A multifunctional garment dyeing device

Abstract

This invention discloses a multifunctional garment dyeing device. The dyeing mechanism includes a casing, an inner box, an outer cylinder, and a rotatable drum. A closed cavity is formed between the outer cylinder and the inner box, and a spray assembly is installed within the cavity. An inlet pipe is located at the top of the outer cylinder, and an outlet pipe is located at the bottom. A spray assembly connected to the inlet pipe is located between the upper part of the outer cylinder and the drum. The stirring mechanism includes a guide box, two storage boxes, a fan-type turntable, and push plates driven by screws. The turntable drives the screws to rotate forward and backward via a transmission mechanism. An induced draft fan is connected to the outlet pipe, which is connected to one of the storage boxes. The bottom of the storage box storing the padding liquid is connected to the inlet pipe, and the bottom of the inner box is connected to the top of the guide box. This invention combines washing, steam pre-shrinking, padding dyeing-steam fixing, drum dyeing, and dehydration functions, reducing the footprint of multiple devices and the need for multiple transfer operations, thus reducing labor intensity. It features a low dyeing bath ratio, low energy consumption, and low wastewater discharge.

Description

Technical Field

[0001] This invention relates to the field of dyeing technology, and in particular to a multifunctional garment dyeing apparatus. Background Technology

[0002] Existing garment washing, steam pre-shrinking, and garment dyeing processes are all carried out on different equipment. Each piece of equipment has only a single function, and multiple pieces of equipment occupy a large area, making the operation and transfer between different processes cumbersome and labor-intensive. Existing garment washing equipment only has heating functions and lacks cooling functions. Existing garment or seamless underwear dyeing methods are mostly immersion dyeing methods, with edge-sizing garment dyeing machines being the main type. To maintain the driving cycle required during dyeing, the dyeing liquor ratio needs to be controlled between 1:15 and 1:25. There are also some rotary garment dyeing machines, with dyeing liquor ratios controlled between 1:8 and 1:15. All of the above dyeing equipment has the following problems: First, the dyeing liquor ratio is relatively large; second, the energy consumption is high, with large amounts of water, steam, dyes, auxiliaries, and wastewater discharged, which does not meet current environmental protection requirements; third, to maintain the dyeing process and quality, the operating speed of the dyeing machine must be relatively reduced, resulting in a relatively long dyeing time and low production efficiency. Improving existing garment washing equipment to enable it to perform multiple functions such as washing, steam pre-shrinking, and low-liquor-ratio or zero-liquor-ratio garment dyeing would be of practical significance. Summary of the Invention

[0003] The purpose of this invention is to overcome the shortcomings of the prior art and provide a multifunctional garment dyeing device that combines washing, steam pre-shrinking, pad dyeing-steam fixing, drum dyeing, and dehydration functions. This reduces the space occupied by multiple devices and the need for multiple transfer operations, thus reducing labor intensity. It also features a low dyeing bath ratio, low energy consumption, and low wastewater discharge.

[0004] To achieve the above objectives, the present invention adopts the following technical solution:

[0005] A multifunctional garment dyeing device includes a dyeing mechanism and a stirring mechanism. The dyeing mechanism includes a chassis, an inner box fixed inside the chassis, an outer cylinder fixed inside the inner box, and a rotatable drum inside the outer cylinder. Both the outer cylinder and the drum have open front ends. The front end of the outer cylinder passes through the inner box, forming a closed cavity between the outer cylinder and the inner box. A spray assembly for heating or cooling the interior of the outer cylinder is provided within the cavity. An inlet pipe extends from the top of the outer cylinder through the chassis, and an outlet pipe extends from the bottom of the outer cylinder through the chassis. A spray assembly is located between the upper part of the outer cylinder and the drum, and the spray assembly is connected to the inlet pipe. The stirring mechanism... The structure includes a flow guide box, two storage boxes, a windmill-type turntable installed inside the flow guide box, a lead screw that rotates through the two storage boxes, and push plates installed in the two storage boxes, each driven to move back and forth by the lead screw. The turntable drives the lead screw to rotate forward and backward through a transmission mechanism. An induced draft fan is connected to the discharge pipe. The discharge pipe is connected to the top of one of the storage boxes through a second connecting pipe. One of the storage boxes is used to store dye liquor, and the other storage box is used to store padding liquor. The bottom of the storage box storing padding liquor is connected to the feed pipe through a third connecting pipe. The bottom of the inner box is connected to the top of the flow guide box through a first connecting pipe.

[0006] The jet assembly includes annular conduits at both ends and multiple transverse connecting pipes connecting the two conduits, with multiple spray holes opened on the conduits.

[0007] The spray assembly includes a pair of A pipes, a pair of B pipes, and a pair of spray pipes symmetrically distributed around the feed pipe. One A pipe is connected to one B pipe and one spray pipe. The A pipe is located outside the machine casing and is connected to the feed pipe. A spray valve is provided on the A pipe. The spray pipe is fixed to the inner wall of the outer cylinder.

[0008] The rotating cage has multiple through holes.

[0009] The outer cylinder includes a through-hole portion that is fixedly inserted through the rear end of the inner box, and the rotating cage includes a shaft portion that rotates through the through-hole portion. The machine box is equipped with a motor, which drives the rotating cage to rotate through a transmission belt mechanism.

[0010] The flow guide box and two storage boxes are arranged in a row, with a gap between the flow guide box and one of the storage boxes. One end of the lead screw passes through the side wall of the storage box and extends into the gap. The A-axis is rotatably connected to one of the storage boxes. The transmission mechanism includes the A-axis, which is rotatably inserted into the upper part of the flow guide box and rotatably inserted into the side wall of one of the storage boxes; the B-axis, which is rotatably connected to the lower part of the side wall of the flow guide box and the side wall of one of the storage boxes; gears A and B, which are fixed on the A-axis; gears C and D, which are fixed on the B-axis; and gear E, which is fixed to one end of the lead screw. Gears A and C mesh with each other. Gears B and D are both gears with half-circle teeth. Gear E meshes alternately with gears B and D.

[0011] The induced draft fan is connected to the feed pipe via a fourth connecting pipe.

[0012] The induced draft fan is also connected to the first connecting pipe via a fifth connecting pipe, and a discharge pump is connected to the first connecting pipe.

[0013] A discharge pump is connected to the second connecting pipe.

[0014] A feed pump is connected to the third connecting pipe, and a discharge pump is provided on the first connecting pipe.

[0015] The beneficial effects of this invention are: It allows for the direct introduction of washing water into the rotating drum via the feed pipe for garment washing and dehydration; it also allows for the introduction of steam into the rotating drum via the feed pipe for pre-steaming, with the steam drawn out by an induced draft fan and cooled by spraying cooling water through the spray assembly; it further allows for padding and dyeing by spraying padding liquor into the rotating drum via the spray assembly, followed by steam fixing via the spray assembly, and cooling by introducing cold air through an induced draft fan and spraying cooling water through the spray assembly; and it also allows for rolling low-liquor-ratio dyeing by spraying dye liquor into the rotating drum via the spray assembly, with cold air introduced by an induced draft fan and... The spray assembly sprays cooling water for cooling and can also perform dehydration treatment after dyeing; one storage tank is used to store dye liquor, and another storage tank is used to recover the padding liquor discharged from the outer cylinder; the induced draft fan draws steam through the guide box and returns it to the steam generator, the steam sprayed by the spray assembly returns to the steam generator after passing through the guide box, and the cooling water sprayed by the spray assembly returns to the cooling water recovery unit after passing through the guide box. The steam or cooling water in the guide box can drive the turntable to rotate through the windmill-type turntable, which in turn drives the push plate to move and stir the padding liquor or dye liquor in the storage tank, preventing the padding liquor or dye liquor from settling. This invention's system integrates multiple functions, including washing, steam pre-condensation, pad dyeing-steam fixing, drum dyeing, and dehydration. Multiple operations can be completed on a single machine, reducing the footprint of multiple devices and the need for multiple transfer processes, thus alleviating labor intensity. The pad dyeing liquor can be recycled, achieving zero discharge in pad dyeing, reducing wastewater treatment, and protecting the environment. The dyeing mechanism, improved with washing equipment, uses a liquor ratio of half that of traditional equipment in both pad dyeing and drum dyeing processes. It requires less steam, dye, and auxiliaries, and has a shorter dyeing time, effectively increasing output, reducing energy consumption, and minimizing pollution. Attached Figure Description

[0016] Figure 1 This is a structural diagram of the present invention;

[0017] Figure 2 for Figure 1 Enlarged view of point A in the middle;

[0018] Figure 3 for Figure 1 Enlarged view of point B in the middle;

[0019] Figure 4A schematic diagram showing the connection between gear E and gears B and D;

[0020] Figure 5 This is a three-dimensional schematic diagram of the jet assembly.

[0021] In the diagram: 1. Chassis; 11. Motor; 12. Transmission belt mechanism; 13. Door; 2. Inner box; 21. First connecting pipe; 211. First A valve; 212. First B valve; 22. Discharge pump; 3. Outer cylinder; 31. Cavity; 32. Feed pipe; 321. Feed valve; 33. Discharge pipe; 331. Through-hole; 34. Spray assembly; 41. Guide pipe; 42. Connecting pipe; 43. Spray hole; 5. Rotary cage; 51. Through hole; 52. Shaft; 6. Spray assembly; 61. A pipe; 62. B pipe; 63. Spray pipe; 64. Spray valve; 7. Guide box; 71. Turntable; Transmission. Mechanism 72, A-axis 721, B-axis 722, A-gear 723, B-gear 724, C-gear 725, D-gear 726, E-gear 727, Gear 728, Storage box 8, Lead screw 81, Push plate 82, Guide column 821, Second connecting pipe 83, Second A valve 831, Second B valve 832, Third connecting pipe 84, Third A valve 841, Third B valve 842, Discharge pump 85, Feed pump 86, Exhaust fan 9, Fourth connecting pipe 91, Fourth valve 911, Fifth connecting pipe 92, Fifth valve 921. Detailed Implementation

[0022] The present invention will be further described below with reference to the accompanying drawings and specific embodiments:

[0023] like Figures 1-5 As shown, a multifunctional garment dyeing device includes a dyeing mechanism and a stirring mechanism. The dyeing mechanism includes a housing 1, an inner box 2 fixed inside the housing 1, an outer cylinder 3 fixed inside the inner box 2, and a rotatable rotating cage 5 disposed inside the outer cylinder 3. The upper part of the inner box 2 is fixedly connected to the upper part of the housing 1. The rear sidewall of the inner box 2 is spaced apart from the rear sidewall of the housing 1, and the lower part of the inner box 2 is spaced apart from the lower part of the housing 1. The outer cylinder 3 includes a through-hole 34 fixedly passing through the rear end of the inner box 2. The rotating cage 5 includes a shaft 52 that rotatably passes through the through-hole 34. A motor 11 is disposed inside the housing 1, and the motor 11 drives the rotating cage 5 to rotate via a transmission belt mechanism 12. The rotating cage 5 has multiple through holes 51. The rotating cage 5 and the outer cylinder 3 are spaced apart.

[0024] Both the outer drum 3 and the rotating drum 5 have openings at the front. The front end of the outer drum 3 passes through the inner box 2, and the outer drum 3 and the inner box 2 form a closed cavity 31. The front end of the casing 1 is provided with a door 13. When the door 13 is closed, the door 13 seals the outer drum 3 and the inner box 2. The closing structure of the door 13 is the same as that of a drum washing machine.

[0025] The cavity 31 is equipped with a jet assembly 4 for heating or cooling the interior of the outer cylinder 3. The jet assembly 4 includes annular conduits 41 at both ends and multiple transverse connecting pipes 42 connecting the two conduits 41. Multiple nozzles 43 are opened on the conduits 41. Cooling water or steam is input through one conduit 41 and then sprayed out through the nozzles 43. The outlets of the nozzles 43 all face the outer cylinder 3. The sprayed steam or coolant is stored in the cavity 31 to heat or cool the material inside the outer cylinder 3.

[0026] The outer cylinder 3 is provided with a feed pipe 32 that extends out of the machine box 1 at the top, and a feed valve 321 is provided on the feed pipe 32. The outer cylinder 3 is provided with a discharge pipe 33 that extends out of the machine box 1 at the bottom, and a discharge valve 331 is provided on the discharge pipe 33. A spray assembly 6 is provided between the upper part of the outer cylinder 3 and the rotating cage 5. The spray assembly 6 is connected to the feed pipe 11.

[0027] The spray assembly 6 includes a pair of A pipes 61, a pair of B pipes 62, and a pair of spray pipes 63, all symmetrically distributed around the feed pipe 32. Each A pipe 61 is connected to one B pipe 62 and one spray pipe 63. The A pipe 61 is located outside the housing 1 and is connected to the feed pipe 32. A spray valve 64 is provided on the A pipe 61. The spray pipe 63 is fixedly installed on the inner wall of the outer cylinder 3. The A pipes 61 and spray pipes 63 are arranged horizontally, while the B pipes 62 are arranged vertically. The B pipes 62 pass through the housing 1, the inner housing 2, and the outer cylinder 3 in a fixed and sealed manner.

[0028] The stirring mechanism includes a flow guide box 7, two storage boxes 8, a windmill-type turntable 71 disposed in the flow guide box 7, a lead screw 81 that rotates through the two storage boxes 8, and push plates 82 disposed in the two storage boxes 8, each driven back and forth by the lead screw 81. The inner wall of the storage box 8 has protrusions forming multiple transverse guide posts 821, and the push plates 82 are slidably connected to the guide posts 821.

[0029] The turntable 71 drives the lead screw 81 to rotate forward and backward via the transmission mechanism 72. The guide box 7 and the two storage boxes 8 are arranged in a row, with a gap between the guide box 7 and one of the storage boxes 8. One end of the lead screw 81 passes through the side wall of the storage box 8 and extends into the gap. The transmission mechanism 72 includes an A shaft 721 that rotatably passes through the upper part of the guide box 7 and rotatably passes through the side wall of one of the storage boxes 8; a B shaft 722 that rotatably connects the lower part of the side wall of the guide box 7 and the side wall of one of the storage boxes 8; gears A 723 and B 724 fixed on the A shaft 721; gears C 725 and D 726 fixed on the B shaft 722; and gear E 727 fixed at one end of the lead screw 81. Gears A 723 and C 725 mesh with each other. Gears B 724 and D 726 are both gears with half-circle teeth 728. Gear E 727 meshes alternately with gears B 724 and D 726. The teeth 728 of gear B 724 are symmetrical to the teeth 728 of gear D 726. That is, when gear E 727 meshes with gear B 724, gear E 727 does not contact gear D 726. At this time, a half-turn rotation of gear B 724 can drive gear E 727 to rotate multiple times, thus driving push plate 82 forward. When gear E 727 meshes with gear D 726, gear E 727 does not contact gear B 724. At this time, a half-turn rotation of gear D 726 can drive gear E 727 to rotate multiple times, thus driving push plate 82 backward, thereby realizing the movement control of push plate 82.

[0030] A blower 9 is connected to the discharge pipe 33, and the blower 9 is connected to the feed pipe 32 through a fourth connecting pipe 91. A fourth valve 911 is provided on the fourth connecting pipe 91.

[0031] The induced draft fan 9 is also connected to the first connecting pipe 21 via a fifth connecting pipe 92, and a discharge pump 22 is connected to the first connecting pipe 21. A fifth valve 921 is provided on the fifth connecting pipe 92.

[0032] The discharge pipe 33 is connected to the top of one of the storage boxes 8 via a second connecting pipe 83. A discharge pump 85 is connected to the second connecting pipe 83. A second A valve 831 is provided on the second connecting pipe 83 between the discharge pipe 33 and the discharge pump 85, and a second B valve 832 is provided on the second connecting pipe 83 between the discharge pump 85 and the storage box 8.

[0033] One storage tank 8 is used to store dye liquor, and the other storage tank 8 is used to store padding liquor. The bottom of the storage tank 8 storing padding liquor is connected to the feed pipe 32 via a third connecting pipe 84. A feed pump 86 is connected to the third connecting pipe 84. A third A valve 841 is provided on the third connecting pipe 84 between the feed pump 86 and the bottom of the storage tank 8, and a third B valve 842 is provided on the third connecting pipe 84 between the feed pump 86 and the feed pipe 32.

[0034] The bottom of the inner box 2 is connected to the top of the guide box 7 via a first connecting pipe 21. A discharge pump 22 is provided on the first connecting pipe 21. A first A valve 211 is provided on the first connecting pipe 21 between the discharge pump 22 and the bottom of the inner box 2, and a first B valve 212 is provided on the first connecting pipe 21 between the discharge pump 22 and the top of the guide box 7.

[0035] During garment washing, the garment is placed inside the rotating drum 5. Only the feed valve 321 is opened to introduce washing water, driving the rotating drum 5 to rotate for washing. Simultaneously, steam can be introduced through the jet assembly 4 for appropriate heating to promote washing. After washing, the discharge valve 331 is opened to discharge the washing liquid, and the rotating drum 5 is then driven to rotate for dehydration.

[0036] During steam pre-shrinking, the garment is placed in the rotating drum 5. Only the feed valve 321 and spray valve 64 are opened to spray steam into the outer cylinder 3 and rotating drum 5, driving the rotating drum 5 to rotate for steam pre-shrinking. The prepared dye liquor is stored in one storage tank 8, and the prepared padding liquor is stored in another storage tank 8. The padding liquor and dye liquor often settle after a certain period of storage. After steam pre-shrinking, the discharge valve 331, the fourth valve 911, and the fifth valve 921 are opened, and steam is introduced into the guide box 7 by the blower 9 and then pumped to the steam recovery unit. The steam flow through the turntable 71 can drive the turntable 71 to rotate, which in turn drives the push plate 82 to move, agitating the padding liquor and dye liquor to prevent settling. No additional stirring device is required for stirring, achieving energy-saving operation.

[0037] During pad-dyeing, the garment is placed in the rotating drum 5. The feed valve 321 and spray valve 64 are opened, and the padding liquid is sprayed into the outer cylinder 3 and rotating drum 5 through the spray assembly 6 for pad-dyeing. At the same time, steam is sprayed into the cavity 31 through the spray assembly 4 for circulating heating. The steam enters the guide box 7 through the first connecting pipe 21, and is then guided to the steam recovery unit, then through the steam generator, and finally back to the spray assembly 6 for circulation. When the steam flows through the turntable 71, it can drive the turntable 71 to rotate, which in turn drives the push plate 82 to move, agitating the padding liquid and dyeing liquid to prevent sedimentation. No additional stirring device is required for stirring, achieving energy-saving operation. After padding, the padding liquid is pumped into the storage tank for storing padding liquid through the discharge pipe 33 and the second connecting pipe 83. In box 8, the concentration of the impregnation liquid is adjusted as needed. When impregnation and dyeing are required again, the liquid enters the outer cylinder 3 through the third connecting pipe 84, the feed pipe 32, and the spray assembly 6. After impregnation and dyeing, the steam in the cavity 31 is vented, and cooling water is sprayed into the cavity 31 through the spray assembly 4 to cool it down. The cooling liquid enters the guide box 7 through the first connecting pipe 21, and is then guided to the cooling water recovery unit. After heat exchange and cooling, it is returned to the spray assembly 6 for circulation. When the cooling water flows through the turntable 71, it can drive the turntable 71 to rotate, which in turn drives the push plate 82 to move, agitating the impregnation liquid and dyeing liquid to prevent sedimentation. At the same time, the discharge valve 331 and the fourth valve 911 can be opened, and the fifth valve 921 can be closed. The cold air is drawn into the outer cylinder 3 by the induced draft fan 9 for cooling. During subsequent steam color fixing, steam is introduced into the outer cylinder 3 for color fixing. After color fixing, the steam is drawn by the induced draft fan 9 through the fourth connecting pipe 91, the fifth connecting pipe 92, and the first connecting pipe 21 into the guide box 7, and then guided to another steam recovery unit. When the steam flows through the turntable 71, it can drive the turntable 71 to rotate, thereby driving the push plate 82 to move, agitating the padding liquor and dye liquor to prevent sedimentation. No additional stirring device is required, achieving energy-saving operation. Through the recycling and reuse of padding liquor in this invention, zero discharge of wastewater from padding residue is achieved, protecting the environment.

[0038] During drum dyeing, the garment is placed in the rotating drum 5. The feed valve 321 and spray valve 64 are opened. The dye liquor in the storage tank 8 is pumped and sprayed into the outer drum 3 and rotating drum 5 through the spray assembly 6. The rotating drum 5 is started to rotate for dyeing. At the same time, steam is sprayed into the cavity 31 through the spray assembly 4 for circulating heating. The steam enters the guide box 7 through the first connecting pipe 21, and is then guided to the steam recovery unit, then through the steam generator, and finally back to the spray assembly 6 for circulation. When the steam flows through the turntable 71, it can drive the turntable 71 to rotate, which in turn drives the push plate 82 to move, agitating the padding liquor and dye liquor to prevent sedimentation. No additional stirring device is required. Stirring is performed to achieve energy-saving operation; the dye liquor is discharged and recycled through the discharge pipe 33; after dyeing, the steam in the cavity 31 is vented, and cooling water is sprayed into the cavity 31 through the spray assembly 4 to cool it down. The coolant enters the guide box 7 through the first connecting pipe 21, and is then guided to the cooling water recovery unit. After heat exchange cooling, it is returned to the spray assembly 6 for circulation. When the cooling water flows through the turntable 71, it can drive the turntable 71 to rotate, which in turn drives the push plate 82 to move, stirring the padding liquid and dye liquor to prevent sedimentation. While the coolant is cooling, the discharge valve 331 and the fourth valve 911 can be opened and the fifth valve 921 can be closed. The cold air is drawn into the outer cylinder 3 by the induced draft fan 9 for cooling.

[0039] After pad dyeing and rotary dyeing, the equipment of this invention can further perform dehydration treatment. Comparing pad dyeing with existing equipment, it was found that the equipment of this invention can reduce the dyeing liquor ratio by more than half (the liquor ratio of this invention is 1:5), and the entire padding and steaming time is less than 30 minutes, while the dyeing time of conventional equipment is at least 120 minutes. The total dyeing time is reduced to 1 / 4 of the current conventional dyeing time, which can increase dyeing output by 4 times, reduce dyeing space by 3 / 4, and reduce dyeing operators by 3 / 4. Using the equipment of this invention and existing equipment for rotary dyeing, the dyeing liquor ratio can also be reduced by more than half (liquor ratio 1:5), and the dyeing time is shortened by 50%.

[0040] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A multifunctional garment dyeing apparatus, comprising a dyeing mechanism and a stirring mechanism, characterized in that: The dyeing mechanism includes a housing (1), an inner box (2) fixed inside the housing (1), an outer cylinder (3) fixed inside the inner box (2), and a rotatable rotating cage (5) located inside the outer cylinder (3). Both the outer cylinder (3) and the rotating cage (5) have open front ends. The front end of the outer cylinder (3) passes through the inner box (2), and the outer cylinder (3) and the inner box (2) form a closed cavity (31). The cavity (31) is equipped with a jet assembly for heating or cooling the interior of the outer cylinder (3). The outer cylinder (3) has a feed pipe (32) extending out of the casing (1) at the top and a discharge pipe (33) extending out of the casing (1) at the bottom. A spray assembly (6) is provided between the upper part of the outer cylinder (3) and the rotating drum (5). The spray assembly (6) is connected to the feed pipe (11). The stirring mechanism includes a guide box (7), two storage boxes (8), a windmill-type turntable (71) set in the guide box (7), and a filament that rotates through the two storage boxes (8). A rod (81) and push plates (82) respectively installed in two storage boxes (8) are driven back and forth by lead screws (81). The turntable (71) drives the lead screws (81) to rotate forward and backward through a transmission mechanism (72). A blower (9) is connected to the discharge pipe (33). The discharge pipe (33) is connected to the top of one of the storage boxes (8) through a second connecting pipe (83). One of the storage boxes (8) is used to store dye liquor, and the other storage box (8) is used for... The storage tank (8) for storing the impregnation liquid is connected to the feed pipe (32) at the bottom via a third connecting pipe (84). The bottom of the inner tank (2) is connected to the top of the guide box (7) via a first connecting pipe (21). The blower (9) is connected to the feed pipe (32) via a fourth connecting pipe (91). The blower (9) is also connected to the first connecting pipe (21) via a fifth connecting pipe (92). A discharge pump (22) is connected to the first connecting pipe (21). The flow guide box (7) and two storage boxes (8) are arranged in a row, with a gap between the flow guide box (7) and one storage box (8). One end of the lead screw (81) extends through the side wall of the storage box (8) into the gap. The A shaft (721) is rotatably connected to one storage box (8). The transmission mechanism (72) includes the A shaft (721) which rotatably passes through the upper part of the flow guide box (7) and rotatably passes through the side wall of one storage box (8); the B shaft (722) which rotatably connects the lower part of the side wall of the flow guide box (7) and the side wall of one storage box (8); the A gear (723) and the B gear (724) fixed on the A shaft (721); the C gear (725) and the D gear (726) fixed on the B shaft (722); and the E gear (727) fixed on one end of the lead screw (81). The A gear (723) and the C gear (725) mesh with each other, and the B gear... (724) and D gear (726) are both gears with half-circle teeth (728). The E gear (727) meshes alternately with the B gear (724) and the D gear (726). The teeth (728) of the B gear (724) are symmetrical to the teeth (728) of the D gear (726). That is, when the E gear (727) meshes with the B gear (724), the E gear (727) does not contact the D gear (726). At this time, the B gear (724) can rotate half a circle to drive the E gear (727) to rotate multiple circles and drive the push plate (82) forward. When the E gear (727) meshes with the D gear (726), the E gear (727) does not contact the B gear (724). At this time, the D gear (726) can rotate half a circle to drive the E gear (727) to rotate multiple circles and drive the push plate (82) backward, thereby realizing the movement control of the push plate (82).

2. The multifunctional garment dyeing device as described in claim 1, characterized in that: The jet assembly (4) includes annular conduits (41) at both ends and multiple transverse connecting pipes (42) connecting the two conduits (41). Multiple spray holes (43) are provided on the conduits (41).

3. The multifunctional garment dyeing device as described in claim 1, characterized in that: The spray assembly (6) includes a pair of A pipes (61), a pair of B pipes (62) and a pair of spray pipes (63) symmetrically distributed around the feed pipe (32). One A pipe (61) is connected to one B pipe (62) and one spray pipe (63). The A pipe (61) is located outside the machine box (1) and connected to the feed pipe (32). A spray valve (64) is provided on the A pipe (61). The spray pipe (63) is fixedly installed on the inner wall of the outer cylinder (3).

4. The multifunctional garment dyeing device as described in claim 1, characterized in that: The rotating cage (5) has multiple through holes (51).

5. The multifunctional garment dyeing device as described in claim 1, characterized in that: The outer cylinder (3) includes a through part (34) that passes through the rear end of the inner box (2), and the rotating cage (5) includes a shaft part (52) that rotates through the through part (34). The machine box (1) is equipped with a motor (11), and the motor (11) drives the rotating cage (5) to rotate through the transmission belt mechanism (12).

6. The multifunctional garment dyeing device as described in claim 1, characterized in that: A discharge pump (85) is connected to the second connecting pipe (83).

7. The multifunctional garment dyeing apparatus as described in claim 1, characterized in that: The third connecting pipe (84) is connected to a feed pump (86), and the first connecting pipe (21) is equipped with a discharge pump (22).

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