TWI821871B - Fabric treatment apparatus - Google Patents

Abstract

The present invention provides a fabric treatment apparatus, which includes an air supply unit, an upper frame, a plurality of vertical pipe bodies, a hanging pipe body, and a hanger. The upper frame is included at least one upper frame pipe body and at least one upper connecting piece to form a polygonal state. In this way, the plurality of vertical pipe bodies can support the upper frame, and the hanging pipe body is connected to the upper frame; the hanging pipe body is provided with a first docking port, and the hanging pipe body is connected to the upper frame; the hanger can be used for hanging fabrics, and the hanger is provided with a second docking port and a plurality of hanging air holes; wherein, the first docking port can be combined with the second docking port, and after the first air flow provided by the air supply unit is introduced into the upper frame, it can enter the hanger from the hanging pipe body, and then spray to the inner surface of the fabric from the hanging air holes. In this way, the fabric treatment device not only allows the fabric to be dried from the inside out, but also uses the temperature difference between the outer surface of the fabric and the environment to flat the wrinkles of the fabric.

Description

Fabric processing device

The present invention relates to a fabric processing device, particularly a device for drying and smoothing fabrics.

In the busy life of modern cities, most daily clothes are washed by a washing machine using a rotating method, and then dried naturally in the sun. In order to avoid the influence of air pollution or extreme weather, most clothes are placed indoors to dry; if For quick drying, use a drying cabinet to speed up the drying of clothes. Since the washing machine washes the clothes in a rotating manner, it is easy to cause wrinkles in the clothes. If the user needs to smooth out the wrinkles in the clothes, it will take extra time to iron the clothes.

Most of the drying cabinets in the market today simply dry clothes. If you want to flatten the clothes, you need to add a process of spraying water air onto the clothes to achieve the purpose of drying and flattening the clothes. Since the traditional clothes leveling process requires adding moisture, drying and leveling clothes takes a long time and consumes a lot of electricity. Under the modern trend of energy saving and carbon saving, such a drying cabinet is difficult to Meet user needs.

Furthermore, the current drying cabinets in the market blow hot air into the drying cabinet, and circulate the water in the internal space to take away the moisture from the outer surface of the clothes, thereby achieving the purpose of drying the fabrics. It is worth pondering that during the drying process of clothes in a traditional drying cabinet, the moisture begins to escape from the outer surface of the fabric. The moisture in the clothing material and its inner surface is not directly blown by hot air, so it is natural and It slowly moves to the outer surface of the fabric and escapes, which takes a long time to work. In addition, since the hot air can only blow on the outer surface of the clothes, a larger distance must be reserved between the hanging clothes in the drying cabinet to facilitate the hot air. flow, thus limiting the number of drying clothes in the drying cabinet; then, if you want to smooth out the wrinkles of the clothes, you need to perform the process of spraying water air onto the clothes; or even use an additional iron to perform the ironing operation, then you can imagine It is known that it is not only time-consuming but also energy-consuming; therefore, how to provide a fabric processing device that can effectively save energy and time is an issue that needs to be solved urgently in the industry.

In view of the above-mentioned prior art, the object of the present invention is to provide a fabric processing device, which includes: an air supply unit that can provide a first air flow; an upper frame that is provided with a plurality of upper frame tubes and a plurality of upper frames. Frame connecting parts, each upper frame pipe system is assembled with each other to form a polygonal shape using the upper frame connecting parts; at least one air inlet port is provided on the upper frame, and each air inlet port is connected to the air supply unit respectively. The first airflow can be introduced into the upper frame; at least one hanging pipe body, each hanging pipe body is provided with at least one first docking port, and each hanging pipe system is connected to the upper frame; at least one hanging object rack, each hanging object rack can It is used for hanging fabrics, and each hanging rack is equipped with a hook part and a hanging part. The hook part is provided with a second docking port, and the hanging part is equipped with a plurality of hanging air holes; and a plurality of vertical pipe bodies, each vertical pipe body One end is combined with the upper frame to support the upper frame; wherein, the first docking port can be combined with the second docking port, so that the first airflow can enter the hook portion through the first docking port and the second docking port. , and then flow out of the hanging object rack through the hanging object air holes.

One of the beneficial effects of the present invention is that the first airflow can penetrate the fabric from the inner surface of the fabric to its outer surface, allowing the moisture in the fabric to escape, thereby achieving the purpose of drying the fabric; in addition, it can pass through the outer surface of the fabric The temperature difference between the surface and the environment smoothes the wrinkles in the fabric.

Furthermore, in at least one embodiment, the vertical pipe system of the fabric processing device is provided with hanging crossbars for hanging fabrics, and the hanging crossbars are provided with a plurality of crossbar air holes, and the first airflow system can be passed through the hanging pipe body. It flows into the vertical tube body and then flows out through the air holes of the horizontal bar. In this way, the vertical tube body can not only support the upper frame, but also allow the fabric to be hung, and allow the first airflow to penetrate from the inner surface of the fabric to the outer surface. Then achieve the effect of drying and leveling.

Furthermore, in at least one embodiment, the air supply unit can provide a second air flow, and the temperature control unit can control the temperature of the second air flow, and direct the second air flow to the outer surface of the fabric, so as to generate a second air flow on the outer surface of the fabric. Temperature difference helps smooth fabric wrinkles.

Technical features and advantages of the invention will be set forth in the description, and in part will be obvious from the description, or may be learned by practice of the invention. The objectives and other effects of the present invention are realized and obtained by the structure disclosed in the specification, patent application scope and drawings.

In order to make the above-mentioned objects, features and effects of the present invention more obvious and easy to understand, preferred embodiments are given below and described in detail with reference to the accompanying drawings.

10: Fabric processing device

11:Air supply unit

111:First airflow

112:Second airflow

113:Temperature control unit

115: Air pressure source

117:Vortex tube

13: Upper frame

131: Upper frame tube body

1311: Upper frame tube body air hole

133: Upper frame connecting piece

135:Inlet port

14: Lower frame

141: Lower frame tube body

143: Lower frame connecting piece

15: Hanging pipe body

151: First docking port

17: Hanging rack

171: Hook part

172: Second docking port

173: Hanging Objects Department

1731: Hanging object air hole

18: Fabric

19:Vertical tube body

193: Vertical pipe body air hole

21: Isolation cover

211:Internal space

23:External environment

25:Gate

251:front

253:Back

29:Vertical tube body

291:Bar for hanging objects

293: Crossbar air hole

31:Energy saving unit

311: Thermoelectric power generation chip

313: Energy storage unit

33:Exhaust unit

331:Exhaust hole

333:Metal pipe

Figure 1 is a schematic three-dimensional view of a fabric processing device according to an embodiment of the present invention.

Figure 2 is a partially enlarged schematic diagram of a fabric processing device according to an embodiment of the present invention.

Figure 3 is a schematic three-dimensional view of a fabric processing device according to an embodiment of the present invention.

Figure 4 is a schematic three-dimensional view of a fabric processing device according to an embodiment of the present invention.

Figure 5A is a front perspective view of a fabric processing device with an isolation cover according to the present invention.

Figure 5B is a schematic back perspective view of a fabric processing device with an isolation cover according to the present invention.

Figure 5C is a front perspective view of a fabric processing device with an isolation cover according to the present invention.

Figure 6 is a schematic diagram of an object rack according to an embodiment of the present invention.

Figure 7 is a schematic diagram of an object hanging rack according to an embodiment of the present invention.

Embodiments of the present invention are described in detail below, examples of which are illustrated in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements with the same or similar functions. The embodiments described below with reference to the drawings are exemplary and are only used to explain the present invention and cannot be understood as limiting the present invention.

In the description of the present invention, it should be understood that the terms "center", "longitudinal", "transverse", "length", "width", "thickness", "upper", "lower", "front", " "Back", "Left", "Right", "Vertical", "Horizontal", "Top", "Bottom", "Inside", "Outside", "Clockwise", "Counterclockwise", "Axis" The orientations or positional relationships indicated by "radial direction", "circumferential direction", etc. are based on the orientations or positional relationships shown in the drawings. They are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply the device or device referred to. Elements must have a specific orientation, be constructed and operate in a specific orientation and therefore are not to be construed as limitations of the invention. In addition, features defined as “first” and “second” may explicitly or implicitly include one or more of the features. In the description of the present invention, unless otherwise stated, "plural" means two or more than two.

In the description of the present invention, it should be noted that, unless otherwise clearly stated and limited, the terms "installation", "connection", "connection" and "assembly" should be understood in a broad sense. For example, it can be It can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection, or it can be an electrical connection; it can be a direct connection, or it can be an indirect connection through an intermediate medium, or it can be an internal connection between two components. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood on a case-by-case basis.

First, please refer to Figures 1 to 3, which are respectively a schematic three-dimensional view and a partial schematic view of one embodiment of the present invention. As shown in the figures, the fabric processing device 10 of this embodiment includes: an air supply unit 11. It can provide a first airflow 111; an upper frame 13, which is provided with a plurality of upper frame tube bodies 131 and a plurality of upper frame connecting parts 133, and each upper frame tube body 131 is connected by these upper frames. The components 133 are assembled with each other to form a polygonal shape; at least one air inlet port 135 is provided on the upper frame 13, and each air inlet port 135 is connected to the air supply unit 11 respectively to introduce the first airflow 111 The upper frame 13; at least one hanging pipe body 15, each hanging pipe body 15 is provided with at least one first docking port 151, and each hanging pipe body 15 is connected to the upper frame 13; at least one hanging object rack 17, each The hanging rack 17 can be used to hang a fabric 18, and each hanging rack 17 is provided with a hook portion 171 and a hanging portion 173. The hook portion 171 is provided with a second docking port 172, and the hanging portion 173 is provided with a plurality of a hanging object air hole 1731; and a plurality of vertical tube bodies 19, one end of each vertical tube body 19 is assembled with the upper frame 13 to support the upper frame 13; wherein, the first docking port 151 can be connected with the third The two docking ports 172 are assembled so that the first airflow 111 can enter the hook portion 171 through the first docking port 151 and the second docking port 172, pass through the hanging portion 173, and then flow out through the hanging air holes 1731. The hanging rack 17 allows the first airflow 111 to directly blow the fabric 18 hung on the hanging portion 173; that is, the first airflow 111 can penetrate the fabric 18 from the inner surface of the fabric 18 to its The outer surface of the fabric 18 accelerates the moisture dissipation of the fabric 18, thereby achieving the purpose of drying the fabric 18.

Continuing, the fabric processing device 10 can also be provided with a plurality of hanging racks 17, and each hanging rack 17 can be added along the axial direction of the hanging tube 15; because the fabric processing device 10 dries the fabric. The way of the object 18 is to guide the first airflow 111 from the inner surface of the fabric 18 through the body of the fabric 18 to the outer surface; therefore, the distance between each hanging rack 17 can be smaller, so that the fabric can be processed The device 10 can process a larger number of fabrics 18; in addition, the first airflow 111 can also directly blow the inside of the fabric 18 to take moisture away from the fabric 18.

Furthermore, in one embodiment of the present invention, such as the embodiment shown in Figure 3, the fabric processing device 10 is provided with a lower frame 14, which is provided with a plurality of lower frame tube bodies 141 and a plurality of lower frames. Connecting parts 143, each lower frame tube body 141 is assembled with each other using the lower frame connecting parts 143 to form a polygonal shape, and the other end of each vertical tube body 19 is assembled with the lower frame 14; in this way, the fabric The appearance of the processing device 10 may be as shown in Figure 3 or Figure 4 .

In addition, the polygonal shape described in the present invention can be a closed polygon, such as a "mouth" shape, or an open polygon, such as a "U" shape, a "Gong" shape or a "well" shape, where "Gong" The model is shown in Figure 4; furthermore, the "assembly" refers to the structural connection between the upper frame connecting member 133 and the plurality of upper frame tube bodies 131 to form a polygonal shape; or it refers to the The upper frame connecting piece 133 can be structurally connected to one end of the vertical tube body 19; in this case, the lower frame connecting piece 143 can be structurally connected to a plurality of lower frame tube bodies 141 to form a polygonal shape; It may also mean that the lower frame connecting piece 143 can be structurally connected to the other end of the vertical tube body 19; this will be stated in advance.

Furthermore, please refer to Figure 4, which is a schematic three-dimensional view of another embodiment of the present invention; the fabric processing device 10 is similar to the aforementioned embodiment of Figure 3; however, in the embodiment shown in Figure 4 In addition to supporting the upper frame 13, the vertical tube body 29 provided in the fabric processing device 10 has one end connected to the hanging tube body 15, and the vertical tube body 29 is provided with at least one hanging object. The crossbars 291 can be used to hang the fabric 18, and the hanging crossbars 291 are provided with a plurality of crossbar air holes 293, and the first airflow 111 can flow from the hanging tube body 15 into the vertical tube body 29, and then Through the crossbar air hole of the hanging object crossbar 291 293 and flow out; thereby, the first airflow 111 can also be guided to penetrate the fabric 18 from the inner surface to the outer surface, so that the moisture in the fabric 18 can escape quickly, thereby achieving the purpose of drying the fabric 18 . In addition, one end of the vertical pipe body 29 is connected to the hanging pipe body 15 through the upper frame connector 133; of course, in another embodiment, the vertical pipe body 29 can be directly connected to the hanging pipe body 15. Welded joint.

It is further explained that in addition to the function of supporting the upper frame 13, the vertical tube body 29 shown in Figure 4 can also be combined with the function of hanging the fabric 18. In particular, a plurality of hanging object cross bars 291 can be provided in the vertical direction. Therefore, the space for the fabric processing device 10 to process the fabric 18 can be effectively increased.

Furthermore, in another embodiment, the fabric processing device 10 can be equipped with a plurality of the hanging racks 17 and a plurality of the vertical tubes 29 at the same time, thereby effectively increasing the number of the fabrics 18 processed by the fabric processing device 10, and thus The efficiency of the fabric processing device 10 can be effectively improved.

Also, please refer to Figure 5A, which is a front perspective view of another embodiment of the present invention. As shown in the figure, the fabric processing device 10 includes an isolation cover 21. The isolation cover 21 can cover a horizontal frame 13 and The vertical tube bodies (19, 29) can even cover and isolate the lower frame 14 as shown in Figure 5A; an internal space 211 is formed inside the isolation cover 21 and is separated from the outside. An external environment 23; of course, the internal space 211 refers to the space used to hang and process the fabrics 18, and the external environment 23 refers to the environment where the fabric processing device 10 is placed, such as a room or a balcony; and , a gate 25 is provided on the front 251 side of the fabric processing device 10 to open or close the fabric processing device 10; in addition, if the material of the gate 25 is soft, the opening and closing method can be a zipper type, that is, As shown in Figure 5A, it is only for illustration and not used to limit the scope of protection it is intended to protect; furthermore, if the material of the gate 25 is a hard type, its opening and closing method can be a flip-door type. As shown in Figure 8 or Figure 9. In addition, the fabric processing device 10 includes an exhaust unit 33, and the isolation cover 21 is provided with an exhaust hole 331, and The exhaust unit 33 can exhaust the gas in the internal space 211 to the external environment 23 through the exhaust hole 331, thereby helping to maintain the humidity in the internal space 211.

Furthermore, in some embodiments, the exhaust hole 331 can be selectively disposed above the isolation cover 21 as shown in FIG. 5A , so that when hot gas or water vapor evaporates upward; in addition, the exhaust hole 331 A metal tube 333 can also be connected; in other words, the metal tube 333 is connected to the isolation cover 21, and the thermoelectric power generation chip 311 can also be optionally disposed on the metal tube 333, so as to absorb the temperature difference to facilitate power generation, and the resulting Electric energy is stored in the energy storage unit 313 of the energy saving unit. It should also be noted that the exhaust hole 331 shown in FIG. 5A is located both above and below the isolation cover 21 . However, in other embodiments, the position of the exhaust hole 331 may be different. The exhaust unit 33 can be selectively disposed only at the top as shown in Figure 5B, or only at the lower position; in short, the exhaust unit 33 can be selectively connected to the exhaust hole 331 located above the isolation cover 21, Or you can choose to connect to the exhaust hole 331 located below the isolation cover 21, or even the exhaust unit 33 can also connect to the exhaust holes 331 at the upper and lower places at the same time as shown in Figure 5A or Figure 5C ; It should be added that in other different embodiments, the exhaust hole 331 can also be disposed above the isolation cover 21 and adjacent to the back surface 253 of the isolation cover 21 as shown in Figure 5B, and The exhaust hole 331 is connected to the metal pipe 333 , and the thermoelectric power generation chip 311 is disposed on the metal pipe 333 .

Please refer to Figure 2 again, as shown in the figure; the upper frame tube body 131 is provided with a plurality of upper frame tube body air holes 1311, and the first airflow 111 can flow out from the upper frame tube body air holes 1311. For this reason, more The moisture in the internal space (Fig. 5A, 211) can be quickly removed, which is beneficial to the drying operation of the fabric 18; in addition, the upper frame 13 can only select a few upper frame tube bodies 131 to open a plurality of upper frame tube body air holes 1311; that is, the optimization of the airflow field in the internal space (Fig. 5A, 211) can be achieved by adjusting the aperture size, hole spacing, distribution position and other parameters of the plurality of upper frame tube body air holes 1311. Optimization, thereby promoting the efficiency of the fabric treatment device 10.

Next, please refer to FIG. 1 and FIG. 5A at the same time, in which the air supply unit 11 is provided with a temperature control unit 113 to effectively control the temperature of the first air flow 111, whereby the user can adjust the temperature according to the material of the fabric 18. The material is suitable for temperatures so as not to damage the fabric18.

Please refer to Figure 1, Figure 3 and Figure 5A at the same time. As shown in the figure, the air supply unit 11 of the fabric processing device 10 can provide a second air flow 112, and the temperature control unit 113 can also control the second air flow. 112 temperature, and the vertical tube body 19 can be provided with a plurality of vertical tube body air holes 193; the second airflow 112 can be introduced into the vertical tube body 19 and then pass through the vertical tube body air holes 193 as shown in Figure 1 out; in this way, the outer surface of the fabric 18 can directly contact the second airflow 112. Furthermore, in another embodiment, the vertical tube body 19 can also be connected to the lower frame 14 first, and the second airflow 112 can be introduced into the lower frame 14 and then flow out through the vertical tube body air hole 193. The same is true. The second airflow 112 can be allowed to fill the internal space 211 .

It is worth mentioning that since the first airflow 111 can penetrate the fabric 18 from the inner surface of the fabric 18 to the outer surface of the fabric 18; in this way, the first airflow 111 and the second airflow 112 will be outside the fabric 18 The surfaces are in contact, and since the temperatures of the first airflow 111 and the second airflow 112 are different, they help to smooth out the wrinkles of the fabric 18; in addition, because the first airflow 111 and the second airflow 112 have different temperatures, The temperatures of the two airflows 112 are different, and the moisture entrained in the airflow is also different. When the two meet on the outer surface of the fabric 18, the effect of moisture condensation will occur; therefore, during the drying process of the fabric 18 Compared with traditional technology, the fabric treatment device 10 eliminates the process of spraying water vapor onto the fabric 18, so the fabric treatment device 10 saves operating hours.

In addition, regarding the temperature condition, the temperature of the first airflow 111 can be 90 to 150 degrees Celsius, preferably 98 degrees Celsius. When the fabric processing device 10 is in an embodiment without adding the isolation cover 21 , the fabric processing device 10 can be installed in a normal room, and the indoor temperature is, for example, 24 to 24 degrees Celsius. At 28 degrees, since the fabric 18 is in the room, and the first airflow 111 will contact the room temperature on the outer surface of the fabric 18, the effect of drying and smoothing the fabric 18 can also be achieved; in addition, the aforementioned temperature value It is mainly set according to the material of the fabric 18 and is not used to limit the applicable conditions of the present invention, which is stated here in advance.

In addition, since the first airflow 111 and the second airflow 112 can be at different temperatures, if one end of the vertical tube 19 is connected to the upper frame 13, the other end of the vertical tube 19 is not connected to the upper frame 13. On the contrary, if one end of the vertical tube body 19 is connected to the lower frame 14, the other end of the vertical tube body 19 is not connected to the upper frame 13.

In some embodiments, please refer to FIG. 1 again, in which the air supply unit 11 includes an air pressure source 115 and a vortex tube (Vortex) 117, wherein the vortex tube 117 is connected to the air pressure source 115, and the vortex tube 117 is The first airflow 111 and the second airflow 112 can be output, and the first airflow 111 is a high-temperature airflow, and the second airflow 112 is a low-temperature airflow. The first airflow 111 and the second airflow 112 can be The temperature is precisely controlled through the temperature control unit 113 to highlight the temperature difference effect on the surface of the fabric 18, thereby promoting the drying and smoothing effect of the fabric processing device 10; of course, the positive air pressure of the air pressure source 115 can also be adjusted. By increasing the flow rate of the air flow and thus increasing the blowing force of the wind, it can also improve the efficiency of drying and smoothing; in other words, increasing the temperature of the air flow or increasing the flow rate of the air flow will help the fabric 18 dry and smooth. The air flow temperature or flow velocity is an important parameter of the flat efficiency, and the air flow temperature or flow velocity can be selected according to the material of the fabric 18 .

In addition, the air inlet port 135 can be disposed on the upper frame connecting member 133, as shown in Figure 1; of course, the air inlet port 135 can also be selectively disposed on the upper frame tube body 131, and the upper frame tube body 131 is connected to the upper frame connecting piece 133, and the "connection" means that the first airflow 111 can circulate between the upper frame connecting piece 133 and the upper frame tube body 131.

Furthermore, in some embodiments, the fabric processing device 10 further includes an energy-saving unit 31, which is provided with a thermoelectric power generation chip 311 and an energy storage unit 313. The thermoelectric power generation chip 311 can absorb the temperature difference between the inside and outside of the isolation cover 21. Electric energy is generated and stored in the energy storage unit 313 . Of course, the thermoelectric power generation chip 311 can be disposed on the isolation cover 21 as shown in FIG. 5A ; or the thermoelectric power generation chip 311 can be disposed on the fabric 18 , especially on the outer surface of the fabric 18 .

In addition, the fabric 18 can be clothes, hats, pants, shoes, socks, blankets, etc.; the inner surface of the fabric 18 refers to the surface that is in direct contact with the user, and the outer surface of the fabric 18 refers to its surface. The outer surface presented to the user's vision; it should be noted here that the aforementioned various items are only examples and are not intended to limit the scope of the present invention.

Next, please refer to FIG. 6 and FIG. 7 at the same time, which are schematic diagrams of hanging racks according to different embodiments of the present invention. As shown in the figures, the main difference between FIG. 6 and FIG. 7 lies in the arrangement direction of the second docking port 172. The second docking port 172 connected to the hook portion 171 in Figure 6 is in a vertical direction, and the second docking port 172 can be combined with the first docking port 151. The combination The method can be selected from different assembly methods such as plugging, embedding or screwing, so as to achieve the role of guiding the first airflow 111; in addition, the direction of the second docking port 172 shown in Figure 7 is horizontal. aspect; arranging the second docking port 172 in different directions is beneficial to the user's convenience in operation; in addition, the aforementioned screw assembly system can be as shown in Figure 2, that is, the The second docking port 172 is threaded.

Although the present invention discloses the above embodiments, they are not intended to limit the present invention. Any modifications and simple substitutions made by those skilled in the art without departing from the spirit and scope of the present invention are covered by the present invention. within the requested items and their equal scope.

10: Fabric processing device

11:Air supply unit

113:Temperature control unit

19:Vertical tube body

21: Isolation cover

211:Internal space

23:External environment

25:Gate

251:front

31:Energy saving unit

311: Thermoelectric power generation chip

313: Energy storage unit

33:Exhaust unit

331:Exhaust hole

333:Metal pipe

Claims (9)

A fabric processing device, which includes: an air supply unit, which can provide a first air flow; an upper frame, which is provided with a plurality of upper frame tube bodies and a plurality of upper frame connecting pieces, each upper frame tube system The upper frame connectors are assembled together to form a polygonal shape; at least one air inlet is provided on the upper frame, and each air inlet is connected to the air supply unit respectively to introduce the first airflow. The upper frame; at least one hanging pipe body, each hanging pipe body is provided with at least one first docking port, and each hanging pipe system is connected to the upper frame; at least one hanging object rack, each hanging object rack can be used to hang an fabric, and each hanging rack is provided with a hook part and a hanging part, the hook part is provided with a second docking port, the hanging part is provided with a plurality of hanging air holes; and a plurality of vertical pipe bodies, each vertical pipe body One end is combined with the upper frame to support the upper frame; wherein, the first docking port can be combined with the second docking port, so that the first airflow can pass through the first docking port and pass through the third docking port. The two docking ports enter the hook portion, and then flow out of the hanging object rack through the hanging object air holes. The fabric processing device as described in claim 1 further includes a lower frame, which is provided with a plurality of lower frame tube bodies and a plurality of lower frame connectors, and each lower frame tube system uses the lower frame connectors to communicate with each other. The assembly forms a polygonal shape, and the other end of each vertical pipe body is assembled with the lower frame. The fabric processing device as described in claim 1, wherein one end of the vertical pipe body is connected to the hanging pipe body, and the vertical pipe system is provided with at least one hanging object horizontal bar for hanging the fabric, and the hanging object horizontal bars The rod system is provided with a plurality of crossbar air holes, and the first airflow system can flow into the vertical pipe body from the hanging pipe body, and then flow out through the crossbar air holes of the hanging object crossbar. The fabric processing device as described in any one of claims 1 to 3 further includes an isolation cover, which can cover a horizontal frame and the vertical tubes. The fabric treatment device as claimed in claim 4, wherein the upper frame tube system is provided with air holes in the upper frame tube body, and the first airflow system can flow out from the air holes in the upper frame tube body. The fabric treatment device of claim 4, wherein the air supply unit is provided with a temperature control unit capable of controlling the temperature of the first air flow. The fabric treatment device of claim 6, wherein the air supply unit can provide a second air flow, and the temperature control unit can control the temperature of the second air flow, and the vertical pipe system is provided with a plurality of vertical pipes. The second airflow system can be introduced into the vertical pipe body and then flow out through the vertical pipe body air hole. The fabric treatment device of claim 7, wherein the air supply unit further includes a pneumatic source and a vortex tube, wherein the vortex tube is connected to the pneumatic source, and the vortex tube can output the first air flow and The second air flow, the first air flow is a high temperature air flow, and the second air flow is a low temperature air flow. The fabric treatment device described in claim 4 further includes an energy-saving unit, which is provided with a thermoelectric power generation chip and an energy storage unit. The thermoelectric power generation chip can absorb temperature differences to generate electrical energy, and store the electrical energy in the Energy storage unit, and the thermoelectric power generation chip can be selectively disposed on the isolation cover, the fabric or a metal tube, wherein the metal tube is connected to the isolation cover.