Membrane type dehumidifier with anti-blocking function

Abstract

The invention discloses a membrane type dehumidifier with an anti-blocking function, and relates to the technical field of air dehumidification, the membrane type dehumidifier is used for filtering out water molecules in air, the membrane type dehumidifier comprises a dehumidifier body, an anti-blocking mechanism and a path adjusting mechanism, the dehumidifier body is connected with the anti-blocking mechanism, the dehumidifier body is connected with the path adjusting mechanism, and the path adjusting mechanism is connected with the anti-blocking mechanism. The dehumidifier body comprises a dehumidifier shell, the dehumidifier shell is connected with the anti-blocking mechanism, the dehumidifier shell is connected with the path adjusting mechanism, a working cavity is formed in the dehumidifier shell, and a gas inlet and a gas outlet are formed in the dehumidifier shell.

Description

Technical Field

[0001] The invention relates to the technical field of air dehumidification, in particular to a membrane dehumidifier with an anti-clogging function. Background Art

[0002] Humidity is an important indicator for measuring indoor air quality. It has a significant impact on human comfort, production processes and product quality. At the same time, environmental humidity also has strict requirements in lithium battery manufacturing, pharmaceuticals, food and other fields. It is usually necessary to maintain a low humidity environment to ensure the life, quality and safety of the product. Excessive humidity will not only cause metal corrosion, deterioration of food and medicine, but also affect human comfort and health.

[0003] Most conventional dehumidifiers directly draw external air into the interior through pipes for dehumidification. In this process, if the inhaled air contains more moisture, the moisture will carry the dust in the air and adhere to the pipe. Over time, it may cause blockage of the suction pipe and affect the entry of air. If the air contains fewer water molecules, during the dehumidification process, it may reach the standard for input into the room halfway through, but the entire dehumidification path still needs to be completed, which will cause useless dehumidification in the second half and low efficiency. Summary of the invention

[0004] The object of the present invention is to provide a membrane dehumidifier with an anti-clogging function to solve the problems raised in the prior art.

[0005] To achieve the above object, the present invention provides the following technical solutions: The membrane dehumidifier is used to filter out water molecules in the air. The membrane dehumidifier includes a dehumidifier body, an anti-clogging mechanism and a path adjustment mechanism. The dehumidifier body is connected to the anti-clogging mechanism, and the dehumidifier body is connected to the path adjustment mechanism.

[0006] In the membrane dehumidifier, the device is used to filter out most of the water molecules in the air. The air with most of the water molecules filtered out can be used in lithium battery manufacturing, pharmaceuticals, food and other fields with high humidity requirements. The dehumidifier body is used to provide a place for gas dehumidification, and the water molecules in the imported air are filtered out and then discharged. The anti-clogging mechanism is used to heat the pipeline when the air is input to evaporate the water molecules in the imported air, preventing the dust carried in the air from adhering to the pipeline and causing blockage of the pipeline. The path adjustment mechanism detects the water molecules in the air to be dehumidified, and adjusts the path for direct output for the air that has completed dehumidification in advance.

[0007] Furthermore, the dehumidifier body includes a dehumidifier shell, the dehumidifier shell is connected to the anti-blocking mechanism, the dehumidifier shell is connected to the path adjustment mechanism, a working chamber is arranged in the dehumidifier shell, a gas inlet and a gas outlet are arranged on the dehumidifier shell, the anti-blocking mechanism is placed in the working chamber, the path adjustment mechanism is placed in the working chamber, the gas inlet is connected to the anti-blocking mechanism, the gas outlet is connected to the path adjustment mechanism, the dehumidifier body also includes a reaction device, the reaction device is connected to the dehumidifier shell, the reaction device is placed in the working chamber, the reaction device includes a regenerator, a cooler, a liquid storage device and a heater, the regenerator is placed in the working chamber, the cooler is placed in the working chamber The dehumidifier body further comprises an induced draft fan and a membrane dehumidifier, the induced draft fan is connected to the dehumidifier shell, the induced draft fan is placed in the working chamber, the induced draft fan outlet is tightly connected to the gas inlet, the membrane dehumidifier is connected to the dehumidifier shell, the membrane dehumidifier is placed in the working chamber, the membrane dehumidifier is placed in the working chamber, the membrane dehumidifier is connected to the gas inlet, the membrane dehumidifier is connected to the gas outlet, the membrane dehumidifier is connected to the reaction device, the membrane dehumidifier is connected to the liquid reservoir, and the membrane dehumidifier is connected to the heater.

[0008] In the dehumidifier body, the dehumidifier shell provides a place for dehumidification, all mechanisms are placed in the working chamber, the gas inlet and gas outlet provide entrances and exits for air, and the reaction device removes the concentrated dehumidification solution that absorbs water molecules through a series of reactions, so that the concentrated dehumidification solution can be recycled. After the concentrated dehumidification solution completes the dehumidification of the air, the dehumidified dehumidification solution absorbs water molecules so that the concentration becomes lower, so that it flows through the heater for heating, and after being heated to the temperature required for regeneration, it flows into the regenerator for concentrated regeneration. The dehumidification solution passing through the regenerator is restored to a concentrated solution. At this time, the solution temperature is high and the dehumidification efficiency is low. It flows through the cooler for cooling, and finally flows into the liquid storage tank for storage and waiting for dehumidification again, completing the cycle and realizing the recycling of the concentrated dehumidification solution. The outdoor fresh air is sent into the membrane dehumidifier with a serpentine flow channel with a sinusoidal wall by the induced draft fan, and after being dehumidified by the dehumidification solution, it flows into the room for use.

[0009] Furthermore, the membrane dehumidifier includes an upper shell and a lower shell, which are separated by a selective semipermeable membrane, the membrane dehumidifier is connected to an inclined tube, the upper shell is connected to the inclined tube, an air flow channel is arranged in the upper shell, an air inlet and an air outlet are respectively arranged on two opposite side surfaces of the upper shell, the air inlet, the air outlet and the air flow channel are connected, the end of the air inlet away from the air flow channel is connected to the inclined tube, the air inlet is located higher than the gas inlet, the inclined tube is tilted, the end of the air outlet away from the air flow channel is connected to the gas outlet, the lower shell is connected to a liquid reservoir, the lower shell is connected to a heater, a solution flow channel is arranged in the lower shell, a liquid inlet and a liquid outlet are respectively arranged on two opposite side surfaces of the lower shell, the liquid inlet, the liquid outlet and the solution flow channel are connected, the liquid inlet and the liquid reservoir are connected through a pipeline, the liquid outlet and the heater are connected through a pipeline, the wall surfaces of the air flow channel and the solution flow channel are both sinusoidal, and cuttlefish fin-shaped waveform baffles are periodically arranged at the bottom of the air flow channel and the solution flow channel.

[0010] In the membrane dehumidifier, the upper shell and the lower shell are used to circulate air and concentrated dehumidification solution respectively. The outside air enters the air flow channel through the air inlet and flows out along the air flow channel to the air outlet. The concentrated dehumidification solution enters the solution flow channel through the liquid inlet and flows out along the solution flow channel to the liquid outlet. In this process, the flow direction of the concentrated dehumidification solution is opposite to that of the air. The wall surfaces of the solution flow channel and the air flow channel are sinusoidal. The air enters the air flow channel and flows in a serpentine shape, forming a countercurrent or quasi-countercurrent with the solution flow, which has a higher mass transfer efficiency. Cuttlefish fin-shaped waveform baffles are periodically provided at the bottom of the solution flow channel and the air flow channel, which can further enhance the fluid disturbance in the flow channel and improve the heat exchange efficiency.

[0011] Furthermore, the anti-clogging mechanism includes a heating device, which is placed in the working chamber and connected to the gas inlet. The heating device includes an induction coil and an inclined tube, which are placed in the working chamber. The inclined tube is a metal tube, one end of which is connected to the gas inlet, and the induction coil is sleeved around the outer periphery of the inclined tube. The heating device is connected to the dehumidifier body, and the inclined tube is connected to the dehumidifier body. The anti-clogging mechanism also includes a collecting device, which is placed in the working chamber, connected to the heating device, and connected to the collecting device. The collecting device includes a collecting tube and a water storage tank, which are placed in the working chamber, one end of the collecting tube is connected to the bottom of the inclined tube near the gas inlet, and one end of the collecting tube away from the inclined tube is connected to the water storage tank.

[0012] In the anti-clogging mechanism, the mechanism is used to heat the introduced air, so that most of the water molecules evaporate, and the water molecules and dust are separated, so as to prevent the dust from containing too many water molecules and adhering to the pipe, which will cause the pipe to be blocked in the long run. The heating device is used to heat the inclined pipe, and the induction coil is wound around the outer periphery of the inclined pipe. After the power is turned on, the current is passed through the induction coil to generate a high-frequency electromagnetic field. The electromagnetic field generates eddy currents in the pipe, and the eddy current flow generates heat, so that the inclined pipe is heated. After the air enters the inclined pipe from the gas inlet, the water molecules in the air will evaporate, so that the water molecules and the dust entrained in the air are separated, and they will not adhere to the pipe due to excessive water molecules. At the same time, through heating, the water molecules in the air can be dehumidified for the first time. After stopping work, the inside of the inclined pipe returns to normal temperature, and the evaporated water molecules are liquefied when cooled. The inclined pipe is placed at an angle, and the water molecules flow through the inclined pipe to the collection pipe below, and finally flow into the water storage tank.

[0013] Furthermore, the path adjustment mechanism includes a humidity detection device, the path adjustment mechanism is connected to the membrane dehumidifier, the humidity detection device is connected to the membrane dehumidifier, the humidity detection device is connected to the upper shell, the humidity detection device is connected to the air flow channel, the humidity detection device includes a metal electrode plate and a metal oxide sheet, the metal electrode plate is placed in the middle section of the air flow channel, two metal electrodes are provided, the two metal electrodes are tightly connected to the air flow channel, the metal oxide sheet is tightly connected to the middle section of the air flow channel, the metal electrode plate and the metal oxide sheet are parallel, the path adjustment mechanism also includes a cut-off device, the cut-off device is connected to the membrane dehumidifier, the cut-off device is connected to the upper shell, the cut-off device is connected to the air flow channel, the cut-off device is connected to the air outlet, the cut-off device is placed on the side of the humidity detection device away from the air inlet, the cut-off device includes a regulating valve, an air guide pipe and a push plate, a through hole is provided at the top of the air flow channel, one end of the air guide pipe is connected to the through hole of the air flow channel, the other end of the air guide pipe is connected to the air outlet, the bottom of the push plate is hinged to the bottom wall of the air flow channel, and the top of the push plate is slidably connected to the air flow channel through a telescopic rod.

[0014] In the path adjustment mechanism, the mechanism is placed in the middle of the air flow channel, and the humidity detection device is used to detect the humidity of the air in the middle of the air flow channel. Two metal plates are placed on both sides, and the metal oxide sheet is placed in the middle. After the power supply is connected, during the process of air flowing through, the metal oxide sheet absorbs moisture, resulting in a change in the dielectric constant, and then a change in the capacitance value. When more moisture is absorbed, the capacitance value increases, and when less moisture is absorbed, it decreases. The humidity is determined based on the change. If the capacitance value does not change much, the regulating valve is opened, the telescopic rod is extended to make the push plate stand up, the air flow channel is disconnected, and the gas flows directly to the outlet through the air duct. If the capacitance value increases a lot, the regulating valve remains closed, and the gas continues to pass through the air flow channel for dehumidification. The water molecules are absorbed by the concentrated dehumidification solution through the selective semipermeable membrane, and flow into the room from the gas outlet after reaching the outlet.

[0015] Compared with the prior art, the beneficial effects of the present invention are as follows: the present invention realizes filtering and absorbing water molecules in the external air through the dehumidifier body, and then flows into the room, and realizes anti-clogging in the pipeline by setting an anti-clogging mechanism. In the process of air entering the air inlet through the gas inlet, an inclined pipe is set, and an induction coil is arranged on the periphery of the inclined pipe. After power is turned on, the temperature inside the inclined pipe is increased, so that the air passing through this section is heated, the water molecules evaporate, and the water molecules and dust in the air are separated, so as to avoid the dust in the air being entrained by water at room temperature and adhering to the inner wall of the pipeline, which will cause pipeline blockage in the long run and affect the dehumidification efficiency. At the same time, the water molecules in the heated air are initially filtered out. In addition, it can improve the subsequent dehumidification efficiency. By setting a path adjustment mechanism, the air flowing through the middle of the air flow channel is detected, and the water molecules in the air are detected through the metal electrode plate and the metal oxide sheet. If the capacitance value does not change much, the regulating valve is opened, and the gas flows directly to the air outlet through the air duct. If the capacitance value increases significantly, the regulating valve remains closed, and the gas continues to be dehumidified through the air flow channel. The water molecules are absorbed by the concentrated dehumidification solution through the selective semipermeable membrane, and flow into the room from the gas outlet after reaching the air outlet, so that the path in the dehumidification process is adjustable and the dehumidification efficiency is improved. The concentrated dehumidification solution is then recycled through the heater, regenerator, cooler and liquid storage device. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 is a side view of the present invention; Figure 3 A schematic diagram of a gas inlet of the present invention; Figure 4 It is a schematic diagram of a membrane dehumidifier of the present invention; Figure 5 It is a schematic diagram of the interior of the membrane dehumidifier of the present invention; Figure 6 for Figure 5 Enlarged view of part A; Figure 7 It is a side view of the membrane dehumidifier of the present invention.

[0017] In the figure: 1, dehumidifier body; 11, dehumidifier shell; 111, working chamber; 112, gas inlet; 113, gas outlet; 12, reaction device; 121, regenerator; 122, cooler; 123, liquid storage; 124, heater; 13, induced draft fan; 14, membrane dehumidifier; 141, upper shell; 1411, air flow channel; 1412, air inlet; 1413, air outlet; 142, lower shell; 1 421. solution flow channel; 1422. liquid inlet; 1423. liquid outlet; 2. anti-clogging mechanism; 21. heating device; 211. induction coil; 212. inclined tube; 22. collecting device; 221. collecting tube; 222. water storage tank; 3. path adjustment mechanism; 31. humidity detection device; 311. metal electrode plate; 312. metal oxide sheet; 32. intercepting device; 321. regulating valve; 322. air guide tube. DETAILED DESCRIPTION

[0018] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. 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 creative work are within the scope of protection of the present invention.

[0019] Example: Figure 1-Figure 7 As shown, the present invention provides a technical solution of a membrane dehumidifier with an anti-clogging function. The membrane dehumidifier is used to filter water molecules in the air. The membrane dehumidifier includes a dehumidifier body 1, an anti-clogging mechanism 2 and a path adjustment mechanism 3. The dehumidifier body 1 is connected to the anti-clogging mechanism 2, and the dehumidifier body 1 is connected to the path adjustment mechanism 3.

[0020] In a membrane dehumidifier, the device is used to filter out most of the water molecules in the air. The air with most of the water molecules filtered out can be used in lithium battery manufacturing, pharmaceuticals, food and other fields with high humidity requirements. The dehumidifier body 1 is used to provide a place for gas dehumidification, filter out the water molecules in the imported air and then export them. The anti-clogging mechanism 2 is used to heat the pipeline when the air is input to evaporate the water molecules in the imported air, and prevent the dust carried in the air from adhering to the pipeline and causing blockage of the pipeline. The path adjustment mechanism 3 detects the water molecules in the air to be dehumidified, and adjusts the path for direct output for the air that has completed dehumidification in advance.

[0021] The dehumidifier body 1 includes a dehumidifier shell 11, the dehumidifier shell 11 is connected to the anti-blocking mechanism 2, the dehumidifier shell 11 is connected to the path adjustment mechanism 3, a working chamber 111 is arranged in the dehumidifier shell 11, a gas inlet 112 and a gas outlet 113 are arranged on the dehumidifier shell 11, the anti-blocking mechanism 2 is placed in the working chamber 111, the path adjustment mechanism 3 is placed in the working chamber 111, the gas inlet 112 is connected to the anti-blocking mechanism 2, and the gas outlet 113 is connected to the path adjustment mechanism 3. The dehumidifier body 1 also includes a reaction device 12, the reaction device 12 is connected to the dehumidifier shell 11, the reaction device 12 is placed in the working chamber 111, the reaction device 12 includes a regenerator 121, a cooler 122, a liquid storage device 123 and a heater 124, the regenerator 121 is placed in the working chamber 111, the cooler 122 is placed in the working chamber 111, and the regenerator 121 is placed in the working chamber 111. The regenerator 121 and the cooler 122 are connected by a pipeline, the liquid storage device 123 is placed in the working chamber 111, the cooler 122 and the liquid storage device 123 are connected by a pipeline, the heater 124 is placed in the working chamber 111, and the heater 124 and the regenerator 121 are connected by a pipeline. The dehumidifier body 1 also includes an induced draft fan 13 and a membrane dehumidifier 14, the induced draft fan 13 is connected to the dehumidifier shell 11, the induced draft fan 13 is placed in the working chamber 111, the induced draft port of the induced draft fan 13 and the gas inlet 112 are tightly connected, the membrane dehumidifier 14 is connected to the dehumidifier shell 11, the membrane dehumidifier 14 is placed in the working chamber 111, the membrane dehumidifier 14 is connected to the gas inlet 112, the membrane dehumidifier 14 is connected to the gas outlet 113, the membrane dehumidifier 14 is connected to the reaction device 12, the membrane dehumidifier 14 is connected to the liquid storage device 123, and the membrane dehumidifier 14 is connected to the heater 124.

[0022] In the dehumidifier body 1, the dehumidifier shell 11 provides a place for dehumidification, and all mechanisms are placed in the working chamber 111. The gas inlet 112 and the gas outlet 113 provide the entrance and exit of air. The reaction device 12 removes the concentrated dehumidification solution that absorbs water molecules through a series of reactions, so that the concentrated dehumidification solution can be recycled. After the concentrated dehumidification solution completes the dehumidification of the air, the dehumidified dehumidification solution absorbs water molecules so that the concentration becomes lower, so that it flows through the heater 124 for heating, and after being heated to the temperature required for regeneration, it flows into the regenerator 121 for concentrated regeneration. The dehumidification solution passing through the regenerator 121 is restored to a concentrated solution. At this time, the solution temperature is high and the dehumidification efficiency is low. It flows through the cooler 122 for cooling, and finally flows into the liquid storage tank 123 for storage and waiting for dehumidification again, completing the cycle and realizing the recycling of the concentrated dehumidification solution. The outdoor fresh air is sent into the membrane dehumidifier 14 with a serpentine flow channel with a sinusoidal wall by the induced draft fan 13. After being dehumidified by the dehumidification solution, it flows into the room for use.

[0023] The membrane dehumidifier 14 includes an upper shell 141 and a lower shell 142, the upper shell 141 and the lower shell 142 are separated by a selective semipermeable membrane, the membrane dehumidifier 14 is connected to the inclined tube 212, the upper shell 141 is connected to the inclined tube 212, an air flow channel 1411 is provided in the upper shell 141, and an air inlet 1412 and an air outlet 1413 are respectively provided on the opposite side surfaces of the upper shell 141, the air inlet 1412, the air outlet 1413 are connected to the air flow channel 1411, and the end of the air inlet 1412 away from the air flow channel 1411 is connected to the inclined tube 212, the position of the air inlet 1412 is higher than the position of the gas inlet 112, the inclined tube 212 is tilted, and the air outlet 1413 is away from the air flow channel One end of 1411 is connected to the gas outlet 113, the lower shell 142 is connected to the liquid reservoir 123, the lower shell 142 is connected to the heater 124, a solution flow channel 1421 is provided in the lower shell 142, and a liquid inlet 1422 and a liquid outlet 1423 are respectively provided on the opposite side surfaces of the lower shell 142, the liquid inlet 1422, the liquid outlet 1423 and the solution flow channel 1421 are connected, the liquid inlet 1422 and the liquid reservoir 123 are connected through a pipeline, the liquid outlet 1423 and the heater 124 are connected through a pipeline, the wall surfaces of the air flow channel 1411 and the solution flow channel 1421 are both sinusoidal, and cuttlefish fin-shaped waveform flow blocks are periodically provided at the bottom of the air flow channel 1411 and the solution flow channel 1421.

[0024] In the membrane dehumidifier 14, the upper shell 141 and the lower shell 142 are used for circulating air and concentrated dehumidification solution respectively. The outside air enters into the air flow channel 1411 through the air inlet 1412, and flows out along the air flow channel 1411 to the air outlet 1413. The concentrated dehumidification solution enters into the solution flow channel 1421 through the liquid inlet 1422, and flows out along the solution flow channel 1421 to the liquid outlet 1423. In this process, the flow direction of the concentrated dehumidification solution is opposite to the flow direction of the air. The wall surfaces of the solution flow channel 1421 and the air flow channel 1411 are sinusoidal. The air enters the air flow channel 1411 and flows in a serpentine shape, forming a countercurrent or quasi-countercurrent with the solution flow, which has a higher mass transfer efficiency. Cuttlefish fin-shaped corrugated flow blocks are periodically arranged at the bottom of the solution flow channel 1421 and the air flow channel 1411, which can further enhance the fluid disturbance in the flow channel and improve the heat exchange efficiency.

[0025] The anti-blocking mechanism 2 includes a heating device 21, which is placed in the working chamber 111 and connected to the gas inlet 112. The heating device 21 includes an induction coil 211 and an inclined tube 212. The induction coil 211 and the inclined tube 212 are placed in the working chamber 111. The inclined tube 212 is a metal tube. One end of the inclined tube 212 is connected to the gas inlet 112. The induction coil 211 is sleeved on the outer periphery of the inclined tube 212. The heating device 21 is connected to the dehumidifier body 1, and the inclined tube 212 is connected to the dehumidifier body. 1, the anti-blocking mechanism 2 also includes a collecting device 22, the collecting device 22 is placed in the working chamber 111, the collecting device 22 is connected to the heating device 21, the inclined tube 212 is connected to the collecting device 22, the collecting device 22 includes a collecting pipe 221 and a water storage tank 222, the collecting pipe 221 and the water storage tank 222 are placed in the working chamber 111, one end of the collecting pipe 221 is communicated with the bottom of the inclined pipe 212 near the gas inlet 112, and one end of the collecting pipe 221 away from the inclined pipe 212 is communicated with the water storage tank 222.

[0026] In the anti-clogging mechanism 2, the mechanism is used to heat the introduced air, so that most of the water molecules evaporate, separate the water molecules from the dust, and prevent the dust from containing too many water molecules and adhering to the pipe, which will cause the pipe to be blocked in the long run. The heating device 21 is used to heat the inclined pipe 212. The induction coil 211 is wound around the outer periphery of the inclined pipe 212. After the power is turned on, current is passed through the induction coil 211 to generate a high-frequency electromagnetic field. The electromagnetic field generates eddy currents in the pipe, and the eddy currents flow to generate heat, so that the inclined pipe 212 is heated up. After the air enters the inclined tube 212 from the gas inlet 112, the water molecules in the air will evaporate, so that the water molecules are separated from the dust in the air, and will not adhere to the pipe due to excessive water molecules. At the same time, through heating, the water molecules in the air can be initially dehumidified. After stopping work, the inside of the inclined tube 212 returns to normal temperature, and the evaporated water molecules are liquefied when cooled. The inclined tube 212 is placed at an angle, and the water molecules flow through the inclined tube 212 to the collection tube 221 below, and finally flow into the water storage tank 222.

[0027] The path adjustment mechanism 3 includes a humidity detection device 31, the path adjustment mechanism 3 is connected to the membrane dehumidifier 14, the humidity detection device 31 is connected to the membrane dehumidifier 14, the humidity detection device 31 is connected to the upper shell 141, the humidity detection device 31 is connected to the air flow channel 1411, the humidity detection device 31 includes a metal plate 311 and a metal oxide sheet 312, the metal plate 311 is placed in the middle section of the air flow channel 1411, the metal plate 311 is provided with two, the two metal plates 311 are fastened to the air flow channel 1411, the metal oxide sheet 312 is fastened to the middle section of the air flow channel 1411, the metal plate 311 and the metal oxide sheet 312 are parallel, and the path adjustment mechanism 3 The intercepting device 32 is also included, and the intercepting device 32 is connected to the membrane dehumidifier 14, the intercepting device 32 is connected to the upper shell 141, the intercepting device 32 is connected to the air flow channel 1411, and the intercepting device 32 is connected to the air outlet 1413. The intercepting device 32 is placed on the side of the humidity detection device 31 away from the air inlet 1412. The intercepting device 32 includes a regulating valve 321, an air guide pipe 322 and a push plate. A through hole is provided at the top of the air flow channel 1411, one end of the air guide pipe 322 is connected to the through hole of the air flow channel 1411, and the other end of the air guide pipe 322 is connected to the air outlet 1413. The bottom of the push plate is hinged to the bottom wall of the air flow channel 1411, and the top of the push plate is slidably connected to the air flow channel 1411 through a telescopic rod.

[0028] In the path adjustment mechanism 3, the mechanism is placed in the middle of the air flow channel 1411, and the humidity detection device 31 is used to detect the humidity of the air in the middle of the air flow channel 1411. Two metal plates 311 are placed on both sides, and the metal oxide sheet 312 is placed in the middle. After the power supply is connected, during the flow of air, the metal oxide sheet 312 absorbs moisture, resulting in a change in the dielectric constant, and then a change in the capacitance value. When more moisture is absorbed, the capacitance value increases, and vice versa. The humidity is determined based on the change. If the capacitance value does not change much, the regulating valve 321 is opened, the telescopic rod is extended to make the push plate stand up, and the air flow channel 1411 is disconnected. The gas flows directly to the air outlet 1413 through the air guide tube 322. If the capacitance value increases a lot, the regulating valve 321 remains closed, and the gas continues to pass through the air flow channel 1411 for dehumidification. The water molecules are absorbed by the concentrated dehumidification solution through the selective semipermeable membrane, and flow into the room from the gas outlet 113 after reaching the air outlet 1413.

[0029] Working principle of the present invention: The present invention realizes filtering and absorbing water molecules in the external air through the dehumidifier body 1, and then flows into the room. By setting the anti-blocking mechanism 2, the anti-blocking of the pipeline is realized. In the process of air entering the air inlet 1412 through the gas inlet 112, an inclined tube 212 is set, and the induction coil 211 is arranged on the periphery of the inclined tube 212. After power is turned on, the temperature inside the inclined tube 212 is increased, so that the air passing through this section is heated, the water molecules evaporate, and the water molecules and dust in the air are separated, so that the dust in the air is prevented from being entrained by water at room temperature and adhering to the inner wall of the pipeline, which will cause pipeline blockage in the long run and affect the dehumidification efficiency. At the same time, the water molecules in the heated air are initially filtered out, which can improve the subsequent dehumidification efficiency. By setting the path The diameter adjustment mechanism 3 detects the air flowing through the middle part of the air flow channel 1411, and detects the water molecules in the air through the metal electrode plate 311 and the metal oxide sheet 312. If the capacitance value does not change much, the regulating valve 321 is opened, and the gas flows directly to the air outlet 1413 through the air guide tube 322. If the capacitance value increases significantly, the regulating valve 321 remains closed, and the gas continues to pass through the air flow channel 1411 for dehumidification. The water molecules are absorbed by the concentrated dehumidification solution through the selective semipermeable membrane, and after reaching the air outlet 1413, they flow into the room through the gas outlet 113, thereby realizing the adjustable path during the dehumidification process and improving the dehumidification efficiency. The concentrated dehumidification solution is then recycled through the heater 124, the regenerator 121, the cooler 122 and the liquid storage tank 123.

[0030] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

Claims

1. A membrane dehumidifier with anti-clogging function, the membrane dehumidifier is used to filter out water molecules in the air, characterized in that: The membrane dehumidifier comprises a dehumidifier body (1), an anti-clogging mechanism (2) and a path adjustment mechanism (3); the dehumidifier body (1) and the anti-clogging mechanism (2) are connected, and the dehumidifier body (1) and the path adjustment mechanism (3) are connected.

2. The membrane dehumidifier with anti-clogging function according to claim 1, characterized in that: The dehumidifier body (1) comprises a dehumidifier shell (11), the dehumidifier shell (11) is connected to an anti-blocking mechanism (2), the dehumidifier shell (11) is connected to a path adjustment mechanism (3), a working chamber (111) is provided in the dehumidifier shell (11), a gas inlet (112) and a gas outlet (113) are provided on the dehumidifier shell (11), the anti-blocking mechanism (2) is disposed in the working chamber (111), the path adjustment mechanism (3) is disposed in the working chamber (111), the gas inlet (112) is connected to the anti-blocking mechanism (2), and the gas outlet (113) is connected to the path adjustment mechanism (3).

3. The membrane dehumidifier with anti-clogging function according to claim 1, characterized in that: The anti-blocking mechanism (2) comprises a heating device (21), the heating device (21) being placed in the working chamber (111), the heating device (21) being connected to the gas inlet (112), the heating device (21) comprising an induction coil (211) and an inclined tube (212), the induction coil (211) and the inclined tube (212) being placed in the working chamber (111), the inclined tube (212) being a metal tube, one end of the inclined tube (212) being connected to the gas inlet (112), the induction coil (211) being sleeved around the outer periphery of the inclined tube (212), the heating device (21) being connected to the dehumidifier body (1), and the inclined tube (212) being connected to the dehumidifier body (1).

4. The membrane dehumidifier with anti-clogging function according to claim 3, characterized in that: The anti-clogging mechanism (2) further comprises a collecting device (22), the collecting device (22) being disposed in the working chamber (111), the collecting device (22) being connected to the heating device (21), the inclined tube (212) being connected to the collecting device (22), the collecting device (22) comprising a collecting tube (221) and a water storage tank (222), the collecting tube (221) and the water storage tank (222) being disposed in the working chamber (111), one end of the collecting tube (221) being connected to the bottom of the inclined tube (212) near the gas inlet (112), and one end of the collecting tube (221) being remote from the inclined tube (212) being connected to the water storage tank (222).

5. The membrane dehumidifier with anti-clogging function according to claim 2, characterized in that: The dehumidifier body (1) further comprises a reaction device (12), wherein the reaction device (12) is connected to the dehumidifier housing (11), and the reaction device (12) is placed in a working chamber (111). The reaction device (12) comprises a regenerator (121), a cooler (122), a liquid storage device (123), and a heater (124). The regenerator (121) is placed in the working chamber (111), and the cooler (122) is placed in the working chamber (111). The regenerator (121) and the cooler (122) are connected via a pipeline. The liquid storage device (123) is placed in the working chamber (111), and the cooler (122) and the liquid storage device (123) are connected via a pipeline. The heater (124) is placed in the working chamber (111), and the heater (124) and the regenerator (121) are connected via a pipeline.

6. The membrane dehumidifier with anti-clogging function according to claim 5, characterized in that: The dehumidifier body (1) further comprises an induced draft fan (13) and a membrane dehumidifier (14); the induced draft fan (13) is connected to the dehumidifier housing (11); the induced draft fan (13) is placed in a working chamber (111); an induced draft port of the induced draft fan (13) is tightly connected to a gas inlet (112); the membrane dehumidifier (14) is connected to the dehumidifier housing (11); the membrane dehumidifier (14) is placed in the working chamber (111); the membrane dehumidifier (14) is connected to the gas inlet (112); the membrane dehumidifier (14) is connected to the gas outlet (113); the membrane dehumidifier (14) is connected to the reaction device (12); the membrane dehumidifier (14) is connected to a liquid storage device (123); and the membrane dehumidifier (14) is connected to a heater (124).

7. The membrane dehumidifier with anti-clogging function according to claim 6, characterized in that: The membrane dehumidifier (14) comprises an upper shell (141) and a lower shell (142), wherein the upper shell (141) and the lower shell (142) are separated by a selective semipermeable membrane, the membrane dehumidifier (14) is connected to an inclined tube (212), the upper shell (141) is connected to the inclined tube (212), an air flow channel (1411) is provided in the upper shell (141), and two opposite sides of the upper shell (141) are respectively provided with There is an air inlet (1412) and an air outlet (1413), the air inlet (1412), the air outlet (1413) and the air flow channel (1411) are connected, the end of the air inlet (1412) away from the air flow channel (1411) is connected to the inclined tube (212), the position of the air inlet (1412) is higher than the position of the gas inlet (112), the inclined tube (212) is placed obliquely, and the air outlet (1413) is away from the air flow channel (1411). One end of the air flow channel (1411) is connected to the gas outlet (113), the lower shell (142) is connected to the liquid reservoir (123), the lower shell (142) is connected to the heater (124), a solution flow channel (1421) is provided in the lower shell (142), and a liquid inlet (1422) and a liquid outlet (1423) are respectively provided on two opposite sides of the lower shell (142), and the liquid inlet (1422) and the liquid outlet (1423) are connected to the lower shell (1423). The inlet (1423) is connected to the solution flow channel (1421), the liquid inlet (1422) is connected to the liquid reservoir (123) through a pipeline, the liquid outlet (1423) is connected to the heater (124) through a pipeline, the wall surfaces of the air flow channel (1411) and the solution flow channel (1421) are both sinusoidal, and cuttlefish fin-shaped wave-shaped flow blocks are periodically arranged at the bottom of the air flow channel (1411) and the solution flow channel (1421).

8. The membrane dehumidifier with anti-clogging function according to claim 2, characterized in that: The path adjustment mechanism (3) comprises a humidity detection device (31); the path adjustment mechanism (3) is connected to a membrane dehumidifier (14); the humidity detection device (31) is connected to the membrane dehumidifier (14); the humidity detection device (31) is connected to an upper shell (141); the humidity detection device (31) is connected to an air flow channel (1411); the humidity detection device (31) comprises a metal plate (311) and a metal oxide sheet (312); the metal plate (311) is placed in a middle section of the air flow channel (1411); two metal plates (311) are provided; the two metal plates (311) are tightly connected to the air flow channel (1411); the metal oxide sheet (312) is tightly connected to the middle section of the air flow channel (1411); and the metal plate (311) and the metal oxide sheet (312) are parallel.

9. The membrane dehumidifier with anti-clogging function according to claim 8, characterized in that: The path adjustment mechanism (3) further comprises a flow cut-off device (32), the flow cut-off device (32) being connected to the membrane dehumidifier (14), the flow cut-off device (32) being connected to the upper shell (141), the flow cut-off device (32) being connected to the air flow passage (1411), the flow cut-off device (32) being connected to the air outlet (1413), the flow cut-off device (32) being placed on a side of the humidity detection device (31) away from the air inlet (1412), The intercepting device (32) comprises a regulating valve (321), an air guide pipe (322) and a push plate; a through hole is provided at the top of the air flow channel (1411); one end of the air guide pipe (322) is connected to the through hole of the air flow channel (1411); the other end of the air guide pipe (322) is connected to the air outlet (1413); the bottom of the push plate is hinged to the bottom wall of the air flow channel (1411); and the top of the push plate is slidably connected to the air flow channel (1411) via a telescopic rod.

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