TWM574967U - Warp yarn transfer-printing device - Google Patents

Abstract

A warp transfer machine comprises a heating roller, a transfer unit, and a color paper unit. The surface temperature of the heating roller is controlled to a processing temperature. The transfer unit includes a drive shaft, a split shaft, a support shaft, and a conveyor belt. The drive shaft is driven to rotate about its own axis and to drive the conveyor belt along a conveying path. The heating roller, the separation shaft and the support shaft abut against the conveyor belt and rotate about its own axis. The color paper unit includes a first color paper set disposed on one side of the transfer unit and suitable for dyeing. The novel uses color paper to perform waterless dyeing on the warp yarns and can be produced in small quantities according to the demand, thereby producing an environmentally friendly and cost-reducing effect.

Description

Warp transfer machine

The present invention relates to a dyeing apparatus, and more particularly to a warp transfer machine.

Dyeing and finishing process is an important part of deep processing of products in the textile industry chain, which can improve the quality, function and value of textiles. In addition, the dyeing and finishing process is also the main link of resource consumption and pollutant discharge. Its energy consumption accounts for about 30% of the textile industry chain. Chemical Oxygen Demand (COD) emissions from wastewater account for more than 80% of the textile industry. The dyeing and finishing process is used to dye the yarn to woven fabrics of various colors. However, the conventional dyeing and finishing process involves immersing the yarn in a large amount of water containing a dissolved dye and using a large amount of inorganic salt for dyeing. The dyeing process can then be completed after the temperature program and the cleaning program. The above yarn dyeing process not only has low dye utilization rate (combined utilization rate is only 50%-60%), but also generates a large amount of water vapor and waste after burning fuel, which is resource-intensive and causes air pollution, which is not conducive to environmental protection. In addition, the waste after burning the fuel and the dye need to be washed with water, which will generate sewage and need to pass through the sewage to be discharged. The construction of sewage treatment facilities consumes a lot of resources and land, which increases the cost of building a factory. Therefore, it is quite beneficial to develop high-performance, short-flow, low-salt printing and dyeing technology.

On the technical level, the yarn of the fabric can be divided into warp and weft, the warp yarns extend in a weaving direction, and the weft yarns are interlaced with the warp yarns to be fixed to each other. Most of the existing textile machines are supplied with warp yarns from a warp yarn shaft, which is wound with hundreds of kilograms of warp yarns and has a considerable production scale. The weft yarn is wound on a plurality of weft yarns, and the weft yarns of different colors can be wound around a plurality of different weft yarn axes at the same time. In terms of practice, warp yarns only use two common materials, white and black. When the fabric is light-colored, the warp yarns use white yarn; otherwise, when the fabric is dark, the warp yarns use black yarn. When weaving, the fabric needs to cover the warp yarn with a large amount of weft yarn to produce a fabric with the color of the weft yarn as the base color, and cover the warp (white dots or black dots) generated by the warp yarn. When the warp yarns of other colors are used to compensate for the aforementioned flaws, the problem of replacing the warp yarns occurs. When the warp yarns are replaced, the warp yarns are usually in the order of a few thousand, as many as tens of thousands and are arranged in order. In the process of replacement, it must be arranged neatly in the order to the corresponding position, which is quite time consuming and laborious. And if warp yarns of other colors are used, the cost will increase significantly due to insufficient production scale. The existing textile machine can therefore be divided into black and white, and the machine using the white yarn cannot use the black yarn. On the contrary, the machine using the black yarn cannot use the white yarn. This limitation affects the utilization of the machine and indirectly increases production costs.

For example, white warp yarns and light green weft yarns are used when producing a light green fabric. In order to make the background color of the fabric dense, since the color of the warp yarn is white instead of light green, the density of the weft yarn can only be increased. As a result, the cost of weaving time is increased, the finished product is hardened, and the negative effects of defective products (such as yarn skipping and yarn breakage) are increased, so that the production cost is increased and the comfort of the customer is lowered.

Therefore, the object of the present invention is to provide a warp transfer machine which can perform waterless dyeing and can be produced in a small amount according to requirements and can be easily replaced.

Therefore, the novel warp transfer machine comprises a body unit for supporting and driving components, a heating roller detachably mounted on the body unit and extending in a left-right direction, and being mounted on the body unit and along the left and right sides A transfer unit extending in the direction, and a one-color paper unit.

The heating roller is driven by the body unit to rotate about its own axis and the surface temperature is controlled to a processing temperature. The transfer unit includes a drive shaft, a split shaft, a support shaft, and a conveyor belt surrounding the drive shaft, the split shaft and the support shaft. A vertical direction perpendicular to the left-right direction and a front-rear direction perpendicular to the left-right direction and the up-and-down direction are defined. The drive shaft and the separation shaft are respectively disposed on a lower side and an upper side of the heating roller in the up and down direction. The position of the drive shaft is also offset to the front side with respect to the heating roller in the front-rear direction. The support shaft is disposed on the rear side of the heating roller in the front-rear direction.

The drive shaft is driven by the body unit to rotate about its own axis and drive the conveyor belt to drive along a conveying path. The conveyor belt sequentially passes through the drive shaft, the heating roller, the separation shaft and the support shaft along the conveying path and is cyclically driven along the conveying path as the driving shaft rotates. The conveyor belt also has tension to adhere itself to the drive shaft, the heating drum, the separation shaft and the support shaft. The heating roller abuts against the conveyor belt by the outer side of the conveyor belt, and the separation shaft and the support shaft abut against the conveyor belt from the inner side of the conveyor belt and are driven by the conveyor belt to rotate about its own axis.

The color paper unit includes a first color paper set disposed on one side of the transfer unit in the front-rear direction.

The utility model has the advantages that: by the cooperation of the heating roller, the transfer unit and the color paper unit, the warp yarn can be used for waterless dyeing with color paper, and the warp yarn can be accurately produced according to requirements, and the warp yarn can be easily replaced, thereby generating environmental protection and reducing cost. Effect.

Referring to Figures 1, 2 and 3, an embodiment of the novel warp transfer machine includes a body unit 1 for supporting and driving components, and a heating unit mounted on the body unit 1 and extending in a left-right direction D1. The drum 2 is a transfer unit 3 attached to the body unit 1 and extending in the left-right direction D1, a color paper unit 4, a whole line unit 5, and a ventilation tube 6.

The body unit 1 includes a first electric box 11 and a second electric box 12 respectively disposed on opposite sides of the left and right direction D1, and is connected between the first electric box 11 and the second electric box 12 And the frame 13 for supporting.

The heating roller 2 is driven by the body unit 1 to rotate about its own axis and the surface temperature is controlled to a processing temperature. The heating roller 2 includes a cylindrical body 21 extending in the left-right direction D1, and a plurality of heating rods 22 disposed inside the cylindrical body 21 and extending in the left-right direction D1. The heating rods 22 are arranged at equal angular intervals around the axis of the cylinder 21 and electrically connected to the body unit 1 to be controlled in temperature such that the surface temperature of the heating roller 2 reaches the processing temperature and is evenly distributed.

The transfer unit 3 includes a drive shaft 31, a split shaft 32, a support shaft 33, a pressurizing shaft 34, an adjustment shaft 35, a drive shaft 31, a separation shaft 32, and a support shaft 33. The pressurizing shaft 34 and the conveyor belt 36 of the shifting shaft 35, a gear shaft 37, and a rack 38. A vertical direction D2 perpendicular to the left-right direction D1 and a front-back direction D3 perpendicular to the left-right direction D1 and the vertical direction D2 are defined. The drive shaft 31 and the separation shaft 32 are respectively disposed on the lower side and the upper side of the heating drum 2 in the vertical direction D2. The position of the drive shaft 31 is also offset to the front side with respect to the heating roller 2 in the front-rear direction D3. The support shaft 33 is provided on the rear side of the heating roller 2 in the front-rear direction D3. In the present embodiment, the material of the conveyor belt 36 is wool, but other materials such as plastic or rubber may be used.

The drive shaft 31 is driven by the body unit 1 to rotate about its own axis and to drive the conveyor belt 36 along a conveying path. The conveyor belt 36 sequentially passes through the drive shaft 31, the heating roller 2, the separation shaft 32, the support shaft 33, the pressing shaft 34 and the deflection axis 35 along the transmission path, and along with the drive The shaft 31 rotates to circulate along the conveying path. The conveyor belt 36 is also tensioned to abut itself against the drive shaft 31, the heating drum 2, the separation shaft 32 and the support shaft 33. The heating roller 2 abuts against the conveyor belt 36 from the outside of the conveyor belt 36. The separation shaft 32 and the support shaft 33 abut against the conveyor belt 36 from the inside of the conveyor belt 36 and are driven by the conveyor belt 36. And rotate around its own axis. The pressing shaft 34 abuts against the inside of the conveyor belt 36 to increase the tension of the conveyor belt 36. The pressurizing shaft 34 is also movable relative to the conveyor belt 36 in a direction perpendicular to the left-right direction D1, thereby adjusting the tension of the conveyor belt 36. The shifting shaft 35 abuts against the inside of the conveyor belt 36, and both ends thereof are movable in the front-rear direction D3 to be deflected, and the position of the conveyor belt 36 in the left-right direction D1 can be adjusted during use.

The gear shaft 37 extends in the left-right direction D1 and is driven by the body unit 1 to rotate about its own axis. The rack 38 meshes with the gear shaft 37 and is coupled to the split shaft 32. Since the rack 38 meshes with the gear shaft 37, the rack 38 can be moved by the gear shaft 37 to move. The rack 38 further drives the separation shaft 32 to move, thereby adjusting the relative position between the separation shaft 32 and the heating roller 2.

The heating roller 2 and the transfer unit 3 are disposed between the first electric box 11 and the second electric box 12 such that the heating roller 2 and the drive shaft 31 are driven. The body unit 1 further includes two chutes 14 respectively disposed at the first electric box 11 and the second electric box 12 and corresponding to the heating drum 2, and a detachable mounting in the front and rear directions of the rack 13 A separating frame 15 on the front side of D3, and a carriage 16 adjacent to the separating frame 15 in the left-right direction D1. The chutes 14 extend in the front-rear direction D3 and are mounted to the heating drum 2. The heating roller 2 is attached to the chutes 14 and is movable along the chutes 14 to be separated from the body unit 1 when being removed. In this embodiment, the separation frame 15 is composed of two fixing pieces 151 respectively fixed to the first electric box 11 and the second electric box 12, but is not limited thereto by way of example. When the separating frame 15 is detached, the sliding frame 16 can slide in the left-right direction D1 to the front of the frame 13 and the position corresponds to the sliding grooves 14 so that the heating roller 2 is separated from the body unit 1 The drum 2 can be placed on the carriage 16.

The color paper unit 4 includes a first color paper set 41 disposed on the front side of the transfer unit 3 in the front-rear direction D3, and a second color paper set 42 disposed on the rear side of the transfer unit 3. The first color paper set 41 has a first color paper input shaft 411 on the front side with respect to the heating drum 2, and a first color paper output shaft 412 on the front side with respect to the first color paper input shaft 411. Both the first color paper input shaft 411 and the first color paper output shaft 412 are rotatable about their own axes. The second color paper set 42 has a second color paper input shaft 421 located on the lower side with respect to the heating drum 2, and a second color paper output shaft 422 located on the upper side with respect to the heating drum 2, the second color paper input shaft 421 Both the second color paper output shaft 422 can rotate about its own axis. The first color paper set 41, the yarn input shaft 53 and the yarn output shaft 54 are attached to the separation frame 15.

The whole line unit 5 includes an input yarn comb 51 corresponding to the drive shaft 31 and disposed on the front side with respect to the transfer unit 3 and extending in the left-right direction D1, one corresponding to the separation shaft 32 and opposite to the rotation The printing unit 3 is disposed on the front side and has an output yarn comb 52 extending in the left-right direction D1, a yarn input shaft 53 disposed on the front side with respect to the input yarn comb 51 and extending in the left-right direction D1, with respect to the The output yarn comb 52 is disposed on the front side and has a yarn output shaft 54 extending in the left-right direction D1, and two crimping rods 55 disposed on the rear side of the heating roller 2 in the front-rear direction D3 and extending in the left-right direction D1. .

The input yarn comb 51 and the output yarn comb 52 are detachably mounted to the body unit 1 and are suitable for carding the yarn. Both the yarn input shaft 53 and the yarn output shaft 54 are rotatable about their own axes. Both the yarn input shaft 53 and the yarn output shaft 54 are adapted for the plurality of warp yarns 91 to be aligned in the left-right direction D1 and abut against the surface.

The crimping bars 55 are also respectively disposed on the lower side and the upper side of the heating drum 2 in the up-and-down direction D2 and are detachably attached to the body unit 1. It should be noted that the crimping rods 55 do not need to be attached to the body unit 11 when in use, but when the warp yarns 91 are replaced, they can be attached to the body unit 1 and the positions of the warp yarns 91 can be fixed without This warp yarn 91 is confusing, which helps to improve convenience.

The air duct 6 is disposed on the body unit 1 and located on the upper side of the transfer unit 3 and is adapted to be used for exhaust gas circulation. The vent tube 6 has a plurality of holes through which the exhaust gas can enter the vent tube 6 and be discharged. It is worth noting that the pressure in the vent tube 6 is generally lower than the pressure around the transfer unit 3 to exclude exhaust gas. However, another way of using the air duct 6 is to raise the pressure inside the tube to a pressure higher than the circumference of the transfer unit 3. At this time, the function of the air duct 6 is no longer to remove the exhaust gas, but the transfer unit 3 can be used. The air flow is blown and a cooling effect is generated to prevent the dyed warp yarn 91 from being heated for a long time and aged.

Referring to Figures 1, 2 and 4, in use, the plurality of warp yarns 91 are moved along a warp path. First, the warp yarns 91 are arranged in the left-right direction D1 and abut against the surface of the yarn input shaft 53, and then proceed from the front side toward the direction of the transfer unit 3. The warp yarns 91 are fed into the transfer unit 3 and are driven by the conveyor belt 36 to sequentially pass through the drive shaft 31, the heating drum 2, and the separation shaft 32. That is, the warp yarn path is adjacent to the front side of the transport path between the drive shaft 31 and the split shaft 32. After being output by the transfer unit 3, the warp yarns 91 are advanced in the direction of the yarn output shaft 54 and aligned in the left-right direction D1 and abut against the surface of the yarn output shaft 54. In this way, the warp yarns 91 are sequentially input to the transfer unit 3, and are also sequentially outputted by the transfer unit 3, and can be sequentially processed.

The plurality of first color papers 92 can be wound around the first color paper input shaft 411 and moved along a first color paper path. The plurality of second color papers 93 can be wound around the second color paper input shaft 421 and moved along a second color paper path. It should be noted that a first color paper 92 of a plurality of different colors may be wound around the first color paper input shaft 411, and the first color paper 92 of each color corresponds to an appropriate number of warp yarns 91 as needed. Similarly, a second color paper 93 of a plurality of different colors may be wound around the second color paper input shaft 421, and the second color paper 93 of each color corresponds to an appropriate number of warp yarns 91 as needed. The widths of the first color papers 92 and the second color papers 93 along the left and right direction D1 can be adjusted to cover the corresponding warp yarns 91 in a precise manner and produce warp yarns 91 of different colors in small amounts.

When the first color paper 92 moves along the first color paper path, it is started by the first color paper input shaft 411, and then proceeds from the front side toward the transfer unit 3 and is input to the transfer unit 3. After the first color paper 92 is fed into the transfer unit 3, it is adjacent to the front side of the warp yarns 91 and is driven by the conveyor belt 36 to sequentially pass through the drive shaft 31, the heating roller 2, and the separation shaft 32. That is, the first color paper path is adjacent to the front side of the yarn path between the drive shaft 31 and the separation shaft 32. The first color paper 92 is output by the transfer unit 3, proceeds toward the first color paper output shaft 412, and is finally wound around the first color paper output shaft 412.

When the second color paper 93 moves along the second color paper path, it is started by the second color paper input shaft 421, and then proceeds from the rear side toward the transfer unit 3 and is input to the transfer unit 3. After the second color paper 93 is fed into the transfer unit 3, it is adjacent to the rear side of the warp yarns 91 and is driven by the conveyor belt 36 to sequentially pass the drive shaft 31, the heating roller 2, and the separation shaft 32. That is, the second color paper path between the drive shaft 31 and the separation shaft 32 is adjacent to the rear side of the yarn path and on the front side of the conveying path. The second color paper 93 is output by the transfer unit 3, proceeds toward the second color paper output shaft 422, and finally advances in the direction of the second color paper output shaft 422 to be wound around the second color paper output shaft. 422.

According to the transport path, the warp yarn path, the first color paper path and the second color paper path, it can be found that there are portions adjacent to each other between the drive shaft 31 and the separation shaft 32, for convenience of explanation. The part is called a processing area. The first color papers 92, the warp yarns 91, the second color papers 93, and the conveyor belts 36 are sequentially adjacent to each other in the processing area. When the warp yarns 91 pass through the processing region, since the first color paper group 41 and the second color paper group 42 are respectively located on the front side and the rear side of the transfer unit 3, the first color paper 92 and the second color are made. The color paper 93 can be adjacent to the opposite sides of the warp yarns 91 along the first color paper path and the second color paper path, respectively, and the first color papers 92, the warp yarns 91 and the second color papers 93 are mutually The friction between the belts is driven by the conveyor belt 36. Since the conveyor belt 36 has a tension, the first color paper 92, the warp yarns 91 and the second color papers 93 are pressed to be evenly and evenly squeezed between the conveyor belt 36 and the heating drum 2. between.

In the processing region, the warp yarns 91, the first color papers 92, and the second color papers 93 pass through the heating roller 2. The surface temperature of the heating roller 2 is controlled at the processing temperature to enable the dyes of the first color paper 92 and the second color paper 93 to sublimate and adhere to the warp yarns 91. In the present embodiment, the colored papers 92 are adjacent to opposite sides of the warp yarns 91, respectively, to produce a uniform dyeing effect. However, the dyeing effect can be exerted only by using the first color paper group 41 or only the second color paper group 42 and adjacent to only one side of the warp yarns 91.

Further, if the dye after sublimation is not attached to the warp yarns 91, it is exhaust gas, and is absorbed by the vent pipe 6 and discharged. The used first color papers 92 and the second color papers 93 are wound around the first color paper output shaft 412 and the second color paper output shaft 422 to facilitate unloading.

In this way, the warp yarns 91 are started by the yarn input shaft 53 and input to the transfer unit 3, and after the processing area is dyed, the transfer unit 3 is output to the yarn output shaft 54 to finally The dyed warp yarn 91 is obtained, that is, the finished product processed by this embodiment.

Referring to Figures 4, 5 and 6, this embodiment can replace the warp yarns 91 in accordance with the following steps, but by way of example only, not limitation. In the first step, the separation shaft 32 is moved rearward in the front-rear direction D3 by the rack 38 and the gear shaft 37, thereby exposing the heating roller 2 and relaxing the conveyor belt 36. In the second step, the separating frame 15 is disassembled so that the sliding frame 16 can slide in the left-right direction D1 to the front of the frame 13 and the position corresponds to the sliding grooves 14. In a third step, the heating roller 2 is disassembled so that the heating roller 2 can be moved along the chutes 14, thereby placing the heating roller 2 on the carriage 16. In the fourth step, the carriage 16 is pushed away from the front of the frame 13 in the left-right direction D1. In the fifth step, the input yarn comb 51 and the output yarn comb 52 are used to comb and pull the warp yarns 91 to be replaced by a weaving machine 94, and then the warp yarns 91 are passed through the crimping rods 55. It is fixed adjacent to the transfer unit 3. In the sixth step, the carriage 16 is again pushed to the front of the frame 13, and the heating roller 2 is moved back to the original position along the sliding slots 14, and then the carriage 16 is again pushed away in the left and right direction D1. The front of the rack 13 is. In a seventh step, the separation frame 15 is installed, and the first color papers 92 are pre-circulated around the heating roller 2. In an eighth step, the crimping rods 55 are removed and taken out so that the warp yarns 91 are in close contact with the heating drum 2, and the warp yarns 91 are respectively combed by the input yarn comb 51 and the output yarn comb 52 to The yarn is input to the shaft 53 and the yarn output shaft 54. In the ninth step, the separation shaft 32 is moved forward in the front-rear direction D3 by the rack 38 and the gear shaft 37, thereby tensioning the conveyor belt 36. In this way, the warp yarns 91 are replaced and squeezed between the conveyor belt 36 and the heating drum 2 to perform dyeing.

With the yarn replacement process as described above, the present embodiment does not need to cut the warp yarns 91 without reordering the warp yarns 91, and the difficulty of replacing the warp yarns 91 can be greatly reduced, and the warp yarns 91 can be neatly arranged. Arrange to the corresponding location. There is savings in terms of time cost or labor cost.

Referring to Figures 1, 2 and 4, according to the foregoing structure and processing, this embodiment has the following effects:

First, in the process of processing, the principle of dye sublimation is used, and a large amount of water resources are not used, so that environmental protection and cost reduction effects can be produced.

2. The first color paper 92 wound on the first color paper input shaft 411 can be a plurality of different color first color papers 92. The width of the first color papers 92 along the left and right direction D1 can be adjusted to accurately meet the demand. Warp yarns 91 of different colors are produced. (Similarly, the second color paper 93 wound around the second color paper input shaft 412 may also be a second color paper 93 of a plurality of different colors.)

3. The pressing shaft 34 can adjust the tension of the conveyor belt 36 such that the first color paper 92, the warp yarns 91, and the second color papers 93 are subjected to appropriate pressure during processing.

4. In this embodiment, the relative position between the separation shaft 32 and the heating roller 2 can be adjusted by the gear shaft 37 and the rack 38.

5. Since the heating roller 2 is mounted on the chutes 14 and can move along the chutes 14, it is difficult to be blocked by the heating roller 2 when the yarns 91 or the conveyor belts 36 are attached or adjusted. Installation or adjustment for convenience.

6. Since the conveyor belt 36 has a tension, the first color paper 92, the warp yarns 91 and the second color papers 93 are pressed to be evenly and evenly squeezed between the conveyor belt 36 and the heating drum 2. between.

The first color paper group 41 and the second color paper group 42 are respectively located on the front side and the rear side, so that the first color paper 92 and the second color papers 93 can respectively follow the first color paper path and the second color paper path. Adjacent to the opposite sides of the warp yarns 91, a uniform dyeing effect is produced.

8. Since the warp yarns 91 are arranged in the left-right direction D1 and abut against the yarn input shaft 53 and the surface of the yarn output shaft 54, the warp yarns 91 can be input and output in an orderly manner.

9. The exhaust gas generated by the processing can be discharged through the air duct 6. The used first color papers 92 and the second color papers 93 are wound around the first color paper output shaft 412 and the second color paper output shaft 422 to facilitate unloading.

10. In this embodiment, the yarn can be combed by the input yarn comb 51 and the output yarn comb 52, and the warp yarns 55 (see FIG. 6) are used to fix the warp yarns when the warp yarns 91 are replaced. 91, thereby aligning the warp yarns 91 neatly to the corresponding positions.

In summary, the new warp transfer machine can use the first color paper 92 and the second color paper 93 to match the warp yarns by the heating roller 2, the transfer unit 3 and the color paper unit 4. 91 The waterless dyeing process can accurately produce the warp yarns 91 according to the demand, and it is also convenient to replace the warp yarns 91, thereby producing an environmentally friendly and cost-reducing effect, so that the object of the present invention can be achieved.

However, the above is only the embodiment of the present invention, and when it is not possible to limit the scope of the present invention, all the simple equivalent changes and modifications according to the scope of the patent application and the contents of the patent specification are still This new patent covers the scope.

1‧‧‧body unit

11‧‧‧First electric box

12‧‧‧second electric box

13‧‧‧Rack

14‧‧‧Chute

15‧‧‧Separation rack

151‧‧‧Fixed tablets

16‧‧‧Slide

2‧‧‧heating roller

21‧‧‧Cylinder

22‧‧‧heating rod

3‧‧‧Transfer unit

31‧‧‧Drive shaft

32‧‧‧Separation axis

33‧‧‧Support shaft

34‧‧‧Pressure shaft

35‧‧‧Offset axis

36‧‧‧Conveyor belt

37‧‧‧ Gear shaft

38‧‧‧ rack

4‧‧‧Color paper unit

41‧‧‧First color paper set

411‧‧‧First color paper input shaft

412‧‧‧First color paper output shaft

42‧‧‧Second color paper group

421‧‧‧Second color paper input shaft

422‧‧‧Second color paper output shaft

5‧‧‧ Whole line unit

51‧‧‧ input yarn comb

52‧‧‧ Output yarn comb

53‧‧‧Yarn input shaft

54‧‧‧Yarn output shaft

55‧‧‧Clamping rod

6‧‧‧ ventilation pipe

91‧‧‧ warp yarn

92‧‧‧First color paper

93‧‧‧Second color paper

94‧‧‧Textile machine

D1‧‧‧ direction

D2‧‧‧Up and down direction

D3‧‧‧ direction

Other features and effects of the present invention will be apparent from the following description of the drawings, wherein: Figure 1 is a perspective view of an embodiment of the present type of warp transfer machine; Figure 2 is a front view of the embodiment Figure 3 is a cross-sectional view taken along line III-III of Figure 2; Figure 4 is a schematic view of the use of the present embodiment and a textile machine, illustrating the path of the plurality of warp yarns and the plurality of colored papers in use; A front view of the embodiment illustrates a position when a carriage is slid in a left-right direction to a front of a frame when the separation frame is removed; FIG. 6 is a schematic view of the use of the textile machine according to the embodiment, illustrating the disassembly A separating shaft moves rearward in a front-rear direction, and a heating roller is removed and placed on the carriage.

Claims (12)

A warp transfer machine comprising: a body unit for supporting and driving components; a heating roller detachably mounted to the body unit and extending in a left-right direction, the heating roller being driven by the body unit about its own axis Rotating and controlling the surface temperature to a processing temperature; a transfer unit mounted on the body unit and extending in the left-right direction, comprising a drive shaft, a separation shaft, a support shaft, and a separation around the drive shaft a conveyor belt of the shaft and the support shaft defines an up-and-down direction perpendicular to the left-right direction, and a front-rear direction perpendicular to the left-right direction and the up-and-down direction, the drive shaft and the separation shaft are respectively disposed on the heating roller edge a lower side and an upper side of the up-and-down direction, the position of the drive shaft is also offset to the front side with respect to the heating roller in the front-rear direction, the support shaft being disposed on the rear side of the heating roller in the front-rear direction, the drive shaft being the body unit Driving and rotating around its own axis and driving the conveyor belt along a conveying path, the conveyor belt is sequentially driven along the conveying path The drive shaft, the heating roller, the separating shaft and the support shaft are cyclically driven along the conveying path as the driving shaft rotates, and the conveyor belt is further provided with tension so as to abut against the driving shaft, the heating roller The separation shaft and the support shaft, the heating roller abuts against the conveyor belt by the outer side of the conveyor belt, and the separation shaft and the support shaft abut against the conveyor belt from the inner side of the conveyor belt and are all carried by the conveyor belt Rotating around its own axis; and a color paper unit including a first color paper set disposed on one side of the transfer unit in the front-rear direction. The warp transfer machine according to claim 1 further comprising a full line unit including an input yarn comb corresponding to the drive shaft and disposed on the front side with respect to the transfer unit and extending in the left and right direction And an output yarn comb corresponding to the separation shaft and disposed on the front side with respect to the transfer unit and extending in the left-right direction, the input yarn comb and the output yarn comb are detachably mounted to the body unit It is also suitable for carding yarns. The warp transfer machine of claim 2, wherein the whole line unit further comprises a yarn input shaft disposed on the front side with respect to the input yarn comb and extending in the left and right direction, and a yarn relative to the output yarn a yarn output shaft disposed on the front side and extending in the left-right direction, and two crimping rods disposed on the rear side of the heating roller in the front-rear direction and extending in the left-right direction, the yarn input shaft and the yarn The output shaft is rotatable about its own axis, and the yarn input shaft and the yarn output shaft are both adapted for the plurality of warp yarns to be aligned in the left and right direction and abut against the surface, and the crimping rods are respectively disposed on the heating drum The lower side and the upper side of the up-and-down direction are detachably attached to the body unit. The warp transfer machine of claim 3, wherein the first color paper set of the color paper unit has a first color paper input shaft on a front side with respect to the heating roller, and a front side opposite to the first color paper input shaft The first color paper output shaft, the first color paper input shaft and the first color paper output shaft are all rotatable about their own axes. The warp transfer machine of claim 4, wherein the color paper unit further comprises a second color paper set disposed on a side of the transfer unit opposite to the first color paper set in the front-rear direction, the second color paper The group has a second color paper input shaft on the lower side with respect to the heating roller, and a second color paper output shaft on the upper side with respect to the heating roller, the second color paper input shaft and the second color paper output shaft can be wound around The axis of itself rotates. The warp transfer machine of claim 5, wherein the body unit comprises a first electric box and a second electric box respectively disposed on opposite sides of the left and right directions, and one connected to the first electric box a rack for supporting between the second electric box, the heating roller and the transfer unit are disposed between the first electric box and the second electric box, such that the heating roller and the driving shaft are drive. The warp transfer machine of claim 6, wherein the body unit further comprises two chutes respectively disposed at the first electric box and the second electric box and corresponding to the heating drum, the chute along The front and rear direction extends and the opening faces the front side and is mounted to the heating roller. The heating roller is mounted on the sliding grooves and can be moved along the sliding grooves to be separated from the body unit when being removed. The warp transfer machine of claim 7, wherein the body unit further comprises a separation frame detachably mounted to the front side of the frame in the front-rear direction, and a spacer adjacent to the separation frame in the left-right direction a carriage, the first color paper set, the yarn input shaft and the yarn output shaft are mounted on the separation frame, and when the separation frame is disassembled, the carriage can slide in the left and right direction to the front of the frame and The position corresponds to the chutes such that the heating drum can be placed on the carriage when the heating drum is separated from the body unit. The warp transfer machine of claim 1, further comprising a ventilating tube disposed on the body unit and located on an upper side of the transfer unit for supplying exhaust gas. The warp transfer machine of claim 1, wherein the heating roller comprises a cylinder extending in the left-right direction, and a plurality of heating rods disposed inside the cylinder and extending in the left-right direction, the heating rods The cylinders are arranged at equal angular intervals around the axis of the cylinder and electrically connected to the body unit to be controlled in temperature such that the surface temperature of the heating drum reaches the processing temperature and is evenly distributed. The warp transfer machine of claim 1, wherein the transfer unit further includes a pressurizing shaft extending in the left-right direction and disposed between the support shaft and the drive shaft along the transport path, and a An adjustment axis extending in the left-right direction and disposed along the conveying path between the pressing shaft and the driving shaft, the pressing shaft abutting against the inner side of the conveyor belt so that the tension of the conveyor belt is increased and can be perpendicular to the conveyor belt Moving in the direction of the left-right direction, the tension of the conveyor belt can be adjusted, and the adjustment axis abuts against the inside of the conveyor belt and the two ends can be respectively moved in the front-rear direction to be deflected, thereby being able to adjust the use during use. The position of the conveyor belt in the left and right direction. The warp transfer machine of claim 1, wherein the transfer unit further comprises a gear shaft extending in the left-right direction and driven by the body unit to rotate about its own axis, and a meshing and connecting with the gear shaft a rack of the split shaft, the rack meshes with the gear shaft such that the rack is movable by the gear shaft, and the rack further drives the split shaft to move, thereby adjusting the split shaft and the heating roller Relative position between.