WO2024046358A1 - 一种烘干模组及洗烘一体机 - Google Patents

一种烘干模组及洗烘一体机 Download PDF

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Publication number
WO2024046358A1
WO2024046358A1 PCT/CN2023/115747 CN2023115747W WO2024046358A1 WO 2024046358 A1 WO2024046358 A1 WO 2024046358A1 CN 2023115747 W CN2023115747 W CN 2023115747W WO 2024046358 A1 WO2024046358 A1 WO 2024046358A1
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WO
WIPO (PCT)
Prior art keywords
turntable
module
regeneration
circulation
housing
Prior art date
Application number
PCT/CN2023/115747
Other languages
English (en)
French (fr)
Inventor
李行
段传林
杨志敏
王哲
刘通
齐杭
全刚
Original Assignee
深圳洛克创新科技有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from CN202222307661.1U external-priority patent/CN218521473U/zh
Priority claimed from CN202222316065.XU external-priority patent/CN218812739U/zh
Priority claimed from CN202222322147.5U external-priority patent/CN218521471U/zh
Priority claimed from CN202222307052.6U external-priority patent/CN218492016U/zh
Priority claimed from CN202222314788.6U external-priority patent/CN218492018U/zh
Application filed by 深圳洛克创新科技有限公司 filed Critical 深圳洛克创新科技有限公司
Publication of WO2024046358A1 publication Critical patent/WO2024046358A1/zh

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Classifications

    • D—TEXTILES; PAPER
    • D06—TREATMENT OF TEXTILES OR THE LIKE; LAUNDERING; FLEXIBLE MATERIALS NOT OTHERWISE PROVIDED FOR
    • D06F—LAUNDERING, DRYING, IRONING, PRESSING OR FOLDING TEXTILE ARTICLES
    • D06F25/00—Washing machines with receptacles, e.g. perforated, having a rotary movement, e.g. oscillatory movement, the receptacle serving both for washing and for centrifugally separating water from the laundry and having further drying means, e.g. using hot air 
    • D—TEXTILES; PAPER
    • D06—TREATMENT OF TEXTILES OR THE LIKE; LAUNDERING; FLEXIBLE MATERIALS NOT OTHERWISE PROVIDED FOR
    • D06F—LAUNDERING, DRYING, IRONING, PRESSING OR FOLDING TEXTILE ARTICLES
    • D06F29/00—Combinations of a washing machine with other separate apparatus in a common frame or the like, e.g. with rinsing apparatus
    • D—TEXTILES; PAPER
    • D06—TREATMENT OF TEXTILES OR THE LIKE; LAUNDERING; FLEXIBLE MATERIALS NOT OTHERWISE PROVIDED FOR
    • D06F—LAUNDERING, DRYING, IRONING, PRESSING OR FOLDING TEXTILE ARTICLES
    • D06F31/00—Washing installations comprising an assembly of several washing machines or washing units, e.g. continuous flow assemblies
    • D—TEXTILES; PAPER
    • D06—TREATMENT OF TEXTILES OR THE LIKE; LAUNDERING; FLEXIBLE MATERIALS NOT OTHERWISE PROVIDED FOR
    • D06F—LAUNDERING, DRYING, IRONING, PRESSING OR FOLDING TEXTILE ARTICLES
    • D06F58/00—Domestic laundry dryers
    • D06F58/20—General details of domestic laundry dryers 
    • D—TEXTILES; PAPER
    • D06—TREATMENT OF TEXTILES OR THE LIKE; LAUNDERING; FLEXIBLE MATERIALS NOT OTHERWISE PROVIDED FOR
    • D06F—LAUNDERING, DRYING, IRONING, PRESSING OR FOLDING TEXTILE ARTICLES
    • D06F58/00—Domestic laundry dryers
    • D06F58/20—General details of domestic laundry dryers 
    • D06F58/22—Lint collecting arrangements
    • D—TEXTILES; PAPER
    • D06—TREATMENT OF TEXTILES OR THE LIKE; LAUNDERING; FLEXIBLE MATERIALS NOT OTHERWISE PROVIDED FOR
    • D06F—LAUNDERING, DRYING, IRONING, PRESSING OR FOLDING TEXTILE ARTICLES
    • D06F58/00—Domestic laundry dryers
    • D06F58/20—General details of domestic laundry dryers 
    • D06F58/24—Condensing arrangements
    • D—TEXTILES; PAPER
    • D06—TREATMENT OF TEXTILES OR THE LIKE; LAUNDERING; FLEXIBLE MATERIALS NOT OTHERWISE PROVIDED FOR
    • D06F—LAUNDERING, DRYING, IRONING, PRESSING OR FOLDING TEXTILE ARTICLES
    • D06F58/00—Domestic laundry dryers
    • D06F58/20—General details of domestic laundry dryers 
    • D06F58/26—Heating arrangements, e.g. gas heating equipment
    • D—TEXTILES; PAPER
    • D06—TREATMENT OF TEXTILES OR THE LIKE; LAUNDERING; FLEXIBLE MATERIALS NOT OTHERWISE PROVIDED FOR
    • D06F—LAUNDERING, DRYING, IRONING, PRESSING OR FOLDING TEXTILE ARTICLES
    • D06F58/00—Domestic laundry dryers
    • D06F58/32—Control of operations performed in domestic laundry dryers 
    • D06F58/34—Control of operations performed in domestic laundry dryers  characterised by the purpose or target of the control
    • D06F58/36—Control of operational steps, e.g. for optimisation or improvement of operational steps depending on the condition of the laundry
    • D06F58/38—Control of operational steps, e.g. for optimisation or improvement of operational steps depending on the condition of the laundry of drying, e.g. to achieve the target humidity
    • D—TEXTILES; PAPER
    • D06—TREATMENT OF TEXTILES OR THE LIKE; LAUNDERING; FLEXIBLE MATERIALS NOT OTHERWISE PROVIDED FOR
    • D06F—LAUNDERING, DRYING, IRONING, PRESSING OR FOLDING TEXTILE ARTICLES
    • D06F58/00—Domestic laundry dryers
    • D06F58/32—Control of operations performed in domestic laundry dryers 
    • D06F58/34—Control of operations performed in domestic laundry dryers  characterised by the purpose or target of the control
    • D06F58/45—Cleaning or disinfection of machine parts, e.g. of heat exchangers or filters
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F3/00—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems
    • F24F3/12—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling
    • F24F3/14—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling by humidification; by dehumidification
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F26—DRYING
    • F26B—DRYING SOLID MATERIALS OR OBJECTS BY REMOVING LIQUID THEREFROM
    • F26B21/00—Arrangements or duct systems, e.g. in combination with pallet boxes, for supplying and controlling air or gases for drying solid materials or objects

Definitions

  • the embodiments of the present application relate to the field of electrical appliance technology, and in particular, to a drying module and an integrated washing and drying machine.
  • the all-in-one washer and dryer was born and is deeply loved by consumers.
  • the all-in-one washer and dryer is especially suitable for people during the rainy season.
  • the overall temperature of the evaporator is consistent.
  • the evaporator's ability to absorb moisture from the humid air decreases, resulting in low moisture absorption efficiency, long drying time, and high power consumption.
  • condensed water spray or condenser to directly dehumidify the wet air flow.
  • the air flow treated by this method still carries a high proportion of moisture, and recycling also requires the air flow to be heated-cooled and dehumidified-reheated to improve the dehumidification efficiency. Lower, power consumption is larger.
  • the purpose of this application is to provide a drying module and an integrated washing and drying machine, in order to solve the problem in the prior art that the dehumidified airflow still carries a high proportion of moisture, and recycling requires the airflow to be heated-cooled and dehumidified- If the temperature is raised again, the dehumidification efficiency will be lower and the power consumption will be larger.
  • this application provides a drying module, including:
  • the circulation module is connected with the drum, and the circulation module outputs the wet air flow from the drum to the dehumidification module;
  • a dehumidification module which is connected to the circulation module and the drum, and the dehumidification module is used to absorb moisture from the wet air flow from the drum;
  • a regeneration module which is connected to at least part of the dehumidification module and is used to output the regeneration air flow to the dehumidification module to desorb the moisture absorbed by the dehumidification module;
  • a housing is provided with accommodating areas to accommodate the circulation module, dehumidification module and regeneration module respectively.
  • This application also proposes an integrated washing and drying machine, including the drying module as described in any of the above technical solutions.
  • washing and drying machine also includes:
  • a drum is provided with a drum air inlet and a drum air outlet, and the drum air inlet and the drum air outlet are respectively arranged at opposite ends of the drum;
  • the second air flow channel or the first air flow channel is connected with the drum air outlet, and the first air flow channel or the second air flow channel is connected with the drum air inlet;
  • the wet circulating air flow in the drum passes through the second air flow channel or the first air flow channel and passes through the turntable to the first air flow channel or the second air flow channel to form a dry air flow; wherein the turntable is used to absorb moisture in the wet circulating air flow.
  • Figure 1 is a schematic structural diagram of a drying module provided according to the first embodiment of the present application.
  • Figure 2 is an exploded exploded view of Figure 1;
  • Figure 3 is a schematic structural diagram of a lower housing provided according to the second embodiment of the present application.
  • Figure 4 is a schematic structural diagram of a lower housing provided according to the third embodiment of the present application.
  • Figure 5 is a schematic structural diagram of a turntable upper housing provided according to the fourth embodiment of the present application.
  • Figure 6 is a schematic structural diagram of a turntable upper housing provided according to the fifth embodiment of the present application.
  • Figure 7 is a partially structural exploded schematic diagram of a drying module provided according to the sixth embodiment of the present application.
  • FIG 8 is an exploded structural schematic diagram of the circulation module provided by the embodiment of the present application (the lower shell of the circulation module is not shown);
  • FIG 9 is a schematic diagram of the assembly structure of the circulation module provided by the embodiment of the present application (the lower housing of the circulation module is not shown);
  • Figure 10 is a schematic top structural view of the circulation module provided by the embodiment of the present application.
  • Figure 11 is a schematic diagram of the circulation process of the wet circulating air flow provided by the embodiment of the present application.
  • Figure 12 is a partial structural schematic diagram of a drying module according to the seventh embodiment of the present application.
  • Figure 13 is a partial structural schematic diagram of a drying module according to the eighth embodiment of the present application.
  • Figure 14 is a partially structural exploded view of a drying module according to the ninth embodiment of the present application.
  • Figure 15 is a partial structural schematic diagram of a drying module according to the tenth embodiment of the present application.
  • Figure 16 is a partially structural exploded view of a drying module according to the eleventh embodiment of the present application.
  • Figure 17 is a schematic structural diagram of a regeneration module according to the twelfth embodiment of the present application.
  • Figure 18 is a schematic structural diagram of a regeneration module according to the thirteenth embodiment of the present application.
  • Figure 19 is a schematic structural diagram of an air equalizing component according to the fourteenth embodiment of the present application.
  • Figure 20 is a schematic structural diagram of the regeneration zone in the regeneration cycle module of a drying module according to an embodiment of the present disclosure
  • Figures 21-24 are schematic structural diagrams of the first connector A in the regeneration cycle module of a drying module according to an embodiment of the present disclosure
  • Figures 25-29 are schematic structural diagrams of the second connector B in the regeneration cycle module of a drying module according to an embodiment of the present disclosure
  • 30-32 are partial structural diagrams of the regeneration zone in the regeneration cycle module of a drying module according to an embodiment of the present disclosure.
  • the purpose of this application in the prior art is to provide a drying module and an integrated washing and drying machine.
  • the dehumidified airflow still carries a high proportion of moisture, and recycling needs to be carried out.
  • the air flow heats up - cools down and dehumidifies - then heats up again, resulting in low dehumidification efficiency and high power consumption.
  • one embodiment of the present application provides a drying module, including: a circulation module 10, which is connected to the drum of the washing and drying machine.
  • the circulation module 10 The wet circulating airflow from the drum is output to the part of the dehumidification module 20 located in the circulating airflow channel for dehumidification; the dehumidification module 20 is connected to the circulation module 10 and the drum, and the dehumidification module 20 is used to absorb the wet circulating airflow from the drum. moisture; the regeneration module 30 is installed on the dehumidification module 20.
  • the regeneration module 30 is connected to at least part of the dehumidification module 20 and is used to output the regeneration air flow to the dehumidification module 20 to desorb the dehumidification module 20.
  • the absorbed moisture, the housing, is provided with accommodating areas to accommodate the circulation module 10, the dehumidification module 20 and the regeneration module 30 respectively.
  • the part of the dehumidification module 20 located in the circulating air flow channel is used to adsorb moisture in the circulating air flow, while the part of the dehumidifying module 20 located in the regeneration air flow channel is desorbed by the regeneration module 30; wherein , the circulation module 10 is used as the driving force for the airflow to circulate between the drum and the dehumidification module 20.
  • the circulation module 10 transports the wet circulating airflow from the drum to the dehumidification module 20 for adsorption and dehydration.
  • the dehumidification module 20 pairs the moisture from the drum.
  • the wet circulating airflow absorbs moisture so that the dry circulating airflow is output to the drum.
  • the regeneration module 30 is connected to the dehumidification module 20, so that the dry regeneration air flow is output to the part of the dehumidification module 20 located in the regeneration air flow channel, so that the dehumidification module 20 desorbs moisture in the part of the regeneration air flow channel, making it Restore the ability to absorb moisture;
  • the condensation module 40 is connected to the regeneration air outlet of the regeneration module 30, and is used to condense the regeneration air flow output by the regeneration module 30 to form a low-temperature dry regeneration air flow; the condensed water formed during the condensation process discharge.
  • the drum may be a containment device.
  • the drying module also includes: a condensation module 40.
  • the condensation module 40 is used to condense the moisture desorbed by the dehumidification module 20.
  • the shell is also provided with a Condensation module accommodation area, the circulation module 10, dehumidification module 20 and condensation module 40 accommodation area are formed in one piece.
  • the condensation module 40 is connected to the regeneration air outlet of the regeneration module 30, and is used to condense the regeneration air flow output by the regeneration module 30 to form a low-temperature dry regeneration air flow; wherein, the dehumidification module 20 is connected and fixed to the frame, The circulation module 10 and/or the condensation module 40 are connected and fixed with the drum. Or at least one of the dehumidification module 20, the circulation module 10 and the condensation module 40 is fixedly connected to the frame, and the other modules are fixedly connected to the drum.
  • the dehumidification module 20, the circulation module 10 and the condensation module 40 are independent modules; the dehumidification module 20 and the regeneration module 30 installed thereon can be fixedly connected to the frame to reduce or eliminate the impact of drum vibration on dehumidification. Effects of Mod 20, At least one of the circulation module 10 and the condensation module 40 is fixedly connected to the drum.
  • the regeneration fan 301 connected to the regeneration module 30 can also optionally be fixed to the frame or drum. Since the circulation module 10, the condensation module 40, the regeneration fan 301, etc. are not sensitive to vibration, they can be set according to the actual situation or space layout requirements.
  • the dehumidification module 20 includes a turntable 200 and a turntable 200 enclosed in an upper housing 210 of the turntable. At least a part of the turntable 200 is used to absorb moisture in the humid circulating air flow; the turntable An airflow channel is formed between 200 and the top and bottom walls of the turntable upper housing 210; the turntable upper housing 210 is provided with a regeneration module 30 installation portion; the circulation module 10 is located upstream or downstream of the dehumidification module 20; The regeneration module 30 is installed at the installation part of the regeneration module 30. The regeneration module 30 is close to at least another part of the turntable 200 to evaporate the moisture adsorbed on the turntable 200; the turntable 200 remains in the upper housing 210 of the turntable.
  • the wet circulating airflow passes through the turntable 200 and the top wall and the bottom wall of the turntable upper housing 210 to form an airflow channel, and at least a part of the turntable 200 contacts the wet circulating airflow and absorbs moisture in the circulating airflow to obtain a dry circulating airflow;
  • the dry circulating air flow passes through the objects to be dried in the drum to form a wet circulating air flow again; when the turntable 200 rotates to the area where the regeneration module 30 installed on the upper housing 210 of the turntable is located, the regeneration module 30 evaporates and is adsorbed on the turntable.
  • the moisture on 200 is circulated in this way, and the turntable 200 continues to absorb the moisture in the wet circulating air flow, and restores the adsorption capacity through the regeneration module 30.
  • the circulation module 10 is located upstream of the dehumidification module 20 and blows the wet circulating airflow to the dehumidification module 20 so that the airflow circulates between the dehumidification module 20 and the drum.
  • the condensation module 40 is connected with the regeneration module 30 and condenses the regeneration air flow output by the regeneration module 30 to form a low-temperature dry air flow.
  • the turntable upper housing 210 may be a turntable second housing.
  • the circulation module 10, the dehumidification module 20 and the regeneration module 30 are connected through bellows.
  • the dehumidification module 20 further includes: an air outlet channel, one end of which is connected to the dehumidification module 20 and the other end of which is connected to the drum through the first corrugated hose.
  • the dehumidification module 20 and the inside of the drum are connected through the first corrugated hose to prevent the air outlet channel and the dehumidification module 20 from being damaged due to the rotation of the drum.
  • the air outlet channel serves as a channel for the dry airflow to enter the drum after absorbing moisture through the dehumidification module 20.
  • a filter component or valve is provided in the air outlet channel to avoid impurities or moisture in the drum when the drying module is in a non-working state. It enters the dehumidification module 20 through the air outlet channel and causes damage to the parts in the dehumidification module 20 .
  • the circulation module 10 and the condensation module 40 are connected and fixed with the drum, including: the dehumidification module 20 and the circulation module 10 are connected through a second corrugated hose; the regeneration module 30 is connected with the condensation module.
  • the module 40 is connected through the third corrugated hose; the circulation module 10 is connected with the drum.
  • the dehumidification module 20 is fixed on the frame, and the circulation module 10 and the condensation module 40 are connected and fixed with the drum: the air inlet of the dehumidification module 20 and the air outlet of the circulation module 10 are connected through a second corrugated hose. ; The air inlets of the regeneration module 30 and the condensation module 40 are connected through the third corrugated hose; the air inlet of the circulation module 10 is connected with the air outlet of the drum to prevent the dehumidification module 20 from the regeneration module 30 and the circulation module 10 due to the The vibration amplitude and frequency are different and damaged.
  • the circulation module 10 is fixedly installed on the drum, and the air inlet of the circulation module 10 is connected with the drum.
  • the air inlet of the circulation module 10 is fixedly connected with the air outlet of the drum.
  • the circulation module 10 is connected and fixed to the drum; the condensation module 40 is connected and fixed to the frame; the dehumidification module 20 and the circulation module 10 are connected through a second corrugated hose.
  • the dehumidification module 20 and the condensation module 40 are fixedly installed on the frame, and the circulation module 10 is fixedly installed on the drum.
  • the air inlet of the dehumidification module 20 and the air outlet of the circulation module 10 are connected through the second corrugated hose to avoid damage to the dehumidification module 20 and the circulation module 10 due to different amplitudes and frequencies of vibrations of the drum and the frame.
  • the dehumidification module 20, the condensation module 40, and the regeneration module 30 are all fixedly connected to the rack. Therefore, the connection method of the air inlet and the air outlet among the three is not limited, and is preferably fixedly connected.
  • the condensation module 40 is connected and fixed to the drum; the circulation module 10 is connected and fixed to the frame; the regeneration module 30 and the condensation module 40 are connected through a third corrugated hose; the circulation module 10 is connected with the drum through the fourth corrugated hose.
  • the dehumidification module 20 also includes: an air inlet channel, which is installed on the drum, one end is fixedly connected to the drum, and the other end is connected to the circulation module 10; the air inlet channel is equipped with There are filter components for filtering impurities in the circulating air flow.
  • a filter component (which can be a filter) is provided in the air inlet channel to remove impurities in the circulating air flow, to prevent lint and dust impurities from entering the circulation module 10 and the dehumidification module 20, thereby preventing the above-mentioned modules from being blocked or impurities burning. of production. Lint and dust impurities come from the drum. Therefore, installing the air inlet channel on the drum facilitates direct filtering of the circulating air flow and avoids clogging of the air inlet channel and its downstream fourth corrugated hose and circulation module 10.
  • the regeneration module 30 includes: a heating module 302 with a regeneration fan 301 installation portion provided at the inlet end.
  • the heating module 302 is used to desorb the dehumidification module.
  • the regeneration fan 301 is installed on the installation part of the regeneration fan 301 and communicates with the condensation module 40, and is used to transport the low-temperature dry regeneration airflow formed by condensation of the regeneration module 30 to the heating module 302;
  • the heating module 302 is heated to evaporate the moisture adsorbed by the dehumidification module 20, and the regeneration fan 301 delivers the wind to the heating module 302 to form a high-temperature regeneration airflow, which accelerates the recovery of the moisture adsorption capacity of the dehumidification module 20.
  • the condensation module 40 is provided with a cooling water inlet, a cooling water outlet and a condensed water drain; the cooling water inlet is connected to the water inlet valve on the frame through a first hose.
  • the cooling water outlet and the condensed water drain port are connected to the drain pipe of the washing and drying machine to directly discharge the condensed water or cooling water.
  • the circulation module 10 may specifically include: a circulation module housing, an impeller 110 and a circulation motor 120 .
  • the circulation module housing is provided with a first air inlet 102 and a first air outlet 103; an impeller 110 is provided in the circulation module housing.
  • the rotation axis of the impeller 110 is parallel to the axis of the first air inlet 102, and the rotation axis of the impeller 110 is parallel to the axis of the first air inlet 102.
  • the circulation motor 120 is substantially perpendicular to the axis of the first air outlet 103.
  • the circulation motor 120 is connected and fixed to the circulation module housing, and the output shaft of the circulation motor 120 is connected and fixed to the impeller 110.
  • the rotation axis of the impeller 110 corresponds to the first air inlet, that is, the rotation axis of the impeller 110 can pass through the first air inlet 102, so that the impeller 110 can directly drive the airflow at the first air inlet 102, so that the airflow flows into
  • the airflow can be quickly pumped into the circulation module housing without increasing the rotation speed of the impeller 110; when the impeller 110 is driven to rotate by the circulation motor 120, a centrifugal force is formed around the outer circumference of the impeller 110, and the airflow in the impeller 110 When flowing in the direction of centrifugal force, the airflow disperses from around the impeller 110, thereby changing the flow direction of the airflow; and a negative pressure is formed at and near the rotation axis of the impeller 110, which can increase the airflow sucked into the first air inlet 102.
  • the circulation power as an air supply mode in which the circulation motor 120 controls the rotation of the impeller 110 to form a negative pressure, related losses caused by direct collision of strong wind force with other components can be effectively avoided.
  • Traditional fans usually cause higher losses when the airflow changes the flow direction.
  • the circulation module provided by the embodiment of the present application provides power for the airflow to change the flow direction, which brings more flexibility when laying out the circulation module. sex.
  • the circulation module housing includes: a circulation module lower housing 112, which is provided with a recessed first impeller accommodation area; and a circulation module upper housing 111, which is provided with a recessed second impeller.
  • Accommodation area; the lower housing 112 of the circulation module is cooperatively connected with the upper housing 111 of the circulation module, so that the first impeller accommodation area and the second impeller accommodation area form an impeller accommodation cavity.
  • the impeller 110 is located in the impeller accommodating cavity.
  • the impeller accommodating cavity can be set to be circular larger than the outer diameter of the impeller 110.
  • the axis of the impeller accommodating cavity is parallel to the rotation axis of the impeller 110, so that the airflow output by the rotation of the impeller 110 can pass under the circulation module.
  • the inner wall of the housing 112 and the upper housing 111 of the circulation module guides outflow.
  • the circulation module upper housing 111 may be a circulation module second housing.
  • the circulation module lower housing 112 includes: a first bottom plate 1122 and a first side wall 1121.
  • the first side wall protrudes from the first bottom plate and is arranged along the circumferential direction of the first bottom plate 1122 to form the first side wall.
  • the circulation module upper housing 111 includes: a first top plate 1112 and a second side wall 1111.
  • the second side wall protrudes from the first top plate and is arranged along the circumferential direction of the first top plate 1112 to form the second impeller accommodation area; the top of the second side wall 1111 is provided with a first protrusion.
  • the circulation module lower shell 112 can be prepared by bending the bottom plate upward.
  • the circulation module upper shell 111 can be prepared by bending the top plate downward; the circulation module lower shell 112 and the circulation module upper shell 111 are in During assembly, the first protrusion squeezes the sealing gasket 113 in the first groove to deform the sealing gasket 113 to achieve lowering of the circulation module. Excellent sealing effect between the housing 112 and the upper housing 111 of the circulation module.
  • the circulation module lower housing 112 may be the circulation module first housing.
  • the impeller 110 includes: an impeller body 1101 and a fixed ring 1103 arranged axially opposite to the impeller body 1101; the impeller body 1101 extends in the direction of the fixed ring 1103, and is provided with a ring 1103 for accommodating a circulating motor.
  • An accommodation cavity, one end of the circulation motor 120 is arranged in the accommodation cavity, and the output shaft of the circulation motor 120 is connected and fixed to the bottom of the impeller body 1101; and, blades 1102, both ends of the blades 1102 are respectively connected with the accommodation cavity.
  • the impeller body 1101 and the fixed ring 1103 are fixedly connected, the blades 1102 are spaced around the impeller body 1101, and the blades 1102 are inclined forward along the rotation direction of the impeller.
  • the impeller body 1101 may include a cover plate at the top, and one end of the blades 1102 along the length direction is fixedly connected to the cover plate, so that the air flow sucked in from the bottom of the impeller is blocked by the cover plate and output in the radial direction of the impeller; the impeller body 1101 is directed toward the blades 1102 Extended, the impeller body 1101 is provided with a recessed accommodation cavity, and one end of the circulation motor 120 is embedded in the accommodation cavity, so that the overall axial length of the circulation fan is reduced and the overall length of the circulation fan is reduced.
  • the blades 1102 are tilted forward along the rotation direction of the impeller, which can improve the air outlet efficiency of the impeller, help improve the noise reduction effect of the fan, and improve the energy efficiency of the fan.
  • the top of the first top plate 1112 is provided with through-mounting holes 1114 and positioning bumps.
  • the mounting holes 1114 are adapted to the circulation motor; the positioning bumps are arranged at intervals along the circumferential direction of the mounting holes 1114, and the positioning bumps are inserted into
  • the mounting ears of the circulation motor are used to fix the circulation motor on the first top plate 1112 .
  • the mounting ear seat can be provided on the casing of the circulating motor, and the mounting ear seat is located at an end of the casing of the circulating motor away from the output shaft.
  • the mounting ear seat can be provided with a positioning hole that matches the positioning bump, and the positioning hole can be set to There is no penetration.
  • the mounting ear seat is provided with a bolt hole.
  • the bolt hole and the positioning hole are connected.
  • the positioning bump can be provided with a threaded hole.
  • the threaded hole and the bolt hole are coaxially arranged and adapted.
  • the positioning bump is inserted into the positioning hole.
  • the bolt passes through the bolt hole and is screwed into the threaded hole, so that the circulation motor is fixed on the first top plate 1112, and the circulation motor is embedded in the mounting hole 1114 and extends downward; in this way, the installation part of the circulation motor is located on the upper housing of the circulation module 111 outside, convenient for installation and removal of cycle motor.
  • the circulation module housing is in the shape of a volute; the circulation module housing has a constriction portion extending in a direction perpendicular to the rotation axis of the impeller 110; the first air outlet is connected to the constriction portion through the constriction portion.
  • the impeller accommodating cavity is connected.
  • the casing of the circulation module is in the shape of a volute.
  • the volute has a unique shape. After the airflow passes through the impeller 110, it changes the flow direction and is output by the constriction part. This can prevent the airflow from always circulating in the impeller accommodation cavity, which meets the fluid design requirements and provides maximum airflow flow. Limit air volume and speed.
  • the first air inlet 102 is located on the first bottom plate 1122, and the first air inlet 102 is coaxially arranged with the mounting hole 1114;
  • the contraction part has an air outlet cavity, the first air inlet 102, the impeller accommodation cavity, and the outlet cavity.
  • the air cavity and the first air outlet are connected in sequence, and the impeller accommodating cavity, the air outlet cavity and the first air outlet are located on the same horizontal plane.
  • the constriction part has an air outlet cavity.
  • the airflow changes direction after passing through the impeller 110 and flows to the first air outlet through the air outlet cavity.
  • the air outlet cavity is roughly perpendicular to the rotation axis of the impeller 110, and the impeller accommodation cavity, the air outlet cavity and the first air outlet are connected.
  • the air outlets are roughly located on the same horizontal plane, thereby reducing the size of the circulation module housing in the height direction, reducing the overall space occupied by the circulation module, and also reducing the overall height of the washing and drying machine using the circulation module. and volume.
  • the circulation module further includes: a circulation air interface piece connected to the shrinkage part; or the circulation air interface piece is integrated with the circulation module shell; a part of the circulation air interface piece away from the shrinkage part
  • the side is arc-shaped, and the circulating air interface piece gradually expands toward the side away from the constriction part.
  • the circulating air interface piece can be set as two separate upper and lower shells, which are connected to the upper and lower shells of the circulation module 111 and the lower shell 112 of the circulation module respectively; the cross-sectional area of the expansion air duct gradually increases toward the side away from the contraction part.
  • the first side wall 1121 is provided with lower housing connectors 1123.
  • the lower housing connectors 1123 are spaced along the outer circumference of the first side wall 1121 and protrude from the first side wall 1121;
  • the two side walls 1111 are provided with upper housing connectors 1113.
  • the upper housing connectors 1113 are arranged in a one-to-one correspondence with the lower housing connectors 1123.
  • the upper housing connectors 1113 and the lower housing connectors are 1123 connection, so that the positions of the lower housing 112 of the circulation module and the upper housing 111 of the circulation module are relatively fixed.
  • Adaptable bolts can be provided on both the upper housing connector 1113 and the lower housing connector 1123. Through holes and bolts are inserted into the through holes to achieve detachable connection between the lower housing 112 of the circulation module and the upper housing 111 of the circulation module.
  • a fixing card 1115 is provided on the circulation module housing.
  • the fixing card 1115 is used to fix circuits or pipelines, so that the wires of the circulation motor or the water and gas pipelines on the whole machine can be fixed. Can get better layout.
  • the circulation module also includes a transition piece 130, which is provided on the lower housing 112 of the circulation module, and the transition piece 130 is adapted to the first impeller accommodation area; the transition piece is connected and fixed to the first bottom plate 1122. ;
  • the transition piece is provided with a penetrating through hole, and the through hole is connected to the first impeller accommodating area; the side of the transition piece away from the first impeller accommodating area is connected to the corrugated hose 50, and the corrugated hose 50 is connected to the lower housing through the transition piece 130
  • the air inlet is connected.
  • the transition piece may be provided with a first transition hole and a second transition hole. The first transition hole and the second transition hole are evenly distributed along the circumferential direction of the through hole.
  • the diameter of the first air inlet 102 is smaller than that of the first transition hole.
  • distribution diameter the end of the corrugated hose 50 can be provided with corresponding threaded holes, and bolts are screwed into the threaded holes through the first transition hole, so that the corrugated hose 50 is fixed on the transition piece 130; the second transition hole
  • the distribution diameter is larger than the diameter of the first air inlet 102.
  • the first bottom plate 1122 is provided with a threaded hole corresponding to the second transition hole, and the bolt is screwed into the threaded hole through the second transition hole to fix the transition piece 130 to the second transition hole. On a base plate 1122.
  • a positioning sleeve can be provided on one side of the transition piece, and the positioning sleeve can be inserted into the corrugated hose 50 .
  • the corrugated hose 50 can be fixed on the transition piece 130 first, and then the transition piece 130 can be fixed on the first bottom plate 1122 to facilitate the installation and removal of the corrugated hose 50.
  • a second aspect of the present application provides a drying device, including the above-mentioned circulation module.
  • the drying device may also include a dehumidification module 20 and a regeneration module 30 .
  • the circulation module has a first circulation passage, and the first circulation passage is connected with the air outlet of the drum, so that the wet circulating airflow in the drum enters the first circulation passage;
  • the dehumidification module has a second circulation passage, and the dehumidification module is located at Downstream of the circulation module;
  • the drum air outlet, the first circulation passage, the second circulation passage and the drum air inlet are connected in sequence to form a circulation passage;
  • the dehumidification module includes a moisture absorption and dehumidification component, and the moisture absorption and dehumidification component is arranged in the second circulation On the path, the moisture absorption and dehumidification component is used to absorb moisture in the wet circulating air flow in the drum;
  • the regeneration module 30 includes a regeneration component, which is disposed immediately adjacent
  • the moisture adsorbed on the component is at least partially discharged.
  • the circulation module provided by the embodiment of the present application can provide power for the wet circulating air flow, which is beneficial to the circulation of the air flow.
  • the air inlet of the circulating fan is connected to the air outlet of the drum, the first air outlet 103 is connected to the second circulation passage, and the moisture absorption and dehumidification component Disposed on the second circulation path, the moisture absorption and dehumidification component can first absorb the moisture in the wet circulating air flow in the drum, so that the wet circulating air flow can be converted into a dry circulating air flow.
  • the dry circulating air flow enters the drum through the air inlet of the drum and interacts with the clothes. Full contact, improve drying efficiency and reduce energy consumption.
  • the moisture adsorbed on the moisture absorption and dehumidification component is discharged through a regeneration component.
  • the regeneration component can be, for example, a heating component or an ultrasonic component.
  • the moisture absorption and dehumidification component is removed by heating or ultrasonic dehumidification. Removal of adsorbed moisture from wet components.
  • the immediate neighbor can be set for proximity.
  • a third aspect of the present application provides an integrated washing and drying machine, including the above-mentioned drying device.
  • the all-in-one washing and drying machine also includes a drum.
  • the axis of the drum is set along the horizontal direction.
  • the circulation module can be installed on the top of the drum.
  • the first air inlet 102 is set downward, and the corrugated hose 50 is connected to the outlet of the drum.
  • the air ports are connected, and the setting of the corrugated hose 50 can reduce the vibration caused by the drum.
  • the first airflow channel is connected to the air outlet of the drum, and the second airflow channel is connected to the air inlet of the drum; the wet circulating airflow in the drum passes through the moisture absorption area of the turntable 200 from top to bottom through the first airflow channel to reach the third airflow channel.
  • the moisture in the wet circulating air flow is adsorbed to form a dry circulating air flow.
  • the lower housing 100 includes a circulation module lower housing 112.
  • a circulation fan accommodation area is provided in the circulation module lower housing 112, and the circulation fan accommodation area is connected to the first turntable accommodation area; wherein, the circulation fan accommodation area is connected to the first turntable accommodation area;
  • the fan is installed in the circulating fan accommodation area, the air inlet of the circulating fan is connected to the air outlet of the drum, and the air outlet of the circulating fan is connected to the second air flow channel.
  • the wet circulating air flow discharged from the drum is extracted by the circulating fan and sent to the bottom of the turntable accommodation cavity, which can accelerate the diffusion of the wet circulating air flow in the second air flow channel and is beneficial to the circulation of the air flow.
  • the lower housing 100 may be a first housing.
  • the lower housing 100 further includes a turntable lower housing 220.
  • the turntable lower housing 220 is provided with the first turntable accommodating area, and a first partition 221 is provided in the first turntable accommodating area.
  • the first turntable accommodation area is divided into a dehumidification area and a regeneration area; the air outlet of the circulating fan is connected to the dehumidification area.
  • the bottom surface of the turntable 200 and the dehumidification area of the lower housing of the turntable There is a gap between the bottom walls to form a second airflow channel; the part of the turntable 200 located in the dehumidification area when working can absorb moisture in the wet circulating airflow entering the second airflow channel; during the rotation of the turntable 200, the When the part that absorbs moisture in the dehumidification zone is rotated to the regeneration zone, it is dehydrated and regenerated.
  • the drying module also includes: a regeneration module 30, which is cooperatively connected with the turntable upper housing 210.
  • a substantially fan-shaped regeneration module receiving portion is formed on the turntable upper housing 210; the regeneration module 30 is installed on the turntable upper housing 210.
  • the regeneration module accommodation part, the regeneration module 30 is located above the turntable 200.
  • the regeneration module is used, for example, to heat the regeneration airflow to desorb the moisture adsorbed by the turntable 200; wherein, the inside of the regeneration module has an airflow space, To form a third airflow channel; there is a gap between the bottom surface of part of the turntable 200 and the inner wall of the regeneration area of the lower housing 220 of the turntable to form a fourth airflow channel.
  • the regeneration module may include a heater for heating the regeneration airflow.
  • the heated regeneration airflow passes through the turntable 200 from top to bottom through the third airflow channel to the fourth airflow channel, and dehydrates the turntable 200 part in the regeneration area.
  • the turntable 200 passes through the dehumidification zone and the regeneration zone, and continuously performs a cycle of adsorbing moisture and desorbing moisture.
  • the turntable lower housing 220 may be the turntable first housing.
  • the upper housing 210 of the turntable may be the second housing of the turntable.
  • the lower housing 100 further includes a condensation module lower housing 420 and a regeneration fan installation part 320.
  • the regeneration fan is installed on the regeneration fan installation part 320.
  • the condensation module lower housing 420 is provided with a condenser accommodation area. , the condenser accommodation area is connected to the fourth air flow channel and the air inlet of the regeneration fan respectively; the air outlet of the regeneration fan is connected to the third air flow channel; the regeneration air flow is extracted by the regeneration fan and sent to the third air flow channel, passes through the regeneration module and is It passes through the turntable 200 from top to bottom to reach the fourth airflow channel, and becomes a hot and humid regeneration airflow; the hot and humid regeneration airflow enters the condenser 401 and the regeneration fan in sequence to form a closed-circuit circulation regeneration airflow.
  • the moist and hot regeneration airflow enters the condenser 401 for heat exchange and cooling.
  • the water vapor in the regeneration airflow is cooled to form condensed water and is discharged from the drain port of the condenser 401.
  • the dry low-temperature regeneration airflow enters the regeneration fan for the next cycle.
  • the condensation module lower housing 420 may be the condensation module first housing.
  • the lower housing 100 is integrated.
  • the circulation module lower housing 112, the turntable lower housing 220, the condensation module lower housing 420 and the regeneration fan installation part 320 are integrally formed.
  • the overlapping portions 51 can be provided around the lower housing 100 .
  • the overlapping portions 51 can be arranged at intervals along the circumference of the lower housing 100 .
  • the entire drying module can be installed on the rack through the overlapping portions 51 . In this way, the entire drying module can be organically integrated into a whole, simplifying its assembly process in the washing and drying all-in-one machine, and also making it easier to further optimize the overall size of the washing and drying all-in-one machine.
  • the drying module can be installed on the top of the drum.
  • the drying module is arranged horizontally, that is, the rotating axis of the turntable 200, the rotating axis of the circulation fan, and the rotating axis of the regeneration fan.
  • the axes are roughly parallel and perpendicular to the upper shell of the washing and drying machine/perpendicular to the rotating axis of the drum of the washing and drying machine.
  • the overall height of the washing and drying machine depends on the diameter of the drum and the thickness of the shell placed above the drum.
  • the circulation fan, The regeneration fan, condenser, etc. can be arranged above the drum. Since the drum is approximately horizontal cylindrical, there will be larger vertical space above it and on both sides of the maximum diameter of the drum for the circulation fan, regeneration fan, and condenser. Installation of other components.
  • the circulation module lower housing 112 may be the circulation module first housing.
  • overlapping portions 51 can also be provided at the upper housing 210 of the turntable, the upper housing 111 of the circulation module, and/or the upper housing 410 of the condensation module. , no examples are given here.
  • the upper housing 210 of the turntable may be the second housing of the turntable
  • the upper housing 111 of the circulation module may be the second housing of the circulation module
  • the upper housing 410 of the condensation module may be the second housing of the condensation module. body.
  • the air inlet of the circulation fan is flexibly connected to the drum air outlet; the upper housing 210 of the turntable is flexibly connected to the drum air inlet, so that the first air flow channel is connected to the drum air inlet.
  • the flexible connection may be, for example, a corrugated hose 50.
  • the upper housing 210 of the turntable can be provided with an air outlet channel 203, which is transitionally connected to the inlet air duct 52.
  • the inlet air duct 52 and the drum air inlet can also be connected flexibly, for example, using a corrugated hose 50 to connect.
  • the first partition 221 is arranged along the radial direction of the lower housing 220 of the turntable, and forms a wheel installation area at the center of the first turntable accommodation area.
  • the first partition 221 is arranged generally in the radial direction. 221 makes dehumidification area and regeneration area They are all roughly fan-shaped; among them, the area of the dehumidification area can be set to 2-3 times the area of the regeneration area. The area of the dehumidification area can be set to be larger than the area of the regeneration area, so that most of the turntable 200 is in the dehumidification area, thereby further improving the moisture absorption efficiency and effect of the turntable 200 .
  • a certain dynamic sealing effect can be formed between the first partition 221 and the turntable 200 .
  • the regeneration airflow heats this part of the turntable 200, causing the water in this part to quickly evaporate and escape, and is carried away by the regeneration airflow into the condenser; thus the turntable 200 always has good water absorption capacity. Improved moisture absorption efficiency and effect.
  • the lower turntable housing 220 may be provided with a first turntable receiving area.
  • the lower turntable housing 220 may include a bottom plate and a circumferential side wall protruding from the bottom plate, and the recessed portion formed is the first turntable receiving area.
  • the upper turntable housing 210 may be provided with a second turntable accommodation area.
  • the second turntable accommodation area is composed of the top wall of the upper turntable housing 210, the circumferential side walls, and the upper housing corresponding to the position of the first partition 221.
  • the second partition 211 is formed by the radial side wall of the body.
  • the recessed portion structures of the upper turntable housing 210 and the lower turntable housing 220 are arranged oppositely.
  • the first turntable can be The accommodating area and the second turntable accommodating area form a turntable accommodating cavity. Since airflow passes through the turntable accommodating cavity, the upper turntable housing 210 and the lower turntable housing 220 can be connected in a sealed manner.
  • the upper turntable housing 210 or the lower turntable housing 220 are respectively provided with grooves or flanges, and sealing strips are provided in the grooves.
  • the flanges withstand the concave grooves. Seal strip inside the groove to achieve sealing.
  • the circulation module lower shell 112 and the circulation module upper shell 111 are cooperatively connected to form a circulation fan accommodation cavity, and the condensation module lower shell 420 and the condensation module upper shell 410 are cooperatively connected to form a condenser accommodation cavity.
  • the first partition 221 at least includes a first partition 2211 and a second partition 2212.
  • the first partition 2211 and the second partition 2212 are both arranged along the radial direction of the turntable lower housing 220.
  • One end of the first partition 2211 and the second partition 2212 are connected to the side inner wall of the turntable lower housing 220.
  • the other ends of the first partition 2211 and the second partition 2212 intersect at the center of the turntable lower housing to form the turntable 200.
  • the rotation axis area is such that the first partition 221 is V-shaped as a whole; the intersection of the first partition 2211 and the second partition 2212 is an arc transition connection.
  • the first partition 221 can be configured to protrude from the bottom plate of the turntable lower housing 220 so that there is a gap between the bottom surface of the turntable 200 and the bottom plate of the turntable lower housing 220 to form the second airflow channel and the fourth airflow channel.
  • the first turntable accommodating area can be divided into a dehumidification area and a regeneration area, and the dehumidification area and the regeneration area can be divided into a sector shape; therefore, it is beneficial for the turntable 200 to circulate during the rotation. After passing through the dehumidification zone and the regeneration zone, moisture is continuously adsorbed and desorbed, so that the turntable 200 always has good water absorption capacity, thereby improving the efficiency and effect of moisture absorption.
  • the turntable upper housing 210 is provided with a second partition 211 to separate the turntable upper housing 210 into a dehumidification area and a regeneration module installation area; the second partition 211 and the first partition 221 are respectively Disposed on the upper turntable housing 210 and the lower turntable housing 220 , the turntable 200 is located between the second partition 211 and the first partition 221 .
  • both the first partition 221 and the second partition 211 can form a dynamic sealing effect with the turntable 200, which is beneficial to the rotation of the turntable 200.
  • moisture is continuously absorbed and dehydrated and dried, so that the turntable 200 always has good water absorption capacity, thereby improving the efficiency and effect of moisture absorption.
  • a third first partition can be provided on the lower housing 220 of the turntable, and a third second partition can be provided at a corresponding position on the upper housing 210 of the turntable.
  • the third first and second partitions can be arranged downstream of the regeneration zone or upstream of the dehumidification zone, so that the entire turntable housing space is divided into three spaces, which can respectively realize the water absorption and dehumidification functions, the regeneration and desorption functions, and Cooling function.
  • the roughly sector-shaped area between the third first and second partitions and the regeneration area is the cooling area that implements the cooling function of the turntable 200 .
  • the advantage of this setting is: when the turntable passes through the regeneration zone and is heated to desorb moisture, there will be high-temperature waste heat on the turntable 200, and the high-temperature waste heat will affect the ability of the turntable 200 to absorb moisture after entering the dehumidification zone. Therefore, between the regeneration zone and the dehumidification zone, A cooling zone is provided between them so that the turntable 200 has a buffer cooling effect and can improve the water absorption efficiency.
  • the drying module may include a shell with a turntable accommodation cavity, a circulation fan accommodation cavity, a condenser accommodation cavity, a regeneration module accommodation part and a regeneration fan installation part, a drum air outlet, a circulation fan, a turntable
  • the accommodating cavity is connected to the air inlet of the drum in sequence, so that the wet circulating air flow discharged from the drum can be extracted by the circulating fan and sent to the bottom of the turntable accommodating cavity.
  • the wet circulating air flow passes through the turntable 200 from bottom to top, and the turntable 200 absorbs the wet circulating air flow.
  • the flow can be converted into drying circulating airflow, and the drying circulating airflow enters the drum through the drum air inlet and fully contacts the clothes to improve drying efficiency.
  • the regeneration module 30, the condenser 401 and the regeneration fan form a closed loop communication.
  • the regeneration air flows through the regeneration fan and is extracted and sent to the regeneration module.
  • the regeneration air flows through the regeneration module 30 and is heated and passes through the turntable 200 from top to bottom.
  • the heated regeneration The air flow desorbs the moisture adsorbed in the turntable 200 and takes away the water vapor, which enters the condenser for heat exchange.
  • the water vapor in the regeneration air flow is cooled to form condensed water and is discharged from the condenser.
  • the dry, low-temperature regeneration air flow enters the regeneration fan for regeneration. Next cycle.
  • the casing can be provided with overlapping portions 51, which can be arranged at intervals along the circumference of the casing.
  • the entire drying module can be installed on the frame through the overlapping portions.
  • the shell includes a lower shell 100, a turntable upper shell 210, a circulation module upper shell 111, a condensation module upper shell 410, etc.
  • the drying module can be installed on the top of the drum of the washing and drying machine.
  • the drying module is arranged horizontally, that is, the rotating axis of the turntable 200 and the rotating axis of the circulation fan.
  • the rotating axes of the regeneration fan are roughly parallel and roughly perpendicular to the upper shell of the washing and drying machine/perpendicular to the rotating axis of the drum of the washing and drying machine.
  • the overall height of the washing and drying machine depends on the diameter of the drum and the height of the shell placed above the drum. Thickness, circulation fan, regeneration fan, condenser, etc. can be arranged above the drum. Since the drum is approximately horizontal cylindrical, there will be more vertical space above it for circulation fan, regeneration fan, condenser and other components. installation.
  • the circulation fan in the embodiment of the present application may include a circulation motor and an impeller.
  • the circulation motor drives the impeller to rotate to change the direction of the air flow and provide power for the wet circulation air flow.
  • the lower shell can be integrated, which can facilitate the overall installation of the drying module. Installing the drying module on the top of the drum of the washing and drying machine can prevent the vibration of the drum from affecting the entire drying module. cause certain impact.
  • the lower housing 100 may include a circulation module lower housing 112, a turntable lower housing 220, a condensation module lower housing 420 and a regeneration fan mounting part 320, and the lower housing may be integrally formed.
  • the regeneration fan is purchased as a complete unit, so only the regeneration fan installation part 320 is provided.
  • the lower turntable housing 220 may be provided with a first turntable receiving area.
  • the lower turntable housing 220 may include a bottom plate and a circumferential side wall protruding from the bottom plate, and the recessed portion formed is the first turntable receiving area.
  • the upper turntable housing 210 can be provided with a second turntable accommodation area, and the recessed portion structures of the upper turntable housing 210 and the lower turntable housing 220 can be arranged symmetrically.
  • the first turntable accommodating area and the second turntable accommodating area can form a turntable accommodating cavity. Since air flow passes through the turntable accommodating cavity, the upper turntable housing 210 and the lower turntable housing 220 can be connected in a sealed manner.
  • the upper turntable housing 210 or the lower turntable housing 220 is provided with a groove, and a sealing strip is provided in the groove.
  • a sealing strip is provided in the groove.
  • the circulation module lower shell 112 and the circulation module upper shell 111 are cooperatively connected to form a circulation fan accommodation cavity
  • the condensation module lower shell 420 and the condensation module upper shell 410 are cooperatively connected to form a condenser accommodation cavity.
  • the drying module may specifically include: a housing provided with a turntable component receiving cavity; a turntable component installed in the turntable component receiving cavity; the turntable component includes a turntable 200, at least part of the turntable 200 Used to absorb moisture in the wet circulating air flow; there are gaps between the two sides of the turntable 200 and the first inner wall and the second inner wall of the housing to form an air flow channel; wherein the first inner wall and the second inner wall are arranged oppositely , and the first inner wall or the second inner wall and the two side surfaces of the turntable 200 are substantially parallel; at least one diverter 222 is provided around at least one of the first inner wall or the second inner wall, and the diverter 222 is used to divert the inflow airflow channel.
  • the turntable component may include a turntable 200 and a driving assembly.
  • the driving assembly may include a motor, and the motor may drive the turntable 200 to rotate.
  • the turntable 200 can be made of materials with good hygroscopic properties, such as zeolite, lithium chloride, silica gel, modified silica gel or 13X (sodium X type) molecular sieve.
  • the wet circulating airflow flowing into the airflow channel on one side of the turntable 200 passes through the turntable 200 and reaches the airflow channel on the other side.
  • the turntable 200 absorbs the moisture in the wet circulating airflow, so that the wet circulating airflow can become a dry circulating airflow; due to the air outlet of the circulating fan
  • the connection with the turntable component accommodation cavity is roughly along the tangential direction of the turntable, and the circulating air flow has a certain flow rate, and the wet circulating air flow has a high moisture content, so it will escape away from the rotation center of the turntable under the action of centrifugal force.
  • the air flow usually It is formed at the larger diameter of the turntable 200, and the airflow in the area close to the rotation center of the turntable is small, so that the main moisture absorption part of the turntable 200 is at the larger diameter, affecting the moisture absorption efficiency and the moisture absorption utilization rate of the turntable.
  • a diverter 222 is provided around the bottom wall of the casing, which can divert the wet circulating airflow flowing into the airflow channel. One part enters the area near the center of the circle, and the other part enters the area near the outer periphery of the turntable 200, so that the airflow flows in.
  • the wet circulating airflow of the channel is more dispersed and more uniform, and the airflow can contact the turntable 200 over a larger area, which can improve the moisture absorption efficiency of the turntable 200 .
  • the housing includes: a lower turntable housing 220, which is provided with a first turntable accommodation area; an upper turntable housing 210, which is provided with a second turntable accommodation area, and the upper turntable housing is cooperatively connected with the lower turntable housing.
  • first turntable accommodation area and the second turntable accommodation area form the turntable component accommodation cavity; there is a gap between the top surface of the turntable 200 and part of the inner top wall of the turntable upper housing 210 to form a first airflow channel; There is a gap between the bottom surface of the turntable 200 and part of the bottom wall of the lower housing of the turntable to form a second airflow channel; the second airflow channel is connected to the air outlet of the drum, and the first airflow channel is connected to the air inlet of the drum, so that the air inside the drum
  • the wet circulating airflow passes through the second airflow channel and through the turntable 200 to reach the first airflow channel; for example, the diverter 222 is provided around the bottom wall of the lower housing 220 of the turntable to divert the air flowing into the second airflow channel.
  • the air flow is divided.
  • the wet circulating airflow discharged from the drum enters the bottom of the turntable component accommodation cavity, that is, diffuses in the second airflow channel.
  • the diverter 222 is surrounding the inner bottom wall of the lower housing of the turntable, the inflowing wet circulating airflow can be diverted.
  • the flow is divided, and one part enters the area close to the center of the circle, and the other part enters the area close to the periphery of the turntable 200, so that the wet circulating airflow flowing into the airflow channel is more dispersed and more uniform.
  • the wet circulating airflow then passes through the turntable 200 from bottom to top, and the turntable 200
  • the moisture in the wet circulating air flow is absorbed, and the wet circulating air flow is changed into a dry circulating air flow, which can improve the moisture absorption efficiency of the turntable 200.
  • the dry circulating air flow flows from the first air flow channel to the air inlet of the drum and enters the drum, where it fully contacts the clothes and improves drying. Dry efficiency and reduce energy consumption.
  • the at least one diverter member 222 is provided in the dehumidification area of the first turntable accommodation area to separate the dehumidification area into at least a first diverter area and a second diverter area; the side of the turntable lower housing 220
  • a second air inlet 223 is provided on the wall.
  • One end of the diverter 222 abuts the second air inlet 223 to divide the second air inlet 223 into at least a first sub-port and a second sub-port.
  • the first sub-port and the second sub-port are The first shunt area is connected, the second sub-port is connected to the second shunt area, and so on.
  • the diverter 222 divides the second air inlet 223 into a first sub-port and a second sub-port, so that the wet circulation airflow is diverted through the diverter 222 at the second air inlet 223 and enters the two divert areas near the center and outer periphery of the circle. , that is, the first splitting area and the second splitting area.
  • the wet circulating air flow is reasonably split, so that the wet circulating air flow flowing into the first air flow channel is more dispersed and more uniform, and the air flow can contact the turntable 200 over a larger area.
  • the moisture absorption efficiency of the turntable 200 can be improved. It can be understood that for the dehumidification area of the first turntable accommodation area, more than two diverting members 222 can be provided, and they can be arranged in parallel, thereby dividing the dehumidifying area into multiple diverting areas.
  • a preferred solution is for the diverter 222 to protrude from the bottom wall of the lower housing 220 of the turntable.
  • the height of the diverting member 222 is limited to not contacting the turntable 200, which not only avoids interference, but also forms an airflow seal between at least two diverting areas.
  • the diverting member 222 protrudes from the bottom wall of the turntable lower housing 220, which can form a gap between the bottom surface of the turntable 200 and the bottom wall of the turntable lower housing 220, that is, the second airflow channel is divided into a first diverting area and a third Second diversion area.
  • the first partition 221 is arranged along the radial direction of the lower housing 220 of the turntable, so that both the dehumidification zone and the regeneration zone are substantially fan-shaped; wherein, the area of the dehumidification zone can be set as the regeneration zone. 1.5-4 times the area.
  • the area of the dehumidification area can be set to be larger than the area of the regeneration area, so that most of the turntable 200 is in the dehumidification area, thereby further improving the moisture absorption efficiency and effect of the turntable 200 .
  • a dynamic sealing effect can be formed between the first partition 221 and the turntable 200.
  • first partition 221 and/or the second partition 211 can also be A sealing member, such as a flexible sealing member, is provided between the turntable and the turntable, and the sealing member is fixedly disposed on the first partition 221 and/or the second partition 211 .
  • a sealing member such as a flexible sealing member, is provided between the turntable and the turntable, and the sealing member is fixedly disposed on the first partition 221 and/or the second partition 211 .
  • the first partition 221 at least includes a first partition 2211 and a second partition 2212.
  • the first partition 2211 and the second partition 2212 are both arranged along the radial direction of the turntable lower housing 220.
  • One end of the first partition 2211 and the second partition 2212 are connected to the side inner wall of the turntable lower housing 220, and the other ends of the first partition 2211 and the second partition 2212 intersect at the central area of the turntable lower housing 220, so as to
  • the first partition 221 is generally V-shaped; the intersection of the first partition 2211 and the second partition 2212 is an arc transition connection.
  • the first partition 221 can be configured to protrude from the bottom plate of the turntable lower housing 220 so that there is a gap between the bottom surface of the turntable 200 and the bottom plate of the turntable lower housing 220 to form a second airflow channel.
  • the first turntable accommodating area can be divided into a dehumidification area and a regeneration area, and the dehumidification area and the regeneration area can be divided into a sector shape; therefore, it is beneficial for the turntable 200 to circulate during the rotation.
  • the ring passes through the dehumidification zone and the regeneration zone and continuously absorbs and desorbs moisture, so that the turntable 200 always has good water absorption capacity, thus improving the efficiency and effect of moisture absorption.
  • the intersection of the first partition 2211 and the second partition 2212 is an arc transition connection, which can better guide the divided wet circulation airflow.
  • the intersection of the first partition 2211 and the second partition 2212, that is, the upwardly protruding fixed shaft 224 can be provided in the center area of the lower housing 220 of the turntable.
  • the center of the turntable 200 is sleeved on the fixed shaft 224.
  • the turntable 200 can Rotates about fixed axis 224.
  • the first flow splitting area is composed of the inner arc side wall of the flow splitting member 222 and the first partition 221; the second flow splitting area is composed of the outer arc side wall of the flow splitting member 222 and the first partition member 221.
  • the inner wall of the lower housing 220 of the turntable is formed.
  • the diverter 222 is located between the first partition 221 and the inner wall of the lower housing 220 of the turntable, and is arranged around the bottom wall of the lower housing 220 of the turntable. Therefore, the wet circulating airflow entering the second airflow channel is more consistent with the fluid flow.
  • the airflow quickly flows into the second airflow channel from the outlet of the circulation fan, under the action of centrifugal force, it spreads along the side wall of the splitter 222 and the inner wall of the lower housing 220 of the turntable to the other side opposite to the air inlet 223.
  • One end so that the airflow can have more time to contact the turntable 200, which is more conducive to absorbing the moisture of the humidified circulating airflow, instead of passing through the turntable 200 from bottom to top at the air inlet 223 and then directly entering the first airflow channel, further improving The moisture absorption efficiency and effect of the turntable 200 are improved.
  • the second air inlet 223 is located close to the first partition 2211; the diverter 222 includes a first diverter fluid 2221 and a second diverter fluid 2222 smoothly connected to one end of the first diverter fluid 2221.
  • the dividing fluid is substantially parallel to the first dividing body 2211, and the first dividing fluid 2221 is spaced apart from the first dividing body 2211; the other end of the second dividing fluid 2222 away from the first dividing fluid 2221 is connected to the second dividing body, and the second dividing fluid 2222 is connected to the second dividing body.
  • the branching fluid 2222 is arranged in an arc shape and can be arranged parallel to the inner wall of the lower housing.
  • the wet circulating airflow After the wet circulating airflow enters from the second air inlet 223, it is guided by the first divided fluid 2221 and the second divided fluid 2222, combined with the action of centrifugal force, which not only effectively divides the wet circulating airflow, but is also more conducive to the wet circulating airflow. Diffusion within the second airflow channel.
  • the diverter member 222 may also be an integral member parallel to the inner wall of the lower housing.
  • the second branching fluid 2222 is coaxially arranged with the side wall of the turntable lower housing 220 .
  • the second branching fluid 2222 is arranged in an arc shape, and the arc center of the second branching fluid 2222 is concentrically arranged with the arc center of the side wall of the turntable lower housing 220, that is, it is concentric with the rotation center of the turntable 200, which is more consistent with fluid dynamics.
  • the second branching fluid 2222 can be located at 1/2 of the radius of the side wall of the lower housing 220 of the turntable to achieve The incoming wet circulating air flow is divided effectively and evenly.
  • splitting members 222 there may be more than two splitting members 222 , which may uniformly or unevenly divide the second airflow channel into multiple splitting areas to further reduce the impact of centrifugal force on the adsorption of moisture in the airflow.
  • the specific configuration may be the same as or similar to the previous embodiment.
  • the drying module may specifically include: a circulation module 10 and a dehumidification module 20 .
  • the circulation module 10 has a first circulation passage, which is connected with the air outlet of the drum, so that the wet circulating air flow in the drum enters the first circulation passage;
  • the dehumidification module 20 is located downstream of the circulation module 10,
  • the dehumidification module 20 has a second circulation passage, which is connected with the drum air inlet; the drum air outlet, the first circulation passage, the second circulation passage and the drum air inlet are connected in sequence to form a circulation passage;
  • the dehumidification module 20 includes a turntable component, at least part of which is disposed on the second circulation passage.
  • the turntable component is used to absorb moisture from the wet circulating air flow in the drum; wherein, the wet circulating air flow in the drum passes through the first circulation passage and the third circulation passage in turn.
  • the second circulation path becomes a dry circulating air flow.
  • the circulation module 10 may include a circulation fan.
  • the setting of the circulation fan can provide power for the wet circulating air flow, which is beneficial to the circulation of the air flow.
  • the air inlet of the circulation fan is connected to the drum air outlet, and the air outlet of the circulation fan is connected to the second circulation passage.
  • the turntable component is arranged on the second circulation path.
  • the turntable component can first absorb moisture from the wet circulating air flow in the drum, so that the wet circulating air flow becomes a relatively dry circulating air flow.
  • the dry circulating air flow enters the drum through the air inlet of the drum. , fully contact with clothes, improve drying efficiency and reduce energy consumption.
  • the dehumidification module 20 also includes: a lower turntable housing 220, which is provided with a first turntable accommodation area; an upper turntable housing 210, which is provided with a second turntable accommodation area, and the upper turntable housing 210 and the lower turntable housing are
  • the housing 220 is cooperatively connected so that the first turntable accommodation area and the second turntable accommodation area form a turntable component accommodation cavity; the turntable component is installed in the turntable component accommodation cavity; the turntable component includes the turntable 200; the top surface of the turntable 200 and the turntable upper shell There is a gap between part of the top wall of the body 210 to form a first airflow channel; there is a gap between the bottom surface of the turntable 200 and part of the bottom wall of the turntable lower housing 220 to form a third air flow channel.
  • Two air flow channels; the second air flow channel, the turntable 200 and the first air flow channel form a second circulation channel; wherein the second air flow channel is connected to the first circulation channel, and the first air flow channel is connected to the drum air inlet, so that the inside of the drum
  • the wet circulating air flow passes through the second air flow channel and passes through the turntable 200 to reach the first air flow channel.
  • the turntable 200 forms a part of the turntable component, and the turntable component may also include a driving component.
  • the driving component may include a motor, and the motor may drive the turntable 200 to rotate.
  • the turntable 200 can be made of materials with good hygroscopic properties and good desorption properties, such as zeolite, lithium chloride, silica gel, modified silica gel or 13X (sodium X type) molecular sieve.
  • the wet circulating airflow discharged from the drum enters the bottom of the turntable accommodation cavity and diffuses in the second airflow channel.
  • the wet circulating airflow passes through the turntable 200 from bottom to top.
  • the turntable 200 absorbs the moisture in the wet circulating airflow, so that the wet circulating airflow can become Drying circulating airflow, the drying circulating airflow enters the drum through the drum air inlet and fully contacts the clothes, improving drying efficiency and reducing energy consumption.
  • the embodiment of the present application can avoid the decrease in moisture absorption capacity of humid air caused by using an evaporator.
  • the circulation module 10 includes: a circulation module shell, which has an impeller accommodation cavity; the circulation module shell is provided with a first air inlet 102 and a first air outlet 103; an impeller 110, the The impeller 110 is disposed in the impeller accommodating cavity, the impeller rotation axis is substantially parallel to the first air inlet axis, and the impeller rotation axis is approximately perpendicular to the first air outlet axis; circulation motor 120 , the circulation The motor 120 is connected and fixed to the circulation module housing, and the output shaft of the circulation motor 120 is connected and fixed to the impeller 110; the first air inlet 102, the impeller accommodation cavity and the first air outlet 103 form a first circulation passage; wherein, The first air inlet 102 is connected with the air outlet of the drum, and the first air outlet 103 is connected with the second circulation passage, so that the wet circulating air flow in the drum enters the first circulation passage and the second circulation passage in sequence.
  • the rotation axis of the impeller 110 corresponds to the first air inlet, that is, the rotation axis of the impeller 110 can pass through the first air inlet 102, so that the impeller 110 can directly drive the airflow at the first air inlet 102, so that the airflow flows into
  • the airflow can be quickly pumped into the circulation module housing without increasing the rotation speed of the impeller 110; when the impeller 110 is driven to rotate by the circulation motor 120, a centrifugal force is formed around the outer circumference of the impeller 110, and the airflow in the impeller 110 When flowing in the direction of centrifugal force, the airflow disperses from around the impeller 110, thereby changing the flow direction of the airflow; and a negative pressure is formed at and near the rotation axis of the impeller 110, which can increase the airflow sucked into the first air inlet 102.
  • the circulation power as an air supply mode in which the circulation motor 120 controls the rotation of the impeller 110 to form a negative pressure
  • Related losses caused by direct collision of strong wind force with other components can be effectively avoided.
  • Traditional fans usually cause higher losses when the airflow changes the flow direction.
  • the circulation module provided by the embodiment of the present application provides power for the airflow to change the flow direction, which brings more flexibility when laying out the circulation module. sex.
  • the circulation fan may include a circulation motor 120 and an impeller 110 driven to rotate by the circulation motor 120 .
  • the drying module also includes: a pre-condenser, which is arranged on the circulation path, and the pre-condenser is located upstream of the circulation module 10; the pre-condenser is used to treat the wet circulating air flow from the drum. Perform pre-dehumidification.
  • a pre-condenser is provided upstream of the circulation module 10 to reduce the humidity of the wet circulating air flow from the drum.
  • the pre-condenser is a second condenser.
  • the pre-condenser includes a water-cooled condenser or an air condenser; the pre-condenser is disposed on an air outlet channel connected to the air outlet of the drum.
  • the air outlet channel connected to the air outlet of the drum can be set at the left rear of the drum or the right rear of the drum.
  • the front condenser when the front condenser is a water-cooled condenser, the front condenser can be set upstream of the air flow direction of the filter assembly. In this way, on the one hand The humidity of the airflow entering the dehumidification module 20 can be reduced.
  • the water-cooled condenser provided on the air outlet channel of the drum can specifically be provided with a nozzle at the water inlet to slowly spray cooling water to the outer wall of the pipe to maintain the continuous low temperature of the pipe wall, thereby condensing and removing water from the wet circulating air flow flowing through the pipe;
  • the air outlet channel of the drum can be set as a double-layer pipe wall.
  • the double-layer pipe wall can include an inner ring pipe and an outer ring pipe arranged at coaxial intervals.
  • the front condenser is an air condenser
  • the wet circulating air flow from the drum exchanges heat with the air condenser and cools down.
  • the water vapor in the wet circulating air flow is cooled to form condensed water and is discharged from the air condenser drain outlet.
  • the drying module further includes: an auxiliary heater, which is disposed on the circulation path, and the auxiliary heater is located downstream of the dehumidification module 20; the auxiliary heater is used to heat the drying circulation airflow.
  • the auxiliary heater For moisture circulation from the drum The annular airflow absorbs moisture through the turntable 200, so that the wet circulating airflow can be converted into a drying circulating airflow.
  • the auxiliary heater heats the drying circulating airflow, which can increase the temperature of the drying circulating airflow entering the drum to speed up drying of the clothes in the drum. speed.
  • the auxiliary heater is a second heater.
  • a first partition 221 is provided in the first turntable accommodation area to separate the first turntable accommodation area into a dehumidification area and a regeneration area; a second inlet is provided on the side wall of the lower turntable housing 220.
  • the air outlet 223 and the second air inlet 223 are respectively connected with the first air outlet 103 and the dehumidification area of the second air flow channel.
  • Moisture in the circulating air flow is adsorbed; during the rotation of the turntable 200, the part that has absorbed moisture in the dehumidification zone rotates to the regeneration zone for dehydration and regeneration.
  • a second air outlet is provided on the side wall of the upper housing 210 of the turntable, and the second air outlet is connected to the dehumidification area of the first air flow channel and the drum air inlet respectively;
  • the second air inlet 223 is located close to One of the first partition body and the second partition body;
  • the second air outlet is located close to the other one of the first partition body and the second partition body.
  • the second air inlet 223 and the second air outlet are respectively located on both sides of the first partition and the second partition.
  • the diversion diffuses in the second airflow channel, and the wet circulating airflow passes through the turntable 200 from bottom to top to the first airflow channel, and converges at the second air outlet on the other side of the dehumidification area, which relatively extends the flow path of the circulating airflow, so that The contact area between the circulating airflow and the bottom surface and the top surface of the turntable 200 is larger, which improves the utilization rate of the turntable 200 .
  • the drying module also includes: an air outlet channel 203, which is located at the second air outlet, and the air outlet channel 203 protrudes from the outside of the side wall of the upper housing 210 of the turntable; an inlet air channel 52, One end is connected to the air outlet channel, and the other end is connected to the drum air inlet; the auxiliary heater includes a heating tube or heating wire; the auxiliary heater is arranged in the air inlet duct.
  • a sealing ring can be provided between the inlet air duct 52 and the air outlet channel 203.
  • a pair of matching connecting flanges are provided at the ends of the inlet air duct 52 and the air outlet channel 203.
  • the inlet air duct is connected by bolts.
  • the channel 52 is connected and fixed with the air outlet channel 203, and the sealing ring in the middle is compressed and deformed to achieve the sealing effect.
  • the auxiliary heater may include a heating tube or heating wire, which is arranged along the inner wall of the inlet air duct 52 , and a heat insulation material may be provided between the heating tube or heating wire and the inner wall of the inlet air duct 52 .
  • the circulation module 10 and the dehumidification module 20 together form a circulation path.
  • the flow direction of the wet circulation airflow from the drum is shown by the arrow in Figure 11: the wet circulation airflow passes from the drum air outlet through the air outlet channel.
  • the air outlet channel is equipped with a filter and a pre-condenser.
  • the wet circulating airflow enters the corrugated hose 50 (arrow 1), passes through the first air inlet 102, and is powered by the circulation fan to reach the lower side of the turntable 200 (arrow 2 ), that is, diffuses in the second airflow channel, passes through the turntable 200 from the lower side of the turntable 200 to the upper side (arrow 3), the wet circulating airflow absorbs the moisture in the turntable 200, and can be converted into a dry circulating airflow and then circulates on the turntable 200
  • the upper space flows (arrow 4), that is, reaches the inlet air duct 52 (arrow 5) through the first air flow channel.
  • An auxiliary heater is provided in the inlet air duct to heat the drying cycle airflow. The heated drying cycle The airflow then circulates through the inlet air duct 52 and enters the drum (arrow 6).
  • the drying module includes: a dehumidification module 20, which has a second circulation passage, and the second circulation passage is connected with the air outlet of the drum, so that the wet circulating air flow in the drum enters the second circulation passage;
  • the dehumidification module It includes a turntable component, at least part of the turntable component is disposed on the second circulation path, and the turntable component is used to absorb moisture from the wet circulating air flow in the drum;
  • the circulation module 10 is located downstream of the dehumidification module 20, and the circulation module It has a first circulation passage, and the first circulation passage is connected with the air inlet of the drum, so that the wet circulating air flow in the drum passes through the second circulation passage and the first circulation passage in sequence, and becomes the dry circulating air flow and enters the drum for the next cycle;
  • the drum air outlet, the second circulation passage, the first circulation passage and the drum air inlet are connected in sequence to form a circulation passage.
  • the circulation module 10 and the dehumidification module 20 in the above embodiments can exchange positions, that is, the wet circulating airflow in the drum first enters the dehumidification module 20 through the drum air outlet channel, and then passes through the circulation module 10. Enter the drum through the drum air inlet channel.
  • the connection relationship between the air inlets and air outlets of each component can be adjusted adaptively.
  • the embodiment of the present application provides a circulation module 10, as shown in Figures 8-10, specifically including: a circulation module housing, an impeller 110 and a circulation motor 120.
  • the circulation module housing is provided with a first air inlet 102 and a first air outlet 103; Wheel 110, the impeller 110 is arranged in the circulation module housing, the rotation axis of the impeller 110 is parallel to the axis of the first air inlet 102, the rotation axis of the impeller 110 is approximately perpendicular to the axis of the first air outlet 103; the circulation motor 120, the circulation motor 120 is connected with the circulation module
  • the group housing is connected and fixed, and the output shaft of the circulation motor 120 and the impeller 110 are connected and fixed.
  • the rotation axis of the impeller 110 corresponds to the first air inlet, that is, the rotation axis of the impeller 110 can pass through the first air inlet 102, so that the impeller 110 can directly drive the airflow at the first air inlet 102, so that the airflow flows into
  • the airflow can be quickly pumped into the circulation module housing without increasing the rotation speed of the impeller 110; when the impeller 110 is driven to rotate by the circulation motor 120, a centrifugal force is formed around the outer circumference of the impeller 110, and the airflow in the impeller 110 When flowing in the direction of centrifugal force, the airflow disperses from around the impeller 110, thereby changing the flow direction of the airflow; and a negative pressure is formed at and near the rotation axis of the impeller 110, which can increase the airflow sucked into the first air inlet 102.
  • the circulation power as an air supply mode in which the circulation motor 120 controls the rotation of the impeller 110 to form a negative pressure, related losses caused by direct collision of strong wind force with other components can be effectively avoided.
  • Traditional fans usually cause higher losses when the airflow changes the flow direction.
  • the circulation module provided by the embodiment of the present application provides power for the airflow to change the flow direction, which brings more flexibility when laying out the circulation module. sex.
  • the circulation module housing includes: a circulation module lower housing 112, which is provided with a recessed first impeller accommodation area; and a circulation module upper housing 111, which is provided with a recessed second impeller.
  • Accommodation area; the lower housing 112 of the circulation module is cooperatively connected with the upper housing 111 of the circulation module, so that the first impeller accommodation area and the second impeller accommodation area form an impeller accommodation cavity.
  • the impeller 110 is located in the impeller accommodating cavity.
  • the impeller accommodating cavity can be set to be circular larger than the outer diameter of the impeller 110.
  • the axis of the impeller accommodating cavity is parallel to the rotation axis of the impeller 110, so that the airflow output by the rotation of the impeller 110 can pass under the circulation module.
  • the inner wall of the housing 112 and the upper housing 111 of the circulation module guides outflow.
  • the circulation module lower housing 112 includes: a first bottom plate 1122 and a first side wall 1121.
  • the first side wall protrudes from the first bottom plate and is arranged along the circumferential direction of the first bottom plate 1122 to form the first side wall.
  • the circulation module upper housing 111 includes: a first top plate 1112 and a second side wall 1111.
  • the second side wall protrudes from the first top plate and is arranged along the circumferential direction of the first top plate 1112 to form the second impeller accommodation area; the top of the second side wall 1111 is provided with a first protrusion.
  • the circulation module lower shell 112 can be prepared by bending the bottom plate upward.
  • the circulation module upper shell 111 can be prepared by bending the top plate downward; the circulation module lower shell 112 and the circulation module upper shell 111 are in During assembly, the first protrusion squeezes the sealing gasket 113 in the first groove to deform the sealing gasket 113 to achieve an excellent sealing effect between the circulation module lower shell 112 and the circulation module upper shell 111 .
  • the impeller 110 includes: an impeller main body 1101 and a fixed ring 1103 arranged axially opposite to the impeller main body 1101; the impeller main body 1101 extends in the direction of the fixed ring 1103 and is configured to accommodate a circulating motor.
  • An accommodation cavity, one end of the circulation motor 120 is arranged in the accommodation cavity, and the output shaft of the circulation motor 120 is connected and fixed to the bottom of the impeller body 1101; and, blades 1102, the two ends of the blades 1102 are respectively connected to the accommodation cavity.
  • the impeller body 1101 and the fixed ring 1103 are fixedly connected, the blades 1102 are spaced around the impeller body 1101, and the blades 1102 are inclined forward along the rotation direction of the impeller.
  • the impeller body 1101 may include a cover plate at the top, and one end of the blades 1102 along the length direction is fixedly connected to the cover plate, so that the air flow sucked in from the bottom of the impeller is blocked by the cover plate and output in the radial direction of the impeller; the impeller body 1101 is directed toward the blades 1102 Extended, the impeller body 1101 is provided with a recessed accommodation cavity, and one end of the circulation motor 120 is embedded in the accommodation cavity, so that the overall axial length of the circulation fan is reduced and the overall length of the circulation fan is reduced.
  • the blades 1102 are tilted forward along the rotation direction of the impeller, which can improve the air outlet efficiency of the impeller, help improve the noise reduction effect of the fan, and improve the energy efficiency of the fan.
  • the top of the first top plate 1112 is provided with through-mounting holes 1114 and positioning bumps.
  • the mounting holes 1114 are adapted to the circulation motor; the positioning bumps are arranged at intervals along the circumferential direction of the mounting holes 1114, and the positioning bumps are inserted into
  • the mounting ears of the circulation motor are used to fix the circulation motor on the first top plate 1112 .
  • the mounting ear seat can be provided on the casing of the circulating motor, and the mounting ear seat is located at an end of the casing of the circulating motor away from the output shaft.
  • the mounting ear seat can be provided with a positioning hole that matches the positioning bump, and the positioning hole can be set to There is no penetration.
  • the mounting ear seat is provided with a bolt hole.
  • the bolt hole and the positioning hole are connected.
  • the positioning bump can be provided with a threaded hole.
  • the threaded hole and the bolt hole are coaxially arranged and adapted.
  • the positioning bump is inserted into the positioning hole.
  • the bolt passes through the bolt hole and is screwed into the threaded hole, so that the circulating motor is fixed on the first top plate 1112 and the circulating motor is embedded in the mounting hole 1114 And extend downward; in this way, the installation part of the circulation motor is located outside the upper housing 111 of the circulation module, which facilitates the installation and disassembly of the circulation motor.
  • the circulation module housing is in the shape of a volute; the circulation module housing has a constriction portion extending in a direction perpendicular to the rotation axis of the impeller 110; the first air outlet is connected to the constriction portion through the constriction portion.
  • the impeller accommodating cavity is connected.
  • the casing of the circulation module is in the shape of a volute.
  • the volute has a unique shape. After the airflow passes through the impeller 110, it changes the flow direction and is output by the constriction part. This can prevent the airflow from always circulating in the impeller accommodation cavity, which meets the fluid design requirements and provides maximum airflow flow. Limit air volume and speed.
  • the first air inlet 102 is located on the first bottom plate 1122, and the first air inlet 102 is coaxially arranged with the mounting hole 1114;
  • the contraction part has an air outlet cavity, the first air inlet 102, the impeller accommodation cavity, and the outlet cavity.
  • the air cavity and the first air outlet are connected in sequence, and the impeller accommodating cavity, the air outlet cavity and the first air outlet are located on the same horizontal plane.
  • the constriction part has an air outlet cavity.
  • the airflow changes direction after passing through the impeller 110 and flows to the first air outlet through the air outlet cavity.
  • the air outlet cavity is roughly perpendicular to the rotation axis of the impeller 110, and the impeller accommodation cavity, the air outlet cavity and the first air outlet are connected.
  • the air outlets are roughly located on the same horizontal plane, thereby reducing the size of the circulation module housing in the height direction, reducing the overall space occupied by the circulation module, and also reducing the overall height of the washing and drying machine using the circulation module. and volume.
  • the circulation module 10 further includes: a circulating air interface piece, which is connected to the shrinkage part; or, the circulating air interface piece is integrated with the circulation module shell; the circulating air interface piece is away from the shrinkage part.
  • One side is arc-shaped, and the circulating air interface piece gradually expands toward the side away from the constriction part.
  • the circulating air interface piece has an expansion air duct, and both ends of the expansion air duct are connected to the air outlet cavity and the first air outlet respectively.
  • the circulating air interface piece can be set as two separate upper and lower shells, which are connected to the upper and lower shells of the circulation module 111 and the lower shell 112 of the circulation module respectively; the cross-sectional area of the expansion air duct gradually increases toward the side away from the contraction part. , when the airflow passes through the impeller 110 and then enters the air outlet cavity and the expansion air duct, thereby further converting the dynamic pressure energy of the airflow into static pressure energy, improving the conversion ability of the dynamic pressure energy and improving the working performance of the fan.
  • the first side wall 1121 is provided with lower housing connectors 1123.
  • the lower housing connectors 1123 are spaced along the outer circumference of the first side wall 1121 and protrude from the first side wall 1121;
  • the two side walls 1111 are provided with upper housing connectors 1113.
  • the upper housing connectors 1113 are arranged in a one-to-one correspondence with the lower housing connectors 1123.
  • the upper housing connectors 1113 and the lower housing connectors are 1123 connection, so that the positions of the lower housing 112 of the circulation module and the upper housing 111 of the circulation module are relatively fixed.
  • the upper housing connector 1113 and the lower housing connector 1123 can be provided with matching bolt through holes. Bolts are inserted into the bolt through holes to realize the circulation module lower housing 112 and the circulation module upper housing. detachable connection between bodies 111.
  • a fixing card 1115 is provided on the circulation module housing.
  • the fixing card 1115 is used to fix circuits or pipelines, so that the wires of the circulation motor or the water and gas pipelines on the whole machine can be fixed. Can get better layout.
  • the circulation module also includes a transition piece 130, which is provided on the lower housing 112 of the circulation module, and the transition piece 130 is adapted to the first impeller accommodation area; the transition piece is connected and fixed to the first bottom plate 1122. ;
  • the transition piece is provided with a penetrating through hole, and the through hole is connected to the first impeller accommodating area; the side of the transition piece away from the first impeller accommodating area is connected to the corrugated hose 50, and the corrugated hose 50 is connected to the lower housing through the transition piece 130
  • the air inlet is connected.
  • the transition piece may be provided with a first transition hole and a second transition hole. The first transition hole and the second transition hole are evenly distributed along the circumferential direction of the through hole.
  • the diameter of the first air inlet 102 is smaller than that of the first transition hole.
  • distribution diameter the end of the corrugated hose 50 can be provided with corresponding threaded holes, and bolts are screwed into the threaded holes through the first transition hole, so that the corrugated hose 50 is fixed on the transition piece 130; the second transition hole
  • the distribution diameter is larger than the diameter of the first air inlet 102.
  • the first bottom plate 1122 is provided with a threaded hole corresponding to the second transition hole, and the bolt is screwed into the threaded hole through the second transition hole to fix the transition piece 130 to the second transition hole. On a base plate 1122.
  • a positioning sleeve can be provided on one side of the transition piece, and the positioning sleeve can be inserted into the corrugated hose 50 .
  • the corrugated hose 50 can be fixed on the transition piece 130 first, and then the transition piece 130 can be fixed on the first bottom plate 1122 to facilitate the installation and removal of the corrugated hose 50.
  • the drying module includes: a circulation module 10, a dehumidification module 20 and a regeneration module 30.
  • Circulation module 10 which has a first circulation passage, the first circulation passage is connected with the air outlet of the drum, so that the wet circulating air flow in the drum enters the first circulation passage;
  • a dehumidification module which has a second circulation passage, the dehumidification module Located downstream or upstream of the circulation module; the drum air outlet, the first circulation passage, the second circulation passage and the drum air inlet are connected in sequence to form a circulation passage;
  • the dehumidification module includes a moisture absorption and dehumidification component, at least part of the moisture absorption and dehumidification component Set up in the On the second circulation path, the moisture absorption and dehumidification component is used to absorb moisture from the wet circulating air flow in the drum;
  • the regeneration module 30 includes a regeneration component, and the regeneration component is arranged adjacent to at least another part of the moisture absorption
  • the circulation module 10 may include a circulation fan.
  • the setting of the circulation fan can provide power for the wet circulating air flow, which is beneficial to the circulation of the air flow.
  • the air inlet of the circulation fan is connected to the drum air outlet, and the air outlet of the circulation fan is connected to the second circulation passage.
  • the moisture absorption and dehumidification component is arranged on the second circulation path. The moisture absorption and dehumidification component can first absorb moisture from the wet circulating air flow in the drum, so that the wet circulating air flow becomes a relatively dry circulating air flow, and the dry circulating air flow enters through the drum. The opening enters the drum and fully contacts the clothes, which improves drying efficiency and reduces energy consumption.
  • the moisture adsorbed on the moisture absorption and dehumidification component is discharged through a regeneration component.
  • the regeneration component can be, for example, a heating component or an ultrasonic component.
  • the moisture absorption and dehumidification component is removed by heating or ultrasonic dehumidification. Removal of adsorbed moisture from wet components.
  • the close proximity can be set adjacently, or a certain gap or distance can be maintained between the elements.
  • the regeneration component can be ensured to be located upstream of the moisture absorption and desorption component. .
  • the dehumidification module is located upstream of the circulation module, and the second circulation path is connected to the air outlet of the drum.
  • the moisture absorption and dehumidification component can first absorb moisture from the wet circulating air flow in the drum; the first circulation path is connected to the drum.
  • the air inlet is connected to allow the relatively dry circulating air flow in the first circulation channel to enter the drum; the drum air outlet, the second circulation channel, the first circulation channel and the drum air inlet are connected in sequence to form a circulation channel.
  • the moisture absorption and dehumidification component includes a turntable 200; the regeneration component is a heating component; the regeneration module has a regeneration passage, and at least part of the heating component and the turntable are sequentially disposed on the regeneration passage, so that the regeneration airflow in the regeneration passage is sequentially
  • the part that flows through the heating component and at least part of the turntable becomes a moist and hot regeneration airflow.
  • the moisture absorption and discharge member may include a turntable 200 and a driving assembly.
  • the driving assembly may include a motor, and the motor may drive the turntable 200 to rotate.
  • the turntable 200 can be made of materials with good hygroscopic properties, such as zeolite, lithium chloride, silica gel, modified silica gel or 13X (sodium X type) molecular sieve.
  • the heating component is disposed on the regeneration path.
  • the heating component may include a heater. Therefore, the regeneration gas flow in the regeneration path becomes a high-temperature regeneration gas flow after being heated by the heater.
  • the high-temperature regeneration gas flow can be Through the part of the turntable 200 located in the regeneration passage, during the rotation of the turntable 200, when the turntable 200 rotates to the regeneration passage, the adsorbed moisture is continuously desorbed to keep the turntable 200 continuous and reusable.
  • the drying module may also include a turntable upper housing 210 and a turntable lower housing 220.
  • the turntable upper housing 210 and the turntable lower housing 220 are cooperatively connected to form a turntable accommodation cavity; the turntable 200 is installed in the turntable accommodation cavity.
  • the two air flow channels are connected to the air outlet of the drum, and the first air flow channel is connected to the air inlet of the drum; the wet circulating air flow in the drum passes through the second air flow channel and passes through the turntable 200 from bottom to top to the first air flow channel to form a dry circulating air flow.
  • the second air flow channel, the turntable 200 and the first air flow channel may form a second circulation path.
  • the regeneration passage is relatively isolated from the circulation passage, so that the regeneration air flow and the wet circulation air flow are not communicated with each other. Since a part of the turntable 200 is located in the regeneration path and the other part is located in the circulation path, the turntable 200 continuously passes through the regeneration path and the circulation path during the continuous rotation; in the exemplary embodiment, when a part of the turntable 200 rotates to the regeneration path, When the other part of the turntable 200 rotates into the circulation path, the wet circulating airflow can pass through the turntable 200 from bottom to top.
  • the turntable 200 can fully absorb the moisture in the wet circulating airflow; the two airflows of the regeneration airflow and the wet circulating airflow act on the turntable 200 at the same time.
  • the two airflows of the regeneration airflow and the wet circulating airflow can be separated.
  • Flow direction is set to relative.
  • partitions and seals on the turntable upper housing 210 and the turntable lower housing 220 By arranging partitions and seals on the turntable upper housing 210 and the turntable lower housing 220, a dynamic sealing effect is achieved during the rotation of the turntable 200, and the mutual communication between the wet circulation air flow and the regeneration air flow is minimized. , therefore, it is beneficial for the turntable 200 to continuously absorb moisture and dehydrate and dry during the rotation process, so that the turntable 200 always has good water absorption capacity, thus improving the efficiency and effect of moisture absorption.
  • the regeneration module further includes a regeneration fan 301.
  • the regeneration fan 301 is disposed on the regeneration path, and the regeneration fan 301 is located upstream of the heating component.
  • the setting of the regeneration fan 301 can provide power for the regeneration air flow, which is beneficial to the circulation of the air flow and improves efficiency.
  • the drying module also includes a condensation module 40.
  • the condensation module 40 may specifically include a condenser 401.
  • the condenser 401 is disposed on the regeneration path, between the turntable 200 and the regeneration fan 301.
  • the condenser is located Downstream of the turntable 200 and the condenser is located upstream of the regeneration fan 301, so that the hot and humid regeneration airflow in the regeneration passage enters the condenser 401 and becomes dry and cold regeneration airflow and enters the regeneration fan 301, so that the regeneration airflow forms a closed loop.
  • the regeneration airflow heats this part of the turntable 200, causing the moisture in this part to quickly evaporate and be taken away by the regeneration airflow.
  • the regeneration airflow turns into a moist and hot regeneration airflow and enters the condenser 401; Therefore, the turntable 200 always has good water absorption capacity, further improving the efficiency and effect of the turntable 200 in absorbing moisture.
  • the moist and hot regeneration airflow enters the condenser 401 for heat exchange and cooling.
  • the water vapor in the regeneration airflow is cooled to form condensed water and is discharged from the condenser 401.
  • the dry low-temperature regeneration airflow enters the regeneration fan 301 for the next cycle.
  • the moist and hot regeneration air flow enters the condenser 401 for heat exchange and cooling.
  • the water vapor in the regeneration air flow is cooled to form condensed water and is discharged from the condenser 401.
  • the dry low-temperature regeneration air flow can pass through the outlet of the condenser 401. It is discharged into the atmosphere to avoid adverse effects on the atmospheric temperature and humidity of the space where the washing and drying machine is located; therefore, the regeneration airflow can form an open cycle.
  • the regeneration module also includes a regeneration module upper housing 310.
  • the regeneration module upper housing 310 has a heating component accommodation cavity; the heating component is installed in the heating component accommodation cavity, and the heating component is located upstream of the turntable, and the heating component
  • the component receiving cavity is connected to the turntable; the heating component is used to heat the regeneration air flow to at least partially evaporate the moisture adsorbed by the turntable 200 .
  • the regeneration module upper housing 310 may include: a top wall and side walls protruding around the top wall to form a heating component receiving cavity, and a base protruding outward along the side walls, and the base may be provided with mounting holes. It can be connected and fixed with the upper housing 210 of the turntable through the mounting holes.
  • the heating component in order to heat the incoming regeneration airflow more uniformly and dehydrate and dry the turntable 200 more uniformly, a preferred solution is that the heating component includes a stacked air equalizer and a heater, and the heater is located at the equalizer. Between the air component and the turntable 200; the regeneration airflow enters the heating component accommodation cavity and passes through the air equalizer, heater and turntable 200 in sequence.
  • the upper housing 310 of the regeneration module has a fan-shaped structure; a heater air inlet 311 is provided on the outer arc side of the upper housing 310 of the regeneration module; the air equalizer and the top wall of the upper housing 310 of the regeneration module are connected There is a gap to form a third air flow channel; there is a gap between the bottom surface of the turntable 200 and the inner wall of the regeneration area of the lower housing 220 of the turntable to form a fourth air flow channel; the third air flow channel is connected with the heater air inlet 311, so that The regeneration airflow enters the third airflow channel through the heater air inlet, passes through the air equalizer, the heater and the turntable from top to bottom to the fourth airflow channel, and becomes a moist and hot regeneration airflow. The regeneration airflow enters the third airflow channel through the heater air inlet 311.
  • the air equalizer can make the regeneration airflow contact the heater more evenly.
  • the evenly heated regeneration airflow dehydrates and dries the turntable 200 in the regeneration area.
  • the condensation module 40 may also include a condensation module upper shell 410 and a condensation module lower shell 420.
  • the condensation module upper shell 410 and the condensation module lower shell 420 are cooperatively connected to form a condenser accommodation cavity.
  • Container 401 is installed in the condenser containing cavity.
  • the arrow shown in Figure 4 is the flow direction of the regeneration airflow.
  • the regeneration airflow passes through the turntable from top to bottom to the fourth airflow channel. It turns into a moist and hot regeneration airflow and then flows into the lower shell 420 of the condensation module and enters the condenser 401 for heating. Swap and cool.
  • the drying module also includes a first connector 3013, the two ends of which are connected to the condenser and the regeneration fan respectively, so that the regeneration airflow enters the regeneration fan 301 through the condenser 401; the second connector 3014, Its two ends are respectively connected with the regeneration fan and the heater air inlet, so that the regeneration air flow enters the third air flow channel through the regeneration fan. Since the condenser 401 and the regeneration fan 301 are very close, a hard pipe joint as shown in Figure 5-6 can be used, which not only supports the regeneration fan 301, but also improves the overall structure of the drying module. It is compact and takes up little space; of course, the first connecting piece 3013 can also be a flexible piece, which can be easily connected to the two hard structures of the condenser and the regeneration fan air inlet.
  • the regeneration module may also include a regeneration fan installation part 320.
  • the regeneration fan installation part 320 may specifically include a regeneration fan upper casing 321 and a regeneration fan lower casing 322.
  • the regeneration fan upper casing 321 and the regeneration fan lower The housing 322 forms a regeneration fan accommodation cavity.
  • the lower housing 322 of the regeneration fan and the first connector 3013 are connected and fixed through a flange, which can firmly support the regeneration fan 301; they can also be connected through a flexible first connector 3013, and one end of the first connector 3013 can be deformed and inserted into the regeneration fan. In the opening of the lower housing 322, since it is flexible, it can also help to form a good of seal.
  • the first connector 3013 includes a first air inlet and a first air outlet.
  • the first air inlet is adapted to and connected with the condenser air outlet.
  • the first air outlet is connected with the regeneration fan air inlet.
  • the first air inlet is a substantially rectangular opening
  • the first air outlet is a substantially circular opening
  • the plane where the first air inlet is located is approximately perpendicular to the plane where the first air outlet is located. , to adjust the flow direction of the regeneration airflow.
  • the first air inlet end face of the first connector 3013 is provided with a rectangular connecting flange or a flexible boundary so that it is deformed and inserted into the condenser air outlet, and is connected and fixed with the condensation module upper shell 410 and the condensation module lower shell 420 , the shell structure of the first connector 3013 is a special shape, and the air duct in the first connector 3013 gradually transitions from a rectangular cross-section at the first air inlet to a circular cross-section at the first air outlet, ensuring that The first connecting piece 3013 can guide air smoothly.
  • the second connection member 3014 includes a second air inlet and a second air outlet.
  • the second air inlet is adapted to and connected with the regeneration fan outlet.
  • the second air outlet is connected with the heater.
  • the air inlets are adapted and connected; the second air inlet is a substantially rectangular opening, the second air outlet is an arc-shaped opening, and the plane where the second air inlet is located is generally parallel to the plane where the second air outlet is located, And the area of the second air outlet is larger than the second air inlet.
  • the air channel in the second connector 3014 gradually expands from the second air inlet to the second air outlet, thereby further converting the dynamic pressure energy of the air flow into static pressure energy, improving the conversion ability of the dynamic pressure energy, and improving the efficiency of the fan. To improve the working performance, avoid the formation of turbulence as much as possible.
  • the regenerative component is an ultrasonic component.
  • the ultrasonic component may include an ultrasonic generator. When the ultrasonic generator is working, it generates ultrasonic energy to cause the turntable 200 to vibrate at a high frequency and continuously destroy the water film and air film on the outer surface of the turntable 200 to enhance the heat and mass exchange between the turntable 200 and the regeneration air flow. coefficient, the moisture adsorbed by the turntable 200 is taken away by the regeneration air flow through heat and mass exchange, thereby improving the regeneration efficiency of the turntable 200 at a lower temperature.
  • the drying module further includes: a turntable upper housing 210, a substantially fan-shaped regeneration module receiving portion is formed on the turntable upper housing 210; the regeneration module 30 is installed in the regeneration module receiving portion, and the regeneration module 30 is located above the turntable 200.
  • the regeneration module is used, for example, to heat the regeneration airflow to desorb the moisture adsorbed by the turntable 200; wherein, the inside of the regeneration module has an airflow space to form a third airflow channel; part of the turntable There is a gap between the bottom surface of the turntable 200 and the inner wall of the regeneration area of the turntable lower housing 220 to form a fourth airflow channel.
  • the regeneration module may include a heater for heating the regeneration airflow.
  • the heated regeneration airflow passes through the turntable 200 from top to bottom through the third airflow channel to the fourth airflow channel, and dehydrates the turntable 200 part in the regeneration area.
  • the turntable 200 passes through the dehumidification zone and the regeneration zone, and continuously performs a cycle of adsorbing moisture and desorbing moisture.
  • the lower turntable housing 220 may be provided with a first turntable receiving area.
  • the lower turntable housing 220 may include a bottom plate and a circumferential side wall protruding from the bottom plate, and the recessed portion formed is the first turntable receiving area.
  • the upper housing 210 of the turntable can be provided with a second turntable accommodation area.
  • the second turntable accommodation area at least includes a dehumidification area, but does not include a regeneration area.
  • the radial edge of the second turntable accommodation area is provided with a regeneration module accommodation area. department.
  • the second turntable accommodating area and part of the first turntable accommodating area at least together form a dehumidification area
  • the regeneration module accommodating part and another part of the first turntable accommodating area together form a regeneration area.
  • the upper turntable housing 210 and the lower turntable housing 220 can be connected in a sealed manner.
  • the upper turntable housing 210 or the lower turntable housing 220 are respectively provided with grooves or flanges, and sealing strips are provided in the grooves.
  • the flanges withstand the concave grooves. Seal strip inside the groove to achieve sealing.
  • the drying module further includes: a turntable lower housing 220.
  • the turntable lower housing 220 is provided with a first turntable accommodation area, and a first partition 221 is provided in the first turntable accommodation area to store the first turntable.
  • the accommodation area is divided into a dehumidification area and a regeneration area; the air outlet of the circulating fan is connected to the dehumidification area.
  • the part that has absorbed moisture in the dehumidification zone is rotated to the regeneration zone for dehydration and regeneration.
  • the embodiment of the present application provides a regeneration module 30, as shown in Figures 7-9, including: a regeneration module upper shell 310, the regeneration module upper shell has a heating component accommodation cavity; a heating component, which is installed on In the heating component accommodation cavity, the heating component is located above the turntable, and the heating component accommodation cavity is connected with the turntable; the heating component is used to heat the regeneration airflow to desorb moisture adsorbed by the turntable.
  • the turntable component may include a turntable 200 and a driving assembly.
  • the driving assembly may include a motor, and the motor may drive the turntable 200 to rotate.
  • the turntable 200 can be made of materials with good hygroscopic properties.
  • the wet circulating airflow discharged from the drum enters the bottom of the turntable housing cavity.
  • the wet circulating airflow in the dehumidification area passes through the turntable 200 from bottom to top.
  • the turntable 200 absorbs the moisture in the wet circulating airflow, so that the wet circulating airflow can be turned into a dry circulating airflow.
  • the drying circulation airflow enters the drum through the air inlet of the drum and fully contacts the clothes, improving drying efficiency and reducing energy consumption;
  • the regeneration component may include a heater for heating the regeneration airflow, and the heated regeneration airflow is accommodated by the heating component
  • the cavity passes through the turntable 200 from top to bottom to dehydrate and dry the part of the turntable 200 in the regeneration zone.
  • the turntable 200 circulates through the dehumidification zone and the regeneration zone, continuously adsorbing and desorbing moisture. The process of removing moisture; in this way, the drying circulation airflow can be continuously entered into the drum and fully contacted with the clothes, thereby improving drying efficiency and reducing energy consumption.
  • the regeneration module upper housing 310 may include: a first top wall 312 and a third side wall 313 protruding around the first top wall 312 to form a heating component receiving cavity, and protruding outward along the third side wall 313.
  • a base 314 is provided, and a mounting hole can be provided on the base 314, through which the base 314 can be connected and fixed with the upper housing 210 of the turntable.
  • the heating component in order to heat the incoming regeneration airflow more uniformly and dehydrate and dry the turntable 200 more uniformly, a preferred solution is that the heating component includes a stacked air equalizer and a heater, and the heater is located at the equalizer. Between the air component and the turntable 200; the regeneration airflow enters the heating component accommodation cavity and passes through the air equalizer, heater and turntable 200 in sequence.
  • the upper housing 310 of the regeneration module has a fan-shaped structure; a heater air inlet 311 is provided on the outer arc side of the upper housing 310 of the regeneration module.
  • the preferred solution is that the upper housing 310 of the regeneration module has a fan-shaped structure; the upper housing 310 of the regeneration module can also have an irregular structure, and there are no excessive limitations here;
  • the housing 310 is cooperatively connected with the upper housing 210 of the turntable to separate the dehumidification area and the regeneration area, that is, the wet circulating air flow in the dehumidification area and the regeneration air flow in the regeneration area can be kept largely isolated.
  • the air equalizer there is a gap between the air equalizer and the top wall of the upper housing 310 of the regeneration module to form a third airflow channel; the third airflow channel is connected to the heater air inlet 311 .
  • the bottom surface of the turntable 200 and the inner wall of the regeneration area of the lower housing 220 of the turntable to form a fourth airflow channel.
  • the regeneration airflow enters the third airflow channel through the heater air inlet 311.
  • the air equalizer can make the regeneration airflow contact the heater more evenly.
  • the evenly heated regeneration airflow desorbs moisture on the turntable 200 in the regeneration area.
  • the air equalizing component includes an air equalizing plate 330 and side plates protruding around the air equalizing plate 330.
  • the air equalizing plate 330 and the side plates enclose a heater accommodating area, and the heater is located in the heater accommodating area;
  • the air plate 330 is fan-shaped, and the air equalizing plate 330 is provided with air holes 331 distributed at intervals. The arrangement of the air holes allows the regeneration airflow to enter the heater below more evenly.
  • the heater includes a plurality of heating tubes 340 connected end-to-end.
  • the heating tubes 340 are spaced apart along the radial direction of the fan-shape; the length of the heating tubes 340 is approximately perpendicular to the radial direction of the fan-shape.
  • the heating tubes 340 are distributed in an S-shape, which can make the length of the heating tubes 340 in the heater accommodation area longer, thereby increasing the contact area with the regeneration air flow, thereby increasing the efficiency of heat exchange with the regeneration air flow.
  • the air holes are arranged in rows, and the position of each row of air holes roughly corresponds to the position of the heating pipe 340; the diameter of the air holes tends to decrease along the radius direction of the sector from the outer arc to the center of the circle.
  • the heater air inlet 311 is located on the outer arc side of the upper housing 310 of the regeneration module. The diameter of the air hole is relatively larger near the heater air inlet 311 and the diameter of the air hole far away from the heater air inlet 311 is relatively small. some.
  • the heating tube 340 is located below the air holes; and the axis of the heating tube 340 is offset from the center line of each row of air holes, and the center line of each row of air holes is closer to the axis of the heating tube 340 At the heater air inlet 311.
  • the heating tube 340 is located below the air hole.
  • the heating tube 340 is close to the air equalizing plate 330, or is adjacent to the air equalizing plate 330, so as not to cause greater resistance to the regeneration airflow passing through the air hole; the heating tube 340 can be fixed with a pipe clamp.
  • a certain gap may be provided between the heating pipe 340 and the air equalizing plate 330 to allow the regeneration airflow to pass through.
  • the upper housing 310 of the regeneration module has a fan-shaped structure; the side wall of the upper housing 310 of the regeneration module is provided with a heater air inlet 311, and the side walls are arranged along the radial direction of the fan; wherein, the regeneration airflow enters
  • the direction of the heating member receiving cavity is opposite to the rotation direction of the turntable 200 . That is, the regeneration airflow regenerates from the fan-shaped body along or against the rotation direction of the turntable.
  • the module is blown into the heater accommodating space in a direction roughly perpendicular to the radius, so that the air flow can be heated by the heater more evenly.
  • the heater includes a plurality of heating tubes 340 connected end to end, and the heating tubes 340 are distributed along a fan-shaped radial interval; the length of the heating tubes 340 is arranged parallel to the side wall opposite to the heater air inlet 311 .
  • the heating tube 340 can also be arranged roughly along the radial direction of the heating film group. In this case, the inlet air direction perpendicular to the radial direction is used in order to achieve better uniform air flow and heating effects.
  • the regeneration module further includes: a thermal conductive member 350 installed in a second space connected to the heater accommodation area; a temperature detection module used to detect the temperature of the heater accommodation area; The temperature detection module is installed in a third space.
  • the third space is a space covered by the thermal conductor 350 .
  • the third space and the second space are physically separated by the thermal conductor 350 .
  • the regeneration airflow is heated by the heater in the heater accommodation area and becomes a high-temperature regeneration airflow. Since the second space is connected to the heater accommodation area, the high-temperature regeneration airflow diffuses in the second space. Therefore, the heater accommodation can be known by detecting the temperature of the second space. temperature in the zone.
  • the temperature detection module is installed in the third space.
  • the heat conduction member 350 covers the temperature detection module.
  • the heat conduction member 350 transfers the heat received from the second space to the air in the third space.
  • the temperature detection module detects the air temperature in the third space. , and then measure the temperature of the regeneration airflow in the heater accommodation area connected to the second space.
  • the heat conductor 350 can be made of a metal material that is easy to conduct heat, such as copper or aluminum.
  • the heat conductor 350 is in the second space, receives the heat of the high-temperature regeneration airflow and conducts it to the temperature detection module in the third space, which can homogenize it.
  • the conduction of heat stabilizes the temperature detected by the temperature detection module, thereby improving the accuracy of the detection results; this prevents the temperature detection module from directly detecting the regeneration air flow in the heater accommodation area, and the regeneration air flow in the heater accommodation area. There may be turbulent or/turbulent flow conditions, causing the test results to jump frequently.
  • the base 314 extends to the outside away from the heater accommodating area; at least a part of the bottom surface of the base 314 is provided with a groove, and the groove forms a second space.
  • the thermal conductive member 350 is installed in the groove, and the thermal conductive member 350 covers the temperature detection module.
  • the base 314 includes a first side extending in a radial direction of the sector, and the groove is located on the first side.
  • the same groove can be provided on the second side opposite to the first side, and the temperature detection module can be arranged therein.
  • the groove is located on the first side, and the groove is connected to the heater accommodation area.
  • the heated high-temperature regeneration airflow diffuses into the groove, and the heat conductive member 350 is heated and conducted to the temperature detection module to prevent the temperature detection module from being affected by the heater accommodation area.
  • the circulating regeneration airflow blows directly to reduce the turbulence/turbulence that causes the detection results to jump.
  • the upper housing 310 of the regeneration module is provided with a mounting seat 318.
  • the mounting seat 318 is connected and fixed with the first side, and the mounting seat 318 is located on the other side of the first side away from the groove; the mounting seat 318 is connected and fixed with the first side.
  • the base 318 is provided with a through-mounting mounting hole, forming a roughly hexahedral shape with one side open.
  • the temperature detection module is arranged inside the mounting hole.
  • the space formed by the thermal conductive member 350 covering the opening surface of the mounting hole base 318 is the third space; installation The hole is adapted to the temperature detection module.
  • the temperature detection module is installed in the installation hole and covered by the heat conductive member 350 to isolate the temperature detection module from the second space to avoid leakage of the regeneration air flow.
  • the mounting base 318 can be provided with a fixing piece, and the fixing piece can be used to fix the cable connected to the temperature detection module.
  • the heat conductive member 350 is in contact with the contact point of the temperature detection module.
  • the regeneration air flow circulating in the heater accommodation area may be turbulent/turbulent, and the temperature of the regeneration air flow is unstable in a local range.
  • a protruding rib structure is provided on the side of the heat conductor 350 facing the second space to increase the relationship between The high-temperature regeneration airflow contact area and extended conduction path make the temperature transmitted to the temperature detection module tend to a stable average value.
  • the heat-conducting member 350 can be a heat-conducting sheet, which is easy to shape, so as to cover the temperature detection module.
  • a protruding portion can be provided on one side of the heat conductive member 350 facing the second space, and a recessed portion can be provided on the corresponding other side.
  • the temperature detection module can be embedded in the recessed portion, and the contacts of the temperature detection module contact the recessed portion. In this way, the protruding portion increases The contact area between the heat conductive member 350 and the regeneration airflow is increased.
  • the surface of the thermal conductive member 350 has a heat-resistant anti-corrosion coating to extend the service life of the thermal conductive member 350 and prevent the thermal conductive member 350 from rusting in a high-temperature and humid environment.
  • the regeneration module provided by the embodiment of the present application will be described in detail below in conjunction with the flow direction of the regeneration air flow.
  • the drying module includes: a circulation module 10 and a dehumidification module 20.
  • the circulation module 10 has a first circulation passage, which is connected with the air outlet of the drum, so that the wet circulating air flow in the drum enters the first circulation passage;
  • the dehumidification module 20 is located downstream of the circulation module 10,
  • the dehumidification module 20 has a second circulation path, and the second circulation path
  • the loop passage is connected with the drum air inlet; the drum air outlet, the first circulation passage, the second circulation passage and the drum air inlet are connected in sequence to form a circulation passage;
  • the dehumidification module 20 includes a turntable component, at least part of the turntable component is arranged on the third On the second circulation path, the turntable component is used to absorb moisture from the wet circulating air flow in the drum; wherein, the wet circulating air flow in the drum turns into a dry circulating air flow through the first circulation path and the second circulation path.
  • the circulation module 10 may include a circulation fan.
  • the setting of the circulation fan can provide power for the wet circulating air flow, which is beneficial to the circulation of the air flow.
  • the air inlet of the circulation fan is connected to the drum air outlet, and the air outlet of the circulation fan is connected to the second circulation passage.
  • the turntable component is arranged on the second circulation path. The turntable component can first absorb moisture from the wet circulating air flow in the drum, so that the wet circulating air flow becomes a relatively dry circulating air flow.
  • the dry circulating air flow enters the drum through the air inlet of the drum. , fully contact with clothes, improve drying efficiency and reduce energy consumption.
  • the second aspect of the application provides a drying module, including: a dehumidification module, which has a second circulation passage.
  • the second circulation passage is connected to the air outlet of the drum, so that the wet circulating air flow in the drum enters the second circulation. passage;
  • the dehumidification module includes a turntable component, at least part of the turntable component is disposed on the second circulation passage, and the turntable component is used to absorb moisture from the wet circulating air flow in the drum;
  • the circulation module is located downstream of the dehumidification module,
  • the circulation module has a first circulation passage, and the first circulation passage is connected with the air inlet of the drum, so that the wet circulating air flow in the drum passes through the second circulation passage and the first circulation passage in sequence, and becomes a dry circulating air flow and enters the drum for further treatment.
  • One cycle; the drum air outlet, the second circulation passage, the first circulation passage and the drum air inlet are connected in sequence to form a circulation passage.
  • the circulation module 10 and the dehumidification module 20 in the above embodiments can exchange positions, that is, the wet circulating airflow in the drum first enters the dehumidification module 20 through the drum air outlet channel, and then passes through the circulation module 10. Enter the drum through the drum air inlet channel.
  • the connection relationship between the air inlets and air outlets of each component can be adjusted adaptively.
  • a third aspect of the present application provides an integrated washing and drying machine, including the drying module.
  • the integrated washing and drying machine also includes a drum, which is provided with a drum air inlet and a drum air outlet.
  • the drum air inlet and the drum air outlet can be respectively provided at both ends of the drum rotating shaft, so that the dry high-temperature airflow entering the drum can fully Perform heat exchange with the clothes in the drum;
  • the drum air inlet is located at the front or rear, and the drum air outlet is located at the rear or front;
  • the drum air inlet and the drum air outlet are connected to the space between the outer cylinder and the inner cylinder of the drum respectively.
  • the drum air inlet and drum air outlet are located at both ends of the drum rotation axis, so that the air flow can fully contact the clothes inside the drum and improve drying efficiency.
  • the specific positions of the air inlet and the air outlet of the drum are not specifically limited in this disclosure. They can also be located at the same end of the drum at the same time, or they can be arranged on the drum in staggered ways.
  • the drying module may specifically include: a housing provided with a turntable component receiving cavity; a turntable component installed in the turntable component receiving cavity; the turntable component includes a turntable 200, at least part of the turntable 200 Used to absorb moisture in the wet circulating air flow; there are gaps between the two sides of the turntable 200 and the first inner wall and the second inner wall of the housing to form an air flow channel; wherein the first inner wall and the second inner wall are arranged oppositely , and the first inner wall or the second inner wall and the two side surfaces of the turntable 200 are substantially parallel; at least one diverter 222 is provided around at least one of the first inner wall or the second inner wall, and the diverter 222 is used to divert the inflow airflow channel.
  • the turntable component may include a turntable 200 and a driving assembly.
  • the driving assembly may include a motor, and the motor may drive the turntable 200 to rotate.
  • the turntable 200 can be made of materials with good hygroscopic properties, such as zeolite, lithium chloride, silica gel, modified silica gel or 13X (sodium X type) molecular sieve.
  • the wet circulating airflow flowing into the airflow channel on one side of the turntable 200 passes through the turntable 200 and reaches the airflow channel on the other side.
  • the turntable 200 absorbs the moisture in the wet circulating airflow, so that the wet circulating airflow can become a dry circulating airflow; due to the air outlet of the circulating fan
  • the connection with the turntable component accommodation cavity is roughly along the tangential direction of the turntable, and the circulating air flow has a certain flow rate, and the wet circulating air flow has a high moisture content, so it will escape away from the rotation center of the turntable under the action of centrifugal force.
  • the air flow usually It is formed at the larger diameter of the turntable 200, and the airflow in the area close to the rotation center of the turntable is small, so that the main moisture absorption part of the turntable 200 is at the larger diameter, affecting the moisture absorption efficiency and the moisture absorption utilization rate of the turntable.
  • a diverter 222 is provided around the bottom wall of the casing, which can divert the wet circulating airflow flowing into the airflow channel. One part enters the area near the center of the circle, and the other part enters the area near the outer periphery of the turntable 200, so that the airflow flows in.
  • the wet circulating airflow of the channel is more dispersed and more uniform, and the airflow can contact the turntable 200 over a larger area, which can improve the moisture absorption efficiency of the turntable 200 .
  • the housing includes: a lower turntable housing 220, which is provided with a first turntable accommodation area; an upper turntable housing 210, which is provided with a second turntable accommodation area, and the upper turntable housing is cooperatively connected with the lower turntable housing.
  • the first turntable accommodation area and the second The turntable accommodation area forms the turntable component accommodation cavity; there is a gap between the top surface of the turntable 200 and part of the inner top wall of the turntable upper housing 210 to form a first airflow channel; the bottom surface of the turntable 200 and part of the turntable lower housing 210 There is a gap between the bottom walls to form a second airflow channel; the second airflow channel is connected to the air outlet of the drum, and the first airflow channel is connected to the air inlet of the drum, so that the wet circulating airflow in the drum passes through the second airflow channel and passes through The first airflow channel is reached through the turntable 200; for example, the diverter 222 is provided around the bottom wall of the lower housing 220 of the turntable to divert the airflow flowing into the second airflow channel.
  • the wet circulating airflow discharged from the drum enters the bottom of the turntable component accommodation cavity, that is, diffuses in the second airflow channel.
  • the diverter 222 is surrounding the inner bottom wall of the lower housing of the turntable, the inflowing wet circulating airflow can be diverted.
  • the flow is divided, and one part enters the area close to the center of the circle, and the other part enters the area close to the periphery of the turntable 200, so that the wet circulating airflow flowing into the airflow channel is more dispersed and more uniform.
  • the wet circulating airflow then passes through the turntable 200 from bottom to top, and the turntable 200
  • the moisture in the wet circulating air flow is absorbed, and the wet circulating air flow is changed into a dry circulating air flow, which can improve the moisture absorption efficiency of the turntable 200.
  • the dry circulating air flow flows from the first air flow channel to the air inlet of the drum and enters the drum, where it fully contacts the clothes and improves drying. Dry efficiency and reduce energy consumption.
  • the at least one diverter member 222 is provided in the dehumidification area of the first turntable accommodation area to separate the dehumidification area into at least a first diverter area and a second diverter area; the side of the turntable lower housing 220
  • a second air inlet 223 is provided on the wall.
  • One end of the diverter 222 abuts the second air inlet 223 to divide the second air inlet 223 into at least a first sub-port and a second sub-port.
  • the first sub-port and the second sub-port are The first shunt area is connected, the second sub-port is connected to the second shunt area, and so on.
  • the diverter 222 divides the second air inlet 223 into a first sub-port and a second sub-port, so that the wet circulation airflow is diverted through the diverter 222 at the second air inlet 223 and enters the two divert areas near the center and outer periphery of the circle. , that is, the first splitting area and the second splitting area.
  • the wet circulating air flow is reasonably split, so that the wet circulating air flow flowing into the first air flow channel is more dispersed and more uniform, and the air flow can contact the turntable 200 over a larger area.
  • the moisture absorption efficiency of the turntable 200 can be improved. It can be understood that for the dehumidification area of the first turntable accommodation area, more than two diverting members 222 can be provided, and they can be arranged in parallel, thereby dividing the dehumidifying area into multiple diverting areas.
  • the embodiment of the present application provides a circulation module 10, as shown in Figures 8-10, specifically including: a circulation module housing, an impeller 110 and a circulation motor 120.
  • the circulation module housing is provided with a first air inlet 102 and a first air outlet 103; an impeller 110 is provided in the circulation module housing.
  • the rotation axis of the impeller 110 is parallel to the axis of the first air inlet 102, and the rotation axis of the impeller 110 is parallel to the axis of the first air inlet 102.
  • the circulation motor 120 is substantially perpendicular to the axis of the first air outlet 103.
  • the circulation motor 120 is connected and fixed to the circulation module housing, and the output shaft of the circulation motor 120 is connected and fixed to the impeller 110.
  • the rotation axis of the impeller 110 corresponds to the first air inlet, that is, the rotation axis of the impeller 110 can pass through the first air inlet 102, so that the impeller 110 can directly drive the airflow at the first air inlet 102, so that the airflow flows into
  • the airflow can be quickly pumped into the circulation module housing without increasing the rotation speed of the impeller 110; when the impeller 110 is driven to rotate by the circulation motor 120, a centrifugal force is formed around the outer circumference of the impeller 110, and the airflow in the impeller 110 When flowing in the direction of centrifugal force, the airflow disperses from around the impeller 110, thereby changing the flow direction of the airflow; and a negative pressure is formed at and near the rotation axis of the impeller 110, which can increase the airflow sucked into the first air inlet 102.
  • the circulation power as an air supply mode in which the circulation motor 120 controls the rotation of the impeller 110 to form a negative pressure, related losses caused by direct collision of strong wind force with other components can be effectively avoided.
  • Traditional fans usually cause higher losses when the airflow changes the flow direction.
  • the circulation module provided by the embodiment of the present application provides power for the airflow to change the flow direction, which brings more flexibility when laying out the circulation module. sex.
  • the circulation module housing includes: a circulation module lower housing 112, which is provided with a recessed first impeller accommodation area; and a circulation module upper housing 111, which is provided with a recessed second impeller.
  • Accommodation area; the lower housing 112 of the circulation module is cooperatively connected with the upper housing 111 of the circulation module, so that the first impeller accommodation area and the second impeller accommodation area form an impeller accommodation cavity.
  • the impeller 110 is located in the impeller accommodating cavity.
  • the impeller accommodating cavity can be set to be circular larger than the outer diameter of the impeller 110.
  • the axis of the impeller accommodating cavity is parallel to the rotation axis of the impeller 110, so that the airflow output by the rotation of the impeller 110 can pass under the circulation module.
  • the inner wall of the housing 112 and the upper housing 111 of the circulation module guides outflow.
  • the circulation module lower housing 112 includes: a first bottom plate 1122 and a first side wall 1121.
  • the first side wall protrudes from the first bottom plate and is arranged along the circumferential direction of the first bottom plate 1122 to form the first side wall.
  • the first impeller accommodation area; a first groove is provided on the top of the first side wall 1121, and a sealing gasket 113 is provided in the first groove;
  • the circulation module upper housing 111 includes: a first top plate 1112 and a second side wall 1111.
  • the second side wall protrudes from the first top plate and is arranged along the circumferential direction of the first top plate 1112, To form the second impeller accommodating area; a first protrusion is provided on the top of the second side wall 1111, and the first protrusion cooperates with the first groove; the lower housing 112 of the circulation module and the circulation module When the upper housing 111 is connected, the first protrusion presses against the sealing gasket 113 .
  • the circulation module lower shell 112 can be prepared by bending the bottom plate upward.
  • the circulation module upper shell 111 can be prepared by bending the top plate downward; the circulation module lower shell 112 and the circulation module upper shell 111 are in During assembly, the first protrusion squeezes the sealing gasket 113 in the first groove to deform the sealing gasket 113 to achieve an excellent sealing effect between the circulation module lower shell 112 and the circulation module upper shell 111 .
  • the impeller 110 includes: an impeller body 1101 and a fixed ring 1103 arranged axially opposite to the impeller body 1101; the impeller body 1101 extends in the direction of the fixed ring 1103, and is provided with a ring 1103 for accommodating a circulating motor.
  • An accommodation cavity, one end of the circulation motor 120 is arranged in the accommodation cavity, and the output shaft of the circulation motor 120 is connected and fixed to the bottom of the impeller body 1101; and, blades 1102, both ends of the blades 1102 are respectively connected with the accommodation cavity.
  • the impeller body 1101 and the fixed ring 1103 are fixedly connected, the blades 1102 are spaced around the impeller body 1101, and the blades 1102 are inclined forward along the rotation direction of the impeller.
  • the impeller body 1101 may include a cover plate at the top, and one end of the blades 1102 along the length direction is fixedly connected to the cover plate, so that the air flow sucked in from the bottom of the impeller is blocked by the cover plate and output in the radial direction of the impeller; the impeller body 1101 is directed toward the blades 1102 Extended, the impeller body 1101 is provided with a recessed accommodation cavity, and one end of the circulation motor 120 is embedded in the accommodation cavity, so that the overall axial length of the circulation fan is reduced and the overall length of the circulation fan is reduced.
  • the blades 1102 are tilted forward along the rotation direction of the impeller, which can improve the air outlet efficiency of the impeller, help improve the noise reduction effect of the fan, and improve the energy efficiency of the fan.
  • the top of the first top plate 1112 is provided with through-mounting holes 1114 and positioning bumps.
  • the mounting holes 1114 are adapted to the circulation motor; the positioning bumps are arranged at intervals along the circumferential direction of the mounting holes 1114, and the positioning bumps are inserted into
  • the mounting ears of the circulation motor are used to fix the circulation motor on the first top plate 1112 .
  • the mounting ear seat can be provided on the casing of the circulating motor, and the mounting ear seat is located at an end of the casing of the circulating motor away from the output shaft.
  • the mounting ear seat can be provided with a positioning hole that matches the positioning bump, and the positioning hole can be set to There is no penetration.
  • the mounting ear seat is provided with a bolt hole.
  • the bolt hole and the positioning hole are connected.
  • the positioning bump can be provided with a threaded hole.
  • the threaded hole and the bolt hole are coaxially arranged and adapted.
  • the positioning bump is inserted into the positioning hole.
  • the bolt passes through the bolt hole and is screwed into the threaded hole, so that the circulation motor is fixed on the first top plate 1112, and the circulation motor is embedded in the mounting hole 1114 and extends downward; in this way, the installation part of the circulation motor is located on the upper housing of the circulation module 111 outside, convenient for installation and removal of cycle motor.
  • the circulation module housing is in the shape of a volute; the circulation module housing has a constriction portion extending in a direction perpendicular to the rotation axis of the impeller 110; the first air outlet is connected to the constriction portion through the constriction portion.
  • the impeller accommodating cavity is connected.
  • the casing of the circulation module is in the shape of a volute.
  • the volute has a unique shape. After the airflow passes through the impeller 110, it changes the flow direction and is output by the constriction part. This can prevent the airflow from always circulating in the impeller accommodation cavity, which meets the fluid design requirements and provides maximum airflow flow. Limit air volume and speed.
  • the first air inlet 102 is located on the first bottom plate 1122, and the first air inlet 102 is coaxially arranged with the mounting hole 1114;
  • the contraction part has an air outlet cavity, the first air inlet 102, the impeller accommodation cavity, and the outlet cavity.
  • the air cavity and the first air outlet are connected in sequence, and the impeller accommodating cavity, the air outlet cavity and the first air outlet are located on the same horizontal plane.
  • the constriction part has an air outlet cavity.
  • the airflow changes direction after passing through the impeller 110 and flows to the first air outlet through the air outlet cavity.
  • the air outlet cavity is roughly perpendicular to the rotation axis of the impeller 110, and the impeller accommodation cavity, the air outlet cavity and the first air outlet are connected.
  • the air outlets are roughly located on the same horizontal plane, thereby reducing the size of the circulation module housing in the height direction, reducing the overall space occupied by the circulation module, and also reducing the overall height of the washing and drying machine using the circulation module. and volume.
  • the circulation module 10 further includes: a circulating air interface piece, which is connected to the shrinkage part; or, the circulating air interface piece is integrated with the circulation module shell; the circulating air interface piece is away from the shrinkage part.
  • One side is arc-shaped, and the circulating air interface piece gradually expands toward the side away from the constriction part.
  • the circulating air interface piece has an expansion air duct, and both ends of the expansion air duct are connected to the air outlet cavity and the first air outlet respectively.
  • the circulating air interface piece can be set as two separate upper and lower shells, which are connected to the upper and lower shells of the circulation module 111 and the lower shell 112 of the circulation module respectively; the cross-sectional area of the expansion air duct gradually increases toward the side away from the contraction part. , when the airflow passes through the impeller 110 and then enters the air outlet cavity and the expansion air duct, thereby further converting the dynamic pressure energy of the airflow into static pressure energy, improving the conversion ability of the dynamic pressure energy and improving the working performance of the fan.
  • a lower housing connector 1123 is provided on the first side wall 1121, and the lower housing connector 1123 is provided along the The outer periphery of the first side wall 1121 is spaced apart and protrudes from the first side wall 1121; the second side wall 1111 is provided with an upper housing connector 1113, and the upper housing connector 1113 is connected to the lower housing.
  • the parts 1123 correspond one to one, and the upper housing connecting part 1113 is connected to the lower housing connecting part 1123, so that the positions of the circulation module lower housing 112 and the circulation module upper housing 111 are relatively fixed.
  • the upper housing connector 1113 and the lower housing connector 1123 can be provided with matching bolt through holes. Bolts are inserted into the bolt through holes to realize the circulation module lower housing 112 and the circulation module upper housing. detachable connection between bodies 111.
  • a fixing card 1115 is provided on the circulation module housing.
  • the fixing card 1115 is used to fix circuits or pipelines, so that the wires of the circulation motor or the water and gas pipelines on the whole machine can be fixed. Can get better layout.
  • the circulation module also includes a transition piece 130, which is provided on the lower housing 112 of the circulation module, and the transition piece 130 is adapted to the first impeller accommodation area; the transition piece is connected and fixed to the first bottom plate 1122. ;
  • the transition piece is provided with a penetrating through hole, and the through hole is connected to the first impeller accommodating area; the side of the transition piece away from the first impeller accommodating area is connected to the corrugated hose 50, and the corrugated hose 50 is connected to the lower housing through the transition piece 130
  • the air inlet is connected.
  • the transition piece may be provided with a first transition hole and a second transition hole. The first transition hole and the second transition hole are evenly distributed along the circumferential direction of the through hole.
  • the diameter of the first air inlet 102 is smaller than that of the first transition hole.
  • distribution diameter the end of the corrugated hose 50 can be provided with corresponding threaded holes, and bolts are screwed into the threaded holes through the first transition hole, so that the corrugated hose 50 is fixed on the transition piece 130; the second transition hole
  • the distribution diameter is larger than the diameter of the first air inlet 102.
  • the first bottom plate 1122 is provided with a threaded hole corresponding to the second transition hole, and the bolt is screwed into the threaded hole through the second transition hole to fix the transition piece 130 to the second transition hole. On a base plate 1122.
  • One side of the transition piece can be provided with a positioning sleeve, and the positioning sleeve can be inserted into the corrugated hose 50 .
  • the corrugated hose 50 can be fixed on the transition piece 130 first, and then the transition piece 130 can be fixed on the first bottom plate 1122 to facilitate the installation and removal of the corrugated hose 50.
  • the first aspect of this application provides a drying module, as shown in Figures 1 to 7, including: a housing provided with a turntable component receiving cavity; a turntable component installed in the turntable component receiving cavity; a turntable The component includes a turntable 200, at least part of which is used to absorb moisture in the wet circulating air flow; there are gaps between both sides of the turntable 200 and the first inner wall and the second inner wall of the housing to form an airflow channel. ; Wherein, the first inner wall and the second inner wall are arranged oppositely, and the first inner wall or the second inner wall and the two side surfaces of the turntable 200 are substantially parallel; at least one diverter 222 is provided at least around the first inner wall or the second inner wall.
  • the diverter 222 is used to divert the airflow flowing into the airflow channel.
  • the turntable component may include a turntable 200 and a driving assembly.
  • the driving assembly may include a motor, and the motor may drive the turntable 200 to rotate.
  • the turntable 200 can be made of materials with good hygroscopic properties, such as zeolite, lithium chloride, silica gel, modified silica gel or 13X (sodium X type) molecular sieve.
  • the wet circulating airflow flowing into the airflow channel on one side of the turntable 200 passes through the turntable 200 and reaches the airflow channel on the other side.
  • the turntable 200 absorbs the moisture in the wet circulating airflow, so that the wet circulating airflow can become a dry circulating airflow; due to the air outlet of the circulating fan
  • the connection with the turntable component accommodation cavity is roughly along the tangential direction of the turntable, and the circulating air flow has a certain flow rate, and the wet circulating air flow has a high moisture content, so it will escape away from the rotation center of the turntable under the action of centrifugal force.
  • the air flow usually It is formed at the larger diameter of the turntable 200, and the airflow in the area close to the rotation center of the turntable is small, so that the main moisture absorption part of the turntable 200 is at the larger diameter, affecting the moisture absorption efficiency and the moisture absorption utilization rate of the turntable.
  • a diverter 222 is provided around the bottom wall of the casing, which can divert the wet circulating airflow flowing into the airflow channel. One part enters the area near the center of the circle, and the other part enters the area near the outer periphery of the turntable 200, so that the airflow flows in.
  • the wet circulating airflow of the channel is more dispersed and more uniform, and the airflow can contact the turntable 200 over a larger area, which can improve the moisture absorption efficiency of the turntable 200 .
  • the housing includes: a lower turntable housing 220, which is provided with a first turntable accommodation area; an upper turntable housing 210, which is provided with a second turntable accommodation area, and the upper turntable housing is cooperatively connected with the lower turntable housing.
  • first turntable accommodation area and the second turntable accommodation area form the turntable component accommodation cavity; there is a gap between the top surface of the turntable 200 and part of the inner top wall of the turntable upper housing 210 to form a first airflow channel; There is a gap between the bottom surface of the turntable 200 and part of the bottom wall of the lower housing of the turntable to form a second airflow channel; the second airflow channel is connected to the air outlet of the drum, and the first airflow channel is connected to the air inlet of the drum, so that the inside of the drum
  • the wet circulating airflow passes through the second airflow channel and passes through the turntable 200 to the first airflow channel; for example, the diverter 222 is provided around the bottom wall of the lower housing 220 of the turntable to divert the air flowing into the second airflow channel.
  • the air flow is divided.
  • the wet circulating airflow discharged from the drum enters the bottom of the turntable component accommodation cavity, that is, diffuses in the second airflow channel.
  • the diverter 222 is surrounding the inner bottom wall of the lower housing of the turntable, the inflowing wet circulating airflow can be diverted.
  • advanced The flow is divided, and one part enters the area near the center of the circle, and the other part enters the area close to the periphery of the turntable 200, so that the wet circulating airflow flowing into the airflow channel is more dispersed and more uniform.
  • the wet circulating airflow then passes through the turntable 200 from bottom to top, and the turntable 200 absorbs
  • the moisture in the wet circulating air flow turns the wet circulating air flow into a dry circulating air flow, which can improve the moisture absorption efficiency of the turntable 200.
  • the dry circulating air flow flows from the first air flow channel to the air inlet of the drum and enters the drum, where it fully contacts the clothes and improves drying. efficiency and reduce energy consumption.
  • the present disclosure does not specifically limit the specific position of the air inlet of the turntable, as long as the airflow can enter from the turntable housing, pass through the turntable, and then flow out from the turntable housing. It can be seen from this that the airflow can also flow in from the first airflow space between the turntable and the upper shell, and then pass through the turntable and then flow out from the second airflow space between the turntable and the lower shell.
  • the circulation fan can be located upstream or downstream of the turntable, and can be designed and implemented according to the actual situation.
  • the diverter 222 is disposed corresponding to the position of the airflow inlet of the turntable, for example, it can be disposed on the inner wall of the lower casing, or of course, can also be disposed on the inner wall of the upper casing.
  • a first partition 221 is provided in the first turntable accommodation area to at least separate the first turntable accommodation area into a dehumidification area and a regeneration area.
  • Moisture adsorption during the rotation of the turntable 200, when the part of the turntable that has absorbed moisture rotates to the regeneration zone, moisture is desorbed, and then the part of the turntable that has desorbed moisture continues to rotate to the dehumidification zone for moisture adsorption, and so on.
  • the lower turntable housing 220 may be provided with a first turntable receiving area.
  • the lower turntable housing 220 may include a bottom plate and a circumferential side wall protruding from the bottom plate, and the recessed portion formed is the first turntable receiving area.
  • the upper housing 210 of the turntable can be provided with a second turntable accommodation area.
  • the second turntable accommodation area at least includes a dehumidification area, but does not include a regeneration area.
  • the radial edge of the second turntable accommodation area is provided with a regeneration module installation. department.
  • the second turntable accommodating area and part of the first turntable accommodating area at least together form a dehumidification area
  • the regeneration module installation part and another part of the first turntable accommodating area together form a regeneration area.
  • the upper turntable housing 210 and the lower turntable housing 220 can be connected in a sealed manner.
  • the upper turntable housing 210 or the lower turntable housing 220 are respectively provided with grooves or flanges, and sealing strips are provided in the grooves to achieve sealing when the upper turntable housing 210 and the lower turntable housing 220 are snap-connected.
  • the at least one diverter member 222 is provided in the dehumidification area of the first turntable accommodation area to separate the dehumidification area into at least a first diverter area and a second diverter area; the side of the turntable lower housing 220
  • a second air inlet 223 is provided on the wall.
  • One end of the diverter 222 abuts the second air inlet 223 to divide the second air inlet 223 into at least a first sub-port and a second sub-port.
  • the first sub-port and the second sub-port are The first shunt area is connected, the second sub-port is connected to the second shunt area, and so on.
  • the diverter 222 divides the second air inlet 223 into a first sub-port and a second sub-port, so that the wet circulation airflow is diverted through the diverter 222 at the second air inlet 223 and enters the two divert areas near the center and outer periphery of the circle. , that is, the first splitting area and the second splitting area.
  • the wet circulating air flow is reasonably split, so that the wet circulating air flow flowing into the first air flow channel is more dispersed and more uniform, and the air flow can contact the turntable 200 over a larger area.
  • the moisture absorption efficiency of the turntable 200 can be improved. It can be understood that for the dehumidification area of the first turntable accommodation area, more than two diverting members 222 can be provided, and they can be arranged in parallel, thereby dividing the dehumidifying area into multiple diverting areas.
  • the first partition 221 is arranged along the radial direction of the lower housing 220 of the turntable, and forms a turntable installation area at the center of the first turntable accommodation area.
  • the first partition 221 is arranged generally in the radial direction.
  • the area of the dehumidification area can be set to be larger than the area of the regeneration area, so that most of the turntable 200 is in the dehumidification area, thereby further improving the moisture absorption efficiency and effect of the turntable 200 .
  • a certain dynamic sealing effect can be formed between the first partition 221 and the turntable 200 .
  • the regeneration airflow heats this part of the turntable 200, causing the water in this part to quickly evaporate and escape, and is carried away by the regeneration airflow into the condenser; thus the turntable 200 always has good water absorption capacity. Improved moisture absorption efficiency and effect.
  • the drying module also includes: an air outlet channel 203, which is located at the second air outlet, and the air outlet channel 203 protrudes from the outside of the side wall of the upper housing 210 of the turntable; an inlet air channel 52, One end is connected to the air outlet channel, and the other end is connected to the drum air inlet; the auxiliary heater includes a heating tube or heating wire; the auxiliary heater is arranged in the air inlet duct.
  • a sealing ring can be provided between the tube air duct 52 and the air outlet channel 203.
  • a pair of matching connecting flanges are provided at the ends of the inlet air duct 52 and the air outlet channel 203.
  • the inlet air duct is connected by bolts.
  • the auxiliary heater may include a heating tube or heating wire, which is arranged along the inner wall of the inlet air duct 52 , and a heat insulation material may be provided between the heating tube or heating wire and the inner wall of the inlet air duct 52 .
  • the first side wall 1121 is provided with lower housing connectors 1123.
  • the lower housing connectors 1123 are spaced along the outer circumference of the first side wall 1121 and protrude from the first side wall 1121;
  • the two side walls 1111 are provided with upper housing connectors 1113.
  • the upper housing connectors 1113 are arranged in a one-to-one correspondence with the lower housing connectors 1123.
  • the upper housing connectors 1113 and the lower housing connectors are 1123 connection, so that the positions of the lower housing 112 of the circulation module and the upper housing 111 of the circulation module are relatively fixed.
  • the upper housing connector 1113 and the lower housing connector 1123 can be provided with matching bolt through holes. Bolts are inserted into the bolt through holes to realize the circulation module lower housing 112 and the circulation module upper housing. detachable connection between bodies 111.
  • a fixing card 1115 is provided on the circulation module housing.
  • the fixing card 1115 is used to fix circuits or pipelines, so that the wires of the circulation motor or the water and gas pipelines on the whole machine can be fixed. Can get better layout.
  • the circulation module also includes a transition piece 130, which is provided on the lower housing 112 of the circulation module, and the transition piece 130 is adapted to the first impeller accommodation area; the transition piece is connected and fixed to the first bottom plate 1122. ;
  • the transition piece is provided with a penetrating through hole, and the through hole is connected to the first impeller accommodating area; the side of the transition piece away from the first impeller accommodating area is connected to the corrugated hose 50, and the corrugated hose 50 is connected to the lower housing through the transition piece 130
  • the air inlet is connected.
  • the transition piece may be provided with a first transition hole and a second transition hole. The first transition hole and the second transition hole are evenly distributed along the circumferential direction of the through hole.
  • the diameter of the first air inlet 102 is smaller than that of the first transition hole.
  • distribution diameter the end of the corrugated hose 50 can be provided with corresponding threaded holes, and bolts are screwed into the threaded holes through the first transition hole, so that the corrugated hose 50 is fixed on the transition piece 130; the second transition hole
  • the distribution diameter is larger than the diameter of the first air inlet 102.
  • the first bottom plate 1122 is provided with a threaded hole corresponding to the second transition hole, and the bolt is screwed into the threaded hole through the second transition hole to fix the transition piece 130 to the second transition hole. On a base plate 1122.
  • a positioning sleeve can be provided on one side of the transition piece, and the positioning sleeve can be inserted into the corrugated hose 50 .
  • the corrugated hose 50 can be fixed on the transition piece 130 first, and then the transition piece 130 can be fixed on the first bottom plate 1122 to facilitate the installation and removal of the corrugated hose 50.
  • the drying module also includes: a pipeline connection module.
  • the pipeline connection module includes: a first connector A, the two ends of which are connected to the condensation module 40 and the regeneration fan 301 respectively.
  • the regeneration airflow enters the regeneration fan 301 through the condensation module 40; and/or the two ends of the second connector B are connected to the regeneration fan 301 and the heating module 302 respectively, so that the regeneration airflow enters the heating module 302 through the regeneration fan 301.
  • the first connection member A includes a first air inlet 102 and a first air outlet 103.
  • the first air inlet 102 is connected to the air outlet of the condensation module 40, and the first air outlet 103 is connected to the air outlet of the condensation module 40.
  • the air inlet of the regeneration fan 301 is connected; and/or, as shown in Figure 26, the second connection member B includes a second air inlet B0 and a second air outlet B1, and the second air inlet B0 is connected with the air outlet of the regeneration fan 301.
  • the air outlet B1 is connected with the air inlet of the heating module 302.
  • the first connection member A includes a shell.
  • the shell includes a first side A01 , a second side A02 and a third side connected in sequence.
  • A03, the first side A01 and the third side A03 are substantially vertical, the first side A01 is provided with a first air inlet 102, and the third side A03 is provided with a first air outlet 103.
  • the first air inlet 102 is a substantially rectangular opening, the first air inlet 102 is adapted to the air outlet of the condensation module 40, and the first air inlet 102 is connected to the condensation module 40.
  • the air outlet is sealed and docked.
  • the first air outlet 103 is a substantially circular opening, the first air outlet 103 is adapted to the air inlet of the regeneration fan 301, and the first air outlet 103 is connected to the regeneration fan 301.
  • the air inlet is sealed butt-jointed or socket-jointed.
  • the first connector A is composed of a first connector A2 and a second connector A3.
  • the first connector A2 is provided with a first air outlet 103.
  • An air inlet 102 is composed of a first connecting body A2 and a second connecting body A3.
  • the first connecting body A2 and the second connecting body A3 are two parts separated approximately in the middle perpendicular to the long side of the first air inlet 102.
  • the first connecting piece A is formed by welding the first connecting body A2 and the second connecting body A3, or is connected by sealing gasket bolts, and the first connecting piece A can be used to adjust the direction of the air flow.
  • the temperature of the airflow flowing through the first connecting member A is not high, and it is assembled between the hard condensation module 40 and the regeneration fan 301, it can be integrally formed with flexible parts, and the appearance is generally as shown in the figure. 21 shown.
  • a first side A01 and a second installation outer seat A11 are provided at the first air inlet 102 and the first air outlet 103, and at the air outlet of the condensation module 40 and the air inlet of the regeneration fan 301 housing, there are A structure in which one side A01 and the second mounting outer base A11 are clamped and fastened.
  • the first air inlet 102 and the first air outlet 103 of the flexible first connector A are deformed to extend into the housing of the condensation module 40 and the air inlet housing of the regeneration fan 301.
  • the flexible first air inlet 102 and the first air outlet 103 are restored.
  • the connecting piece A is deformed, the first side A01 and the second outer installation seat A11 are respectively held in the air outlet of the condensation module 40 shell and the air inlet shell of the regeneration fan 301, and then in the condensation module through the pressure plate or hoop.
  • the first side A01 and the second installation outer seat A11 are clamped between the pressure plate or the hoop and the inner wall of the housing inside the group 40 housing and the fan 301 housing, thereby achieving a sealed and fast installation of the flexible first connector A. .
  • the second connection member B includes a shell.
  • the shell includes a fourth side B01 , a fifth side B02 and a sixth side connected in sequence. B03, both ends of the fifth side B02 are connected to the fourth side B01 and the sixth side B03 respectively.
  • the fourth side B01 is provided with a second air inlet B0
  • the sixth side B03 is provided with a second air outlet B1.
  • the second air inlet B0 is a substantially rectangular opening, the second air inlet B0 is adapted to the shape of the air outlet of the regeneration fan 301 , and the second air inlet B0 is adapted to the shape of the regeneration fan 301 .
  • the air outlet is sealed and connected.
  • the second air outlet B1 is an arc-shaped opening, and the opening width gradually expands along both sides of the short side of the second air inlet B0 to both sides of the short side of the second air outlet B1.
  • the short side length of the second air outlet B1 is smaller than the short side length of the second air inlet B0
  • the second air outlet B1 is adapted to the air inlet of the heating module 302
  • the second air outlet B1 is sealingly connected with the air inlet of the heating module 302.
  • the second connector B is composed of a third connector B2 and a fourth connector B3, and the second air inlet B0 and the second air outlet B1 are composed of a third connector B2 and a fourth connector B3.
  • B2 and the fourth connecting body B3 are spliced together.
  • the third connecting body B2 and the fourth connecting body B3 are two parts cut along the direction perpendicular to the second air inlet B0 and the second air outlet B1.
  • the second connecting member B is formed by welding the third connecting body B2 and the fourth connecting body B3, or is connected by sealing gasket bolts.
  • first connecting piece A and the second connecting piece B are both special-shaped parts, it is difficult to manufacture them through one-time molding, and the mold may be complicated and demolded.
  • the embodiment of the present disclosure splits one piece into multiple pieces for processing and manufacturing.
  • welding methods include ultrasonic welding, friction welding, and hot melt welding.
  • the first connecting member A is sealed by plane grooves.
  • sinking grooves and protrusions may be respectively provided on the first connecting body A2 and the second connecting body A4.
  • the protrusion can extend into the sink groove, and a sealing gasket can also be placed in the sink groove first. The bulge abuts the gasket in the sink for a better seal.
  • the second connection member B is sealed by a combination of flat groove sealing and annular flat/grooving.
  • sinking grooves and protrusions may be respectively provided on the third connecting body B2 and the fourth connecting body B4.
  • the protrusion can extend into the sink groove, and a sealing gasket can also be placed in the sink groove first. The bulge abuts the gasket in the sink for a better seal.
  • the first connecting piece A is a flexible integral piece, and a first side A01 is provided at the first air inlet A0, and a second mounting outer seat A11 is provided at the first air outlet A1.
  • the first side A01 and The second installation outer seat is sealingly connected to the air outlet of the condensation module 40 and the air inlet of the regeneration fan 301.
  • An embodiment of the present application is an integrated washing and drying machine, including a drum and a drying module.
  • the drying module has the regeneration cycle module in any of the above embodiments.
  • the first connecting member A or the second connecting member B is separated by plane parting.
  • the first connecting member A or the second connecting member B is fixed in the manner of “two holes + two holes + two holes”.
  • the embodiment of the present disclosure also includes an integrated washing and drying machine.
  • the integrated washing and drying machine includes Including a drum and a drying module.
  • the drying module includes a moisture absorption channel, a moisture removal channel, and a moisture absorption and dehumidification component.
  • the moisture removal channel includes but is not limited to a fan, a regeneration mechanism (heater), and a condenser. The fan and the regeneration mechanism , the fan and the condenser are connected using connectors.
  • the heater air inlet 311 is located on the outer arc side of the regeneration module upper housing 310.
  • the regeneration module upper housing 310 has a fan-shaped structure.
  • the regeneration airflow enters the third airflow channel radially from the heater air inlet 311 and passes through the air equalizing plate.
  • the air holes on 330 enter the heater accommodation area and perform heat exchange with the heating pipe 340.
  • the heated high-temperature regeneration airflow passes through the turntable 200 to dehydrate and dry the part of the turntable 200 in the regeneration area.
  • the diameter of the air holes tends to decrease from the outer arc to the center of the circle along the radial direction of the fan.
  • the heating tubes 340 are distributed in an S shape.
  • the heating tubes 340 are spaced apart along the radial direction of the fan.
  • the length of the heating tubes 340 is perpendicular to the radial direction of the fan. Since the air holes on the air equalizing plate 330 are arranged corresponding to the heating pipe 340, the diameter of the air holes is relatively larger near the heater air inlet 311, and the diameter of the air holes far away from the heater air inlet 311 is larger. Relatively small, that is, the heated high-temperature regeneration airflow flow rate received by the turntable 200 in the regeneration zone decreases uniformly or unevenly along the radius direction of the fan from the outer arc to the center of the circle, so that the turntable 200 can be heated and dried more uniformly. Dry.
  • Embodiment 2 The similarities between Embodiment 2 and Embodiment 1 will not be described again.
  • Embodiment 2 and Embodiment 1 The differences between Embodiment 2 and Embodiment 1 are:
  • the heater air inlet 311 is located on the side wall of the upper housing 310 of the regeneration module.
  • the side wall is arranged in a fan-shaped radial direction.
  • the flow direction of the regeneration air flow is opposite or arranged in the same direction as the rotation direction of the turntable; the regeneration air flow is introduced by the heater.
  • the air outlet 311 enters the third airflow channel, enters the heater accommodation area through the air holes on the air equalizing plate 330, and conducts heat exchange with the heating pipe 340.
  • the heated high-temperature regeneration airflow passes through the turntable 200 from top to bottom, and regenerates the regeneration area.
  • the turntable 200 part performs dehydration and drying.
  • the heating tubes 340 are distributed in an S-shape.
  • the length of the heating tubes 340 is arranged parallel to the side wall opposite to the heater air inlet 311.
  • the heating tubes 340 are distributed at radial intervals along the fan shape. Since the air holes on the air equalizing plate 330 are in contact with the heating The tubes 340 are arranged correspondingly, so the air holes on the air equalizing plate 330 are arranged relatively densely on the side away from the heater air inlet 311 and the diameter of the air holes is also larger.
  • the high temperature regeneration after heating is controlled by the arrangement of the air holes. The flow rate of airflow.
  • the turntable 200 When the turntable 200 absorbs moisture from the wet circulating airflow through the dehumidification zone and rotates to the regeneration zone, it first dehydrates and dries the turntable 200 part with a larger flow of high-temperature regeneration airflow, and then gradually reduces the high-temperature regeneration while rotating through the regeneration zone.
  • the flow rate of the air flow can be adjusted to achieve more uniform heating and drying of the turntable 200 .
  • a second aspect of the present application provides an integrated washing and drying machine, including: a drying module according to any of the above technical solutions.
  • the integrated washing and drying machine provided by the embodiment of the present application includes the drying module of any of the above technical solutions. Therefore, the integrated washing and drying machine has all the beneficial effects of the drying module of the above technical solutions, which will not be discussed here. Repeat.
  • the washing and drying machine further includes:
  • the drum is provided with a drum air inlet and a drum air outlet.
  • the drum air inlet and the drum air outlet can be respectively provided at both ends of the drum rotating shaft, so that the dry high-temperature airflow entering the drum can fully heat the clothes in the drum.
  • Exchange and the drying module; wherein, the second air flow channel is connected to the air outlet of the drum, and the first air flow channel is connected to the air inlet of the drum; the wet circulating air flow in the drum passes through the second air flow channel and is passed from the bottom to the bottom. It passes through the turntable 200 and reaches the first airflow channel to form a dry airflow; where the turntable 200 is used to absorb moisture in the wet circulating airflow.
  • the integrated washing and drying machine includes a drum and a drying module.
  • the drum air inlet is located at the front or rear, and the drum air outlet is located at the rear or front.
  • the drum air inlet and drum air outlet are connected to the outer cylinder and the inner cylinder of the drum respectively. the space between.
  • the drum air inlet and drum air outlet are located at opposite ends of the drum, so that the air flow can fully contact the clothes inside the drum and improve drying efficiency.
  • roller may be a roller.
  • the specific positions of the air inlet and the air outlet of the drum are not specifically limited in this disclosure. They can also be located at the same end of the drum at the same time, or they can be arranged on the drum in staggered ways.
  • connection can be a fixed connection, a detachable connection, or an integral connection; “connection” can be Either directly or indirectly through an intermediary.

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  • Engineering & Computer Science (AREA)
  • Textile Engineering (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Detail Structures Of Washing Machines And Dryers (AREA)

Abstract

一种烘干模组及洗烘一体机，烘干模组包括：循环模组（10）将来自滚筒的湿循环气流输出到除湿模组（20）位于循环气流通道的部分进行除湿；除湿模组（20）用于吸附来自滚筒的湿循环气流的水分；再生模组（30）连通除湿模组（20）位于再生气流通道的部分，以使干燥的再生气流输出到除湿模组（20），以将除湿模组（20）位于该通道的部分脱附水分；冷凝模组（40），用于对再生模组（30）输出的再生气流进行冷凝以形成为低温干燥的再生气流；其中，除湿模组（20）与机架连接固定，循环模组（10）和/或冷凝模组（40）与滚筒连接固定。

Description

一种烘干模组及洗烘一体机
本申请要求于2022年08月31日提交中国专利局、申请号为202222314788.6，申请名称为“一种烘干模组及洗烘一体机”的中国专利申请的优先权，其全部内容通过引用结合在本申请中。
本申请要求于2022年08月31日提交中国专利局、申请号为202222307052.6，申请名称为“循环模组、烘干装置和洗烘一体机”的中国专利申请的优先权，其全部内容通过引用结合在本申请中。
本申请要求于2022年08月31日提交中国专利局、申请号为202222305009.6，申请名称为“烘干模组和洗烘一体机”的中国专利申请的优先权，其全部内容通过引用结合在本申请中。
本申请要求于2022年08月31日提交中国专利局、申请号为202222322147.5，申请名称为“烘干模组和洗烘一体机”的中国专利申请的优先权，其全部内容通过引用结合在本申请中。
本申请要求于2022年08月31日提交中国专利局、申请号为202222307661.1，申请名称为“烘干模组和洗烘一体机”的中国专利申请的优先权，其全部内容通过引用结合在本申请中。
本申请要求于2022年08月31日提交中国专利局、申请号为202222307069.1，申请名称为“烘干模组和洗烘一体机”的中国专利申请的优先权，其全部内容通过引用结合在本申请中。
本申请要求于2022年08月31日提交中国专利局、申请号为202222316065.X，申请名称为“烘干模组的管路连接模组”的中国专利申请的优先权，其全部内容通过引用结合在本申请中。
技术领域
本申请实施例涉及电器技术领域，尤其涉及一种烘干模组及洗烘一体机。
背景技术
在人们对健康品质生活的追求愈加高涨、城市居民生活节奏不断加快等因素的助推下，洗烘一体机横空出世并深受广大消费者的喜爱，洗烘一体机尤其适合梅雨季节时期的南方家庭、空气质量差不适合户外晒衣的北方家庭，以及想要衣物即洗即穿或追求衣物更加蓬松舒适的使用人群。
发明人发现现有的洗烘一体机的烘干系统利用蒸发器对洗烘机内筒的潮湿空气进行加热吸湿，得到高温空气之后，再重新进入洗烘机内筒，从而使衣物中的水分得以蒸发。但是，蒸发器的整体温度一致，在潮湿空气蒸发的过程中，蒸发器对潮湿空气的吸湿能力下降，导致吸湿效率低、烘干时间长，功耗高。还有一部分采用冷凝水喷淋或冷凝器直接对湿气流除湿的方式，该方式处理过的气流仍然夹带很高比例的水分，且循环利用还需要对气流升温-降温除湿-再升温，除湿效率较低，功耗较大。
申请内容
本申请的目的是提供了一种烘干模组及洗烘一体机，为解决现有技术中除湿处理过的气流仍然夹带很高比例的水分，且循环利用还需要对气流升温-降温除湿-再升温，除湿效率较低，功耗较大的问题。
为解决上述技术问题，根据一些实施例，本申请提供一种烘干模组，包括：
循环模组，其与滚筒连通，循环模组将来自滚筒的湿气流输出到除湿模组；
除湿模组，其连通所述循环模组和滚筒，除湿模组用于吸附来自滚筒的湿气流的水分；
再生模组，其连通至少部分所述除湿模组，用于输出再生气流到除湿模组，以脱附除湿模组吸收的水分；
壳体，所述壳体上设置有容纳区以分别容纳所述循环模组、除湿模组及再生模组。
本申请的还提出了一种洗烘一体机，包括如上述任一项技术方案中所述的烘干模组。
进一步地，洗烘一体机还包括：
滚筒，其设有滚筒进气口和滚筒出气口，滚筒进气口和滚筒出气口分别设置于滚筒的相对两端；
其中，第二气流通道或第一气流通道与滚筒出气口连通，第一气流通道或第二气流通道与滚筒进气口连通；
滚筒内的湿循环气流经由第二气流通道或第一气流通道并穿过转盘到达第一气流通道或第二气流通道，以形成干燥气流；其中，转盘用于吸附湿循环气流中的水分。
附图说明
通过阅读下文优选实施方式的详细描述，各种其他的优点和益处对于本领域普通技术人员将变得清楚明了。附图仅用于示出优选实施方式的目的，而并不认为是对本申请的限制。而且在整个附图中，用相同的参考符号表示相同的部件。在附图中：
图1是根据本申请第一实施方式提供的一种烘干模组的结构示意图；
图2是图1的爆炸分解图；
图3是根据本申请第二实施方式提供的一种下壳体的结构示意图；
图4是根据本申请第三实施方式提供的一种下壳体的结构示意图；
图5是根据本申请第四实施方式提供的一种转盘上壳体的结构示意图；
图6是根据本申请第五实施方式提供的一种转盘上壳体的结构示意图；
图7是根据本申请第六实施方式提供的一种烘干模组的部分结构分解示意图；
图8是本申请实施例提供的循环模组的爆炸结构示意图(未示出循环模组下壳体)；
图9是本申请实施例提供的循环模组的组装结构示意图(未示出循环模组下壳体)；
图10是本申请实施例提供的循环模组的俯视结构示意图；
图11是本申请实施例提供的湿循环气流的循环过程示意图；
图12是根据本申请第七实施方式的烘干模组的部分结构示意图；
图13是根据本申请第八实施方式的烘干模组的部分结构示意图；
图14是根据本申请第九实施方式的烘干模组的部分结构分解示意图；
图15是根据本申请第十实施方式的烘干模组的部分结构示意图；
图16是根据本申请第十一实施方式的烘干模组的部分结构分解示意图；
图17是根据本申请第十二实施方式的再生模组的结构示意图；
图18是根据本申请第十三实施方式的再生模组的结构示意图；
图19是根据本申请第十四实施方式的均风件的结构示意图；
图20是本公开实施例一种烘干模组的再生循环模组中再生区的结构示意图；
图21-24是本公开实施例一种烘干模组的再生循环模组中第一连接件A的结构示意图；
图25-29是本公开实施例一种烘干模组的再生循环模组中第二连接件B的结构示意图；
图30-32是本公开实施例一种烘干模组的再生循环模组中再生区的局部结构示意图。
附图标记：
10-循环模组；20-除湿模组；30-再生模组；50-波纹软管；51-搭接部；52-进筒风道；
100-下壳体；200-转盘；210-转盘上壳体；211-第二分隔件；220-转盘下壳体；221-第一分隔件；2211-第一分隔体；2212-第二分隔体；222-分流件；2221-第一分流体；2222-第二分流体；223-进风口；224-固定轴；301-再生风机；302-加热模块；310-再生模组上壳体； 311-加热器进风口；312-第一顶壁；313-第三侧壁；314-底座；318-安装座；320-再生风机安装部；321-再生风机上壳体；322-再生风机下壳体；330-均风板；331-风孔；340-加热管；350-导热件；410-冷凝模组上壳体；420-冷凝模组下壳体；401-冷凝器；
120-循环电机；102-第一进风口；103-第一出风口；110-叶轮；111-循环模组上壳体；
112-循环模组下壳体；113-密封垫圈；130-过渡件；
1101-叶轮主体；1102-叶片；1103-固定环；
1111-第二侧壁；1112-第一顶板；1113-上壳体连接件；1114-安装孔；1115-固定卡；
1121-第一侧壁；1122-第一底板；1123-下壳体连接件；
A-第一连接件；A01-第一侧面；A11-第二安装外座；A02-第二侧面；A3-第三侧面；B-
第二连接件；B0-第二进风口；B01-第四侧面；B02-第五侧面；B03-第六侧面；B1-第二出风口；B2-第三连接体；B3-第四连接体。
具体实施方式
为了更好的理解上述技术方案，下面通过附图以及具体实施例对本申请实施例的技术方案做详细的说明，应当理解本申请实施例以及实施例中的具体特征是对本申请实施例技术方案的详细的说明，而不是对本申请技术方案的限定，在不冲突的情况下，本申请实施例以及实施例中的技术特征可以相互组合。
目前，现有技术中本申请的目的是提供了一种烘干模组及洗烘一体机，为解决现有技术中除湿处理过的气流仍然夹带很高比例的水分，且循环利用还需要对气流升温-降温除湿-再升温，除湿效率较低，功耗较大的问题。
如图1至图32所示，为解决上述问题，本申请一实施例提供了一种烘干模组，包括：循环模组10，其与洗烘一体机的滚筒连通，循环模组10将来自滚筒的湿循环气流输出到除湿模组20位于循环气流通道的部分进行除湿；除湿模组20，其连通所述循环模组10和滚筒，除湿模组20用于吸附来自滚筒的湿循环气流的水分；再生模组30，其安装于除湿模组20的上，再生模组30连通至少部分所述除湿模组20，用于输出再生气流到除湿模组20，以脱附除湿模组20吸收的水分，壳体，壳体上设置有容纳区以分别容纳所述循环模组10、除湿模组20及再生模组30。
在该实施例中，除湿模组20中位于循环气流通道的部分用于吸附循环气流中的水分，而除湿模组20中位于再生气流通道的部分利用再生模组30对其进行脱附；其中，循环模组10做气流在滚筒和除湿模组20之间循环的动力，循环模组10将来自于滚筒内湿循环气流输送至除湿模组20进行吸附脱水，除湿模组20对来自滚筒的湿循环气流吸附水分，以使干燥的循环气流输出到滚筒中。再生模组30连通所述除湿模组20，以使干燥的再生气流输出到除湿模组20位于再生气流通道的部分，以将除湿模组20在该再生气流通道的部分脱附水分，使其恢复吸附水分能力；冷凝模组40连通到再生模组30的再生风出口，用于对再生模组30输出的再生气流进行冷凝以形成为低温干燥的再生气流；在冷凝过程中形成的冷凝水排出。
在一些示例中，滚筒可以为容纳装置。
如图1和图2所示，优选地，烘干模组还包括：冷凝模组40，冷凝模组40用于对除湿模组20脱附的水分进行冷凝，所述壳体上还设置有冷凝模组容纳区，所述循环模组10、除湿模组20及冷凝模组40容纳区一体成型。
冷凝模组40，连通到再生模组30的再生风出口，用于对再生模组30输出的再生气流进行冷凝以形成为低温干燥的再生气流；其中，除湿模组20与机架连接固定，循环模组10和/或冷凝模组40与滚筒连接固定。或者除湿模组20和循环模组10与冷凝模组40其中至少之一与机架固定连接，其他模组与滚筒固定连接。
除湿模组20、循环模组10及冷凝模组40为各自独立的模组；除湿模组20和其上安装的再生模组30可固定连接到机架上，以减少或消除滚筒振动对除湿模组20的影响， 循环模组10和冷凝模组40中至少一个固定连接至滚筒上。当然，与再生模组30连通的再生风机301也可选地固定至机架或滚筒上。由于循环模组10、冷凝模组40、再生风机301等对振动并不敏感，所以可以依据实际情况或空间布置的需求进行设置。
如图1和图2所示，优选地，除湿模组20，其包括转盘200及封闭于转盘上壳体210内的转盘200，转盘200的至少一部分用于吸附湿循环气流中的水分；转盘200与转盘上壳体210的顶壁和底壁之间形成气流通道；转盘上壳体210上设有再生模组30安装部；循环模组10，其位于除湿模组20的上游或下游；再生模组30，其安装于再生模组30安装部，再生模组30与转盘200的至少另一部分临近，以蒸发掉所述转盘200上吸附的水分；转盘200在转盘上壳体210内持续旋转，湿循环气流经过转盘200与转盘上壳体210的顶壁和底壁之间形成气流通道，转盘200的至少一部分与湿循环气流接触并吸附循环气流中的水分，得到干燥的循环气流；干燥的循环气流经过滚筒内的待烘干物再次形成湿循环气流；当转盘200转到安装于转盘上壳体210上的再生模组30所在的区域时，再生模组30蒸发掉吸附在转盘200上的水分，如此循环，转盘200持续吸收湿循环气流中水分，并通过再生模组30恢复吸附能力。优选地，循环模组10位于除湿模组20的上游，将湿循环气流吹至除湿模组20，使气流在除湿模组20和滚筒之间循环流通。冷凝模组40与再生模组30连通，将再生模组30输出的再生气流进行冷凝以形成为低温干燥的气流。
在一些示例中，转盘上壳体210可以为转盘第二壳体。
在本申请的一个实施例中，所述循环模组10、所述除湿模组20和所述再生模组30之间通过波纹管连接。
在本申请的一个实施例中，除湿模组20还包括：出风通道，一端与所述除湿模组20连通，另一端通过第一波纹软管与滚筒连通。
在该实施例中，通过第一波纹软管连通除湿模组20和滚筒内部，避免出风通道和除湿模组20因滚筒转动受到破坏。出风通道作为经过除湿模组20吸湿得到干燥气流进入滚筒的通道，可选地，在出风通道设置过滤组件或者阀门，避免在烘干模组在非工作状态时，滚筒内的杂质或水分通过出风通道进入到除湿模组20中，对除湿模组20中零件造成破坏。
在本申请的一个实施例中，所述循环模组10和冷凝模组40与滚筒连接固定，包括：除湿模组20和循环模组10通过第二波纹软管连通；再生模组30与冷凝模组40通过第三波纹软管连通；循环模组10与滚筒连通。
在该实施例中，除湿模组20固定在机架上，循环模组10和冷凝模组40与滚筒连接固定：除湿模组20进风口和循环模组10出风口通过第二波纹软管连通；再生模组30与冷凝模组40进风口通过第三波纹软管连通；循环模组10进风口与滚筒出风口连通，避免除湿模组20与再生模组30、循环模组10因滚筒的震动的振幅和频率不同而受到破坏。循环模组10固定安装到滚筒上，循环模组10进风口与滚筒连通，可选地，循环模组10进风口与滚筒出风口固定连接。
在本申请的一个实施例中，所述循环模组10与滚筒连接固定；所述冷凝模组40与机架连接固定；除湿模组20和循环模组10通过第二波纹软管连通。
在该实施例中，除湿模组20和冷凝模组40固定安装到机架上，循环模组10固定安装到滚筒上。除湿模组20进风口和循环模组10出风口通过第二波纹软管连通，避免滚筒和机架的震动的振幅和频率不同导致除湿模组20和循环模组10受损。除湿模组20和冷凝模组40以及再生模组30都与机架固定连接，因此，三者间的进风口和出风口的连接方式不做限定，优选固定连接。
在本申请的一个实施例中，所述冷凝模组40与滚筒连接固定；循环模组10与机架连接固定；再生模组30与冷凝模组40通过第三波纹软管连通；循环模组10与滚筒通过第四波纹软管连通。
在本申请的一个实施例中，除湿模组20还包括：进风通道，其安装在滚筒上，一端与所述滚筒固定连接，另一端与循环模组10连通；所述进风通道内设有过滤组件，用于过滤循环气流中的杂质。在进风通道内设置过滤组件(可以是滤网)以去除循环气流中的杂质，避免毛絮和灰尘杂质进入到循环模组10以及除湿模组20，进而避免上述模块阻塞或杂质燃烧等现象的产生。毛絮和灰尘杂质来自于滚筒，因此，将进风通道安装在滚筒上，利于直接过滤循环气流，避免进风通道和其下游的第四波纹软管及循环模组10堵塞。
如图1和图2所示，在本申请的一个实施例中，再生模组30包括：加热模块302，其入口端设有再生风机301安装部，加热模块302用于脱附所述除湿模组20上吸附的水分；再生风机301，安装在再生风机301安装部上且与冷凝模组40连通，用于将再生模组30冷凝形成的低温干燥的再生气流输送至加热模块302；加热模块302加热，使除湿模组20吸附的水分蒸发，再生风机301将风输送至加热模块302形成高温的再生气流，加快恢复除湿模组20的水分吸附能力。
在本申请的一个实施例中，冷凝模组40设有冷却水进口、冷却水出口和冷凝水排水口；冷却水进口与所述机架上的进水阀通过第一软管连接。冷却水出口和冷凝水排水口与洗烘一体机排水管的连通，直接将冷凝水或冷却水排出。
如图2-图5所示，循环模组10具体地可包括：循环模组壳体、叶轮110和循环电机120。循环模组壳体上设有第一进风口102和第一出风口103；叶轮110，叶轮110设置于循环模组壳体内，叶轮110旋转轴线与第一进风口102轴线平行，叶轮110旋转轴线与第一出风口103轴线大致垂直；循环电机120，循环电机120与循环模组壳体连接固定，循环电机120的输出轴与叶轮110连接固定。叶轮110的旋转轴线与第一进风口相对应，即叶轮110的旋转轴线可以穿过第一进风口102，从而使得叶轮110能够正对第一进风口102处的气流进行驱动，使得气流流进循环模组壳体内，不需要提高叶轮110的转速就可以将气流快速地抽进循环模组壳体内；叶轮110由循环电机120驱动旋转时，形成围绕叶轮110外周的离心力，叶轮110内的气流随离心力方向流动，此时气流从叶轮110四周散开，由此改变了气流的流动方向；并且在叶轮110的旋转轴线以及附近形成负压，可加大吸入第一进风口102处的气流。因此，通过将循环动力设计为循环电机120控制叶轮110旋转形成负压的送风方式，有效避免大风力直接与其他部件冲撞而造成的相关损失。传统风机在气流改变流动方向是通常会带来较高损耗，而本申请实施例提供的循环模组为气流改变流动方向提供了动力，使得在进行循环模组布局时，带来更多的灵活性。
可选实施例中，所述循环模组壳体包括：循环模组下壳体112，其设有凹陷的第一叶轮容纳区；循环模组上壳体111，其设有凹陷的第二叶轮容纳区；循环模组下壳体112与循环模组上壳体111配合连接，以使第一叶轮容纳区和第二叶轮容纳区形成叶轮容纳腔。叶轮110位于叶轮容纳腔内，叶轮容纳腔可设为大于叶轮110外径的圆形，叶轮容纳腔的轴线平行于叶轮110的旋转轴线，这样经叶轮110旋转输出的气流可经循环模组下壳体112和循环模组上壳体111的内侧壁导向流出。
在一些示例中，循环模组上壳体111可以为循环模组第二壳体。
可选实施例中，循环模组下壳体112包括：第一底板1122和第一侧壁1121，第一侧壁突出于第一底板且沿第一底板1122的周向设置，以形成所述第一叶轮容纳区；第一侧壁1121的顶部设置有第一凹槽，所述第一凹槽内设置密封垫圈113；循环模组上壳体111包括：第一顶板1112和第二侧壁1111，第二侧壁突出于第一顶板且沿第一顶板1112的周向设置，以形成所述第二叶轮容纳区；第二侧壁1111的顶部设置有第一凸起，第一凸起与第一凹槽配合；所述循环模组下壳体112和所述循环模组上壳体111连接时，所述第一凸起抵紧所述密封垫圈113。循环模组下壳体112可由底板向上弯折制备得到，同理，循环模组上壳体111可由顶板向下弯折制备得到；循环模组下壳体112和循环模组上壳体111在组装时，第一凸起对第一凹槽内的密封垫圈113进行挤压，使密封垫圈113变形，以实现循环模组下 壳体112和循环模组上壳体111之间优异的密封效果。
在一些示例中，循环模组下壳体112可以为循环模组第一壳体。
可选实施例中，所述叶轮110包括：叶轮主体1101和与叶轮主体1101沿轴向相对设置的固定环1103；所述叶轮主体1101向固定环1103的方向延伸，且设置有用于容纳循环电机的容纳腔，循环电机120的一端设置在所述容纳腔中，且循环电机120的输出轴与所述叶轮主体1101的底部连接固定；以及，叶片1102，所述叶片1102的两端分别与所述叶轮主体1101和固定环1103固定连接，所述叶片1102环绕所述叶轮主体1101间隔设置，且所述叶片1102沿所述叶轮的旋转方向向前倾斜设置。叶轮主体1101可包括顶部的盖板，叶片1102沿长度方向的一端与盖板固定连接，可使得从叶轮底部吸入的气流经盖板阻挡，由叶轮的径向输出；叶轮主体1101向叶片1102方向延伸，叶轮主体1101内设有凹陷的容纳腔，循环电机120的一端嵌入容纳腔中，使得循环风机的整体轴向上的长度减小，降低了循环风机的整机长度。叶片1102沿所述叶轮的旋转方向向前倾斜设置，可提高叶轮的出风效率，有利于提升风机的降噪效果，提高风机的能效。
可选实施例中，第一顶板1112的顶部设有贯穿的安装孔1114和定位凸块，安装孔1114与循环电机适配；定位凸块沿安装孔1114的周向间隔设置，定位凸块插入循环电机的安装耳座，以使循环电机固定于第一顶板1112上。安装耳座可设置于循环电机的外壳上，且安装耳座设于循环电机的外壳背离输出轴的一端，安装耳座上可设有与定位凸块适配的定位孔，定位孔可设为不贯穿，安装耳座上设有螺栓孔，螺栓孔与定位孔贯通，定位凸块上可设有螺纹孔，螺纹孔与螺栓孔同轴线设置且适配，定位凸块插入定位孔内，螺栓穿过螺栓孔旋入螺纹孔内，以使循环电机固定于第一顶板1112上，且循环电机嵌入安装孔1114内并向下伸出；这样循环电机的安装部位于循环模组上壳体111的外部，方便循环电机的安装和拆卸。
可选实施例中，所述循环模组壳体为蜗壳形；所述循环模组壳体具有收缩部，收缩部沿垂直于叶轮110旋转轴线的方向延伸；第一出风口通过收缩部与叶轮容纳腔连通。循环模组壳体为蜗壳形，蜗壳造型独特，气流经叶轮110后改变流动方向由收缩部输出，可避免气流一直在叶轮容纳腔内循环流动，符合流体设计要求，为气流流动提供最大限度风量和风速。
示例性实施例中，第一进风口102位于第一底板1122上，且第一进风口102与安装孔1114共轴设置；收缩部具有出风腔，第一进风口102、叶轮容纳腔、出风腔与第一出风口依次连通，且叶轮容纳腔、出风腔与第一出风口位于同一水平面上。收缩部具有出风腔，气流经叶轮110后改变流动方向，经出风腔流向第一出风口，出风腔大致垂直于叶轮110的旋转轴线，且叶轮容纳腔、出风腔与第一出风口大致位于同一水平面上，从而使得循环模组壳体的高度方向的尺寸减小，减小了循环模组整体的占用空间、也减小了使用循环模组的洗烘一体机的整机高度和体积。
可选实施例中，循环模组还包括：循环风接口件，其与收缩部连接；或者，循环风接口件与所述循环模组壳体设为一体；循环风接口件背离收缩部的一侧设为弧形，且循环风接口件向背离收缩部的一侧逐渐扩大，循环风接口件内具有扩张风道，扩张风道的两端分别与出风腔和第一出风口连通。循环风接口件可设为分开的两个上下壳体，分别与循环模组上壳体111和循环模组下壳体112连接；扩张风道的截面积向背离收缩部的一侧逐渐增大，当气流经叶轮110后进入出风腔和扩张风道，从而进一步地将气流的动压能转化为静压能，提高了动压能的转化能力，提高了风机的工作性能。
可选实施例中，第一侧壁1121上设有下壳体连接件1123，所述下壳体连接件1123沿第一侧壁1121的外周间隔设置，且突出于第一侧壁1121；第二侧壁1111上设有上壳体连接件1113，上壳体连接件1113的设置位置与所述下壳体连接件1123一一对应，上壳体连接件1113与所述下壳体连接件1123连接，以使循环模组下壳体112和循环模组上壳体111的位置相对固定。上壳体连接件1113与所述下壳体连接件1123上均可设置相适配的螺栓 通孔，螺栓通孔内插入螺栓，即可实现循环模组下壳体112和循环模组上壳体111之间的可拆卸连接。
可选实施例中，循环模组壳体上设置有固定卡1115，固定卡1115用于固定线路或管路，可使得循环电机的电线、或者整机上的水、气管路等线路和管路能够得到较好的布置。
可选实施例中，循环模组还包括过渡件130，过渡件设于循环模组下壳体112上，且过渡件130与第一叶轮容纳区适配；过渡件与第一底板1122连接固定；过渡件设有贯穿的通孔，通孔与第一叶轮容纳区连通；过渡件背离第一叶轮容纳区的一侧与波纹软管50连接，波纹软管50通过过渡件130与下壳体的进风口对接。过渡件上可设有第一过渡孔和第二过渡孔，第一过渡孔和第二过渡孔均沿通孔的周向间隔均匀地分布，第一进风口102的直径小于第一过渡孔的分布直径，波纹软管50的端部可设有相对应的螺纹孔，螺栓穿过第一过渡孔拧入螺纹孔内，以使波纹软管50固定于过渡件130上；第二过渡孔的分布直径大于第一进风口102的直径，第一底板1122上设有与第二过渡孔相对应的螺纹孔，螺栓穿过第二过渡孔拧入螺纹孔内，以使过渡件130固定于第一底板1122上。过渡件的一侧可设有定位套，定位套可插入波纹软管50。安装波纹软管50时，可先将波纹软管50固定于过渡件130上，再将过渡件130固定于第一底板1122上，方便波纹软管50的安装与拆卸。
本申请的第二方面提供了一种烘干装置，包括上述的循环模组。可以理解的是，烘干装置还可包括除湿模组20和再生模组30。循环模组，其具有第一循环通路，第一循环通路与滚筒出气口连通，以使滚筒内的湿循环气流进入第一循环通路；除湿模组，其具有第二循环通路，除湿模组位于循环模组的下游；滚筒出气口、第一循环通路、第二循环通路和滚筒进气口依次连通，以形成循环通路；除湿模组包括吸湿排湿构件，吸湿排湿构件设置于第二循环通路上，吸湿排湿构件用于吸附滚筒内的湿循环气流中的水分；再生模组30，其包括再生构件，再生构件与吸湿排湿构件紧邻设置，再生构件用于将所述吸湿排湿构件上吸附的水分至少部分排出。本申请实施例提供的循环模组可为湿循环气流提供动力，有利于气流的循环，循环风机的进风口与滚筒出气口连通，第一出风口103与第二循环通路连通，吸湿排湿构件设置于第二循环通路上，吸湿排湿构件可先吸附滚筒内的湿循环气流中的水分，使湿循环气流可变为干燥循环气流，干燥循环气流通过滚筒进气口进入滚筒内，与衣物充分接触，提高烘干效率，降低能耗。为了使得吸湿排湿构件可连续且重复使用，通过再生构件将所述吸湿排湿构件上吸附的水分排出，再生构件例如可以是加热构件或超声波构件等，通过加热或超声波除湿等方式将吸湿排湿构件上吸附的水分去除。
可以理解的是，紧邻可以为临近设置。
本申请的第三方面提供了一种洗烘一体机，包括上述的烘干装置。
可以理解的是，洗烘一体机，还包括滚筒，滚筒的轴线沿水平方向设置，可将循环模组安装于滚筒顶部，第一进风口102朝下设置，通过波纹软管50与滚筒的出气口连通，波纹软管50的设置可减小滚筒带来的振动。
一些实施例中，第一气流通道与滚筒出气口连通，第二气流通道与滚筒进气口连通；滚筒内的湿循环气流经由第一气流通道由上至下穿过转盘200的吸湿区到达第二气流通道，湿循环气流中的水分被吸附从而形成干燥循环气流。
一些实施例中，所述下壳体100包括循环模组下壳体112，循环模组下壳体112内设有循环风机容纳区，循环风机容纳区与第一转盘容纳区连通；其中，循环风机安装于循环风机容纳区内，循环风机的进风口与滚筒出气口连通，循环风机的出风口与第二气流通道连通。滚筒内排出的湿循环气流经循环风机抽取送入转盘容纳腔的底部，可加速湿循环气流在第二气流通道内的扩散，有利于气流的循环。
在一些示例中，下壳体100可以为第一壳体。
一些实施例中，所述下壳体100还包括转盘下壳体220，转盘下壳体220设有所述第一转盘容纳区，所述第一转盘容纳区内设有第一分隔件221，以将第一转盘容纳区分隔为除湿区和再生区；循环风机的出风口与除湿区连通。转盘200的底面与转盘下壳体的除湿区内 底壁之间具有间隙，可形成第二气流通道；转盘200工作时位于除湿区的部分，可将进入第二气流通道内的湿循环气流中的水分吸附；转盘200在旋转的过程中，已在除湿区吸附水分的部分旋转至再生区时，进行脱水再生。
一些实施例中，烘干模组还包括：再生模组30，其与转盘上壳体210配合连接，转盘上壳体210上形成有大致扇形的再生模组容纳部；再生模组30安装于再生模组容纳部，再生模组30位于转盘200的上方，再生模组例如用于对再生气流进行加热，以对转盘200吸附的水分进行脱附；其中，再生模组的内侧具有气流空间，以形成第三气流通道；部分转盘200的底面与转盘下壳体220的再生区内壁之间具有间隙，以形成第四气流通道。再生模组可包括加热器，用于对再生气流进行加热，加热后的再生气流经由第三气流通道由上至下穿过转盘200到达第四气流通道，对再生区内的转盘200部分进行脱水，转盘200在旋转的过程中，经过除湿区和再生区，是不断地进行吸附水分和脱附水分的循环过程。
在一些示例中，转盘下壳体220可以为转盘第一壳体。转盘上壳体210可以为转盘上第二壳体。
一些实施例中，所述下壳体100还包括冷凝模组下壳体420和再生风机安装部320，再生风机安装于再生风机安装部320，冷凝模组下壳体420设有冷凝器容纳区，冷凝器容纳区分别与第四气流通道和再生风机的进风口连通；再生风机的出风口与第三气流通道连通；再生气流经再生风机抽取送入第三气流通道，经过再生模组并由上至下穿过转盘200到达第四气流通道，变成湿热的再生气流；湿热的再生气流依次进入冷凝器401和再生风机，以形成闭路循环的再生气流。湿热的再生气流进入冷凝器401进行热交换并降温，再生气流中的水蒸汽经冷却形成冷凝水由冷凝器401排水口排出，干燥的低温再生气流进入再生风机进行下一次循环。
在一些示例中，冷凝模组下壳体420可以为冷凝模组第一壳体。
一些实施例中，所述下壳体100设为一体化。示例性实施例中，循环模组下壳体112、转盘下壳体220、冷凝模组下壳体420和再生风机安装部320一体化成型。可在下壳体100的周边设置搭接部51，搭接部51可沿下壳体100的周向间隔布置，通过搭接部51可将整个烘干模组安装至机架上。这样可使整个烘干模组有机的集成为一个整体，简化了其在洗烘一体机中的组装工序，也能够便于对洗烘一体机的整体尺寸进行进一步的优化设计。为了能最大限度减小洗烘一体机的整体尺寸，可将烘干模组安装于滚筒顶部，烘干模组采用水平布置的方式，也即转盘200旋转轴、循环风机旋转轴、再生风机旋转轴都大致平行，且垂直于洗烘一体机上壳/垂直于洗烘一体机滚筒的旋转轴，这样洗烘一体机整体高度取决于滚筒直径和置于滚筒上方的壳体的厚度，循环风机、再生风机、冷凝器等均可以布置在滚筒的上方，由于滚筒是近似水平圆柱形，在其上方且在滚筒最大直径两侧会有更大的竖向空间可供循环风机、再生风机、冷凝器等部件的安装。
在一些示例中，循环模组下壳体112可以为循环模组第一壳体。
一些实施例中，为了使得整个烘干模组安装更牢靠，例如也可以在转盘上壳体210、循环模组上壳体111和/或冷凝模组上壳体410等处设置搭接部51，在此处不做一一例举。
在一些示例中，转盘上壳体210可以为转盘第二壳体，循环模组上壳体111可以为循环模组第二壳体，冷凝模组上壳体410可以为冷凝模组第二壳体。
一些实施例中，循环风机的进风口与滚筒出气口柔性连接；转盘上壳体210与滚筒进气口柔性连接，以使第一气流通道与滚筒进气口连通。柔性连接例如可以是采用波纹软管50连接，通过与滚筒进气口和滚筒出气口柔性连接，可避免滚筒的振动传递至整个烘干模组，尤其是可避免振动对转盘构件造成影响。转盘上壳体210可设有出风通道203，其与进筒风道52进行过渡连接，进筒风道52与滚筒进气口也可采用柔性连接，例如采用波纹软管50连接。
一些实施例中，所述第一分隔件221设为沿转盘下壳体220的径向设置，且在第一转盘容纳区的中心位置形成转轮安装区，大致径向设置的第一分隔件221使除湿区和再生区 均为大致扇形；其中，除湿区的面积可设为再生区的面积2-3倍。除湿区的面积可设为大于再生区的面积，这样转盘200的大部分均处于除湿区，从而进一步提高转盘200的吸湿效率及吸湿效果。为了防止滚筒内排出的湿循环气流与再生气流互相窜通，第一分隔件221与转盘200之间可形成一定动态密封的效果。当转盘200旋转至再生区时，再生气流对该部分的转盘200进行加热，使该部分的水分快速蒸发脱离，由再生气流带走进入冷凝器；从而使转盘200一直具有良好的吸水能力，从而提高了吸湿的效率及效果。
示例性实施例中，转盘下壳体220可设有第一转盘容纳区，转盘下壳体220可包括底板和突出于底板的环周侧壁，形成的凹陷部为第一转盘容纳区。同理，转盘上壳体210可设有第二转盘容纳区，第二转盘容纳区由转盘上壳体210的顶壁、周向侧壁、以及对应于第一分隔件221位置处的上壳体径向侧壁构成的第二分隔件211，转盘上壳体210与转盘下壳体220的凹陷部结构相对设置，转盘上壳体210与转盘下壳体220配合连接时可使第一转盘容纳区和第二转盘容纳区形成转盘容纳腔，由于转盘容纳腔内有气流通过，所以转盘上壳体210与转盘下壳体220之间可设为密封连接。例如是转盘上壳体210或转盘下壳体220上分别设有凹槽或凸缘，凹槽内设置密封条，转盘上壳体210与转盘下壳体220扣合连接时凸缘顶住凹槽内的密封条以实现密封。循环模组下壳体112与循环模组上壳体111配合连接可形成循环风机容纳腔，冷凝模组下壳体420与冷凝模组上壳体410配合连接可形成冷凝器容纳腔。
一些实施例中，所述第一分隔件221至少包括第一分隔体2211和第二分隔体2212，第一分隔体2211和第二分隔体2212均沿转盘下壳体220的径向设置，第一分隔体2211和第二分隔体2212的一端均与转盘下壳体220的侧内壁连接，第一分隔体2211和第二分隔体2212的另一端相交于转盘下壳体的中心位置形成转盘200的转动轴区域，以使所述第一分隔件221整体上呈V形；第一分隔体2211和第二分隔体2212的相交处为圆弧过渡连接。第一分隔件221可设为突出于转盘下壳体220的底板，以使转盘200的底面与转盘下壳体220的底板具有间隙，以形成第二气流通道和第四气流通道。通过将第一分隔件221设置为V形，可使第一转盘容纳区分隔为除湿区和再生区，且使除湿区和再生区分隔为扇形；因此有利于转盘200在旋转的过程中，循环经过除湿区和再生区，不断地进行吸附水分和脱附水分，从而使转盘200一直具有良好的吸水能力，从而提高了吸湿的效率及效果。
一些实施例中，所述转盘上壳体210设有第二分隔件211，以将转盘上壳体210分隔为除湿区和再生模组安装区；第二分隔件211与第一分隔件221分别相对设置于转盘上壳体210和转盘下壳体220上，转盘200位于第二分隔件211与第一分隔件221之间。为了防止滚筒内排出的湿循环气流与再生气流互相窜通，第一分隔件221和第二分隔件211均与转盘200之间可形成动态密封的效果，因此有利于转盘200在旋转的过程中，经过除湿区和再生区，不断地进行吸附水分和脱水烘干，从而使转盘200一直具有良好的吸水能力，从而提高了吸湿的效率及效果。
在一些实施例中，还可在转盘下壳体220上设置第三条第一分隔体、在转盘上壳体210上对应位置设置第三条第二分隔体，沿转盘200转动方向来看，该第三条第一和第二分隔体可设置于再生区的下游或者除湿区的上游，从而整个转盘壳体空间被分隔为三个空间，能够分别实现吸水除湿功能、再生脱附功能、以及冷却功能。该实施例中第三条第一和第二分隔体与再生区之间的大致扇形区即为实现转盘200冷却功能的冷却区。如此设置的好处是：当转盘经过再生区加热脱附水分后，转盘200上会有高温余热，而高温余热会影响转盘200进入除湿区后的吸附水分的能力，因此在再生区和除湿区之间设置一个冷却区，以使转盘200有缓冲冷却的效果，可以提升吸水效率。
一些实施例中，烘干模组可包括壳体，壳体具有转盘容纳腔、循环风机容纳腔、冷凝器容纳腔、再生模组容纳部和再生风机安装部，滚筒出气口、循环风机、转盘容纳腔与滚筒进气口依次连通，这样可使得滚筒内排出的湿循环气流经循环风机抽取送入转盘容纳腔的底部，湿循环气流由下至上穿过转盘200，转盘200吸附湿循环气流中的水分，湿循环气 流可变为干燥循环气流，干燥循环气流通过滚筒进气口进入滚筒内，与衣物充分接触，提高烘干效率。再生模组30、冷凝器401和再生风机形成闭路循环连通，再生气流经再生风机抽取送入再生模组，再生气流经再生模组30加热并由上至下穿过转盘200，加热后的再生气流对转盘200中吸附的水分进行脱附，并带走水蒸汽，进入冷凝器进行热交换，再生气流中的水蒸汽经冷却形成冷凝水由冷凝器排出，干燥的低温再生气流进入再生风机进行下一次循环。
壳体上可设有搭接部51，搭接部可沿壳体的周向间隔布置，通过搭接部可将整个烘干模组安装至机架上。壳体包括下壳体100、转盘上壳体210、循环模组上壳体111和冷凝模组上壳体410等。为了能最大限度减小洗烘一体机的整体尺寸，可将烘干模组安装于洗烘一体机滚筒顶部，烘干模组采用水平布置的方式，也即转盘200旋转轴、循环风机旋转轴、再生风机旋转轴都大致平行，且大致垂直于洗烘一体机上壳/垂直于洗烘一体机滚筒的旋转轴，这样洗烘一体机整体高度取决于滚筒直径和置于滚筒上方的壳体的厚度，循环风机、再生风机、冷凝器等均可以布置在滚筒的上方，由于滚筒是近似水平圆柱形，在其上方会有更大的竖向空间可供循环风机、再生风机、冷凝器等部件的安装。本申请实施例中的循环风机可包括循环电机和叶轮，循环电机驱动叶轮旋转，以改变气流的流向和为湿循环气流提供动力。
一些实施例中，下壳体可设为一体化，这样可方便烘干模组的整体安装，将烘干模组安装于洗烘一体机滚筒顶部，可避免滚筒的振动对整个烘干模组造成一定的影响。下壳体100可包括循环模组下壳体112、转盘下壳体220、冷凝模组下壳体420和再生风机安装部320，下壳体可一体化成型。在本实施例中再生风机是整机采购的，所以只设了再生风机安装部320。转盘下壳体220可设有第一转盘容纳区，示例性实施例中，转盘下壳体220可包括底板和突出于底板的环周侧壁，形成的凹陷部为第一转盘容纳区。同理，转盘上壳体210可设有第二转盘容纳区，转盘上壳体210与转盘下壳体220的凹陷部结构可对称设置，转盘上壳体210与转盘下壳体220配合连接时可使第一转盘容纳区和第二转盘容纳区形成转盘容纳腔，由于转盘容纳腔内有气流通过，所以转盘上壳体210与转盘下壳体220之间可设为密封连接。例如是转盘上壳体210或转盘下壳体220上设有凹槽，凹槽内设置密封条，转盘上壳体210与转盘下壳体220扣合连接时以实现密封。循环模组下壳体112与循环模组上壳体111配合连接可形成循环风机容纳腔，冷凝模组下壳体420与冷凝模组上壳体410配合连接可形成冷凝器容纳腔。
一些实施例中，烘干模组具体地可包括：壳体，其设有转盘构件容纳腔；转盘构件，其安装于转盘构件容纳腔内；转盘构件包括转盘200，所述转盘200的至少部分用于吸附湿循环气流中的水分；转盘200的两个侧面分别与壳体的第一内壁和第二内壁之间均具有间隙，以形成气流通道；其中，第一内壁和第二内壁相对设置，且第一内壁或第二内壁和转盘200的两个侧面大致平行；至少一个分流件222，其至少环绕设于第一内壁或第二内壁之一上，分流件222用于对流入气流通道的气流进行分流。一些实施例中，转盘构件可包括转盘200和驱动组件，驱动组件可以包括电机，电机可驱动转盘200旋转。转盘200可选用吸湿性能好的材料制作，例如可以是沸石、氯化锂、硅胶、改性硅胶或13X(钠X型)分子筛等。流入转盘200一侧的气流通道的湿循环气流穿过转盘200到达另一侧的气流通道，转盘200吸附湿循环气流中的水分，使湿循环气流可变为干燥循环气流；由于循环风机出风口与转盘构件容纳腔的连通是大致沿转盘切向方向，而循环气流具有一定的流速，且湿循环气流由于含湿量较高，因而在离心力的作用下会向远离转盘旋转中心逃逸，气流通常形成于转盘200较大的直径处，靠近转盘旋转中心的区域气流小，从而使得转盘200的主要吸湿部位在较大直径处，影响吸湿效率及转盘吸湿利用率。针对此，设置分流件222环绕设于壳体的底壁上，可对流入气流通道的湿循环气流进行分流，一部分进入靠近圆心的区域，另一部分则进入靠近转盘200外周的区域，使得流入气流通道的湿循环气流更分散和更均匀，气流与转盘200可以更大面积地接触，可提高转盘200的吸湿效率。
一些实施例中，壳体包括：转盘下壳体220，其设有第一转盘容纳区；转盘上壳体210，其设有第二转盘容纳区，转盘上壳体与转盘下壳体配合连接，以使第一转盘容纳区和第二转盘容纳区形成所述转盘构件容纳腔；转盘200的顶面与转盘上壳体210的部分内顶壁之间具有间隙，以形成第一气流通道；转盘200的底面与转盘下壳体的部分底壁之间具有间隙，以形成第二气流通道；第二气流通道与滚筒出气口连通，第一气流通道与滚筒进气口连通，以使滚筒内的湿循环气流经由第二气流通道并穿过转盘200到达第一气流通道；示例性地，所述分流件222环绕设于转盘下壳体220的底壁上，以对流入第二气流通道的气流进行分流。例如，滚筒内排出的湿循环气流进入转盘构件容纳腔的底部，即在第二气流通道内扩散，当分流件222环绕设于转盘下壳体的内底壁时，可对流入的湿循环气流先进行分流，一部分进入靠近圆心的区域，另一部分则进入靠近转盘200外周的区域，使得流入气流通道的湿循环气流更分散和更均匀，湿循环气流再由下至上穿过转盘200，转盘200吸附湿循环气流中的水分，使湿循环气流变为干燥循环气流，可提高转盘200的吸湿效率，干燥循环气流从第一气流通道流向滚筒进气口进入滚筒内，与衣物充分接触，提高烘干效率，降低能耗。
一些实施例中，所述至少一个分流件222设于第一转盘容纳区的除湿区内，以将除湿区分隔为至少第一分流区和第二分流区；所述转盘下壳体220的侧壁上设有第二进风口223，所述分流件222的一端抵接第二进风口223，以将第二进风口223至少分隔为第一子口和第二子口，第一子口和第一分流区连通，第二子口和第二分流区连通，等等。分流件222将第二进风口223分隔为第一子口和第二子口，这样通过分流件222在第二进风口223对湿循环气流进行分流，并进入靠近圆心和外周的两个分流区，即第一分流区和第二分流区，这样对湿循环气流进行了合理地分流，使得流入第一气流通道的湿循环气流更分散和更均匀，气流与转盘200可以更大面积地接触，可提高转盘200的吸湿效率。可理解的，对于第一转盘容纳区的除湿区，可以设置多于两个的分流件222，它们可以平行设置，从而将除湿区分隔为多个分流区。
一些实施例中，当转盘200在旋转的过程中，为了使得分流件222对转盘200不造成干涉，优选的方案为所述分流件222突出于所述转盘下壳体220的底壁，所述分流件222的高度以不接触转盘200为限，这样既避免了干涉，又在至少两个分流区之间形成气流密封。分流件222突出于所述转盘下壳体220的底壁，可以使得转盘200的底面与转盘下壳体220的底壁之间形成间隙，即第二气流通道被分隔为第一分流区和第二分流区。
一些实施例中，所述第一分隔件221设为沿转盘下壳体220的径向设置，以使除湿区和再生区均为大体上的扇形；其中，除湿区的面积可设为再生区的面积1.5-4倍。除湿区的面积可设为大于再生区的面积，这样转盘200的大部分均处于除湿区，从而进一步提高转盘200的吸湿效率及吸湿效果。为了防止滚筒内排出的湿循环气流与再生气流互相窜通，第一分隔件221与转盘200之间可形成动态密封的效果，当然也可以在第一分隔件221和/或第二分隔件211与转盘之间设置密封件，例如柔性密封件，且该密封件固定设置于第一分隔件221和/或第二分隔件211之上。当转盘200旋转至再生区时，再生气流对该部分的转盘200进行加热，使该部分的水分快速脱附，由再生气流带走进入冷凝器；从而使转盘200一直具有良好的吸水能力，从而提高了吸湿的效率及效果。
一些实施例中，所述第一分隔件221至少包括第一分隔体2211和第二分隔体2212，第一分隔体2211和第二分隔体2212均沿转盘下壳体220的径向设置，第一分隔体2211和第二分隔体2212的一端均与转盘下壳体220的侧内壁连接，第一分隔体2211和第二分隔体2212的另一端相交于转盘下壳体220的中心区域，以使所述第一分隔件221呈大致V形；第一分隔体2211和第二分隔体2212的相交处为圆弧过渡连接。第一分隔件221可设为突出于转盘下壳体220的底板，以使转盘200的底面与转盘下壳体220的底板具有间隙，以形成第二气流通道。通过将第一分隔件221设置为V形，可使第一转盘容纳区分隔为除湿区和再生区，且使除湿区和再生区分隔为扇形；因此有利于转盘200在旋转的过程中，循 环经过除湿区和再生区，不断地进行吸附水分和脱附，从而使转盘200一直具有良好的吸水能力，从而提高了吸湿的效率及效果。第一分隔体2211和第二分隔体2212的相交处为圆弧过渡连接，可对分流后的湿循环气流进行更好地导向。第一分隔体2211和第二分隔体2212的相交处，即在转盘下壳体220的中心区域可设有向上突出的固定轴224，转盘200的中心套设于固定轴224上，转盘200可围绕固定轴224旋转。
一些实施例中，所述第一分流区由所述分流件222的内弧侧壁和所述第一分隔件221构成；所述第二分流区由所述分流件222的外弧侧壁和转盘下壳体220的内侧壁构成。分流件222位于第一分隔件221和转盘下壳体220的内侧壁之间，且环绕设置于转盘下壳体220的底壁上，因此进入第二气流通道内的湿循环气流更符合流体的流向，气流在从循环风机出风口快速流入到第二气流通道后，在离心力的作用下，沿着分流件222的侧壁和转盘下壳体220的内侧壁扩散至与进风口223相对的另一端，以使气流可以有更多的时间接触转盘200，更有利于吸附掉湿循环气流的水分，而不是在进风口223处由下至上穿过转盘200后直接进入第一气流通道，进一步提高了转盘200的吸湿效率及效果。
一些实施例中，所述第二进风口223位于靠近第一分隔体2211；所述分流件222包括第一分流体2221和与第一分流体2221一端平滑连接的第二分流体2222，第一分流体大致平行于第一分隔体2211，且第一分流体2221与第一分隔体2211间隔设置；第二分流体2222背离第一分流体2221的另一端与第二分隔体连接，且第二分流体2222呈弧形设置，可设置为与下壳体内侧壁平行。湿循环气流从第二进风口223进入后，通过第一分流体2221和第二分流体2222的导向，结合离心力的作用下，不仅对湿循环气流进行了有效的分流，更有利于湿循环气流在第二气流通道内的扩散。当然分流件222也可以为与下壳体内侧壁平行的整体件。
一些实施例中，所述第二分流体2222与转盘下壳体220的侧壁同轴设置。第二分流体2222呈弧形设置，第二分流体2222的圆弧中心与转盘下壳体220的侧壁的圆弧中心同心设置，即与转盘200的旋转中心同心，更符合流体动力学的设计，对湿循环气流从第二进风口223进入后具有更好的导向；优选的，第二分流体2222可设于转盘下壳体220的侧壁的半径的1/2处，以实现对流入的湿循环气流进行有效和均匀的分流。
一些实施例中，分流件222可以为两个以上，可以均匀或不均匀地将第二气流通道分隔为多个分流区，进一步降低离心力对气流中水分被吸附的影响。具体构型可与前述实施例相同或类似。
一些实施例中，烘干模组具体地可包括：循环模组10和除湿模组20。循环模组10，其具有第一循环通路，第一循环通路与滚筒出气口连通，以使滚筒内的湿循环气流进入第一循环通路；除湿模组20，其位于循环模组10的下游，除湿模组20具有第二循环通路，第二循环通路与滚筒进气口连通；滚筒出气口、第一循环通路、第二循环通路和滚筒进气口依次连通，以形成循环通路；除湿模组20包括转盘构件，至少部分转盘构件设置于第二循环通路上，转盘构件用于吸附来自于滚筒内的湿循环气流中的水分；其中，滚筒内的湿循环气流依次经由第一循环通路和第二循环通路，变成干燥循环气流。循环模组10可包括循环风机，循环风机的设置可为湿循环气流提供动力，有利于气流的循环，循环风机的进风口与滚筒出气口连通，循环风机的出风口与第二循环通路连通，转盘构件设置于第二循环通路上，转盘构件可先吸附来自于滚筒内的湿循环气流中的水分，使湿循环气流变为相对干燥的循环气流，干燥循环气流通过滚筒进气口进入滚筒内，与衣物充分接触，提高烘干效率，降低能耗。
一些实施例中，除湿模组20还包括：转盘下壳体220，其设有第一转盘容纳区；转盘上壳体210，其设有第二转盘容纳区，转盘上壳体210与转盘下壳体220配合连接，以使第一转盘容纳区和第二转盘容纳区形成转盘构件容纳腔；转盘构件安装于转盘构件容纳腔内；转盘构件包括转盘200；转盘200的顶面与转盘上壳体210的部分顶壁之间具有间隙，以形成第一气流通道；转盘200的底面与转盘下壳体220的部分底壁之间具有间隙，以形成第 二气流通道；第二气流通道、转盘200和第一气流通道形成第二循环通路；其中，第二气流通道与第一循环通路连通，第一气流通道与滚筒进气口连通，以使滚筒内的湿循环气流经由第二气流通道并穿过转盘200到达第一气流通道。具体地，转盘200构成转盘构件的一部分，转盘构件还可包括驱动组件，驱动组件可以包括电机，电机可驱动转盘200旋转。转盘200可选用吸湿性能好且脱附性能好的材料制作，例如可以是沸石、氯化锂、硅胶、改性硅胶或13X(钠X型)分子筛等。滚筒内排出的湿循环气流进入转盘容纳腔的底部，在第二气流通道内扩散，湿循环气流由下至上穿过转盘200，转盘200吸附湿循环气流中的水分，使湿循环气流可变为干燥循环气流，干燥循环气流通过滚筒进气口进入滚筒内，与衣物充分接触，提高烘干效率，降低能耗。本申请实施例通过采用转盘200吸附湿循环气流中的水分，可以避免采用蒸发器带来的对潮湿空气的吸湿能力下降。
一些实施例中，循环模组10包括：循环模组壳体，其具有叶轮容纳腔，所述循环模组壳体上设有第一进风口102和第一出风口103；叶轮110，所述叶轮110设置于所述叶轮容纳腔内，所述叶轮旋转轴线与所述第一进风口轴线大致平行，所述叶轮旋转轴线与所述第一出风口轴线大致垂直；循环电机120，所述循环电机120与循环模组壳体连接固定，所述循环电机120的输出轴与所述叶轮110连接固定；第一进风口102、叶轮容纳腔和第一出风口103形成第一循环通路；其中，第一进风口102与滚筒出气口连通，第一出风口103与第二循环通路连通，以使滚筒内的湿循环气流依次进入第一循环通路和第二循环通路。叶轮110的旋转轴线与第一进风口相对应，即叶轮110的旋转轴线可以穿过第一进风口102，从而使得叶轮110能够正对第一进风口102处的气流进行驱动，使得气流流进循环模组壳体内，不需要提高叶轮110的转速就可以将气流快速地抽进循环模组壳体内；叶轮110由循环电机120驱动旋转时，形成围绕叶轮110外周的离心力，叶轮110内的气流随离心力方向流动，此时气流从叶轮110四周散开，由此改变了气流的流动方向；并且在叶轮110的旋转轴线以及附近形成负压，可加大吸入第一进风口102处的气流。因此，通过将循环动力设计为循环电机120控制叶轮110旋转形成负压的送风方式，有效避免大风力直接与其他部件冲撞而造成的相关损失。传统风机在气流改变流动方向是通常会带来较高损耗，而本申请实施例提供的循环模组为气流改变流动方向提供了动力，使得在进行循环模组布局时，带来更多的灵活性。本申请实施例中，循环风机可包括循环电机120和由循环电机120驱动旋转的叶轮110。
一些实施例中，烘干模组还包括：前置冷凝器，其设置于循环通路上，前置冷凝器位于循环模组10的上游；前置冷凝器用于对来自于滚筒内的湿循环气流进行预除湿。为了使得转盘200具有更好的吸湿效果，在循环模组10的上游设置前置冷凝器，以降低来自于滚筒内的湿循环气流的湿度。
在一些示例中，前置冷凝器为第二冷凝器。
一些实施例中，前置冷凝器包括水冷冷凝器或空气冷凝器；前置冷凝器设置于与滚筒出气口连通的出气通道上。与滚筒出气口连通的出气通道可设置在滚筒左后方或滚筒右后方，例如，当前置冷凝器为水冷冷凝器时，可将前置冷凝器设置在过滤组件的气流方向的上游，这样一方面可以降低进入除湿模组20的气流湿度，另一方面可以将气流中含有的部分毛絮通过冷凝水直接带走，从而可降低过滤组件的清洁频次。滚筒出气通道上设置的水冷冷凝器，具体地可以是在进水口设置喷嘴，以向管道外壁缓慢喷冷却水，保持管道壁的持续低温，从而达到对流过管道的湿循环气流进行冷凝除水；滚筒出气通道可设为双层管道壁，双层管道壁可以包括同轴间隔设置的内环管道和外环管道，内环管道内通过湿循环气流，内环管道和外环管道之间形成水流空间，以引导冷却水流入到滚筒外筒或洗衣机出水管道。当前置冷凝器为空气冷凝器时，来自于滚筒内的湿循环气流与空气冷凝器进行热交换并降温，湿循环气流中的水蒸汽经冷却形成冷凝水由空气冷凝器排水口排出。
一些实施例中，烘干模组还包括：辅助加热器，其设置于循环通路上，辅助加热器位于除湿模组20的下游；辅助加热器用于对干燥循环气流进行加热。对来自于滚筒内的湿循 环气流通过转盘200吸附水分，使湿循环气流可变为干燥循环气流，辅助加热器对干燥循环气流进行加热，可提高进入滚筒的干燥循环气流的温度，以加快对滚筒内的衣物进行烘干的速度。
在一些示例中，辅助加热器为第二加热器。
一些实施例中，所述第一转盘容纳区内设有第一分隔件221，以将第一转盘容纳区分隔为除湿区和再生区；转盘下壳体220的侧壁上设有第二进风口223，第二进风口223分别与第一出风口103和第二气流通道的除湿区连通。具体地，转盘200的底面与转盘下壳体的除湿区内底壁之间具有间隙，可形成第二气流通道；转盘200工作时位于除湿区的部分，可将进入第二气流通道内的湿循环气流中的水分吸附；转盘200在旋转的过程中，已在除湿区吸附水分的部分旋转至再生区时，进行脱水再生。
一些实施例中，所述转盘上壳体210的侧壁上设有第二出风口，第二出风口分别与第一气流通道的除湿区和滚筒进气口连通；第二进风口223位于靠近第一分隔体和第二分隔体中的一个；第二出风口位于靠近第一分隔体和第二分隔体中的另一个。第二进风口223和第二出风口分设于第一分隔体和第二分隔体的两侧，来自于滚筒内的湿循环气流从第二进风口223进入第二气流通道内，经除湿区的导流在第二气流通道内扩散，湿循环气流由下至上穿过转盘200到达第一气流通道，并汇聚于除湿区另一侧的第二出风口，相对延长了循环气流的流动路径，这样循环气流与转盘200的底面和顶面接触面积更大，提高了转盘200的利用率。
一些实施例中，烘干模组还包括：出风通道203，其位于第二出风口处，所述出风通道203突出于转盘上壳体210的侧壁的外侧；进筒风道52，其一端与出风通道连通，另一端与滚筒进气口连通；辅助加热器包括加热管或加热丝；辅助加热器设置于进筒风道内。进筒风道52与出风通道203之间可设有密封圈，进筒风道52与出风通道203的端部设有相适配的一对连接法兰，通过螺栓连接将进筒风道52与出风通道203连接固定，中间的密封圈被压紧变形，以实现密封效果。辅助加热器可包括加热管或加热丝，将加热管或加热丝沿进筒风道52的内壁设置，加热管或加热丝与进筒风道52的内壁之间可设置隔热材料。
下面结合附图对来自于滚筒内的湿循环气流的循环过程进行详细介绍。
参见图11，循环模组10与除湿模组20共同形成循环通路，来自于滚筒内的湿循环气流的流向如图11中箭头所示：湿循环气流从滚筒内由滚筒出气口经出气通道，出气通道内设有滤网和前置冷凝器，湿循环气流进行预除湿后进入波纹软管50(箭头1)，经过第一进风口102，由循环风机提供动力到达转盘200下侧(箭头2)，即在第二气流通道内扩散，从转盘200下侧穿过转盘200到达其上侧(箭头3)，湿循环气流经转盘200吸附其中的水分，可变为干燥循环气流后在转盘200上侧空间流动(箭头4)，即经第一气流通道到达进筒风道52(箭头5)，进筒风道内设有辅助加热器，以对干燥循环气流进行加热，加热后的干燥循环气流然后穿过进筒风道52循环进入到滚筒(箭头6)。
一些实施例中，烘干模组包括：除湿模组20，其具有第二循环通路，第二循环通路与滚筒出气口连通，以使滚筒内的湿循环气流进入第二循环通路；除湿模组包括转盘构件，至少部分转盘构件设置于第二循环通路上，转盘构件用于吸附来自于滚筒内的湿循环气流中的水分；循环模组10，其位于除湿模组20的下游，循环模组具有第一循环通路，第一循环通路与滚筒进气口连通，以使滚筒内的湿循环气流依次经由第二循环通路和第一循环通路，变成干燥循环气流进入滚筒内进行下一次循环；滚筒出气口、第二循环通路、第一循环通路和滚筒进气口依次连通，以形成循环通路。
可以理解的是，以上实施例中的循环模组10和除湿模组20可以调换位置，即滚筒内的湿循环气流先经过滚筒出气通道进入到除湿模组20，然后再经由循环模组10而通过滚筒进气通道进入滚筒内。由此各部件的进气口、出气口的连接关系可进行适应性调整。
本申请实施例提供了一种循环模组10，如图8-图10所示，具体地可包括：循环模组壳体、叶轮110和循环电机120。循环模组壳体上设有第一进风口102和第一出风口103；叶 轮110，叶轮110设置于循环模组壳体内，叶轮110旋转轴线与第一进风口102轴线平行，叶轮110旋转轴线与第一出风口103轴线大致垂直；循环电机120，循环电机120与循环模组壳体连接固定，循环电机120的输出轴与叶轮110连接固定。叶轮110的旋转轴线与第一进风口相对应，即叶轮110的旋转轴线可以穿过第一进风口102，从而使得叶轮110能够正对第一进风口102处的气流进行驱动，使得气流流进循环模组壳体内，不需要提高叶轮110的转速就可以将气流快速地抽进循环模组壳体内；叶轮110由循环电机120驱动旋转时，形成围绕叶轮110外周的离心力，叶轮110内的气流随离心力方向流动，此时气流从叶轮110四周散开，由此改变了气流的流动方向；并且在叶轮110的旋转轴线以及附近形成负压，可加大吸入第一进风口102处的气流。因此，通过将循环动力设计为循环电机120控制叶轮110旋转形成负压的送风方式，有效避免大风力直接与其他部件冲撞而造成的相关损失。传统风机在气流改变流动方向是通常会带来较高损耗，而本申请实施例提供的循环模组为气流改变流动方向提供了动力，使得在进行循环模组布局时，带来更多的灵活性。
可选实施例中，所述循环模组壳体包括：循环模组下壳体112，其设有凹陷的第一叶轮容纳区；循环模组上壳体111，其设有凹陷的第二叶轮容纳区；循环模组下壳体112与循环模组上壳体111配合连接，以使第一叶轮容纳区和第二叶轮容纳区形成叶轮容纳腔。叶轮110位于叶轮容纳腔内，叶轮容纳腔可设为大于叶轮110外径的圆形，叶轮容纳腔的轴线平行于叶轮110的旋转轴线，这样经叶轮110旋转输出的气流可经循环模组下壳体112和循环模组上壳体111的内侧壁导向流出。
可选实施例中，循环模组下壳体112包括：第一底板1122和第一侧壁1121，第一侧壁突出于第一底板且沿第一底板1122的周向设置，以形成所述第一叶轮容纳区；第一侧壁1121的顶部设置有第一凹槽，所述第一凹槽内设置密封垫圈113；循环模组上壳体111包括：第一顶板1112和第二侧壁1111，第二侧壁突出于第一顶板且沿第一顶板1112的周向设置，以形成所述第二叶轮容纳区；第二侧壁1111的顶部设置有第一凸起，第一凸起与第一凹槽配合；所述循环模组下壳体112和所述循环模组上壳体111连接时，所述第一凸起抵紧所述密封垫圈113。循环模组下壳体112可由底板向上弯折制备得到，同理，循环模组上壳体111可由顶板向下弯折制备得到；循环模组下壳体112和循环模组上壳体111在组装时，第一凸起对第一凹槽内的密封垫圈113进行挤压，使密封垫圈113变形，以实现循环模组下壳体112和循环模组上壳体111之间优异的密封效果。
可选实施例中，所述叶轮110包括：叶轮主体1101和与叶轮主体1101沿轴向相对设置的固定环1103；所述叶轮主体1101向固定环1103的方向延伸，且设置有用于容纳循环电机的容纳腔，循环电机120的一端设置在所述容纳腔中，且循环电机120的输出轴与所述叶轮主体1101的底部连接固定；以及，叶片1102，所述叶片1102的两端分别与所述叶轮主体1101和固定环1103固定连接，所述叶片1102环绕所述叶轮主体1101间隔设置，且所述叶片1102沿所述叶轮的旋转方向向前倾斜设置。叶轮主体1101可包括顶部的盖板，叶片1102沿长度方向的一端与盖板固定连接，可使得从叶轮底部吸入的气流经盖板阻挡，由叶轮的径向输出；叶轮主体1101向叶片1102方向延伸，叶轮主体1101内设有凹陷的容纳腔，循环电机120的一端嵌入容纳腔中，使得循环风机的整体轴向上的长度减小，降低了循环风机的整机长度。叶片1102沿所述叶轮的旋转方向向前倾斜设置，可提高叶轮的出风效率，有利于提升风机的降噪效果，提高风机的能效。
可选实施例中，第一顶板1112的顶部设有贯穿的安装孔1114和定位凸块，安装孔1114与循环电机适配；定位凸块沿安装孔1114的周向间隔设置，定位凸块插入循环电机的安装耳座，以使循环电机固定于第一顶板1112上。安装耳座可设置于循环电机的外壳上，且安装耳座设于循环电机的外壳背离输出轴的一端，安装耳座上可设有与定位凸块适配的定位孔，定位孔可设为不贯穿，安装耳座上设有螺栓孔，螺栓孔与定位孔贯通，定位凸块上可设有螺纹孔，螺纹孔与螺栓孔同轴线设置且适配，定位凸块插入定位孔内，螺栓穿过螺栓孔旋入螺纹孔内，以使循环电机固定于第一顶板1112上，且循环电机嵌入安装孔1114内 并向下伸出；这样循环电机的安装部位于循环模组上壳体111的外部，方便循环电机的安装和拆卸。
可选实施例中，所述循环模组壳体为蜗壳形；所述循环模组壳体具有收缩部，收缩部沿垂直于叶轮110旋转轴线的方向延伸；第一出风口通过收缩部与叶轮容纳腔连通。循环模组壳体为蜗壳形，蜗壳造型独特，气流经叶轮110后改变流动方向由收缩部输出，可避免气流一直在叶轮容纳腔内循环流动，符合流体设计要求，为气流流动提供最大限度风量和风速。
示例性实施例中，第一进风口102位于第一底板1122上，且第一进风口102与安装孔1114共轴设置；收缩部具有出风腔，第一进风口102、叶轮容纳腔、出风腔与第一出风口依次连通，且叶轮容纳腔、出风腔与第一出风口位于同一水平面上。收缩部具有出风腔，气流经叶轮110后改变流动方向，经出风腔流向第一出风口，出风腔大致垂直于叶轮110的旋转轴线，且叶轮容纳腔、出风腔与第一出风口大致位于同一水平面上，从而使得循环模组壳体的高度方向的尺寸减小，减小了循环模组整体的占用空间、也减小了使用循环模组的洗烘一体机的整机高度和体积。
可选实施例中，循环模组10还包括：循环风接口件，其与收缩部连接；或者，循环风接口件与所述循环模组壳体设为一体；循环风接口件背离收缩部的一侧设为弧形，且循环风接口件向背离收缩部的一侧逐渐扩大，循环风接口件内具有扩张风道，扩张风道的两端分别与出风腔和第一出风口连通。循环风接口件可设为分开的两个上下壳体，分别与循环模组上壳体111和循环模组下壳体112连接；扩张风道的截面积向背离收缩部的一侧逐渐增大，当气流经叶轮110后进入出风腔和扩张风道，从而进一步地将气流的动压能转化为静压能，提高了动压能的转化能力，提高了风机的工作性能。
可选实施例中，第一侧壁1121上设有下壳体连接件1123，所述下壳体连接件1123沿第一侧壁1121的外周间隔设置，且突出于第一侧壁1121；第二侧壁1111上设有上壳体连接件1113，上壳体连接件1113的设置位置与所述下壳体连接件1123一一对应，上壳体连接件1113与所述下壳体连接件1123连接，以使循环模组下壳体112和循环模组上壳体111的位置相对固定。上壳体连接件1113与所述下壳体连接件1123上均可设置相适配的螺栓通孔，螺栓通孔内插入螺栓，即可实现循环模组下壳体112和循环模组上壳体111之间的可拆卸连接。
可选实施例中，循环模组壳体上设置有固定卡1115，固定卡1115用于固定线路或管路，可使得循环电机的电线、或者整机上的水、气管路等线路和管路能够得到较好的布置。
可选实施例中，循环模组还包括过渡件130，过渡件设于循环模组下壳体112上，且过渡件130与第一叶轮容纳区适配；过渡件与第一底板1122连接固定；过渡件设有贯穿的通孔，通孔与第一叶轮容纳区连通；过渡件背离第一叶轮容纳区的一侧与波纹软管50连接，波纹软管50通过过渡件130与下壳体的进风口对接。过渡件上可设有第一过渡孔和第二过渡孔，第一过渡孔和第二过渡孔均沿通孔的周向间隔均匀地分布，第一进风口102的直径小于第一过渡孔的分布直径，波纹软管50的端部可设有相对应的螺纹孔，螺栓穿过第一过渡孔拧入螺纹孔内，以使波纹软管50固定于过渡件130上；第二过渡孔的分布直径大于第一进风口102的直径，第一底板1122上设有与第二过渡孔相对应的螺纹孔，螺栓穿过第二过渡孔拧入螺纹孔内，以使过渡件130固定于第一底板1122上。过渡件的一侧可设有定位套，定位套可插入波纹软管50。安装波纹软管50时，可先将波纹软管50固定于过渡件130上，再将过渡件130固定于第一底板1122上，方便波纹软管50的安装与拆卸。
一些实施例中，如图1、图12至图17所示，烘干模组包括：循环模组10、除湿模组20和再生模组30。循环模组10，其具有第一循环通路，第一循环通路与滚筒出气口连通，以使滚筒内的湿循环气流进入第一循环通路；除湿模组，其具有第二循环通路，除湿模组位于循环模组的下游或上游；滚筒出气口、第一循环通路、第二循环通路和滚筒进气口依次连通，以形成循环通路；除湿模组包括吸湿排湿构件，至少部分吸湿排湿构件设置于第 二循环通路上，吸湿排湿构件用于吸附来自于滚筒内的湿循环气流中的水分；再生模组30，其包括再生构件，再生构件与至少另一部分吸湿排湿构件临近设置，再生构件用于将所述至少另一部分吸湿排湿构件上吸附的水分至少部分地排出。循环模组10可包括循环风机，循环风机的设置可为湿循环气流提供动力，有利于气流的循环，循环风机的进风口与滚筒出气口连通，循环风机的出风口与第二循环通路连通，吸湿排湿构件设置于第二循环通路上，吸湿排湿构件可先吸附来自于滚筒内的湿循环气流中的水分，使湿循环气流变为相对干燥的循环气流，干燥循环气流通过滚筒进气口进入滚筒内，与衣物充分接触，提高烘干效率，降低能耗。为了使得吸湿排湿构件可连续且重复使用，通过再生构件将所述吸湿排湿构件上吸附的水分排出，再生构件例如可以是加热构件或超声波构件等，通过加热或超声波除湿等方式将吸湿排湿构件上吸附的水分去除。
可以理解的是，在一实施例中，紧邻可以为临近设置，也可以为元件之间保持一定间隙或距离，本领域技术人员可以明了，只要能保证再生构件位于吸湿排湿构件的上游即可。
一些实施例中，除湿模组位于循环模组的上游，第二循环通路与滚筒出气口连通，吸湿排湿构件可先吸附来自于滚筒内的湿循环气流中的水分；第一循环通路与滚筒进气口连通，以使第一循环通路中相对干燥的循环气流进入滚筒；滚筒出气口、第二循环通路、第一循环通路和滚筒进气口依次连通，以形成循环通路。
一些实施例中，吸湿排湿构件包括转盘200；再生构件为加热构件；再生模组具有再生通路，加热构件与转盘的至少部分部分依次设置于再生通路上，以使再生通路内的再生气流依次流经加热构件与至少部分转盘的部分，变成湿热的再生气流。具体地，吸湿排湿构件可包括转盘200和驱动组件，驱动组件可以包括电机，电机可驱动转盘200旋转。转盘200可选用吸湿性能好的材料制作，例如可以是沸石、氯化锂、硅胶、改性硅胶或13X(钠X型)分子筛等。加热构件设置于再生通路上，例如加热构件可包括加热器，因此再生通路内的再生气流经加热器加热后变成高温的再生气流，为了更高效地对转盘进行脱水，可使高温的再生气流穿过转盘200位于再生通路的部分，这样转盘200在旋转的过程中，当旋转至再生通路时，将吸附的水分不断地进行脱附，以保持转盘200可连续且重复使用。
一些实施例中，烘干模组还可包括转盘上壳体210和转盘下壳体220，转盘上壳体210和转盘下壳体220配合连接形成转盘容纳腔；转盘200安装于转盘容纳腔内，转盘200的顶面与转盘上壳体的部分内壁之间具有间隙，以形成第一气流通道；转盘200的底面与下壳体的部分内壁之间具有间隙，以形成第二气流通道；第二气流通道与滚筒出气口连通，第一气流通道与滚筒进气口连通；滚筒内的湿循环气流经由第二气流通道并由下至上穿过转盘200到达第一气流通道，以形成干燥循环气流。其中，第二气流通道、转盘200和第一气流通道可形成第二循环通路。
一些实施例中，再生通路与循环通路相对隔离，以使再生气流和湿循环气流互不相通。由于转盘200的一部分位于再生通路内，另一部分位于循环通路内，转盘200在持续旋转的过程中，是不断地经过再生通路和循环通路；示例性实施例中，当转盘200的一部分旋转至再生通路内时，高温的再生气流可由上至下穿过转盘200，以实现高效地对转盘进行脱水，当转盘200的另一部分旋转至循环通路内时，湿循环气流可由下至上穿过转盘200，转盘200可充分地吸附湿循环气流中的水分；再生气流和湿循环气流两股气流同时作用在转盘200上，为了保持转盘200旋转的平稳性，可将再生气流和湿循环气流两股气流的流动方向设为相对。通过在转盘上壳体210和转盘下壳体220上设置分隔件和密封件，以实现转盘200在旋转的过程中实现动态密封的效果，尽可能地减小湿循环气流与再生气流互相窜通，因此有利于转盘200在旋转的过程中，不断地进行吸附水分和脱水烘干，从而使转盘200一直具有良好的吸水能力，从而提高了吸湿的效率及效果。
一些实施例中，再生模组还包括再生风机301，再生风机301设置于再生通路上，且再生风机301位于加热构件的上游。再生风机301的设置可为再生气流提供动力，有利于气流的循环和提高效率。
一些实施例中，烘干模组还包括冷凝模组40，冷凝模组40具体地可包括冷凝器401，冷凝器401设置于再生通路上，位于转盘200与再生风机301之间，冷凝器位于转盘200的下游，且冷凝器位于再生风机301的上游，以使再生通路内的湿热的再生气流进入冷凝器401，变成干冷的再生气流进入再生风机301，并以使再生气流形成闭路循环。当转盘200旋转至再生通路时，再生气流对该部分的转盘200进行加热，使该部分的水分快速蒸发脱离，由再生气流带走，此时再生气流变为湿热的再生气流进入冷凝器401；从而使转盘200一直具有良好的吸水能力，进一步提高了转盘200吸湿的效率及效果。示例性实施例中，湿热的再生气流进入冷凝器401进行热交换并降温，再生气流中的水蒸汽经冷却形成冷凝水由冷凝器401排出，干燥的低温再生气流进入再生风机301进行下一次循环。可选的实施例中，湿热的再生气流进入冷凝器401进行热交换并降温，再生气流中的水蒸汽经冷却形成冷凝水由冷凝器401排出，干燥的低温再生气流可通过冷凝器401出风口排放至大气中，以避免对洗烘一体机所处空间的大气温度和湿度造成不良影响；因此再生气流可形成开放循环。
一些实施例中，再生模组还包括再生模组上壳体310，再生模组上壳体310具有加热构件容纳腔；加热构件安装于加热构件容纳腔内，加热构件位于转盘的上游，且加热构件容纳腔与转盘连通；加热构件用于对再生气流进行加热，以对转盘200吸附的水分进行至少部分蒸发。具体地，再生模组上壳体310可包括：顶壁和突出于顶壁四周的侧壁以形成加热构件容纳腔，以及沿侧壁向外侧突出设置的底座，底座上可设有安装孔，通过安装孔可与转盘上壳体210连接固定。
一些实施例中，为了使送入的再生气流更均匀地受热，并对转盘200进行更均匀地脱水烘干，优选的方案为加热构件包括层叠设置的均风件和加热器，加热器位于均风件和转盘200之间；再生气流进入加热构件容纳腔内，依次经由均风件、加热器和转盘200。
一些实施例中，再生模组上壳体310呈扇形体结构；再生模组上壳体310的外弧侧面设有加热器进风口311；均风件与再生模组上壳体310的顶壁具有间隙，以形成第三气流通道；转盘200的底面与转盘下壳体220的再生区内壁之间具有间隙，以形成第四气流通道；第三气流通道与加热器进风口311连通，以使再生气流经由加热器进风口进入第三气流通道，经过均风件、加热器和由上至下穿过转盘到达第四气流通道，变成湿热的再生气流。再生气流经由加热器进风口311进入第三气流通道，均风件可使再生气流更均匀地与加热器接触，受热均匀的再生气流对再生区内的转盘200部分进行脱水烘干。
冷凝模组40具体地还可包括冷凝模组上壳体410和冷凝模组下壳体420，冷凝模组上壳体410和冷凝模组下壳体420配合连接可形成冷凝器容纳腔，冷凝器401安装于冷凝器容纳腔内。图4中所示的箭头为再生气流的流向，再生气流由上至下穿过转盘到达第四气流通道，变成湿热的再生气流后流入冷凝模组下壳体420，进入冷凝器401进行热交换并降温。
一些实施例中，烘干模组还包括第一连接件3013，其两端分别与冷凝器和再生风机连通，以使再生气流经由冷凝器401进入所述再生风机301；第二连接件3014，其两端分别与所述再生风机和加热器进风口连通，以使再生气流经由所述再生风机进入第三气流通道。由于冷凝器401与再生风机301的距离很近，可以采用如图5-图6所示的硬管接头，不仅可以对再生风机301起到支撑的作用，而且可以使得烘干模组的整体结构紧凑，占用空间小；当然，第一连接件3013也可以是柔性件，可以方便地对接至冷凝器和再生风机进风口这两处硬质结构上。
一些实施例中，再生模组还可包括再生风机安装部320，再生风机安装部320具体地可包括再生风机上壳体321和再生风机下壳体322，再生风机上壳体321和再生风机下壳体322构成再生风机容纳腔。再生风机下壳体322与第一连接件3013通过法兰连接固定，可以对再生风机301支撑牢靠；也可以通过柔性第一连接件3013连接，第一连接件3013一端可通过变形置入再生风机下壳体322的开口中，由于其是柔性的，也能够助于形成良好 的密封。
一些实施例中，所述第一连接件3013包括第一进风口和第一出风口，所述第一进风口与冷凝器出风口适配且连通，所述第一出风口与再生风机进风口适配且连通；所述第一进风口为大致矩形开口，所述第一出风口为大致圆形开口，所述第一进风口所在的平面与所述第一出风口所在的平面大致垂直设置，以调整再生气流的流动方向。第一连接件3013的第一进风口端面设有矩形的连接法兰或者为柔性边界以致其变形置入冷凝器出风口，与冷凝模组上壳体410和冷凝模组下壳体420连接固定，第一连接件3013的壳体结构为异形，第一连接件3013内的风道由第一进风口处的横截面为矩形向第一出风口处的横截面为圆形逐渐过渡，保证了第一连接件3013可以导风通畅。
一些实施例中，所述第二连接件3014包括第二进风口和第二出风口，所述第二进风口与所述再生风机出风口适配且连通，所述第二出风口与加热器进风口适配且连通；所述第二进风口为大致矩形开口，第二出风口为弧形开口，所述第二进风口所在的平面与所述第二出风口所在的平面大致平行设置，且第二出风口的面积大于所述第二进风口。第二连接件3014内的风道由第二进风口向第二出风口处逐渐扩张，从而进一步地将气流的动压能转化为静压能，提高了动压能的转化能力，提高了风机的工作性能，尽可能地避免形成紊流。
一些实施例中，所述再生构件为超声波构件。超声波构件可包括超声波发生器，超声波发生器工作时产生超声波能量，以使转盘200发生高频率振动，不断破坏转盘200外表面的水膜和气膜，以达到增强转盘200与再生气流的热质交换系数，通过热质交换由再生气流带走转盘200所吸附的水分，提高在较低温度情况下转盘200的再生效率。
一些实施例中，烘干模组还包括：转盘上壳体210，转盘上壳体210上形成有大致扇形的再生模组容纳部；再生模组30安装于再生模组容纳部，再生模组30位于转盘200的上方，再生模组例如用于对再生气流进行加热，以对转盘200吸附的水分进行脱附；其中，再生模组的内侧具有气流空间，以形成第三气流通道；部分转盘200的底面与转盘下壳体220的再生区内壁之间具有间隙，以形成第四气流通道。再生模组可包括加热器，用于对再生气流进行加热，加热后的再生气流经由第三气流通道由上至下穿过转盘200到达第四气流通道，对再生区内的转盘200部分进行脱水，转盘200在旋转的过程中，经过除湿区和再生区，是不断地进行吸附水分和脱附水分的循环过程。
示例性实施例中，转盘下壳体220可设有第一转盘容纳区，转盘下壳体220可包括底板和突出于底板的环周侧壁，形成的凹陷部为第一转盘容纳区。同理，转盘上壳体210可设有第二转盘容纳区，第二转盘容纳区至少包括了除湿区，但并不包括再生区，第二转盘容纳区的径向边缘设置有再生模组容纳部。第二转盘容纳区和部分第一转盘容纳区至少共同形成除湿区，再生模组容纳部和另外部分第一转盘容纳区共同形成再生区。由于转盘容纳腔内有气流通过，所以转盘上壳体210与转盘下壳体220之间可设为密封连接。例如是转盘上壳体210或转盘下壳体220上分别设有凹槽或凸缘，凹槽内设置密封条，转盘上壳体210与转盘下壳体220扣合连接时凸缘顶住凹槽内的密封条以实现密封。
一些实施例中，烘干模组还包括：转盘下壳体220，转盘下壳体220设有第一转盘容纳区，第一转盘容纳区内设有第一分隔件221，以将第一转盘容纳区分隔为除湿区和再生区；循环风机的出风口与除湿区连通。转盘200的底面与转盘下壳体的除湿区内底壁之间具有间隙，可形成第二气流通道；转盘200工作时位于除湿区的部分，可将进入第二气流通道内的湿循环气流中的水分吸附；转盘200在旋转的过程中，已在除湿区吸附水分的部分旋转至再生区时，进行脱水再生。
本申请实施例提供了一种再生模组30，如图7-图9所示，包括：再生模组上壳体310，再生模组上壳体具有加热构件容纳腔；加热构件，其安装于加热构件容纳腔内，加热构件位于转盘的上方，且加热构件容纳腔与转盘连通；加热构件用于对再生气流进行加热，以对转盘吸附的水分进行脱附。一些实施例中，转盘构件可包括转盘200和驱动组件，驱动组件可以包括电机，电机可驱动转盘200旋转。转盘200可选用吸湿性能好的材料制作， 例如可以是沸石、氯化锂、硅胶、改性硅胶或13X(钠X型)分子筛等。滚筒内排出的湿循环气流进入转盘容纳腔的底部，在除湿区的湿循环气流由下至上穿过转盘200，转盘200吸附湿循环气流中的水分，使湿循环气流可变为干燥循环气流，干燥循环气流通过滚筒进气口进入滚筒内，与衣物充分接触，提高烘干效率，降低能耗；再生构件可包括加热器，用于对再生气流进行加热，加热后的再生气流经加热构件容纳腔并由上至下穿过转盘200，以对再生区内的转盘200部分进行脱水烘干，转盘200在旋转的过程中，循环经过除湿区和再生区，是不断地进行吸附水分和脱附水分的过程；这样可持续得到干燥循环气流进入滚筒内，与衣物充分接触，提高烘干效率，降低能耗。
具体地，再生模组上壳体310可包括：第一顶壁312和突出于第一顶壁312四周的第三侧壁313以形成加热构件容纳腔，以及沿第三侧壁313向外侧突出设置的底座314，底座314上可设有安装孔，通过安装孔可与转盘上壳体210连接固定。
一些实施例中，为了使送入的再生气流更均匀地受热，并对转盘200进行更均匀地脱水烘干，优选的方案为加热构件包括层叠设置的均风件和加热器，加热器位于均风件和转盘200之间；再生气流进入加热构件容纳腔内，依次经由均风件、加热器和转盘200。
一些实施例中，再生模组上壳体310呈扇形体结构；再生模组上壳体310的外弧侧面设有加热器进风口311。本申请实施例中，优选的方案为再生模组上壳体310呈扇形体结构；再生模组上壳体310也可以为不规则的结构，在此处不做过多限定；再生模组上壳体310，其与转盘上壳体210配合连接，使得除湿区和再生区分隔开，即除湿区内的湿循环气流与再生区内的再生气流能保持很大程度上的隔离。
一些实施例中，均风件与再生模组上壳体310的顶壁具有间隙，以形成第三气流通道；第三气流通道与加热器进风口311连通。转盘200的底面与转盘下壳体220的再生区内壁之间具有间隙，以形成第四气流通道。再生气流经由加热器进风口311进入第三气流通道，均风件可使再生气流更均匀地与加热器接触，受热均匀的再生气流对再生区内的转盘200部分上的水分进行脱附。
一些实施例中，均风件包括均风板330和突出于均风板330四周的侧板，均风板330和侧板围合成加热器容纳区，加热器设于加热器容纳区内；均风板330呈扇形，均风板330上设有间隔分布的风孔331。通过风孔的设置可使再生气流更均匀地进入到下方的加热器。
一些实施例中，加热器包括多根首尾连接的加热管340，加热管340沿扇形的半径方向间隔分布；加热管340的长度大致垂直于扇形的半径方向设置。加热管340呈S形分布，可使加热管340在加热器容纳区的长度分布更长，以增加与再生气流接触面积，从而与再生气流热交换的效率更高。
一些实施例中，风孔成排设置，每排风孔的设置位置与加热管340的位置大致相对应；风孔的直径沿扇形的半径方向从外弧向圆心有减小的趋势。加热器进风口311位于再生模组上壳体310的外弧侧面，风孔的直径设置在靠近加热器进风口311处相对大些，远离加热器进风口311处的风孔的直径要相对小些。
一些实施例中，加热管340位于风孔的下方；且加热管340的轴线与相对应每排风孔的中心线设置为偏移，每排风孔的中心线比加热管340的轴线更靠近于加热器进风口311。加热管340位于风孔的下方，加热管340临近均风板330，或者说临近均风板330，以不会对再生气流穿过风孔形成较大的阻力；可用管夹将加热管340固定于均风板330上，加热管340与均风板330之间可设有一定的间隙，以使再生气流通过。当再生气流从加热器进风口311吹入，沿扇形的半径方向向里吹，会有沿再生气流流动方向的速度，因此将每排风孔的中心线设置一点点的偏移量，可以让穿过风孔的再生气流能正对着加热管340，以实现再生气流与加热管340的更高热交换效率。
一些实施例中，再生模组上壳体310呈扇形体结构；再生模组上壳体310侧壁设有加热器进风口311，侧壁设为沿扇形的径向布置；其中，再生气流进入加热构件容纳腔的方向与转盘200的旋转方向相对设置。即再生气流沿着或逆着转盘的旋转方向，从扇形体再生 模组的大致垂直于半径的方向吹入到加热器容纳空间，能够使得气流能更均匀地被加热器升温。
一些实施例中，加热器包括多根首尾连接的加热管340，加热管340沿扇形的径向间隔分布；加热管340的长度平行于与加热器进风口311相对的侧壁设置。当然加热管340也可以布置为大致沿加热膜组的径向方向，此时采用垂直于半径方向的进风风向，以期达到更好的均匀气流和加热的作用。
一些实施例中，再生模组还包括：导热件350，其安装于第二空间内，第二空间与加热器容纳区连通；温度检测模块，其用于检测所述加热器容纳区的温度；所述温度检测模块安装于第三空间内，第三空间为导热件350所包覆形成的空间，第三空间与第二空间通过导热件350物理隔离。再生气流在加热器容纳区内经加热器加热变成高温再生气流，由于第二空间与加热器容纳区连通，高温再生气流在第二空间扩散，因此检测第二空间的温度即可以知晓加热器容纳区内温度。温度检测模块安装于第三空间内，导热件350包覆温度检测模块，导热件350将接收到的第二空间的热量传递给第三空间内空气，温度检测模块检测第三空间内的空气温度，进而测得与第二空间连通的加热器容纳区内的再生气流的温度。导热件350可选用易传导热的金属材料制作，例如可以是铜或铝等；导热件350在第二空间内，接收高温再生气流的热量并传导至第三空间的温度检测模块，能够匀化热量的传导，使温度检测模块检测到的温度趋于稳定，从而可提高检测结果的准确性；这样可避免温度检测模块直接检测加热器容纳区内的再生气流，加热器容纳区内的再生气流可能存在紊流或/乱流情况，致使检测结果频繁跳动。
底座314向背离加热器容纳区的外侧延伸；底座314的至少一部分的底面设有凹槽，凹槽形成第二空间。导热件350安装于凹槽内，并且导热件350包覆温度检测模块。底座314包括第一侧边，第一侧边沿扇形的径向延伸，所述凹槽位于第一侧边。当然为了检测更准确，可以在于第一侧边相对的第二侧边设置同样的凹槽，并在其中布置温度检测模块。凹槽位于第一侧边，凹槽与加热器容纳区连通，加热后的高温再生气流扩散到凹槽，导热件350受热，传导给温度检测模块，以避免温度检测模块受到加热器容纳区内流通的再生气流直吹，减小紊流/乱流引起检测结果的跳动。
再生模组上壳体310设有安装座318，所述安装座318与第一侧边连接固定，且所述安装座318位于第一侧边背离所述凹槽的另一侧面；所述安装座318上设有贯穿的安装孔、形成具有一面开口的大致六面体形状，温度检测模块设置于安装孔内部，导热件350包覆安装孔座318的开口面所形成的空间为第三空间；安装孔与所述温度检测模块适配。具体地，温度检测模块安装于安装孔内，并由导热件350包覆，使温度检测模块与第二空间隔绝，以避免再生气流的泄漏。安装座318上可设置固定件，固定件可用于固定与温度检测模块连接的电缆。
进一步地，所述导热件350与所述温度检测模块的触点接触。加热器容纳区内流通的再生气流可能存在紊流/乱流的情况，局部范围内再生气流温度不稳定，可选地，在导热件350朝向第二空间的一面设置突棱结构，增大与高温再生气流接触面积和延长传导路径，使传导至温度检测模块的温度趋于稳定的均值。导热件350可设为导热片，易于成型，以包覆使温度检测模块。例如可以在导热件350朝向第二空间的一面设有突出部，相对应的另一面则具有凹陷部，温度检测模块可嵌入凹陷部，温度检测模块的触点接触凹陷部，这样通过突出部增大了导热件350与再生气流的接触面积。
一些实施例中，所述导热件350的表面具有耐热防腐镀层，以提高导热件350的使用寿命，可避免导热件350在高温潮湿的环境中生锈。
下面结合再生气流的流向对本申请实施例提供的再生模组进行详细的阐述。
如图1-图7所示，烘干模组包括：循环模组10和除湿模组20。循环模组10，其具有第一循环通路，第一循环通路与滚筒出气口连通，以使滚筒内的湿循环气流进入第一循环通路；除湿模组20，其位于循环模组10的下游，除湿模组20具有第二循环通路，第二循 环通路与滚筒进气口连通；滚筒出气口、第一循环通路、第二循环通路和滚筒进气口依次连通，以形成循环通路；除湿模组20包括转盘构件，至少部分转盘构件设置于第二循环通路上，转盘构件用于吸附来自于滚筒内的湿循环气流中的水分；其中，滚筒内的湿循环气流依次经由第一循环通路和第二循环通路，变成干燥循环气流。循环模组10可包括循环风机，循环风机的设置可为湿循环气流提供动力，有利于气流的循环，循环风机的进风口与滚筒出气口连通，循环风机的出风口与第二循环通路连通，转盘构件设置于第二循环通路上，转盘构件可先吸附来自于滚筒内的湿循环气流中的水分，使湿循环气流变为相对干燥的循环气流，干燥循环气流通过滚筒进气口进入滚筒内，与衣物充分接触，提高烘干效率，降低能耗。
本申请的第二方面提供了一种烘干模组，包括：除湿模组，其具有第二循环通路，第二循环通路与滚筒出气口连通，以使滚筒内的湿循环气流进入第二循环通路；除湿模组包括转盘构件，至少部分转盘构件设置于第二循环通路上，转盘构件用于吸附来自于滚筒内的湿循环气流中的水分；循环模组，其位于除湿模组的下游，循环模组具有第一循环通路，第一循环通路与滚筒进气口连通，以使滚筒内的湿循环气流依次经由第二循环通路和第一循环通路，变成干燥循环气流进入滚筒内进行下一次循环；滚筒出气口、第二循环通路、第一循环通路和滚筒进气口依次连通，以形成循环通路。
可以理解的是，以上实施例中的循环模组10和除湿模组20可以调换位置，即滚筒内的湿循环气流先经过滚筒出气通道进入到除湿模组20，然后再经由循环模组10而通过滚筒进气通道进入滚筒内。由此各部件的进气口、出气口的连接关系可进行适应性调整。
本申请的第三方面提供了一种洗烘一体机，包括所述的烘干模组。
洗烘一体机，还包括滚筒，其设有滚筒进气口和滚筒出气口，滚筒进气口和滚筒出气口可分别设置于滚筒旋转轴的两端，以使得进入滚筒的干燥高温气流能够充分与滚筒内的衣物进行热交换；滚筒进气口位于前部或后部，滚筒出气口位于后部或前部；滚筒进气口和滚筒出气口分别连通滚筒外筒与内筒之间的空间。例如滚筒进气口和滚筒出气口分别位于滚筒旋转轴的两端，以使得气流能与滚筒内衣物充分接触，提高烘干效率。
当然滚筒进气口和出气口的具体位置本公开不做具体限定，也可同时位于滚筒同一端，或交错设置在滚筒上。
一些实施例中，烘干模组具体地可包括：壳体，其设有转盘构件容纳腔；转盘构件，其安装于转盘构件容纳腔内；转盘构件包括转盘200，所述转盘200的至少部分用于吸附湿循环气流中的水分；转盘200的两个侧面分别与壳体的第一内壁和第二内壁之间均具有间隙，以形成气流通道；其中，第一内壁和第二内壁相对设置，且第一内壁或第二内壁和转盘200的两个侧面大致平行；至少一个分流件222，其至少环绕设于第一内壁或第二内壁之一上，分流件222用于对流入气流通道的气流进行分流。一些实施例中，转盘构件可包括转盘200和驱动组件，驱动组件可以包括电机，电机可驱动转盘200旋转。转盘200可选用吸湿性能好的材料制作，例如可以是沸石、氯化锂、硅胶、改性硅胶或13X(钠X型)分子筛等。流入转盘200一侧的气流通道的湿循环气流穿过转盘200到达另一侧的气流通道，转盘200吸附湿循环气流中的水分，使湿循环气流可变为干燥循环气流；由于循环风机出风口与转盘构件容纳腔的连通是大致沿转盘切向方向，而循环气流具有一定的流速，且湿循环气流由于含湿量较高，因而在离心力的作用下会向远离转盘旋转中心逃逸，气流通常形成于转盘200较大的直径处，靠近转盘旋转中心的区域气流小，从而使得转盘200的主要吸湿部位在较大直径处，影响吸湿效率及转盘吸湿利用率。针对此，设置分流件222环绕设于壳体的底壁上，可对流入气流通道的湿循环气流进行分流，一部分进入靠近圆心的区域，另一部分则进入靠近转盘200外周的区域，使得流入气流通道的湿循环气流更分散和更均匀，气流与转盘200可以更大面积地接触，可提高转盘200的吸湿效率。
一些实施例中，壳体包括：转盘下壳体220，其设有第一转盘容纳区；转盘上壳体210，其设有第二转盘容纳区，转盘上壳体与转盘下壳体配合连接，以使第一转盘容纳区和第二 转盘容纳区形成所述转盘构件容纳腔；转盘200的顶面与转盘上壳体210的部分内顶壁之间具有间隙，以形成第一气流通道；转盘200的底面与转盘下壳体的部分底壁之间具有间隙，以形成第二气流通道；第二气流通道与滚筒出气口连通，第一气流通道与滚筒进气口连通，以使滚筒内的湿循环气流经由第二气流通道并穿过转盘200到达第一气流通道；示例性地，所述分流件222环绕设于转盘下壳体220的底壁上，以对流入第二气流通道的气流进行分流。例如，滚筒内排出的湿循环气流进入转盘构件容纳腔的底部，即在第二气流通道内扩散，当分流件222环绕设于转盘下壳体的内底壁时，可对流入的湿循环气流先进行分流，一部分进入靠近圆心的区域，另一部分则进入靠近转盘200外周的区域，使得流入气流通道的湿循环气流更分散和更均匀，湿循环气流再由下至上穿过转盘200，转盘200吸附湿循环气流中的水分，使湿循环气流变为干燥循环气流，可提高转盘200的吸湿效率，干燥循环气流从第一气流通道流向滚筒进气口进入滚筒内，与衣物充分接触，提高烘干效率，降低能耗。
一些实施例中，所述至少一个分流件222设于第一转盘容纳区的除湿区内，以将除湿区分隔为至少第一分流区和第二分流区；所述转盘下壳体220的侧壁上设有第二进风口223，所述分流件222的一端抵接第二进风口223，以将第二进风口223至少分隔为第一子口和第二子口，第一子口和第一分流区连通，第二子口和第二分流区连通，等等。分流件222将第二进风口223分隔为第一子口和第二子口，这样通过分流件222在第二进风口223对湿循环气流进行分流，并进入靠近圆心和外周的两个分流区，即第一分流区和第二分流区，这样对湿循环气流进行了合理地分流，使得流入第一气流通道的湿循环气流更分散和更均匀，气流与转盘200可以更大面积地接触，可提高转盘200的吸湿效率。可理解的，对于第一转盘容纳区的除湿区，可以设置多于两个的分流件222，它们可以平行设置，从而将除湿区分隔为多个分流区。
本申请实施例提供了一种循环模组10，如图8-图10所示，具体地可包括：循环模组壳体、叶轮110和循环电机120。循环模组壳体上设有第一进风口102和第一出风口103；叶轮110，叶轮110设置于循环模组壳体内，叶轮110旋转轴线与第一进风口102轴线平行，叶轮110旋转轴线与第一出风口103轴线大致垂直；循环电机120，循环电机120与循环模组壳体连接固定，循环电机120的输出轴与叶轮110连接固定。叶轮110的旋转轴线与第一进风口相对应，即叶轮110的旋转轴线可以穿过第一进风口102，从而使得叶轮110能够正对第一进风口102处的气流进行驱动，使得气流流进循环模组壳体内，不需要提高叶轮110的转速就可以将气流快速地抽进循环模组壳体内；叶轮110由循环电机120驱动旋转时，形成围绕叶轮110外周的离心力，叶轮110内的气流随离心力方向流动，此时气流从叶轮110四周散开，由此改变了气流的流动方向；并且在叶轮110的旋转轴线以及附近形成负压，可加大吸入第一进风口102处的气流。因此，通过将循环动力设计为循环电机120控制叶轮110旋转形成负压的送风方式，有效避免大风力直接与其他部件冲撞而造成的相关损失。传统风机在气流改变流动方向是通常会带来较高损耗，而本申请实施例提供的循环模组为气流改变流动方向提供了动力，使得在进行循环模组布局时，带来更多的灵活性。
可选实施例中，所述循环模组壳体包括：循环模组下壳体112，其设有凹陷的第一叶轮容纳区；循环模组上壳体111，其设有凹陷的第二叶轮容纳区；循环模组下壳体112与循环模组上壳体111配合连接，以使第一叶轮容纳区和第二叶轮容纳区形成叶轮容纳腔。叶轮110位于叶轮容纳腔内，叶轮容纳腔可设为大于叶轮110外径的圆形，叶轮容纳腔的轴线平行于叶轮110的旋转轴线，这样经叶轮110旋转输出的气流可经循环模组下壳体112和循环模组上壳体111的内侧壁导向流出。
可选实施例中，循环模组下壳体112包括：第一底板1122和第一侧壁1121，第一侧壁突出于第一底板且沿第一底板1122的周向设置，以形成所述第一叶轮容纳区；第一侧壁1121的顶部设置有第一凹槽，所述第一凹槽内设置密封垫圈113；循环模组上壳体111包括：第一顶板1112和第二侧壁1111，第二侧壁突出于第一顶板且沿第一顶板1112的周向设置， 以形成所述第二叶轮容纳区；第二侧壁1111的顶部设置有第一凸起，第一凸起与第一凹槽配合；所述循环模组下壳体112和所述循环模组上壳体111连接时，所述第一凸起抵紧所述密封垫圈113。循环模组下壳体112可由底板向上弯折制备得到，同理，循环模组上壳体111可由顶板向下弯折制备得到；循环模组下壳体112和循环模组上壳体111在组装时，第一凸起对第一凹槽内的密封垫圈113进行挤压，使密封垫圈113变形，以实现循环模组下壳体112和循环模组上壳体111之间优异的密封效果。
可选实施例中，所述叶轮110包括：叶轮主体1101和与叶轮主体1101沿轴向相对设置的固定环1103；所述叶轮主体1101向固定环1103的方向延伸，且设置有用于容纳循环电机的容纳腔，循环电机120的一端设置在所述容纳腔中，且循环电机120的输出轴与所述叶轮主体1101的底部连接固定；以及，叶片1102，所述叶片1102的两端分别与所述叶轮主体1101和固定环1103固定连接，所述叶片1102环绕所述叶轮主体1101间隔设置，且所述叶片1102沿所述叶轮的旋转方向向前倾斜设置。叶轮主体1101可包括顶部的盖板，叶片1102沿长度方向的一端与盖板固定连接，可使得从叶轮底部吸入的气流经盖板阻挡，由叶轮的径向输出；叶轮主体1101向叶片1102方向延伸，叶轮主体1101内设有凹陷的容纳腔，循环电机120的一端嵌入容纳腔中，使得循环风机的整体轴向上的长度减小，降低了循环风机的整机长度。叶片1102沿所述叶轮的旋转方向向前倾斜设置，可提高叶轮的出风效率，有利于提升风机的降噪效果，提高风机的能效。
可选实施例中，第一顶板1112的顶部设有贯穿的安装孔1114和定位凸块，安装孔1114与循环电机适配；定位凸块沿安装孔1114的周向间隔设置，定位凸块插入循环电机的安装耳座，以使循环电机固定于第一顶板1112上。安装耳座可设置于循环电机的外壳上，且安装耳座设于循环电机的外壳背离输出轴的一端，安装耳座上可设有与定位凸块适配的定位孔，定位孔可设为不贯穿，安装耳座上设有螺栓孔，螺栓孔与定位孔贯通，定位凸块上可设有螺纹孔，螺纹孔与螺栓孔同轴线设置且适配，定位凸块插入定位孔内，螺栓穿过螺栓孔旋入螺纹孔内，以使循环电机固定于第一顶板1112上，且循环电机嵌入安装孔1114内并向下伸出；这样循环电机的安装部位于循环模组上壳体111的外部，方便循环电机的安装和拆卸。
可选实施例中，所述循环模组壳体为蜗壳形；所述循环模组壳体具有收缩部，收缩部沿垂直于叶轮110旋转轴线的方向延伸；第一出风口通过收缩部与叶轮容纳腔连通。循环模组壳体为蜗壳形，蜗壳造型独特，气流经叶轮110后改变流动方向由收缩部输出，可避免气流一直在叶轮容纳腔内循环流动，符合流体设计要求，为气流流动提供最大限度风量和风速。
示例性实施例中，第一进风口102位于第一底板1122上，且第一进风口102与安装孔1114共轴设置；收缩部具有出风腔，第一进风口102、叶轮容纳腔、出风腔与第一出风口依次连通，且叶轮容纳腔、出风腔与第一出风口位于同一水平面上。收缩部具有出风腔，气流经叶轮110后改变流动方向，经出风腔流向第一出风口，出风腔大致垂直于叶轮110的旋转轴线，且叶轮容纳腔、出风腔与第一出风口大致位于同一水平面上，从而使得循环模组壳体的高度方向的尺寸减小，减小了循环模组整体的占用空间、也减小了使用循环模组的洗烘一体机的整机高度和体积。
可选实施例中，循环模组10还包括：循环风接口件，其与收缩部连接；或者，循环风接口件与所述循环模组壳体设为一体；循环风接口件背离收缩部的一侧设为弧形，且循环风接口件向背离收缩部的一侧逐渐扩大，循环风接口件内具有扩张风道，扩张风道的两端分别与出风腔和第一出风口连通。循环风接口件可设为分开的两个上下壳体，分别与循环模组上壳体111和循环模组下壳体112连接；扩张风道的截面积向背离收缩部的一侧逐渐增大，当气流经叶轮110后进入出风腔和扩张风道，从而进一步地将气流的动压能转化为静压能，提高了动压能的转化能力，提高了风机的工作性能。
可选实施例中，第一侧壁1121上设有下壳体连接件1123，所述下壳体连接件1123沿 第一侧壁1121的外周间隔设置，且突出于第一侧壁1121；第二侧壁1111上设有上壳体连接件1113，上壳体连接件1113的设置位置与所述下壳体连接件1123一一对应，上壳体连接件1113与所述下壳体连接件1123连接，以使循环模组下壳体112和循环模组上壳体111的位置相对固定。上壳体连接件1113与所述下壳体连接件1123上均可设置相适配的螺栓通孔，螺栓通孔内插入螺栓，即可实现循环模组下壳体112和循环模组上壳体111之间的可拆卸连接。
可选实施例中，循环模组壳体上设置有固定卡1115，固定卡1115用于固定线路或管路，可使得循环电机的电线、或者整机上的水、气管路等线路和管路能够得到较好的布置。
可选实施例中，循环模组还包括过渡件130，过渡件设于循环模组下壳体112上，且过渡件130与第一叶轮容纳区适配；过渡件与第一底板1122连接固定；过渡件设有贯穿的通孔，通孔与第一叶轮容纳区连通；过渡件背离第一叶轮容纳区的一侧与波纹软管50连接，波纹软管50通过过渡件130与下壳体的进风口对接。过渡件上可设有第一过渡孔和第二过渡孔，第一过渡孔和第二过渡孔均沿通孔的周向间隔均匀地分布，第一进风口102的直径小于第一过渡孔的分布直径，波纹软管50的端部可设有相对应的螺纹孔，螺栓穿过第一过渡孔拧入螺纹孔内，以使波纹软管50固定于过渡件130上；第二过渡孔的分布直径大于第一进风口102的直径，第一底板1122上设有与第二过渡孔相对应的螺纹孔，螺栓穿过第二过渡孔拧入螺纹孔内，以使过渡件130固定于第一底板1122上。过渡件的一侧可设有定位套，定位套可插入波纹软管50。安装波纹软管50时，可先将波纹软管50固定于过渡件130上，再将过渡件130固定于第一底板1122上，方便波纹软管50的安装与拆卸。
本申请的第一方面提供了一种烘干模组，如图1-图7所示，包括：壳体，其设有转盘构件容纳腔；转盘构件，其安装于转盘构件容纳腔内；转盘构件包括转盘200，所述转盘200的至少部分用于吸附湿循环气流中的水分；转盘200的两个侧面分别与壳体的第一内壁和第二内壁之间均具有间隙，以形成气流通道；其中，第一内壁和第二内壁相对设置，且第一内壁或第二内壁和转盘200的两个侧面大致平行；至少一个分流件222，其至少环绕设于第一内壁或第二内壁之一上，分流件222用于对流入气流通道的气流进行分流。一些实施例中，转盘构件可包括转盘200和驱动组件，驱动组件可以包括电机，电机可驱动转盘200旋转。转盘200可选用吸湿性能好的材料制作，例如可以是沸石、氯化锂、硅胶、改性硅胶或13X(钠X型)分子筛等。流入转盘200一侧的气流通道的湿循环气流穿过转盘200到达另一侧的气流通道，转盘200吸附湿循环气流中的水分，使湿循环气流可变为干燥循环气流；由于循环风机出风口与转盘构件容纳腔的连通是大致沿转盘切向方向，而循环气流具有一定的流速，且湿循环气流由于含湿量较高，因而在离心力的作用下会向远离转盘旋转中心逃逸，气流通常形成于转盘200较大的直径处，靠近转盘旋转中心的区域气流小，从而使得转盘200的主要吸湿部位在较大直径处，影响吸湿效率及转盘吸湿利用率。针对此，设置分流件222环绕设于壳体的底壁上，可对流入气流通道的湿循环气流进行分流，一部分进入靠近圆心的区域，另一部分则进入靠近转盘200外周的区域，使得流入气流通道的湿循环气流更分散和更均匀，气流与转盘200可以更大面积地接触，可提高转盘200的吸湿效率。
一些实施例中，壳体包括：转盘下壳体220，其设有第一转盘容纳区；转盘上壳体210，其设有第二转盘容纳区，转盘上壳体与转盘下壳体配合连接，以使第一转盘容纳区和第二转盘容纳区形成所述转盘构件容纳腔；转盘200的顶面与转盘上壳体210的部分内顶壁之间具有间隙，以形成第一气流通道；转盘200的底面与转盘下壳体的部分底壁之间具有间隙，以形成第二气流通道；第二气流通道与滚筒出气口连通，第一气流通道与滚筒进气口连通，以使滚筒内的湿循环气流经由第二气流通道并穿过转盘200到达第一气流通道；示例性地，所述分流件222环绕设于转盘下壳体220的底壁上，以对流入第二气流通道的气流进行分流。例如，滚筒内排出的湿循环气流进入转盘构件容纳腔的底部，即在第二气流通道内扩散，当分流件222环绕设于转盘下壳体的内底壁时，可对流入的湿循环气流先进 行分流，一部分进入靠近圆心的区域，另一部分则进入靠近转盘200外周的区域，使得流入气流通道的湿循环气流更分散和更均匀，湿循环气流再由下至上穿过转盘200，转盘200吸附湿循环气流中的水分，使湿循环气流变为干燥循环气流，可提高转盘200的吸湿效率，干燥循环气流从第一气流通道流向滚筒进气口进入滚筒内，与衣物充分接触，提高烘干效率，降低能耗。
可以理解的是，本公开并不具体限定转盘的入风口的具体位置，只要能够实现气流从转盘壳体进入，穿过转盘然后从转盘壳体流出即可。由此可知，气流也可以从转盘与上壳之间的第一气流空间流入、然后穿过转盘后从转盘与下壳之间的第二气流空间流出。而且循环风机可以位于转盘上游、也可位于转盘下游，可依据实际情况进行设计实施。分流件222则对应于转盘气流入口所在的位置进行设置，例如可以设置与下壳体的内壁，当然也可以设置于上壳体的内壁。
一些实施例中，所述第一转盘容纳区内设有第一分隔件221，以至少将第一转盘容纳区分隔为除湿区和再生区。转盘200的底面与转盘下壳体的除湿区内底壁之间具有间隙，可形成第二气流通道；转盘200的一部分位于除湿区上方，可将进入第二气流通道内的湿循环气流中的水分吸附；转盘200在旋转的过程中，已经吸附水分的部分转盘旋转至再生区时，进行水分脱附，然后已经脱附水分的部分转盘继续旋转至除湿区进行水分吸附，如此往复。
示例性实施例中，转盘下壳体220可设有第一转盘容纳区，转盘下壳体220可包括底板和突出于底板的环周侧壁，形成的凹陷部为第一转盘容纳区。同理，转盘上壳体210可设有第二转盘容纳区，第二转盘容纳区至少包括了除湿区，但并不包括再生区，第二转盘容纳区的径向边缘设置有再生模组安装部。第二转盘容纳区和部分第一转盘容纳区至少共同形成除湿区，再生模组安装部和另外部分第一转盘容纳区共同形成再生区。由于转盘容纳腔内有气流通过，所以转盘上壳体210与转盘下壳体220之间可设为密封连接。例如是转盘上壳体210或转盘下壳体220上分别设有凹槽或凸缘，凹槽内设置密封条，转盘上壳体210与转盘下壳体220扣合连接时以实现密封。
一些实施例中，所述至少一个分流件222设于第一转盘容纳区的除湿区内，以将除湿区分隔为至少第一分流区和第二分流区；所述转盘下壳体220的侧壁上设有第二进风口223，所述分流件222的一端抵接第二进风口223，以将第二进风口223至少分隔为第一子口和第二子口，第一子口和第一分流区连通，第二子口和第二分流区连通，等等。分流件222将第二进风口223分隔为第一子口和第二子口，这样通过分流件222在第二进风口223对湿循环气流进行分流，并进入靠近圆心和外周的两个分流区，即第一分流区和第二分流区，这样对湿循环气流进行了合理地分流，使得流入第一气流通道的湿循环气流更分散和更均匀，气流与转盘200可以更大面积地接触，可提高转盘200的吸湿效率。可理解的，对于第一转盘容纳区的除湿区，可以设置多于两个的分流件222，它们可以平行设置，从而将除湿区分隔为多个分流区。
一些实施例中，所述第一分隔件221设为沿转盘下壳体220的径向设置，且在第一转盘容纳区的中心位置形成转盘安装区，大致径向设置的第一分隔件221使除湿区和再生区均为大致扇形；其中，除湿区的面积可设为再生区的面积2-3倍。除湿区的面积可设为大于再生区的面积，这样转盘200的大部分均处于除湿区，从而进一步提高转盘200的吸湿效率及吸湿效果。为了防止滚筒内排出的湿循环气流与再生气流互相窜通，第一分隔件221与转盘200之间可形成一定动态密封的效果。当转盘200旋转至再生区时，再生气流对该部分的转盘200进行加热，使该部分的水分快速蒸发脱离，由再生气流带走进入冷凝器；从而使转盘200一直具有良好的吸水能力，从而提高了吸湿的效率及效果。
一些实施例中，烘干模组还包括：出风通道203，其位于第二出风口处，所述出风通道203突出于转盘上壳体210的侧壁的外侧；进筒风道52，其一端与出风通道连通，另一端与滚筒进气口连通；辅助加热器包括加热管或加热丝；辅助加热器设置于进筒风道内。进 筒风道52与出风通道203之间可设有密封圈，进筒风道52与出风通道203的端部设有相适配的一对连接法兰，通过螺栓连接将进筒风道52与出风通道203连接固定，中间的密封圈被压紧变形，以实现密封效果。辅助加热器可包括加热管或加热丝，将加热管或加热丝沿进筒风道52的内壁设置，加热管或加热丝与进筒风道52的内壁之间可设置隔热材料。
可选实施例中，第一侧壁1121上设有下壳体连接件1123，所述下壳体连接件1123沿第一侧壁1121的外周间隔设置，且突出于第一侧壁1121；第二侧壁1111上设有上壳体连接件1113，上壳体连接件1113的设置位置与所述下壳体连接件1123一一对应，上壳体连接件1113与所述下壳体连接件1123连接，以使循环模组下壳体112和循环模组上壳体111的位置相对固定。上壳体连接件1113与所述下壳体连接件1123上均可设置相适配的螺栓通孔，螺栓通孔内插入螺栓，即可实现循环模组下壳体112和循环模组上壳体111之间的可拆卸连接。
可选实施例中，循环模组壳体上设置有固定卡1115，固定卡1115用于固定线路或管路，可使得循环电机的电线、或者整机上的水、气管路等线路和管路能够得到较好的布置。
可选实施例中，循环模组还包括过渡件130，过渡件设于循环模组下壳体112上，且过渡件130与第一叶轮容纳区适配；过渡件与第一底板1122连接固定；过渡件设有贯穿的通孔，通孔与第一叶轮容纳区连通；过渡件背离第一叶轮容纳区的一侧与波纹软管50连接，波纹软管50通过过渡件130与下壳体的进风口对接。过渡件上可设有第一过渡孔和第二过渡孔，第一过渡孔和第二过渡孔均沿通孔的周向间隔均匀地分布，第一进风口102的直径小于第一过渡孔的分布直径，波纹软管50的端部可设有相对应的螺纹孔，螺栓穿过第一过渡孔拧入螺纹孔内，以使波纹软管50固定于过渡件130上；第二过渡孔的分布直径大于第一进风口102的直径，第一底板1122上设有与第二过渡孔相对应的螺纹孔，螺栓穿过第二过渡孔拧入螺纹孔内，以使过渡件130固定于第一底板1122上。过渡件的一侧可设有定位套，定位套可插入波纹软管50。安装波纹软管50时，可先将波纹软管50固定于过渡件130上，再将过渡件130固定于第一底板1122上，方便波纹软管50的安装与拆卸。
如图20所示，烘干模组还包括：管路连接模组，管路连接模组包括：包括：第一连接件A，其两端分别与冷凝模组40和再生风机301连通，以使再生气流经由冷凝模组40进入再生风机301；和/或，第二连接件B，其两端分别与再生风机301和加热模块302连通，以使再生气流经由再生风机301进入加热模块302。
在一些实施例中，如图21所示，第一连接件A包括第一进风口102和第一出风口103，第一进风口102与冷凝模组40出风口连通，第一出风口103与再生风机301进风口连通；和/或，如图26所示，第二连接件B包括第二进风口B0和第二出风口B1，第二进风口B0与再生风机301出风口连通，第二出风口B1与加热模块302进风口连通。
在一些实施例中，如图21至图22所示，第一连接件A包括壳体，沿壳体的周向，壳体包括依次连接的第一侧面A01、第二侧面A02和第三侧面A03，第一侧面A01和第三侧面A03大体垂直，第一侧面A01上设有第一进风口102，第三侧面A03上设有第一出风口103。
如图21至图24所示，在一些实施例中，第一进风口102为大致矩形开口，第一进风口102与冷凝模组40出风口适配，第一进风口102与冷凝模组40出风口密封对接。
在一些实施例中，再如图21至图22所示，第一出风口103为大致圆形开口，第一出风口103与再生风机301进风口适配，第一出风口103与再生风机301进风口密封对接或套接。
在一些实施例中，如图23至图24所示，第一连接件A由第一连接体A2和第二连接体A3拼接组成，第一连接体A2上设有第一出风口103，第一进风口102由第一连接体A2和第二连接体A3拼接组成，其中，第一连接体A2和第二连接体A3为沿垂直于第一进风口102长边大约正中处分隔开的两部分，第一连接件A由第一连接体A2和第二连接体A3焊接成型、或通过密封垫圈螺栓紧固连接，第一连接件A可用于调整气流走向。
在一些实施例中，由于第一连接件A中流过的气流温度不高，且其装配于硬质的冷凝模组40和再生风机301之间，可以采用柔性件整体成型，外形大体上如图21所示。在第一进风口102和第一出风口103处设有第一侧面A01和第二安装外座A11，并且在冷凝模组40的出风口和再生风机301壳体的进风口处设有与第一侧面A01和第二安装外座A11卡持并紧固的结构。在安装过程中，通过使柔性第一连接件A的第一进风口102和第一出风口103变形从而伸入到冷凝模组40壳体内以及再生风机301进风口壳体内，此时恢复柔性第一连接件A的变形，则第一侧面A01和第二安装外座A11被分别卡持在冷凝模组40壳体出风口和再生风机301进风口壳体内，然后通过压板或箍圈在冷凝模组40壳体和生风机301壳体内部将第一侧面A01和第二安装外座A11夹持在压板或箍圈于壳体内壁之间，从而实现柔性第一连接件A的密封紧固安装。
在一些实施例中，如图25至图26所示，第二连接件B包括壳体，沿壳体的周向，壳体包括依次连接的第四侧面B01、第五侧面B02和第六侧面B03，第五侧面B02两端分别与第四侧面B01和第六侧面B03连接，第四侧面B01上设有第二进风口B0，第六侧面B03上设有第二出风口B1。
在一些实施例中，再如图25至图26所示，第二进风口B0为大致矩形开口，第二进风口B0与再生风机301出风口形状适配，第二进风口B0与再生风机301出风口密封连接。
在一些实施例中，再如图25至图26所示，第二出风口B1为弧形开口，沿第二进风口B0短边两侧至第二出风口B1短边两侧逐渐扩大开口幅度，第二出风口B1短边长度小于第二进风口B0短边长度，第二出风口B1与加热模块302进风口适配，第二出风口B1与加热模块302的进风口密封连接。
在一些实施例中，如图27至图29所示，第二连接件B由第三连接体B2和第四连接体B3组成，第二进风口B0和第二出风口B1由第三连接体B2和第四连接体B3拼接组成，其中，第三连接体B2和第四连接体B3为沿垂直于第二进风口B0和第二出风口B1的方向切开的两部分，第二连接件B由第三连接体B2和第四连接体B3焊接成型、或通过密封垫圈螺栓紧固连接。
在一些实施例中，如图21和图26所示，由于第一连接件A和第二连接件B都是异型件，很难通过一次成模的方式制造，可能遇到模具复杂、脱模困难等问题，本公开实施例将一个件拆分成多个件进行加工制造。在一些实施例中，焊接方式包括超声波焊接、摩擦焊接和热融焊接。通过以上连接方式分别将第一连接体A2和第二连接体A4、第三连接体B2和第四连接体焊接成两个完整的连接件，再将第一连接件A或第二连接件B安装至所需位置。
在一些实施例中，如图30至图32，第一连接件A通过平面开槽的方式进行密封。例如可以在第一连接体A2和第二连接体A4上分别设置沉槽和凸起。该凸起能够伸入沉槽，还可以在沉槽内先放置密封垫圈。凸起抵接沉槽内的垫圈，实现更好的密封。
在一些实施例中，再如图30-32，第二连接件B通过平面开槽密封和环形平面/开槽的组合方式进行密封。例如可以在第三连接体B2和第四连接体B4上分别设置沉槽和凸起。该凸起能够伸入沉槽，还可以在沉槽内先放置密封垫圈。凸起抵接沉槽内的垫圈，实现更好的密封。
在一些实施例中，第一连接件A为柔性整体件，在第一进风口A0处设有第一侧面A01、第一出风口A1处设有第二安装外座A11，第一侧面A01和第二安装外座与冷凝模组40出风口和再生风机301进风口密封连接。
本申请实施例一种洗烘一体机，包括滚筒和烘干模组，烘干模组具有上述任一实施例中的再生循环模组。
在一些实施例中，第一连接件A或第二连接件B通过平面分型方式拆件分型。
在一些实施例中，第一连接件A或第二连接件B通过“两孔+两孔+两孔”的方式固定。
如图20所示，在一些实施例中，本公开实施例还包括一种洗烘一体机，洗烘一体机包 括滚筒和烘干模组，烘干模组包括吸湿通道、排湿通道、以及吸湿排湿构件，排湿通道包括但不限于风机、再生机构(加热器)、冷凝器，其中风机与再生机构、风机与冷凝器之间采用连接件进行连接。
实施例1
加热器进风口311位于再生模组上壳体310的外弧侧面，再生模组上壳体310呈扇形结构，再生气流由加热器进风口311沿径向进入第三气流通道，经由均风板330上的风孔进入加热器容纳区，与加热管340进行热交换，受热后的高温再生气流穿过转盘200，对再生区内的转盘200部分进行脱水烘干。风孔的直径沿扇形的半径方向从外弧向圆心有减小的趋势，加热管340呈S形分布，加热管340沿扇形的半径方向间隔分布且加热管340的长度垂直于扇形的半径方向设置，由于均风板330上的风孔与加热管340相对应设置，因此风孔的直径设置在靠近加热器进风口311处相对大些，远离加热器进风口311处的风孔的直径要相对小些，即转盘200在再生区内接受到的受热后的高温再生气流流量沿扇形的半径方向从外弧向圆心均匀或不均匀地减小，从而可实现对转盘200更均匀地加热烘干。
实施例2
实施例2与实施例1的相同之处不再赘述，其与实施例1的不同之处在于：
加热器进风口311位于再生模组上壳体310的侧壁，侧壁设为沿扇形的径向布置，再生气流的流动方向与转盘的旋转方向相对或同向设置；再生气流由加热器进风口311进入第三气流通道，经由均风板330上的风孔进入加热器容纳区，与加热管340进行热交换，受热后的高温再生气流由上至下穿过转盘200，对再生区内的转盘200部分进行脱水烘干。加热管340呈S形分布，加热管340的长度平行于与加热器进风口311相对的侧壁设置，且加热管340沿扇形的径向间隔分布，由于均风板330上的风孔与加热管340相对应设置，因此均风板330上的风孔远离加热器进风口311的一侧设置相对要密集且风孔的直径也要大些，通过风孔的设置来控制受热后的高温再生气流的流量。当转盘200经由除湿区吸附湿循环气流的水分，旋转至再生区时，先以较大流量的高温再生气流对转盘200部分进行脱水烘干，然后在旋转经过再生区时，逐渐地减少高温再生气流的流量，从而可实现对转盘200更均匀地加热烘干。
本申请的第二方面提供了一种洗烘一体机，包括：如上述任一技术方案的烘干模组。
本申请实施例提供的洗烘一体机，因包括了如上述任一技术方案的烘干模组，因此该洗烘一体机具备上述技术方案的烘干模组的全部有益效果，在此不做赘述。
在一些实施例中，洗烘一体机还包括：
滚筒，其设有滚筒进气口和滚筒出气口，滚筒进气口和滚筒出气口可分别设置于滚筒旋转轴的两端，以使得进入滚筒的干燥高温气流能够充分与滚筒内的衣物进行热交换；以及，所述的烘干模组；其中，第二气流通道与滚筒出气口连通，第一气流通道与滚筒进气口连通；滚筒内的湿循环气流经由第二气流通道、并由下至上穿过转盘200到达第一气流通道，以形成干燥气流；其中，转盘200用于吸附湿循环气流中的水分。
洗烘一体机，包括滚筒和烘干模组，滚筒进气口位于前部或后部，滚筒出气口位于后部或前部；滚筒进气口和滚筒出气口分别连通滚筒外筒与内筒之间的空间。例如滚筒进气口和滚筒出气口分别位于滚筒的相对两端，以使得气流能与滚筒内衣物充分接触，提高烘干效率。
可以理解的是，滚筒可以为滚筒。
当然滚筒进气口和出气口的具体位置本公开不做具体限定，也可同时位于滚筒同一端，或交错设置在滚筒上。
在本申请中，术语“第一”、“第二”、“第三”仅用于描述的目的，而不能理解为指示或暗示相对重要性；术语“多个”则指两个或两个以上，除非另有明确的限定。术语“安装”、“相连”、“连接”、“固定”等术语均应做广义理解，例如，“连接”可以是固定连接，也可以是可拆卸连接，或一体地连接；“相连”可以是直接相连，也可以通过中间媒介间接相连。对于本 领域的普通技术人员而言，可以根据具体情况理解上述术语在本申请中的具体含义。
本申请的描述中，需要理解的是，术语“上”、“下”、“左”、“右”、“前”、“后”等指示的方位或位置关系为基于附图所示的方位或位置关系，仅是为了便于描述本申请和简化描述，而不是指示或暗示所指的装置或单元必须具有特定的方向、以特定的方位构造和操作，因此，不能理解为对本申请的限制。
在本说明书的描述中，术语“一个实施例”、“一些实施例”、“具体实施例”等的描述意指结合该实施例或示例描述的具体特征、结构、材料或特点包含于本申请的至少一个实施例或示例中。在本说明书中，对上述术语的示意性表述不一定指的是相同的实施例或实例。而且，描述的具体特征、结构、材料或特点可以在任何的一个或多个实施例或示例中以合适的方式结合。
以上仅为本申请的优选实施例而已，并不用于限制本申请，对于本领域的技术人员来说，本申请可以有各种更改和变化。凡在本申请的精神和原则之内，所作的任何修改、等同替换、改进等，均应包含在本申请的保护范围之内。

Claims (65)

  1. 一种烘干模组，包括：
    循环模组，其与容纳装置连通，循环模组将来自容纳装置的湿气流输出到除湿模组；
    除湿模组，其连通所述循环模组和容纳装置，除湿模组用于吸附来自容纳装置的湿气流的水分；
    再生模组，其连通至少部分所述除湿模组，用于输出再生气流到除湿模组，以脱附除湿模组吸收的水分；
    壳体，所述壳体上设置有容纳区以分别容纳所述循环模组、除湿模组及再生模组。
  2. 根据权利要求1所述的烘干模组，其中，还包括：
    冷凝模组，用于对除湿模组脱附的水分进行冷凝，所述壳体上还设置有冷凝模组容纳区，所述循环模组、除湿模组及冷凝模组容纳区一体成型；
    其中，除湿模组与机架连接固定，循环模组和/或冷凝模组与容纳装置连接固定。
  3. 根据权利要求1所述的烘干模组，其中，所述壳体包括：
    第一壳体和第二壳体，所述第一壳体和所述第二壳体围合形成容纳腔，壳体设置搭接部以安装至电气设备上。
  4. 根据权利要求2所述的烘干模组，其中，
    所述循环模组、所述除湿模组和所述再生模组至少一者之间通过波纹管连接。
  5. 根据权利要求4所述的烘干模组，其中，除湿模组还包括：出风通道，一端与所述除湿模组连通，另一端通过第一波纹软管与滚筒连通。
  6. 根据权利要求4所述的烘干模组，其中，所述循环模组和冷凝模组与滚筒连接固定，包括：除湿模组和循环模组通过第二波纹软管连通；
    再生模组与冷凝模组通过第三波纹软管连通。
  7. 根据权利要求4所述的烘干模组，其中，所述循环模组与滚筒连接固定；
    所述冷凝模组与机架连接固定；
    除湿模组和循环模组通过第二波纹软管连通。
  8. 根据权利要求4所述的烘干模组，其中，所述冷凝模组与滚筒连接固定；
    循环模组与机架连接固定；
    再生模组与冷凝模组通过第三波纹软管连通；
    循环模组与滚筒通过第四波纹软管连通。
  9. 根据权利要求1所述的烘干模组，其中，除湿模组还包括：进风通道，其安装在容纳装置上，一端与所述容纳装置连通，另一端与循环模组连通；
    所述进风通道内设有过滤组件，用于过滤循环气流中的杂质。
  10. 根据权利要求1所述的烘干模组，其中，再生模组包括：加热模块，其入口端设有再生风机安装部，所述加热模块用于脱附所述除湿模组上吸附的水分；
    再生风机，安装在再生风机安装部上且与冷凝模组连通，用于将冷凝模组冷凝形成的低温干燥的再生气流输送至加热模块。
  11. 根据权利要求1至10中任一项所述的烘干模组，其中，所述循环模组包括：
    循环模组壳体，所述循环模组壳体上设有第一进风口和第一出风口；
    叶轮，所述叶轮设置于所述循环模组壳体内，所述叶轮旋转轴线与所述第一进风口轴线大致平行，所述叶轮旋转轴线与所述第一出风口轴线大致垂直；
    循环电机，所述循环电机与循环模组壳体连接固定，所述循环电机的输出轴与所述叶轮连接固定。
  12. 如权利要求11所述的烘干模组，其中，所述循环模组壳体包括：循环模组第一壳体，其设有凹陷的第一叶轮容纳区；
    循环模组第二壳体，其设有凹陷的第二叶轮容纳区；循环模组第一壳体与循环模组 第二壳体配合连接，以使第一叶轮容纳区和第二叶轮容纳区形成叶轮容纳腔。
  13. 如权利要求12所述的烘干模组，其中，
    循环模组第一壳体包括：第一底板和第一侧壁，第一侧壁突出于第一底板且沿第一底板的周向设置，以形成所述第一叶轮容纳区；第一侧壁的顶部设置有第一凹槽或第一凸起；
    循环模组第二壳体包括：第一顶板和第二侧壁，第二侧壁突出于第一顶板且沿第一顶板的周向设置，以形成所述第二叶轮容纳区；
    第二侧壁的顶部设置有第一凸起或第一凹槽；
    所述第一凸起与第一凹槽配合，所述第一凹槽内设置密封垫圈；
    所述循环模组第一壳体和所述循环模组第二壳体连接时，所述第一凸起抵紧所述密封垫圈。
  14. 如权利要求12所述的烘干模组，其中，所述叶轮包括：叶轮主体和与叶轮主体沿轴向相对设置的固定环；所述叶轮主体向固定环的方向延伸，且设置有用于容纳循环电机的容纳腔，循环电机的一端设置在所述容纳腔中，且循环电机的输出轴与所述叶轮主体的底部连接固定；以及，叶片，所述叶片的两端分别与所述叶轮主体和固定环固定连接，所述叶片环绕所述叶轮主体间隔设置，且所述叶片沿所述叶轮的旋转方向向前倾斜设置。
  15. 如权利要求13所述的烘干模组，其中，第一顶板的顶部设有贯穿的安装孔和定位凸块，安装孔与循环电机适配；
    定位凸块沿安装孔的周向间隔设置，定位凸块插入循环电机的安装耳座，以使循环电机固定于第一顶板上。
  16. 如权利要求12所述的烘干模组，其中，所述循环模组壳体为蜗壳形；
    所述循环模组壳体具有收缩部，收缩部沿垂直于叶轮旋转轴线的方向延伸；
    第一出风口通过收缩部与叶轮容纳腔连通。
  17. 如权利要求16所述的烘干模组，其中，第一进风口位于第一底板上，且第一进风口与安装孔共轴设置；
    收缩部具有出风腔，第一进风口、叶轮容纳腔、出风腔与第一出风口依次连通，且叶轮容纳腔、出风腔与第一出风口位于同一水平面上。
  18. 如权利要求17所述的烘干模组，其中，还包括：
    循环风接口件，其与收缩部连接；或者，
    循环风接口件与所述循环模组壳体设为一体；
    循环风接口件背离收缩部的一侧设为弧形，且循环风接口件向背离收缩部的一侧逐渐扩大，循环风接口件内具有扩张风道，扩张风道的两端分别与出风腔和第一出风口连通。
  19. 如权利要求12所述的烘干模组，其中，第一侧壁上设有第一壳体连接件，所述第一壳体连接件沿第一侧壁的外周间隔设置，且突出于第一侧壁；
    第二侧壁上设有第二壳体连接件，第二壳体连接件的设置位置与所述第一壳体连接件一一对应，第二壳体连接件与所述第一壳体连接件连接，以使循环模组第一壳体和循环模组第二壳体的位置相对固定。
  20. 如权利要求16所述的烘干模组，其中，循环模组还包括过渡件，过渡件设于循环模组第一壳体上，且过渡件与第一叶轮容纳区适配；
    过渡件与第一底板连接固定；
    过渡件设有贯穿的通孔，通孔与第一叶轮容纳区连通；
    过渡件背离第一叶轮容纳区的一侧与波纹软管连接。
  21. 根据权利要求3所述的烘干模组，其中，还包括：所述第一壳体设有第一转盘容纳区；所述第二壳体形成第二转盘容纳区，所述除湿模组包括：
    转盘第二壳体与第一壳体配合连接，以使至少部分第一转盘容纳区和第二转盘容纳区形成转盘容纳腔；
    转盘构件，其安装于转盘容纳腔内；转盘构件包括转盘，转盘用于吸附和脱附湿循环气流中的水分；其中，转盘的顶面与转盘第二壳体的部分内壁之间具有间隙，以形成第一气流通道；转盘的底面与第一壳体的部分内壁之间具有间隙，以形成第二气流通道；
    第二气流通道或第一气流通道与容纳装置出气口连通，第一气流通道或第二气流通道与容纳装置进气口连通，以使容纳装置内的湿循环气流经由第二气流通道或第一气流通道并穿过转盘到达第一气流通道或第二气流通道。
  22. 根据权利要求21所述的烘干模组，其中，所述第一壳体包括循环模组第一壳体，循环模组第一壳体内设有循环风机容纳区，循环风机容纳区与第一转盘容纳区或第二转盘容纳区连通；其中，循环风机安装于循环风机容纳区内，循环风机的进风口与容纳装置出气口连通，循环风机的出风口与第二气流通道或第一气流通道连通。
  23. 根据权利要求21所述的烘干模组，其中，所述第一壳体还包括转盘第一壳体，转盘第一壳体设有所述第一转盘容纳区，所述第一转盘容纳区内设有第一分隔件，以将第一转盘容纳区分隔为除湿区和再生区；
    循环风机的出风口与除湿区连通。
  24. 根据权利要求21所述的烘干模组，其中，
    所述再生模组安装至转盘第二壳体的再生模组容纳部；
    再生模组位于转盘的一侧，以作用于转盘再生区对转盘吸附的水分进行脱附；其中，再生模组内具有气流空间，以形成第三气流通道；转盘的另一侧与转盘第一壳体的再生区内壁之间具有间隙，以形成第四气流通道。
  25. 根据权利要求24所述的烘干模组，其中，所述第一壳体还包括冷凝模组第一壳体和再生风机安装部，再生风机安装于再生风机安装部，冷凝模组第一壳体设有冷凝器容纳区，冷凝器容纳区分别与第四气流通道和再生风机的进风口连通；再生风机的出风口与第三气流通道连通；
    再生气流经再生风机送入第三气流通道，经过再生模组并穿过转盘到达第四气流通道，变成湿热的再生气流；湿热的再生气流依次进入冷凝器和再生风机，以形成循环的再生气流。
  26. 根据权利要求25所述的烘干模组，其中，所述第一壳体设为一体化。
  27. 根据权利要求26所述的烘干模组，其中，循环模组第一壳体、转盘第一壳体、冷凝模组第一壳体和再生风机安装部一体化成型。
  28. 根据权利要求26所述的烘干模组，其中，循环风机的进风口与容纳装置出气口柔性连接；和/或转盘第二壳体与容纳装置进气口柔性连接，以使第一气流通道或第二气流通道与容纳装置进气口连通。
  29. 根据权利要求26所述的烘干模组，其中，第一分隔件沿转盘第一壳体的径向设置以分隔除湿区与再生区，除湿区的面积与再生区的面积比值范围为2-3。
  30. 根据权利要求29所述的烘干模组，其中，所述第一分隔件至少包括第一分隔体和第二分隔体，第一分隔体和第二分隔体均沿转盘第一壳体的径向设置，第一分隔体和第二分隔体的一端与转盘第一壳体的侧内壁连接，另一端朝向转盘第一壳体的中心区域设置，以使所述第一分隔件大致呈V形；
    第一分隔体和第二分隔体的相交处为圆弧过渡连接。
  31. 根据权利要求30所述的烘干模组，其中，所述转盘第二壳体设有第二分隔件，以将转盘第二壳体分隔为除湿区和再生模组安装区；
    第二分隔件与第一分隔件相对设置，转盘设置于第二分隔件与第一分隔件之间。
  32. 根据权利要求1至10中任一项所述的烘干模组，其中，
    所述循环模组具有第一循环通路，第一循环通路与容纳装置出气口或容纳装置进气 口连通，以使容纳装置内的湿循环气流进入第一循环通路或使第一循环通路中的气流进入容纳装置；
    所述除湿模组位于循环模组的下游或上游，除湿模组具有第二循环通路，第二循环通路与容纳装置进气口或容纳装置出气口连通；容纳装置出气口、第一循环通路、第二循环通路和容纳装置进气口连通，以形成循环通路；除湿模组包括吸湿排湿构件，至少部分吸湿排湿构件设置于第二循环通路上，吸湿排湿构件用于吸附来自于容纳装置内的湿循环气流中的水分；
    所述再生模组包括再生构件，再生构件与至少另一部分吸湿排湿构件临近设置，用于将所述至少另一部分吸湿排湿构件上吸附的水分至少部分排出。
  33. 根据权利要求32所述的烘干模组，其中，
    吸湿排湿构件包括转盘；
    再生构件为加热构件；
    再生模组具有再生通路，加热构件与至少部分转盘依次设置于再生通路上，以使再生通路内的再生气流依次流经加热构件与至少部分转盘。
  34. 根据权利要求33所述的烘干模组，其中，
    再生通路与循环通路相对隔离，以使再生气流和湿循环气流至少大部分相对密封。
  35. 根据权利要求33所述的烘干模组，其中，再生模组还包括再生风机，再生风机设置于再生通路上，且再生风机位于加热构件的上游。
  36. 根据权利要求35所述的烘干模组，其中，还包括冷凝器，冷凝器设置于再生通路上，位于转盘与再生风机之间，以使再生通路内的湿热的再生气流进入冷凝器，变成干冷的再生气流，并形成闭路循环。
  37. 根据权利要求33所述的烘干模组，其中，再生模组还包括再生模组第二壳体，再生模组第二壳体具有加热构件容纳腔；
    加热构件安装于加热构件容纳腔内，加热构件位于转盘上游，且加热构件容纳腔与转盘连通；
    加热构件用于对再生气流进行加热，以对转盘吸附的水分进行至少部分脱附。
  38. 根据权利要求37所述的烘干模组，其中，加热构件包括层叠设置的均风件和加热器，加热器位于均风件和转盘之间；
    再生气流进入加热构件容纳腔内，依次经由均风件、加热器和转盘。
  39. 根据权利要求37所述的烘干模组，其中，再生模组第二壳体呈扇形体结构；
    再生模组第二壳体的侧面设有加热器进风口；
    均风件与再生模组第二壳体的顶壁具有间隙，以形成第三气流通道；
    转盘的底面与转盘第一壳体的再生区内壁之间具有间隙，以形成第四气流通道；
    第三气流通道与加热器进风口连通，以使再生气流经由加热器进风口进入第三气流通道，经过均风件、加热器和由上至下穿过转盘到达第四气流通道，变成湿热的再生气流。
  40. 根据权利要求39所述的烘干模组，其中，还包括第一连接件，其两端分别与冷凝器和再生风机连通，以使再生气流经由冷凝器进入所述再生风机；
    第二连接件，其两端分别与所述再生风机和加热器进风口连通，以使再生气流经由所述再生风机进入第三气流通道；
    所述第一连接件包括第一进风口和第一出风口，所述第一进风口与冷凝器出风口适配且连通，所述第一出风口与再生风机进风口适配且连通；
    所述第一进风口所在的平面与所述第一出风口所在的平面大致垂直，以调整再生气流的流动方向；
    所述第二连接件包括第二进风口和第二出风口，所述第二进风口与所述再生风机出风口适配且连通，所述第二出风口与加热器进风口适配且连通；
    所述第二进风口所在的平面与所述第二出风口所在的平面大致平行，且第二出风口的面积大于所述第二进风口。
  41. 根据权利要求32所述的烘干模组，其中，所述再生构件为超声波构件。
  42. 根据权利要求1至10中任一项所述的烘干模组，其中，
    所述循环模组其具有第一循环通路，第一循环通路与容纳装置出气口或容纳装置进气口连通，以使容纳装置内的湿循环气流进入第一循环通路或使第一循环通路中的气流进入容纳装置；
    所述除湿模组位于循环模组的下游或上游，除湿模组具有第二循环通路，第二循环通路与容纳装置进气口连通或容纳装置出气口连通；除湿模组包括转盘构件，至少部分转盘构件设置于第二循环通路上，转盘构件用于吸附来自于容纳装置内的湿循环气流中的水分；
    容纳装置出气口、第一循环通路或第二循环通路、第二循环通路或第一循环通路和容纳装置进气口依次连通，以形成循环通路；其中，容纳装置内的湿循环气流经由第一循环通路和第二循环通路，重新进入容纳装置。
  43. 根据权利要求3所述的烘干模组，其中，所述第一壳体设有第一转盘容纳区；所述第二壳体设有第二转盘容纳区，转盘第二壳体与转盘第一壳体配合连接，以使第一转盘容纳区和第二转盘容纳区形成转盘构件容纳腔；转盘构件安装于转盘构件容纳腔内；
    转盘构件包括转盘；
    转盘的顶面与转盘第二壳体的部分顶壁之间具有间隙，以形成第一气流通道；转盘的底面与转盘第一壳体的部分底壁之间具有间隙，以形成第二气流通道；
    第二气流通道、转盘和第一气流通道形成第二循环通路；其中，第二气流通道与第一循环通路连通，第一气流通道与容纳装置进气口连通，以使容纳装置内的湿循环气流经由第二气流通道并穿过转盘到达第一气流通道。
  44. 根据权利要求42所述的烘干模组，其中，循环模组包括：循环模组壳体，其具有叶轮容纳腔，所述循环模组壳体上设有第一进风口和第一出风口；
    叶轮，所述叶轮设置于所述叶轮容纳腔内，所述叶轮旋转轴线与所述第一进风口轴线大致平行，所述叶轮旋转轴线与所述第一出风口轴线大致垂直；
    循环电机，所述循环电机与循环模组壳体连接固定，所述循环电机的输出轴与所述叶轮连接固定；
    第一进风口、叶轮容纳腔和第一出风口形成第一循环通路；其中，第一进风口与容纳装置出气口连通，第一出风口与第二循环通路连通，以使容纳装置内的湿循环气流依次进入第一循环通路和第二循环通路。
  45. 根据权利要求42所述的烘干模组，其中，还包括：第二冷凝器，其设置于循环通路上，第二冷凝器位于循环模组的上游；
    第二冷凝器用于对来自于容纳装置内的湿循环气流进行预除湿。
  46. 根据权利要求42所述的烘干模组，其中，还包括：第二加热器，其设置于循环通路上，第二加热器位于除湿模组的下游；
    第二加热器用于对干燥循环气流进行加热。
  47. 根据权利要求43所述的烘干模组，其中，所述第一转盘容纳区内设有第一分隔件，以将第一转盘容纳区分隔为除湿区和再生区；
    转盘第一壳体设有第二进风口，第二进风口分别与第一出风口和第二气流通道的除湿区连通。
  48. 根据权利要求30所述的烘干模组，其中，所述转盘第二壳体的侧壁上设有第二出风口，第二出风口分别与第一气流通道的除湿区和容纳装置进气口连通；
    第二进风口和第二出风口分别靠近第一分隔体和第二分隔体设置。
  49. 根据权利要求48所述的烘干模组，其中，还包括：出风通道，其位于第二出风 口处，所述出风通道突出于转盘第二壳体的侧壁的外侧；
    进筒风道，其一端与出风通道连通，另一端与容纳装置进气口连通；
    第二加热器包括加热管或加热丝；
    第二加热器设置于进筒风道内。
  50. 根据权利要求1至10中任一项所述的烘干模组，其中，所述壳体内设置有转盘构件容纳腔，所述除湿模组包括：
    转盘构件，其安装于转盘构件容纳腔内；转盘构件包括转盘，所述转盘的至少部分用于吸附湿循环气流中的水分；其中，转盘的两个侧面与壳体的第一内壁和第二内壁之间均具有间隙，以形成气流通道；其中，第一内壁和第二内壁相对设置，且第一内壁或第二内壁和转盘的两个侧面大致平行；
    至少一个分流件，其至少环绕设于第一内壁或第二内壁之一上，分流件用于对流入气流通道的气流进行分流。
  51. 根据权利要求50所述的烘干模组，其中，壳体包括：转盘第一壳体，其设有第一转盘容纳区；
    转盘第二壳体，其设有第二转盘容纳区，转盘第二壳体与转盘第一壳体配合连接，以使至少部分第一转盘容纳区和第二转盘容纳区形成所述转盘构件容纳腔；
    转盘的顶面与转盘第二壳体的部分内顶壁之间具有间隙，以形成第一气流通道；转盘的底面与转盘第一壳体的部分底壁之间具有间隙，以形成第二气流通道；
    第二气流通道与容纳装置出气口或容纳装置进气口连通，第一气流通道与容纳装置进气口或容纳装置出气口连通，以使容纳装置内的湿循环气流经由第二气流通道或第一气流通道并穿过转盘到达第一气流通道或第二气流通道；
    所述分流件环绕设于转盘第一壳体或转盘第二壳体的底壁上，以对流入第二气流通道或第一气流通道的气流进行分流。
  52. 根据权利要求51所述的烘干模组，其中，所述第一转盘容纳区内设有至少两个第一分隔件，以至少将第一转盘容纳区分隔为除湿区和再生区。
  53. 根据权利要求52所述的烘干模组，其中，
    所述分流件设于除湿区内，以将除湿区至少分隔为第一分流区和第二分流区；
    所述转盘第一壳体的侧壁上设有第二进风口，所述分流件的一端与第二进风口抵接，以将第二进风口至少分隔为第一子口和第二子口，第一子口和第一分流区连通，第二子口和第二分流区连通。
  54. 根据权利要求53所述的烘干模组，其中，所述分流件突出于所述转盘第一壳体的底壁，所述分流件临近或接触所述转盘。
  55. 根据权利要求53所述的烘干模组，其中，所述第一分隔件设为沿转盘第一壳体的径向设置，以使除湿区和再生区均为大体扇形；其中，除湿区的面积与再生区的面积比值范围为1.5-4。
  56. 根据权利要求55所述的烘干模组，其中，所述第二进风口靠近第一分隔体设置；
    所述分流件包括第一分流体和与第一分流体一端平滑连接的第二分流体，第一分流体大致平行于第一分隔体，且第一分流体与第一分隔体间隔设置；
    第二分流体背离第一分流体的另一端与第二分隔体连接，且第二分流体呈弧形设置。
  57. 根据权利要求56所述的烘干模组，其中，所述第二分流体与转盘第一壳体的侧壁同轴设置。
  58. 根据权利要求1至10中任一项所述的烘干模组，其中，还包括：管路连接模组，所述管路连接模组包括：
    第一连接件，其两端分别与冷凝模组和再生风机连通，以使再生气流经由冷凝模组进入所述再生风机；和/或，第二连接件，其两端分别与所述再生风机和加热模块连通，以使再生气流经由所述再生风机进入加热模块。
  59. 根据权利要求58所述的模组，其中，所述第一连接件包括第一进风口和第一出风口，所述第一进风口与冷凝模组出风口连通，所述第一出风口与再生风机进风口连通；和/或，所述第二连接件包括第二进风口和第二出风口，所述第二进风口与所述再生风机出风口连通，所述第二出风口与加热模块进风口连通。
  60. 根据权利要求59所述的模组，其中，所述第一连接件包括壳体，沿壳体的周向，所述壳体包括依次连接的第一侧面、第二侧面和第三侧面，所述第一侧面和所述第三侧面垂直，所述第一侧面上设有所述第一进风口，所述第三侧面上设有所述第一出风口。
  61. 根据权利要求60所述的模组，其中，所述第一进风口与所述冷凝模组出风口适配，所述第一进风口与所述冷凝模组出风口密封连接；
    其中，所述第一出风口与所述再生风机进风口适配，所述第一出风口与所述再生风机进风口密封连接；
    所述第一连接件由第一连接体和第二连接体拼接组成，所述第一连接体上设有所述第一出风口，所述第一进风口由第一连接体和第二连接体拼接组成，其中，所述第一连接体和所述第二连接体为沿垂直于所述第一进风口长边大致正中处分割开的两部分，所述第一连接件由所述第一连接体和所述第二连接体连接而成，所述第一连接件用于调整气流走向；
    其中，所述第二连接件包括壳体，沿壳体的周向，所述壳体包括依次连接的第四侧面、第五侧面和第六侧面，所述第五侧面两端分别与所述第四侧面和所述第六侧面连接，所述第四侧面上设有第二进风口，所述第六侧面上设有第二出风口；
    所述第二进风口为大致矩形开口，所述第二进风口与所述再生风机出风口形状适配，所述第二进风口与所述再生风机出风口密封连接；
    第二出风口为弧形开口，沿所述第二进风口短边两侧至所述第二出风口短边两侧逐渐扩大开口幅度，所述第二出风口与所述加热模块出风口形状适配，所述第二出风口与所述加热模块的进风口密封连接。
  62. 根据权利要求61所述的模组，其中，所述第二连接件由第三连接体和第四连接体组成，所述第二进风口和所述第二出风口由所述第三连接体和所述第四连接体拼接组成，其中，所述第三连接体和所述第四连接体为沿垂直于所述第二进风口和所述第二出风口的方向切开的两部分，所述第二连接件由所述第三连接体和所述第四连接体连接而成。
  63. 根据权利要求61所述的模组，其中，所述第一连接件为柔性整体件，在第一进风口处设有第一安装外座、第一出风口处设有第二安装外座，所述第一安装外座一端和第二安装外座一端分别与冷凝模组出风口密封连接，所述第一安装外座另一端和第二安装外座另一端分别与和再生风机进风口密封连接。
  64. 一种洗烘一体机，其中，包括如权利要求1-63中任一项所述的烘干模组。
  65. 根据权利要求64所述的洗烘一体机，其中，还包括：
    容纳装置，其设有容纳装置进气口和容纳装置出气口，容纳装置进气口和容纳装置出气口分别设置于容纳装置的相对两端；
    其中，第二气流通道或第一气流通道与容纳装置出气口连通，第一气流通道或第二气流通道与容纳装置进气口连通；
    容纳装置内的湿循环气流经由第二气流通道或第一气流通道并穿过转盘到达第一气流通道或第二气流通道，以形成干燥气流；其中，转盘用于吸附湿循环气流中的水分。
PCT/CN2023/115747 2022-08-31 2023-08-30 一种烘干模组及洗烘一体机 WO2024046358A1 (zh)

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