Drying method of double-drum clothes processing equipment, medium, control device and double-drum clothes processing equipment

Abstract

The embodiment of the invention discloses a drying method, medium and control device of double-drum clothes processing equipment and the double-drum clothes processing equipment, the double-drum clothes processing equipment comprises a first drum, a second drum and a shared drying module, and the shared drying module is used for generating hot air and can convey the hot air to the first drum and / or the second drum. The control method comprises the following steps: under the condition that the first drum enters a drying state, determining the operation state of the second drum; and under the condition that the second drum is in the drying procedure, controlling a drying judgment strategy of the second drum according to the load grade of the first drum. According to the embodiment, the dryness judgment strategy of the second drum is controlled according to different load grades of the first drum, the dryness judgment stage is carried out under the condition that the temperature of the drying airflow conveyed to the second drum by the drying module is stable, and therefore accurate dryness judgment is carried out on clothes in the second drum.

Description

Technical Field

[0001] The present invention relates to the field of refrigerators, and in particular to a control method, a medium, a control device and a double-drum clothes processing device. Background Art

[0002] At present, there are few types of multi-drum washing and care machines on the market, and the research on clothing washing and care methods is relatively single. For double-drum clothing processing equipment with drying function, most of them currently use one drum as a washing drum and the other drum as a drying drum, and a few have double washing and double drying functions. When the two drums of clothing processing equipment with double washing and double drying functions are dried independently, two independent drying systems are generally used, which increases costs.

[0003] In the related art, there is a clothes processing device that uses a set of drying systems to dry two drums, but this structure will cause the drying temperatures of the two drums to affect each other. When the first drum just enters the drying stage, if the second drum is drying, the dryness of the second drum will be affected by the wet and cold air of the first drum, resulting in a false dryness judgment. When the second drum reaches the dryness judgment condition, the clothes are actually not dried. Summary of the invention

[0004] The embodiments of the present application provide a drying method, medium, control device and double-drum clothing processing equipment for a double-drum clothing processing device, so as to at least solve the technical problem that when one drum is drying while the other drum is entering the drying process, the accuracy of judging whether the drum being dried is affected.

[0005] According to a first aspect of an embodiment of the present application, a drying method of a double-drum laundry processing device is provided, the double-drum laundry processing device comprising a first drum, a second drum and a common drying module, the common drying module being used to generate hot air and be able to transport the hot air to the first drum and / or the second drum, and absorb moisture in the hot air recovered from the first drum and / or the second drum, the control method comprising:

[0006] When the first drum enters the drying program, determining the running state of the second drum;

[0007] When the second drum is in a drying program, a drying strategy of the second drum is controlled according to the load level of the first drum.

[0008] According to the drying method of this embodiment, in a double-drum clothing processing device that delivers hot air to two drums through a common drying module, when the first drum enters a drying program and the second drum is already in the drying program, the drying judgment strategy of the second drum is controlled by the different load levels of the first drum, so that the drying judgment stage is carried out when the temperature of the drying airflow delivered by the drying module to the second drum is stable, thereby achieving accurate drying of the clothes in the second drum.

[0009] In combination with the first aspect, in an optional implementation of the embodiment of the present application, the controlling the dryness determination strategy of the second cylinder according to the load level of the first cylinder includes:

[0010] When the load level of the first drum is multiple load levels, the second drum is controlled to enter the dryness determination stage according to the increase of the outlet air temperature of the second drum and the temperature difference between the inlet air temperature and the outlet air temperature of the second drum;

[0011] When the load level of the first cylinder is a light load level, the second cylinder is controlled to enter the dryness determination stage according to the change in the inlet temperature of the second cylinder and the temperature difference between the inlet temperature and the outlet temperature of the second cylinder.

[0012] In combination with the first aspect, in an optional implementation of the embodiment of the present application, when the load level of the first tube is multiple load levels, the greater the increase in the outlet air temperature of the second tube, the more stable the inlet air temperature of the second tube;

[0013] When the load level of the first cylinder is a light load level, the smaller the change in the inlet air temperature of the second cylinder is, the more stable the inlet air temperature of the second cylinder is.

[0014] In combination with the first aspect, in an optional implementation of the embodiment of the present application, controlling the second cylinder to enter the dry determination stage according to the increase in the outlet temperature of the second cylinder and the temperature difference between the inlet temperature and the outlet temperature of the second cylinder includes:

[0015] Determine the increase in the outlet air temperature of the second cylinder within a first set time period;

[0016] When the increase amount of the outlet air temperature of the second cylinder is greater than or equal to the set increase amount, determining the temperature difference between the inlet air temperature and the outlet air temperature of the second cylinder;

[0017] When the temperature difference is less than the set temperature difference, the second drum is controlled to enter a dryness determination stage.

[0018] In combination with the first aspect, in an optional implementation of the embodiment of the present application, controlling the second cylinder to enter the dryness determination stage according to the change in the inlet air temperature of the second cylinder and the temperature difference between the inlet air temperature and the outlet air temperature of the second cylinder includes:

[0019] Determining a change in the air inlet temperature of the second cylinder within a second set time period;

[0020] When the change amount of the air inlet temperature of the second cylinder is less than or equal to the set change amount, determining the temperature difference between the air inlet temperature and the air outlet temperature of the second cylinder;

[0021] When the temperature difference is less than the set temperature difference, the second drum is controlled to enter a dryness determination stage.

[0022] In combination with the first aspect, in an optional implementation of the embodiment of the present application, before the step of controlling the dryness determination strategy of the second cylinder according to the load level of the first cylinder, the control method further includes:

[0023] Determining whether the second drum is in a dry stage;

[0024] In the case where the second drum is in the dry judging stage, a step of controlling the dry judging strategy of the second drum according to the load level of the first drum is performed after the dry judging stage is exited.

[0025] In combination with the first aspect, in an optional implementation of the embodiment of the present application, the load level of the second cylinder is determined according to a load level parameter input by a user, or the load level of the second cylinder is determined by weighing the second cylinder.

[0026] According to the second aspect of the embodiment of the present application, a non-temporary computer-readable storage medium is provided, on which program instructions are stored. When the program instructions are executed by one or more processors, the one or more processors are used to implement the drying method proposed in the first aspect of the embodiment of the present application.

[0027] According to a third aspect of an embodiment of the present application, a control device is provided, which includes a memory and a processor, wherein the memory stores a drying method for a double-drum laundry processing device, and the processor is used to adopt the drying method proposed in the first aspect of the embodiment of the present application when executing the drying method for the double-drum laundry processing device.

[0028] According to the fourth aspect of the embodiments of the present application, a double-drum clothing processing device is provided, which adopts the drying method proposed in the first aspect of the embodiments of the present application, or has the non-temporary computer-readable storage medium proposed in the second aspect of the embodiments of the present application, or has the control device proposed in the third aspect of the embodiments of the present application. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] The above and other objects, features and advantages of the present disclosure will become more apparent by describing in detail its exemplary embodiments with reference to the accompanying drawings. The accompanying drawings described below are only some embodiments of the present disclosure, and it is clear to a person skilled in the art that other accompanying drawings can be obtained from these accompanying drawings without creative work.

[0030] Figure 1 It is a structural diagram of a double-drum laundry processing device provided in an embodiment of the present application.

[0031] Figure 2 This is one of the drying flow charts of the double-drum clothes processing device according to the embodiment of the present application.

[0032] Figure 3 This is the second drying flow chart of the double-drum clothes processing equipment in the embodiment of the present application.

[0033] Figure 4 This is the third drying flow chart of the double-drum clothes processing equipment in the embodiment of the present application.

[0034] Figure 5 It is a drying flow chart of a double-drum laundry processing device according to a specific example of the present application.

[0035] Figure 6 It is a structural block diagram of a control device of a specific example of the present application.

[0036] Figure 7a This is a schematic diagram of the assembly structure of the air distribution component implementation method 1 of the present application;

[0037] Figure 7b This is a schematic diagram of an explosion structure of an implementation method 1 of the air distribution component of the present application;

[0038] Figure 7c This is a schematic diagram of the assembly structure of the first air distribution frame and the second air distribution frame embodiment of the air distribution component implementation method 1 of the present application.

[0039] Figure 7d It is a schematic diagram of the radial cross-sectional structure of the first air distribution frame and the second air distribution frame embodiment of the air distribution assembly implementation method 1 of the present application.

[0040] Figure 7e It is a schematic diagram of the axial cross-sectional structure of the first air distribution frame and the second air distribution frame embodiment of the air distribution assembly implementation method 1 of the present application.

[0041] Figure 7f This is a schematic structural diagram of an embodiment of the air distribution assembly provided by the present invention when one branch air outlet is open and the other branch air outlet is closed.

[0042] Figure 7g This is a schematic structural diagram of an embodiment of the air distribution assembly of the first embodiment of the present application in which one branch air outlet of the air distribution assembly is closed and the other branch air outlet is open.

[0043] Figure 7h This is a schematic structural diagram of an embodiment of the air distribution component implementation mode 1 of the present application when both branch air outlets of the air distribution component are open.

[0044] Figure 8a This is a schematic diagram of the assembly structure of an air distribution component embodiment of the second implementation mode of the air distribution component of the present application.

[0045] Figure 8bThis is a schematic diagram of the explosion structure of the second implementation mode of the air distribution component of the present application.

[0046] Figure 8c It is a schematic diagram of the assembly structure of the air distribution frame, the limit frame and the second driving member embodiment of the air distribution component implementation method 2 of the present application.

[0047] Figure 8d It is a schematic diagram of the radial cross-sectional structure of an embodiment of an air distribution frame, a limiting frame, a first driving member and a second driving member of the air distribution assembly implementation method 2 of the present application.

[0048] Figure 8e This is a schematic structural diagram of an example of an air distribution assembly of the second embodiment of the present application when the second air distribution frame structure and the proximal end of the second driving member cooperate.

[0049] Figure 8f This is a schematic structural diagram of an embodiment of the second embodiment of the air distribution assembly of the present application when the second air distribution frame structure and the remote end of the second driving member cooperate.

[0050] Figure 9a This is a schematic structural diagram of an example of an air distribution component of the third implementation mode of the air distribution component of the present application.

[0051] Figure 9b It is a schematic diagram of the assembly structure of the air distribution frame and the first connecting rod mechanism embodiment of the third implementation mode of the air distribution assembly of the present application.

[0052] Fig.9c It is an axial schematic diagram of the assembly structure of the air distribution frame, baffle, first connecting rod mechanism and second connecting rod mechanism embodiment of the third implementation mode of the air distribution assembly of the present application.

[0053] Figure 9d It is a cross-sectional schematic diagram of the assembly structure of the air distribution frame, baffle, first connecting rod mechanism and second connecting rod mechanism embodiment of the air distribution assembly implementation method three of the present application.

[0054] Fig.9e This is a schematic structural diagram of an embodiment of the air distribution assembly of the third implementation mode of the air distribution assembly of the present application when the first connecting rod mechanism is in a retracted state and the baffle is close to the lower branch of the air distribution chamber.

[0055] Figure 9f This is a schematic structural diagram of an embodiment of the third implementation mode of the air distribution assembly of the present application when the first connecting rod mechanism is in an extended state and the baffle is close to the lower branch of the air distribution chamber.

[0056] Figure 9g This is a schematic structural diagram of an embodiment of the third implementation mode of the air distribution assembly of the present application when the first connecting rod mechanism is in the extended state again and the baffle is close to the lower branch of the air distribution chamber.

[0057] Figure 9hThis is a schematic structural diagram of an embodiment of the third implementation mode of the air distribution assembly of the present application when the first connecting rod mechanism is in the retracted state again and the baffle is away from the lower branch of the air distribution chamber.

[0058] Figure 9i This is a schematic structural diagram of an embodiment of the third implementation mode of the air distribution assembly of the present application when the second connecting rod mechanism is in a retracted state and the baffle is away from the upper branch of the air distribution chamber.

[0059] Figure 9j This is a schematic structural diagram of an embodiment of the third implementation mode of the air distribution assembly of the present application when the second connecting rod mechanism is in a retracted state and the baffle is close to the upper branch of the air distribution chamber.

[0060] Figure 9k This is a schematic structural diagram of an embodiment of the third implementation mode of the air distribution assembly of the present application when the second connecting rod mechanism is in the retracted state again and the baffle is close to the upper branch of the air distribution chamber. DETAILED DESCRIPTION

[0061] In order to enable those skilled in the art to better understand the solution of the present application, the technical solution in the embodiments of the present application will be clearly and completely described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without creative work should fall within the scope of protection of the present application.

[0062] It should be understood that the "multiple" mentioned herein refers to two or more. In the description of the embodiments of the present application, unless otherwise specified, " / " means or, for example, A / B can mean A or B; "and / or" in this article is only a description of the association relationship of the associated objects, indicating that there can be three relationships, for example, A and / or B can mean: A exists alone, A and B exist at the same time, and B exists alone. In addition, in order to facilitate the clear description of the technical solution of the embodiments of the present application, in the embodiments of the present application, the words "first", "second" and the like are used to distinguish between the same items or similar items with basically the same functions and effects. Those skilled in the art can understand that the words "first", "second" and the like do not limit the quantity and execution order, and the words "first", "second" and the like do not limit them to be necessarily different.

[0063] In addition, the terms "comprises," "comprising," and "having," and any variations thereof, are intended to cover non-exclusive inclusions. For example, a process, method, system, product, or apparatus that includes a series of steps or elements is not necessarily limited to those steps or elements explicitly listed, but may include other steps or elements not explicitly listed or inherent to such process, method, product, or apparatus.

[0064] In the related art, when a double-drum clothing processing device uses a set of drying systems to dry two drums, if the first drum has just entered the drying program and the second drum is in the drying program, the wet and cold air in the first drum will mix with the dry and hot air in the second drum, causing the temperature of the air inlet of the second drum to drop rapidly, but the temperature drop rate of the air outlet in the second drum will be much lower than the temperature drop rate of the air inlet, resulting in a smaller temperature difference between the inlet and outlet of the second drum. When the second drum uses the inlet and outlet temperature difference as a dryness judgment condition, the inlet and outlet temperature difference of the second drum becomes smaller due to the first drum entering the drying program, resulting in a false dryness judgment, and the clothes are not actually dried when the second drum reaches the dryness judgment condition.

[0065] In order to solve this technical problem, this embodiment proposes a drying method of a double-drum laundry processing device, the double-drum laundry processing device includes a first drum, a second drum and a common drying module, the common drying module is used to generate hot air and can transport the hot air to the first drum and / or the second drum, and absorb moisture in the hot air recovered from the first drum and / or the second drum, and the control method includes:

[0066] When the first drum enters the drying program, determining the running state of the second drum;

[0067] When the second drum is in the drying program, the drying strategy of the second drum is controlled according to the load level of the first drum.

[0068] In this embodiment, when hot air is delivered to two drums through a common drying module, when the first drum enters the drying stage, if the second drum is already in the drying program, the drying strategy of the second drum is controlled by the different load levels of the first drum, so that the drying stage is carried out when the temperature of the drying airflow delivered to the second drum by the drying module is stable, thereby achieving accurate drying of the clothes in the second drum.

[0069] The technical solution of this embodiment is described in detail below in conjunction with the accompanying drawings. The following implementation modes and examples may be combined with each other if there is no conflict.

[0070] First, the structure of the implementation body of the drying method of this embodiment is briefly introduced.

[0071] like Figure 1 As shown, the drying method of this embodiment is applied to a double-drum laundry processing device, both drums of the double-drum laundry processing device have a drying function, and at least one of the two drums has a washing function. The double-drum laundry processing device includes a first drum 1, a second drum 2 and a common drying module, and the common drying module is used to generate hot air and can transport the hot air to the first drum 1 and / or the second drum 2, and absorb moisture in the hot air recovered from the first drum and / or the second drum 2.

[0072] Specifically, the first drum 1 and the second drum 2 are stacked in the housing from top to bottom, the first drum 1 is provided with a first air inlet and a first air outlet, and the second drum 2 is provided with a second air inlet and a second air outlet. The common drying module is respectively introduced into the first drum 1 and the second drum 2 through the first air inlet and the second air inlet, and absorbs moisture in the hot air recovered from the first drum 1 and the second drum 2 through the first air outlet and the second air outlet.

[0073] The shared drying module includes an air duct assembly, a fan component 83 and a heating module. The air duct assembly includes a shared air duct 9, a first air inlet duct 4, a first air outlet duct 6, a second air inlet duct 5, a second air outlet duct 7, a first air door and a second air door. The first air inlet duct 4 connects the first air inlet with the air outlet end of the shared air duct 9, the first air outlet duct 6 connects the first air outlet with the air inlet end of the shared air duct 9, the second air inlet duct 5 connects the second air inlet with the air outlet end of the shared air duct 9, and the second air outlet duct 7 connects the second air outlet with the air inlet end of the shared air duct 9. The shared air duct 9 is provided at the first Between the first tube 1 and the second tube 2, a first air gate is arranged at the air outlet end of the common air duct 9, and the first air gate is constructed to connect one of the first air inlet duct 4 and the second air inlet duct 5 with the common air duct 9, or to connect both the first air inlet duct 4 and the second air inlet duct 5 with the common air duct 9; a second air gate is arranged at the air inlet end of the common air duct 9, and the second air gate is constructed to connect one of the first air outlet duct 6 and the second air outlet duct 7 with the common air duct 9, or to connect both the first air outlet duct 6 and the second air outlet duct 7 with the common air duct 9; a fan component 83 is arranged in the common air duct 9.

[0074] The heating method of the heating device can be electric heating or heat pump heating. In one example, the heating device includes a compressor, an evaporator, a throttling device and a condenser, and the compressor is arranged in the space between the shell and the bottom of the second cylinder 2. The evaporator and the condenser are integrated in the two-device box body, and the two-device box body is arranged in the common air duct 9 and is located downstream of the air outlet end of the fan component 83. The condenser is arranged away from the air duct component relative to the evaporator. The compressor, condenser, throttling device and evaporator are connected in sequence to form a refrigerant circulation loop.

[0075] The double-drum laundry processing device further comprises a first temperature detection device and a second temperature detection device, wherein the first temperature detection device is arranged at the first air inlet for detecting the temperature of the first air inlet, and the second temperature detection device is arranged at the first air outlet for detecting the temperature of the first air outlet.

[0076] The double-drum laundry processing device further comprises a third temperature detection device and a fourth temperature detection device, wherein the third temperature detection device is arranged at the second air inlet for detecting the temperature of the second air inlet, and the fourth temperature detection device is arranged at the second air outlet for detecting the temperature of the second air outlet.

[0077] The drying method of the double-drum laundry processing device of this embodiment is described in detail below.

[0078] This embodiment provides a drying method for a double-drum laundry processing device, combining Figure 2 The drying flow chart of the present invention comprises the following steps:

[0079] S21. When the first drum enters a drying process, determining the operating state of the second drum.

[0080] Specifically, when receiving the drying instruction of the first drum, the present embodiment controls the common drying module to deliver hot air flow to the first drum to dry the first drum. If the second drum is in the drying program at this time, the wet and cold gas of the first drum will affect the accuracy of the dryness judgment of the second drum. Therefore, it is necessary to judge the operating status of the second drum to determine whether the first drum entering the drying process will affect the normal operation of the second drum according to the operating status of the second drum.

[0081] S22: When the second drum is in the drying process, the drying strategy of the second drum is controlled according to the load level of the first drum.

[0082] Specifically, if it is determined that the second drum is in a washing state or is not in a drying program, the conventional drying program is executed. The second drum is in a drying program. In order to reduce the error of the second drum in judging dryness, the load level of the first drum needs to be further determined. A plurality of load levels are preset in the control device of the double-drum clothing processing device, and different load levels correspond to different judgment strategies for the second drum. In a specific implementation, the load level of the first drum can be determined according to the load level parameter input by the user. For example, before the first drum enters the drying stage, the user inputs the load level of the first drum as "multiple load" through the control terminal, and the load level of the first drum is determined to be a multi-load level, or the user inputs the load level of the first drum as "less load" through the control terminal, and the less load level of the first drum is determined to be a multi-load level. For example, the load level has a preset corresponding relationship with the load weight, and the load level corresponding to the load in the first drum is determined by weighing the load in the first drum. For example, when the load weight is greater than the set weight, the load level is determined to be a multi-load level, and when the load weight is less than or equal to the set weight, the load level is determined to be a less load level.

[0083] In an optional implementation, the drying strategy of the second cylinder is controlled according to the load level of the first cylinder, including: when the load level of the first cylinder is a multi-load level, the second cylinder is controlled to enter the drying stage according to the increase of the outlet air temperature of the second cylinder and the temperature difference between the inlet air temperature and the outlet air temperature of the second cylinder; when the load level of the first cylinder is a low-load level, the second cylinder is controlled to enter the drying stage according to the change of the inlet air temperature of the second cylinder and the temperature difference between the inlet air temperature and the outlet air temperature of the second cylinder.

[0084] Specifically, when the second drum is in the drying process and the first drum is switched to drying, the inlet temperature fluctuation of the second drum will be large, but the increase of the outlet temperature will be small. At this time, the load in the first drum is detected. When the load level in the first drum is detected to be a high load level, the inlet temperature of the second drum will take a long time to stabilize. There is no need to wait for the inlet temperature of the second drum to stabilize. The outlet temperature increase of the second drum and the inlet and outlet temperature difference are directly used as the conditions for the first drum to enter the drying stage; when it is detected that the load in the first drum is a low load level, the inlet temperature of the second drum will take a short time to stabilize. You can directly wait for the inlet temperature of the second drum to stabilize, and then judge whether to enter the drying stage based on the inlet and outlet temperature difference to dry the clothes.

[0085] It should be noted that the air inlet temperature of the second drum defined in this embodiment is the temperature of the air flow flowing into the second drum from the common drying module, and the air outlet temperature of the second drum is the temperature of the air flow flowing out of the second drum.

[0086] In one example, when the load level of the first drum is a high load level, the greater the increase in the outlet temperature of the second drum, the more stable the temperature of the drying air flow delivered to the second drum by the common drying module, and the more stable the inlet temperature of the second drum; when the load level of the first drum is a low load level, the smaller the change in the inlet temperature of the second drum, the more stable the temperature of the drying air flow delivered to the second drum by the common drying module, and the more stable the inlet temperature of the second drum.

[0087] In one example, combining Figure 3 The drying process flow chart of FIG. 1 includes the following steps: controlling the second drum to enter the drying stage according to the increase of the outlet air temperature of the second drum and the temperature difference between the inlet air temperature and the outlet air temperature of the second drum:

[0088] S31, determining the increase in the outlet air temperature of the second tube within a first set time period;

[0089] S32, when the increase amount of the outlet air temperature of the second cylinder is greater than or equal to the set increase amount, determining the temperature difference between the inlet air temperature and the outlet air temperature of the second cylinder;

[0090] S33. When the temperature difference is less than the set temperature difference, the second drum is controlled to enter the dryness determination stage.

[0091] Specifically, when it is determined that the load level in the second drum is a multi-load level, it takes a long time for the inlet air temperature to return to stability. At this time, the increase in the outlet air temperature of the second drum within the first set time period is determined to determine whether the temperature of the air flow delivered to the second drum by the drying module has reached a stable state. When the increase in the outlet air temperature of the second drum is greater than or equal to the set increase, it means that the temperature of the air flow delivered to the second drum by the drying module tends to be stable, and the dryness judgment error is small. Then continue to detect the temperature difference between the inlet air temperature and the outlet air temperature. When the temperature difference between the inlet air temperature and the outlet air temperature reaches the set temperature difference, it means that the inlet and outlet air temperature difference of the second drum reaches the dryness judgment temperature difference, and the second drum can enter the dryness judgment stage to carry out the subsequent dryness judgment process.

[0092] In one example, combining Figure 4 The drying process flow chart of the second drum includes the following steps: controlling the second drum to enter the drying stage according to the change of the inlet air temperature of the second drum and the temperature difference between the inlet air temperature and the outlet air temperature of the second drum:

[0093] S41, determining a change in the inlet air temperature of the second tube within a second set time period;

[0094] S42, when the change amount of the inlet air temperature of the second cylinder is less than or equal to the set change amount, determining the temperature difference between the inlet air temperature and the outlet air temperature of the second cylinder;

[0095] S43: When the temperature difference is less than the set temperature difference, the second drum is controlled to enter the dryness determination stage.

[0096] Specifically, when it is determined that the load level in the second drum is a small load level, the time for the inlet air temperature to return to stability is short. At this time, whether the air flow temperature delivered by the drying module to the second drum has reached a stable state is directly determined based on the change in the inlet air temperature of the second drum within the second set time. The change in the inlet air temperature is the absolute value of the difference between two adjacent inlet air temperature detection values.

[0097] When the change in the inlet air temperature of the second drum is less than or equal to the set change, it means that the temperature of the air flow delivered to the second drum by the drying module tends to be stable, and the dryness judgment error is small. Then continue to detect the temperature difference between the inlet air temperature and the outlet air temperature. When the temperature difference between the inlet air temperature and the outlet air temperature reaches the set temperature difference, it means that the inlet and outlet air temperature difference of the second drum reaches the dryness judgment temperature difference, and the second drum can enter the dryness judgment stage for the subsequent dryness judgment process.

[0098] The drying process of the drying stage of this embodiment can determine whether the drying condition is met according to the temperature or humidity of the second drum. In one example, when the number of times the inlet and outlet air temperature difference of the second drum reaches the drying temperature difference reaches a set number, it means that the clothes in the second drum are already in a dry state, and the second drum drying ends.

[0099] In an optional implementation, before the step of controlling the drying strategy of the second drum according to the load level of the first drum, the control method further includes: first determining whether the second drum is in the drying stage. If the second drum is in the drying stage, exiting the drying stage to avoid the situation where the wet and cold air of the first drum after the first drum enters the drying causes the second drum to have a drying error, and after exiting the drying program, executing the step of controlling the drying strategy of the second drum according to the load level of the first drum to improve the drying accuracy.

[0100] In general, the drying method of this embodiment is that when one drum is in the drying process and the other drum enters the drying process, under the influence of the wet and cold airflow of the drum that enters the drying process later, the inlet temperature of the drum that enters the drying process first will fluctuate greatly, but the increase in the outlet temperature will be very small, which will cause the inlet and outlet temperature difference of the drum that enters the drying process first to become smaller. When the drum that enters the drying process first uses the inlet and outlet temperature difference as a dryness judgment condition, it will cause a dryness judgment error in the drum that enters the drying process first, and the clothes are not dried when the dryness judgment condition is met. Taking into account that the load of the drying drum that enters later affects the time for the inlet air temperature of the drying drum that enters earlier to return to stability, this embodiment determines the load level of the drying drum that enters later, and when the load level in the drying drum later is multiple load levels, determines whether the drying drum that enters earlier meets the drying condition by the increase in the outlet air temperature of the drying drum earlier and the inlet-outlet temperature difference; when the load level of the drying drum is a low load level, determines whether the drying drum that enters earlier meets the drying condition by the change in the inlet air temperature of the drying drum earlier and the inlet-outlet temperature difference, so as to reduce the drying error of the drying drum that enters earlier and ensure the drying effect.

[0101] The drying method of this embodiment is described in detail below with reference to a specific example.

[0102] Reference Figure 5 The drying process flow chart includes the following steps:

[0103] S51, the first drum enters the drying process and the second drum is in the drying process;

[0104] S52, judging whether the second drum is in the dry stage, if the judgment result is yes, proceeding to S53, if the judgment result is no, proceeding to S54;

[0105] S53, exit the determination stage and enter S54;

[0106] S54, judging whether the load level of the first cylinder is a multi-load level, if the judgment result is yes, proceeding to S55, if the judgment result is no, proceeding to S56;

[0107] S55, determining the increase in the outlet air temperature of the second tube, and proceeding to S551;

[0108] S551, determining whether the increase in the outlet air temperature within the first set time period is greater than or equal to the set increase; if the determination result is yes, proceed to S552; if the determination result is no, return to S55;

[0109] S552, judging whether the temperature difference between the inlet air temperature and the outlet air temperature of the second drum is less than the set temperature difference, if the judgment result is yes, entering the dryness judgment stage, if the judgment result is no, returning to S5;

[0110] S56, determining the change in the inlet air temperature of the second cylinder, and proceeding to S561;

[0111] S561, determining whether the change in the inlet air temperature within the second set time period is less than or equal to the set change; if the determination result is yes, proceed to S562; if the determination result is no, return to S56;

[0112] S562, determine whether the temperature difference between the inlet air temperature and the outlet air temperature of the second cylinder is less than the set temperature difference. If the judgment result is yes, enter the dryness judgment stage. If the judgment result is no, return to S6.

[0113] The embodiment of the present application also provides a non-transitory computer-readable storage medium having program instructions stored thereon. When the program instructions are executed by one or more processors, the one or more processors are used to implement the drying method proposed above.

[0114] An embodiment of the present application also provides a control device, which includes a memory and a processor, wherein the memory stores a drying method for a double-drum laundry processing device, and the processor is used to adopt the drying method proposed above when executing the drying method for the double-drum laundry processing device.

[0115] Specifically, Figure 6 As shown, the control device includes a processor 100, at least one communication bus 200, a user interface 300, at least one external communication interface 400 and a memory 500. The communication bus 200 is configured to realize the connection and communication between these components. The user interface 300 may include a display screen, and the external communication interface 400 may include a standard wired interface and a wireless interface. The memory 500 stores a drying method for a double-drum laundry processing device. The processor 100 is used to adopt the above method when executing the drying method for a double-drum laundry processing device stored in the memory 500.

[0116] The present embodiment also provides a double-drum laundry processing device, which adopts the drying method proposed above, or has the non-transitory computer-readable storage medium proposed above, or has the control device proposed above.

[0117] In an optional implementation of an embodiment of the present application, a double-drum clothing processing device includes: a first drum and a second drum, the first drum is provided with a first air inlet and a first air outlet, and the second drum is provided with a second air inlet and a second air outlet; a common drying module is respectively introduced into the first drum and the second drum through the first air inlet and the second air inlet, and absorbs moisture in the hot air recovered from the first drum and the second drum through the first air outlet and the second air outlet; in the case where the clothing processing device has a control device, the control device is configured to: when the first drum enters the drying process and the second drum is in the drying program, control the drying strategy of the second drum according to the load level of the first drum.

[0118] The double-drum clothing processing of this embodiment also includes an air separation component, which connects the air outlet end of the main air duct with the first air inlet duct and the second air inlet duct to switch the connection state between the main air duct and the first air inlet duct and the second air inlet duct; and / or, the air separation component connects the air inlet end of the main air duct with the first air outlet duct and the second air inlet duct to switch the connection state between the main air duct and the first air outlet duct and the second air outlet duct.

[0119] The structure of the air distribution assembly is introduced below with respect to different implementation methods.

[0120] In the first embodiment of the air distribution component:

[0121] like Figure 7a to Figure 7h As shown, the air distribution assembly includes:

[0122] The air-dividing shell 2 is formed with a main air duct 231, a main air outlet 241 is formed at one axial end of the main air duct 231, and a plurality of branch air outlets 242 are formed on the side wall of the main air duct 231; the main air outlet 241 and the branch air outlet 242 are both connected to the main air duct 231; specifically, the air-dividing shell 2 includes a main shell 21 and a plurality of branch shells 22, the main shell 21 is a cylindrical structure, the plurality of branch shells 22 are arranged at intervals along the circumference of the main shell 21 on the outside of the main air duct 231, and each branch shell 22 is formed with a branch air duct 232, and the plurality of branch air ducts 232 and the plurality of branch air outlets 242 are connected one-to-one.

[0123] The first wind distribution frame 31 and the second wind distribution frame 32 are both located in the main wind duct 231 and are arranged in the following manner: the first wind distribution frame 31 and the second wind distribution frame 32 can rotate synchronously around the center line of the main wind duct 231, and the second wind distribution frame 32 can slide along the radial direction of the main wind duct 231 relative to the first wind distribution frame 31; a baffle 33 is arranged at one end of the second wind distribution frame 32 away from the first wind distribution frame 31, and the baffle 33 can open or close any branch air outlet 242 as the second wind distribution frame 32 rotates; the baffle 33 is close to the first wind distribution frame 31, and the baffle 33 is arranged at the end of the second wind distribution frame 32 away from the first wind distribution frame 31, and the baffle 33 can open or close any branch air outlet 242 as the second wind distribution frame 32 rotates; the baffle 33 is close to the first wind distribution frame 31, and ... A seal 36 is provided on one side of the side wall near the main air duct 231; the seal 36 is made of rubber material and is nested on the baffle 33; specifically, the baffle 33 is arc-shaped, and the baffle 33 and the main air duct 231 are coaxially arranged; the baffle 33 can close one of the multiple branch air ports 242 and open the other branch air ports 242 or open all the branch air ports 242; when the branch air ports 242 are opened, the movement of the first air distribution frame 31 is controlled to make the baffle 33 move with the second air distribution frame 32, and the opening size of the branch air ports 242 can be adjusted. The second air distribution frame 32 is provided with a first state and a second state; when the second air distribution frame 32 is in the first state, the second air distribution frame 32 is close to the center line of the main air duct 231, the baffle plate 33 is away from the side wall of the main air duct 231, and the seal 36 can open any branch air outlet 242; when the second air distribution frame 32 is in the second state, the second air distribution frame 32 is away from the center line of the main air duct 231, the baffle plate 33 is close to the side wall of the main air duct 231, and the seal 36 can seal any branch air outlet 242.

[0124] Furthermore, a telescopic mechanism is arranged between the first air distribution frame 31 and the second air distribution frame 32; when the second air distribution frame 32 rotates with the first air distribution frame 31, under the action of the telescopic mechanism, the second air distribution frame 32 can be converted between the first state and the second state, thereby adjusting the radial distance between the first air distribution frame 31 and the second air distribution frame 32 in the main air duct 231.

[0125] The specific structure of the first air distribution frame 31 and the second air distribution frame 32 is described below. The first air distribution frame 31 includes an A frame segment 312 and a B frame segment 311 which are sequentially arranged from the inside to the outside along the radial direction of the main air duct 231. The A frame segment 312 is rotatably arranged in the main air duct 231 around the center line of the main air duct 231, and the B frame segment 311 extends along the radial direction of the main air duct 231. The A frame segment 312 and the B frame segment 311 are connected; the A frame segment 312 and the B frame segment 311 are integrally formed.

[0126] The second air distribution frame 32 includes a C frame segment 321 and a D frame segment 322 which are sequentially arranged from the inside to the outside along the radial direction of the main air duct 231, and the C frame segment 321 and the D frame segment 322 are integrally formed, and the C frame segment 321 extends radially along the main air duct 231, and the D frame segment 322 is connected to the C frame segment 321; the side of the D frame segment 322 away from the C frame segment 321 is an arc-shaped structure and is provided with a baffle 33; the baffle 33 can be integrally formed with the second air distribution frame 32; the B frame segment and the C frame segment are slidably connected by a sliding structure, and one of the A frame segment 312 and the B frame segment 311 is connected to one of the C frame segment 321 and the D frame segment 322 by a telescopic mechanism; when the first air distribution frame 31 and the second air distribution frame 32 rotate synchronously, the first air distribution frame 31 can slide relative to the second air distribution frame 32 in the radial direction of the main air duct 231.

[0127] The following is an explanation of the specific method of switching the second air distribution frame 32 between the first state and the second state. The telescopic mechanism includes an elastic member 41 and a traction rope 42. The elastic member 41 is arranged between the B frame segment 311 and the C frame segment 321. One end of the traction rope 42 can be wound around the A frame segment 312, and the other end of the traction rope 42 is connected to the C frame segment 321 or the D frame segment 322. When the A frame segment 312 is controlled to rotate and one end of the traction rope 42 is wound, the C frame segment 321 is relative to the B frame segment 312. 11 slides and approaches the center line of the main air duct 231, and the elastic member 41 stores energy; at this time, the baffle 33 is away from the branch air outlet 242 along the circumferential and radial directions of the main air duct 231; when the A frame segment 312 is controlled to rotate and one end of the traction rope 42 is loosened, the elastic member 41 releases energy, and under the action of the elastic member 41, the C frame segment 321 slides relative to the B frame segment 311 and moves away from the center line of the main air duct 231; at this time, the baffle 33 is close to the branch air outlet 242 along the circumferential and radial directions of the main air duct 231.

[0128] Furthermore, one of the B frame segment 311 and the C frame segment 321 is formed with a sliding column, and the other is formed with a sliding hole; the sliding column and the sliding hole cooperate to make the B frame segment 311 and the C frame segment 321 slidingly connected; the sliding column is formed with a mounting hole, the mounting hole and the sliding hole are connected, a part of the elastic member 41 is arranged in the mounting hole, and the other part is arranged in the sliding hole; when the C frame segment 321 slides relative to the B frame segment 311, the elastic member 41 can be elastically deformed in the mounting hole and the sliding hole; preferably, the B frame segment 311 is formed with a sliding column, the C frame segment 321 is formed with a sliding hole, and the elastic member 41 is a spring.

[0129] The following is a further explanation of the driving structure required for the rotation of the turntable 43. The A frame segment 312 is provided with a turntable 43 that can rotate around the center line of the main air duct; the connection position between the traction rope 42 and the A frame segment 312 and the center line of the main air duct 231 are spaced apart in the radial direction of the A frame segment 312.

[0130] The A frame section 312 is formed with a plurality of first baffle ribs 313, and the plurality of first baffle ribs 313 are arranged at intervals along the circumference of the A frame section 312; the turntable 43 is formed with a plurality of second baffle ribs 431, and the plurality of second baffle ribs 431 are arranged at intervals along the circumference of the turntable 43; the first baffle ribs 313 and the second baffle ribs 431 both extend radially along the main air duct 231; when the A frame section 312 rotates, the first baffle ribs 313 and the second baffle ribs 431 cooperate to rotate the turntable 43, and then one end of the traction rope 42 can be wound around the turntable 43, and under the action of the traction rope 42, the second air distribution frame 32 slides relative to the first air distribution frame 31 in a direction close to the center line of the main air duct 231; or one end of the traction rope 42 is loosened on the turntable 43, and under the action of the elastic member 41, the second air distribution frame 32 slides relative to the first air distribution frame 31 in a direction away from the center line of the main air duct 231.

[0131] When the baffle 33 is at the branch air outlet 243, the turntable 43 will not be entangled with the traction rope 42, so the compression of the elastic member 41 will not increase and it will be in a natural extrusion state, and the sealing member 36 and the side wall of the main air duct 231 have an interference fit, which can squeeze the branch air outlet 243 to achieve a sealing effect; when the turntable 43 is wrapped around the traction rope 42, the compression of the elastic member 41 will increase, reducing the radial distance between the first air distribution frame 31 and the second air distribution frame 32 in the main air duct 231, and increasing the distance between the baffle 33 and the side wall of the main air duct 231. Therefore, when the baffle 33 rotates, there will be no friction between the sealing member 36 and the side wall of the main air duct 231, which can reduce the wear of the sealing member 36 and reduce problems such as abnormal noise caused by friction.

[0132] The angle between the first retaining rib 313 and the second retaining rib 431 is related to the distance between the connection position and the center line of the main air duct and the outer diameter of the turntable 43. When the traction rope 42 is in a natural unwound state, the point where the traction rope 42 is connected to the turntable 43 is the rotation origin; when the traction rope 42 is wound around the turntable 43, the traction rope 42 will be wound around the periphery of the turntable 43, and the circumference of the wound turntable 43 is the compression amount of the control elastic member 41, so the certain angle is calculated based on the circumference of the wound turntable 43 and the diameter of the turntable 43; specifically, the second retaining rib 431 will be set on both sides of the rotation origin on the turntable 43 according to the calculated certain angle, that is, the length of the traction rope 42 to be wound, and the first retaining rib 313 will also be designed on both sides of the A frame section 312, and the distance between the first retaining rib 313 and the second retaining rib 431 is also the angle corresponding to the length of the traction rope 42 to be wound.

[0133] The radial distance between the C frame segment 321 and the B frame segment 311 in the main air duct 231 is related to the connection position between the traction rope 42 and the A frame segment 312, that is, by adjusting the connection position between the traction rope 42 and the A frame segment 312, the effective traction length of the traction rope 42 can be adjusted, and then the radial distance between the C frame segment 321 and the B frame segment 311 in the main air duct 231 can be adjusted; therefore, the connection position between the traction rope 42 and the A frame segment 312 is designed to be adjustable; when the second air distribution frame 32 is in the second state, by adjusting the connection position between the traction rope 42 and the A frame segment 312, the distance between the baffle 33 and the side wall of the main air duct 231 can be adjusted, and then the sealing degree of the seal 36 to the branch air outlet 242 can be adjusted.

[0134] In addition, an axial hole is formed at the other axial end of the main air duct 231; the air distribution assembly also includes a drive motor 35 and a limit frame 34, the drive motor 35 is arranged on the outside of the air distribution shell 2 and at one end away from the main air outlet 241, and the output shaft of the drive motor 35 passes through the axial hole and is connected to the turntable drive; when the drive motor 35 drives the turntable 43 to rotate, the A frame segment 312 rotates under the action of the first retaining rib and the second retaining rib; the limit frame 34 is arranged in the main air duct 231 and the limit frame 34 abuts against the A frame segment 312, which is used to play an axial limiting role on the A frame segment 312; specifically, the limit frame 34 is Z-shaped.

[0135] When the control driving motor 35 drives the turntable 43 to rotate, the A frame segment 312 rotates under the action of the first baffle 313 and the second baffle 431, and then drives the B frame segment 311, the C frame segment 321 and the D frame segment 322 to rotate; the traction rope 42 is wrapped around the periphery of the turntable 43, so that the radial distance between the B frame segment 311 and the C frame segment 321 in the main air duct 231 is reduced, thereby increasing the distance between the baffle 33 and the side wall of the main air duct 231. When the drive motor 35 rotates to the set angle program, it stops rotating and the turntable 43 stops rotating. Then, the drive motor 35 continues to be controlled to rotate in the opposite direction by a certain angle. The certain angle is the angle corresponding to the circumference of the winding turntable 43 calculated as above. Therefore, the turntable 43 rotates to release the traction rope 42. Under the action of the elastic member 41, the radial distance between the first air distribution frame 31 and the second air distribution frame 32 in the main air duct 231 increases, and the distance between the baffle 33 and the side wall of the main air duct 231 decreases. The sealing member 36 seals the branch air outlet; the structure is simple and the cost is low.

[0136] In the second embodiment of the air distribution component:

[0137] like Figures 8a to 8f As shown, the air distribution assembly includes:

[0138] The air-dividing shell 2 is formed with a main air duct 231, a main air outlet 241 is formed at one axial end of the main air duct 231, and a plurality of branch air outlets 242 are formed on the side wall of the main air duct 231; the main air outlet 241 and the branch air outlet 242 are both connected to the main air duct 231; specifically, the air-dividing shell 2 includes a main shell 21 and a plurality of branch shells 22, the main shell 21 is a cylindrical structure, the plurality of branch shells 22 are arranged at intervals along the circumference of the main shell 21 on the outside of the main air duct 231, and each branch shell 22 is formed with a branch air duct 232, and the plurality of branch air ducts 232 and the plurality of branch air outlets 242 are connected one-to-one.

[0139] The air distribution frame 31 is rotatably arranged in the main air duct 231; the air distribution frame 31 is formed with a first air distribution frame structure 313 and a second air distribution frame structure 314, and the first air distribution frame structure 313 and the second air distribution frame structure 314 are spaced apart in the radial direction of the air distribution frame 31; a baffle 32 is arranged on the side of the air distribution frame 31 away from the axis of the main air duct 231; a seal 34 is arranged on the side of the baffle 32 close to the side wall of the main air duct 231; the seal 34 is made of rubber material and is nested on the baffle 32; specifically, the baffle 32 is arc-shaped, and the baffle 32 and the main air duct 231 are coaxially arranged; the baffle 32 can close one of the multiple branch air ports 242 and open the other branch air ports 242 or open multiple branch air ports 242; when the branch air ports 242 are opened, the movement of the first air distribution frame 31 is controlled to make the baffle 32 move with the second air distribution frame, and the opening size of the branch air ports 242 can be adjusted.

[0140] The first driving member 41 and the second driving member 42, the first driving member 41 forms a first driving member structure 411, and the second driving member 42 forms a second driving member structure 421; the first driving member structure 411 and the second driving member structure 421 are both arranged in the main air duct 231; the first air distribution frame structure 313 and the first driving member structure 411 are drivingly connected, so that the first driving member 41 can drive the air distribution frame 31 to rotate around the axis of the main air duct 231; the second air distribution frame structure 314 and the second driving member structure 421 are drivingly connected, so that the second driving member 42 can drive the air distribution frame 31 to slide radially along the main air duct 231; the second driving member 42 can adjust the sliding distance of the air distribution frame 31 in the radial direction of the main air duct 231.

[0141] When the air distribution frame 31 rotates and slides, the baffle 32 moves away from the side wall of the main air duct 231, and the seal 34 can open any branch air outlet 242, thereby increasing the radial distance between the seal 34 and the side wall of the main air duct 231 and reducing the friction loss between the seal 34 and the side wall of the main air duct 231; or the baffle 32 moves close to the side wall of the main air duct 231, and the seal 34 can seal any branch air outlet 242, thereby increasing the degree of fit between the seal 34 and the side wall of the main air duct 231 and improving the sealing degree of the seal 34 to the branch air outlet 242.

[0142] The first air distribution frame structure 313 and the first driving member structure 411 are further explained below. The first air distribution frame structure 313 is a groove structure, and the first driving member structure 411 is a column structure. The first air distribution frame structure 313 and the first driving member structure 411 both extend radially along the main air duct 231, and the first driving member structure 411 is arranged in the first air distribution frame structure 313.

[0143] The first wind distribution frame structure 313 has a limiting effect on the first driving member structure 411 in the circumferential direction of the main air duct 231, so that the first driving member 41 can drive the wind distribution frame 31 to rotate; the first driving member structure 411 and the first wind distribution frame structure 313 slide in the radial direction of the main air duct 231, and then the wind distribution frame 31 can slide relative to the first driving member 41; that is, when the first driving member 41 drives the first wind distribution frame 31 to rotate, the first wind distribution frame 31 can slide along the radial direction of the main air duct 231. Further, the cross-sections of the first wind distribution frame structure 313 and the first driving member structure 411 are both waist-shaped.

[0144] The second air distribution frame structure 314 and the second driving member structure 421 are further explained below. The second air distribution frame structure 314 is a column structure, and the second driving member structure 421 is a groove structure; along the extension direction of the second driving member structure 421, the second driving member structure 421 includes a proximal end and a distal end, and the radial distance between the proximal end and the axis of the main air duct 231 is smaller than the radial distance between the distal end and the axis of the main air duct 231; the second air distribution frame structure 314 can slide between the proximal end and the distal end along the second driving member structure 421.

[0145] When the second wind distribution frame structure 314 cooperates with the near-range end, the baffle 32 is close to the side wall of the main air duct 231; when the second wind distribution frame structure 314 cooperates with the remote end, the baffle 32 is close to the axis of the main air duct 231; that is, when the second wind distribution frame structure 314 changes from being coordinated with the near-range end to being coordinated with the remote end, the wind distribution frame 31 can slide along the radial direction of the main air duct 231, so that the baffle 32 gradually approaches the axis of the main air duct 231; when the second wind distribution frame structure 314 changes from being coordinated with the remote end to being coordinated with the near-range end, the wind distribution frame 31 can slide along the radial direction of the main air duct 231, so that the baffle 32 gradually approaches the side wall of the main air duct 231. The first wind distribution frame structure 313 includes a first radial end and a second radial end in the radial direction of the main air duct 231, and the first radial end and the second radial end are respectively located on both sides of the axis of the main air duct 231, the first radial end is located on a side close to the baffle 32, and the second radial end is located on a side away from the baffle 32.

[0146] The radial distance between the first radial end and the axis of the main air duct 231 and the radial distance between the remote end and the axis of the main air duct 231 determine the radial sliding range of the air distribution frame 31 and the maximum radial distance between the baffle 32 and the side wall of the main air duct 231; the radial distance between the first radial end and the axis of the main air duct 231 is designed to be greater than the radial distance between the remote end and the axis of the main air duct 231, so as to increase the radial sliding range of the air distribution frame 31 and the maximum radial distance between the baffle 32 and the side wall of the main air duct 231 when the baffle 32 is away from the branch air port 242; in this way, when the baffle 32 is away from the branch air port 242, the maximum radial distance between the baffle 32 and the side wall of the main air duct 231 is determined by the radial distance between the remote end and the axis of the main air duct 231; therefore, when the baffle 32 rotates, there will be no friction between the seal 34 and the side wall of the main air duct 231, which can reduce the wear of the seal 34 and reduce problems such as abnormal noise caused by friction.

[0147] The radial distance between the second radial end and the axis of the main air duct 231 and the radial distance between the proximal end and the axis of the main air duct 231 determine the radial sliding range of the air distribution frame 31 and the minimum radial distance between the baffle 32 and the side wall of the main air duct 231. The radial distance between the second radial end and the axis of the main air duct 231 is designed to be greater than the radial distance between the proximal end and the axis of the main air duct 231, so as to increase the radial sliding range of the air distribution frame 31 and reduce the minimum radial distance between the baffle 32 and the side wall of the main air duct 231; in this way, when the baffle 32 is close to the branch air port 242, the minimum radial distance between the baffle 32 and the side wall of the main air duct 231 is determined by the radial distance between the proximal end and the axis of the main air duct 231; the sealing member 34 and the side wall of the main air duct 231 have an interference fit, which can squeeze the branch air port 242 to achieve a sealing effect.

[0148] The second driving member 42 is detachably arranged in the main air duct 231, and the second driving member 42 with a suitable structure can be selected according to actual needs; when the structure of the second driving member 42 is different, the radial distance between the remote end and the axis of the main air duct 231 and the radial distance between the near end and the axis of the main air duct 231 are different, so that the second driving member 42 can be applied to different air distribution shells 2, thereby increasing the scope of application.

[0149] Further, the second driving member structure 421 is annular, that is, the second driving member structure 421 is an annular groove structure; the second driving member structure 421 is arranged around the outside of the first driving member structure 411; the second driving member structure 421 includes a convex arc segment 422 and a concave arc segment 423; the convex arc segment 422 is convex to the axis of the main air duct 231, the concave arc segment 423 is connected to the convex arc segment 422, and the concave arc segment 423 is concave to the side wall of the main air duct 231. The convex arc segment 422 is formed with a near-range end, and the concave arc segment 423 is formed with a far-range end; the second wind distribution frame structure 314 can cooperate with the near-range end when sliding along the convex arc segment 422, and can cooperate with the far-range end when sliding along the concave arc segment 423.

[0150] In some embodiments, multiple convex arc segments 422 and concave arc segments 423 are provided; multiple convex arc segments 422 are arranged at intervals, and a concave arc segment 423 is connected between two adjacent convex arc segments 422; each convex arc segment 422 is formed with multiple proximal ends, and the distance between at least two of the multiple proximal ends and the axis of the main air duct 231 is equal; when the second wind distribution frame structure 314 and the two proximal ends are matched, the degree to which the baffle 32 seals the branch air outlet 242 is close; each concave arc segment 423 is formed with multiple remote ends, and the distance between at least two of the multiple remote ends and the axis of the main air duct 231 is unequal; when the second wind distribution frame structure 314 and the two remote ends are matched, the distance between the baffle 32 and the side wall of the main air duct 231 is different; in this way, the rotation space of the wind distribution frame 31 is larger, and it can be suitable for different seals 34. Preferably, the second driving member 42 is a cam, the second driving member 42 and the first driving member 41 are coaxially arranged, and the second driving member 42 is stationary relative to the first driving member 41; a second driving member structure 421 is formed on the inner side of the second driving member 42; when different parts of the second air distribution frame structure 314 and the cam cooperate, the radial distance between the baffle 32 and the side wall of the main air duct 231 is different.

[0151] The second driving member 42 drives the air distribution frame 31 to slide radially along the main air duct 231, so that when the baffle 32 approaches the branch air port 242, the sealing member 34 and the side wall of the main air duct 231 have an interference fit, which can squeeze the branch air port 242 to achieve a sealing effect; the second driving member 42 drives the air distribution frame 31 to slide radially along the main air duct 231, so that when the baffle 32 moves away from the branch air port 242, the distance between the baffle 32 and the side wall of the main air duct 231 is increased. Therefore, when the baffle 32 rotates, there will be no friction between the sealing member 34 and the side wall of the main air duct 231, which can reduce the wear of the sealing member 34 and reduce problems such as abnormal noise caused by friction.

[0152] The air distribution frame 31 includes an A frame section 311 and a B frame section 312 which are sequentially arranged from the inside to the outside along the radial direction of the main air duct 231. The A frame section 311 extends radially along the main air duct 231, and the A frame section 311 and the B frame section 312 are integrally formed; the A frame section 311 is formed with a first air distribution frame structure 313 at a position corresponding to the axis of the main air duct 231, and the A frame section 311 is formed with a second air distribution frame structure 314 at one end away from the B frame section 312; along the radial direction of the main air duct 231 from the inside to the outside, the width of the A frame section 311 in the circumferential direction of the main air duct 231 gradually increases; the side of the B frame section 312 away from the A frame section 311 is in an arc-shaped structure and is provided with a baffle 32, and the baffle 32 can be integrally formed with the B frame section 312.

[0153] In addition, an axial hole is formed at the other axial end of the main air duct 231; the first driving member 41 is a driving motor, and the first driving member 41 is arranged on the outer side of the air distribution housing 2 and at one end away from the main air outlet 241, and the output shaft 412 of the first driving member 41 passes through the axial hole and enters the main air duct 231, and the end of the output shaft 412 is formed with a first driving member structure 411, and the first driving member structure 411 is drivingly connected to the first air distribution frame structure 313; the air distribution assembly also includes a limit frame 33 and a positioning member 3 5. The limit frame 33 is arranged in the main air duct 231 and abuts against the air distribution frame 31, and is used to limit the air distribution frame 31 in the axial direction; the positioning member 35 is arranged on the side wall of the main air duct 231 near the branch air outlet 242 and is located in the main air duct 231, and is used to position the baffle plate 32 when the baffle plate 32 moves to the branch air outlet 242, so that the position of the baffle plate 32 and the position of the branch air outlet 242 correspond in the radial direction of the main air duct 231; specifically, the limit frame 33 is Z-shaped.

[0154] In the third implementation of the air distribution component:

[0155] like Figures 9a to 9k As shown, this embodiment provides an air distribution component for a clothes processing device, especially for a clothes processing device with a drying function; the air distribution component includes:

[0156] The air-dividing shell 2 and the driving member 35, the air-dividing shell 2 is formed with an air-dividing chamber 211; an air-dividing chamber main opening 212 is formed at one axial end of the air-dividing chamber 211, and a plurality of air-dividing chamber branch openings are formed on the side wall of the air-dividing chamber 211; the air-dividing chamber main opening 212 and the air-dividing chamber branch openings are both connected to the air-dividing chamber 211; the driving member 35 includes an output shaft 351, and the output shaft 351 is arranged in the air-dividing chamber 211 and is coaxial with the axis of the air-dividing chamber 211.

[0157] The air distribution frame 31 is arranged in the air distribution chamber 211; along the radial direction of the air distribution chamber 211, a baffle 33 is arranged at one end of the air distribution frame 31, and the other end cooperates with the output shaft 351 and satisfies: the air distribution frame 31 can rotate around the output shaft 351 and can also move along the radial direction of the air distribution chamber 211; the air distribution frame 31 is also formed with a frame connection portion, which is located between the two ends of the air distribution frame 31.

[0158] The connecting rod mechanism is arranged in the air distribution chamber 211 and includes an inner connecting rod, an outer connecting rod and an elastic member; one end of the inner connecting rod is drivingly connected to the output shaft 351, one end of the outer connecting rod is hingedly connected to the other end of the inner connecting rod; the other end of the outer connecting rod is in contact with the baffle 33; the outer connecting rod is formed with a connecting rod connecting portion, and the connecting rod connecting portion is located between the two ends of the outer connecting rod; the connecting rod connecting portion and the frame connecting portion cooperate and meet the following conditions: the outer connecting rod can slide and rotate relative to the air distribution frame 31; the elastic member connects the frame connecting portion and the inner connecting rod. When the driving member 35 drives the inner connecting rod to rotate, the air distribution frame 31 moves under the action of the elastic member and the outer connecting rod, and then the baffle 33 can open or close any branch of the air distribution chamber.

[0159] Specifically, the air distribution shell 2 includes a main shell 21 and a branch shell 22. The main shell 21 is a cylindrical structure and is formed with an air distribution chamber 211; an axial end of the main shell 21 forms a main opening 212 of the air distribution chamber, and the other axial end of the main shell 21 forms an axial hole; the driving member 35 is a driving motor, the driving member 35 is arranged outside the air distribution chamber 211, and the output shaft 351 passes through the axial hole and enters the air distribution chamber 211; a plurality of branch shells 22 are arranged at intervals along the circumference of the main shell 21 on the outside of the air distribution chamber 211, and each branch shell 22 is formed with a branch air duct, and the plurality of branch air ducts are connected to the plurality of air distribution chamber branch openings one by one; the baffle 33 is close to the air distribution chamber 21 A sealing member 36 is provided on one side of the side wall of 1; the sealing member 36 is made of rubber material and is nested on the baffle plate 33; the baffle plate 33 is in an arc shape, and the baffle plate 33 and the air distribution chamber 211 are coaxially arranged; the baffle plate 33 can close one of the multiple air distribution chamber branch openings and open the other air distribution chamber branch openings or open the multiple air distribution chamber branch openings; when the air distribution chamber branch opening is opened, the baffle plate 33 is moved to adjust the opening size of the air distribution chamber branch opening; the air distribution assembly also includes a limiting frame 34, which is arranged in the air distribution chamber 211 and abuts against the air distribution frame 31, and is used to limit the air distribution frame 31 in the axial direction; specifically, the limiting frame 34 is in a Z shape.

[0160] When the air distribution frame 31 rotates and slides, the baffle 33 moves away from the side wall of the air distribution chamber 211, and the seal 36 can open any branch of the air distribution chamber, thereby increasing the radial distance between the seal 36 and the side wall of the air distribution chamber 211 and reducing the friction loss between the seal 36 and the side wall of the air distribution chamber 211; or the baffle 33 moves close to the side wall of the air distribution chamber 211, and the seal 36 can seal any branch of the air distribution chamber, thereby increasing the degree of fit between the seal 36 and the side wall of the air distribution chamber 211 and improving the degree of sealing of the air distribution chamber branch by the seal 36; the structure is simple and occupies little space; the ventilation modes are diverse and the ventilation volume is adjustable to meet different ventilation needs.

[0161] Furthermore, the baffle 33 includes a first abutment portion 331 and a second abutment portion 332 arranged at intervals along the circumference of the air distribution chamber 211. When the inner connecting rod rotates and the outer connecting rod rotates relative to the inner connecting rod in a first direction under the action of the elastic member, the air distribution frame 31 moves toward the axis of the air distribution chamber 211, and the baffle 33 can open the branch opening of the air distribution chamber; when the outer connecting rod abuts against the first abutment portion 331, the air distribution frame 31 can rotate. When the inner connecting rod rotates and the outer connecting rod rotates relative to the inner connecting rod in a second direction, the outer connecting rod abuts against the second abutment portion 332, causing the air distribution frame 31 to rotate and move toward the side wall of the air distribution chamber 211, and then the baffle 33 can close the branch opening of the air distribution chamber. Among them, the first direction is the direction in which the angle between the outer connecting rod and the inner connecting rod gradually decreases from 180 degrees to 0 degrees, and the second direction is the direction in which the angle between the outer connecting rod and the inner connecting rod gradually increases from 0 degrees to 180 degrees; when the angle between the outer connecting rod and the inner connecting rod decreases, the elastic member stores energy, and the baffle 33 moves toward the axis of the air distribution chamber 211 along with the air distribution frame 31; when the angle between the outer connecting rod and the inner connecting rod increases, the elastic member releases energy, and the baffle 33 moves toward the side wall of the air distribution chamber 211 along with the air distribution frame 31.

[0162] Specifically, the baffle plate 33 has an arc-shaped structure and the baffle plate 33 and the air distribution chamber 211 are coaxially arranged; the first abutment portion 331 is a convex rib, and the second abutment portion 332 is a groove; along the circumference of the baffle plate 33, the first abutment portion 331 is close to the edge of the baffle plate 33, and the second abutment portion 332 is far away from the edge of the baffle plate 33; the extension direction of the first abutment portion 331 and the extension direction of the second abutment portion 332 are both parallel to the axis of the air distribution chamber 211.

[0163] The matching structure between the air splitter frame 31 and the output shaft 351 is further described. An air splitter frame hole 311 is formed at one end of the air splitter frame 31 close to the axis of the air splitter chamber 211. The output shaft 351 includes an intermediate shaft section. The intermediate shaft section is inserted into the air splitter frame hole 311. The cross-sections of the air splitter frame hole 311 and the intermediate shaft section are both waist-shaped structures, and the length direction of the waist-shaped structure is the radial direction of the air splitter chamber 211. The matching structure between the air splitter frame 31 and the outer connecting rod is further described. The frame connection part is a column structure, the connecting rod connection part is a groove structure, and the extension direction of the connecting rod connection part is parallel to the axis of the air splitter chamber 211. The cross-sections of the frame connection part and the connecting rod connection part are both waist-shaped structures, and the length direction of the waist-shaped structure is the radial direction of the air splitter chamber 211. The inner connecting rod is also formed with an inner connecting column, and an elastic member is connected between the inner connecting column and the frame connection part.

[0164] The specific structure of the air distribution assembly is further explained below by taking the connecting rod structure including two as an example. The two connecting rod mechanisms are respectively the first connecting rod mechanism 41 and the second connecting rod mechanism 42; along the axial direction of the air distribution chamber 211, the first connecting rod mechanism 41 and the second connecting rod mechanism 42 are respectively arranged on both sides of the air distribution frame 31, and the first frame connecting part 321 and the second frame connecting part 322 are respectively formed on both sides of the air distribution frame 31, and the output shaft 351 is formed with a first shaft section and a second shaft section.

[0165] The inner link of the first link mechanism 41 is the first inner link 411, the outer link of the first link mechanism 41 is the first outer link 412, and the elastic member of the first link mechanism 41 is the first elastic member 413; one end of the first inner link 411 is drivingly connected to the first shaft segment, one end of the first outer link 412 is hingedly connected to the other end of the first inner link 411, the link connecting portion of the first outer link 412 is the first link connecting portion 414, and the first link connecting portion 414 cooperates with the first frame connecting portion 321; the first elastic member 413 connects the first frame connecting portion 321 and the first inner link 411.

[0166] The inner connecting rod of the second connecting rod mechanism 42 is the second inner connecting rod 421, the outer connecting rod of the second connecting rod mechanism 42 is the second outer connecting rod 422, and the elastic member of the second connecting rod mechanism 42 is the second elastic member 423; one end of the second inner connecting rod 421 is drivingly connected to the second shaft segment, one end of the second outer connecting rod 422 is hingedly connected to the other end of the second inner connecting rod 421, the connecting rod connecting part of the second outer connecting rod 422 is the second connecting rod connecting part 424, and the second connecting rod connecting part 424 cooperates with the second frame connecting part 322; the second elastic member 423 connects the second frame connecting part 322 and the first inner connecting rod 411; the first elastic member 413 and the second elastic member 423 are both tension springs.

[0167] Furthermore, the baffle 33 is provided with a retracted state close to the axis of the air distribution chamber 211 and an extended state close to the side wall of the air distribution chamber 211. The switching process of the baffle 33 between the retracted state and the extended state is described in the following two cases. First, when the baffle 33 is in the retracted state and the angle between the outer connecting rod and the inner connecting rod of the first connecting rod mechanism 41 is smaller than the angle between the outer connecting rod and the inner connecting rod of the second connecting rod mechanism 42, the output shaft 351 drives the inner connecting rod of the first connecting rod mechanism 41 and the inner connecting rod of the second connecting rod mechanism 42 to rotate. Under the action of the first elastic member 413 and the second elastic member 423, the angle between the first outer connecting rod 412 and the first inner connecting rod 411 and the angle between the second outer connecting rod 422 and the second inner connecting rod 421 are increased. The second outer connecting rod 422 abuts against the second abutting portion 332, so that the air distribution frame 31 moves toward the side wall of the air distribution chamber 211, and then the baffle 33 is in the extended state.

[0168] The output shaft 351 drives the first inner link 411 and the second inner link 421 to continue to rotate, and the angle between the first outer link 412 and the first inner link 411 continues to increase. Under the action of the first elastic member 413 and the second elastic member 423, the angle between the second outer link 422 and the second inner link 421 increases to 180° and then decreases in the reverse direction, causing the air distribution frame 31 to slide toward the axis of the air distribution chamber 211, and then the baffle 33 is in a retracted state again; when the second outer link 422 abuts against the second abutting portion 332, the air distribution frame 31 rotates.

[0169] Second, when the baffle 33 is in the retracted state and the angle between the first outer link 412 and the first inner link 411 is greater than the angle between the second outer link 422 and the second inner link 421, the output shaft 351 drives the first inner link 411 and the second inner link 421 to rotate, and under the action of the first elastic member 413 and the second elastic member 423, the angle between the first outer link 412 and the first inner link 411 and the angle between the second outer link 422 and the second inner link 421 are increased, and the first outer link 412 abuts against the first abutting portion 331, so that the air distribution frame 31 moves toward the axis of the air distribution chamber 211, and then the baffle 33 is in the extended state.

[0170] The output shaft 351 drives the first inner link 411 and the second inner link 421 to continue to rotate. Under the action of the first elastic member 413 and the second elastic member 423, the angle between the second outer link 422 and the second inner link 421 continues to increase. The angle between the first outer link 412 and the first inner link 411 increases to 180° and then decreases in the reverse direction, causing the air distribution frame 31 to move toward the axis of the air distribution chamber 211, and then the baffle 33 is in a retracted state again; when the first outer link 412 abuts against the first abutting portion 331, the air distribution frame 31 rotates.

[0171] The following further describes the multiple air chamber branch openings including the air chamber B1 branch opening 213 and the air chamber B2 branch opening 214 as an example;

[0172] First, when the air distribution frame 31 is in a retracted state and the radial upper baffle 33 of the air distribution chamber 211 corresponds to the branch opening 213 of the air distribution chamber B1, the angle between the first outer connecting rod 412 and the first inner connecting rod 411 is smaller than the angle between the second outer connecting rod 422 and the second inner connecting rod 421; the output shaft 351 drives the first inner connecting rod 411 and the second inner connecting rod 421 to rotate, and the angle between the first outer connecting rod 412 and the first inner connecting rod 411 and the angle between the second outer connecting rod 422 and the second inner connecting rod 421 are increased, and the second outer connecting rod 422 abuts against the second abutting portion 332, so that the second air distribution frame moves radially outward from the air distribution chamber 211, and then the air distribution frame 31 is in an extended state and closes the branch opening 213 of the air distribution chamber B1.

[0173] The output shaft 351 drives the first inner link 411 and the second inner link 421 to continue to rotate, and the angle between the first outer link 412 and the first inner link 411 continues to increase. The angle between the second outer link 422 and the second inner link 421 increases to 180° and then decreases in the opposite direction, so that the air distribution frame 31 moves radially inwardly of the air distribution chamber 211, and then the air distribution frame 31 is in a retracted state again and opens the branch port 213 of the air distribution chamber B1; when the second outer link 422 abuts against the second abutting portion 332, the air distribution frame 31 rotates.

[0174] Second, when the air distribution frame 31 is in the retracted state and the radial upper baffle 33 of the air distribution chamber 211 corresponds to the air distribution chamber B2 branch 214, the angle between the first outer connecting rod 412 and the first inner connecting rod 411 is greater than the angle between the second outer connecting rod 422 and the second inner connecting rod 421; the output shaft 351 drives the first inner connecting rod 411 and the second inner connecting rod 421 to rotate, and the angle between the first outer connecting rod 412 and the first inner connecting rod 411 and the angle between the second outer connecting rod 422 and the second inner connecting rod 421 are increased, and the first outer connecting rod 412 abuts against the first abutting portion 331, so that the air distribution frame 31 slides radially outward from the air distribution chamber 211, and then the air distribution frame 31 is in the extended state and closes the air distribution chamber B2 branch 214.

[0175] The output shaft 351 drives the first inner link 411 and the second inner link 421 to continue to rotate, and the angle between the second outer link 422 and the second inner link 421 continues to increase. The angle between the first outer link 412 and the first inner link 411 increases to 180° and then decreases in the reverse direction, causing the air distribution frame 31 to slide radially inwardly of the air distribution chamber 211, and then the air distribution frame 31 is in a retracted state again and opens the branch port 214 of the air distribution chamber B2; when the first outer link 412 abuts against the first abutting portion 331, the air distribution frame 31 rotates.

[0176] When the air distribution frame 31 makes the baffle 33 close to the branch opening of the air distribution chamber, the sealing member 36 and the side wall of the air distribution chamber 211 are interference fit, which can squeeze the branch opening of the air distribution chamber to achieve a sealing effect; when the air distribution frame 31 makes the baffle 33 away from the branch opening of the air distribution chamber, the distance between the baffle 33 and the side wall of the air distribution chamber 211 is increased; therefore, when the baffle 33 rotates, there will be no friction between the sealing member 36 and the side wall of the air distribution chamber 211, which can reduce the wear of the sealing member 36 and reduce problems such as abnormal noise caused by friction.

[0177] In the present application, the output shaft 351 of the driving member 35 is coaxially arranged with the first inner connecting rod 411, the second inner connecting rod 421 and the air distribution frame 31, and the assembly sequence is "driving member 35→first inner connecting rod 411→air distribution frame 31→second inner connecting rod 421→limiting frame 34", wherein the first inner connecting rod 411 and the second inner connecting rod 421 are all drivingly connected to the output shaft 351, and the driving member 35 is a stepping motor, and the driving member 35 can control the rotation of the first inner connecting rod 411 and the second inner connecting rod 421; when the first outer connecting rod 412 and the second outer connecting rod 422 are in contact with the baffle 33, the air distribution frame 31 is driven to rotate, and under the action of the elastic member, the air distribution frame 31 moves radially along the air distribution chamber 211, and the extension and contraction of the elastic member is achieved by changing the angle between the outer connecting rod and the inner connecting rod, so the present invention realizes a stepping motor to control the rotation and movement of the air distribution frame 31.

[0178] The sequence of the serial numbers or introduction of the embodiments of this application is for description only and does not represent the superiority or inferiority of the embodiments. The above is only the preferred implementation of this application. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principles of this application, and these improvements and modifications should also be regarded as the scope of protection of this application.

Claims

1. A drying method for a double-drum clothes processing device, characterized in that: The double-drum laundry processing device comprises a first drum, a second drum and a common drying module, wherein the common drying module is used to generate hot air and can deliver the hot air to the first drum and / or the second drum, and absorb moisture in the hot air recovered from the first drum and / or the second drum, and the control method comprises: When the first drum enters the drying program, determining the running state of the second drum; When the second drum is in a drying program, a drying strategy of the second drum is controlled according to the load level of the first drum.

2. The drying method of the double-drum laundry processing device according to claim 1, characterized in that: The method of controlling the dryness determination strategy of the second cylinder according to the load level of the first cylinder comprises: When the load level of the first drum is multiple load levels, the second drum is controlled to enter the dryness determination stage according to the increase of the outlet air temperature of the second drum and the temperature difference between the inlet air temperature and the outlet air temperature of the second drum; When the load level of the first cylinder is a light load level, the second cylinder is controlled to enter the dryness determination stage according to the change in the inlet temperature of the second cylinder and the temperature difference between the inlet temperature and the outlet temperature of the second cylinder.

3. The drying method of the double-drum laundry processing device according to claim 2, characterized in that: When the load level of the first tube is multiple load levels, the greater the increase in the outlet air temperature of the second tube is, the more stable the inlet air temperature of the second tube is; When the load level of the first cylinder is a light load level, the smaller the change in the inlet air temperature of the second cylinder is, the more stable the inlet air temperature of the second cylinder is.

4. The drying method of the double-drum laundry processing device according to claim 2, characterized in that: The step of controlling the second drum to enter the dryness determination stage according to the increase in the outlet air temperature of the second drum and the temperature difference between the inlet air temperature and the outlet air temperature of the second drum comprises: Determine the increase in the outlet air temperature of the second cylinder within a first set time period; When the increase amount of the outlet air temperature of the second cylinder is greater than or equal to the set increase amount, determining the temperature difference between the inlet air temperature and the outlet air temperature of the second cylinder; When the temperature difference is less than the set temperature difference, the second drum is controlled to enter a dryness determination stage.

5. The drying method of the double-drum laundry processing device according to claim 2, characterized in that: Controlling the second drum to enter the dryness determination stage according to the change in the inlet air temperature of the second drum and the temperature difference between the inlet air temperature and the outlet air temperature of the second drum includes: Determining a change in the air inlet temperature of the second cylinder within a second set time period; When the change amount of the air inlet temperature of the second cylinder is less than or equal to the set change amount, determining the temperature difference between the air inlet temperature and the air outlet temperature of the second cylinder; When the temperature difference is less than the set temperature difference, the second drum is controlled to enter a dryness determination stage.

6. The drying method of the double-drum laundry processing device according to claim 1, characterized in that: Before the step of controlling the dryness determination strategy of the second drum according to the load level of the first drum, the control method further includes: Determining whether the second drum is in a dry stage; In the case where the second drum is in the dry judging stage, a step of controlling the dry judging strategy of the second drum according to the load level of the first drum is performed after the dry judging stage is exited.

7. The drying method of the double-drum laundry processing device according to claim 1, characterized in that: The load level of the second cylinder is determined according to a load level parameter input by a user, or the load level of the second cylinder is determined by weighing the second cylinder.

8. A non-transitory computer-readable storage medium having program instructions stored thereon, wherein when the program instructions are executed by one or more processors, the one or more processors are configured to implement the drying method according to any one of claims 1 to 7.

9. A control device, comprising a memory and a processor, wherein the memory stores a drying method for a double-drum laundry processing device, and the processor is used to adopt the drying method for a double-drum laundry processing device according to any one of claims 1 to 7 when executing the drying method for the double-drum laundry processing device.

10. A double-drum laundry processing device, characterized in that: The double-drum laundry processing device operates according to the drying method for a double-drum laundry processing device according to any one of claims 1 to 7, or has the non-transitory computer-readable storage medium according to claim 8, or has the control device according to claim 9.

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