TWM542666U - Turbulent dyeing machine - Google Patents

Description

Eddy current dyeing machine

This creation relates to a dyeing machine, in particular to a dyeing machine for testing dyeing effects.

In the development of new dye formulations, after a dye is prepared, it is dyed on a sample cloth to test whether the new formulation of the dye can achieve the desired color and durability. In the dyeing process of the sample cloth, the dye is injected into a dyeing cup, and the sample cloth is placed in a dyeing cup for dyeing. When the sample cloth is dyed, it must be continuously tumbling to avoid partial dyeing of the sample cloth and some sample cloth soaking too little dye, so that the color of the sample cloth after dyeing is uneven, and the result of dyeing cannot be judged. In the prior art, the sample cloth is tumbling in the dyeing process by manpower, which not only requires excessive manpower to be tumbling, but also cannot guarantee the uniform quality of the sample cloth after dyeing.

In view of this, providing a better improvement solution is an urgent problem to be solved in the industry.

The main purpose of this creation is to propose a vortex dyeing machine that can perform dyeing automatically.

In order to achieve the above object, the vortex dyeing machine proposed by the present invention has: a dyeing tank formed with an opening; a dyeing cup formed with an opening, and the dyeing cup is detachably received in the dyeing tank, and has: At least one support frame located in the dye cup; a rotating mechanism selectively connecting the dye cup and rotating the connected dye cup; and a cover mechanism selectively closing the dye tank The opening.

Therefore, the advantage of this creation is that the creation of the sample cloth on the support frame of the dyeing cup enables the sample cloth to be dyed in an open state without being sufficiently immersed in the dye due to folding or wrinkling. Therefore, the dyeing can be performed uniformly to achieve the effect of dyeing the cloth as in the general dyeing field. Compared with the prior art, the artificially controlled mixing during dyeing, the creation is automatically agitated by the machine to ensure the consistency of the dyed sample cloth, accurately control the various causes of the dyeing test, and also streamline the manpower.

In the vortex dyeing machine as described above: the rotating mechanism has a rotating shaft extending from the bottom surface of the dyeing tank into the dyeing tank and extending toward the opening of the dyeing tank; and the dyeing cup has a passage through the dyeing The bottom surface of the cup extends toward the opening of the dyeing cup; the passage is detachably sleeved on the rotating shaft and can rotate synchronously with the rotating shaft when being sleeved on the rotating shaft.

In the vortex dyeing machine as described above, the at least one support frame of the dyeing cup is a rod body, one end of which is fixed to the bottom surface of the dyeing cup, and the rod body extends toward the opening of the dyeing cup.

In the eddy current dyeing machine as described above, the dyeing cup further has a plurality of holes formed in the side wall surface of the dyeing cup.

In the vortex dyeing machine as described above, the dyeing cup further has a body which is located inside the dyeing cup and extends from the inner wall of the dyeing cup toward the center.

In the vortex dyeing machine as described above, the dyeing cup further has: a plurality of holes formed in a side wall surface of the half of the dyeing cup; and a piece body located in the other half of the dyeing cup and being The inner wall of the dyeing cup extends toward the center, one edge of the sheet body is connected to the bottom surface of the dyeing cup, the other edge is connected to the side wall surface of the other half of the dyeing cup, and the sheet body extends toward the opening of the dyeing cup; Wherein the at least one support frame has two numbers and is located in the other half of the dye cup and adjacent to both sides of the sheet body.

In the vortex dyeing machine as described above, the capping mechanism has: a cover frame body; a cover plate disposed on the cover frame body, and a side thereof selectively closing the opening of the dyeing groove; And a push-on assembly disposed on the cover frame and selectively abutting against the other side of the cover relative to the opening of the dyeing slot.

In the vortex dyeing machine as described above, the pushing component of the capping mechanism has: a pressure cylinder that can be disposed on the capping frame body; a first connecting rod, one end of which is movably coupled to the pressure a second connecting rod, one end of which is connected to the other end of the first connecting rod, and the other end of the second connecting rod forms a convex portion; and a pushing member whose one end is selectively selected by the convex portion Abutting, the other end selectively pushes against the other side of the cover relative to the opening of the dyeing slot.

The vortex dyeing machine as described above further has a moving mechanism coupled to the capping frame of the capping mechanism and moving the capping mechanism to the opening of the dyeing trough.

Please refer to Figure 1 and Figure 2 first. The present invention proposes a vortex dyeing machine having a dyeing tank 10, a dyeing cup 20, a rotating mechanism 30, a cover mechanism 40, and a moving mechanism 50.

The dyeing tank 10 has a circular cross section and thus has a cylindrical shape, and the axial center of the dyeing tank 10 is horizontal. The dyeing tank 10 is formed with an opening 11, an injection port 12, and a discharge port 13. The opening 11 is located at the front end of the dyeing tank 10, the injection port 12 is located at the upper end of the dyeing tank 10, and the discharge port 13 is located at the lower end of the dyeing tank 10.

The dyeing cup 20 corresponds to the shape of the dyeing tank 10, and the cross section of the dyeing cup 20 is also circular. Therefore, the dyeing cup 20 can be detachably received in the dyeing tank 10 through the opening 11 of the dyeing tank 10. The dyeing cup 20 is also formed with an opening 21, and the dyeing cup 20 further has a passage 22, a plurality of holes 23, a piece 24 and at least one support frame 25.

The passage 22 extends through the center of the bottom surface of the dyeing cup 20 and extends toward the opening 21 of the dyeing cup 20. The hole 23 is formed in the side wall surface of the half of the dyeing cup 20. The sheet 24 is located in the other half of the dyeing cup 20 and extends from the inner wall of the dyeing cup 20 toward the center. In the present embodiment, the sheet body 24 is a rectangular sheet body 24, one edge of which is connected to the bottom surface of the dyeing cup 20, and the edge parallel to the edge is adjacent to the opening 21 of the dyeing cup 20; the other edge is connected to the dyeing cup 20 The side wall surface of the half portion, and the edge parallel to the other edge is adjacent to the outer side wall of the channel 22.

The support frame 25 can be a rod that can be located within the dye cup 20. One end of the rod body is fixed to the bottom surface of the dyeing cup 20, and the rod body extends toward the opening 21 of the dyeing cup 20. In the present embodiment, the two support frames 25 are located in the other half of the dyeing cup 20 in which the sheet body 24 is accommodated, and are respectively adjacent to both sides of the sheet body 24.

The rotating mechanism 30 selectively connects the dyeing cup 20 and rotates the connected dyeing cup 20. The rotating mechanism 30 has a rotating shaft 31 which penetrates from the bottom surface of the dyeing tank 10 into the inside of the dyeing tank 10 and extends toward the opening 11 of the dyeing tank 10. In other words, the rotating shaft 31 passes through the axis of the dyeing tank 10. The passage 22 of the dyeing cup 20 is detachably sleeved on the rotating shaft 31, and is rotatable in synchronization with the rotating shaft 31 when being sleeved on the rotating shaft 31. In other words, when the dyeing cup 20 is placed in the dyeing tank 10, the passage 22 is sleeved on the rotating shaft 31, and the rotating mechanism 30 can drive the dyeing cup 20 to rotate through the rotating shaft 31.

The capping mechanism 40 selectively closes the opening 11 of the dyeing tank 10. Specifically, the capping mechanism 40 has a cover frame body 41, a cover plate 42, and a push-fit assembly 43. The cover 42 and the pushing member 43 are disposed on the cover frame 41.

One side of the cover 42 selectively closes the opening 11 of the dyeing tank 10. The pushing member 43 selectively abuts against the other side of the cover 42 with respect to the opening 11 of the dyeing tank 10 to seal the dyeing tank 10 with the cover 42. The pushing component 43 has a pressure cylinder 431, a first link 432, a second link 433 and a pushing member 434. The pressure cylinder 431 can be disposed above the cover 42 of the cover frame body 41; one end of the first link 432 is movably connected to the pressure cylinder 431; the second link 433 is pivotally located in front of the cover plate 42, and One end of the two links 433 is connected to the other end of the first link 432 with respect to the cylinder 431, and the other end of the second link 433 forms a convex portion 4330. After the second link 433 is pivoted, the convex portion 4330 of the second link 433 can selectively abut against one end of the pushing member 434 to selectively push one end of the pushing member 434 against the cover 42. The dyeing tank 10 is sealed with respect to the other side of the opening 11 of the dyeing tank 10.

The moving mechanism 50 is coupled to the capping frame body 41 of the capping mechanism 40, and moves the capping mechanism 40 to the front of the opening 11 of the dyeing tank 10.

When the dyeing test is performed, as shown in FIG. 1, the sample cloth A in a set is first placed in the dyeing cup 20. Specifically, both ends of the sample cloth A are placed on the two support frames 25 of the dyeing cup 20, and the middle of the sample cloth A naturally hangs down to bypass the passage 22 of the dyeing cup 20, so that the sample cloth A has a V shape. Next, as shown in FIG. 3 and the drawing, the dyeing cup 20 together with the sample cloth A is placed in the dyeing tank 10, and then, as shown in FIG. 4, the moving mechanism 50 moves the capping mechanism 40 to the front of the dyeing tank 10. Subsequently, the pushing member 43 of the capping mechanism 40 pushes the cover 42 to seal the opening 11 of the dyeing tank 10. Specifically, as shown in FIGS. 2 and 5, the cylinder 431 pushing the assembly 43 pushes the first link 432 downward, and the first link 432 pushes the second link 433 to pivot. When the second link 433 is pivoted, the convex portion 4330 of the second link 433 abuts against the pushing member 434 to drive the pushing member 434 against the cover 42 and pushes the cover 42 tightly to cover. In the opening 11 of the dyeing tank 10.

Next, the dye flows into the dyeing tank 10 from the injection port 12 of the dyeing tank 10, and is stopped when the dyeing tank 10 is half full. Then, as shown in FIGS. 6 to 8, the rotating mechanism 30 drives the dyeing cup 20 in the dyeing tank 10 through the rotating shaft 31 to rotate the axis of the dyeing tank 10 as the rotating shaft 31. In other words, the support frame 25 of the dyeing cup 20 and the sample cloth A in the dyeing cup 20 also rotate around the axis of the dyeing tank 10. Since the dye is only half full, when the sample cloth A is rotated in the dyeing cup 20, it will repeatedly leave the liquid level of the dye and then immerse in the dye again, so that the sample cloth A can sufficiently contact the dye. When the dyeing is completed, the dye flows out from the discharge port 13 of the dyeing tank 10, and the moving mechanism 50 moves the capping mechanism 40 away from the opening 11 of the dyeing tank 10, and the dyed sample cloth A can be taken out to complete the dyeing.

If the sample cloth A is not in the form of a sleeve, or is only a bundle of cotton wool, the dyeing cup 20 rotates during dyeing and the support frame 25 of the dyeing cup 20 will drive the sample cloth A or the cotton wool to repeatedly leave the liquid level of the dye, and then again Dip the dye so that the sample cloth A or batt is in full contact with the dye.

In other embodiments, the pusher 434 may not be provided, and the convex portion 4330 of the second link 433 is pushed against the cover 42 to directly seal the cover 42.

In summary, the present invention enables the sample cloth A to be dyed in an open state by placing the sample cloth A on the support frame 25 of the dyeing cup 20 without being sufficiently immersed in the folding or wrinkling. In the dye, it is possible to uniformly dye the dye to achieve the effect of dyeing the cloth as in the general dyeing field. In addition, the agitation by machine automation ensures the consistency of the quality of the sample cloth A after dyeing, precisely controls the various causes of the dyeing test, and also reduces manpower.

The above description is only a preferred embodiment of the present invention, and is not intended to limit the present invention in any way. Although the present invention has been disclosed above in the preferred embodiment, it is not intended to limit the present invention, and is not in any technical field. A person skilled in the art can make some modifications or modifications to equivalent embodiments by using the above-disclosed technical contents without departing from the technical scope of the present invention. The technical essence of the present invention, any simple modifications, equivalent changes and modifications made to the above embodiments are still within the scope of the present technical solution.

10‧‧‧Dyeing tank
11‧‧‧ openings
12‧‧‧Injection
13‧‧‧Export
20‧‧‧Stained Cup
21‧‧‧ openings
22‧‧‧ channel
23‧‧‧ holes
24 ‧ ‧ body
25‧‧‧Support frame
30‧‧‧Rotating mechanism
31‧‧‧ shaft
40‧‧‧Capping mechanism
41‧‧‧Cover frame
42‧‧‧ cover
43‧‧‧Pushing components
431‧‧‧pressure cylinder
432‧‧‧first link
433‧‧‧second link
4330‧‧‧ convex
434‧‧‧Parts
50‧‧‧Mobile agencies

Fig. 1 is a perspective view showing the separation of the dyeing cup and the dyeing tank of the present invention. 2 is a schematic cross-sectional view of the capping mechanism of the present invention before sealing the dyeing tank. Figure 3 is a schematic perspective view of the dyeing cup of the present invention placed in the dyeing tank. Figure 4 is a perspective view of the capping mechanism of the present invention after sealing the dyeing tank. FIG. 5 is a schematic cross-sectional view of the capping mechanism of the present invention after sealing the dyeing tank. Fig. 6 to Fig. 8 are diagrams showing continuous actions when dyeing is performed.

10‧‧‧Dyeing tank

11‧‧‧ openings

20‧‧‧Stained Cup

21‧‧‧ openings

22‧‧‧ channel

23‧‧‧ holes

24 ‧ ‧ body

25‧‧‧Support frame

31‧‧‧ shaft

40‧‧‧Capping mechanism

41‧‧‧Cover frame

42‧‧‧ cover

43‧‧‧Pushing components

431‧‧‧pressure cylinder

432‧‧‧first link

433‧‧‧second link

50‧‧‧Mobile agencies

A‧‧‧ sample cloth

Claims (9)

A vortex dyeing machine has: a dyeing tank formed with an opening; a dyeing cup formed with an opening, and the dyeing cup is detachably received in the dyeing tank, and has: at least one support frame located at Inside the dyeing cup; a rotating mechanism selectively connecting the dyeing cup and rotating the dyed cup to be connected; and a lid mechanism selectively closing the opening of the dyeing tank. The vortex dyeing machine of claim 1, wherein: the rotating mechanism has a rotating shaft that penetrates from the bottom surface of the dyeing tank and extends toward the opening of the dyeing tank; and the dyeing cup has a passage. The bottom surface of the dyeing cup extends through the bottom of the dyeing cup and extends toward the opening of the dyeing cup; the passage is detachably sleeved on the rotating shaft and can rotate synchronously with the rotating shaft when being sleeved on the rotating shaft. The vortex dyeing machine of claim 1, wherein the at least one support frame of the dyeing cup is a rod body, one end of which is fixed to a bottom surface of the dyeing cup, and the rod body extends toward the opening of the dyeing cup. The vortex dyeing machine of claim 1, wherein the dyeing cup further has a plurality of holes formed in a side wall surface of the dyeing cup. A vortex dyeing machine according to claim 1, wherein the dyeing cup further has a body which is located inside the dyeing cup and extends from the inner wall of the dyeing cup toward the center. The vortex dyeing machine of claim 3, wherein the dyeing cup further comprises: a plurality of holes formed in a side wall surface of the half of the dyeing cup; and a piece body located in the other half of the dyeing cup And extending from the inner wall of the dyeing cup to the center, one edge of the sheet is connected to the bottom surface of the dyeing cup, and the other edge is connected to the side wall surface of the other half of the dyeing cup, and the sheet is directed to the dyeing cup. The opening extends; wherein the at least one support frame is two in number and located in the other half of the dye cup and adjacent to both sides of the sheet. The vortex dyeing machine according to any one of claims 1 to 6, wherein the capping mechanism has: a cover frame body; a cover plate disposed on the cover frame body and having a side selective The opening of the dyeing tank is closed; and a push-on assembly is disposed on the cover frame body and selectively abuts against the other side of the cover plate relative to the opening of the dyeing groove. The vortex dyeing machine of claim 7, wherein the pushing component of the capping mechanism has: a pressure cylinder disposed on the capping frame; a first link movably connected at one end thereof a second connecting rod, one end of which is connected to the other end of the first connecting rod, and the other end of the second connecting rod forms a convex portion; and a pushing member, one end of which is selectively The projection abuts and the other end selectively pushes against the other side of the cover relative to the opening of the dyeing slot. The vortex dyeing machine of claim 7, further comprising a moving mechanism coupled to the capping frame of the capping mechanism and moving the capping mechanism to the opening of the dyeing trough.