CN106498644B - A method of having the sizing machine and manufacture sizing of broken end detection and dyeing function - Google Patents

Abstract

The invention discloses a sizing machine with end-breakage detection and dyeing functions, which is characterized in that it comprises a warp beam, a yarn storage device, a first end-breakage detection device, a first automatic splicing device, a first dyeing device, and a first end-breakage detection device. A nano-spinning device, a plasma singeing device and a winding device; the invention also discloses a method for manufacturing sizing. The present invention can effectively detect whether there are broken spun yarns, and carry out splicing treatment on the broken spun yarns; moreover, the first dyeing device adopts a spraying dyeing process, which can adjust the types of dyes at any time, and does not need to dissolve the dyes with water or carbon dioxide , the dyeing process is simple, the dyeing efficiency is high, and the cost is low; in addition, the machine of the present invention can realize broken end detection, joint processing, spray dyeing and nano-spinning, effectively improving work efficiency and reducing the complexity of equipment , reducing costs.

Description

A sizing machine with end-break detection and dyeing functions and method for manufacturing sizing

technical field

The invention relates to a sizing machine, in particular to a sizing machine with the functions of end-break detection and dyeing and a method for manufacturing sizing.

Background technique

The sizing machine is a device for sizing the spun yarn to obtain sizing. The sizing machines in the prior art often only form the spun yarn into sizing, and do not have the function of end-breakage detection, nor can they realize dyeing. The end-breakage detection and dyeing must be carried out by other machines, resulting in low work efficiency, complicated equipment, and high cost .

Contents of the invention

Purpose of the invention: The purpose of the invention is to provide a sizing machine with high working efficiency, simple equipment and low cost, which has the functions of end detection and dyeing, and a method for manufacturing sizing.

Technical solutions:

The sizing machine with end-break detection and dyeing functions of the present invention includes a warp beam, a yarn storage device, a first end-break detection device, a first automatic piecing device, a first dyeing device, and a first nano-spinning device , plasma singeing device and winding device;

The spun yarn is unwound from the warp beam, enters the yarn storage device for storage, and then detects the broken end through the first broken end detection device: when the broken end of the spun yarn is detected, the first automatic jointing device is started for jointing processing, and then sent to the Spray and dye the first dyeing device; otherwise, send it directly to the first dyeing device for spray dyeing; then spray nanofibers through the first nano-spinning device, and the nanofibers wrap the product obtained after spraying and dyeing the first dyeing device to form nanofibers The film is then singeed by a plasma singeing device, and finally wound by a winding device to form a sizing.

Further, it also includes a first plasma device arranged between the first automatic joint device and the first dyeing device, and a first drying device and a first drying device arranged between the first dyeing device and the first nano-spinning device. Resistance detection device; the spun yarn is subjected to surface modification treatment by the first plasma device, then sprayed and dyed by the first dyeing device, and then dried and fixed by the first drying device, and then dried by the first resistance detection device. The drying effect is detected, and the first resistance detection device makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the first drying device, and the first drying device adjusts the parameters, and at the same time sprays nanofibers through the first nano-spinning device ; If the test is qualified, the nanofibers are directly sprayed by the first nano-spinning device.

Further, it also includes a computer color measuring and matching device and a second dyeing device arranged between the first dyeing device and the first nano-spinning device; the computer color measuring and matching device detects the dyeing result, and judges whether to activate the second dyeing device according to the dyeing result. Two dyeing devices.

Further, it also includes a second plasma device arranged between the computer color measurement and matching device and the second dyeing device, and a second drying device and a second drying device arranged between the second dyeing device and the first nano-spinning device. Resistance detection device; if the dyeing result is unqualified, the second plasma device, the second drying device and the second resistance detection device are also activated while the second dyeing device is activated, and the product obtained after the first dyeing device is sprayed and dyed is passed through the computer After the detection by the color measurement and matching device, the surface modification treatment is carried out by the second plasma device, and then further spray dyeing is carried out by the second dyeing device, followed by drying and color fixing treatment by the second drying device, and then by the second resistance The detection device detects the drying effect, and the second resistance detection device makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the second drying device, and the second drying device adjusts the parameters, and at the same time through the first nano-spinning The device sprays nanofibers, and if the detection is qualified, the nanofibers are sprayed directly through the first nanospinning device; if the dyeing result is qualified, the second dyeing device, the second plasma device, the second drying device and the second resistor are not activated detection device.

Further, it also includes a first hairiness detection device arranged between the first dyeing device and the first nano-spinning device, and a second hairiness detection device arranged between the first nano-spinning device and the plasma singeing device and The second nano-spinning device; through the first hairiness detection device, the product obtained after spraying and dyeing by the first dyeing device is subjected to hairiness detection, and the parameters of the first nano-spinning device are set according to the hairiness detection result, and then passed through the first nano-spinning The device sprays nanofibers, and then performs hairiness detection through the second hairiness detection device, and judges whether to activate the second nano-spinning device according to the hairiness detection result.

Further, it also includes a fourth plasma device arranged between the second hairiness detection device and the second nano-spinning device, and a fourth drying device arranged between the second nano-spinning device and the plasma singeing device and the fourth resistance detection device; if the hairiness detection result of the second hairiness detection device is unqualified, then also activate the fourth plasma device, the fourth drying device and the fourth resistance detection device while activating the second nano-spinning device , the product obtained after the first nano-spinning device is sprayed with nanofibers is tested for hairiness by the second hairiness detection device, and then subjected to surface modification treatment by the fourth plasma device, and then sprayed with nanofibers by the second nano-spinning device, nano The fiber wraps the product obtained after the surface modification treatment of the fourth plasma device to form a nanofiber film, which is then dried and shaped by the fourth drying device, and then the drying effect is detected by the fourth resistance detection device. The fourth resistance The detection device makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the fourth drying device, and the fourth drying device adjusts the parameters, and performs singeing treatment through the plasma singeing device at the same time; if the detection is qualified, it directly passes through The plasma singeing device performs singeing treatment; if the inspection is qualified, the singeing treatment is performed directly through the plasma singeing device.

Further, it also includes a third hairiness detection device arranged between the second nano-spinning device and the plasma singeing device; the product obtained after the second nano-spinning device is sprayed with nanofibers is subjected to hairiness detection by the third hairiness detection device, The third hairiness detection device sets the parameters of the plasma singeing device according to the hairiness detection result, and then performs singeing treatment through the plasma singeing device.

Further, it also includes a third plasma device arranged between the first dyeing device and the first nano-spinning device, a third drying device and a third drying device arranged between the first nano-spinning device and the plasma singeing device The third resistance detection device; the product obtained after spraying and dyeing by the first dyeing device first undergoes surface modification treatment through the third plasma device, then sprays nanofibers through the first nano-spinning device, and then dries through the third drying device Then the drying effect is detected by the third resistance detection device, and the third resistance detection device makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the third drying device, and the third drying device adjusts the parameters , while performing singeing treatment through a plasma singeing device.

Further, it also includes a second broken end detection device and a second automatic jointing device arranged between the plasma singeing device and the winding device; the product obtained after the singeing treatment of the plasma singeing device passes through the second broken end detection device End-break detection: When a broken end is detected, start the second automatic jointing device for joint processing, and then send it to the winding device for winding processing; otherwise, directly send it to the winding device for winding processing.

The method for manufacturing sizing of the present invention comprises the following steps:

S1: The spun yarn is unwound from the warp beam and enters the yarn storage device for storage;

S2: Detect the broken end of the spun yarn through the first broken end detection device: when the broken end of the spun yarn is detected, start the first automatic jointing device for jointing processing, and then proceed to step S3; otherwise, directly proceed to step S3;

S3: the product obtained in step S2 is subjected to surface modification treatment through the first plasma device;

S4: The product obtained in step S3 is sprayed and dyed by the first dyeing device;

S5: the product obtained in step S4 is dried and fixed by the first drying device;

S6: The drying effect of the product obtained in step S5 is detected by the first resistance detection device, and the first resistance detection device makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the first drying device, and the first drying The device adjusts the parameters and proceeds to step S7 at the same time; if the test is qualified, directly proceeds to step S7;

S7: Detect the dyeing result of the product obtained in step S6 through the computer color measuring and matching device, and the computer color measuring and matching device judges according to the dyeing result: if the dyeing result is unqualified, activate the second plasma device, the second dyeing device, The second drying device and the second resistance detection device, then proceed to step S8; if the dyeing result is qualified, then jump to step S12;

S8: the product obtained in step S7 is subjected to surface modification treatment through the second plasma device;

S9: the product obtained in step S8 is further sprayed and dyed by the second dyeing device;

S10: the product obtained in step S9 is dried and color-fixed by a second drying device;

S11: The drying effect of the product obtained in step S10 is detected by the second resistance detection device, and the second resistance detection device makes a judgment on the detection result: if the detection fails, the feedback signal is sent to the second drying device, and the second drying The device adjusts the parameters, and proceeds to step S12 at the same time; if the test is qualified, directly proceeds to step S12;

S12: Perform hairiness detection by the first hairiness detection device, and set parameters of the first nano-spinning device according to the hairiness detection result;

S13: The product obtained in step S12 is subjected to surface modification treatment through a third plasma device;

S14: The product obtained in step S13 is sprayed with nanofibers through the first nanospinning device, and the nanofibers wrap the product obtained in step S13 to form a nanofiber film;

S15: The product obtained in step S14 is dried and shaped by the third drying device;

S16: The product obtained in step S15 detects the drying effect through the third resistance detection device, and the third resistance detection device makes a judgment on the detection result: if the detection fails, the feedback signal is sent to the third drying device, and the third drying The device adjusts the parameters, and proceeds to step S17 at the same time; if the test is qualified, directly proceeds to step S17;

S17: The product obtained in step S16 is tested for hairiness by the second hairiness detection device, and a judgment is made according to the hairiness detection result: if the hairiness detection result is unqualified, activate the fourth plasma device, the second nano-spinning device, the fourth drying dry device and the fourth resistance detection device, and proceed to step S18; if the hairiness detection result is qualified, then jump to step S23;

S18: The product obtained in step S17 is subjected to surface modification treatment through the fourth plasma device;

S19: The product obtained in step S18 is sprayed with nanofibers through the second nano-spinning device, and the nanofibers wrap the product obtained in step S18 to form a nanofiber film;

S20: the product obtained in step S19 is dried and shaped by the fourth drying device;

S21: The drying effect of the product obtained in step S20 is detected by the fourth resistance detection device, and the fourth resistance detection device makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the fourth drying device, and the fourth drying The device adjusts the parameters and proceeds to step S22 at the same time; if the test is qualified, directly proceeds to step S22;

S22: The hairiness detection is performed by the third hairiness detection device, and the third hairiness detection device sets the parameters of the plasma singeing device according to the hairiness detection result;

S23: performing singeing treatment through a plasma singeing device;

S24: The product obtained in step S23 is detected by the second broken end detection device: when a broken end is detected, start the second automatic jointing device for joint processing, and then proceed to step S25; otherwise, directly proceed to step S25;

S25: The product obtained in step S24 is wound by a winding device to form a sizing yarn.

Beneficial effects: the present invention detects broken ends through the first broken end detection device, and performs jointing processing through the first automatic jointing device, which can effectively detect whether there are broken spun yarns, and perform jointing treatment on the broken spun yarns; and, the first A dyeing device adopts a spraying dyeing process, which can adjust the type of dye at any time, and does not need to dissolve the dye with water or carbon dioxide. The dyeing process is simple, the dyeing efficiency is high, and the cost is low; Head detection, splicing treatment, spray dyeing and nano-spinning, effectively improving work efficiency, reducing equipment complexity and cost.

Description of drawings

Fig. 1 is a structural block diagram of a specific embodiment of the present invention.

Detailed ways

As shown in Figure 1, this specific embodiment discloses a sizing machine with end-break detection and dyeing functions, including a warp beam 11, a yarn storage device 128, a first end-break detection device 12, and a first automatic piecing device 13. The first dyeing device 15, the first nano-spinning device 115, the plasma singeing device 124 and the winding device 127. The spun yarn is unwound from the warp beam 11, enters the yarn storage device 128 for storage, and then performs the end-breakage detection through the first end-break detection device 12: when it is detected that there is a breakage in the spun yarn, start the first automatic splicing device 13 to carry out Joint processing, then sent to the first dyeing device 15 for spray dyeing; otherwise directly sent to the first dyeing device 15 for spray dyeing. Then the nanofibers are sprayed by the first nanospinning device 115, and the nanofibers wrap the product obtained after spraying and dyeing by the first dyeing device 15 to form a nanofiber film, and then singeing is performed by the plasma singeing device 124, and finally by winding Device 127 winds and forms the sizing.

In addition, a first plasma device 14 can also be provided between the first automatic splicing device 13 and the first dyeing device 15, and the surface modification treatment of the spun yarn through the first plasma device 14 can improve the dyeing rate and color fastness . The first drying device 16 and the first resistance detection device 17 can also be provided between the first dyeing device 15 and the first nano-spinning device 115, and the product obtained after the first dyeing device 15 is sprayed and dyed passes through the first drying device 16 carries out drying and color fixing treatment, and then detects the drying effect through the first resistance detection device 17, and the first resistance detection device 17 makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the first drying device 16 , the first drying device 16 adjusts the parameters, and at the same time sprays the nanofibers through the first nano-spinning device 115; Between the first dyeing device 15 and the first nano-spinning device 115, a computer color measuring and matching device 18 and a second dyeing device 110 can also be arranged. The computer color measuring and matching device 18 detects the dyeing result of the spun yarn, and according to the dyeing result It is judged whether to activate the second dyeing device 110 . A second plasma device 19 can also be provided between the computer color measurement and matching device 18 and the second dyeing device 110, and a second drying device 111 can also be provided between the second dyeing device 110 and the first nano-spinning device 115 and the second resistance detection device 112 . The first hairiness detection device 113 and the third plasma device 114 can also be provided between the second resistance detection device 112 and the first nano-spinning device 115, and the first hairiness detection device 113 carries out hairiness detection, and according to the hairiness detection result is set According to the parameters of the first nano-spinning device 115 , the spun yarn after the hairiness test is subjected to surface modification treatment by the third plasma device 114 . The second hairiness detection device 118 and the second nano-spinning device 120 can also be provided between the first nano-spinning device 115 and the plasma singeing device 124, and the second hairiness detection device 118 carries out hairiness detection, and according to the hairiness detection result It is judged whether to activate the second nanospinning device 120 . A third drying device 116 and a third resistance detecting device 117 may also be provided between the first nano-spinning device 115 and the second hairiness detecting device 118 . A fourth plasma device 119 may also be provided between the second hairiness detection device 118 and the second nanospinning device 120 . The fourth drying device 121, the fourth resistance detection device 122 and the third hairiness detection device 123 can also be provided between the second nano-spinning device 120 and the plasma singeing device 124, and the second nano-spinning device 120 sprays nano The product obtained after the fiber is dried and shaped by the fourth drying device 121, and then the drying effect is detected by the fourth resistance detection device 122, and the fourth resistance detection device 122 makes a judgment on the detection result: if the detection is unqualified, then The feedback signal is sent to the fourth drying device 121, and the fourth drying device 121 adjusts parameters, and at the same time performs singeing treatment through the plasma singeing device 124; Then the hairiness detection is performed by the third hairiness detection device 123 , the third hairiness detection device 123 sets the parameters of the plasma singeing device 124 according to the hairiness detection result, and then the singeing process is performed by the plasma singeing device 124 . Between the plasma singeing device 124 and the winding device 127, a second broken end detection device 125 and a second automatic splicing device 126 can also be arranged, and the product obtained after the plasma singeing device 124 is singed through the second broken end The detection device 125 performs end-break detection: when the spun yarn is detected to have a broken end, the second automatic splicing device 126 is started for splicing processing, and then sent to the winding device 127 for winding processing; otherwise, it is directly sent to the winding device 127 for winding deal with.

All the resistance detection devices in this specific embodiment are for detecting the drying effect, so as to control the moisture regain of the spun yarn within a certain threshold and keep the product quality stable.

All the dyeing devices in this specific embodiment adopt the principle of 3D printing. Dyes are put into a container similar to a toner cartridge, controlled by a computer program, and the type of dye can be freely selected according to the fiber type, and the color is printed on the fiber or yarn. on-line. This container can withstand a certain pressure and carry out dyeing work under certain temperature and pH conditions. When the dyeing device is performing dyeing work, it can be dyed with one color to form a pure color yarn; it can also be dyed with multiple colors to form a section of yarn that is alternately replaced by various colors; it can also be dyed with mixed colors. For example, red contains yellow.

All nano-spinning devices in this specific embodiment can be electrostatic spinning devices, bubble spinning devices, centrifugal spinning devices or rotary spinning devices, wherein the electrostatic spinning devices apply a certain voltage to the liquid, so that It generates static electricity, and under the gravitational force of the positive and negative charges, the liquid is drawn long and thin, similar to the technology of spraying water from a fire hose. The nano-spinning device 113 can spray the nanofibers at 360°; it can also spray the nanofibers partially and rotate continuously until the nanofibers are wrapped at 360°; or use multiple nozzles to spray the nanofibers at the same time to achieve 360° spraying of the nanofibers; or After partial spraying of nanofibers, heating is carried out to melt the partially sprayed nanofibers, and then rotate, so that the nanofiber solution is wrapped at 360°, and finally dried and shaped by a drying device.

All the plasma singeing devices in this specific embodiment use electromagnetic bombardment to oxygen or nitrogen in the air to generate flames to burn objects.

All the hairiness detection devices in this specific embodiment include a luminous body and a light receiver. As long as the object to be detected passes through in the middle, a shadow will be formed. The shadow can be large or small, and the hairiness of different lengths can be judged according to the number of shadows of different sizes. quantity.

Fig. 1 is the structural block diagram of this embodiment, wherein all devices represented by solid lines are necessary devices of this embodiment, and all devices represented by dotted lines are devices that can be increased or decreased according to actual needs.

This specific embodiment also discloses a method for manufacturing sizing, comprising the following steps:

S1: the spun yarn is unwound from the warp beam 11, and enters the yarn storage device 128 for storage;

S2: Detect the broken end of the spun yarn through the first broken end detection device 12: when the broken end of the spun yarn is detected, start the first automatic jointing device 13 to perform the jointing process, and then proceed to step S3; otherwise, directly proceed to step S3;

S3: the product obtained in step S2 is subjected to surface modification treatment through the first plasma device 14;

S4: The product obtained in step S3 is sprayed and dyed by the first dyeing device 15;

S5: The product obtained in step S4 is dried and fixed by the first drying device 16;

S6: The drying effect of the product obtained in step S5 is detected by the first resistance detection device 17, and the first resistance detection device 17 makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the first drying device 16, and the second A drying device 16 adjusts the parameters, and proceeds to step S7 at the same time; if the test is qualified, then directly proceeds to step S7;

S7: Detect the dyeing result of the product obtained in step S6 through the computer color measuring and matching device 18, and the computer color measuring and matching device 18 judges according to the dyeing result: if the dyeing result is unqualified, activate the second plasma device 19, the second Dyeing device 110, second drying device 111 and second resistance detection device 112, then proceed to step S8; if the dyeing result is qualified, then skip to step S12;

S8: The product obtained in step S7 is subjected to surface modification treatment through the second plasma device 19;

S9: the product obtained in step S8 is further sprayed and dyed by the second dyeing device 110;

S10: the product obtained in step S9 is dried and fixed by the second drying device 111;

S11: The drying effect of the product obtained in step S10 is detected by the second resistance detection device 112, and the second resistance detection device 112 makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the second drying device 111, the second The second drying device 111 adjusts the parameters, and proceeds to step S12 at the same time; if the test is qualified, then directly proceeds to step S12;

S12: Perform hairiness detection by the first hairiness detection device 113, and set parameters of the first nano-spinning device 115 according to the hairiness detection result;

S13: the product obtained in step S12 is subjected to surface modification treatment through the third plasma device 114;

S14: The product obtained in step S13 is sprayed with nanofibers through the first nanospinning device 115, and the nanofibers wrap the product obtained in step S13 to form a nanofiber film;

S15: the product obtained in step S14 is dried and shaped by the third drying device 116;

S16: The drying effect of the product obtained in step S15 is detected by the third resistance detection device 117, and the third resistance detection device 117 makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the third drying device 116, the third resistance detection device 117 The third drying device 116 adjusts the parameters, and proceeds to step S17 at the same time; if the test is qualified, directly proceeds to step S17;

S17: The product obtained in step S16 is tested for hairiness by the second hairiness detection device 118, and a judgment is made according to the hairiness detection result: if the hairiness detection result is unqualified, activate the fourth plasma device 119, the second nano-spinning device 120, The fourth drying device 121 and the fourth resistance detection device 122, and proceed to step S18; if the hairiness detection result is qualified, then skip to step S23;

S18: The product obtained in step S17 is subjected to surface modification treatment through the fourth plasma device 119;

S19: The product obtained in step S18 is sprayed with nanofibers through the second nanospinning device 120, and the nanofibers wrap the product obtained in step S18 to form a nanofiber film;

S20: The product obtained in step S19 is dried and shaped by the fourth drying device 121;

S21: The drying effect of the product obtained in step S20 is detected by the fourth resistance detection device 122, and the fourth resistance detection device 122 makes a judgment on the detection result: if the detection is unqualified, the feedback signal is sent to the fourth drying device 121. Fourth, the drying device 121 adjusts the parameters, and proceeds to step S22 at the same time; if the test is qualified, directly proceeds to step S22;

S22: Perform hairiness detection by the third hairiness detection device 123, and the third hairiness detection device 123 sets the parameters of the plasma singeing device 124 according to the hairiness detection result;

S23: performing singeing treatment through the plasma singeing device 124;

S24: The product obtained in step S23 is detected by the second broken end detection device 125: when a broken end is detected, start the second automatic jointing device 126 for joint processing, and then proceed to step S25; otherwise, directly proceed to step S25;

S25: The product obtained in step S24 is wound by the winding device 127 to form a sizing yarn.

Claims (1)

1. a kind of method of manufacture sizing, it is characterised in that：Include the following steps：

S1：Spun yarn is unwound from warp beam, is stored into thread accumulation device；

S2：Broken end detection is carried out to spun yarn by the first apparatus for detection of breaking of yarn：When detecting that spun yarn has broken end, start first Automatic piecing arrangement carries out connector processing, then carries out step S3；Otherwise, step S3 is directly carried out；

S3：The product that step S2 is obtained carries out surface modification treatment by the first plasma device；

S4：The product that step S3 is obtained carries out spraying dyeing by the first dyeing apparatus；

S5：The product that step S4 is obtained carries out drying fixation treatment by the first drying unit；

S6：The product that step S5 is obtained is detected drying effect by first resistor detection device, first resistor detection dress It sets and testing result is judged：If detection is unqualified, feedback signal gives the first drying unit, the adjustment of the first drying unit Parameter is carried out at the same time step S7；If detection is qualified, step S7 is directly carried out；

S7：The coloration result of the obtained products of step S6 is detected by computer color measurement and color match device, computer colour examining Color matching device is judged according to coloration result：If coloration result is unqualified, the second plasma device, the second dye are activated Then color device, the second drying unit and second resistance detection device carry out step S8；If coloration result is qualified, skip to Step S12；

S8：The product that step S7 is obtained carries out surface modification treatment by the second plasma device；

S9：The product that step S8 is obtained carries out further spraying dyeing by the second dyeing apparatus；

S10：The product that step S9 is obtained carries out drying fixation treatment by the second drying unit；

S11：The product that step S10 is obtained is detected drying effect by second resistance detection device, second resistance detection Device judges testing result：If detection is unqualified, feedback signal gives the second drying unit, the second drying unit tune Whole parameter is carried out at the same time step S12；If detection is qualified, step S12 is directly carried out；

S12：Filoplume detection is carried out by the first filoplume detection device, and first nanometer of spinning is arranged according to filoplume testing result and is filled The parameter set；

S13：The product that step S12 is obtained carries out surface modification treatment by third plasma device；

S14：The product that step S13 is obtained sprays nanofiber by first nanometer of device for spinning, and nanofiber wraps up step S13 Obtained product forms nano fibrous membrane；

S15：The product that step S14 is obtained carries out drying and shaping by third drying unit；

S16：The product that step S15 is obtained is detected drying effect by 3rd resistor detection device, 3rd resistor detection Device judges testing result：If detection is unqualified, feedback signal gives third drying unit, third drying unit tune Whole parameter is carried out at the same time step S17；If detection is qualified, step S17 is directly carried out；

S17：The product that step S16 is obtained carries out filoplume detection by the second filoplume detection device, and according to filoplume testing result It judges：If filoplume testing result is unqualified, the 4th plasma device of activation, second nanometer of device for spinning, 4th Drying unit and the 4th resistor detecting device, and carry out step S18；If filoplume testing result is qualified, step S23 is skipped to；

S18：The product that step S17 is obtained carries out surface modification treatment by the 4th plasma device；

S19：The product that step S18 is obtained sprays nanofiber by second nanometer of device for spinning, and nanofiber wraps up step S18 Obtained product forms nano fibrous membrane；

S20：The product that step S19 is obtained carries out drying and shaping by the 4th drying unit；

S21：The product that step S20 is obtained is detected drying effect by the 4th resistor detecting device, the 4th resistance detection Device judges testing result：If detection is unqualified, feedback signal gives the 4th drying unit, the 4th drying unit tune Whole parameter is carried out at the same time step S22；If detection is qualified, step S22 is directly carried out；

S22：Filoplume detection is carried out by third filoplume detection device, third filoplume detection device is arranged according to filoplume testing result The parameter of plasma gassing apparatus；

S23：Processing of singing is carried out by plasma gassing apparatus；

S24：The product that step S23 is obtained carries out broken end detection by the second apparatus for detection of breaking of yarn：When detecting the presence of broken end, Start the second automatic piecing arrangement and carry out connector processing, then carries out step S25；Otherwise step S25 is directly carried out；

S25：The product that step S24 is obtained is wound processing by winding device, forms sizing.