TWI680215B - Cloth dyeing machine - Google Patents

Abstract

The creation is a cloth dyeing machine, which includes at least one dyeing component and a circulation component connected to each other. Each dyeing component includes an upper dyeing tank, a lower dyeing tank, and a cloth guide tube connected in order. A partition plate is provided in the lower dyeing tank. The lower dyeing tank is divided into an inner tank and an outer tank, and includes a bottom plate and two side plates. The two side plates are disposed on opposite sides of the bottom plate, and a side surface of each side plate adjacent to the inner tank and the top surface of the bottom plate forms a 90. Angle, the side plate is formed with a plurality of dyeing liquid holes, the dyeing liquid holes communicate with the inner groove and the outer groove; this creation by setting the dyeing liquid holes on the side plate, so that when the cloth is dyed in the lower dyeing tank, it falls from above It is not easy for the cotton wool to stay on the dyeing liquid holes, so that the dyeing liquid can flow smoothly in the cloth dyeing machine, thereby reducing the amount of dyeing liquid required in the cloth dyeing machine.

Description

Cloth dyeing machine

This creation is a dyeing device, especially a dyeing machine used to dye cloth.

Please refer to FIG. 8, FIG. 9 and FIG. 10. The cloth dyeing machine is a machine for dyeing cloth by soaking the cloth in a continuously flowing dyeing solution; It includes an upper dyeing tank 91, a lower dyeing tank 92, a cloth guide pipe 93, and a heat exchanger 94. The two ends of the cloth guide pipe 93 are respectively connected to the upper dyeing tank 91 and the lower dyeing tank 92, and the heat exchanger 94 is respectively connected to the cloth guide pipe 93. The lower dyeing tank 92 is connected with the dyeing liquid 95 for dyeing.

In use, the dye solution 95 is put in from the upper dyeing tank 91, and the cloth 96 to be dyed is put in at the end adjacent to the cloth guide tube 93 and the lower dyeing tank 92, and the cloth 96 extends from the inside of the cloth guide tube 93 to In the lower dyeing tank 92, the upper dyeing tank 91 is looped back and then connected to the cloth guide pipe 93 again to form a cycle. The dyeing liquid 95 is driven by a pump 97 and enters the heat exchanger 94 before being dyed. Then, it enters the same cycle as the cloth guide tube 93 and the cloth 96, and the dye 96 and the cloth 96 are continuously contacted in this cycle to achieve the purpose of dyeing the cloth 96.

Please refer to FIG. 11 for more details. In the prior art, the dyeing machine has a bottom plate 921 in the lower dyeing tank 92. The bottom plate 921 is provided with a plurality of dyeing liquid holes 922. The dyeing liquid holes 922 allow dyeing. After the liquid 95 enters the lower dyeing tank 92, it flows downward from the dyeing liquid hole 922, and further flows to the pump 97 provided below the lower dyeing tank 92, and then the dyeing liquid 95 is re-injected by the energy of the pump 97. Located in the cloth guide tube 93 above the lower dyeing tank 92, the dyeing liquid 95 can continuously flow in this cycle; on the other hand, the bottom plate 921 is also used to prevent the cloth 96 from entering the circulation used by the dyeing liquid 95 In order to prevent the cloth 96 from entering the inside of the components for processing the dye solution 95, such as the heat exchanger 94, the components are prevented from being damaged.

In addition, because the dyeing liquid 95 is heated before use, and it needs to be cooled during recovery or replacement, before the dyeing liquid 95 enters the cycle, it must pass through the thermal cycle of the heat exchanger 94 before entering the dyeing cycle. The structure of a heat exchanger 94 is provided with a parallel heating device and a cooling device (not shown) on the outside of the continuous pipeline. When the dyeing liquid 95 enters the pipeline, one of them is opened as required. The device exchanges energy of the dyeing liquid 95 in the pipeline, and the dyeing or recovery operation can be performed only after the dyeing liquid 95 has been appropriately heated or cooled.

However, the conventional cloth dyeing machine has the following disadvantages.

First, because cotton batting will drop to a greater or lesser degree on the cloth 96, when the cloth 96 is dyed in the lower dyeing tank 92, a lot of cotton batting will float in the lower dyeing tank 92 at the same time; 922 is discharged, but because the cloth 96, which is heavier than cotton batting, is easy to sink in the lower dyeing tank 92, plus the downward flow of the dye solution 95, the cloth 96 will sink, and then the dye solution hole 922 will be blocked. Some cotton wool cannot effectively pass through the dyeing liquid hole 922, causing the cotton wool to stay in the lower dyeing tank 92, and then stick to the cloth 96, making it difficult to clean the dyed cloth 96.

Secondly, the cotton batting that has not been discharged from the lower dyeing tank 92 for a long time will gradually accumulate on the bottom plate 921, causing many cotton batts to be easily deposited on the periphery of the dyeing liquid holes 922. The cotton battings can easily block the dyeing liquid holes 922, making the dyeing liquid 95 impossible The dyeing liquid holes 922 are effectively moved to the pump 97 below the lower dyeing tank 92, which causes the pump 97 to idle and wear;

Thirdly, in order to avoid the disadvantage of the second point, the dyeing machines of the prior art are usually filled with more dye liquor 95 than required, and the excess of dye liquor 95 is used to maintain a certain amount in the pump 97. The amount of liquid, but this will increase the use of dyeing liquid 95; in other words, in the prior art cloth dyeing machine, the ratio of dyeing liquid 95 to the overall internal space is high (high liquid ratio), resulting in the prior art in the dyeing liquid 95 is less efficient in cost;

Fourth, in the prior art heat exchanger 94, since the heating device and the cooling device are arranged side by side, and energy is exchanged for the same pipeline, some energy will be offset by each other in use; for example When the heating device performs heat exchange on the dyeing liquid 95, and when the dyeing liquid 95 is dyed to be cooled and recovered, if the temperature in the pipeline is still too high, or even the heating device itself has not been completely cooled, the cooling device will turn on when it is turned on. A part of the energy is absorbed by the heating device or the pipeline, and cannot be completely used for cooling the dye solution 95, and vice versa.

Fifth, in the prior art heat exchanger 94, the heating device is disposed outside the pipeline. Another disadvantage is that because the heat source does not have directivity when it is diffused by the heating device, the heating device does not only target its inner side when it is started. When heating the pipeline, a part of the heat source will diffuse outward and dissipate, causing unnecessary consumption of energy.

Sixth, in the prior art heat exchanger 94, when the cooling device is in operation, the internal cooling fluid flows too fast, which causes the temperature of the dye solution 95 to fall off too quickly when it passes through the cooling device to cool down. , Causing the cloth 96 to wrinkle and easily deform when it comes into contact with the cloth.

Seventh, in addition to the operational shortcomings of the prior art heat exchanger 94, the heating device and the cooling device are arranged side by side horizontally, resulting in the horizontal volume of the overall heat exchanger 94 being too large, so it will occupy a relatively large amount. More space is used, resulting in inefficient use of space.

In view of the shortcomings and shortcomings of the prior art, the present invention provides a cloth dyeing machine, which achieves low liquid ratio and energy saving by changing the position of the dyeing liquid holes on the partition plate and resetting the structure of the heat exchanger.

In order to achieve the above-mentioned creation purpose, the technical means adopted in this creation is a cloth dyeing machine, which includes at least one dyeing component, which includes an upper dyeing tank; a lower dyeing tank, which is communicated with the upper dyeing tank, and the lower dyeing tank is provided inside There is a partition plate which divides the inside of the lower dyeing tank into an inner groove and an outer groove. The partition plate includes a bottom plate and two side plates, and the two side plates are respectively disposed on opposite sides of the bottom plate. The bottom plate and the two side plates are sandwiched to form the inner groove, and an angle between a side surface of each side plate adjacent to the inner groove and a top surface of the bottom plate is 90 degrees; a plurality of dyeing liquid holes are formed on each side plate, and The inner tank and the outer tank communicate with each other through the dyeing liquid holes; a cloth guide tube, opposite ends of the cloth guide tube are respectively connected to the upper dyeing tank and the lower dyeing tank, and the inside of the cloth guiding tube and the upper dyeing tank Communicating with the lower dyeing tank; a circulation component connected with the dyeing component, and the circulation component includes a heat exchange component and a pump, and the opposite ends of the heat exchange component are respectively connected to the cloth guide tube and the pump Urayasu connected and The pump is connected and communicated with the lower dyeing tank.

The advantage of this creation is that by changing the structure in the lower dyeing tank to isolate the dyeing liquid and the cloth, the bottom plate of the prior art is changed to the partition plate used in the creation. The partition plate includes a bottom plate and two side plates, thereby The dyeing liquid holes for circulating the dyeing liquid can be reopened on the two side plates, and because the angle between the side plate and the bottom plate is 90 degrees, even if the cloth is heavy in the dyeing process, it sinks in the lower dyeing tank. At the bottom, lighter cotton batting can also flow out from the side panels on both sides without being blocked by the cloth. Therefore, it is extremely difficult for the cotton batting to accumulate on the side panel of this creation; in other words, the flow of dyeing liquid in this creation It will not be blocked by the cloth, and it will not gradually decrease because the dye solution hole is blocked because of long-term use, so the user does not need to further add more dye solution to the entire dyeing cycle in order to avoid the pump from idling due to insufficient liquid. Therefore, this creation can achieve the advantages of lower liquid consumption (low liquid ratio) and saving materials, while also effectively maintaining the performance of the pump during operation.

Further, in the aforementioned cloth dyeing machine, the heat exchange assembly further includes a heater connected to the cloth guide tube and communicated internally; a cooler disposed at a distance from the heater, and the cooler The height position is lower than the height position of the heater, and the cooler and the heater are connected and communicated by at least one pipe body; a dye liquid filter, the opposite ends of the dye liquid filter are respectively connected with the cooling And the lower dyeing tank of the dyeing assembly are connected, and the inside of the dyeing liquid filter is communicated with the cooler and the lower dyeing tank, respectively.

In this work, the heater and the cooler of the heat exchange module are arranged at an interval from each other, so that an effective distance is drawn between the heater and the cooler. In other words, when the operation between the heater and the cooler will not be mutually Influence, so this creation can more effectively convert the consumed energy to heating or cooling the dye liquor, so compared with the heat exchanger of the prior art, the heat exchanger of this creation is more energy efficient.

Further, in the aforementioned cloth dyeing machine, the heat exchange module further includes a heater, a cooler, and a dye liquor filter connected in sequence, wherein the cooler further includes a cooling tank; a plurality of turbulences; Plate, the outer periphery of each spoiler includes a fitting periphery and a gap periphery, two ends of the gap periphery are respectively connected to both ends of the fitting periphery, and the fitting periphery fits inside the cooling groove Wall surface, a flow gap is formed between the peripheral edge of the gap and the inner wall surface of the cooling groove, the spoilers are spaced apart from each other, and the flow gaps formed by the spoilers make the interior of the cooling groove curved A flow space in the shape of a plurality of dyeing liquid tubes arranged in the cooling tank through the spoilers, and opposite ends of each of the dyeing liquid tubes are respectively connected to the heater and the dyeing liquid filter.

Further, in the aforementioned cloth dyeing machine, among the spoilers of the cooler, the flow gaps formed by two adjacent spoilers are staggered with each other.

Further, in the aforementioned cloth dyeing machine, the heat exchange module further includes a heater, a cooler, and a dyeing liquid filter connected in order, wherein the heater further includes a casing, a mounting device, A heating rod and a heating rod, the installation frame is installed in the casing, the heating rod is disposed on the installation frame, is located in the casing, and is spaced from the casing.

Further, in the aforementioned cloth dyeing machine, the partition plate further includes two connection plates respectively corresponding to the two side plates, and each of the connection plates is inclinedly connected between the bottom plate and the corresponding side plate.

In the following, with reference to the drawings and the preferred embodiment of this creation, the technical means adopted by this creation to achieve the intended purpose is further explained.

Please refer to FIG. 1 and FIG. 4. The cloth dyeing machine of the present invention includes at least one dyeing component and a circulation component. The circulation component and the dyeing component are connected. In this embodiment, the number of the at least one dyeing component is two groups. , But its number is limited to two groups.

Please refer to FIG. 1 and FIG. 3, each dyeing assembly includes an upper dyeing tank 10, a lower dyeing tank 20, and a cloth guide tube 30. The lower dyeing tank 20 communicates with the upper dyeing tank 10, and a partition plate 21 is provided in the lower dyeing tank 20. The partition plate 21 forms an inner groove 22 and an outer groove 23 inside the lower dyeing tank 20, respectively. The partition plate 21 further includes a bottom plate 24, two side plates 25, and two connection plates 26. The two side plates 25 are respectively disposed on the bottom plate. The two opposite sides of 24, more precisely, the two connecting plates 26 respectively correspond to the two side plates 25, and each connecting plate 26 is inclinedly connected between the bottom plate 24 and the corresponding side plate 25, and the bottom plate 24, the two The side plate 25 and the two connecting plates 26 are interposed to form the inner groove 22. However, in other embodiments, the two connecting plates 26 may be omitted, and the opposite ends of the bottom plate 24 may be directly connected to the two side plates 25.

Please refer to FIG. 3. Further, in this embodiment, an angle between a side surface 251 of each side plate 25 adjacent to the inner groove 22 and a top surface 241 of the bottom plate 24 is 90 degrees, in other words, relative to the bottom plate 24 Each side plate 25 is a plate body extending from a vertical bottom plate 24.

More precisely, since in this embodiment, one of the connection plates 26 is further provided between each side plate 25 and the bottom plate 24, in this embodiment, the angle between the bottom plate 24 and each side plate 25 is the top surface of the bottom plate 24 An included angle between the extension surface of 241 and the extension surface of the side plate 25 adjacent to the side surface 251 of the bottom plate 24.

Each side plate 25 is further formed with a plurality of dyeing liquid holes 252. In this embodiment, the inner groove 22 and the outer groove 23 communicate with each other through the dyeing liquid holes 252.

Please refer to FIG. 7. In another embodiment of the present invention, the connecting plate 26A may be provided with a plurality of dyeing liquid holes 252A. The further added dyeing liquid holes 252A can improve the fluidity of the creative work. .

Please refer to FIG. 1 and FIG. 2, opposite ends of the cloth guide tube 30 are connected to the upper dyeing tank 10 and the lower dyeing tank 20 respectively, and the inside of the cloth guide tube 30 is communicated with the upper dyeing tank 10 and the lower dyeing tank 20.

Please refer to FIG. 4 and FIG. 5, the circulation module includes a heat exchange module 40 and a pump 50. The opposite ends of the heat exchange module 40 are connected to the guide pipe 30 and the pump 50 and communicate with each other internally. The pump 50 is further connected and communicated with the lower dyeing tank 20.

Please refer to FIG. 2 and FIG. 4. To be more precise, the heat exchange module 40 includes a heater 41, a cooler 42 and a dyeing liquid filter 43, which are connected to each other in sequence, the heater 41 and the cloth guide tube. 30 is connected and the inside thereof is also communicated with the guide pipe 30. The cooler 42 is spaced from the heater 41, and the height position of the cooler 42 is lower than the height position of the heater 41. They are connected through at least one pipe body 44 in this embodiment. In this embodiment, the number of the at least one pipe body 44 is two, and the upper pipe body 441 and the lower pipe body 442 are respectively, but the number is not limited thereto. The opposite ends of the dye liquor filter 43 are respectively connected to the cooler 42 and the lower dye tank 20 of the dyeing assembly, and the inside of the dye liquor filter 43 is communicated with the cooler 42 and the lower dye tank 20, respectively.

Please refer to FIG. 6. In this embodiment, the heater 41 further includes a casing 411, a mounting frame 412, and a heating rod 413. The mounting frame 412 is disposed in the casing 411, and the heating rod 413 is disposed on the casing. It is set on the frame 412 and is located in the casing 411 and is spaced from the inner wall surface of the casing 411; the internal structure of the heater 41 is not limited to the above.

The cooler 42 is disposed below the heater 41. More specifically, when viewed from a side view, the cooler 42 is disposed obliquely below the heater 41. The cooler 42 includes a cooling groove 421 and a plurality of spoilers. 422 and a plurality of dyeing liquid tubes 423, the spoilers 422 are spaced from each other in the cooling groove 421, and the outer peripheral edge of each of the spoilers 422 includes a fitting peripheral edge 424 and a gap peripheral edge 425. The two ends are respectively connected to the two ends of the fitting peripheral edge 424; in other words, for each spoiler 422, the fitting peripheral edge 424 and the gap peripheral edge 425 surround it to form a complete peripheral edge.

The bonding peripheral edge 424 is attached to the inner wall surface of the cooling groove 421, and a flow gap 426 is formed between the gap peripheral edge 425 and the inner wall surface of the cooling groove 421, and the distance between the spoilers 422 and the flow gaps 426 The formed channel forms a flow space with a curved shape by spaced the inside of the cooling groove 421.

More precisely, the reason why the flow gaps 426 separate the interior of the cooling groove 421 into a curved flow space is because of the two adjacent spoilers 422, the flow gaps 426 of the two spoilers 422 are They are arranged alternately with each other. In other words, when viewed from the side, if a flow gap 426 of a spoiler 422 is formed on the top surface of the inner wall surface of the cooling tank 421, another spoiler 422 is adjacent to the spoiler 422. The flow gap 426 of the flow plate 422 is formed on the bottom surface of the inner wall surface of the cooling tank 421, but the arrangement of the flow gaps 426 is not limited to the above. It only requires that two adjacent flow gaps 426 are viewed from the side. Do not overlap completely. In other words, in other embodiments, two adjacent flow gaps 426 may be staggered.

The dyeing liquid pipes 423 are accommodated in the cooling tank 421 through the spoilers 422, and the opposite ends of each dyeing liquid pipe 423 are connected to the heater 41 and the dyeing liquid filter 43, respectively. More precisely, When the dye solution 95 passes through the dye solution pipe 423 and passes through the cooling tank 421, the dye solution 95 does not substantially enter the inside of the cooling bath 421, but the dye solution pipe 423 passes through the dye solution filter 43 through the cooling bath 421 and directly. It enters the heater 41.

The following are the usage patterns and advantages of this creation.

Please refer to FIG. 4. When this creation is used, the cloth 96 is placed in the circulation for dyeing cloth from the upper dyeing tank 10, wherein the creation further has a cloth wheel 11 inside the upper dyeing tank 10, and the user puts the cloth After 96 is wound on the cloth wheel 11, the cloth 96 can be driven inside the creation through the rotation of the cloth wheel 11. Since the cloth wheel 11 is the existing technology, it will not be described further.

The cloth 96 put into the interior of this creation is driven by the cloth dyeing wheel 11 to pass through the cloth guide tube 30 and the lower dyeing cylinder 20 in order from the upper dyeing tank 10, and finally back to the inside of the upper dyeing tank 10. This cycle is hereinafter referred to as Cloth loop.

Please refer to FIG. 3, FIG. 4, and FIG. 5. On the other hand, the dyeing liquid 95 also enters this creation from the upper dyeing tank 10, but the route moved by the dyeing liquid 95 (hereinafter referred to as the dyeing liquid cycle) is the same as The cloth 96 is different. More precisely, after entering the upper dyeing tank 10, the dyeing liquid 95 also moves along the cloth guide tube 30 to the lower dyeing tank 20, and passes through the dyeing liquid on the side plate 25 of the partition plate 21 in the lower dyeing tank 20. The hole 252 flows from the inner groove 22 to the outer groove 23, and then enters into the pump 50 through the connection with the pump 50 below the outer groove 23. More precisely, the partition plate 21 can be used to connect the cloth 96 and the pump 50. It is isolated to prevent the cloth 96 from accidentally going down into the pump 50 and causing the pump 50 to malfunction.

After entering the pump 50, driven by the pump 50, the dyeing liquid 95 will sequentially pass through the dyeing liquid filter 43, the cooler 42, and the heater 41, and will be pushed all the way up to the junction of the cloth guide tube 30 and the upper dyeing tank 10. More precisely, in the process of passing through the heat exchange assembly 40, the user can turn on the heater 41 or the cooler 42 according to his needs, so that the temperature of the dyeing liquid 95 can be adjusted appropriately.

After entering the joint of the cloth guide tube 30 and the upper dyeing tank 10, the dyeing liquid 95 can be emitted to the inside of the cloth guide tube 30 through a nozzle holder 31 provided there, and then flow through the cloth guide tube 30 into the lower dyeing tank 20 again. To complete this dyeing liquid cycle, since the nozzle holder 31 is the prior art, it will not be described further.

After the heat exchanged dye solution 95 and the cloth 96 are fully mixed in this creation, they can be mixed in the lower dyeing tank 20, so that the cloth 96 can be dyed with the color that the user wants to add, thereby achieving the purpose of dyeing.

Among them, this creation provides the following advantages.

First, please refer to FIG. 3. In the lower dyeing tank 20, in this creation, the dyeing liquid holes 252 are set on the side plate 25, and because the side surface 251 of the side plate 25 and the top surface 241 of the bottom plate 24 have a certain angle (90 Degree), so the cotton wool dropped by the cloth 96 during the dyeing process can be smoothly discharged from the dyeing liquid hole 252, because the cloth 96 will sink down on the bottom plate 24 without hindering the dyeing provided on the side plate 25 Liquid hole 252; Furthermore, when the cotton wool does not accumulate in the lower dyeing tank 20, the liquid dye hole 252 will not be blocked by the cotton wool, so the fluidity of the dye liquid 95 in the creation can be maintained.

Second, as the first point, since the cotton wool will not block the dyeing liquid hole 252, the user does not have to worry that the dyeing liquid hole 252 will be blocked, so that a certain amount of dyeing liquid 95 cannot flow down into the pump 50. This further causes the problem of idling of pump 50. In other words, this creation can effectively reduce the amount of dye liquor 95 added in actual operation, thereby achieving the advantages of low liquid ratio and saving raw material costs.

Third, please refer to FIG. 2, FIG. 5 and FIG. 6. In the structural design of the heat exchange module 40, the position of the heater 41 and the cooler 42 is changed to be spaced up and down from each other. The two tube bodies 44 communicate with each other's interior, thereby effectively reducing the effect of the temperature of one device when the other device is in operation; for example, when the cooler 42 is operating, it is The interval is set, so even if the temperature of the heater 41 is not lowered to room temperature after the heater 41 stops operating, the residual temperature remaining on the heater 41 is less easily transmitted to the cooler 42, so the cooler 42 can effectively cool it. The efficiency is more completely transmitted to the dyeing liquid 95 passing through it to achieve the effect of saving operating energy.

Fourthly, in the design of the heater 41, the heating rod 413 is arranged inside the heater 41. In other words, when the heating rod 413 is heating, the energy transmission in all directions is toward the inside of the casing 411, so when the casing When the inside of the body 411 is filled with the dye solution 95 and is heated, the energy of the heating rod 413 can be completely transferred to the dye solution 95 without the possibility of being lost through the casing 411.

Fifth, under long-term use, the heating rod 413 of this creation will be stained with many impurities on the surface of the dyed liquid 95. However, because the structure of the heating rod 413 is like the electric spoon of a general kettle, it is being disassembled. It is very convenient for the user to quickly disassemble it, clean it, and then put it back, so that the heater 41 can be easily maintained.

Sixth, the interior of the cooler 42 of the heat exchange assembly 40 passes through the arrangement of these flow gaps 426, so that it can effectively reduce the flow rate of the cooling liquid (not shown) flowing inside the cooler 42. In other words, when the cooling liquid When operating in the cooling tank 421 and cooling the dyeing liquid 95 passing through the cooling tank 421 from the dyeing liquid pipe 423, the flow rate will not be too fast, which can slow down the process of reducing the temperature of the dyeing liquid 95 and prevent the temperature of the dyeing liquid 95 from falling. Too fast will have a negative impact on the cloth 96, such as making the cloth 96 wrinkled and easily deformed.

Seventh, the heater arranges the heater 41 and the cooler 42 spaced apart from each other. In addition to helping to save energy, it also frees up a lot of space adjacent to the creator. Users can use these The space is placed with medicated barrels 81, reserve barrels 82, or electrical control boxes 83, etc. as shown in FIG. 1, which are related to the operation of this creative operation, thereby saving space usage in the use field.

The above description is only the preferred embodiment of the creation, and does not limit the creation in any form. Although the creation has been disclosed as above with the preferred embodiment, it is not intended to limit the creation. Generally, a knowledgeable person can use the technical content disclosed above to make a few changes or modifications as equivalent equivalent changes without departing from the scope of the technical solution of the creation. Anyone who does not depart from the content of the technical solution of the creation Any simple modifications, equivalent changes, and modifications made to the above embodiments according to the technical essence of this creation still fall within the scope of this creative technical solution.

10‧‧‧Up dyeing tank

11‧‧‧ with cloth wheel

20‧‧‧ Lower Dyeing Tank

21‧‧‧ divider

22‧‧‧Inner slot

23‧‧‧ Outer trough

24‧‧‧ floor

241‧‧‧Top

25‧‧‧Side

251‧‧‧side

252‧‧‧Dyeing liquid hole

26‧‧‧Connector

30‧‧‧ cloth guide tube

31‧‧‧Nozzle holder

40‧‧‧heat exchange module

41‧‧‧heater

411‧‧‧shell

412‧‧‧ mounting rack

413‧‧‧heating rod

42‧‧‧Cooler

421‧‧‧cooling tank

422‧‧‧Spoiler

423‧‧‧Dyeing liquid tube

424‧‧‧ Fitting perimeter

425‧‧‧periphery

426‧‧‧Flow gap

43‧‧‧ Dye Liquid Filter

44‧‧‧ tube body

441‧‧‧upper tube

442‧‧‧ Lower tube

50‧‧‧Pump

81‧‧‧Dosing barrel

82‧‧‧prepared barrel

83‧‧‧Electrical control box

91‧‧‧Up dyeing tank

92‧‧‧ Lower Dyeing Tank

921‧‧‧ floor

922‧‧‧Dyeing liquid hole

93‧‧‧ cloth guide tube

94‧‧‧ heat exchanger

95‧‧‧ dyeing solution

96‧‧‧ Cloth

97‧‧‧Pump

252A‧‧‧Dyeing liquid hole

26A‧‧‧Connecting plate

Figure 1 is a top view of this creation. Figure 2 is a schematic cross-sectional view of this creation. Fig. 3 is an enlarged sectional view of a part of the lower dyeing tank of the present creation. Fig. 4 is a schematic side view of the dyeing component and the circulation component of the original creation. Fig. 5 is a schematic side view of this creative cycle component. FIG. 6 is a schematic three-dimensional cross-sectional view of the original heat exchange component. Fig. 7 is a partially enlarged sectional view of a lower dyeing tank according to another embodiment of the present invention. Fig. 8 is a plan view of a conventional cloth dyeing machine. Fig. 9 is a top view of a conventional dyeing machine. Fig. 10 is a schematic end sectional view of a conventional cloth dyeing machine. FIG. 11 is a partially enlarged sectional view of a conventional dyeing tank.

Claims (6)

A cloth dyeing machine includes at least one dyeing component including an upper dyeing tank; a lower dyeing tank communicating with the upper dyeing tank; and a partition plate is provided in the lower dyeing tank, and the partition plate connects the interior of the lower dyeing tank. An inner groove and an outer groove are formed by partitioning. The dividing plate includes a bottom plate and two side plates. The two side plates are respectively disposed on opposite sides of the bottom plate, and the bottom plate and the two side plates are sandwiched to form the inner groove. An angle between a side surface of the side plate adjacent to the inner groove and a top surface of the bottom plate is 90 degrees; a plurality of dyeing liquid holes are formed on each of the side plates, and the inner groove and the outer groove communicate with each other through the dyeing liquid holes. A cloth guide tube, the opposite ends of the cloth guide tube are respectively connected to the upper dyeing tank and the lower dyeing tank, and the interior of the cloth guide tube is communicated with the upper dyeing tank and the lower dyeing tank; a circulation component, which is connected with the dyeing tank; The components are connected, and the circulation component includes a heat exchange component and a pump. The opposite ends of the heat exchange component are respectively connected and communicated with the cloth guide tube and the pump, and the pump is connected with the lower dyeing tank. And connected. The cloth dyeing machine according to claim 1, wherein the heat exchange module further includes a heater connected to the cloth guide tube and internally communicated with each other; a cooler disposed at a distance from the heater, and the cooling The height position of the device is lower than the height position of the heater, and the cooler and the heater are connected and communicated by at least one pipe body; a dyeing liquid filter, the opposite ends of the dyeing liquid filter are respectively connected to the The cooler and the lower dyeing tank of the dyeing assembly are connected, and the inside of the dye liquor filter is communicated with the cooler and the lower dyeing tank, respectively. The dyeing machine according to claim 1, wherein the heat exchange module further includes a heater, a cooler, and a dyeing liquid filter connected in sequence, wherein the cooler further includes a cooling tank; Flow plates, the outer periphery of each spoiler includes a fitting periphery and a gap periphery, two ends of the gap periphery are respectively connected to both ends of the fitting periphery, and the fitting periphery is attached to the cooling groove. Inner wall surface, a flow gap is formed between the peripheral edge of the gap and the inner wall surface of the cooling groove, the spoilers are spaced from each other, and the flow gaps formed by the spoilers form the inside of the cooling groove A curved flow space; a plurality of dyeing liquid tubes arranged in the cooling tank through the spoilers, and opposite ends of each of the dyeing liquid tubes are respectively connected to the heater and the dyeing tube; Fluid filter. The cloth dyeing machine according to claim 3, wherein among the spoilers of the cooler, the flow gaps formed by two adjacent spoilers are staggered with each other. The dyeing machine according to claim 1, wherein the heat exchange module further includes a heater, a cooler, and a dyeing liquid filter connected in sequence, wherein the heater further includes a casing, a housing A mounting frame and a heating rod are arranged in the casing. The heating rod is disposed on the mounting frame and is located in the casing and spaced from the casing. The dyeing machine according to any one of claims 1 to 5, wherein the partition plate further includes two connection plates respectively corresponding to the two side plates, and each of the connection plates is obliquely connected to the bottom plate and the corresponding side plate. between.