WO2025246367A1 - 一种衣物处理设备 - Google Patents

一种衣物处理设备

Info

Publication number
WO2025246367A1
WO2025246367A1 PCT/CN2025/070196 CN2025070196W WO2025246367A1 WO 2025246367 A1 WO2025246367 A1 WO 2025246367A1 CN 2025070196 W CN2025070196 W CN 2025070196W WO 2025246367 A1 WO2025246367 A1 WO 2025246367A1
Authority
WO
WIPO (PCT)
Prior art keywords
transmitting
receiving
coil
circuit board
disposed
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
PCT/CN2025/070196
Other languages
English (en)
French (fr)
Inventor
王宸
章松发
左翼
梁章
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Wuxi Little Swan Electric Co Ltd
Original Assignee
Wuxi Little Swan Electric Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from CN202410693912.5A external-priority patent/CN121047073A/zh
Priority claimed from CN202421220023.9U external-priority patent/CN222541087U/zh
Application filed by Wuxi Little Swan Electric Co Ltd filed Critical Wuxi Little Swan Electric Co Ltd
Publication of WO2025246367A1 publication Critical patent/WO2025246367A1/zh
Pending legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Classifications

    • DTEXTILES; PAPER
    • D06TREATMENT OF TEXTILES OR THE LIKE; LAUNDERING; FLEXIBLE MATERIALS NOT OTHERWISE PROVIDED FOR
    • D06FLAUNDERING, DRYING, IRONING, PRESSING OR FOLDING TEXTILE ARTICLES
    • D06F34/00Details of control systems for washing machines, washer-dryers or laundry dryers
    • D06F34/04Signal transfer or data transmission arrangements
    • D06F34/05Signal transfer or data transmission arrangements for wireless communication between components, e.g. for remote monitoring or control

Definitions

  • This application relates to the field of clothing processing technology, and more particularly to a clothing processing device.
  • the present application aims to provide a garment processing device that transmits electrical energy without contact by setting up a transmitting module and a receiving module. This facilitates the direct installation of electrical components on the garment processing drum for close-range detection of garments and execution of specific functions, thereby increasing the reliability of the garment processing device.
  • This application provides a garment processing device, including:
  • the enclosure including the rear panel
  • a garment processing drum is rotatably disposed within the box.
  • the garment processing drum includes a drum body and a rear cover, with the rear cover disposed at the rear end of the drum body.
  • a wireless power supply component includes a transmitting module and a receiving module, wherein the receiving module is used to receive electromagnetic signals transmitted by the transmitting module and generate induced current;
  • the transmitting module is disposed on the rear panel, and at least a portion of the receiving module is disposed on the rear cover.
  • the garment processing device allows for power transmission between the transmitting and receiving modules without physical contact. This enables power transfer between the relatively rotating garment processing drum and the relatively stationary rear plate, achieving high reliability without the need for electrical wiring. Furthermore, the electrical components of the garment processing device can be housed within the garment processing drum, powered by the receiving module. This facilitates meeting the power requirements of the electrical components and allows for close-range sensing of the garment's condition, improving the overall performance of the garment processing device.
  • the placement of the transmitting and receiving modules provides sufficient installation space and safety for the transmitting module while minimizing the distance between them, increasing the reliability of power transmission. Simultaneously, it reduces the likelihood of interference between the electrical connection between the transmitting module and the main control board and the garment processing drum, further enhancing the reliability of the electrical connection between the transmitting module and the main control board.
  • the transmitting module includes a transmitting coil
  • the receiving module includes a receiving coil.
  • the receiving coil is used to receive electromagnetic signals emitted by the transmitting module and generate induced current.
  • the transmitting coil, the receiving coil, and the clothing processing tube are coaxially arranged.
  • the garment processing device includes a rear cover that covers the rear surface of the rear plate and together with the rear plate defines an air supply channel.
  • the rear plate has an air outlet, and the rear cover has an air inlet.
  • the airflow in the air supply channel flows through the air outlet and the air inlet to the garment processing chamber.
  • At least a portion of the transmitting module is disposed on a part of the rear plate not covered by the rear cover.
  • the housing includes a shell portion that covers the rear panel and the rear side of the rear cover
  • the transmitting module includes a transmitting coil and a transmitting circuit board that is electrically connected to the transmitting coil.
  • the transmitting circuit board is located in the space between the rear panel and the shell portion and is connected to the rear panel.
  • the transmitting module includes a transmitting coil and a transmitting circuit board, the transmitting circuit board being electrically connected to the transmitting coil, the transmitting circuit board being disposed on the side of the rear plate away from the garment processing drum, and the transmitting coil being disposed on the side of the rear plate facing the garment processing drum.
  • the transmitting module includes a transmitting coil and a transmitting circuit board
  • the garment processing device includes a first bracket
  • the transmitting circuit board is electrically connected to the transmitting coil
  • the transmitting circuit board and the transmitting coil are integrated on the first bracket.
  • the receiving module includes a receiving coil disposed on the side of the rear cover facing the rear plate.
  • the back cover includes a core, an outer ring structure, and a plurality of support arms.
  • the outer ring structure surrounds the circumferential outer side of the core, and the plurality of support arms are radially distributed along the circumference of the core.
  • the support arms connect the core and the outer ring structure, and the receiving coil is disposed on the side of the core facing the back panel.
  • the receiving module includes a receiving circuit board electrically connected to the receiving coil
  • the garment processing device includes a lifting rib that protrudes radially from the circumferential inner wall of the garment processing cylinder, and the receiving circuit board is disposed within the lifting rib.
  • the garment processing device includes a conical cap, one end of which is connected to the rear cover near the side of the tube body, and the receiving circuit board is located inside the conical cap.
  • the receiving module includes a receiving coil and a receiving circuit board, the receiving circuit board being electrically connected to the receiving coil, and the garment processing device includes a second bracket, in which the receiving circuit board and the receiving coil are integrated.
  • the transmitting module includes a transmitting coil
  • the receiving module includes a receiving coil.
  • the receiving module is used to receive electromagnetic signals emitted by the transmitting coil and generate induced current.
  • the distance between the transmitting coil and the receiving coil is 4mm to 10mm.
  • the garment processing device includes a detection unit for detecting the electrical conductivity of the garments within the garment processing chamber, and the detection unit is electrically connected to the receiving module.
  • the garment processing device includes a lifting rib that protrudes radially from the circumferential inner wall of the garment processing cylinder.
  • the detection unit includes a detection electrode and a detection circuit that are electrically connected to each other.
  • the detection electrode is disposed on the outer surface of the lifting rib, and the detection circuit is disposed inside the lifting rib.
  • the detection circuit is electrically connected to the receiving module.
  • This application provides a garment processing device, including:
  • a clothing processing tube is installed inside the box
  • a wireless power supply component includes a transmitting module and a receiving module, wherein the receiving module is used to receive electromagnetic signals transmitted by the transmitting module and generate induced current;
  • the mounting component is connected to the housing, and at least a portion of the transmitting module is disposed on the mounting component.
  • the garment processing device provided in this application embodiment has several advantages.
  • the transmitting and receiving modules can transmit electrical energy without physical contact or wire connection, ensuring high reliability.
  • the electrical components of the garment processing device can be housed within the garment processing drum, powered by the receiving module. This facilitates meeting the power requirements of the components and allows for close-range sensing of the garment's condition, improving the overall performance of the garment processing device.
  • the transmitting module is connected to the housing via a mounting bracket, increasing installation flexibility and reducing the design complexity associated with direct connection between the transmitting module and the housing.
  • the housing includes a rear panel, and the mounting element is connected to the rear panel.
  • the garment handling tube includes a back cover
  • the transmitting module includes a transmitting coil
  • the receiving module includes a receiving coil
  • the mounting member is disposed on the side of the back plate facing the back cover
  • the transmitting coil is disposed on the side of the mounting member away from the back plate
  • the receiving coil is disposed on the side of the back cover facing the back plate.
  • the transmitting module includes a transmitting coil and a transmitting circuit board, the transmitting circuit board being electrically connected to the transmitting coil, the transmitting circuit board being disposed on the side of the rear plate away from the garment processing drum, the mounting member being disposed on the side of the rear plate facing the garment processing drum, and the transmitting coil being disposed on the mounting member.
  • the transmitting module includes a transmitting coil
  • the receiving module includes a receiving coil.
  • the receiving coil is used to receive electromagnetic signals emitted by the transmitting coil and generate induced current.
  • the transmitting coil, the receiving coil, and the clothing processing tube are coaxially arranged.
  • the garment processing tube includes a tube body and a rear cover, the rear cover being disposed at the rear end of the tube body, and the receiving module includes a receiving coil and a receiving circuit board, the receiving coil being disposed at the rear cover, and the receiving circuit board being electrically connected to the receiving coil;
  • the garment processing device includes a lifting rib that protrudes radially from the circumferential inner wall of the garment processing cylinder, and the receiving circuit board is disposed within the lifting rib.
  • the garment processing device includes a conical cap, one end of which is connected to the rear cover near the side of the tube body, and the receiving circuit board is located inside the conical cap.
  • the transmitting module includes a transmitting coil, a transmitting circuit board, and a first bracket, wherein the transmitting circuit board is electrically connected to the transmitting coil, the transmitting circuit board and the transmitting coil are integrated into the first bracket, and the first bracket is connected to the mounting component.
  • the receiving module includes a receiving coil, a receiving circuit board, and a second bracket, wherein the receiving circuit board is electrically connected to the receiving coil, and the receiving circuit board and the receiving coil are integrated into the second bracket.
  • the garment processing device includes a detection unit for detecting the electrical conductivity of the garments inside the garment processing drum, and the detection unit is electrically connected to the receiving module.
  • the garment processing device includes a lifting rib that protrudes radially from the circumferential inner wall of the garment processing cylinder.
  • the detection unit includes a detection electrode and a detection circuit that are electrically connected to each other.
  • the detection electrode is disposed on the outer surface of the lifting rib, and the detection circuit is disposed inside the lifting rib.
  • the detection circuit is electrically connected to the receiving module.
  • This application provides a garment processing device, including:
  • Clothing handling drum including the drum body
  • a wireless power supply component includes a transmitting module and a receiving module.
  • the receiving module includes a receiving coil, which is used to receive electromagnetic signals emitted by the transmitting module and generate induced current.
  • the receiving coil is disposed on the cylinder body.
  • the garment processing device provided in this application embodiment has a transmitting module located outside the garment processing drum, while the receiving coil is located within the drum body.
  • the drum body is relatively large, providing ample space for installing the receiving coil and reducing installation difficulty.
  • the transmitting module and receiving coil can transmit electrical energy without contact, eliminating the need for wire connections and ensuring high reliability.
  • the electrical components of the garment processing device can be housed within the garment processing drum, powered by the receiving module. This facilitates meeting the power requirements of the electrical components and allows for close-range sensing of the garment's condition, improving the overall performance of the garment processing device.
  • the transmitting module includes a transmitting coil
  • the clothing processing device includes a housing
  • the clothing processing tube is disposed within the housing
  • the transmitting coil is disposed within the housing.
  • the transmitting coil is located inside the housing, and the receiving coil is located on the circumferential outer side of the cylinder.
  • the transmitting module includes a transmitting circuit board, the transmitting coil and the transmitting circuit board are electrically connected, and the transmitting circuit board is disposed in the housing.
  • the garment handling device includes a first bracket, the transmitting circuit board and the transmitting coil are integrated into the first bracket, and the first bracket is connected to the housing.
  • the transmitting module includes a transmitting coil
  • the garment processing device includes a base disposed below the garment processing drum, the transmitting coil is disposed on the side of the base facing the garment processing drum, and the receiving coil is disposed on the circumferential outer side of the drum body.
  • the transmitting module includes a transmitting coil
  • the garment processing device includes a housing with a rear plate
  • the garment processing tube is disposed inside the housing
  • the transmitting coil is disposed on the rear plate
  • the receiving coil is disposed at the rear end of the tube.
  • the receiving module includes a receiving circuit board electrically connected to the receiving coil
  • the garment processing device includes a lifting rib that protrudes radially from the circumferential inner wall of the garment processing cylinder, and the receiving circuit board is disposed within the lifting rib.
  • the garment processing device includes a conical cap
  • the garment processing cylinder includes a rear cover
  • the rear cover is disposed at the rear end of the cylinder body
  • one end of the conical cap is connected to the side of the rear cover near the cylinder body
  • the receiving circuit board is located inside the conical cap.
  • the receiving module includes a receiving circuit board
  • the garment processing device includes a second bracket
  • the receiving circuit board is electrically connected to the receiving coil
  • the receiving circuit board and the receiving coil are integrated in the second bracket
  • the second bracket is connected to the garment body.
  • the garment processing device includes a detection unit for detecting the electrical conductivity of the garments inside the garment processing drum, and the detection unit is electrically connected to the receiving module.
  • Figure 1 is an exploded view of a partial structure of a garment processing device according to an embodiment of this application;
  • Figure 2 is an explosion diagram of the structure shown in Figure 1 from another perspective
  • Figure 3 is a schematic diagram of the structure of a garment processing device according to an embodiment of this application from another perspective;
  • Figure 4 is a schematic diagram of the cooperation structure of the first bracket, the transmitting coil and the rear plate according to an embodiment of this application;
  • Figure 5 is a schematic diagram of the mating structure of the transmitting circuit board and the rear board according to an embodiment of this application;
  • Figure 6 is a schematic diagram of the structure of the first support according to an embodiment of this application.
  • Figure 7 is a schematic diagram of the cooperative structure of the second bracket, receiving coil, receiving circuit board and back cover according to an embodiment of this application;
  • Figure 8 is a structural schematic diagram of the second support shown in Figure 7;
  • Figure 9 is a structural schematic diagram of the second bracket according to another embodiment of this application.
  • Figure 10 is a schematic diagram of the cooperation between the transmitting module and the receiving module of the clothing processing device according to the first embodiment of this application;
  • Figure 11 is a schematic diagram showing the cooperative positions of the transmitting module and the receiving module of the clothing processing device according to the second embodiment of this application;
  • Figure 12 is a schematic diagram showing the cooperative positions of the transmitting module and the receiving module of the clothing processing device according to the third embodiment of this application;
  • Figure 13 is a schematic diagram showing the cooperative positions of the transmitting module and the receiving module of the clothing processing device according to the fourth embodiment of this application;
  • Figure 14 is a schematic diagram of the structure of the lifting rib according to an embodiment of this application.
  • Figure 15 is a schematic diagram of the structure shown in Figure 14 from another perspective
  • Figure 16 is a schematic diagram of the cooperation between the lifting rib and the detection unit
  • Figure 17 is a schematic diagram of the detection electrode shown in Figure 16.
  • Figure 18 is a schematic diagram of the detection electrode according to another embodiment of this application.
  • Figure 19 is a schematic diagram of the detection electrode shown in Figure 18 from another perspective
  • Figure 20 is an exploded view of a partial structure of a clothing processing device according to another embodiment of this application.
  • Figure 21 is an explosion diagram of the structure shown in Figure 20 from another perspective
  • Figure 22 is a schematic diagram showing the cooperative positions of the transmitting module and the receiving module of the clothing processing device in the fifth embodiment of this application;
  • Figure 23 is a schematic diagram showing the cooperative positions of the transmitting module and the receiving module of the clothing processing device in the sixth embodiment of this application.
  • Figure 24 is a schematic diagram of the cooperation between the transmitting module and the receiving module of the clothing processing device according to the seventh embodiment of this application;
  • Figure 25 is a schematic diagram showing the cooperative positions of the transmitting module and the receiving module of the clothing processing device according to the eighth embodiment of this application;
  • Figure 26 is a schematic diagram showing the cooperative positions of the transmitting module and the receiving module of the clothing processing device according to the ninth embodiment of this application;
  • Figure 27 is a schematic diagram showing the cooperative positions of the transmitting module and the receiving module of the clothing processing device according to the tenth embodiment of this application;
  • Figure 28 is a schematic diagram showing the cooperative positions of the transmitting module and the receiving module of the clothing processing device according to the eleventh embodiment of this application;
  • Figure 29 is an exploded view of a portion of the structure of the clothing processing device in another embodiment of this application.
  • first the terms “first,” “second,” etc., are used merely to distinguish different objects and do not indicate that the objects have the sameness or relationship. It should be understood that the directional descriptions “above,” “below,” “outside,” and “inside” refer to the orientation under normal use conditions, while “left” and “right” refer to the left and right directions shown in the corresponding diagrams, which may or may not be the left and right directions under normal use conditions.
  • the clothing processing device 1 includes a housing 11, a clothing processing tube 10, and a wireless power supply component.
  • the type of clothing processing equipment 1 is not limited, and can be a dryer, washer-dryer combo, etc., and is not restricted here. Exemplarily, this application embodiment uses a dryer as an example for illustration.
  • the housing 11 includes a rear panel 111.
  • the housing 11 is an external component of the clothing processing equipment 1, which can protect the internal clothing processing drum 10.
  • the rear panel 111 refers to the component of the housing 11 located on the rear side of the garment processing equipment 1 in the front-to-back direction.
  • the rear side is the side of the garment processing equipment 1 that is furthest from the user after installation.
  • the clothing processing tube 10 is rotatably installed inside the box 11.
  • the clothes handling drum 10 has a clothes handling chamber 10a, which can be used to place and dry clothes.
  • the clothes handling drum 10 can drive the clothes to rotate.
  • the rotation axis of the clothes handling drum 10 is horizontal, and the front side of the clothes handling drum 10 has a clothes inlet.
  • the user puts or takes out the clothes handling chamber 10a through the clothes inlet.
  • the clothes are moved from bottom to top. Under the action of gravity, the clothes fall from top to bottom. In this way, the clothes are dispersed, shaken and changed in shape under the combined action of the clothes handling drum 10 and gravity.
  • the garment processing tube 10 includes a tube body 101 and a rear cover 102, with the rear cover 102 located at the rear end of the tube body 101.
  • the front of the tube body 101 is open to form a clothing loading port, and the rear end cooperates with the rear cover 102.
  • the tube body 101 and the rear cover 102 together define the clothing processing chamber 10a.
  • the rear end of the tube body 101 can be detachably connected to the rear cover 102.
  • the garment processing cylinder 10 can be a single-cylinder structure, meaning that the garment processing device 1 has only one cylinder, the garment processing cylinder 10.
  • the garment processing device 1 may also include an outer cylinder, which is located circumferentially outside the garment processing cylinder 10.
  • This application describes an example of a garment processing device 1 with a single-tube structure.
  • the garment processing drum 10 is generally hollow and cylindrical.
  • the garment processing drum 10 may be made of metal, such as stainless steel, etc., and there is no limitation on this.
  • the wireless power supply component is a structure that provides power to the electrical components in the clothing processing equipment 1 wirelessly.
  • the wireless power supply component includes a transmitter module 12 and a receiver module 13.
  • the receiver module 13 is used to receive electromagnetic signals transmitted by the transmitter module 12 and generate induced current.
  • the transmitting module 12 and the receiving module 13 can achieve wireless connection through electromagnetic induction.
  • the transmitting module 12 can be electrically connected to the main control board of the clothing processing device 1.
  • the main control board is used to control the operation of the clothing processing device 1 and supply power to various parts within the clothing processing device 1, enabling the circuits of each part to work normally, so as to realize functions such as drying control.
  • the transmitting module 12 is electrically connected to the main control board via a cable to receive the power supplied by the main control board, thereby enabling it to transmit electromagnetic signals to the receiving module 13.
  • the transmitting module 12 is wirelessly connected to the receiving module 13, meaning that the transmitting module 12 can wirelessly transmit power to the receiving module 13.
  • the electrical components located inside the clothing handling drum 10 can be electrically connected to the receiving module 13, which supplies power to the components to meet their power needs.
  • an electrical component can be a structural element capable of performing an electrical function and/or used in a circuit to perform at least one electrical function.
  • the number of electrical components can be one, two, three, or more.
  • the electrical components can be units for detecting the condition of the clothing, as well as other units that can have specific functions to improve drying performance.
  • the unit for detecting the condition of the clothing can be for detecting the temperature, conductivity, etc. of the clothing.
  • the receiving module 13 is disposed in the clothing processing drum 10. Electrical components, such as units for detecting the state of clothing, can be disposed inside the clothing processing drum 10 and electrically connected to the receiving module 13 to obtain electrical energy. When the clothing processing drum 10 rotates, the receiving module 13 and the electrical components rotate synchronously. The electrical connection between the receiving module and the electrical components is relatively stable, and the receiving module 13 can also receive electrical energy transmitted from the transmitting module 12 during rotation. In this way, the electrical components disposed inside the clothing processing drum 10 can sense the state of clothing at close range and perform specific functions, thereby improving the working performance of the clothing processing equipment 1. For example, this can improve the judgment performance of the clothing processing equipment 1.
  • the transmitting module 12 is disposed on the rear panel 111, and at least a portion of the receiving module 13 is disposed on the rear cover 102.
  • the transmitter module 12 is disposed on the rear plate 111. This can be because the transmitter module 12 is an integrated component and is disposed on the side of the rear plate 111 facing the rear cover 102 or on the side of the rear plate 111 away from the rear cover 102. Alternatively, the various components of the transmitter module 12 can be distributed in different parts of the rear plate 111. For example, some components are disposed on the side of the rear plate 111 facing the rear cover 102, while other components are disposed on the side of the rear plate 111 away from the rear cover 102.
  • the receiving module 13 is disposed on the rear cover 102.
  • the entire structure of the receiving module 13 may be disposed on the rear cover 102, and the receiving module 13 may be disposed on the side of the rear cover 102 facing the rear plate 111 or the side of the rear cover 102 facing the cylinder body 101.
  • a portion of the receiving module 13 may be disposed on the rear cover 102, and this portion may be disposed on the side of the rear cover 102 facing the rear plate 111 or the side of the rear cover 102 facing the cylinder body 101.
  • the other portion of the receiving module 13 may be disposed inside the cylinder body 101 or in other locations, without any restrictions.
  • the receiving module 13 can rotate along with the clothes processing drum 10. During the rotation of the clothes processing drum 10, the receiving module 13 rotates relative to the transmitting module 12.
  • the distance between the transmitting module 12 and the receiving module 13 can be relatively short, ensuring the installation safety of the transmitting module 12 while enabling the transmitting module 12 to transmit sufficient electrical energy to the receiving module 13 without increasing its operating power.
  • the garment processing device 1 provided in this application embodiment can transmit electrical energy without contact between the transmitting module 12 and the receiving module 13, realizing the transmission of electrical energy between the relatively rotating garment processing drum 10 and the relatively stationary rear plate 111. This power transmission is achieved without the need for wire connections, resulting in high reliability. Furthermore, the electrical components of the garment processing device 1 can be housed within the garment processing drum 10, with the receiving module 13 supplying power to them. This facilitates meeting the power requirements of the electrical components and allows for close-range sensing of the garment's condition, improving the overall performance of the garment processing device 1.
  • the placement of the transmitting module 12 and the receiving module 13 provides sufficient installation space and safety for the transmitting module 12 while minimizing the distance between them, increasing the reliability of power transmission. Simultaneously, it reduces the probability of interference between the electrical connection between the transmitting module 12 and the main control board and the garment processing drum 10, increasing the reliability of the electrical connection between the transmitting module 12 and the main control board.
  • the transmitting module 12 and the receiving module 13 can transmit signals in addition to transmitting electrical energy. That is, the clothing information detected by the electrical components can be transmitted to the receiving module 13, and the receiving module 13 can then transmit the information to the transmitting module 12.
  • the transmitting module 12 and the receiving module 13 may only transmit electrical energy.
  • the clothing processing device 1 may be equipped with a wireless transmission unit.
  • the receiving module 13 can provide electrical energy to the wireless transmission unit, and the wireless transmission unit can receive clothing information detected by electrical components and transmit it wirelessly.
  • the transmitting module 12 includes a transmitting coil 121
  • the receiving module 13 includes a receiving coil 131.
  • the receiving coil 131 is used to receive the electromagnetic signal emitted by the transmitting coil 121 and generate an induced current.
  • the transmitting coil 121 generates a changing magnetic field
  • the receiving coil 131 generates an induced current through electromagnetic induction, receives the electrical energy transmission from the transmitting coil 121, and outputs electrical energy.
  • the transmitting coil 121 and the receiving coil 131 are generally in a ring-shaped structure.
  • the transmitting coil 121 is disposed on the rear plate 111. Specifically, the transmitting coil 121 can be disposed on the side of the rear plate 111 facing the rear cover 102, or it can be disposed on the side of the rear plate 111 away from the rear cover 102.
  • the receiving coil 131 can be located on the side of the rear cover 102 facing the cylinder 101 or on the side of the rear cover 102 facing the rear plate 111.
  • the transmitting coil 121 and the receiving coil 131 are arranged opposite to each other; that is, in some embodiments, referring to Figures 9 and 10, the transmitting coil 121 and the receiving coil 131 may be arranged with a relative gap. This reduces the impact of the rotating clothes handling drum 10 on the transmitting coil 121 and increases installation safety.
  • the relative arrangement of the transmitting coil 121 and the receiving coil 131 means that there is a certain gap between the transmitting coil 121 and the receiving coil 131, and that the projection of the transmitting coil 121 and the receiving coil 131 overlap at least partially with the projection of the plane perpendicular to the front-back direction.
  • the transmitting coil 121 and the receiving coil 131 can always remain coaxial and relative to each other, that is, no matter where the clothes handling drum 10 rotates, the transmitting coil 121 and the receiving coil 131 always remain coaxial and relative to each other.
  • the transmitting coil 121 and the receiving coil 131 can be coaxial and relative to each other at a specific position, that is, the receiving coil 131 can move to that set position and be coaxial and relative to the transmitting coil 121 as the clothes handling drum 10 rotates.
  • the transmitting coil 121, the receiving coil 131, and the clothing handling tube 10 are arranged coaxially.
  • the receiving coil 131 and the transmitting coil 121 always maintain a relative state. This allows the receiving coil 131 to continuously and stably receive the electrical energy transmitted by the transmitting coil 121, thereby continuously providing power to the electrical components of the clothing processing drum 10. In other words, during the rotation of the clothing processing drum 10, the receiving coil 131 can always provide effective and sufficient power to the electrical components, eliminating the need for additional auxiliary power supply structures and increasing the power supply reliability of the clothing processing device 1.
  • the distance between the transmitting coil 121 and the receiving coil 131 is unlimited.
  • the distance between the transmitting coil 121 and the receiving coil 131 is 4 mm to 10 mm.
  • the distance between the transmitting coil 121 and the receiving coil 131 refers to the distance between the transmitting coil 121 and the receiving coil 131 along their axial direction when they are arranged opposite each other.
  • the distance between the transmitting coil and the receiving coil is too large, the induced current generated by the receiving coil will be smaller, and thus the main control board of the garment processing equipment will need to provide more operating power to the transmitting coil. If the distance between the transmitting coil and the receiving coil is too small, the distance between the transmitting coil and the garment processing drum will be smaller, which will increase the probability of interference between the transmitting coil and the garment processing drum and increase the probability of damage to the transmitting coil.
  • the distance between the transmitting coil 121 and the receiving coil 131 is neither too large nor too small, and there is a sufficient safe distance between the transmitting coil 121 and the clothes handling drum 10. While increasing the working safety of the transmitting coil 121, the receiving coil 131 can generate a sufficient induced current to meet the power demand of the electrical components.
  • the garment processing device 1 includes a rear cover 17, which covers the rear surface of the rear plate 111 and together with the rear plate 111 defines an air supply channel.
  • the rear plate 111 has an air outlet, and the rear cover 102 has an air inlet.
  • the airflow of the air supply channel flows to the garment processing chamber 10a through the air outlet and the air inlet.
  • At least a portion of the transmitting module 12 is disposed in the part of the rear plate 111 not covered by the rear cover 17.
  • the garment processing drum 10 also has an air outlet, and the garment processing chamber 10a connects the air inlet and the air outlet. Dry hot air enters the garment processing chamber 10a from the air inlet, and humid hot air leaves the garment processing chamber 10a from the air outlet.
  • the rear sidewall of the rear plate 111 forms a return air inlet and an air supply inlet communicating with the air inlet. The height of the return air inlet is lower than the height of the air supply inlet.
  • the rear cover 17 covers the area around the air supply inlet and the return air inlet, and together with the rear sidewall of the rear plate 111, defines an air supply channel. The air supply channel connects the return air inlet and the air supply inlet. Dry hot air enters the garment processing chamber 10a through the return air inlet, the air supply channel, and the air supply inlet to dry the clothes.
  • the garment processing device 1 may also include a base 16, which has a drying tunnel.
  • the air supply channel and the drying tunnel together form a circulating air duct.
  • the drying tunnel is located upstream of the air supply channel along the airflow direction in the circulating air duct.
  • the drying tunnel is connected to the air outlet.
  • the airflow after heat and moisture exchange with the garment can enter the drying tunnel through the air outlet. Condensation, dehumidification and heating are completed in the drying tunnel to form a new dry hot airflow.
  • the new dry hot airflow then enters the garment processing chamber 10a through the return air port, the air supply channel and the air supply port.
  • air outlets there is no limit to the number of air outlets; there can be one or more air outlets, for example, two, three, four, or five air outlets.
  • the transmitting module 12 is disposed in the part of the rear plate 111 not covered by the rear cover 17, that is, at least a portion of the transmitting module 12 is disposed in the part of the rear side of the rear plate 111 outside the rear cover 17. It is possible that the entire structure of the transmitting module 12 is located in the part of the rear plate 111 outside the rear cover 17, or it is possible that a part of the structure of the transmitting module 12 is located in the part of the rear plate 111 outside the rear cover 17. In this case, the other part of the structure of the transmitting module 12 can be located in the air supply channel or on the side of the rear plate 111 facing the clothing processing drum 10.
  • At least a portion of the launching module 12 is disposed on the rear plate 111 outside the rear cover 17, which can reduce the impact of airflow on the launching module 12 and also ensure a sufficient safe distance between the launching module 12 and the clothing handling tube 10, thereby increasing the installation stability and operational safety of the launching module 12.
  • the housing 11 includes a shell portion 113, which covers the rear side of the rear plate 111 and the rear cover 17.
  • the transmitting module 12 includes a transmitting circuit board 123, which is electrically connected to the transmitting coil 121.
  • the transmitting circuit board 123 is located in the space between the rear plate 111 and the shell portion 113 and is connected to the rear plate 111.
  • the transmitting circuit board 123 includes a modem circuit and a power supply circuit.
  • the modem circuit can convert signals, and the power supply circuit can transmit electrical energy to the receiving module 13.
  • the transmitting module 12 can be electrically connected to the main control board through the transmitting circuit board 123.
  • the housing 113 provides protection for the transmitting circuit board 123, reducing the likelihood of the transmitting circuit board 123 being exposed and increasing the installation reliability of the transmitting circuit board 123.
  • the transmitting circuit board 123 can be connected to the rear plate 111 by means of screw connection, soldering, or other connection methods, increasing the installation stability of the transmitting circuit board 123.
  • the transmitting coil 121 may be located in the space between the rear plate 111 and the housing 113, or it may be located on the side of the rear plate 111 facing the clothing processing drum 10, without limitation.
  • the arrangement of the transmitting circuit board 123 on the rear plate 111 outside the rear cover 17 is not limited.
  • the transmitting circuit board 123 may be directly connected to the rear side wall of the rear plate 111, or the transmitting circuit board 123 may be integrated into other circuit modules of the garment processing device 1 located on the rear side of the rear plate 111.
  • the transmitting circuit board 123 may also be integrated into the voltage conversion module of the garment processing device 1, which is used to convert alternating current to direct current.
  • the voltage conversion module is electrically connected to the main control board to convert AC power to DC power.
  • the transmitter circuit board 123 is integrated into the voltage conversion module, eliminating the need for additional installation space for the transmitter circuit board 123 and making it easier to achieve electrical connection between the transmitter circuit board 123 and the main control board.
  • the transmitting circuit board 123 is electrically connected to the transmitting coil 121. Please refer to Figures 1, 4 and 5.
  • the transmitting circuit board 123 is disposed on the side of the rear plate 111 away from the clothes handling drum 10, and the transmitting coil 121 is disposed on the side of the rear plate 111 facing the clothes handling drum 10.
  • both the transmitting coil 121 and the transmitting circuit board 123 are disposed on the rear plate 111, which facilitates shortening the connection distance between the transmitting coil 121 and the transmitting circuit board 123, reducing the probability of electromagnetic interference and reducing power loss.
  • the transmitting coil 121 is disposed on the side of the rear plate 111 facing the garment processing drum 10, that is, the transmitting coil 121 is disposed on the front side of the rear plate 111.
  • the transmitting coil 121 can be disposed close to the receiving coil 131 to reduce the distance between them.
  • the transmitting coil 121 and the receiving coil 131 can be arranged along the axial direction of the garment processing drum 10, so that during the rotation of the garment processing drum 10, no matter where the receiving coil 131 rotates with the garment processing drum 10, the receiving coil 131 and the transmitting coil 121 can always maintain a relative state, which facilitates the receiving coil 131 to continuously and stably receive the electrical energy transmitted by the transmitting coil 121, and achieves effective and sufficient power supply.
  • the transmitting circuit board 123 is located on the side of the rear plate 111 away from the clothes handling drum 10.
  • the rear plate 111 provides some protection for the transmitting circuit board 123, reducing the impact of airflow on it and decreasing the likelihood of lint and other impurities carried by the airflow adhering to it, thus increasing the installation safety of the transmitting circuit board 123. It also facilitates wired connection between the transmitting circuit board 123 and the main control board.
  • the garment processing device 1 includes a first support 122, a transmitting circuit board 123 electrically connected to a transmitting coil 121, and the transmitting circuit board 123 and the transmitting coil 121 are integrated on the first support 122.
  • the transmitting coil 121 and the transmitting circuit board 123 are integrated by the first bracket 122, eliminating the need to connect the transmitting coil 121 and the transmitting circuit board 123 with wires. This reduces the high assembly load caused by interlaced wires, facilitates power transmission, and reduces power loss and electromagnetic interference. Since the transmitting coil 121 and the transmitting circuit board 123 are disposed on the same plane, the overall structure of the transmitting module 12 is simple and compact, and the installation and maintenance of each component are highly convenient.
  • the first bracket 122 provides mounting support for the transmitting coil 121 and the transmitting circuit board 123, increasing the installation stability of the transmitting coil 121 and the transmitting circuit board 123.
  • the transmitting coil 121 and the transmitting circuit board 123 are integrated on the first bracket 122 to form a whole. This whole can be located on the side of the back plate 111 facing the clothing processing tube 10, or it can be located on the part of the back plate 111 outside the back cover 17. There is no limitation here.
  • the transmitting coil 121 and the transmitting circuit board 123 are spaced apart, the transmitting coil 121 can also be supported on the first bracket 122, and the connection with the rear plate 111 can be achieved through the first bracket 122.
  • the specific structure of the first support 122 is not limited.
  • the first bracket 122 includes an annular body 1221, a connecting ear 1222 connected to the annular body 1221, a transmitting coil 121 disposed on the annular body 1221, and the connecting ear 1222 connected to the rear plate 111.
  • the annular body 1221 provides installation space for the transmitting coil 121, and the connecting ear 1222 is connected to the rear plate 111.
  • the annular body 1221 and the connecting ear 1222 stabilize the installation position of the transmitting coil 121 in the clothing processing equipment 1, reduce the probability of damage to the transmitting coil 121, and increase the working stability of the transmitting coil 121.
  • the annular body 1221 is formed with a first annular groove 1221a, the first annular groove 1221a is open on the side facing the clothing processing tube 10, and the transmitting coil 121 is housed in the first annular groove 1221a.
  • the first annular groove 1221a is an annular space defined by the structure of the annular body 1221 itself.
  • the side of the first annular groove 1221a facing the clothing processing drum 10 is open, which facilitates the relative arrangement of the transmitting coil 121 and the receiving coil 131, and realizes effective power transmission.
  • the side of the first annular groove 1221a facing the rear plate 111 can be closed to provide support for the transmitting coil 121 and reduce the probability of the transmitting coil 121 detaching from the first annular groove 1221a.
  • the connecting ear 1222 can be detachably connected to the rear plate 111.
  • the connecting ear 1222 can be connected to the rear plate 111 by screws, which is not limited here.
  • the specific structure of the annular body 1221 is not limited.
  • the annular body 1221 includes a first annular plate 12211, a first inner annular wall 12212, and a first outer annular wall 12213.
  • the first inner annular wall 12212 is disposed at the radial inner edge of the first annular plate 12211, and the first outer annular wall 12213 is disposed at the radial outer edge of the first annular plate 12211.
  • the gap between the first inner annular wall 12212 and the first outer annular wall 12213 forms a first annular groove 1221a.
  • the transmitting coil 121 when the transmitting coil 121 is engaged with the annular body 1221, the transmitting coil 121 is wrapped around the outer circumferential side of the first inner annular wall 12212 and located on the inner circumferential side of the first outer annular wall 12213. One end of the transmitting coil 121 along the axial direction abuts against the first annular plate 12211, thereby realizing the docking of the transmitting coil 121 and the annular body 1221.
  • the connecting ear 1222 is disposed on the radially outer side of the first outer ring wall 12213, or the connecting ear 1222 is disposed on the radially inner side of the first inner ring wall 12212.
  • one end of the connecting ear 1222 can be connected to either the first outer ring wall 12213 or the first inner ring wall 12212, and the other end of the connecting ear 1222 is connected to the rear plate 111 to achieve the connection between the first bracket 122 and the rear plate 111.
  • the connecting ear 1222 is located radially outward of the first outer ring wall 12213, thus providing sufficient extension space for a stable connection with the rear plate 111.
  • connection between the transmitting coil 121 and the annular body 1221 is convenient, making it easy to disassemble and inspect the transmitting coil 121.
  • the annular body 1221 has a simple structure, which can reduce the manufacturing requirements of the first bracket 122.
  • the setting position of the connecting ear 1222 can also reduce the probability of interference with the transmitting coil 121, making it easy to realize the relative arrangement of the transmitting coil 121 and the receiving coil 131.
  • the connecting ear 1222 can be detachably connected to the rear plate 111.
  • the connecting ear 1222 can be connected to the rear plate 111 by screws, which is not limited here.
  • the receiving coil 131 is disposed on the side of the rear cover 102 facing the rear plate 111.
  • the transmitting coil 121 is located on the side of the rear plate 111 facing the rear cover 102
  • the receiving coil 131 is located on the side of the rear cover 102 facing the rear plate 111.
  • the distance between the transmitting coil 121 and the receiving coil 131 is reasonable, and the two can be arranged opposite each other without obstruction, making the power transmission more reliable.
  • the specific construction of the back cover 102 is not limited.
  • the back cover 102 includes a core 1021, an outer ring structure 1022, and a plurality of support arms 1023.
  • the outer ring structure 1022 surrounds the outer circumferential side of the core 1021, and the plurality of support arms 1023 are radially distributed along the circumference of the core 1021.
  • the support arms 1023 connect the core 1021 and the outer ring structure 1022.
  • the receiving coil 131 is disposed on the side of the core 1021 facing the back plate 111.
  • the core 1021 is roughly located in the central area of the back cover 102, and the multiple support arms 1023 are radially distributed along the circumference of the core 1021. This means that the multiple support arms 1023 are arranged around the axis of the core 1021.
  • the support arms 1023 can extend in a straight line or in a curve, and there is no restriction here.
  • the support arm 1023 connects the core 1021 to the outer ring structure 1022, which enables the back cover 102 to have sufficient structural strength and increases the structural stability of the clothing processing tube 10.
  • the support arm 1023 can be integrally formed with the core 1021 and the outer ring structure 1022; or, the support arm 1023 can be connected to the core 1021 and the outer ring structure 1022 by means of rivets, welding, threaded connection, etc., without limitation.
  • the receiving coil 131 is disposed on the side of the core 1021 facing the rear plate 111, that is, the receiving coil 131 is approximately disposed in the central area of the rear cover 102. This facilitates the coaxial arrangement of the receiving coil 131 with the clothes processing drum 10 and increases the stability of the receiving coil 131 as it rotates with the clothes processing drum 10. Furthermore, the receiving coil 131 does not affect the airflow entering the clothes processing chamber 10a through the air inlet of the rear cover 102, resulting in high operational reliability of the clothes processing device 1. Additionally, it facilitates the coaxial arrangement of the receiving coil 131 with the clothes processing drum 10.
  • the receiving module 13 includes a receiving circuit board 133, which is electrically connected to the receiving coil 131.
  • the receiving circuit board 133 includes a modulation/demodulation circuit and a power output circuit.
  • the modulation/demodulation circuit can realize signal conversion, and the power output circuit can realize the output of electrical energy.
  • the receiving module 13 can be electrically connected to electrical components through the receiving circuit board 133.
  • the garment processing device 1 includes a lifting rib 14, which protrudes radially from the circumferential inner wall of the garment processing cylinder 10, and a receiving circuit board 133 is disposed within the lifting rib 14.
  • the lifting rib 14 can contact the clothes inside the clothes processing chamber 10a and drive the clothes to rotate with the clothes processing cylinder 10. For example, the clothes move upward under the action of the lifting rib 14, and then move downward under the action of gravity and centrifugal force, so that the clothes continuously change their posture inside the clothes processing chamber 10a.
  • the lifting rib 14 may have a connecting channel 14a extending along the length direction of the lifting rib 14, and the receiving circuit board 133 may be disposed in the connecting channel 14a.
  • the lifting rib 14 provides mounting space for the receiving circuit board 133, reducing the chance of the receiving circuit board 133 coming into contact with clothing and increasing the installation reliability of the receiving circuit board 133.
  • electrical components can also be housed within the lifting rib 14, and there are no restrictions on this.
  • the receiving circuit board 133 and the receiving coil 131 are arranged separately, and the receiving circuit board 133 is arranged inside the lifting rib 14, which facilitates the electrical connection between the lifting rib 14 and the electrical components, increases the reliability of power supply, and reduces power loss.
  • the garment processing device 1 includes a conical cap 18, one end of which is connected to the side of the rear cover 102 near the body 101, and the receiving circuit board 133 is located inside the conical cap 18.
  • a conical cap 18 is disposed on the clothes processing drum 10.
  • One end of the conical cap 18 is connected to the side of the rear cover 102 near the drum body 101, and the other end extends toward the inside of the drum body 101.
  • the conical cap 18 can disperse the clothes during the rotation of the clothes processing drum 10, reducing the chance of clothes tangling or knotting, making the drying of clothes more uniform and improving the drying effect of clothes.
  • the conical cap 18 can be connected to the portion of the rear cover 102 that is approximately at the center.
  • the receiving coil 131 and the receiving circuit board 133 are arranged separately.
  • the receiving circuit board 133 is placed inside the conical cap 18.
  • the conical cap 18 provides installation space for the receiving circuit board 133, and the conical cap 18 can reduce the probability of the receiving circuit board 133 coming into contact with clothing to a certain extent, thereby increasing the installation reliability of the receiving circuit board 133.
  • the garment processing device 1 includes a second bracket 132, and a receiving circuit board 133 and a receiving coil 131 are integrated into the second bracket 132.
  • the receiving coil 131 and the receiving circuit board 133 are integrated by the second bracket 132, eliminating the need to connect them with wires. This reduces the high assembly complexity caused by intertwined wires, facilitates power transmission, and minimizes filtering losses and electromagnetic interference. Since the receiving coil 131 and the receiving circuit board 133 are located on the same plane, the overall structure of the receiving module 13 is simple and compact, and the installation and maintenance of each component are highly convenient.
  • the second bracket 132 provides mounting support for the receiving coil 131 and the receiving circuit board 133, increasing their installation stability.
  • the specific structure of the second support 132 is not limited.
  • the second bracket 132 includes an annular portion 1321 and a connecting portion 1322.
  • the connecting portion 1322 is connected to the annular portion 1321.
  • the receiving coil 131 is disposed on the annular portion 1321.
  • the connecting portion 1322 is connected to the rear cover 102.
  • the annular portion 1321 provides installation space for the receiving coil 131
  • the connecting portion 1322 is connected to the rear cover 102.
  • the annular portion 1321 and the connecting portion 1322 stabilize the installation position of the receiving coil 131 in the clothing processing equipment 1, reduce the probability of damage to the receiving coil 131, and increase the working stability of the receiving coil 131.
  • the second support 132 includes an annular portion 1321, a connecting portion 1322, and an extension structure 1323.
  • the connecting portion 1322 and the extension structure 1323 are respectively connected to the annular portion 1321.
  • the receiving coil 131 is disposed on the annular portion 1321.
  • the connecting portion 1322 is connected to the rear cover 102.
  • the extension structure 1323 is disposed on the side of the support arm 1023 away from the clothing processing cavity 10a.
  • the receiving circuit board 133 is disposed on the extension structure 1323.
  • the extension structure 1323 provides space for the receiving circuit board 133, and the support arm 1023 provides support for the extension structure 1323, thereby increasing the installation stability of the receiving circuit board 133.
  • the annular portion 1321 can be disposed on the side of the core portion 1021 facing the rear plate 111, that is, the annular portion 1321 can be disposed approximately in the central area of the rear cover 102. In this way, the receiving coil 131 can also be disposed approximately in the central area of the rear cover 102.
  • the core portion 1021 has sufficient installation space to accommodate the annular portion 1321, thereby increasing the movement stability of the receiving coil 131.
  • the receiving coil 131 and the receiving circuit board 133 are spaced apart, as shown in Figure 9, the receiving coil 131 can also be supported on the second bracket 132, and the connection with the back cover 102 can be achieved through the second bracket 132.
  • the second bracket 132 is formed with a second annular groove 1321a, which is open to the side facing the rear plate 111, and the receiving coil 131 is accommodated in the second annular groove 1321a.
  • the annular portion 1321 is formed with a second annular groove 1321a.
  • the connecting part 1322 can be detachably connected to the rear cover 102.
  • the connecting part 1322 can be connected to the rear cover 102 by screws, which is not limited here.
  • the second annular groove 1321a is an annular space defined by the structure of the annular portion 1321 itself.
  • the side of the second annular groove 1321a facing the rear plate 111 is open, which facilitates the relative arrangement of the receiving coil 131 and the transmitting coil 121, thereby achieving effective power transmission.
  • the side of the second annular groove 1321a facing the rear cover 102 can be closed to provide support for the receiving coil 131 and reduce the probability of the receiving coil 131 detaching from the second annular groove 1321a.
  • the specific structure of the annular portion 1321 is not limited.
  • the annular portion 1321 includes a second annular plate 13211, a second inner annular wall 13212, and a second outer annular wall 13213.
  • the second inner annular wall 13212 is disposed at the radial inner edge of the second annular plate 13211
  • the second outer annular wall 13213 is disposed at the radial outer edge of the second annular plate 13211.
  • the gap between the second inner annular wall 13212 and the second outer annular wall 13213 forms a second annular groove 1321a.
  • the receiving coil 131 when the receiving coil 131 is engaged with the annular portion 1321, the receiving coil 131 is wrapped around the outer circumferential side of the second inner annular wall 13212 and located on the inner circumferential side of the second outer annular wall 13213.
  • One end of the receiving coil 131 along the axial direction abuts against the second annular plate 13211, thereby realizing the docking of the receiving coil 131 and the annular portion 1321.
  • the connecting portion 1322 is disposed on the radially outer side of the second outer ring wall 13213, or the connecting portion 1322 is disposed on the radially inner side of the second inner ring wall 13212.
  • one end of the connecting portion 1322 can be connected to either the second outer ring wall 13213 or the second inner ring wall 13212, and the other end of the connecting portion 1322 is connected to the rear cover 102 to achieve the connection between the second bracket 132 and the rear cover 102.
  • the connecting portion 1322 is located radially inside the second inner ring wall 13212. This reduces the likelihood that the connecting portion 1322 will affect the air intake of the clothing handling drum 10 at the rear cover 102.
  • the receiving coil 131 and the annular portion 1321 are easy to connect, which facilitates the disassembly and inspection of the receiving coil 131.
  • the annular portion 1321 has a simple structure, which reduces the manufacturing requirements of the second bracket 132.
  • the location of the connecting portion 1322 also reduces the probability of interference with the receiving coil 131, making it easier to achieve the relative arrangement of the receiving coil 131 and the transmitting coil 121.
  • the connecting part 1322 can be detachably connected to the rear cover 102.
  • the connecting part 1322 can be connected to the rear cover 102 by screws, which is not limited here.
  • the transmitting coil 121 is disposed on the side of the rear plate 111 facing the rear cover 102
  • the transmitting circuit board 123 is disposed on the side of the rear plate 111 facing the rear cover 102
  • the receiving coil 131 is disposed on the side of the rear cover 102 facing the rear plate 111
  • the receiving circuit board 133 is disposed on the side of the rear cover 102 facing the rear plate 111.
  • the transmitting coil 121, the receiving coil 131 and the clothing processing tube 10 are coaxially arranged.
  • the transmitting coil 121 and the transmitting circuit board 123 can be integrated on the first bracket 122, and the receiving coil 131 and the receiving circuit board 133 can be integrated on the second bracket 132.
  • the transmitting coil 121 and the receiving coil 131 can always remain in a relative position to achieve continuous power transmission.
  • the transmitting coil 121 is disposed on the side of the rear plate 111 facing the rear cover 102
  • the transmitting circuit board 123 is disposed on the side of the rear plate 111 facing the rear cover 102
  • the receiving coil 131 is disposed on the side of the rear cover 102 facing the rear plate 111
  • the receiving circuit board 133 is disposed in the conical cap 19 inside the clothing processing tube 10.
  • the transmitting coil 121, the receiving coil 131 and the clothing processing tube 10 are coaxially arranged.
  • the transmitting coil 121 and the transmitting circuit board 123 can be integrated on the first bracket 122, while the receiving coil 131 and the receiving circuit board 133 are distributed separately. During the rotation of the clothing processing drum 10, the transmitting coil 121 and the receiving coil 131 can always remain in a relative position to achieve continuous power transmission.
  • the transmitting coil 121 is disposed on the side of the rear plate 111 facing the rear cover 102
  • the transmitting circuit board 123 is disposed on the side of the rear plate 111 facing the rear cover 102
  • the receiving coil 131 is disposed on the side of the rear cover 102 facing the rear plate 111
  • the receiving circuit board 133 is disposed in the connecting channel 14a in the lifting rib 14.
  • the transmitting coil 121, the receiving coil 131 and the clothing processing tube 10 are coaxially arranged.
  • the transmitting coil 121 and the transmitting circuit board 123 can be integrated on the first bracket 122, while the receiving coil 131 and the receiving circuit board 133 are distributed separately. During the rotation of the clothing processing drum 10, the transmitting coil 121 and the receiving coil 131 can always remain in a relative position to achieve continuous power transmission.
  • the transmitting coil 121 is disposed on the side of the rear plate 111 facing the rear cover 102.
  • the transmitting circuit board 123 is disposed between the rear cover 17 and the rear plate 111.
  • the receiving coil 131 is disposed on the side of the rear cover 102 facing the rear plate 111.
  • the receiving circuit board 133 is disposed on the side of the rear cover 102 facing the rear plate 111.
  • the transmitting coil 121, the receiving coil 131 and the clothing processing tube 10 are coaxially arranged.
  • the transmitting coil 121 and the transmitting circuit board 123 are distributed separately, while the receiving coil 131 and the receiving circuit board 133 can be integrated onto the second bracket 132.
  • the transmitting coil 121 and the receiving coil 131 can always remain in a relative position to achieve continuous power transmission.
  • the garment processing device 1 includes a detection unit 15, which is used to detect the electrical conductivity of the garments in the garment processing chamber 10a.
  • the detection unit 15 is electrically connected to the receiving module 13. That is, the detection unit 15 is used to detect the electrical conductivity of the garments in the garment processing drum 10.
  • the detection unit 15 is located in the garment processing drum 10.
  • the detection unit 15 is one of the aforementioned electrical components.
  • the detection unit 15 can detect the conductivity of the load, such as clothing, within the clothing processing chamber 10a.
  • the clothing processing equipment 1 can determine the degree of drying based on the conductivity detected by the detection unit 15.
  • the detection principle of the detection unit 15 can be as follows: the load, such as clothing, within the clothing processing chamber 10a contacts the two detection electrodes 151 of the detection unit 15, causing the detection circuit of the detection unit 15 to conduct.
  • the resistance values of the load, such as clothing have different levels of moisture; that is, the degree of moisture of the load, such as clothing, is related to its conductivity, and the degree of drying is determined based on the conductivity.
  • the detection unit 15 is disposed inside the clothing processing drum 10, and the receiving module 13 provides power to the detection unit 15.
  • the detection electrode 151 of the detection unit 15 can contact the clothing and other loads in the clothing processing chamber 10a, thereby sensing the degree of drying of the clothing at close range and effectively improving the accuracy of judging the degree of drying of the clothing and other loads in the clothing processing drum 10.
  • the installation position of the detection unit 15 inside the garment processing drum 10 is not limited.
  • the detection unit 15 includes a detection electrode 151 and a detection circuit that are electrically connected to each other.
  • the detection electrode 151 is disposed on the outer surface of the lifting rib 14, and the detection circuit is disposed inside the lifting rib 14.
  • the detection circuit is electrically connected to the receiving module 13.
  • the detection electrode 151 is disposed on the outer surface of the lifting rib 14, which facilitates close contact with loads such as clothing.
  • the detection circuit is disposed inside the lifting rib 14. That is, while the lifting rib 14 can be used to move the clothing in the clothing processing cavity 10a, it can also provide installation space for the detection circuit, thereby reducing the probability of the detection circuit contacting the clothing to a certain extent and increasing the installation and working reliability of the detection unit 15.
  • the receiving circuit board 133 may have a detection circuit, and the receiving circuit board 133 may be disposed within the lifting rib 14.
  • the detection circuit can be disposed within the lifting rib 14, and the lifting rib 14, including the detection circuit, is not affected by clothing or other loads within the clothing processing chamber 10a.
  • the detection electrode 151 is disposed on the outer surface of the lifting rib 14 to facilitate contact between the detection electrode 151 and the clothing.
  • the receiving circuit board 133 of the receiving module 13 can be disposed within the lifting rib 14, or it can be integrated with the receiving coil 131 into the second bracket 132, which is connected to the core 1021.
  • the detection electrode 151 may be entirely located on the outer surface of the lifting rib 14 along the circumferential direction, or a portion of the detection electrode 151 may be located on one outer side of the lifting rib 14 along the circumferential direction, and another portion may be located on the top side of the lifting rib 14 along the radial direction away from the peripheral sidewall of the clothing processing cylinder 10.
  • the specific structure of the detection electrode 151 is not limited.
  • the detection electrode 151 includes a first electrode and a second electrode, both located on the outer surface of the lifting rib 14.
  • the first electrode includes a first connecting structure 1511 and at least two first teeth 1512 connected to the first connecting structure 1511.
  • the second electrode includes a second connecting structure 1513 and at least two second teeth 1514 connected to the second connecting structure 1513.
  • the first teeth 1512 and the second teeth 1514 are arranged alternately. That is, there is one second tooth 1514 between any two adjacent first teeth 1512, and the distance between the first teeth 1512 and the second teeth 1514 is greater than zero.
  • first tooth 1512 and the second tooth 1514 are arranged alternately to form an interdigitated structure.
  • One first tooth 1512 and one second tooth 1514 constitute an electrode pair.
  • the detection electrode 151 has at least two electrode pairs.
  • the clothing contacts at least two electrode pairs.
  • the conduction between each electrode pair can be regarded as a resistor.
  • At least two electrode pairs can be regarded as at least two resistors in parallel, thereby making the detection of changes in conductivity more sensitive, improving the detection accuracy and sensitivity of the detection electrode 151, reducing problems such as incomplete drying or over-drying to a certain extent, and improving drying performance.
  • the specific structural form of the first tooth 1512 is not limited; it can be plate-shaped or columnar, etc.
  • the specific structural form of the second tooth 1514 is not limited; it can be plate-shaped or columnar, etc.
  • the cross-sectional shape of the columnar shape is not limited; it can be circular or polygonal, etc. Polygons include quadrilaterals, pentagons, etc. It can be understood that polygons can include rounded polygons.
  • the first connecting structure 1511 and the second connecting structure 1513 extend linearly in parallel, and all the first teeth 1512 and all the second teeth 1514 are located between the first connecting structure 1511 and the second connecting structure 1513. That is, the first connecting structure 1511 and the second connecting structure 1513 can be approximately a straight line structure or a curved structure.
  • the shape of the first tooth 1512 is approximately the same as that of the second tooth 1514, the first tooth 1512 is approximately parallel to the second tooth 1514, and the first connecting structure 1511 and the second connecting structure 1513 are both straight lines and approximately parallel.
  • the first electrode and the second electrode have a simple and compact structure and a neat and beautiful appearance.
  • the first electrode and the second electrode are approximately in the same plane.
  • the first electrode and the second electrode are approximately flat, occupying less space and saving space inside the clothing processing tube 10.
  • Both the first electrode and the second electrode are made of conductive materials; for example, both the first electrode and the second electrode are made of metal.
  • first tooth 1512 protrudes away from the lifting rib 14 to form a first protrusion 1512a.
  • the first protrusion 1512a not only enhances the structural strength of the first tooth 1512 but also facilitates contact with clothing, increasing the contact area.
  • the first protrusion 1512a may be convex-arc in shape.
  • the surface of the first protrusion 1512a away from the lifting rib 14 is curved.
  • a portion of the second tooth 1514 protrudes away from the lifting rib 14 to form a second protrusion 1514a.
  • the second protrusion 1514a not only enhances the structural strength of the second tooth 1514 but also facilitates contact with clothing, increasing the contact area.
  • the second protrusion 1514a may be convex-arc in shape.
  • the surface of the second protrusion 1514a away from the lifting rib 14 is curved.
  • the surface of the first tooth 1512 away from the lifting rib 14 is curved.
  • the surface of the first tooth 1512 away from the lifting rib 14 needs to come into contact with the clothing, and the curved surface can, to some extent, prevent the clothing from getting caught and reduce mutual wear between the clothing and the first tooth 1512.
  • the surface of the second tooth 1514 away from the lifting rib 14 is curved.
  • the surface of the second tooth 1514 away from the lifting rib 14 needs to come into contact with the clothing, and the curved surface can, to some extent, prevent the clothing from getting caught and reduce mutual wear between the clothing and the second tooth 1514.
  • the detection electrode 151 includes a first terminal 1515 and a second terminal 1516.
  • the first terminal 1515 is connected to a first electrode
  • the second terminal 1516 is connected to a second electrode. Both the first terminal 1515 and the second terminal 1516 extend into the lifting rib 14 and are electrically connected to the detection circuit.
  • the first terminal 1515 is connected to one of the first teeth 1512
  • the second terminal 1516 is connected to one of the second teeth 1514.
  • the first terminal 1515 and the second terminal 1516 are connected to the detection circuit to transmit electrical signals between the detection circuit and the detection electrode 151.
  • the first terminal 1515, the second terminal 1516, and the detection circuit are all located within the lifting rib 14, reducing the probability of the first terminal 1515, the second terminal 1516, and the detection circuit coming into contact with clothing and improving safety.
  • the first electrode element can be a one-piece molded structure. That is, the first connecting structure 1511 and the first tooth 1512, etc., can be manufactured as a single piece.
  • the first electrode and the first terminal 1515 can be integrally formed.
  • the second electrode can be a one-piece molded structure. That is, the second connecting structure 1513 and the second tooth 1514, etc., can be manufactured as a single piece.
  • the second electrode and the second terminal 1516 can be an integrally formed structure.
  • the specific structure of the lifting rib 14 is not limited. In some examples, please refer to Figures 14 and 15.
  • the lifting rib 14 includes a main body 141 and an extension 142.
  • the main body 141 is disposed on the circumferential surface of the garment processing cavity 10a.
  • the extension 142 connects to the rear end of the main body 141 and is disposed on the rear surface of the garment processing cavity 10a.
  • the space within the main body 141 and the space within the extension 142 define a connecting channel 14a. Without increasing the radial dimension of the lifting rib 14, the extension 142 being disposed on the rear surface of the garment processing cavity 10a can increase the volume of the connecting channel 14a, thereby accommodating the receiving circuit board 133, the detection circuit of the detection unit 15, etc.
  • the extension 142 can cover a portion of the rear surface of the garment processing cavity 10a to shield the holes for wire passage provided on the rear sidewall of the garment processing cylinder 10.
  • the extension 142 has a rearward opening 142a, and the rear surface of the garment processing cavity 10a can cover the rearward opening 142a of the extension 142.
  • the extension 142 may extend toward the rotation axis of the garment processing drum 10, and the apex of the extension 142 protrudes beyond the apex of the main body 141 in the radial direction of the garment processing drum 10. That is, the outer contours of both the main body 141 and the extension 142 are approximately L-shaped.
  • the rearward surface of the extension 142 is fitted to the rear surface of the garment processing cavity 10a. This reduces the gap between the extension 142 and the rear surface of the garment processing cavity 10a, preventing lint and debris from entering the communicating channel 14a through the gap.
  • the garment processing device 1 further includes a heat exchange component located within the drying tunnel.
  • the heat exchange component is used to exchange heat with the airflow within the drying tunnel, thereby dehumidifying and heating.
  • the humid and hot airflow within the garment processing cylinder 10 can enter the drying tunnel through the air outlet and exchange heat with the heat exchange component, transforming into dry and hot airflow.
  • the dry and hot airflow enters the air supply channel through the return air inlet and then flows back into the garment processing chamber 10a through the air supply outlet and air inlet.
  • the heat exchange assembly includes a condenser and an evaporator.
  • the clothing processing device 1 also includes a compressor and a throttling device.
  • the compressor, condenser, throttling device, and evaporator are connected by pipes to form a heat pump system, and the refrigerant can circulate within the heat pump system.
  • the airflow in the circulating duct exchanges heat with the refrigerant in the evaporator and condenser to form a dry hot airflow.
  • the evaporator is used to cool and dehumidify the humid hot airflow from the clothing processing chamber 10a into a dry cold airflow; the condenser heats the dry cold airflow into a dry hot airflow and returns it to the clothing processing chamber 10a.
  • the working principle of a heat pump system is as follows:
  • the compressor draws in low-pressure gaseous refrigerant and compresses it into high-pressure gaseous state before discharging it.
  • the discharged high-pressure gaseous refrigerant enters the condenser, where it transfers heat to the airflow, causing it to condense into a high-pressure liquid.
  • the high-pressure liquid refrigerant is then throttled and depressurized by a throttling device, becoming a low-pressure, low-temperature gas-liquid two-phase mixture that enters the evaporator.
  • the refrigerant in the evaporator absorbs heat from the airflow, becoming a low-pressure gaseous state, which is then drawn back into the compressor.
  • This cycle repeats, achieving heat exchange.
  • the evaporator cools and dehumidifies the humid airflow from the clothing processing chamber 10a, forming a dry, cool airflow.
  • the condenser heats the dry, cool airflow into a dry, hot airflow, which then flows back into the clothing processing chamber 10a.
  • the dry, hot airflow returning to the clothing processing chamber 10a comes into contact with the damp clothing, forming a humid, hot airflow again, completing one drying cycle.
  • By repeatedly running the drying cycle circulating airflow is continuously supplied to the clothing processing chamber 10a to dry the clothes.
  • both the evaporator and the condenser can be finned tube heat exchangers.
  • throttling devices include, but are not limited to, electronic expansion valves.
  • the garment handling apparatus 1 also includes an impeller for driving airflow.
  • the impeller is located within the drying duct and between the heat exchange components and the return air vent. During the drying process, the impeller drives the airflow passing through the garments sequentially through the evaporator and condenser before being blown back onto the garments to create a circulating airflow. The impeller can accelerate airflow and improve drying efficiency.
  • This application embodiment provides a clothing processing device 1, which includes a housing 11, a clothing processing tube 10, a wireless power supply component, and a mounting component 19.
  • the wireless power supply component includes a transmitting module 12 and a receiving module 13.
  • the receiving module 13 is used to receive electromagnetic signals emitted by the transmitting module 12 and generate induced current.
  • the garment processing tube 10 is disposed inside the housing 11. Specifically, the garment processing tube 10 is rotatably disposed inside the housing 11.
  • At least a portion of the receiving module 13 is disposed in the clothing handling tube 10.
  • the fact that at least a portion of the receiving module 13 is disposed in the clothing processing tube 10 means that a portion of the structure of the receiving module 13 is disposed in the clothing processing tube 10; or, the entire structure of the receiving module 13 is disposed in the clothing processing tube 10.
  • the transmitting module 12 is wirelessly connected to the receiving module 13, meaning that the transmitting module 12 can wirelessly transmit power to the receiving module 13.
  • the electrical components installed in the clothing handling drum 10 can be electrically connected to the receiving module 13, which supplies power to the components to meet their power needs.
  • the receiving module 13 is disposed in the garment processing drum 10.
  • Electrical components such as units for detecting the state of the garments, can be disposed within the garment processing drum 10 and electrically connected to the receiving module 13 to obtain electrical energy.
  • the receiving module 13 and the electrical components rotate synchronously.
  • the electrical connection between the receiving module 13 and the electrical components is relatively stable, and the receiving module 13 can also receive electrical energy transmitted from the transmitting module 12 during rotation.
  • the electrical components disposed within the garment processing drum 10 can sense the state of the garments at close range and perform specific functions, thereby improving the working performance of the garment processing device 1. For example, this can improve the judgment performance of the garment processing device 1.
  • Mounting member 19 is connected to housing 11, and at least a portion of the transmitting module 12 is disposed on mounting member 19. That is, at least a portion of the transmitting module 12 is assembled to housing 11 via mounting member 19.
  • the transmitter module 12 may be assembled with the mounting component 19 first, and then the whole assembly may be assembled into the housing 11.
  • the mounting component 19 may be assembled into the housing 11 first, and then at least a portion of the transmitter module 12 may be assembled into the mounting component 19.
  • the transmitting module 12 is disposed on the mounting component 19. This could mean that a portion of the structure of the transmitting module 12 is disposed on the mounting component 19, or that the entire structure of the transmitting module 12 is disposed on the mounting component 19.
  • the garment processing device 1 provided in this application embodiment has several advantages.
  • the transmitting module 12 and the receiving module 13 can transmit electrical energy without contact, eliminating the need for wire connections and ensuring high reliability.
  • the electrical components of the garment processing device 1 can be housed within the garment processing drum 10, with the receiving module 13 supplying power to them. This facilitates meeting the power requirements of the electrical components and allows for close-range sensing of the garment's condition, thereby improving the overall performance of the garment processing device 1.
  • the transmitting module 12 is connected to the housing 11 via the mounting component 19, enhancing installation flexibility and reducing the design complexity associated with a direct connection between the transmitting module 12 and the housing 11.
  • the housing 11 includes a rear plate 111, and a mounting member 19 is connected to the rear plate 111. At least a portion of the transmitting module 12 is disposed on the mounting member 19, that is, at least a portion of the transmitting module 12 is assembled to the rear plate 111 via the mounting member 19.
  • the transmitter module 12 may be assembled as a whole with the mounting member 19 before the whole assembly is assembled to the rear panel 111.
  • the mounting member 19 may be assembled to the rear panel 111 before at least a portion of the transmitter module 12 is assembled to the mounting member 19.
  • the transmitting module 12 is connected to the rear plate 111 via the mounting component 19, which can improve installation flexibility and reduce the design difficulty caused by directly connecting the transmitting module 12 and the rear plate 111.
  • the garment processing tube 10 includes a tube body 101 and a rear cover 102, with the rear cover 102 disposed at the rear end of the tube body 101.
  • the receiving module 13 includes a receiving coil 131 and a receiving circuit board 133, with the receiving coil 131 disposed on the rear cover 102 and the receiving circuit board 133 electrically connected to the receiving coil 131.
  • At least a portion of the receiving module 13 is disposed on the rear cover 102.
  • the transmitting module 12 is fixed to the rear plate 111 by the mounting member 19, and at least a portion of the receiving module 13 is disposed on the rear cover 102. While providing sufficient installation space and installation safety for the transmitting module 12, the distance between the transmitting module 12 and the receiving module 13 can be shortened, increasing the reliability of power transmission. At the same time, it can also reduce the probability of interference between the electrical connection between the transmitting module 12 and the main control board and the clothing handling tube 10, increasing the reliability of the electrical connection between the transmitting module 12 and the main control board.
  • the transmitting module 12 and the mounting member 19 are located on the side of the rear plate 111 facing the rear cover 102.
  • the transmitting module 12 is an integrated component, with the transmitting module 12 and the mounting member 19 disposed on the side of the rear plate 111 facing the rear cover 102.
  • a portion of the structure of the transmitting module 12 and the mounting member 19 are disposed on the side of the rear plate 111 facing the rear cover 102, while other components of the transmitting module 12 are disposed on the side of the rear plate 111 away from the rear cover 102. That is, the various components of the transmitting module 12 are distributed across different locations on the rear plate 111.
  • the transmitting module 12 includes a transmitting coil 121
  • the receiving module 13 includes a receiving coil 131.
  • the receiving coil 131 is used to receive the electromagnetic signal emitted by the transmitting coil 121 and generate an induced current.
  • the transmitting coil 121, the receiving coil 131, and the clothing processing tube 10 are coaxially arranged.
  • the receiving coil 131 and the transmitting coil 121 always maintain a relative state. This allows the receiving coil 131 to continuously and stably receive the electrical energy transmitted by the transmitting coil 121, thereby continuously providing power to the electrical components of the clothing processing drum 10. In other words, during the rotation of the clothing processing drum 10, the receiving coil 131 can always provide effective and sufficient power to the electrical components, eliminating the need for additional auxiliary power supply structures and increasing the power supply reliability of the clothing processing device 1.
  • the mounting member 19 may be disposed on the side of the rear plate 111 facing the rear cover 102, or the mounting member 19 may be disposed on the side of the rear plate 111 away from the rear cover 102.
  • the transmitting coil 121 may be disposed on the side of the mounting member 19 near the rear plate 111, or the transmitting coil 121 may be disposed on the side of the mounting member 19 away from the rear plate 111.
  • the transmitting coil 121 can be directly connected to the mounting component 19, or it can be indirectly connected to the mounting component 19.
  • the transmitting coil 121 can be connected to the first bracket 122, and the first bracket 122 is connected to the mounting component 19. In this way, the transmitting coil 121 is fixed to the mounting component 19 through the first bracket 122.
  • the garment handling tube 10 includes a back cover 102
  • the transmitting module 12 includes a transmitting coil 121
  • the receiving module 13 includes a receiving coil 131
  • the mounting member 19 is disposed on the side of the back plate 111 facing the back cover 102
  • the transmitting coil 121 is disposed on the side of the mounting member 19 away from the back plate 111
  • the receiving coil 131 is disposed on the side of the back cover 102 facing the back plate 111.
  • Mounting member 19 is located on the side of the rear panel 111 facing the rear cover 102, that is, mounting member 19 is located on the front side of the rear panel 111.
  • the transmitting coil 121 is located on the side of the mounting member 19 away from the rear plate 111, that is, the transmitting coil 121 is located on the front side of the mounting member 19.
  • the receiving coil 131 is located on the side of the rear cover 102 facing the rear plate 111, that is, the receiving coil 131 is located on the rear side of the rear cover 102.
  • the transmitting coil 121 can be positioned close to the receiving coil 131, reducing the distance between the transmitting coil 121 and the receiving coil 131.
  • There are no structures such as the back plate 111, the mounting piece 19, or the back plate 111 obstructing the transmission coil 121 and the receiving coil 131, thus improving reliability.
  • the receiving module 13 includes a receiving coil 131 and a receiving circuit board 133.
  • the receiving coil 131 is disposed on the rear cover 102, and the receiving circuit board 133 is electrically connected to the receiving coil 131.
  • the transmitting module 12 includes a transmitting coil 121 and a transmitting circuit board 123.
  • the transmitting circuit board 123 is electrically connected to the transmitting coil 121.
  • the transmitting circuit board 123 is disposed on the side of the rear plate 111 away from the clothes handling drum 10.
  • the mounting member 19 is disposed on the side of the rear plate 111 facing the clothes handling drum 10.
  • the transmitting coil 121 is disposed on the mounting member 19.
  • the transmitting module 12 can be electrically connected to the main control board through the transmitting circuit board 123.
  • the transmitting circuit board 123 and the transmitting coil 121 can be electrically connected via conductive wires.
  • both the transmitting coil 121 and the transmitting circuit board 123 are disposed on the rear plate 111, which facilitates shortening the connection distance between the transmitting coil 121 and the transmitting circuit board 123, reducing the probability of electromagnetic interference and reducing power loss.
  • the transmitting module 12 includes a transmitting coil 121, a transmitting circuit board 123 and a first bracket 122.
  • the transmitting circuit board 123 is electrically connected to the transmitting coil 121.
  • the transmitting circuit board 123 and the transmitting coil 121 are integrated into the first bracket 122, which is connected to the mounting member 19.
  • the transmitting coil 121 and the transmitting circuit board 123 are integrated by the first bracket 122, eliminating the need for electrical connections between them via wires. This reduces the high assembly load caused by interlaced wires, facilitates power transmission, and minimizes power loss and electromagnetic interference. With the transmitting coil 121 and the transmitting circuit board 123 positioned on the same plane, the overall structure of the transmitting module 12 is simple and compact, and the installation and maintenance of each component are highly convenient.
  • the first bracket 122 provides mounting support for the transmitting coil 121 and the transmitting circuit board 123, increasing their installation stability.
  • the mounting member 19 may be disposed on the side of the rear plate 111 facing the garment handling drum 10
  • the first bracket 122 may be disposed on the side of the mounting member 19 away from the rear plate 111
  • the transmitting coil 121 may be disposed on the side of the first bracket 122 away from the mounting member 19.
  • the receiving coil 131 is disposed on the rear cover 102, the distance between the transmitting coil 121 and the receiving coil 131 is relatively close, so that the transmitting coil 121 and the receiving coil 131 are arranged relatively spaced apart.
  • the receiving module 13 includes a receiving coil 131, a receiving circuit board 133 and a second bracket 132.
  • the receiving circuit board 133 is electrically connected to the receiving coil 131 and the receiving circuit board 133 and the receiving coil 131 are integrated in the second bracket 132.
  • the receiving coil 131 and the receiving circuit board 133 are integrated by the second bracket 132, eliminating the need to connect them with wires. This reduces the assembly complexity caused by intertwined wires, facilitates power transmission, and minimizes filtering losses and electromagnetic interference. Since the receiving coil 131 and the receiving circuit board 133 are mounted on the same plane, the overall structure of the receiving module 13 is simple and compact, and the installation and maintenance of each component are highly convenient.
  • the second bracket 132 provides mounting support for the receiving coil 131 and the receiving circuit board 133, increasing their installation stability.
  • This application embodiment provides a clothing processing device 1, which includes a clothing processing tube 10 and a wireless power supply component.
  • the garment processing tube 10 includes a tube body 101.
  • the garment handling drum 10 also includes a rear cover 102, which is located at the rear end of the drum body 101.
  • the front of the tube body 101 is open to form a clothing loading port, and the rear end of the tube body 101 cooperates with the rear cover 102.
  • the tube body 101 and the rear cover 102 together define the clothing processing chamber 10a.
  • the rear end of the tube body 101 can be detachably connected to the rear cover 102.
  • the wireless power supply component includes a transmitting module 12 and a receiving module 13.
  • the receiving module 13 includes a receiving coil 131, which is used to receive electromagnetic signals emitted by the transmitting module 12 and generate induced current.
  • the receiving coil 131 is disposed on the cylinder body 101.
  • the transmitting module 12 and the receiving module 13 can achieve wireless connection through electromagnetic induction.
  • the transmitting module 12 includes a transmitting coil 121 and a receiving coil 131 for receiving the electromagnetic signal emitted by the transmitting coil 121 and generating an induced current.
  • the transmitting coil 121 is a component located outside the clothing processing tube 10.
  • the wireless power supply component is a structure that provides electrical power to the electrical components of the garment processing device 1 wirelessly.
  • the components other than the clothing processing cylinder 10 refer to components that are independent of the clothing processing cylinder 10 and are located outside the clothing processing cylinder 10. When the clothing processing cylinder 10 rotates, the transmitting module 12 can remain stationary.
  • the components other than the clothing processing cylinder 10 can be the housing 11 or the base 16 located below the housing 11, etc., and there are no restrictions here.
  • the transmitting coil 121 and the receiving coil 131 can achieve wireless connection through electromagnetic induction.
  • the transmitting coil 121 generates a changing magnetic field
  • the receiving coil 131 generates an induced current through electromagnetic induction to receive electrical energy transmission from the transmitting coil 121.
  • the electrical components installed in the clothing processing drum 10 can be electrically connected to the receiving module 13, and the receiving module 13 can supply power to the electrical components to meet the power demand.
  • the transmitting coil 121 is wirelessly connected to the receiving coil 131, meaning that the transmitting coil 121 can wirelessly transmit power to the receiving coil 131.
  • the electrical components installed in the clothing handling drum 10 can be electrically connected to the receiving module 13, such as the receiving coil 131, to supply power to the electrical components and meet their power needs.
  • the receiving coil 131 is disposed on the body 101. Electrical components, such as units for detecting the state of clothing, can be disposed on the clothing processing drum 10 and electrically connected to the receiving module 13 to obtain electrical energy. When the clothing processing drum 10 rotates, the receiving module 13 and the electrical components rotate synchronously. The electrical connection between the receiving coil 131 and the electrical components is relatively stable, and the receiving coil 131 can also receive electrical energy transmitted from the transmitting coil 121 during rotation. In this way, the electrical components disposed in the clothing processing drum 10 can sense the state of clothing at close range and perform specific functions, thereby improving the working performance of the clothing processing equipment 1. For example, the judgment performance of the clothing processing equipment 1 can be improved.
  • the garment processing device 1 provided in this application embodiment has a transmitting module 12 located outside the garment processing drum 10, and a receiving coil 131 located on the drum body 101.
  • the drum body 101 is relatively large, providing sufficient space for installing the receiving coil 131, thus reducing the installation difficulty of the receiving coil 131.
  • the transmitting module 12 and the receiving coil 131 can transmit electrical energy without contact, achieving high reliability without wire connection.
  • the electrical components of the garment processing device 1 can be located inside the garment processing drum 10, with the receiving module 13 supplying power to the electrical components. This facilitates meeting the power requirements of the electrical components and allows for close-range sensing of the garment's condition, improving the overall performance of the garment processing device 1.
  • the transmitting module 12 includes a transmitting coil 121
  • the clothing processing device 1 includes a housing 11
  • the clothing processing tube 10 is disposed inside the housing 11
  • the transmitting coil 121 is disposed in the housing 11.
  • the housing 11 remains stationary, and the transmitting coil 121 is disposed on the housing 11 so that the transmitting coil 121 can be wired to the main control board. There is no conductive wire between the transmitting coil 121 and the receiving coil 131, so that the problem of conductive wire entanglement will not occur during the rotation of the clothing processing tube 10 relative to the housing 11.
  • the transmitting coil 121 may be disposed on the outside of the housing 11.
  • the transmitting coil 121 may be disposed inside the housing 11.
  • the housing 11 can protect the transmitting coil 121 and also reduce the influence of the housing 11 on the electromagnetic induction between the transmitting coil 121 and the receiving coil 131.
  • the transmitting coil 121 is disposed inside the housing 11, and the receiving coil 131 is disposed on the circumferential outer side of the cylinder 101.
  • the receiving coil 131 is disposed on the circumferential outer side of the tube body 101, that is, the axis of the receiving coil 131 is arranged radially along the clothing processing tube 10.
  • the transmitting coil 121 is disposed on the inner side of the housing 11.
  • the receiving coil 131 rotates with the clothing processing tube 10 to a set area, where it is positioned opposite the transmitting coil 121. This allows the receiving coil 131 to receive the electromagnetic signal emitted by the transmitting coil 121 and generate an induced current, providing electrical energy to the electrical components.
  • the receiving coil 131 on the circumferential outer side of the tube body 101 and the transmitting coil 121 on the inner side of the housing 11 provide sufficient space for arrangement, reducing the requirements for the installation positions of the receiving coil 131 and the transmitting coil 121, as long as they can be positioned relative to each other through rotation.
  • the housing 11 includes a top plate 112, a transmitting coil 121 may be disposed on the top plate 112, and a receiving coil 131 is disposed on the circumferential outer side of the cylinder body 101.
  • the top plate 112 is the plate of the box 11 located above the clothing processing drum 10.
  • the transmitting coil 121 is disposed on the side of the top plate 112 facing the clothes handling drum 10, that is, the transmitting coil 121 is disposed below the top plate 112.
  • the transmitting coil 121 is located on the side of the top plate 112 away from the clothes handling drum 10, that is, the transmitting coil 121 is located above the top plate 112.
  • the receiving coil 131 is disposed on the outer circumferential side of the tube body 101, and the transmitting coil 121 is disposed on the top plate 112.
  • the receiving coil 131 rotates with the clothing processing tube 10 to a set area, where the receiving coil 131 is positioned opposite the transmitting coil 121, thereby enabling the receiving coil 131 to receive the electromagnetic signal emitted by the transmitting coil 121 and generate an induced current to provide power to the electrical components.
  • the transmitting module 12 includes a transmitting circuit board 123, and the transmitting coil 121 is electrically connected to the transmitting circuit board 123.
  • the transmitting circuit board 123 is disposed in the housing 11.
  • the housing 11 remains stationary, the main control board is generally mounted on the housing 11, and the transmitting coil 121 and the transmitting circuit board 123 are both mounted on the housing 11 to facilitate wired connection between the transmitting coil 121, the transmitting circuit board 123 and the main control board.
  • the transmitting coil 121 and the transmitting circuit board 123 may also be directly connected. That is, there is no conductive wire between the transmitting coil 121 and the transmitting circuit board 123.
  • the transmitting circuit board 123 is disposed on the side of the rear plate 111 away from the clothes handling drum 10, and the transmitting coil 121 is disposed on the side of the rear plate 111 close to the clothes handling drum 10.
  • the transmitting circuit board 123 is disposed on the side of the rear plate 111 away from the clothes handling drum 10, that is, the transmitting circuit board 123 is disposed on the rear side of the rear plate 111.
  • the rear plate 111 can provide a certain degree of protection for the transmitting circuit board 123, reducing the impact of airflow on the transmitting circuit board 123 and reducing the probability of impurities such as lint carried by the airflow adhering to the transmitting circuit board 123, thereby increasing the installation safety of the transmitting circuit board 123.
  • it also facilitates the wired connection between the transmitting circuit board 123 and the main control board.
  • the transmitting coil 121 is disposed on the side of the rear plate 111 closer to the clothes handling drum 10, so that the transmitting coil 121 and the receiving coil 131 are in close proximity.
  • the garment processing device 1 includes a first bracket 122, a transmitting circuit board 123 and a transmitting coil 121 integrated into the first bracket 122, and the first bracket 122 is connected to the housing 11.
  • the transmitting coil 121 and the transmitting circuit board 123 are integrated by the first bracket 122.
  • the transmitting coil 121 and the transmitting circuit board 123 can be directly connected without the need for wiring, reducing the high assembly load caused by wire tangling. This facilitates power transmission, reduces power loss and electromagnetic interference. Since the transmitting coil 121 and the transmitting circuit board 123 are located on the same plane, the overall structure of the transmitting module 12 is simple and compact, and the installation and maintenance of each component are highly convenient.
  • the first bracket 122 provides mounting support for the transmitting coil 121 and the transmitting circuit board 123, increasing their installation stability.
  • the transmitting module 12 includes a transmitting coil 121
  • the clothing processing device 1 includes a base 16, the base 16 is disposed below the clothing processing tube 10, the transmitting coil 121 is disposed on the side of the base 16 facing the clothing processing tube 10, and the receiving coil 131 is disposed on the circumferential outer side of the tube body 101.
  • the transmitting coil 121 is disposed on the side of the base 16 facing the clothes processing tube 10, that is, the transmitting coil 121 is disposed above the base 16, and the transmitting coil 121 is located between the clothes processing tube 10 and the base 16.
  • the base 16 has a drying tunnel that is connected to the clothing processing chamber 10a.
  • the airflow that has exchanged heat and moisture with the clothing can enter the drying tunnel, where condensation dehumidification and heating are completed, forming a new dry hot airflow that enters the clothing processing chamber 10a to dry the clothing.
  • the garment processing drum 10 includes an air inlet and an air outlet
  • the garment processing chamber 10a is connected to the air inlet and the air outlet
  • the drying tunnel is connected to the air outlet
  • the air inlet is located on the rear cover 102
  • the dry hot airflow completes heat and moisture exchange with the clothes in the garment processing chamber 10a and can enter the drying tunnel through the air outlet, complete heat exchange in the drying tunnel, form a new dry hot airflow and enter the garment processing chamber 10a again through the air inlet, and so on, to complete the effective drying of the clothes.
  • the receiving coil 131 is disposed on the circumferential outer side of the tube body 101, that is, the axis of the receiving coil 131 is arranged radially along the clothing processing tube 10.
  • the transmitting coil 121 is disposed on the side of the base 16 facing the clothing processing tube 10. During the rotation of the clothing processing tube 10, when the receiving coil 131 rotates with the clothing processing tube 10 to a set area, the receiving coil 131 is positioned opposite the transmitting coil 121 in that set area, thereby allowing the receiving coil 131 to receive the electromagnetic signal emitted by the transmitting coil 121 and generate an induced current, providing electrical energy to the electrical components.
  • the receiving coil 131 transmits electrical energy with the transmitting coil 121 by rotating with the clothing processing tube 10, thereby supplying power to the electrical components.
  • the receiving coil 131 on the circumferential outer side of the tube body 101 and the transmitting coil 121 on the side of the base 16 facing the clothing processing tube 10 have sufficient arrangement space, and the requirements for the installation positions of the receiving coil 131 and the transmitting coil 121 can be reduced, as long as they can be positioned opposite each other by rotation.
  • the transmitting coil 121 may also be disposed inside the base 16.
  • the transmitting module 12 includes a transmitting coil 121
  • the clothing processing device 1 includes a housing 11 with a rear plate 111
  • the clothing processing tube 10 is disposed inside the housing 11
  • the transmitting coil 121 is disposed on the rear plate 111
  • the receiving coil 131 is disposed at the rear end of the tube body 101.
  • the rear end of the tub 101 refers to the end of the tub 101 that is close to the back plate 111, that is, the end of the tub 101 that is away from the clothing loading port.
  • the receiving coil 131 can be disposed at the connection between the rear end of the barrel 101 and the rear cover 102.
  • the rear end of the cylinder 101 is close to the rear plate 111, the transmitting coil 121 is disposed on the rear plate 111, and the receiving coil 131 is disposed on the rear end of the cylinder 101.
  • the distance between the transmitting coil 121 and the receiving coil 131 is relatively close, which is conducive to the stable transmission of electrical energy between the transmitting coil 121 and the receiving coil 131.
  • the relative arrangement of the transmitting coil 121 and the receiving coil 131 means that there is a certain gap between the transmitting coil 121 and the receiving coil 131, and that the projection of the transmitting coil 121 and the receiving coil 131 at least partially overlap, with a plane perpendicular to the axis of either the transmitting coil 121 or the receiving coil 131 as the projection plane.
  • the transmitting coil 121 and the receiving coil 131 are arranged coaxially.
  • the transmitting coil 121 is disposed on the side of the rear plate 111 facing the clothes processing tube 10, and the receiving coil 131 can surround the rear end of the tube body 101.
  • the transmitting coil 121, the receiving coil 131 and the clothes processing tube 10 are coaxially arranged.
  • the transmitting coil 121 and the receiving coil 131 can always remain coaxial and relative to each other. That is, no matter where the clothing processing drum 10 rotates to, the transmitting coil 121 and the receiving coil 131 always remain coaxial and relative to each other, so as to achieve continuous power transmission.
  • the transmitting coil 121 and the receiving coil 131 may also be coaxially and oppositely arranged at a specific position, that is, the receiving coil 131 can be moved to that specific position and coaxially and oppositely arranged with the transmitting coil 121 as the clothing processing drum 10 rotates.
  • the receiving module 13 includes a receiving circuit board 133, which is electrically connected to the receiving coil 131.
  • the receiving circuit board 133 and the receiving coil 131 can be electrically connected via conductive wires.
  • the receiving circuit board 133 and the receiving coil 131 can be directly electrically connected, that is, there is no conductive wire between the receiving circuit board 133 and the receiving coil 131.
  • the garment processing device 1 includes a lifting rib 14, which protrudes radially from the circumferential inner wall of the garment processing cylinder 10, and the receiving circuit board 133 is disposed within the lifting rib 14.
  • the receiving coil 131 and the receiving circuit board 133 are arranged separately.
  • the lifting rib 14 provides installation space for the receiving circuit board 133, reducing the probability of the receiving circuit board 133 coming into contact with clothing and increasing the installation reliability of the receiving circuit board 133.
  • electrical components can also be set inside the lifting rib 14, and there is no limitation here.
  • the garment processing device 1 includes a conical cap 18, the garment processing tube 10 includes a rear cover 102, one end of the conical cap 18 is connected to the side of the rear cover 102 near the tube body 101, and the receiving circuit board 133 is located inside the conical cap 18.
  • the receiving circuit board 133 is disposed inside the conical cap 18.
  • the conical cap 18 provides installation space for the receiving circuit board 133, and the conical cap 18 can reduce the probability of the receiving circuit board 133 coming into contact with clothing to a certain extent, thereby increasing the installation reliability of the receiving circuit board 133.
  • the receiving module 13 includes a receiving circuit board 133
  • the garment processing device 1 includes a second bracket 132
  • the receiving circuit board 133 is electrically connected to the receiving coil 131
  • the receiving circuit board 133 and the receiving coil 131 are integrated in the second bracket 132
  • the second bracket 132 is connected to the tube body 101.
  • the receiving coil 131 and the receiving circuit board 133 are integrated by the second bracket 132.
  • the receiving coil 131 and the receiving circuit board 133 can be directly connected without the need for wiring, reducing the high assembly complexity caused by intertwined wires, facilitating power transmission, reducing filtering losses and electromagnetic interference. Since the receiving coil 131 and the receiving circuit board 133 are located on the same plane, the overall structure of the receiving module 13 is simple and compact, and the installation and maintenance of each component are highly convenient.
  • the second bracket 132 provides mounting support for the receiving coil 131 and the receiving circuit board 133, increasing the installation stability of the receiving coil 131 and the receiving circuit board 133.
  • the transmitting coil 121 is disposed on the side of the rear plate 111 facing the clothes processing tube 10
  • the transmitting circuit board 123 is disposed on the side of the rear plate 111 away from the clothes processing tube 10
  • the receiving coil 131 is disposed at the rear end of the tube body 101
  • the receiving circuit board 133 is disposed inside the conical cap 18.
  • the transmitting coil 121 and the transmitting circuit board 123 can be arranged separately, and the receiving coil 131 and the receiving circuit board 133 can also be arranged separately.
  • the transmitting coil 121 and the receiving coil 131 can always remain in a relative position to achieve continuous power transmission.
  • the transmitting coil 121 is disposed on the side of the top plate 112 facing the clothes processing tube 10
  • the transmitting circuit board 123 is disposed on the side of the top plate 112 facing the clothes processing tube 10
  • the receiving coil 131 is disposed on the circumferential outer side of the tube body 101
  • the receiving circuit board 133 is disposed on the circumferential outer side of the tube body 101.
  • the transmitting coil 121 and the transmitting circuit board 123 can be integrated on the first bracket 122, and the receiving coil 131 and the receiving circuit board 133 can be integrated on the second bracket 132.
  • the receiving coil 131 rotates with the clothes processing drum 10 to a set area and is positioned opposite to the transmitting coil 121, and performs electrical energy transmission within the set area.
  • the transmitting coil 121 is disposed inside the base 16, the transmitting circuit board 123 is disposed inside the base 16, the receiving coil 131 is disposed on the circumferential outer side of the cylinder body 101, and the receiving circuit board 133 is disposed inside the lifting rib 14.
  • the transmitting coil 121 and the transmitting circuit board 123 can be integrated on the first bracket 122, while the receiving coil 131 and the receiving circuit board 133 are distributed separately.
  • the receiving coil 131 rotates with the clothes processing drum 10 to a set area and is positioned opposite to the transmitting coil 121, and performs electrical energy transmission within the set area.
  • the transmitting coil 121 is disposed on the side of the base 16 facing the clothes processing tube 10
  • the transmitting circuit board 123 is disposed on the side of the base 16 facing the clothes processing tube 10
  • the receiving coil 131 is disposed on the circumferential outer side of the tube body 101
  • the receiving circuit board 133 is disposed inside the lifting rib 14.
  • the transmitting coil 121 and the transmitting circuit board 123 can be integrated on the first bracket 122, while the receiving coil 131 and the receiving circuit board 133 are distributed separately.
  • the receiving coil 131 rotates with the clothing processing drum 10 to a set area and is positioned opposite to the transmitting coil 121, and performs electrical energy transmission within the set area.
  • the transmitting coil 121 is disposed on the side of the base 16 facing the clothes processing tube 10
  • the transmitting circuit board 123 is disposed on the side of the base 16 facing the clothes processing tube 10
  • the receiving coil 131 is disposed on the outer circumferential side of the tube body 101
  • the receiving circuit board 133 is disposed on the outer circumferential side of the tube body 101.
  • the transmitting coil 121 and the transmitting circuit board 123 can be integrated on the first bracket 122, and the receiving coil 131 and the receiving circuit board 133 can be integrated on the second bracket 132.
  • the receiving coil 131 rotates with the clothes processing drum 10 to a set area and is positioned opposite to the transmitting coil 121, and performs electrical energy transmission within the set area.
  • the terms “one embodiment,” “some embodiments,” “example,” “specific example,” or “some examples,” etc. refer to specific features, structures, materials, or characteristics described in connection with that embodiment or example, which are included in at least one embodiment or example of the embodiments of this application.
  • the illustrative expressions of the above terms do not necessarily refer to the same embodiment or example.
  • the specific features, structures, materials, or characteristics described may be combined in any suitable manner in one or more embodiments or examples.
  • those skilled in the art can combine different embodiments or examples described in this application, as well as features of different embodiments or examples.

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Abstract

本申请实施例提供了一种衣物处理设备,包括箱体、衣物处理筒和无线供能组件,箱体包括后板,衣物处理筒可转动地设置于箱体内,衣物处理筒包括筒身和后盖,后盖设置于筒身的后端;无线供能组件包括发射模块和接收模块,接收模块用于接收发射模块发射的电磁信号并产生感应电流;发射模块设置于后板,接收模块的至少一部分设置于后盖。本申请实施例提供的衣物处理设备,发射模块和接收模块无需接触即可传输电能,实现在相对转动的衣物处理筒和相对静止的后板之间的电能传输。通过接收模块为电器元件供电,从而便于满足电器元件的用电需求及便于近距离感知衣物状态。

Description

一种衣物处理设备
相关申请的交叉引用
本申请基于申请号为202410693912.5、申请日为2024年5月30日的中国专利申请,申请号为202421220023.9、申请日为2024年5月30日的中国专利申请,申请号为202422718489.8、申请日为2024年11月07日的中国专利申请,以及申请号为202422730182.X、申请日为2024年11月08日的中国专利提出,并要求上述四个中国专利申请的优先权,上述四个中国专利申请的全部内容在此引入本申请作为参考。
技术领域
本申请涉及衣物处理技术领域,尤其涉及一种衣物处理设备。
背景技术
相关技术中,以衣物处理设备为干衣机为例,因衣物处理筒处于旋转状态,考虑到供电和信号传输的问题,电器元件如检测衣物状态的单元、起特定功能作用的单元等无法直接放置在衣物处理筒内,如需判断衣物是否完全烘干,只能将检测衣物状态的单元放置于衣物处理筒的进、出风口处,通过进、出风口处的气流状态差异判断衣物是否烘干,此种方式检测精度低,电器元件无法近距离感知衣物状态和实现特定功能。
发明内容
有鉴于此,本申请实施例期望提供一种衣物处理设备,通过设置发射模块和接收模块无接触式传输电能,便于直接在衣物处理筒上安装电器元件以对衣物进行近距离检测和近距离执行特定功能等作用,增加衣物处理设备的可靠性。
本申请实施例提供一种衣物处理设备,包括:
箱体,包括后板;
衣物处理筒,可转动地设置于所述箱体内,所述衣物处理筒包括筒身和后盖,所述后盖设置于所述筒身的后端;
无线供能组件,包括发射模块和接收模块,所述接收模块用于接收所述发射模块发射的电磁信号并产生感应电流;
所述发射模块设置于所述后板,所述接收模块的至少一部分设置于所述后盖。
本申请实施例提供的衣物处理设备,发射模块和接收模块无需接触即可传输电能,实现在相对转动的衣物处理筒和相对静止的后板之间的电能传输,不用电线连接即可实现电能传输,可靠性高。并且,衣物处理设备的电器元件可以设置于衣物处理筒内,通过接收模块为电器元件供电,从而便于满足电器元件的用电需求及便于近距离感知衣物状态,提升衣物处理设备的整体性能。发射模块和接收模块的设置位置,在为发射模块提供足够安装空间和安装安全性的同时,使得发射模块和接收模块之间的距离能够较短,增加电能传输可靠性,同时,也能够降低发射模块与主控板的电连接与衣物处理筒发生干涉的几率,增加发射模块与主控板的电连接可靠性。
一些实施方案中,所述发射模块包括发射线圈,所述接收模块包括接收线圈,所述接收线圈用于接收所述发射模块发射的电磁信号并产生感应电流,所述发射线圈、所述接收线圈、所述衣物处理筒三者同轴设置。
一些实施方案中,所述衣物处理设备包括后罩,所述后罩盖设于所述后板的后侧表面,并与所述后板共同限定出送风通道,所述后板形成有送风口,所述后盖形成有进风口,所述送风通道的气流经所述送风口、所述进风口流向所述衣物处理腔,所述发射模块的至少部分设置于所述后板未被所述后罩覆盖的部位。
一些实施方案中,所述箱体包括壳部,所述壳部罩设于所述后板以及所述后罩的后侧,所述发射模块包括发射线圈和发射电路板,所述发射电路板与所述发射线圈电连接,所述发射电路板位于所述后板和所述壳部之间的空间且与所述后板连接。
一些实施方案中,所述发射模块包括发射线圈和发射电路板,所述发射电路板与所述发射线圈电连接,所述发射电路板设置于所述后板远离所述衣物处理筒的一侧,所述发射线圈设置于所述后板朝向所述衣物处理筒的一侧。
一些实施方案中,所述发射模块包括发射线圈和发射电路板,所述衣物处理设备包括第一支架,所述发射电路板与所述发射线圈电连接,所述发射电路板和所述发射线圈集成于所述第一支架上。
一些实施方案中,所述接收模块包括接收线圈,所述接收线圈设置于所述后盖朝向所述后板的一侧。
一些实施方案中,所述后盖包括芯部、外环结构以及多个支撑臂,所述外环结构环绕在所述芯部的周向外侧,多个所述支撑臂沿所述芯部的周向呈辐射状分布,所述支撑臂连接所述芯部和所述外环结构,所述接收线圈设置于所述芯部朝向所述后板的一侧。
一些实施方案中,所述接收模块包括接收电路板,所述接收电路板与所述接收线圈电连接;
所述衣物处理设备包括提升筋,所述提升筋沿径向凸出于所述衣物处理筒的周向内壁,所述接收电路板设置于所述提升筋内;
或者,所述衣物处理设备包括锥形帽,所述锥形帽的一端与所述后盖靠近所述筒身的一侧连接,所述接收电路板位于所述锥形帽内。
一些实施方案中,所述接收模块包括接收线圈和接收电路板,所述接收电路板与所述接收线圈电连接,所述衣物处理设备包括第二支架,所述接收电路板与所述接收线圈集成于所述第二支架。
一些实施方案中,所述发射模块包括发射线圈,所述接收模块包括接收线圈,所述接收模块用于接收所述发射线圈发射的电磁信号并产生感应电流,所述发射线圈和所述接收线圈之间的距离为4mm~10mm。
一些实施方案中,所述衣物处理设备包括检测单元,所述检测单元用于对所述衣物处理腔内的衣物的电导率进行检测,所述检测单元与所述接收模块电连接。
一些实施方案中,所述衣物处理设备包括提升筋,所述提升筋沿径向凸出于所述衣物处理筒的周向内壁,所述检测单元包括相互电连接的检测电极和检测电路,所述检测电极设置于所述提升筋的外表面,所述检测电路设置于所述提升筋内,所述检测电路与所述接收模块电连接。
本申请实施例提供一种衣物处理设备,包括:
箱体;
衣物处理筒,设置于所述箱体内;
无线供能组件,包括发射模块和接收模块,所述接收模块用于接收所述发射模块发射的电磁信号并产生感应电流;
安装件,与所述箱体连接,所述发射模块的至少部分设置于所述安装件。
本申请实施例提供的衣物处理设备,一方面,发射模块和接收模块无需接触即可传输电能,不用电线连接即可实现电能传输,可靠性高。并且,衣物处理设备的电器元件可以设置于衣物处理筒内,通过接收模块为电器元件供电,从而便于满足电器元件的用电需求及便于近距离感知衣物状态,提升衣物处理设备的整体性能。另一方面,发射模块通过安装件与箱体连接,可以提升安装灵活性,降低发射模块和箱体直接连接带来的设计难度。
一些实施方案中,所述箱体包括后板,所述安装件与所述后板连接。
一些实施方案中,所述衣物处理筒包括后盖,所述发射模块包括发射线圈,所述接收模块包括接收线圈,所述安装件设置于所述后板朝向所述后盖的一侧,所述发射线圈设置于所述安装件远离所述后板的一侧,所述接收线圈设置于所述后盖朝向所述后板的一侧。
一些实施方案中,所述发射模块包括发射线圈和发射电路板,所述发射电路板与所述发射线圈电连接,所述发射电路板设置于所述后板远离所述衣物处理筒的一侧,所述安装件设置于所述后板朝向所述衣物处理筒的一侧,所述发射线圈设置于所述安装件。
一些实施方案中,所述发射模块包括发射线圈,所述接收模块包括接收线圈,所述接收线圈用于接收所述发射线圈发射的电磁信号并产生感应电流,所述发射线圈、所述接收线圈和所述衣物处理筒三者同轴设置。
一些实施方案中,所述衣物处理筒包括筒身和后盖,所述后盖设置于所述筒身的后端,所述接收模块包括接收线圈和接收电路板,所述接收线圈设置于所述后盖,所述接收电路板与所述接收线圈电连接;
所述衣物处理设备包括提升筋,所述提升筋沿径向凸出于所述衣物处理筒的周向内壁,所述接收电路板设置于所述提升筋内;
或者,所述衣物处理设备包括锥形帽,所述锥形帽的一端与所述后盖靠近所述筒身的一侧连接,所述接收电路板位于所述锥形帽内。
一些实施方案中,所述发射模块包括发射线圈、发射电路板和第一支架,所述发射电路板与所述发射线圈电连接,所述发射电路板和所述发射线圈集成于所述第一支架,所述第一支架与所述安装件连接。
一些实施方案中,所述接收模块包括接收线圈、接收电路板和第二支架,所述接收电路板与所述接收线圈电连接,所述接收电路板与所述接收线圈集成于所述第二支架。
一些实施方案中,所述衣物处理设备包括检测单元,所述检测单元用于对所述衣物处理筒内的衣物的电导率进行检测,所述检测单元与所述接收模块电连接。
一些实施方案中,所述衣物处理设备包括提升筋,所述提升筋沿径向凸出于所述衣物处理筒的周向内壁,所述检测单元包括相互电连接的检测电极和检测电路,所述检测电极设置于所述提升筋的外表面,所述检测电路设置于所述提升筋内,所述检测电路与所述接收模块电连接。
本申请实施例提供一种衣物处理设备,包括:
衣物处理筒,包括筒身;
无线供能组件,包括发射模块和接收模块,所述接收模块包括接收线圈,所述接收线圈用于接收所述发射模块发射的电磁信号并产生感应电流,所述接收线圈设置于所述筒身。
本申请实施例提供的衣物处理设备,发射模块设置于衣物处理筒之外的部件,接收线圈设置于筒身,筒身尺寸相对较大,有足够的位置用于安装接收线圈,降低接收线圈的安装难度。发射模块和接收线圈无需接触即可传输电能,不用电线连接即可实现电能传输,可靠性高。并且,衣物处理设备的电器元件可以设置于衣物处理筒内,通过接收模块为电器元件供电,从而便于满足电器元件的用电需求及便于近距离感知衣物状态,提升衣物处理设备的整体性能。
一些实施方案中,所述发射模块包括发射线圈,所述衣物处理设备包括箱体,所述衣物处理筒设置于所述箱体内,所述发射线圈设置于所述箱体。
一些实施方案中,所述发射线圈设置于所述箱体的内侧,所述接收线圈设置于所述筒身的周向外侧。
一些实施方案中,所述发射模块包括发射电路板,所述发射线圈和所述发射电路板电连接,所述发射电路板设置于所述箱体。
一些实施方案中,所述衣物处理设备包括第一支架,所述发射电路板和所述发射线圈集成于所述第一支架,所述第一支架与所述箱体连接。
一些实施方案中,所述发射模块包括发射线圈,所述衣物处理设备包括底座,所述底座设置于所述衣物处理筒的下方,所述发射线圈设置于所述底座朝向所述衣物处理筒的一侧,所述接收线圈设置于所述筒身的周向外侧。
一些实施方案中,所述发射模块包括发射线圈,所述衣物处理设备包括具有后板的箱体,所述衣物处理筒设置于所述箱体内,所述发射线圈设置于所述后板,所述接收线圈设置于所述筒身的后端部位。
一些实施方案中,所述接收模块包括接收电路板,所述接收电路板与所述接收线圈电连接;
所述衣物处理设备包括提升筋,所述提升筋沿径向凸出于所述衣物处理筒的周向内壁,所述接收电路板设置于所述提升筋内;
或者,所述衣物处理设备包括锥形帽,所述衣物处理筒包括后盖,所述后盖设置于所述筒身的后端,所述锥形帽的一端与所述后盖靠近所述筒身的一侧连接,所述接收电路板位于所述锥形帽内。
一些实施方案中,所述接收模块包括接收电路板,所述衣物处理设备包括第二支架,所述接收电路板与所述接收线圈电连接,所述接收电路板与所述接收线圈集成于所述第二支架,所述第二支架与所述筒身连接。
一些实施方案中,所述衣物处理设备包括检测单元,所述检测单元用于对所述衣物处理筒内的衣物的电导率进行检测,所述检测单元与所述接收模块电连接。
附图说明
图1为本申请一实施例的衣物处理设备的局部结构的爆炸示意图;
图2为图1所示结构另一视角下的爆炸示意图;
图3为本申请一实施例的衣物处理设备另一视角下的结构示意图;
图4为本申请一实施例的第一支架、发射线圈与后板的配合结构示意图;
图5为本申请一实施例的发射电路板与后板的配合结构示意图;
图6为本申请一实施例的第一支架的结构示意图;
图7为本申请一实施例的第二支架、接收线圈、接收电路板与后盖的配合结构示意图;
图8为图7所示第二支架的结构示意图;
图9为本申请另一实施例的第二支架的结构示意图;
图10为本申请第一实施例的衣物处理设备的发射模块与接收模块的配合示意图;
图11为本申请第二实施例的衣物处理设备的发射模块与接收模块的配合位置示意图;
图12为本申请第三实施例的衣物处理设备的发射模块与接收模块的配合位置示意图;
图13为本申请第四实施例的衣物处理设备的发射模块与接收模块的配合位置示意图;
图14为本申请一实施例的提升筋的结构示意图;
图15为图14所示结构另一视角下的结构示意图;
图16为提升筋与检测单元的配合示意图;
图17为图16所示检测电极的结构示意图;
图18为本申请另一实施例的检测电极的结构示意图;
图19为图18所示检测电极另一视角下的结构示意图;
图20为本申请另一实施例的衣物处理设备的局部结构的爆炸示意图;
图21为图20所示结构另一视角下的爆炸示意图;
图22为本申请第五实施例中的衣物处理设备的发射模块与接收模块的配合位置示意图;
图23为本申请第六实施例中的衣物处理设备的发射模块与接收模块的配合位置示意图。
图24为本申请第七实施例的衣物处理设备的发射模块与接收模块的配合示意图;
图25为本申请第八实施例的衣物处理设备的发射模块与接收模块的配合位置示意图;
图26为本申请第九实施例的衣物处理设备的发射模块与接收模块的配合位置示意图;
图27为本申请第十实施例的衣物处理设备的发射模块与接收模块的配合位置示意图;
图28为本申请第十一实施例的衣物处理设备的发射模块与接收模块的配合位置示意图;
图29为本申请又一实施例中衣物处理设备的部分结构的爆炸示意图。
具体实施方式
为了使本申请的目的、技术方案及优点更加清楚明白,以下结合附图及实施例,对本申请进行进一步详细说明。应当理解,此处所描述的具体实施例仅仅用以解释本申请,并不用于限定本申请。
在具体实施例中所描述的各个具体技术特征,在不矛盾的情况下,可以通过任何合适的方式进行组合,例如通过不同的具体技术特征的组合可以形成不同的实施例和技术方案。为了避免不必要的重复,本申请中各个具体技术特征的各种可能的组合方式不再另行说明。
在以下的描述中,所涉及的术语“第一\第二\…”仅仅是区别不同的对象,不表示各对象之间具有相同或联系之处。应该理解的是,所涉及的方位描述“上方”、“下方”、“外”、“内”均为正常使用状态时的方位,“左”、“右”方向表示在具体对应的示意图中所示意的左右方向,可以为正常使用状态的左右方向也可以不是。
需要说明的是,术语“包括”、“包含”或者其任何其他变体意在涵盖非排他性的包含,从而使得包括一系列要素的过程、方法、物品或者装置不仅包括那些要素,而且还包括没有明确列出的其他要素,或者是还包括为这种过程、方法、物品或者装置所固有的要素。在没有更多限制的情况下,由语句“包括一个…”限定的要素,并不排除在包括该要素的过程、方法、物品或者装置中还存在另外的相同要素。“多个”表示大于或等于两个。
本申请实施例提供一种衣物处理设备1,请参阅图1至图19,衣物处理设备1包括箱体11、衣物处理筒10和无线供能组件。
可以理解的是,衣物处理设备1的类型不限,可以是干衣机、洗干一体机等,在此不做限制。示例性地,本申请实施例以衣物处理设备1为干衣机为例进行说明。
箱体11包括后板111。
具体地,箱体11为衣物处理设备1的外观部件,能够对内部的衣物处理筒10起到保护作用。
需要说明的是,后板111指的是,箱体11位于衣物处理设备1沿前后方向的后侧的部件。后侧,即衣物处理设备1安装后远离用户的一侧。
衣物处理筒10可转动地设置于箱体11内。
示例性地,衣物处理筒10具有衣物处理腔10a,衣物处理筒10可以用于放置和干燥衣物,衣物处理筒10能够带动衣物转动。以滚筒式干衣机为例,衣物处理筒10的转动轴线沿水平方向,衣物处理筒10的前侧具有衣物投放口,用户经衣物投放口投入或者取出衣物处理腔10a。衣物处理筒10在转动过程中,带动衣物从下方运动至上方,衣物在重力作用下,从上方跌落至下方,这样,衣物在衣物处理筒10和重力的共同作用下被分散、摔打和改变姿态。
请参阅图1,衣物处理筒10包括筒身101和后盖102,后盖102设置于筒身101的后端。
具体地,筒身101的前侧敞开以形成衣物投放口,后端与后盖102配合,筒身101与后盖102共同限定出衣物处理腔10a。示例性地,筒身101的后端可以与后盖102可拆卸地连接在一起。
可以理解的是,后盖102远离筒身101的一侧与后板111密封连接,后盖102可以相对后板111转动,以形成动密封连接。
可以理解的是,衣物处理筒10可以为单筒结构,也就是说,衣物处理设备1只有衣物处理筒10这一个筒体。当然,另一些示例中,衣物处理设备1还可以包括外筒,外筒设置于衣物处理筒10的周向外侧。
本申请实施例以衣物处理设备1采用单筒结构为例进行描述。
示例性地,衣物处理筒10大致呈中空的圆筒状。衣物处理筒10可以采用金属材质,例如不锈钢材质等,在此不做限制。
无线供能组件即通过无线方式为衣物处理设备1内的电器元件提供电能的结构。
无线供能组件包括发射模块12和接收模块13,接收模块13用于接收发射模块12发射的电磁信号并产生感应电流。
发射模块12和接收模块13可以通过电磁感应的方式实现无线连接。
示例性地,发射模块12能够与衣物处理设备1的主控板电连接,主控板用于控制衣物处理设备1的运行,并为衣物处理设备1内的各部分供给电能,使各部分电路能正常工作,以实现干衣控制等功能。示例性地,发射模块12通过线缆与主控板电连接,以接收主控板供给的电能,从而使得向接收模块13发射电磁信号。
发射模块12与接收模块13无线连接,即发射模块12能够将电力无线传输至接收模块13。如此,设置于衣物处理筒10内的电器元件,可以与接收模块13电连接,通过接收模块13为电器元件供电,满足用电需求。
需要说明的是,电器元件可以是能够实现一种电功能和/或用于电路中以实现至少一种电功能的结构件。电器元件的数量可以是一个、两个、三个或者更多。
电器元件可以是用于检测衣物状态的单元以及其他能够具有特定功能以提升干衣性能的单元。示例性地,用于检测衣物状态的单元可以是用于检测衣物的温度、电导率等。
示例性地,接收模块13设置于衣物处理筒10,电器元件如用于检测衣物状态的单元等即可设置在衣物处理筒10内,并与接收模块13电连接,获取电能,在衣物处理筒10转动时,接收模块13、电器元件同步转动,接收模块与电器元件之间的电连接较为稳定,且接收模块13在转动过程中也能够接收来自发射模块12传输的电能,如此,设置于衣物处理筒10内的电器元件即能够近距离感知衣物状态和执行特定功能,以提升衣物处理设备1的工作性能。示例性地,能够提升衣物处理设备1的判干性能。
请参阅图1、图4和图7,发射模块12设置于后板111,接收模块13的至少一部分设置于后盖102。
需要说明的是,发射模块12设置于后板111,可以是,发射模块12的整体为一个集成部件,设置于后板111朝向后盖102的一侧或者后板111背离后盖102的一侧;也可以是,发射模块12的各个部件分散设置在后板111的不同部位,例如,其中一部分部件设置于后板111朝向后盖102的一侧,其中另一部分部件设置于后板111远离后盖102的一侧。
需要说明的是,接收模块13的至少一部分设置于后盖102,可以是接收模块13的全部结构设置于后盖102,此时,接收模块13可以设置于后盖102朝向后板111的一侧或者后盖102朝向筒身101的一侧;也可以是接收模块13的部分结构设置于后盖102,该部分结构可以设置于后盖102朝向后板111的一侧或者后盖102朝向筒身101的一侧,接收模块13的另一部分结构可以设置于筒身101内或者其他位置,在此不做限制。
可以理解的是,接收模块13能够随衣物处理筒10转动而转动,在衣物处理筒10的转动过程中,接收模块13相对发射模块12转动。发射模块12和接收模块13之间的距离能够较短,在保证发射模块12的安装安全性的同时,使得发射模块12能够在不增加工作功率的情况下为接收模块13传输足够的电能。
相关技术中,以衣物处理设备为干衣机为例,因衣物处理筒处于旋转状态,考虑到供电和信号传输的问题,电器元件如检测衣物状态的单元、其他具有特定功能的单元等无法直接放置在衣物处理筒内,如需判断衣物是否完全烘干,只能将检测衣物状态的单元放置于衣物处理筒的进、出风口处,通过进、出风口处的气流状态差异判断衣物是否烘干,此种方式检测精度低,电器元件无法近距离感知衣物状态和近距离实现特定功能。
本申请实施例提供的衣物处理设备1,发射模块12和接收模块13无需接触即可传输电能,实现在相对转动的衣物处理筒10和相对静止的后板111之间的电能传输,不用电线连接即可实现电能传输,可靠性高。并且,衣物处理设备1的电器元件可以设置于衣物处理筒10内,通过接收模块13为电器元件供电,从而便于满足电器元件的用电需求及便于近距离感知衣物状态,提升衣物处理设备1的整体性能。发射模块12和接收模块13的设置位置,一方面,在为发射模块12提供足够安装空间和安装安全性的同时,使得发射模块12和接收模块13之间的距离能够较短,增加电能传输可靠性,同时,也能够降低发射模块12与主控板的电连接与衣物处理筒10发生干涉的几率,增加发射模块12与主控板的电连接可靠性。
可以理解的是,一些示例中,发射模块12和接收模块13除传输电能外,还可以实现信号传输。即电器元件检测到的衣物信息,可以传输至接收模块13,接收模块13再将信息传递至发射模块12。
当然,另一些实施例中,发射模块12和接收模块13也可以只传输电能,衣物处理设备1可以设置有无线传送单元,接收模块13能够为无线传送单元提供电能,无线传送单元能够接收电器元件检测到的衣物信息并进行无线传送。
示例性地,发射模块12包括发射线圈121,接收模块13包括接收线圈131,接收线圈131用于接收发射线圈121发射的电磁信号并产生感应电流。具体地,发射线圈121产生变化的磁场,接收线圈131通过电磁感应产生感应电流,接收来自发射线圈121的电能传输,输出电能。
示例性地,请参阅图1,发射线圈121和接收线圈131大致呈环状结构。
发射线圈121设置于后板111。具体地,发射线圈121可以设置于后板111朝向后盖102的一侧,也可以设置于后板111远离后盖102的一侧。
接收线圈131可以设置于后盖102朝向筒身101的一侧或者后盖102朝向后板111的一侧。
示例性地,发射线圈121与接收线圈131相对设置,即,一些实施例中,请参阅图9和图10,发射线圈121和接收线圈131可以相对间隔设置。如此,以降低转动的衣物处理筒10对发射线圈121的影响,增加安装安全性。
需要说明的是,所述的发射线圈121和接收线圈131相对布置,是指,发射线圈121和接收线圈131之间具有一定的间隔,并且,以垂直于前后方向的平面为投影面,发射线圈121的投影与接收线圈131的投影的至少部分重叠。
需要说明的是,发射线圈121和接收线圈131可以是始终保持同轴且相对设置,即无论衣物处理筒10转动至任何位置,发射线圈121和接收线圈131始终保持同轴且相对的状态。发射线圈121和接收线圈131也可以是在特定位置同轴且相对设置,即接收线圈131可以通过随衣物处理筒10的转动而运动至该设定位置与发射线圈121同轴且相对设置。
示例性地,一些实施例中,发射线圈121、接收线圈131、衣物处理筒10三者同轴设置。
该实施例中,在衣物处理筒10的转动过程中,无论接收线圈131随衣物处理筒10转到至任何位置,接收线圈131与发射线圈121始终能够保持相对状态,便于接收线圈131持续且稳定地接收发射线圈121传输的电能,以便持续为衣物处理筒10的电器元件提供电能。即,在衣物处理筒10的转动过程中,接收线圈131始终能够为电器元件实现有效且足够的供电,无需额外设置辅助供电结构,增加衣物处理设备1的供电可靠性。
发射线圈121和接收线圈131之间的距离不限。
一些实施例中,发射线圈121和接收线圈131之间的距离为4mm(millimeter,毫米)~10mm。例如,4mm、4.5mm、5.5mm、5.7mm、6mm、6.2mm、6.6mm、7mm、7.4mm、8mm、8.6mm、9mm、9.3mm、9.8mm、10mm等。
需要说明的是,所述的发射线圈121和接收线圈131之间的距离是指,发射线圈121和接收线圈131相对设置时沿二者轴向之间的距离。
可以理解的是,发射线圈和接收线圈之间的距离如果过大,接收线圈产生的感应电流就越小,从而衣物处理设备的主控板需要为发射线圈提供的工作功率就越大;发射线圈和接收线圈之间的距离如果过小,发射线圈与衣物处理筒之间的距离即越小,易增大发射线圈与衣物处理筒之间的干涉几率,增大发射线圈的受损几率。
该实施例中,发射线圈121和接收线圈131之间的距离不会过大,也不会过小,发射线圈121与衣物处理筒10之间具有足够的安全距离,在增加发射线圈121的工作安全性的同时,接收线圈131能够产生足够大小的感应电流,以满足电器元件的用电需求。
一些实施例中,请参阅图1,衣物处理设备1包括后罩17,后罩17盖设于后板111的后侧表面,并与后板111共同限定出送风通道,后板111形成有送风口,后盖102形成有进风口,送风通道的气流经送风口、进风口流向衣物处理腔10a,发射模块12的至少部分设置于后板111未被后罩17覆盖的部位。
示例性地,衣物处理筒10还具有出风口,衣物处理腔10a连通进风口和出风口。干燥热气流从进风口进入衣物处理腔10a,湿热气流从出风口离开衣物处理腔10a。后板111的后侧壁形成有回风口以及与进风口连通的送风口,回风口的高度低于送风口的高度,后罩17盖设于送风口和回风口的周围,并与后板111的后侧壁共同限定出送风通道。送风通道连通回风口和送风口,干燥热气流经回风口、送风通道、送风口进入衣物处理腔10a,以对衣物进行烘干。
示例性地,请参阅图13,衣物处理设备1还可以包括底座16,底座16内具有烘道,送风通道和烘道共同形成循环风道,烘道位于送风通道沿循环风道内气流流动方向的上游,烘道与出风口连通,与衣物进行热湿交换后的气流能够经出风口进入烘道,在烘道内完成冷凝除湿及加热,形成新的干燥热气流,新的干燥热气流再经回风口、送风通道、送风口进入衣物处理腔10a。
送风口的数量不限,送风口可以为一个或者多个,例如,送风口为两个、三个、四个或者五个等。
需要说明的是,发射模块12的至少部分设置于后板111未被后罩17覆盖的部位,即发射模块12的至少部分设置于后板111后侧位于后罩17之外的部位,可以是发射模块12的全部结构位于后板111位于后罩17之外的部位,也可以是,发射模块12的一部分结构位于后板111位于后罩17之外的部位,此时,发射模块12的另一部分结构可以位于送风通道内,也可以位于后板111朝向衣物处理筒10的一侧。
该实施例中,发射模块12的至少部分设置于后板111位于后罩17之外的部位,能够降低气流流动对发射模块12的影响,并且也能够使得发射模块12与衣物处理筒10之间具有足够的安全距离,增加发射模块12的安装稳定性和工作安全性。
一些实施例中,请参阅图1和图3,箱体11包括壳部113,壳部113罩设于后板111以及后罩17的后侧,发射模块12包括发射电路板123,发射电路板123与发射线圈121电连接,发射电路板123位于后板111和壳部113之间的空间且与后板111连接。
示例性地,发射电路板123包括调制解调电路和电源电路。调制解调电路可以实现信号的转换,电源电路可以实现向接收模块13的电能传输。发射模块12可以通过发射电路板123实现与主控板的电连接。
该实施例中,壳部113能够为发射电路板123提供保护,降低发射电路板123裸露的几率,增加发射电路板123的安装可靠性。发射电路板123可以通过螺钉连接、焊接等连接方式与后板111实现连接,增加发射电路板123的安装稳定性。
可以理解的是,该实施例中,发射线圈121可以位于后板111与壳部113之间的空间,也可以位于后板111朝向衣物处理筒10的一侧,在此不做限制。
可以理解的是,发射电路板123在后板111位于后罩17之外的部位的设置方式不限。可以是发射电路板123与后板111的后侧壁直接连接,也可以是发射电路板123集成在衣物处理设备1的其他设置于后板111后侧的电路模块上。
一些实施例中,发射电路板123也可以集成于衣物处理设备1的电压转换模块上,电压转换模块用于将交流电转换为直流电。
示例性地,电压转换模块与主控板电连接,以将交流电转换为直流电。
发射电路板123集成于电压转换模块上,无需额外为发射电路板123提供安装空间,且更便于实现发射电路板123与主控板的电连接。
一些实施例中,发射电路板123与发射线圈121电连接,请参阅图1、图4和图5,发射电路板123设置于后板111远离衣物处理筒10的一侧,发射线圈121设置于后板111朝向衣物处理筒10的一侧。
该实施例中,发射线圈121和发射电路板123均设置于后板111,便于缩短发射线圈121和发射电路板123之间的连线距离,降低电磁干扰几率及减少功率损耗。
发射线圈121设置于后板111的朝向衣物处理筒10的一侧,即发射线圈121设置于后板111的前侧,发射线圈121能够靠近接收线圈131设置,降低与接收线圈131之间的距离。并且,该实施例中,能够将发射线圈121与接收线圈131沿衣物处理筒10的轴向方向布置,使得在衣物处理筒10的转动过程中,无论接收线圈131随衣物处理筒10转动至任何位置,接收线圈131和发射线圈121始终能够保持相对状态,便于接收线圈131持续且稳定地接收发射线圈121传输的电能,实现有效且足够的供电。
发射电路板123设置于后板111远离衣物处理筒10的一侧,发射电路板123设置于后板111的后侧,后板111能够为发射电路板123起到一定的保护作用,降低气流流动对发射电路板123的影响及降低气流裹挟的毛屑等杂质吸附在发射电路板123上的几率,增加发射电路板123的安装安全性。同时,也能够便于发射电路板123与主控板之间的有线连接。
一些实施例中,请参阅图4和图6,衣物处理设备1包括第一支架122,发射电路板123与发射线圈121电连接,发射电路板123和发射线圈121集成于第一支架122上。
该实施例中,通过第一支架122集成发射线圈121和发射电路板123,无需通过线材将发射线圈121和发射电路板123连接起来,减少因线材交错而导致的装配负载度高的问题,电能传输更加方便,减少功率损耗和电磁干扰,发射线圈121和发射电路板123设置于同一平面,发射模块12的整体结构简单紧凑,各部件的安装维修便捷度高。第一支架122能够为发射线圈121和发射电路板123提供安装支撑,增加发射线圈121和发射电路板123的安装稳定性。
可以理解的是,该实施例中,发射线圈121和发射电路板123集成在第一支架122上,形成一个整体,该整体可以位于后板111朝向衣物处理筒10的一侧,也可以位于后板111位于后罩17之外的部位上,在此不做限制。
可以理解的是,在发射线圈121和发射电路板123间隔设置的实施例中,发射线圈121也可以支撑于第一支架122上,通过第一支架122实现与后板111的连接。
第一支架122的具体构造不限。
一些实施例中,请参阅图1和图6,第一支架122包括环状本体1221、与环状本体1221连接的连接耳1222,发射线圈121设置于环状本体1221,连接耳1222和后板111连接。
该实施例中,环状本体1221为发射线圈121提供安装空间,连接耳1222与后板111连接,通过环状本体1221与连接耳1222实现发射线圈121在衣物处理设备1内的安装位置的稳定,降低发射线圈121受损的几率,增加发射线圈121的工作稳定性。
一些实施例中,请参阅图1和图6,环状本体1221形成有第一环槽1221a,第一环槽1221a朝向衣物处理筒10的一侧敞开,发射线圈121容置于第一环槽1221a。
具体地,第一环槽1221a即通过环状本体1221的自身结构限定出的环状空间,第一环槽1221a朝向衣物处理筒10的一侧敞开,便于实现发射线圈121与接收线圈131的相对设置,实现有效的电能传输。第一环槽1221a朝向后板111的一侧可以呈封闭状态,以便为发射线圈121提供支撑,降低发射线圈121从第一环槽1221a脱离的几率。
连接耳1222可以与后板111可拆卸连接,例如,连接耳1222可以通过螺钉实现与后板111的连接,在此不做限制。
环状本体1221的具体构造不限。
一些实施例中,请参阅图1和图6,环状本体1221包括第一环板12211、第一内环壁12212以及第一外环壁12213,第一内环壁12212设置于第一环板12211的径向内边缘,第一外环壁12213设置于第一环板12211的径向外边缘,第一内环壁12212和第一外环壁12213之间的间隔形成第一环槽1221a。
具体地,发射线圈121与环状本体1221配合时,发射线圈121环绕在第一内环壁12212的周向外侧,且位于第一外环壁12213的周向内侧,发射线圈121沿轴向的其中一端抵靠在第一环板12211上,如此,以实现发射线圈121与环状本体1221的对接。
连接耳1222设置于第一外环壁12213的径向外侧,或者,连接耳1222设置于第一内环壁12212的径向内侧。
也就是说,连接耳1222的一端可以与第一外环壁12213连接,也可以与第一内环壁12212连接,连接耳1222的另一端与后板111连接,以实现第一支架122与后板111的连接。示例性地,连接耳1222设置于第一外环壁12213的径向外侧,如此,连接耳1222能够具有足够的延伸空间以实现与后板111的稳定连接。
该实施例中,发射线圈121与环状本体1221的对接方便,便于对发射线圈121进行拆装和检查,环状本体1221的结构简单,能够降低对第一支架122的制造要求,连接耳1222的设置位置,也能够降低与发射线圈121发生干涉的几率,便于实现发射线圈121与接收线圈131的相对布置。
连接耳1222可以与后板111可拆卸连接,例如,连接耳1222可以通过螺钉实现与后板111的连接,在此不做限制。
一些实施例中,请参阅图7,接收线圈131设置于后盖102朝向后板111的一侧。
如此,便于缩短接收线圈131与发射线圈121之间的距离,便于实现高效的电能传输,并且,也能够降低接收线圈131与衣物处理筒10内的水汽及衣物接触的几率,增加接收线圈131的安装可靠性。
在发射线圈121设置于后板111朝向后盖102的一侧的实施例中,接收线圈131设置于后盖102朝向后板111的一侧,发射线圈121和接收线圈131之间的距离合理,且二者能够无遮挡地相对设置,电能传输更加可靠。
后盖102的具体构造不限。
一些实施例中,请参阅图7,后盖102包括芯部1021、外环结构1022以及多个支撑臂1023,外环结构1022环绕在芯部1021的周向外侧,多个支撑臂1023沿芯部1021的周向呈辐射状分布,支撑臂1023连接芯部1021和外环结构1022,接收线圈131设置于芯部1021朝向后板111的一侧。
可以理解的是,芯部1021大致位于后盖102的中心区域,多个支撑臂1023沿芯部1021的周向呈辐射状分布,是指,多个支撑臂1023围绕芯部1021的轴线布置,支撑臂1023可以沿直线延伸,也可以呈曲线延伸,在此不做限制。
支撑臂1023将芯部1021与外环结构1022连接在一起,能够使得后盖102具有足够的结构强度,增加衣物处理筒10的结构稳定性。
示例性地,支撑臂1023可以与芯部1021、外环结构1022一体成型;或者,支撑臂1023与芯部1021、外环结构1022可以通过铆钉、焊接、螺纹连接等方式连接在一起,在此不做限制。
该实施例中,接收线圈131设置于芯部1021朝向后板111的一侧,即接收线圈131大致设置于后盖102的中心区域,从而便于使得接收线圈131能够与衣物处理筒10同轴设置,并且便于增加接收线圈131随衣物处理筒10转动的稳定性。并且,接收线圈131也不会影响气流经后盖102的进风口进入衣物处理腔10a,衣物处理设备1的工作可靠性高。另外,也能够便于将接收线圈131与衣物处理筒10同轴设置。
一些实施例中,接收模块13包括接收电路板133,接收电路板133与接收线圈131电连接。
示例性地,接收电路板133包括调制解调电路和电源输出电路。调制解调电路可以实现信号的转换,电源输出电路可以实现电能的输出。
接收模块13可以通过接收电路板133实现与电器元件的电连接。
一些实施例中,请参阅图1,衣物处理设备1包括提升筋14,提升筋14沿径向凸出于衣物处理筒10的周向内壁,接收电路板133设置于提升筋14内。
具体地,提升筋14可以接触衣物处理腔10a内的衣物并带动衣物随衣物处理筒10转动。例如,衣物在提升筋14的作用下从下向上运动,再在重力和离心力等的作用下向下运动,如此,衣物在衣物处理腔10a内不断改变姿态。
示例性地,请参阅图15,提升筋14内可以具有沿提升筋14的长度方向延伸的连通通道14a,接收电路板133可以设置于连通通道14a内。
该实施例中,利用提升筋14为接收电路板133提供安装空间,降低接收电路板133与衣物接触的几率,增加接收电路板133的安装可靠性。当然,电器元件也可以设置于提升筋14内,在此不做限制。
该实施例中,接收电路板133和接收线圈131分开设置,且接收电路板133设置于提升筋14内,便于实现提升筋14与电器元件之间的电连接,增加供电可靠性,且降低功率损耗。
另一些实施例中,请参阅图11,衣物处理设备1包括锥形帽18,锥形帽18的一端与后盖102靠近筒身101的一侧连接,接收电路板133位于锥形帽18内。
具体地,锥形帽18设置于衣物处理筒10,锥形帽18的一端与后盖102靠近筒身101的一侧连接,另一端朝向筒身101内侧延伸。锥形帽18能够在衣物处理筒10转动过程中,打散衣物,降低衣物缠绕或者打结的几率,使得衣物的烘干更加均匀,提升衣物的烘干效果。
示例性地,锥形帽18可以与后盖102大致位于中心的部位连接。
该实施例中,接收线圈131和接收电路板133分开布置,接收电路板133设置在锥形帽18内,利用锥形帽18为接收电路板133提供安装空间,且锥形帽18能够在一定程度上降低接收电路板133与衣物接触的几率,增加接收电路板133的安装可靠性。
一些实施例中,请参阅图7、图8和图9,衣物处理设备1包括第二支架132,接收电路板133与接收线圈131集成于第二支架132。
该实施例中,通过第二支架132集成接收线圈131和接收电路板133,无需通过线材将接收线圈131和接收电路板133连接起来,减少因线材交错而导致的装配复杂度高的问题,电能传输更加方便,减少过滤损耗和电磁干扰,接收线圈131和接收电路板133设置于同一平面,接收模块13的整体结构简单紧凑,各部件的安装维修便捷度高。第二支架132能够为接收线圈131和接收电路板133提供安装支撑,增加接收线圈131和接收电路板133的安装稳定性。
第二支架132的具体构造不限。
一些实施例中,请参阅图1至图8,第二支架132包括环状部1321和连接部1322,连接部1322与环状部1321连接,接收线圈131设置于环状部1321,连接部1322与后盖102连接。
该实施例中,环状部1321为接收线圈131提供安装空间,连接部1322与后盖102连接,通过环状部1321与连接部1322实现接收线圈131在衣物处理设备1内的安装位置的稳定,降低接收线圈131受损的几率,增加接收线圈131的工作稳定性。
一些实施例中,请参阅图7和图8,第二支架132包括环状部1321、连接部1322和延伸结构1323,连接部1322和延伸结构1323分别与环状部1321连接,接收线圈131设置于环状部1321,连接部1322与后盖102连接,延伸结构1323设置于支撑臂1023远离衣物处理腔10a的一侧。
接收电路板133设置于延伸结构1323。
该实施例中,延伸结构1323为接收电路板133提供空间,支撑臂1023为延伸结构1323提供支撑,增加接收电路板133的安装稳定性。
环状部1321可以设置于芯部1021朝向后板111的一侧,即环状部1321可以大致设置于后盖102的中心区域,如此,接收线圈131也能够大致设置于后盖102的中心区域,芯部1021具有足够的安装空间以便设置环状部1321,从而增加接收线圈131的运动稳定性。
可以理解的是,在接收线圈131与接收电路板133间隔设置的实施例中,请参阅图9,接收线圈131也可以支撑于第二支架132上,通过第二支架132实现与后盖102的连接。
一些实施例中,请参阅图8和图9,第二支架132形成有第二环槽1321a,第二环槽1321a朝向后板111的一侧敞开,接收线圈131容置于第二环槽1321a中。
作为示例,环状部1321形成有第二环槽1321a。
连接部1322可以与后盖102可拆卸连接,例如,连接部1322可以通过螺钉实现与后盖102的连接,在此不做限制。
具体地,第二环槽1321a即通过环状部1321的自身结构限定出的环状空间,第二环槽1321a朝向后板111的一侧敞开,便于实现接收线圈131与发射线圈121的相对设置,实现有效的电能传输。第二环槽1321a朝向后盖102的一侧可以呈封闭状态,以便为接收线圈131提供支撑,降低接收线圈131从第二环槽1321a脱离的几率。
环状部1321的具体构造不限。
一些实施例中,请参阅图8和图9,环状部1321包括第二环板13211、第二内环壁13212和第二外环壁13213,第二内环壁13212设置于第二环板13211的径向内边缘,第二外环壁13213设置于第二环板13211的径向外边缘,第二内环壁13212和第二外环壁13213之间的间隔形成第二环槽1321a。
具体地,接收线圈131与环状部1321配合时,接收线圈131环绕在第二内环壁13212的周向外侧,且位于第二外环壁13213的周向内侧,接收线圈131沿轴向的其中一端抵靠在第二环板13211上,如此,以实现接收线圈131与环状部1321的对接。
连接部1322设置于第二外环壁13213的径向外侧,或者,连接部1322设置于第二内环壁13212的径向内侧。
也就是说,连接部1322的一端可以与第二外环壁13213连接,也可以与第二内环壁13212连接,连接部1322的另一端与后盖102连接,以实现第二支架132与后盖102的连接。示例性地,连接部1322设置于第二内环壁13212的径向内侧。如此,能够降低连接部1322影响衣物处理筒10在后盖102处进风的几率。
该实施例中,接收线圈131与环状部1321的对接方便,便于对接收线圈131进行拆装和检查,环状部1321的结构简单,能够降低对第二支架132的制造要求,连接部1322的设置位置,也能够降低与接收线圈131发生干涉的几率,便于实现接收线圈131和发射线圈121的相对布置。
连接部1322可以与后盖102可拆卸连接,例如,连接部1322可以通过螺钉实现与后盖102的连接,在此不做限制。
以下结合图10至图13对本申请实施例的发射模块12和接收模块13的设置位置进行举例说明。
第一实施例:请参阅图10,发射线圈121设置于后板111朝向后盖102的一侧,发射电路板123设置于后板111朝向后盖102的一侧,接收线圈131设置于后盖102朝向后板111的一侧,接收电路板133设置于后盖102朝向后板111的一侧,发射线圈121、接收线圈131与衣物处理筒10三者同轴设置。
该实施例中,发射线圈121、发射电路板123可以集成于第一支架122上,接收线圈131、接收电路板133可以集成于第二支架132上。在衣物处理筒10的转动过程中,发射线圈121与接收线圈131可以始终保持相对设置,实现持续的电能传输。
第二实施例:请参阅图11,发射线圈121设置于后板111朝向后盖102的一侧,发射电路板123设置于后板111朝向后盖102的一侧,接收线圈131设置于后盖102朝向后板111的一侧,接收电路板133设置于衣物处理筒10内的锥形帽19中,发射线圈121、接收线圈131与衣物处理筒10三者同轴设置。
该实施例中,发射线圈121、发射电路板123可以集成于第一支架122上,接收线圈131和接收电路板133分散布置。在衣物处理筒10的转动过程中,发射线圈121与接收线圈131可以始终保持相对设置,实现持续的电能传输。
第三实施例:请参阅图12,发射线圈121设置于后板111朝向后盖102的一侧,发射电路板123设置于后板111朝向后盖102的一侧,接收线圈131设置于后盖102朝向后板111的一侧,接收电路板133设置于提升筋14内的连通通道14a,发射线圈121、接收线圈131与衣物处理筒10三者同轴设置。
该实施例中,发射线圈121、发射电路板123可以集成于第一支架122上,接收线圈131和接收电路板133分散布置。在衣物处理筒10的转动过程中,发射线圈121与接收线圈131可以始终保持相对设置,实现持续的电能传输。
第四实施例:请参阅图13,发射线圈121设置于后板111朝向后盖102的一侧,发射电路板123设置于后罩17和后板111之间,接收线圈131设置于后盖102朝向后板111的一侧,接收电路板133设置于后盖102朝向后板111的一侧,发射线圈121、接收线圈131与衣物处理筒10三者同轴设置。
该实施例中,发射线圈121、发射电路板123分散布置,接收线圈131、接收电路板133可以集成于第二支架132上。在衣物处理筒10的转动过程中,发射线圈121与接收线圈131可以始终保持相对设置,实现持续的电能传输。
一些实施例中,请参阅图16,衣物处理设备1包括检测单元15,检测单元15用于对衣物处理腔10a内的衣物的电导率进行检测,检测单元15与接收模块13电连接。即,检测单元15用于对衣物处理筒10内的衣物的电导率进行检测。
具体地,检测单元15设置于衣物处理筒10。
可以理解的是,检测单元15为上述的电器元件的一种。
检测单元15可以检测衣物处理腔10a内的衣物等负载的电导率。衣物处理设备1可以根据检测单元15检测的电导率判断烘干程度。示例性地,检测单元15的检测原理可以为:衣物处理腔10a内的衣物等负载接触到检测单元15的两个检测电极151,使得检测单元15的检测电路导通,不同潮湿程度的衣物等负载的电阻值不同,也就是说,衣物等负载的潮湿程度与电导率有关,根据电导率判断烘干程度。
该实施例中,检测单元15设置于衣物处理筒10内,接收模块13为检测单元15提供电能,检测单元15的检测电极151可以与衣物处理腔10a内的衣物等负载接触,从而近距离感知衣物的烘干程度,有效提升判断衣物处理筒10内的衣物等负载的干燥程度的准确率。
检测单元15在衣物处理筒10内的安装位置不限。
一些实施例中,请参阅图16,检测单元15包括相互电连接的检测电极151和检测电路,检测电极151设置于提升筋14的外表面,检测电路设置于提升筋14内,检测电路与接收模块13电连接。
具体地,检测电极151设置于提升筋14的外表面,便于与衣物等负载近距离接触,检测电路设置于提升筋14内,即提升筋14在可用于拨动衣物处理腔10a内的衣物运动的同时,还可以为检测电路提供安装空间,在一定程度上降低检测电路与衣物接触的几率,增加检测单元15的安装和工作可靠性。
示例性地,接收电路板133可以具有检测电路,接收电路板133可以设置于提升筋14内。
该实施例中,检测电路可以设置于提升筋14内,提升筋14包括检测电路不受衣物处理腔10a内衣物或其他负载的干扰。检测电极151设置于提升筋14的外表面,以便于检测电极151接触衣物。接收模块13的接收电路板133可以设置于提升筋14内,也可以与接收线圈131集成于第二支架132,第二支架132与芯部1021连接。
示例性地,检测电极151可以是全部位于提升筋14沿周向的外表面,也可以是,检测电极151的部分位于提升筋14沿周向的一个外侧面,另一部分位于提升筋14沿径向远离衣物处理筒10的周侧壁的顶侧面。
检测电极151的具体结构不限。
示例性地,请参阅图16至图19,检测电极151包括第一电极件和第二电极件,第一电极件和第二电极件均位于提升筋14的外表面,第一电极件包括第一连接结构1511以及至少两个与第一连接结构1511连接的第一齿1512。第二电极件包括第二连接结构1513以及至少两个与第二连接结构1513连接的第二齿1514,第一齿1512和第二齿1514交替间隔布置。也就是说,任意相邻的两个第一齿1512之间具有一个第二齿1514,第一齿1512和第二齿1514之间的距离大于零。
该实施例中,第一齿1512和第二齿1514交替间隔布置构成叉指结构,一个第一齿1512和一个第二齿1514构成一个电极对,检测电极151至少具有两个电极对,衣物接触至少两个电极对,每一个电极对之间导通就可以视为一个电阻,至少两个电极对可以视为至少两个电阻并联,从而对电导率变化的检测更加敏感,提升了检测电极151的检测准确率和灵敏度,在一定程度上降低烘干不完全或者过烘等问题,提高烘干性能。
第一齿1512的具体结构形式不限,可以呈片状或者柱状等。第二齿1514的具体结构形式不限,可以呈片状或者柱状等。其中,柱状的横截面形状不限,可以是圆形或者多边形等,多边形例如四边形、五边形等等,可以理解的是,多边形可以包括圆角多边形。
一些示例中,请参阅图17和图19,第一连接结构1511和第二连接结构1513均呈线性并行延伸,所有第一齿1512和所有第二齿1514均位于第一连接结构1511和第二连接结构1513之间。也就是说,第一连接结构1511和第二连接结构1513可以大致呈直线结构或者曲线结构。
示例性地,第一齿1512的形状与第二齿1514的形状大致相同,第一齿1512大致与第二齿1514平行,第一连接结构1511和第二连接结构1513均呈直线结构且大致平行。
该实施例中,第一电极件与第二电极件结构简单紧凑,外观形状整齐美观。
一些示例中,请参阅图19,第一电极件和第二电极件大致在同一个平面内,如此,第一电极件和第二电极件二者大致呈扁平状,占据较小的空间,节约衣物处理筒10内的空间。
第一电极件和第二电极件均采用导电材质,例如,第一电极件和第二电极件均采用金属材质。
一些示例中,请参阅图16和图17,第一齿1512的部分朝远离提升筋14的方向凸出以形成第一凸出部1512a。第一凸出部1512a不仅能够增强第一齿1512的结构强度,还便于与衣物接触,增加与衣物的接触面积。第一凸出部1512a可以呈凸弧形。第一凸出部1512a远离提升筋14的表面呈弧面。
一些示例中,请参阅图16和图17,第二齿1514的部分朝远离提升筋14的方向凸出以形成第二凸出部1514a。第二凸出部1514a不仅能够增强第二齿1514的结构强度,还便于与衣物接触,增加与衣物的接触面积。第二凸出部1514a可以呈凸弧形。第二凸出部1514a远离提升筋14的表面呈弧面。
一些示例中,第一齿1512远离提升筋14的表面呈弧面。第一齿1512远离提升筋14的表面需与衣物接触,弧面可以在一定程度上避免勾连衣物,减少衣物与第一齿1512之间的相互磨损。
一些示例中,第二齿1514远离提升筋14的表面呈弧面。第二齿1514远离提升筋14的表面需与衣物接触,弧面可以在一定程度上避免勾连衣物,减少衣物与第二齿1514之间的相互磨损。
一些示例中,请参阅图18,检测电极151包括第一端子1515和第二端子1516,第一端子1515与第一电极件连接,第二端子1516与第二电极件连接,第一端子1515和第二端子1516均伸入提升筋14内并与检测电路电连接。
例如,第一端子1515与其中一个第一齿1512连接,第二端子1516与其中一个第二齿1514连接。
该实施例中,第一端子1515和第二端子1516连接检测电路,以在检测电路和检测电极151之间传送电信号。第一端子1515、第二端子1516和检测电路均位于提升筋14内,降低第一端子1515、第二端子1516和检测电路接触衣物的几率,提升安全性。
一些实施例中,第一电极件可以为一体成型结构。即,第一连接结构1511和第一齿1512等可以一体成型制造。
一些实施例中,第一电极件、第一端子1515可以为一体成型结构。
一些实施例中,第二电极件可以为一体成型结构。即,第二连接结构1513和第二齿1514等可以一体成型制造。
一些实施例中,第二电极件和第二端子1516可以为一体成型结构。
提升筋14的具体构造不限,一些示例中,请参阅图14和图15,提升筋14包括主体部141和延伸部142,主体部141设置于衣物处理腔10a的周向面,延伸部142连接主体部141的后端并设置于衣物处理腔10a的后表面,主体部141内的空间和延伸部142内的空间限定出连通通道14a。在不增大提升筋14沿径向的尺寸的情况下,延伸部142设置于衣物处理腔10a的后表面可以增大连通通道14a的容积,从而容纳接收电路板133、检测单元15的检测电路等;延伸部142可以覆盖衣物处理腔10a的后表面的部分区域,以便于遮蔽设置于衣物处理筒10的后侧壁的用于过线的孔。
一些示例中,请参阅图15,延伸部142具有朝向后侧的开口142a,衣物处理腔10a的后表面可以遮蔽延伸部142朝向后侧的开口142a。
一些示例中,延伸部142可以朝向衣物处理筒10的转动轴线延伸,在衣物处理筒10的径向上,延伸部142的顶点凸出主体部141的顶点。也就是说,主体部141和延伸部142两者的外形轮廓大致呈L形。
一些示例中,延伸部142朝后的表面贴合衣物处理腔10a的后表面。如此,可以减少延伸部142和衣物处理腔10a的后表面之间的缝隙,避免衣物处理腔10a内的毛屑通过缝隙进入连通通道14a内。
一些实施例中,衣物处理设备1还包括位于烘道内的换热组件,换热组件用于与烘道内的气流交换热量,从而除湿加热。衣物处理筒10内的湿热气流可以通过出风口进入烘道,并与换热组件进行热量交换后转换成干燥热气流,干燥热气流通过回风口进入送风通道,再通过送风口和进风口回流至衣物处理腔10a内。
一些实施例中,换热组件包括冷凝器和蒸发器,衣物处理设备1还包括压缩机和节流装置,压缩机、冷凝器、节流装置和蒸发器通过管道连接构成热泵系统,冷媒能够在热泵系统内循环流动。循环风道内的气流与蒸发器和冷凝器中的冷媒换热后形成干燥热气流。蒸发器用于将来自衣物处理腔10a的湿热气流降温除湿成干燥冷气流;冷凝器将干燥冷气流加热成干燥热气流回流至衣物处理腔10a内。
热泵系统的工作原理为:压缩机吸入低压气态的冷媒并压缩成高压气态排出,排出的高压气态的冷媒进入冷凝器,冷凝器中的冷媒将热量传递给气流以凝结成高压液体;高压液态冷媒经节流装置节流减压后,变成低压低温的气液两相混合物进入蒸发器;蒸发器中的冷媒吸收气流的热量变成低压气态,低压气态冷媒再次被压缩机吸入;如此反复循环,实现热量的交换。也就是说,蒸发器用于将来自衣物处理腔10a的湿热气流降温除湿形成干燥冷气流,冷凝器将干燥冷气流加热呈干燥热气流再回流在衣物处理腔10a内,回流至衣物处理腔10a的干燥热气流与潮湿衣物接触再次形成湿热气流,完成一次烘干循环。通过反复运行烘干循环,不断地向衣物处理腔10a提供循环气流以烘干衣物。
示例性地,蒸发器和冷凝器均可以为翅片管式换热器。
示例性地,节流装置包括但不限于电子膨胀阀等。
一些示例中,衣物处理设备1还包括叶轮,叶轮用于驱动气流流动。示例性地,叶轮位于烘道内,并位于换热组件和回风口之间。在干燥衣物的过程中,叶轮用于驱动流经衣物的气流依次流经蒸发器和冷凝器后,再吹向衣物以形成循环风,叶轮可以加快气流流动,提高干衣效率。
请参阅图20至图23,本申请实施例提供一种衣物处理设备1,衣物处理设备1包括箱体11、衣物处理筒10、无线供能组件和安装件19。无线供能组件包括发射模块12和接收模块13,接收模块13用于接收发射模块12发射的电磁信号并产生感应电流。
衣物处理筒10设置于箱体11内。具体地,衣物处理筒10可转动地设置于箱体11内。
作为示例,接收模块13的至少部分设置于衣物处理筒10。
接收模块13的至少部分设置于衣物处理筒10,是指:接收模块13的部分结构设置于衣物处理筒10;或者,接收模块13的全部结构设置于衣物处理筒10。
发射模块12与接收模块13无线连接,即发射模块12能够将电力无线传输至接收模块13。如此,设置于衣物处理筒10的电器元件,可以与接收模块13电连接,通过接收模块13为电器元件供电,满足用电需求。
示例性地,接收模块13的至少部分设置于衣物处理筒10,电器元件如用于检测衣物状态的单元等即可设置在衣物处理筒10内,并与接收模块13电连接,获取电能,在衣物处理筒10转动时,接收模块13、电器元件同步转动,接收模块13与电器元件之间的电连接较为稳定,且接收模块13在转动过程中也能够接收来自发射模块12传输的电能,如此,设置于衣物处理筒10内的电器元件即能够近距离感知衣物状态和执行特定功能,以提升衣物处理设备1的工作性能。示例性地,能够提升衣物处理设备1的判干性能。
安装件19与箱体11连接,发射模块12的至少部分设置于安装件19。也就是说,发射模块12的至少部分通过安装件19装配至箱体11。
例如,发射模块12的至少部分可以先与安装件19装配成整体,再将该整体装配至箱体11。又例如,安装件19可以先装配至箱体11,再将发射模块12的至少部分装配至安装件19。
需要说明的是,发射模块12的至少部分设置于安装件19,可以是,发射模块12的部分结构设置于安装件19,也可以是,发射模块12的全部结构设置于安装件19。
本申请实施例提供的衣物处理设备1,一方面,发射模块12和接收模块13无需接触即可传输电能,不用电线连接即可实现电能传输,可靠性高。并且,衣物处理设备1的电器元件可以设置于衣物处理筒10内,通过接收模块13为电器元件供电,从而便于满足电器元件的用电需求及便于近距离感知衣物状态,提升衣物处理设备1的整体性能。另一方面,发射模块12通过安装件19与箱体11连接,可以提升安装灵活性,降低发射模块12和箱体11直接连接带来的设计难度。
一些实施例中,请参阅图20至图23,箱体11包括后板111,安装件19与后板111连接。发射模块12的至少部分设置于安装件19,也就是说,发射模块12的至少部分通过安装件19装配至后板111。
例如,发射模块12的至少部分可以先与安装件19装配成整体,再将该整体装配至后板111。又例如,安装件19可以先装配至后板111,再将发射模块12的至少部分装配至安装件19。
该实施例中,发射模块12通过安装件19与后板111连接,可以提升安装灵活性,降低发射模块12和后板111直接连接带来的设计难度。
一些实施例中,请参阅图20至图23,衣物处理筒10包括筒身101和后盖102,后盖102设置于筒身101的后端。接收模块13包括接收线圈131和接收电路板133,接收线圈131设置于后盖102,接收电路板133与接收线圈131电连接。
一些实施例中,请参阅图20至图23,接收模块13的至少部分设置于后盖102。
该实施例中,发射模块12的至少部分通过安装件19固定至后板111,接收模块13的至少部分设置于后盖102,在为发射模块12提供足够安装空间和安装安全性的同时,使得发射模块12和接收模块13之间的距离能够较短,增加电能传输可靠性,同时,也能够降低发射模块12与主控板的电连接与衣物处理筒10发生干涉的几率,增加发射模块12与主控板的电连接可靠性。
一些实施例中,发射模块12的至少部分和安装件19均位于后板111朝向后盖102的一侧。例如,发射模块12的整体为一个集成部件,发射模块12和安装件19设置于后板111朝向后盖102的一侧。又例如,发射模块12的一部分结构和安装件19设置于后板111朝向后盖102的一侧,发射模块12的另一部分部件设置于后板111远离后盖102的一侧。也就是说,发射模块12的各个部件分散设置在后板111的不同部位。
一些实施例中,请参阅图20至图23,发射模块12包括发射线圈121,接收模块13包括接收线圈131,接收线圈131用于接收发射线圈121发射的电磁信号并产生感应电流,发射线圈121、接收线圈131和衣物处理筒10三者同轴设置。
该实施例中,在衣物处理筒10的转动过程中,无论接收线圈131随衣物处理筒10转到至任何位置,接收线圈131与发射线圈121始终能够保持相对状态,便于接收线圈131持续且稳定地接收发射线圈121传输的电能,以便持续为衣物处理筒10的电器元件提供电能。即,在衣物处理筒10的转动过程中,接收线圈131始终能够为电器元件实现有效且足够的供电,无需额外设置辅助供电结构,增加衣物处理设备1的供电可靠性。
一些实施例中,安装件19可以设置于后板111朝向后盖102的一侧,或者,安装件19也可以设置于后板111远离后盖102的一侧。
一些实施例中,发射线圈121可以设置于安装件19靠近后板111的一侧,或者,发射线圈121也可以设置于安装件19远离后板111的一侧。
可以理解的是,发射线圈121可以与安装件19直接连接,发射线圈121也可以与安装件19间接连接,例如,发射线圈121可以与第一支架122连接,第一支架122与安装件19连接,如此,发射线圈121通过第一支架122固定至安装件19。
一些实施例中,请参阅图22和图23,衣物处理筒10包括后盖102,发射模块12包括发射线圈121,接收模块13包括接收线圈131,安装件19设置于后板111朝向后盖102的一侧,发射线圈121设置于安装件19远离后板111的一侧,接收线圈131设置于后盖102朝向后板111的一侧。
安装件19设置于后板111朝向后盖102的一侧,即安装件19设置于后板111的前侧。
发射线圈121设置于安装件19远离后板111的一侧,即发射线圈121设置于安装件19的前侧。
接收线圈131设置于后盖102朝向后板111的一侧,即接收线圈131设置于后盖102的后侧。
该实施例中,发射线圈121能够靠近接收线圈131设置,减少发射线圈121与接收线圈131之间的距离,发射线圈121和接收线圈131之间没有后板111、安装件19和后板111等结构遮挡,提升可靠性。
一些实施例中,请参阅图7、图22和图23,接收模块13包括接收线圈131和接收电路板133,接收线圈131设置于后盖102,接收电路板133与接收线圈131电连接。
一些实施例中,请参阅图23,发射模块12包括发射线圈121和发射电路板123,发射电路板123与发射线圈121电连接,发射电路板123设置于后板111远离衣物处理筒10的一侧,安装件19设置于后板111朝向衣物处理筒10的一侧,发射线圈121设置于安装件19。
发射模块12可以通过发射电路板123实现与主控板的电连接。
一些实施例中,发射电路板123和发射线圈121可以通过导电线电连接。
该实施例中,发射线圈121和发射电路板123均设置于后板111,便于缩短发射线圈121和发射电路板123之间的连线距离,降低电磁干扰几率及减少功率损耗。
一些实施例中,请参阅图6、图20和图21,发射模块12包括发射线圈121、发射电路板123和第一支架122,发射电路板123与发射线圈121电连接,发射电路板123和发射线圈121集成于第一支架122,第一支架122与安装件19连接。
该实施例中,通过第一支架122集成发射线圈121和发射电路板123,可以不需要通过线材将发射线圈121和发射电路板123电连接起来,减少因线材交错而导致的装配负载度高的问题,电能传输更加方便,减少功率损耗和电磁干扰,发射线圈121和发射电路板123设置于同一平面,发射模块12的整体结构简单紧凑,各部件的安装维修便捷度高。第一支架122能够为发射线圈121和发射电路板123提供安装支撑,增加发射线圈121和发射电路板123的安装稳定性。
一些实施例中,安装件19可以设置于后板111朝向衣物处理筒10的一侧,第一支架122可以设置于安装件19远离后板111的一侧,发射线圈121可以设置于第一支架122远离安装件19的一侧。在接收线圈131设置于后盖102的情况下,发射线圈121与接收线圈131之间的距离较近,以便发射线圈121和接收线圈131相对间隔设置。
一些实施例中,请参阅图7、图8、图20和图21,接收模块13包括接收线圈131、接收电路板133和第二支架132,接收电路板133与接收线圈131电连接,接收电路板133与接收线圈131集成于第二支架132。
该实施例中,通过第二支架132集成接收线圈131和接收电路板133,可以不需要通过线材将接收线圈131和接收电路板133连接起来,减少因线材交错而导致的装配复杂度高的问题,电能传输更加方便,减少过滤损耗和电磁干扰,接收线圈131和接收电路板133设置于同一平面,接收模块13的整体结构简单紧凑,各部件的安装维修便捷度高。第二支架132能够为接收线圈131和接收电路板133提供安装支撑,增加接收线圈131和接收电路板133的安装稳定性。
请参阅图24至图29,本申请实施例提供一种衣物处理设备1,衣物处理设备1包括衣物处理筒10和无线供能组件。
请继续参阅图24至图29,衣物处理筒10包括筒身101。
衣物处理筒10还包括后盖102,后盖102设置于筒身101的后端。
具体地,筒身101的前侧敞开以形成衣物投放口,筒身101的后端与后盖102配合,筒身101与后盖102共同限定出衣物处理腔10a。示例性地,筒身101的后端可以与后盖102可拆卸地连接在一起。
请参阅图24,无线供能组件包括发射模块12和接收模块13,接收模块13包括接收线圈131,接收线圈131用于接收发射模块12发射的电磁信号并产生感应电流,接收线圈131设置于筒身101。
发射模块12和接收模块13可以通过电磁感应的方式实现无线连接。
请参阅图24,发射模块12包括发射线圈121,接收线圈131用于接收发射线圈121发射的电磁信号并产生感应电流,发射线圈121设置于衣物处理筒10之外的部件。
无线供能组件是通过无线方式为衣物处理设备1的电器元件提供电能的结构。
需要说明的是,衣物处理筒10之外的部件,是指,独立于衣物处理筒10以外且设置于衣物处理筒10外侧的部件,在衣物处理筒10转动时,发射模块12可以保持静止,例如,衣物处理筒10之外的部件可以是箱体11或者设置于箱体11下方的底座16等,在此不做限制。
发射线圈121和接收线圈131可以通过电磁感应的方式实现无线连接。
具体地,发射线圈121产生变化的磁场,接收线圈131通过电磁感应产生感应电流,接收来自发射线圈121的电能传输。
如此,设置于衣物处理筒10的电器元件,可以与接收模块13电连接,通过接收模块13为电器元件供电,满足用电需求。
发射线圈121与接收线圈131无线连接,即发射线圈121能够将电力无线传输至接收线圈131。如此,设置于衣物处理筒10的电器元件,可以与接收模块13例如接收线圈131电连接,通过接收线圈131为电器元件供电,满足用电需求。
示例性地,接收线圈131设置于筒身101,电器元件如用于检测衣物状态的单元等即可设置在衣物处理筒10,并与接收模块13电连接,获取电能,在衣物处理筒10转动时,接收模块13和电器元件同步转动,接收线圈131与电器元件之间的电连接较为稳定,且接收线圈131在转动过程中也能够接收来自发射线圈121传输的电能,如此,设置于衣物处理筒10内的电器元件即能够近距离感知衣物状态和执行特定功能,以提升衣物处理设备1的工作性能。示例性地,能够提升衣物处理设备1的判干性能。
本申请实施例提供的衣物处理设备1,发射模块12设置于衣物处理筒10之外的部件,接收线圈131设置于筒身101,筒身101尺寸相对较大,有足够的位置用于安装接收线圈131,降低接收线圈131的安装难度。发射模块12和接收线圈131无需接触即可传输电能,不用电线连接即可实现电能传输,可靠性高。并且,衣物处理设备1的电器元件可以设置于衣物处理筒10内,通过接收模块13为电器元件供电,从而便于满足电器元件的用电需求及便于近距离感知衣物状态,提升衣物处理设备1的整体性能。
一些实施例中,请参阅图24至图29,发射模块12包括发射线圈121,衣物处理设备1包括箱体11,衣物处理筒10设置于箱体11内,发射线圈121设置于箱体11。
该实施例中,箱体11保持静止,发射线圈121设置于箱体11,以便于发射线圈121与主控板有线连接,发射线圈121和接收线圈131之间没有导电线,衣物处理筒10相对箱体11转动的过程中,不会出现导电线缠绕的问题。
一些实施例中,发射线圈121可以设置于箱体11的外侧。
另一些实施例中,请参阅图24至图28,发射线圈121可以设置于箱体11的内侧。箱体11可以保护发射线圈121,还可以减少箱体11对发射线圈121与接收线圈131之间电磁感应的影响。
一些实施例中,请参阅图25至图28,发射线圈121设置于箱体11的内侧,接收线圈131设置于筒身101的周向外侧。
该实施例中,接收线圈131设置于筒身101的周向外侧,即接收线圈131的轴线沿衣物处理筒10的径向设置,发射线圈121设置于箱体11的内侧,接收线圈131随衣物处理筒10转动至设定区域,接收线圈131即在该设定区域与发射线圈121实现相对,从而使得接收线圈131接收发射线圈121发射的电磁信号并产生感应电流,为电器元件提供电能。接收线圈131在筒身101的周向外侧、发射线圈121在箱体11的内侧具有足够的布置空间,且能够降低对接收线圈131和发射线圈121的安装位置的要求,只要能够通过转动实现相对即可。
示例性地,请参阅图25,箱体11包括顶板112,发射线圈121可以设置于顶板112,接收线圈131设置于筒身101的周向外侧。
顶板112是箱体11位于衣物处理筒10上方的板件。
例如,发射线圈121设置于顶板112朝向衣物处理筒10的一侧,即发射线圈121设置于顶板112的下方。
又例如,发射线圈121设置于顶板112远离衣物处理筒10的一侧,即发射线圈121设置于顶板112的上方。
该实施例中,接收线圈131设置于筒身101的周向外侧,发射线圈121设置于顶板112,接收线圈131随衣物处理筒10转动至设定区域,接收线圈131即在该设定区域与发射线圈121实现相对,从而使得接收线圈131接收发射线圈121发射的电磁信号并产生感应电流,为电器元件提供电能。
一些实施例中,请参阅图24至图25,发射模块12包括发射电路板123,发射线圈121和发射电路板123电连接,发射电路板123设置于箱体11。
该实施例中,箱体11保持静止,主控板一般设置于箱体11上,发射线圈121和发射电路板123均设置于箱体11,以便于发射线圈121、发射电路板123和主控板之间有线连接。
可以理解的是,一些实施例中,发射线圈121和发射电路板123也可以直接连接。也就是说,发射线圈121和发射电路板123之间没有导电线。
一些实施例中,请参阅图24,发射电路板123设置于后板111远离衣物处理筒10的一侧,发射线圈121设置于后板111靠近衣物处理筒10的一侧。
该实施例中,发射电路板123设置于后板111远离衣物处理筒10的一侧,即发射电路板123设置于后板111的后侧,后板111能够为发射电路板123起到一定的保护作用,降低气流流动对发射电路板123的影响及降低气流裹挟的毛屑等杂质吸附在发射电路板123上的几率,增加发射电路板123的安装安全性。同时,也能够便于发射电路板123与主控板之间的有线连接。发射线圈121设置于后板111靠近衣物处理筒10的一侧,以便于发射线圈121与接收线圈131之间位置较近。
一些实施例中,请参阅图25和图6,衣物处理设备1包括第一支架122,发射电路板123和发射线圈121集成于第一支架122,第一支架122与箱体11连接。
该实施例中,通过第一支架122集成发射线圈121和发射电路板123,发射线圈121和发射电路板123可以直接连接,无需通过线材将发射线圈121和发射电路板123连接起来,减少因线材交错而导致的装配负载度高的问题,电能传输更加方便,减少功率损耗和电磁干扰,发射线圈121和发射电路板123设置于同一平面,发射模块12的整体结构简单紧凑,各部件的安装维修便捷度高。第一支架122能够为发射线圈121和发射电路板123提供安装支撑,增加发射线圈121和发射电路板123的安装稳定性。
一些实施例中,请参阅图26和图27,发射模块12包括发射线圈121,衣物处理设备1包括底座16,底座16设置于衣物处理筒10的下方,发射线圈121设置于底座16朝向衣物处理筒10的一侧,接收线圈131设置于筒身101的周向外侧。
发射线圈121设置于底座16朝向衣物处理筒10的一侧,即发射线圈121设置于底座16的上方,发射线圈121位于衣物处理筒10和底座16之间。
作为示例,底座16内具有烘道,烘道与衣物处理腔10a连通。具体地,与衣物进行热湿交换后的气流能够进入烘道,在烘道内完成冷凝除湿及加热,形成新的干燥热气流进入衣物处理腔10a对衣物完成烘干。
示例性地,衣物处理筒10包括进风口和出风口,衣物处理腔10a连通进风口和出风口,烘道与出风口连通,进风口设置于后盖102,干燥热气流在衣物处理腔10a内与衣物完成热湿交换后能够经出风口进入烘道,在烘道内完成换热,形成新的干燥热气流经进风口再次进入衣物处理腔10a,如此,循环,完成对衣物的有效烘干。
该实施例中,接收线圈131设置于筒身101的周向外侧,即接收线圈131的轴线沿衣物处理筒10的径向设置,发射线圈121设置于底座16朝向衣物处理筒10的一侧,在衣物处理筒10转动的过程中,当接收线圈131随衣物处理筒10转动至设定区域,接收线圈131即在该设定区域与发射线圈121实现相对,从而使得接收线圈131接收发射线圈121发射的电磁信号并产生感应电流,为电器元件提供电能。接收线圈131通过随衣物处理筒10的转动实现与发射线圈121的电能传输,从而为电器元件供电。接收线圈131在筒身101的周向外侧、发射线圈121在底座16朝向衣物处理筒10的一侧具有足够的布置空间,且能够降低对接收线圈131和发射线圈121的安装位置的要求,只要能够通过转动实现相对即可。
一些实施例中,请参阅图26,发射线圈121也可以设置于底座16的内部。
一些实施例中,请参阅图24,发射模块12包括发射线圈121,衣物处理设备1包括具有后板111的箱体11,衣物处理筒10设置于箱体11内,发射线圈121设置于后板111,接收线圈131设置于筒身101的后端部位。
需要说明的是,筒身101的后端部位是指筒身101靠近后板111的端部,也就是说,筒身101远离衣物投放口的一端的端部。
作为示例,接收线圈131可以设置于筒身101的后端部位和后盖102之间的连接处。
该实施例中,筒身101的后端部位靠近后板111,发射线圈121设置于后板111,接收线圈131设置于筒身101的后端部位,发射线圈121和接收线圈131两者的距离相对较近,有利于发射线圈121和接收线圈131之间稳定地传输电能。
需要说明的是,所述的发射线圈121和接收线圈131相对布置,是指,发射线圈121和接收线圈131之间具有一定的间隔,并且,以垂直于发射线圈121和接收线圈131的任意一个的轴向的平面为投影面,发射线圈121的投影与接收线圈131的投影的至少部分重叠。示例性地,发射线圈121与接收线圈131同轴布置。
一些实施例中,请参阅图24,发射线圈121设置于后板111朝向衣物处理筒10的一侧,接收线圈131可以环绕筒身101的后端部位,发射线圈121、接收线圈131与衣物处理筒10三者同轴设置。
该实施例中,在衣物处理筒10的转动过程中,发射线圈121和接收线圈131可以是始终保持同轴且相对设置,即无论衣物处理筒10转动至任何位置,发射线圈121和接收线圈131始终保持同轴且相对的状态,实现持续的电能传输。
其他一些实施例中,发射线圈121和接收线圈131也可以是在特定位置同轴且相对设置,即接收线圈131可以通过随衣物处理筒10的转动而运动至该特定位置与发射线圈121同轴且相对设置。
一些实施例中,请参阅图24至图28,接收模块13包括接收电路板133,接收电路板133与接收线圈131电连接。
一些实施例中,接收电路板133与接收线圈131可以通过导电线电连接。
一些实施例中,接收电路板133与接收线圈131可以直接电连接,也就是说,接收电路板133与接收线圈131之间没有导电线。
一些实施例中,请参阅图26,衣物处理设备1包括提升筋14,提升筋14沿径向凸出于衣物处理筒10的周向内壁,接收电路板133设置于提升筋14内。
该实施例中,接收线圈131和接收电路板133分开布置,利用提升筋14为接收电路板133提供安装空间,降低接收电路板133与衣物接触的几率,增加接收电路板133的安装可靠性。当然,电器元件也可以设置于提升筋14内,在此不做限制。
一些实施例中,请参阅图24,衣物处理设备1包括锥形帽18,衣物处理筒10包括后盖102,锥形帽18的一端与后盖102靠近筒身101的一侧连接,接收电路板133位于锥形帽18内。
该实施例中,接收电路板133设置在锥形帽18内,利用锥形帽18为接收电路板133提供安装空间,且锥形帽18能够在一定程度上降低接收电路板133与衣物接触的几率,增加接收电路板133的安装可靠性。
一些实施例中,请参阅图24、图8和图9,接收模块13包括接收电路板133,衣物处理设备1包括第二支架132,接收电路板133与接收线圈131电连接,接收电路板133与接收线圈131集成于第二支架132,第二支架132与筒身101连接。
该实施例中,通过第二支架132集成接收线圈131和接收电路板133,接收线圈131和接收电路板133可以直接连接,无需通过线材将接收线圈131和接收电路板133连接起来,减少因线材交错而导致的装配复杂度高的问题,电能传输更加方便,减少过滤损耗和电磁干扰,接收线圈131和接收电路板133设置于同一平面,接收模块13的整体结构简单紧凑,各部件的安装维修便捷度高。第二支架132能够为接收线圈131和接收电路板133提供安装支撑,增加接收线圈131和接收电路板133的安装稳定性。
以下结合图24至图28对本申请实施例的发射模块12和接收模块13的设置位置进行举例说明。
第七实施例:请参阅图24,发射线圈121设置于后板111朝向衣物处理筒10的一侧,发射电路板123设置于后板111远离衣物处理筒10的一侧,接收线圈131设置于筒身101的后端部位,接收电路板133设置于锥形帽18内。
该实施例中,发射线圈121和发射电路板123可以分散布置,接收线圈131和接收电路板133可以分散布置。在衣物处理筒10的转动过程中,发射线圈121与接收线圈131可以始终保持相对设置,实现持续的电能传输。
第八实施例:请参阅图25,发射线圈121设置于顶板112朝向衣物处理筒10的一侧,发射电路板123设置于顶板112朝向衣物处理筒10的一侧,接收线圈131设置于筒身101的周向外侧,接收电路板133设置于筒身101的周向外侧。
该实施例中,发射线圈121和发射电路板123可以集成于第一支架122上,接收线圈131和接收电路板133可以集成于第二支架132上。在衣物处理筒10的转动过程中,接收线圈131在随衣物处理筒10转动至设定区域与发射线圈121相对设置,在设定区域内进行电能传输。
第九实施例:请参阅图26,发射线圈121设置于底座16内,发射电路板123设置于底座16内,接收线圈131设置于筒身101的周向外侧,接收电路板133设置于提升筋14内。
该实施例中,发射线圈121、发射电路板123可以集成于第一支架122上,接收线圈131和接收电路板133分散布置。在衣物处理筒10的转动过程中,接收线圈131在随衣物处理筒10转动至设定区域与发射线圈121相对设置,在设定区域内进行电能传输。
第十实施例:请参阅图27,发射线圈121设置于底座16朝向衣物处理筒10的一侧,发射电路板123设置于底座16朝向衣物处理筒10的一侧,接收线圈131设置于筒身101的周向外侧,接收电路板133设置于提升筋14内。
该实施例中,发射线圈121和发射电路板123可以集成于第一支架122上,接收线圈131和接收电路板133分散布置。在衣物处理筒10的转动过程中,接收线圈131在随衣物处理筒10转动至设定区域与发射线圈121相对设置,在设定区域内进行电能传输。
第十一实施例:请参阅图28,发射线圈121设置于底座16朝向衣物处理筒10的一侧,发射电路板123设置于底座16朝向衣物处理筒10的一侧,接收线圈131设置于筒身101的周向外侧,接收电路板133设置于筒身101的周向外侧。
该实施例中,发射线圈121和发射电路板123可以集成于第一支架122上,接收线圈131和接收电路板133可以集成于第二支架132上。在衣物处理筒10的转动过程中,接收线圈131在随衣物处理筒10转动至设定区域与发射线圈121相对设置,在设定区域内进行电能传输。
在本申请的描述中,参考术语“一个实施例”、“一些实施例”、“示例”、“具体示例”、或“一些示例”等的描述意指结合该实施例或示例描述的具体特征、结构、材料或者特点包含于本申请实施例的至少一个实施例或示例中。在本申请中,对上述术语的示意性表述不是必须针对的是相同的实施例或示例。而且,描述的具体特征、结构、材料或者特点可以在任一个或多个实施例或示例中以合适的方式结合。此外,在不相互矛盾的情况下,本领域的技术人员可以将本申请中描述的不同实施例或示例以及不同实施例或示例的特征进行结合。
以上所述仅为本申请的较佳实施例而已,并不用于限制本申请,对于本领域的技术人员来说,本申请可以有各种更改和变化。凡在本申请的精神和原则之内,所作的任何修改、等同替换、改进等,均应包含在本申请的保护范围之内。

Claims (19)

  1. 一种衣物处理设备,其中,包括:
    箱体,包括后板;
    衣物处理筒,可转动地设置于所述箱体内,所述衣物处理筒包括筒身和后盖,所述后盖设置于所述筒身的后端;
    无线供能组件,包括发射模块和接收模块,所述接收模块用于接收所述发射模块发射的电磁信号并产生感应电流;
    所述发射模块设置于所述后板,所述接收模块的至少部分设置于所述后盖。
  2. 根据权利要求1所述的衣物处理设备,其中,所述衣物处理设备包括后罩,所述后罩盖设于所述后板的后侧表面,并与所述后板共同限定出送风通道,所述后板形成有送风口,所述后盖形成有进风口,所述送风通道的气流经所述送风口、所述进风口流向所述衣物处理腔,所述发射模块的至少部分设置于所述后板未被所述后罩覆盖的部位。
  3. 根据权利要求2所述的衣物处理设备,其中,所述箱体包括壳部,所述壳部罩设于所述后板以及所述后罩的后侧,所述发射模块包括发射线圈和发射电路板,所述发射电路板与所述发射线圈电连接,所述发射电路板位于所述后板和所述壳部之间的空间且与所述后板连接。
  4. 根据权利要求1或2所述的衣物处理设备,其中,所述发射模块包括发射线圈和发射电路板,所述衣物处理设备包括第一支架,所述发射电路板与所述发射线圈电连接,所述发射电路板和所述发射线圈集成于所述第一支架上。
  5. 根据权利要求1所述的衣物处理设备,其中,所述接收模块包括接收线圈,所述接收线圈设置于所述后盖朝向所述后板的一侧。
  6. 根据权利要求5所述的衣物处理设备,其中,所述接收模块包括接收电路板,所述接收电路板与所述接收线圈电连接;
    所述衣物处理设备包括提升筋,所述提升筋沿径向凸出于所述衣物处理筒的周向内壁,所述接收电路板设置于所述提升筋内;
    或者,所述衣物处理设备包括锥形帽,所述锥形帽的一端与所述后盖靠近所述筒身的一侧连接,所述接收电路板位于所述锥形帽内。
  7. 根据权利要求1所述的衣物处理设备,其中,所述接收模块包括接收线圈、接收电路板,所述接收电路板与所述接收线圈电连接,所述衣物处理设备包括第二支架,所述接收电路板与所述接收线圈集成于所述第二支架。
  8. 根据权利要求1所述的衣物处理设备,其中,所述衣物处理设备包括检测单元,所述检测单元用于对所述衣物处理腔内的衣物的电导率进行检测,所述检测单元与所述接收模块电连接。
  9. 根据权利要求8所述的衣物处理设备,其中,所述衣物处理设备包括提升筋,所述提升筋沿径向凸出于所述衣物处理筒的周向内壁,所述检测单元包括相互电连接的检测电极和检测电路,所述检测电极设置于所述提升筋的外表面,所述检测电路设置于所述提升筋内,所述检测电路与所述接收模块电连接。
  10. 一种衣物处理设备,其中,包括:
    箱体;
    衣物处理筒,设置于所述箱体内;
    无线供能组件,包括发射模块和接收模块,所述接收模块用于接收所述发射模块发射的电磁信号并产生感应电流;
    安装件,与所述箱体连接,所述发射模块的至少部分设置于所述安装件。
  11. 根据权利要求10所述的衣物处理设备,其中,所述箱体包括后板,所述衣物处理筒包括后盖,所述发射模块包括发射线圈,所述接收模块包括接收线圈,所述安装件设置于所述后板朝向所述后盖的一侧,所述发射线圈设置于所述安装件远离所述后板的一侧,所述接收线圈设置于所述后盖朝向所述后板的一侧。
  12. 根据权利要求10所述的衣物处理设备,其中,所述箱体包括后板,所述发射模块包括发射线圈和发射电路板,所述发射电路板与所述发射线圈电连接,所述发射电路板设置于所述后板远离所述衣物处理筒的一侧,所述安装件设置于所述后板朝向所述衣物处理筒的一侧,所述发射线圈设置于所述安装件。
  13. 根据权利要求10所述的衣物处理设备,其中,所述发射模块包括发射线圈、发射电路板和第一支架,所述发射电路板与所述发射线圈电连接,所述发射电路板和所述发射线圈集成于所述第一支架,所述第一支架与所述安装件连接。
  14. 一种衣物处理设备,其中,包括:
    衣物处理筒,包括筒身;
    无线供能组件,包括发射模块和接收模块,所述接收模块包括接收线圈,所述接收线圈用于接收所述发射模块发射的电磁信号并产生感应电流,所述接收线圈设置于所述筒身。
  15. 根据权利要求14所述的衣物处理设备,其中,所述发射模块包括发射线圈,所述衣物处理设备包括箱体,所述衣物处理筒设置于所述箱体内,所述发射线圈设置于所述箱体。
  16. 根据权利要求14所述的衣物处理设备,其中,所述发射模块包括发射线圈,所述衣物处理设备包括底座,所述底座设置于所述衣物处理筒的下方,所述发射线圈设置于所述底座朝向所述衣物处理筒的一侧,所述接收线圈设置于所述筒身的周向外侧。
  17. 根据权利要求14所述的衣物处理设备,其中,所述接收模块包括接收电路板,所述接收电路板与所述接收线圈电连接;
    所述衣物处理设备包括提升筋,所述提升筋沿径向凸出于所述衣物处理筒的周向内壁,所述接收电路板设置于所述提升筋内;
    或者,所述衣物处理设备包括锥形帽,所述衣物处理筒包括后盖,所述后盖设置于所述筒身的后端,所述锥形帽的一端与所述后盖靠近所述筒身的一侧连接,所述接收电路板位于所述锥形帽内。
  18. 根据权利要求14所述的衣物处理设备,其中,所述接收模块包括接收电路板,所述衣物处理设备包括第二支架,所述接收电路板与所述接收线圈电连接,所述接收电路板与所述接收线圈集成于所述第二支架,所述第二支架与所述筒身连接。
  19. 根据权利要求14至18任意一项所述的衣物处理设备,其中,所述衣物处理设备包括检测单元,所述检测单元用于对所述衣物处理筒内的衣物的电导率进行检测,所述检测单元与所述接收模块电连接。
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