JP3260067B2 - Liquid treatment method for non-loop fabric - Google Patents

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a method for treating a non-loop fabric, and more particularly, to a conventional loop which requires joining and separating both ends of the fabric when the fabric enters and exits a fluid flow treatment machine. It is not cloth, but such seaming
Relates innovative method capable of removal works by inducing non-loop fabric that does not require a smooth liquid flow processing machine performing a liquid processing, particularly suitable for jet dyeing method for dyeing a fabric by a circulating liquid flow .

[0002]

2. Description of the Related Art As is well known, fabrics obtained by spinning and weaving fiber materials need to be subjected to various processing processes such as dyeing and finishing in order to meet various needs of consumers. There is. By the way, in such processing,
Since it is often to obtain the desired effect by repeating the same process with respect to the fabric, after forming a fabric loop by joining the opposite ends portions of the fabric, or to circulate the loop fabric, or The repetitive treatment was performed by circulating the necessary treatment agent along the loop fabric.

However, in the case of the loop fabric used in this repetitive processing, it is necessary to join or separate both ends of the fabric before and after the processing, which is very troublesome and troublesome. There was a problem that required.

For example, in a liquid flow processor for processing a loop fabric with a circulating liquid flow, the leading end of the non-looped cloth obtained in the previous step is put into the liquid flow processor, and the leading end of the non-looped cloth is fed into the liquid flow processor. Is made along the liquid flow path inside the processing machine and taken out of the charging port, and then the leading end and the trailing end are joined together to form the non-loop fabric into a loop. Required before processing. Then, after the processing, the seam of the spliced loop fabric is detected, the seam portion is moved to the inlet of the liquid flow treatment machine, the seam is cut off on the spot, and the fabric is taken out from the inlet. Separation and removal work was required. As described above, not only the work of splicing or separating the both ends of the fabric itself, but also the work of moving the fabric in the liquid flow processing machine along with the work and detecting the seam of the fabric is necessary, The work efficiency at the time of entering and leaving the fabric is inevitably reduced, and the work is extremely complicated and difficult, so that it cannot be automated at all and has to rely on many human hands.

Therefore, auxiliary means for efficiently detecting the movement of the cloth and the seam are separately provided in the liquid flow treatment machine, and various means for splicing and separating the both ends of the cloth more quickly are provided. Attempts have been made to add extra ingenuity to the work. As a result, the work efficiency at the time of entering and leaving the fabric could be slightly improved, but the equipment cost was increased, but the seam operation as described above was still required. also it could not be a fundamental solution.

[0006]

SUMMARY OF THE INVENTION The present invention has been made in view of the above-mentioned problems in the processing of fabric using a conventional liquid flow processing machine. and to provide a new method that allows the induction to liquid processing non-loop fabric smoothly liquid flow processing machine without the need for stitching, or disconnect fabric ends together when the fabric and out .

Another object of the present invention is to provide an efficient method can be easily automated fabric and out work on the liquid flow processor.

[0008]

Means adopted by the present inventor for solving the above technical problem will be described below with reference to the accompanying drawings.

That is, according to the present invention, the tip portion is made of a magnetic material.
That the non-loop fabric C long wearing the lead body G, liquid flow processing machine for processing liquid D is equipped with a Todokotamari zone 2 liquid flow path 1 and the treatment liquid D are Nagareoku rapids is Jintamari And the processing liquid D inside the liquid flow processing machine is supplied to the liquid flow path 1 and the storage area 2.
The electromagnetic rotation induction installed in this stagnation area while circulating
By inducing the leading conductor G of the non-loop fabric C via the means 3, the kneading and squeezing liquid bath in which the leading conductor G is rapidly flown to the head by the liquid flow rapidly flowing through the non-loop fabric C in the liquid flow path 1. In the stagnation area 2, the fabric C is subjected to a predetermined liquid treatment by repeatedly repeating a relaxation liquid bath in which the treatment liquid D that occupies the leading conductor G at the top is allowed to float and sink and slowly flow.
The feature is that the above-mentioned problem has been solved by employing a skillful inductive circulation means.

[0010]

DESCRIPTION OF THE PREFERRED EMBODIMENTS Preferred embodiments of the present invention will be described below.
The state will be described in more detail with reference to the accompanying drawings. In the following description of the embodiment, an example in which the present invention is applied to a staining process will be described.

First Embodiment First, a liquid flow treatment method (a dyeing method ) according to a first embodiment of the present invention is described.
Processing) is carried out in the jet dyeing machine shown in FIGS.
You. In FIGS. 1 to 4, the one designated by reference numeral 1 is a liquid flow path through which the staining liquid D is sent in a rapid flow, and the one designated by reference numeral 2 is a retention area in which the staining liquid D is accumulated. . The liquid flow path 1 and the accumulation area 2 are communicated with each other, and a circulating liquid path L is provided from the bottom of the accumulation area 2 to the liquid flow generation section 11 of the liquid flow path 1. The circulating fluid path L is provided with a circulating pump P, a heat exchanger H, and a valve V _1.
The Jintamari to have stain fluid D is pressurized by the circulation pump P, is heated in heat exchanger H, the in valve V ₁ is flow rate control through the circulating fluid path L, the staining solution D of high temperature and pressure The liquid is generated from the liquid flow generation unit 11. The position of the liquid flow generating section 11 is the front end of the liquid flow path 1 near the entrance T of the liquid flow dyeing machine, and a jet nozzle is provided at this position to generate a required jet flow. Then, the staining liquid D jetted from the liquid flow generating section 11 flows in the liquid flow path 1 in a rapid flow, and the rapid flow of the staining liquid D flows from the rear end of the accumulation area 2 vigorously. 2 and the accumulated staining liquid D is discharged from the liquid flow generation section 11 of the liquid flow path 1 through the circulating liquid path L, so that the staining liquid D Circulating in area 2.

What is indicated by the reference numeral C is a long non-loop fabric to be dyed with the dyeing solution D. The non-loop fabric C is not a looped form seamed fabric ends together as loop fabric C 'for use in a conventional jet dyeing machine are shown in Figure 5, one in the interior of the processing machine It has a long rope-like fabric form . And the rope shape
(In the present embodiment, a ferrite magnet) at the tip portion of the non-loop fabric C forms above <br/> conductor G made of a magnetic material is mounted, the non-loop fabric with the lead body G to top C circulates through the liquid flow path 1 and the accumulation area 2.

On the other hand, a jet dyeing machine used in the present embodiment.
In this case, a subject S made of a magnetic material is also attached to the rear end portion of the non-loop fabric C, and the subject S is located near a boundary position where the subject S is turned from the liquid flow path 1 to the accumulation area 2. The rear end position of the non-loop fabric C can be grasped by detecting with the detector K (magnetic sensor) provided. However , as a mechanism for grasping the rear end position of the cloth C, an ultrasonic sensor is provided at the position of the detector K instead of the magnetic detection method.
It disposed the fabric detector that may be non-loop fabric C which passes through the installation position of the fabric detector employs a method of detecting a change interruption-free from organic, if so, the non-loop fabric C The rear end position of the cloth C can be grasped without attaching the subject S to the rear end portion.

The reference numeral 3 designates guiding means for guiding the leading conductor (ferrite magnet) G of the non-loop fabric C, which is disposed at a boundary position where the liquid flows from the accumulation area 2 to the liquid flow path 1. It is set up. This guiding means 3 is a non-loop fabric C
A nozzle 31 for injecting a jet stream in the traveling direction of
A valve 32 for adjusting the jet pressure and flow rate of the jet stream jetted from the nozzle 31;
Suction roll 33 consisting of an electromagnetic rotating body that transports to the vicinity of 31
A suction drive unit 34 for controlling on / off and rotation of the suction force of the suction roll 33; the nozzle 31 and the liquid flow generation unit
11 and a reel 35 disposed at a corner portion between them. As a result, the leading conductor G of the non-loop fabric C is pressure-fed in the fabric traveling direction by the jet flow jetted from the nozzle 31 and guided from the accumulation region 2 toward the liquid flow generation section 11 of the liquid flow path 1. You.

Next , a description will be given of a method of performing a liquid treatment by flowing the non-loop fabric C in the liquid dyeing machine configured as described above.

First, a conductor G ahead of the entrance T of the liquid dyeing machine.
Was charged non-loop fabric C mounted from the front end position, On drop in the liquid flow generating unit 11 of the liquid flow path 1, the staining solution D torrent state discharged from the jet nozzles of the liquid flow generating unit 11 The non-loop fabric C is rapidly flowed with the leading conductor G at the top, passed through the liquid flow path 1 while being subjected to the squeezing and squeezing action of the dyeing liquid D, and sent to the rear end of the accumulation area 2. The state shown in FIG.

The non-loop fabric C flows from the rear end of the stagnant area 2 forward in the dyeing solution D in the stagnant area 2 and floats and sinks slowly in a relaxed state. The dyeing liquid D is sufficiently impregnated in the cloth C. In the stagnation region 2 of the first embodiment, a non-loop fabric C is formed with a downward slope in the fabric advancing direction at the bottom of the stagnation region 2 so that the non-loop fabric C easily advances forward of the stagnation region 2. However, a belt conveyor may be provided at the bottom of the accumulation region 2 so that the non-loop fabric C can easily advance. In this way, when the leading conductor G of the non-loop fabric C advances further forward, a state as shown in FIG. 2 is obtained. In this state, the leading body G made of a magnetic material reaches the suction roll 33 of the guide means 3, lead body G on the roll surface is sucked by the magnetic force of the suction roll 33.

Thus , the subject S attached to the rear end portion of the non-loop fabric C is sent out from the liquid flow path 1 to the accumulation area 2
Of reaching the rear end, the subject S of non-loop fabric C in this position is that it has reached is detected by the detector K, which is disposed near the liquid flow path 1 outlet. In this way, the entirety of the non-loop fabric C from the front end to the rear end is immersed in the dyeing solution D in the accumulation area 2, and a sufficient liquid bath is performed over the entire fabric C.

Next , when the detector K detects that the rear end of the non-loop fabric C has passed near the boundary where the liquid channel 1 turns to the accumulation area 2, the leading conductor G of the non-loop fabric C is sucked. and that the suction roll 33 rotates the fabric advancing direction required angle only allowed to transfer the leading body G to the vicinity of the nozzle 31 of the guide means 3. When the suction force of the suction roll 33 is turned off by controlling the current of the suction drive unit 34 at this time, the leading conductor G separates from the surface of the suction roll 33, and the leading conductor G is sucked by the jet flow from the nozzle 31. The liquid flow is guided toward the liquid flow generating section 11 of the liquid flow path 1 to be in a state as shown in FIG. From this state, the non-looped fabric C is smoothly guided in the fabric advancing direction by the jet propulsion force of the dyeing liquid D discharged from the liquid flow generating unit 11 and the nozzle 31 guided by the leading conductor G and the rotational force of the suction roll 33. It will be guided and will be in the state as shown in FIG.

Further, when the non-loop fabric C advances and makes a round in the jet dyeing machine, the non-loop fabric C is in a state as shown in FIG. By repeating the circulation in the same traveling direction as shown in FIGS. 1 to 4 by the non-loop cloth C, the kneading and squeezing liquid bath in the liquid flow path 1 and the relaxing liquid bath in the accumulation area 2 become non-loop cloths. C is repeated, so that the non-loop fabric C is dyed.

[Second Embodiment] Next, a liquid flow processing method according to a second embodiment of the present invention will be described.
It is operated in the jet dyeing machine shown in FIGS.

In the jet dyeing machine used in the second embodiment, instead of circulating the non-loop fabric C in the same direction,
It differs from the liquid jet dyeing machine used in the first embodiment in that it is alternately reversed in both directions. Jet dyeing machine used in the second embodiment includes a Todokotamari zone 2 liquid flow path 1 and the staining solution D which stain solution D is Nagareoku rapids is Jintamari, at both ends of the liquid flow path 1 In FIG. 1, liquid flow generating units 11 and 11 from which a jet flow is discharged are provided, and drive reels R and R are provided near these liquid flow generating units 11 and 11 respectively . The non-loop fabric C suspended on both of the drive reels R, R is rapidly fed through the liquid flow path 1 and floats and sinks slowly in the dyeing liquid D in the accumulation area 2. Leading conductors GG made of a magnetic material are attached to both ends of the non-loop fabric C, and magnetic sensors KK for detecting these leading conductors GG are slightly below the driving reels RR. Are arranged on the side surface of the flow path.

Here, a description will be given of a method of performing a liquid treatment by alternately inverting and flowing the non-loop fabric C bidirectionally in the liquid dyeing machine configured as described above.

First, as shown in FIG.
Is in a state where both of the leading conductors GG at both ends are immersed in the staining solution D in the accumulation area 2. In this state, discharged toward only the jet flow from the left side of the liquid flow generation section 11 in the central portion of the liquid flow path 1, valve V ₁ which is connected to the right side of the liquid flow generating unit 11 is kept closed. Then, the non-loop fabric C is transported to the right by the jet flow, the leading conductor G on the left goes out of the dyeing solution D in the accumulation area 2 and is lifted upward, and rises to the height of the detector K on the left. The tip conductor G has its magnetic property.
It is detected by the sensor K. At this point, as a non-loop fabric C is further increased on the left side of the leading body G does not come off from a left drive reel R, by closing the valve V ₁ which is connected in Figure 6 the left side of the liquid flow generation section 11 stopping the jet stream
Close . Then, the non-loop fabric C is Ru Do <br/> the state shown in FIG.

Next , a jet stream is discharged toward the center of the liquid flow path 1 only from the liquid flow generation section 11 on the right side of FIG.
7 valve V ₁ of the left leave closed. Then, the non-loop fabric C is reversed and transported to the left, and FIG.
Lifted above the right of the leading body G exits the dyeing liquid D outside Todokotamariiki 2, when raised to the height of the right magnetic sensor K, the leading body G is detected by the magnetic sensor K. At this point, stopping the jet flow by closing the valve V ₁ which is connected to the right side of the liquid flow generating unit 11, a non-loop fabric C becomes a state as shown in FIG. In this way, by alternately opening and closing the valves V ₁ and V ₁ on the left and right sides of the drawing in accordance with the timing at which the magnetic sensor K detects the leading conductors G at both ends of the non-loop fabric C, the non-loop fabric C can be bidirectionally moved. The dyeing process can be performed by alternately inverting and moving. In the case of the liquid flow processing method of the second embodiment, since the non-loop fabric C is alternately reversed and moved, there is an advantage that the non-loop fabric C can be dyed evenly in right and left.

Third Embodiment A liquid flow processing method according to a third embodiment of the present invention is shown in FIG.
It is operated by a jet dyeing machine. Liquid dyeing shown in Fig. 9
The basic structure of the color machine is the same as that of the first embodiment, except that a blow-up nozzle is provided in the accumulation area 2 as an auxiliary means for guiding the leading conductor G made of a magnetic material of the non-loop cloth C. Different from the first embodiment.

As shown in FIG. 9, the guiding means 4 includes a stagnation area.
It is located at the forefront of the boundary position that turns from 2 to the liquid flow path 1.
Wherein using a nozzle with a nozzle 41 for oblique discharge a jet stream toward the traveling direction of the non-loop fabric C, a valve 42 for adjusting the flow rate of the jet flow discharged from the nozzle 41, the leading body G with a jet stream It is composed of an oblique blowing nozzle 43 that blows up and transfers it to the vicinity of 41, and a valve 44 that adjusts the flow rate of the jet flow discharged from the blowing nozzle 43. The jet nozzle 43 is disposed at the bottom of the accumulation area 2 where the dye D is accumulated, and jets the dye D upward or obliquely in the direction of cloth movement from this bottom like a fountain. . Therefore , the tip conductor G which has flowed while floating up and down in the dyeing solution D in the stagnation area 2 is supplied to the oblique spray nozzle 43.
, The non-loop fabric C to which the tip conductor is attached
Is blown up from the staining liquid D, is sucked by the jet flow from the nozzle 41, and is guided toward the liquid flow generating section 11 of the liquid flow path 1. Thus the liquid flow path
The non-loop fabric C guided to No. 1 is a dye solution in the liquid channel.
D is moved to the stagnation area 2 by the rapid flow of
Circulating movement is repeated in response to this, and the liquid treatment progress is promoted
Will be.

[Fourth Embodiment] A liquid flow processing method according to a fourth embodiment of the present invention will be described with reference to FIG.
It is operated by 10 jet dyeing machines. Shown in FIG.
The basic structure of the jet dyeing machine is the same as that of the first embodiment.
Induces a leading conductor G made of a magnetic material of the non-loop fabric C.
The first embodiment differs from the first embodiment in that a conveyor is used as an auxiliary means .

As shown in FIG. 10, the guiding means 5 comprises a chain conveyor 51 formed by hanging a bead-shaped chain on sprockets at both ends, and a conveyor driving section 52 for driving the chain conveyor 51 to rotate. I have. The chain conveyor 51 extends obliquely upward from the front end of the accumulation area 2 toward the entrance T, and the extending end is located substantially above the liquid flow generation section 11 of the liquid flow path 1. are doing. The chain of the chain conveyor 51 is made of a material that strongly attracts magnets, and is made of, for example, ferritic stainless steel. On the other hand, when the leading conductor G made of the ferrite magnet of the non-loop fabric C advances in the dyeing solution D in the stagnant area 2 and reaches the chain portion, the conveyor force is generated by the magnetic force.
Adsorb to 51 chain surface. The leading conductor G adsorbed on the surface of the chain is conveyed to the sprocket portion on the side of the entrance T by the operation of the chain conveyor 51 which is constantly driven to rotate, and reaches the boundary position where it is turned to the liquid flow path 1. Soshi
The leading conductor G is attached and guided by the leading conductor.
The leading end portion of the non-loop fabric C is sucked by the jet flow from the nozzle of the liquid flow generation unit 11 and is sent into the liquid flow path 1. Thus, the non-loop
The cloth C is sent to the rapid flow of the dyeing liquid D in the liquid flow path.
It moves to the stagnation area 2 and recirculates under the above-mentioned action.
In other words, the liquid treatment is promoted.

[Fifth Embodiment] A liquid flow processing method according to a fifth embodiment of the present invention is described in FIG.
It is operated by 11 liquid jet dyeing machines. Shown in FIG.
The basic structure of the jet dyeing machine is the same as that of the first embodiment.
Induces a leading conductor G made of a magnetic material of the non-loop fabric C.
The main feature of the present invention is that an operating body with a chuck that grips and moves the vicinity of the leading conductor G of the non-loop fabric C as an auxiliary means is used.

As shown in FIG. 11, the guiding means 6 includes a chuck 61 for gripping the vicinity of the leading conductor G of the non-loop fabric C, an advance / retreat rod 62 having the chuck 61 attached to the tip, and an advance / retreat rod 62 And a guide plate 65 for guiding the leading conductor G from the bottom of the stagnation area 2 in the fabric advancing direction. The guide plate 65 includes a reel 66 supported by one end of the guide plate 65, and a detector 67 for detecting the leading conductor G suspended from the reel 66. By the guiding means 6 configured as described above, the staining solution D
The tip conductor G flowing while floating up and down is guided by a bellows-like guide plate 65 to a reel 66 and suspended from the reel 66. Then, the leading conductor G made of a magnetic material is detected by the magnetic sensor 67, and when the position of the leading conductor G is grasped, the non-loop fabric C to which the leading conductor G is attached is attached by the chuck 61 waiting at this position . The vicinity of the tip is grasped
You . And that in the gripping state, by the reciprocating rod 62 having a chuck 61 to the tip extension out, gripped by the leading body G to the chuck 61 is moved to above the liquid flow generating unit 11, leading body that place When the mounting portion of G is released from the chuck 61, the leading end portion of the non-loop fabric C falls into the liquid flow generating portion 11, and is guided by the leading conductor G, and the non-loop fabric C is sucked by the jet flow and the liquid flow is generated. Flowed into Road 1. like this
The non-loop fabric C guided to the liquid flow path 1
And is moved to the accumulation area 2 by the rapid flow of the staining solution D,
And the circulation movement is repeated in response to the above action, and the liquid treatment proceeds.
Will be promoted. In addition, the chuck 61 was opened.
Thereafter, the advance / retreat rod 62 retracts to a position below the reel 66, and stands by until the next gripping timing .

Although the embodiments of the present invention are generally as described above, the method of the present invention is by no means limited to the above-described embodiments, and various modifications are possible within the scope of the claims. Thus, for example, in the present embodiment, although the dyeing process is performed as a liquid process, it is also possible to perform a process such as scouring or bleaching on the non-loop fabric C. Not only the nozzle, reel, conveyor and cylinder adopted as the guiding means can be used alone, but also it is possible to guide the non-loop fabric C more smoothly by combining these means. Needless to say, it belongs to the technical scope of the above.

[0033]

Effect of the Invention] above, as described with the embodiments, key points of up in the process of the present invention is, rather than a loop fabric, a non-loop fabric is circulated liquid stream processing machine with liquid processing The present invention resides in the point of applying and a mechanism for skillfully guiding the non-loop fabric in order to realize such circulation. That is, in the conventional liquid flow processing method as shown in FIG. 5, the loop cloth C ′ having the seam J is hooked on the drive reel R and circulated by the liquid flow. Splice or separate both ends
Must be, the door is essential difficult and troublesome joint work
At the same time, in the method of the present invention , the turning of the Copernican idea of adopting the non-loop fabric C having no seam J was performed, and the seam work conventionally required was wiped out. The work efficiency at the time of entering and leaving the fabric has been significantly improved.

Further, according to the liquid flow processing method of the present invention employing the non-loop cloth C, the cloth
All you have to do is feed the tip in and out,
Since no other auxiliary work for entering and exiting the fabric is required, it is possible to easily automate the operation of entering and exiting the cloth into and out of the liquid flow processing machine, which was impossible with a conventional liquid flow processing machine. Therefore, if the process before and after the liquid treatment according to the present invention is a treatment that can be automated, a plurality of treatments can be automatically performed continuously on the non-loop fabric C according to the present invention, The work efficiency in the entire fabric processing can be further improved.

[Brief description of the drawings]

FIG. 1 is a mechanism explanatory view showing a state of a non-loop fabric inside a device according to a first embodiment of the present invention.

FIG. 2 is a mechanism explanatory view showing a state of a non-loop fabric inside the apparatus according to the first embodiment of the present invention.

FIG. 3 is a mechanism explanatory diagram showing a state of a non-loop fabric inside the device according to the first embodiment of the present invention.

FIG. 4 is an explanatory view of a mechanism showing a state of a non-loop fabric inside the device according to the first embodiment of the present invention.

FIG. 5 is a mechanism explanatory view showing a state of a loop fabric inside a conventional device.

FIG. 6 is a mechanism explanatory view showing a state of a non-loop fabric inside a device according to a second embodiment of the present invention.

FIG. 7 is an explanatory view of a mechanism showing a state of a non-loop fabric inside a device according to a second embodiment of the present invention.

FIG. 8 is an explanatory view of a mechanism showing a state of a non-loop fabric inside a device according to a second embodiment of the present invention.

FIG. 9 is an explanatory view of a mechanism of a device according to a third embodiment of the present invention.

FIG. 10 is an explanatory view of a mechanism of a device according to a fourth embodiment of the present invention.

FIG. 11 is an explanatory view of a mechanism of a device according to a fifth embodiment of the present invention.

[Explanation of symbols]

 C Non-loop fabric C 'Loop fabric G Lead conductor D Treatment liquid L Circulating fluid path P Circulating pump H Heat exchanger S Subject K Detector J Seam T Outlet V Valve R Drive reel F Orifice channel 1 Liquid channel 11 Liquid Flow generating part 2 Stagnation area 3 Guidance means 31 Nozzle 32 Valve 33 Suction roll 34 Suction drive part 35 Reel 4 Guidance means 41 Nozzle 42 Valve 43 Blow-up nozzle 44 Valve 5 Guidance means 51 Chain conveyor 52 Conveyor drive part 6 Guidance means 61 Chuck 62 Retract rod 63 Cylinder body 64 Actuator drive unit 65 Guide plate 66 Reel 67 Detector

Continuation of front page (58) Field surveyed (Int.Cl. ⁷ , DB name) D06B 3/28

Claims (5)

(57) [Claims] 1. A long non-loop fabric having a leading conductor made of a magnetic material attached at a tip end portion thereof is provided with a liquid flow path through which a processing liquid flows rapidly and a retention area in which the processing liquid is stored. Into the liquid flow processing machine, and circulates the processing liquid inside the processing machine to the liquid flow path and the accumulation area, while disposing the processing liquid in the accumulation area.
By inducing the leading conductor of the non-loop fabric through the electromagnetic rotation inducing means, a kneading squeezing liquid bath for rapidly flowing the leading conductor to the head by the liquid flow rapidly flowing through the non-loop fabric in the liquid flow path, stagnation in the reservoir area repeatedly and relaxation baths for flowing the process liquid to Jintamari to top One is floating and sinking Yura蕩ゝslowly the leading body was characterized by performing a predetermined liquid processing to the fabric Liquid treatment method for non-loop fabric. 2. The liquid treatment method for non-loop cloth according to claim 1, wherein the non-loop cloth is continuously moved in the same direction in the liquid flow processor. 3. A according to claim 1 or 2, wherein reversing move alternately back and forth bidirectional non-loop fabric with a liquid flow processing machine, liquid processing method of the non-loop fabric. 4. A non-loop fabric flowing in a liquid flow processor.
A subject made of a magnetic material is attached to the rear end
Near the boundary position where the liquid flow in the liquid flow processor turns to the accumulation area
The passage of the subject is detected by a magnetic detector placed beside
Non-loop fabric according to any one of the preceding claims.
Liquid treatment method for fabric. 5. A turning point from a liquid flow path in a liquid flow processing machine to a storage area.
Detector consisting of an ultrasonic sensor in the vicinity of a moving boundary position
Is installed, and a non-
By detecting the change in the fabric
And detecting the passage of the rear end of the non-loop fabric.
The liquid treatment method for a non-loop fabric according to any one of the preceding claims.