobile air conditioner, comprising a supporting outer frame (100) and an evaporator body (102), wherein the evaporator body (102) is fixedly connected to the interior of the supporting outer frame (100), and is characterized in that: The inner top wall of the supporting outer frame (100) is fixedly connected to two diversion boxes (103), the outside of the diversion box (103) is fixedly connected to a plurality of blocking shrinkage airbags (104), the supporting outer frame (100) is fixedly connected to a micro air pump (101), the air outlet of the micro air pump (101) is connected to a gas supply hose, the end of the gas supply hose away from the micro air pump (101) passes through the outer wall of the supporting outer frame (100) and is connected to one of the diversion boxes (103), the two diversion boxes (103) are connected to each other through an intermediate pipe, the plurality of blocking shrinkage airbags (104) connected to the two diversion boxes (103) are respectively located on both sides of the evaporator body (102), the blocking shrinkage airbag (104) is connected to a first electrically controlled valve (105), and the end of the first electrically controlled valve (105) away from the blocking shrinkage airbag (104) is connected to the diversion box (103); Multiple outward-expanding airbags (200) are integrally formed on both sides of the blocking and shrinking airbag (104); Both sides of the blocking and shrinking airbag (104) and the side of the outward-expanding airbag (200) away from the blocking and shrinking airbag (104) are fixedly connected with electromagnets (300); The outside of the electromagnet (300) is connected to a plurality of guide plates (400) via a soft film, a first pull rope (401) is integrally formed inside the electromagnet (300) on the left side of the blocking and shrinking airbag (104), and a second pull rope (402) is integrally formed on the outer wall of the plurality of guide plates (400) outside the electromagnet (300) on the right side of the blocking and shrinking airbag (104), the inside of the blocking and shrinking airbag (104) is fixedly connected to a conveying shunt pipe (201), and the ends of the first pull rope (401) and the second pull rope (402) away from the electromagnet (300) penetrate the outer wall of the blocking and shrinking airbag (104) and are fixedly connected to the outer wall of the conveying shunt pipe (201); A plurality of cleaning brush rods (500) are integrally formed on the exterior of the blocking and shrinking airbag (104), and an electrostatic sticker (900) is integrally formed on one end of the cleaning brush rod (500) away from the blocking and shrinking airbag (104).

2. The evaporator for automobile air conditioning according to claim 1, characterized in that: Multiple outlet positions of the delivery shunt pipe (201) are all connected to a second electrically controlled valve (202), and the air inlet of the second electrically controlled valve (202) is connected to the outward expansion airbag (200).

3. The evaporator for automobile air conditioning according to claim 2, characterized in that: The electromagnet (300) located on the left side of the blocking and shrinking airbag (104) is a positive magnetic attraction component, and the electromagnet (300) located on the right side of the blocking and shrinking airbag (104) is a negative magnetic attraction component. The electromagnet (300) on the left side and the electromagnet (300) on the right side can be attracted to each other to drive the multiple inflated blocking and shrinking airbags (104) to fit closely together, thereby reducing the phenomenon of gaps between adjacent blocking and shrinking airbags (104) after the multiple blocking and shrinking airbags (104) are inflated.

4. The evaporator for automobile air conditioning according to claim 1, characterized in that: The initial length of the cleaning brush rod (500) fits the outer wall of the evaporator body (102), and in the process of blocking the lateral expansion of the shrinking airbag (104), the cleaning brush rod (500) fits the outer wall of the evaporator body (102) and sweeps the outer wall of the evaporator body (102) back and forth, thereby reducing the phenomenon of dust adhesion.

5. The evaporator for automobile air conditioning according to claim 4, characterized in that: The interior of the cleaning brush rod (500) is provided with a placement inner cavity (600), and the interior of the placement inner cavity (600) is filled with a plurality of rolling balls (601).

6. The evaporator for automobile air conditioning according to claim 5, characterized in that: The outside of the cleaning brush rod (500) is provided with a plurality of inclined spray holes (700), and the inclined spray holes (700) are inclinedly opened. The inclined spray holes (700) are used to transport the gas inside the blocking shrinkage airbag (104) to the inside of the placement cavity (600). After the gas enters the placement cavity (600), it drives the ball (601) to vibrate. When the ball (601) vibrates, it drives the cleaning brush rod (500) to enhance the cleaning performance of the evaporator body (102), and the gas entering the placement cavity (600) is ejected through the inclined spray holes (700), and the dust attached to the surface of the evaporator body (102) is blown away by the ejected gas.

7. The evaporator for automobile air conditioning according to claim 6, characterized in that: The cleaning brush rod (500) is integrally formed with an outer rubber magnetic layer (501) on the outside. When the outer rubber magnetic layer (501) is attracted to each other, it drives the inclined spray hole (700) to close. When the outer rubber magnetic layer (501) drives the inclined spray hole (700) to close, it is possible to avoid blocking the gas in the contracted airbag (104) from continuously leaking through the inclined spray hole (700).

8. The evaporator for automobile air conditioning according to claim 7, characterized in that: A snap-fitting slot is provided below the supporting outer frame (100), and a collection box (800) is snap-fitted inside the snap-fitting slot.

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