JP7280748B2 - Method for automatic hair transplantation of wigs and material for machine-implanted wigs - Google Patents

Description

TECHNICAL FIELD The present invention relates to an automatic hair-implanting method for wigs and a mechanically-implanted wig material.

Wigs are generally hand-flocked (referred to as hand-flocked) to fit the user's head.

In the case of hand-implanted hair, the base has a three-dimensional shape in order to match the user's (specific user's) head. In this case, the following disadvantages arise. First, when the hair is transplanted by hand, the craftsman turns the dominant hand left and right to transplant the hair. For example, in order to manufacture a wig in which 20,000 hair materials are implanted, the time-consuming hair-implantation work had to be repeated about 10,000 times, which took about 2 to 3 weeks. Since the mesh of the mesh on which the hair material is implanted is only a very small area of less than 1 mm ² , the hair planting operation requires skill and perseverance.

Handmade flocking is a laborious task that requires skilled techniques, and this skillful work can lead to an increase in costs. In addition, the lack of skilled workers and the work of unskilled workers can lead to quality deterioration and variations in accuracy. there is

In handmade hair transplantation, a long training period of about three months is required to acquire the technique, and the retention rate of those who have acquired the technique is low, which is also a factor in increasing the cost.

Due to the recent difficulty in domestic production, production has flowed out to low-cost overseas countries, which is a negative factor in the uniformity and stability of quality.

In terms of quality, it is a concentrated work that requires perseverance, and the current situation is that the quality is not stable due to the discretion of the craftsmen and their physical condition, and the production volume is also unstable.

In the case of manual hair transplantation, if the craftsman rotates the dominant hand left and right to switch between clockwise and counterclockwise hair transplantation each time, the hair transplantation work becomes complicated, and the number of operators is extremely limited.

Therefore, in the case of manual flocking, the flocking direction is often changed line by line at most, such as clockwise flocking for the first line and counterclockwise flocking for the second line. In this case, since the hair flow is formed in that direction, the implanted hair material lays down, so to speak, along the hair flow, resulting in a lack of voluminousness.

JP-A-10-53911

SUMMARY OF THE INVENTION In view of the above background, the present invention is intended to completely mechanize the production of wigs, and aims to achieve uniformity, stability, and speedy production of wig products. Another object of the present invention is to manufacture a wig with a sense of volume.

In order to solve the above-mentioned problems, the automatic hair-planting method for wigs according to the present invention is a method of planting hairs in the wefts of a flat net fabric consisting of warps and wefts, wherein the needles are placed in the meshes of the net fabric with the hooks facing upward. inserting and moving forward; locking a hair material provided in a direction perpendicular to the direction of travel of the needle; and then pulling out a portion of the hair material in the locked state from the eye; Next, a step of rotating once while the pulled out hair material is locked, a step of further moving forward while being inserted into the loop formed at the tip end of the hair material, and a step of moving forward further, and After relocking the other portion of the material, withdrawing the other portion from the loop portion, and during the withdrawal, the hair material passes through the eye and the portion located on one side through the eye. a step of connecting the wefts of the net fabric from the inner side and the outer side by means of a portion located on the other side of the net fabric, and a step of sequentially repeating the steps to implant the hair material into the flat net fabric. .
Further, the automatic hair-implanting method for wigs according to claim 2 of the present invention is characterized in that, in the hair-implanting method for wigs according to claim 1, the needles are supplied in loops on both sides in the advancing direction, and the portion located on one side of the hair material. The hair material is rotated clockwise when the hair material is locked from the inside.
Further, the automatic hair-implanting method for a wig according to claim 3 of the present invention is characterized in that, in the hair-implanting method for a wig according to claim 2, the other part to which the needles are re-locked is the hair material on the side initially locked. and
Further, the automatic hair-implanting method for wigs according to claim 4 of the present invention is characterized in that, in the hair-implanting method for wigs according to claim 1, the needles are supplied in loops on both sides in the traveling direction of the hair material. The hair material is rotated counterclockwise when the hair material is locked from the outside.
Further, the automatic hair-implanting method for wigs according to the present invention according to claim 5 is characterized in that, in the hair-implanting method for wigs according to claim 4, the other part to which the needles are relocked is on the side opposite to the hair material on the side initially locked. It is characterized by being a hair material.
According to claim 6, an automatic hair-implanting method for wigs according to the present invention is characterized in that each step in the wig hair-implanting method according to any one of claims 1 to 5 is performed by a machine.
According to claim 7, the automatic hair-implanting method for wigs according to the present invention is characterized in that, in the method for implanting wigs according to claim 6, the hair material that is rotated clockwise to the weft and the hair that is implanted is rotated counterclockwise. It is characterized by being mixed with a hair material.
An automatic hair-implanting method for a wig according to claim 8 of the present invention is characterized in that, in the hair-implanting method for a wig according to claim 7, the hair materials with different rotational directions are regularly planted in the weft.
According to a ninth aspect of the present invention, there is provided an automatic hair-implanting method for a wig according to the eighth aspect, wherein the hair materials having different rotation directions are alternately implanted in the weft.
According to claim 10, the automatic hair-implanting method for a wig according to the present invention is characterized in that, in the wig hair-implanting method according to claim 7, the hair materials with different rotational directions are irregularly implanted in the weft.
According to claim 11, there is provided an automatic hair-transplanting method for a wig according to any one of claims 1 to 10, wherein the needles and the hair-transplanting surface of the net fabric are relatively rotated. characterized by
According to claim 12, there is provided an automatic hair-transplanting method for a wig according to any one of claims 1 to 11, wherein the hair-transplanting surface is initially vertical, and the needle moves in the horizontal direction. is inserted into the eye and picks up one weft, and then the flocked surface is rotated to be horizontal.
According to Claim 13, there is provided an automatic hair-transplanting method for a wig according to any one of Claims 1 to 11, wherein the hair-transplanting surface is initially horizontal, and the needle moves vertically. is inserted into the eye and picks up one weft, and then the needle is rotated by 90°.
According to Claim 14 of the present invention, there is provided an automatic hair-transplanting method for a wig according to Claim 12, characterized in that the hair-transplanting surface is positioned at right angles to the horizontally moving needle.
According to a fifteenth aspect of the present invention, there is provided an automatic hair-implanting method for a wig according to the twelfth aspect, wherein the hair-implanting surface is positioned at an obtuse angle with respect to the horizontally moving needle.
Further, the automatic hair-implanting method for a wig according to claim 16 of the present invention is characterized in that, in the wig hair-implanting method according to any one of claims 1 to 16, the needle is slightly retracted after being inserted into the eye of the net fabric. characterized by
Further, according to claim 17, there is provided an automatic hair-implanting method for a wig according to any one of claims 1 to 16, characterized in that the needle rotates once when moving upward. do.
According to claim 18, there is provided an automatic hair-implanting method for wigs according to the present invention, wherein each step in the wig hair-implanting method according to any one of claims 1 to 5 is performed manually.
Further, the mechanically-implanted wig material according to the present invention comprises a base made of a flat net cloth having warp and weft, and a hair material automatically implanted by a needle reciprocating in a direction orthogonal to the base, One part where the material is pulled out from the back side of the weft through the mesh of the net ground, and the other part where the material is inserted into the loop formed at the tip part passing through the mesh of the net ground and pulled out from the front side of the weft. When the needle is engaged from the inside on the side of one portion of the hair material supplied in a loop on both sides in the advancing direction, after the hair material is rotated clockwise, the needle is By relocking to the other portion formed on the side that was originally locked and then pulling out the other portion from the loop portion, the hair material is reattached to the portion located on one side through the eye and the eye. It is characterized by being tied to the weft of the net fabric from the inner side and the outer side by a portion located on the other side that does not pass through .
Further, the mechanically-implanted wig material according to the present invention comprises a base made of a flat net cloth having warp and weft, and a hair material automatically implanted by a needle reciprocating in a direction orthogonal to the base , One part where the material is pulled out from the back side of the weft through the mesh of the net ground, and the other part where the material is inserted into the loop formed at the tip part passing through the mesh of the net ground and pulled out from the front side of the weft. When the needle is locked from the outside on the side of one part of the hair material supplied in a loop on both sides in the advancing direction, the needle is rotated counterclockwise after the hair material is rotated counterclockwise. is relocked to another portion formed on the side opposite to the side to which it was originally locked, and then the other portion is pulled out of the loop portion so that the hair material is positioned on the other side through the eye. It is characterized by being tied to the wefts of the net fabric from the inside and the outside by a part that is located on one side and a part that does not pass through the eyes.
A mechanically-implanted wig material according to claim 21 is characterized in that, in the mechanically-implanted wig material according to claim 19 or claim 20, hair materials with different rotational directions are regularly implanted in the weft.
A mechanically-implanted wig material according to claim 22 is characterized in that, in the mechanically-implanted wig material according to claim 19 or claim 20, the hair materials with different rotational directions are irregularly implanted in the weft.

According to the automatic hair-implanting method for a wig according to the present invention, the hair is implanted in the weft of a flat net fabric consisting of warps and wefts. Then, after locking the hair material provided in the direction perpendicular to the advancing direction of the needle, part of the hair material is pulled out from the eye in a locked state, and then the pulled out hair material is kept locked. After one rotation, the hair material is further moved forward while being inserted into the loop formed at the distal end of the hair material, and after relocking the other part of the bifurcated hair material, part is pulled out from the loop part, and when pulled out, the hair material is attached to the weft of the net fabric by a part located on one side passing through the eye and a part located on the other side not passing through the eye. By sequentially repeating the steps described above, the hair material is planted on the flat net material, so that the wig product can be produced uniformly, stably, and quickly. In addition, it is possible to manufacture a wig with a sense of volume.

In addition, according to the mechanically-implanted wig material according to the present invention, it consists of a base made of a flat net fabric with warp and weft, and a hair material automatically implanted by needles reciprocating in a direction orthogonal to the base, The hair material is inserted into one portion where the hair material is pulled out from the back side of the weft through the mesh of the net base, and is inserted into a loop portion formed at the tip portion passing through the mesh of the net base and is pulled out from the surface side of the weft. The wig product can be homogenized, stabilized, and rapidly manufactured by being bound from the inner side and the outer side by the other parts, and the wig product has the effect of forming a sense of volume.

It is a figure which shows the process of the automatic hair-implantation method of the wig by this invention. (A) is a diagram showing the steps of the automatic hair transplanting method for a wig according to the present invention, and (B) is a diagram showing the next step after (A). (A) is a diagram showing the steps of the automatic hair transplanting method for a wig according to the present invention, and (B) is an enlarged view of a main part of (A). It is a figure which shows the process of the automatic hair-implantation method of the wig by this invention. It is a figure which shows the process of the automatic hair-implantation method of the wig by this invention. It is a figure which shows the process of the automatic hair-implantation method of the wig by this invention. It is a figure which shows the process of the automatic hair-implantation method of the wig by this invention. It is a figure which shows the process of the automatic hair-implantation method of the wig by this invention. It is a figure which shows the process of the automatic hair-implantation method of the wig by this invention. It is a figure which shows the process of the automatic hair-implantation method of the wig by this invention. It is a figure which shows the process of the automatic hair-implantation method of the wig by this invention. FIG. 4 is a diagram showing the main steps of the automatic hair-implanting method for wigs according to the present invention. FIG. 10 is a diagram showing another main process of the automatic hair-implanting method for wigs according to the present invention. 1 is a perspective view showing a main part of an automatic wig hair-implanting machine according to the present invention; FIG. 16(A) is a front view showing a mechanical wig material according to the present invention, and (B) is an enlarged view of the XV part of FIG. 16(B). (A) is an enlarged view of the XVI portion of FIG. 15 (A), and (B) is a cross-sectional view taken along the line BB of (A).

First, an automatic hair-implanting machine 1 for wigs according to the present invention will be described based on an embodiment shown in FIG. For the sake of convenience, parts having the same functions are denoted by the same reference numerals, and descriptions thereof are omitted. 3 to 14, the number of needles 7 is partly omitted for the sake of convenience (in this embodiment, the number of needles 7 is shown as 3 instead of 6).
The automatic hair-implanting machine 1 for wigs shown in FIG. and a needle 7 that reciprocates in a direction orthogonal to the flocking surface forming portion 5 . The needle 7 is supported by a rotatable and movable holder 8 . A net fabric 11 serving as a base is stretched over the rotating shaft 3 .
Reference numeral 9 denotes a hook that reciprocates in a direction orthogonal (vertical) to the horizontally moving needle 7, and pulls down the hair material 13 (shown in FIG. 4) from a stocker (not shown). A control panel (not shown) is used to adjust the settings of the entire machine.

The main shaft 3a of the rotating shaft 3 is eccentric, and the position of the flocking surface forming portion 5 is slightly moved vertically by d when the rotating shaft 3 is rotated in the horizontal direction. The flocking surface forming portion 5 formed along the chord on the peripheral surface of the rotary shaft 3 is initially positioned at right angles to the needle 7 moving in the horizontal direction. The needle 7 reciprocates horizontally as follows. That is, when the flocking surface forming portion 5 is on the vertical surface, the needle 7 moves forward and is inserted into the mesh 17 (shown in FIG. 3(B)) of the net base 11, and when the flocking surface forming portion 5 is on the horizontal surface, the needle 7 moves in the latitudinal direction. 12a is scooped up and further moved forward (Fig. 4). At this time, that is, in a state in which the needles 7 are inserted into the meshes 17 of the net fabric 11, the rotation shaft 3 rotates the flocking surface forming portion 5 from the vertical plane shown in FIG. 1 to the horizontal plane shown in FIG. 3(A). be done. As a result of this rotation, the flocking surface forming portion 5 is vertically lowered by a distance d (shown in FIG. 14), so that the needle 7 picks up one weft 12a on the flocking surface 6. As shown in FIG.

As shown in FIG. 5, the needle 7 is retracted after engaging the hair material 13 (FIG. 6), and is moved upward while engaging the loop end 15 (FIG. 7). Thereby, loops 14 (shown in FIGS. 12(D) and 13(D)) are formed in the hair material 13 . The needle 7 further advances while being inserted into the loop 14 to lock the other portion 13a (16) of the hair material 13, and then moves backward while locking the other portion 16, The other portion 16 is inserted into the loop 14 (Fig. 9). The needle 7 continues to move backward with the other portion 16 inserted into the loop 14 and pulls the other portion 16 out of the mesh 17 of the net fabric 11 as shown in FIGS. 9-10. As a result, the hair material 13 is firmly attached to the weft 12a of the net fabric 11 by forming a knot 19 (FIG. 11). The needle 7 and the rotary shaft 3 sequentially repeat the series of operations described above.

The rotating shaft 3 is provided with a plurality of needles 7 (six in this embodiment) that perform the above operation. As a result, six mechanically planted wig materials 21 are planted simultaneously in the x-axis direction (shown in FIG. 15) of the net fabric 11 .

Next, the operation of the wig automatic hair-implanting machine 1 will be described in detail with reference to FIGS. 1 to 13. FIG. First, as shown in FIG. 1, the horizontally moving needle 7 (shown in FIG. 14) is moved forward with respect to the flocking surface 6 on which the net fabric 11 is stretched in the vertical direction. 12(A) and 13(A), the hook portion 7a is inserted into the mesh 17 of the net base 11 with the hook portion 7a facing upward, and then slightly retracted as shown in FIG. 2(B). Pick up latitude 12a.

Then, the rotating shaft 3 is rotated. As a result, the flocked surface 6 becomes horizontal as shown in FIG. 3(A). As a result of this rotation, the flocking surface forming portion 5 is lowered slightly by d in the vertical direction, so that the needle 7 picks up one weft 12 a on the flocking surface 6 . (Fig. 3(B))

Next, the hair material 13 is vertically lowered from a stocker (not shown) by the hook 9 (shown in FIG. 4).

Next, the needle 7 is advanced along the horizontal hair-implanting surface 6 while being inserted into the eye 17, and then the hook portion 7a is rotated by 90° to lock the hair material 13 supplied forward ( 4, 5, 12(A) and 13(A)).

Next, the needle 7 engages the hair material 13 and is retracted through the eye 17 (FIGS. 6, 12(B) and 13(B)).

Next, the needle 7 rotates once (FIGS. 12(C) and 13(C)), and then lifts up the hair material 13 passing through the eye 17 (FIG. 7). As a result, a loop 14 is formed at the distal end of the hair material 13 which is divided into two forks 13a and 13b (Fig. 8).

The needle 7 is then further advanced while inserted into the loop 14 and rotated 90° to relock one bifurcated portion 16 of the hair material 13 (FIG. 8). and FIGS. 12(D) and 13(D)).

The needle 7 is then retracted. Thereby, the other portion 16 is inserted into the loop 14 as shown in FIGS. 8 to 9 and FIGS. 12(E) and 13(E).

Next, the needle 7 continues to move backward while the other portion 16 is inserted into the loop 14, and after the hook portion 7a is turned upward, the hair material 13 bent into a loop shape is pulled out from the eye 17 (Fig. 10). When the hair material 13 is pulled out from the eye 17, in the case of FIG. A knot 19 (shown in FIGS. 11 and 15(B)) is formed in the weft 12a to secure it firmly. In the case of FIG. 13, the inner hair material 13a passing through the stitches 17 and the outer hair material 13b not passing through the stitches 17 form a knot 19 (FIG. 11, 15(B)) and is firmly fixed.

Here, the rotation after locking the hair material 13 will be described with reference to FIGS. 12 and 13. FIG. When the needles 7 are inserted into the hair material 13 supplied in a loop on both sides in the advancing direction and locked from the inside to the hair material 13a located on the left side in FIG. C) is rotated clockwise. In this case, the other portion 16 to which the needle 7 re-locks is the side of the initially locked hair material 13a located on the left side as shown in FIG. 12(D).
On the other hand, as shown in FIG. 13(A), when the needles 7 are engaged with the hair material 13a supplied in a loop on both sides in the advancing direction from the outside, the hair material 13 is pulled as shown in FIG. 13(C). is rotated counterclockwise. In this case, the other portion 16 to which the needle 7 re-locks is the hair material 13b located on the right side opposite to the hair material 13a to be initially locked, as shown in FIG. 13(D).
The eye 17 relocking the other portion 16 is rotated a total of 450° in this example in either Figures 12(A)-12(E) or Figures 13(A)-13(E).

The needle 7 repeats the above series of operations in the x-axis direction shown in FIG. When the hair is planted a predetermined number of times in the x-axis direction, the net base 11 is moved by one weft 12a in the y-axis direction, and the above-described series of operations are repeated for the next weft 12a'.

In the above-mentioned flocking, the hair materials 13 that are flocked by rotating clockwise with respect to the weft 12a and the hair materials 13 that are flocked by rotating counterclockwise can be mixed. This mixed flocking may be regular or irregular. In the former case, clockwise and counterclockwise flocking can be alternated.
The above-mentioned mixed flocking can be performed for each stitch along the y-axis direction, or can be performed for each stitch.
In addition, it can be done every one stitch along the x-axis direction, or it can be done every several stitches.

When the hairs thus set are completed, the mechanically-implanted wig material 21 shown in FIG. 15 is completed.

Next, a mechanical wig material 21 according to the present invention will be described with reference to FIG. A plurality (30 pieces in the illustrated example) of mechanically planted wig materials 21 whose hairs have been implanted are formed on the net fabric 11 (FIG. 15(A)). These machine-planted wig materials 21 are fixed to the back surface of the net fabric 11 that serves as the base 10 with another net fabric 20 (shown in FIG. 16(B)), and cut into individual pieces, thereby forming wig products ( Figure 16 (A), (B)). Another net base 20 serves as a wearing surface to be worn on the scalp. In this mechanically planted wig material 21, the hair material 13 is securely fixed on the weft 12a of the net fabric 11. - 特許庁The net fabric 11 is formed by weaving a weft 12a made of a polyamide synthetic fiber and a warp 12b made of a polyamide synthetic fiber. The base is formed in a flat planar shape. The shape and thickness of the weft 12a and warp 12b fibers forming the net fabric 11 are arbitrary. In this embodiment, the cross-sectional shape is circular, and the fiber diameter is 110 μm in the weft 12a and 130 μm in the warp 12b. The size of the eye 17 is also arbitrary. In this embodiment, each eye 17 has a short side length of 0.5 mm and a long side length of 0.9 mm, which is approximately double. The method of flocking the hair material 13 is arbitrary. For example, the hair material 13 may be implanted continuously on all the wefts 12a of the continuous stitches 17, or the hair material 13 may be implanted intermittently.

The mechanically-flocked wig material 21 configured in this way is stored as a general-purpose inventory while being formed flat. Then, according to demand, it is customized into a three-dimensional shape to match the shape of the user's head and used as a wig.

According to the above-described embodiment, the wig material 21 can be produced quickly and stably because the hair is automatically implanted by a machine. Moreover, the manufactured wig material is homogeneous, and the occurrence of defective products can be practically eliminated. In this embodiment, 30 pieces of wig materials (6 pieces×5 rows=30 pieces) are manufactured from the net fabric 11 of a predetermined area in about 6 hours, so the manufacturing time for each piece of wig material is about 12 minutes. Therefore, if it takes 10 hours to implant the same area, the production efficiency is about 50 times higher than the conventional method. Since this manufacturing time can be increased by setting the number of wig materials for a net fabric 11 of a predetermined area, it is possible to further shorten the manufacturing time and reduce the cost.

In addition, by completely mechanizing wig materials, it is possible to eliminate defects caused by human error caused by craftsmen, which has the effect of stabilizing product quality and maintaining homogeneity.

As described above, the bifurcated hair material 13 is firmly tied to the wefts 12a from the inner side, that is, the back side of the wefts 12a, and the outer side, that is, the surface side of the wefts 12a, so that it is firmly attached to the wefts 12a without loosening. be. Therefore, since the knot 19 is held by the weft 12a, the hair material 13 rises like natural hair, and the implanted hair material 13 has a voluminous feel.

Regarding the sense of volume, from another point of view, as described below, according to the above-described embodiment, since the hair flow is random, the adjacent hair materials 13 come into contact with each other, resulting in a three-dimensional sense of volume. , It is possible to reproduce the appropriate amount of hair. In this respect, conventionally, the amount of hair is increased more than necessary to create volume, resulting in an unnatural wig.

In addition, since it is mechanical flocking, it is possible to freely change clockwise flocking and counterclockwise flocking each time, alternately, or irregularly. Since natural hair has irregular hair directionality, according to the present invention, it is possible to efficiently realize hair transplantation similar to natural hair.

The present invention is not limited to the above embodiments. For example, in regard to the automatic hair-implanting method for a wig, contrary to the above embodiment, the hair-implanting surface 6 is initially placed in a horizontal state, and after the needle 7 is inserted into the eye 17 and scoops up one weft 12a, The needle 17 may be rotated by 90°. Moreover, the initial position of the flocked surface can be set not only at a right angle but also at an obtuse angle so that the flocked surface faces slightly upward. Furthermore, in forming the loops of the hair material 13, the needles 7 may be rotated and raised at the same time.

The rotation of the eye 17 that re-locks the other portion 16 involves one full rotation or 360° rotation to secure the other portion 16 to the weft 12a and the hook portion 7a of the needle 7 passing through the eye 17. It does not have to be exactly 450 degrees as long as the rotation for correcting the position upward, that is, the rotation of about 90 degrees is ensured. That is, the hook portion 7a may be slightly inclined as long as the other portion 16 can be re-engaged.

In FIGS. 12A to 12E, even when the hook portion 7a of the needle 7 locks the hair material 13b on the opposite side from the illustrated example from the inside, the hair material 13 to be relocked is the hair material that was originally locked. 13b. Also in this case, the direction of rotation of the needle 7 is clockwise.

In FIGS. 13A to 13E, even when the hook portion 7a of the needle 7 locks the hair material 13b on the opposite side of the illustrated example from the outside, the hair material 13 to be relocked is the same as the hair material 13 originally locked. is the hair material 13a on the opposite side. Also in this case, the direction of rotation of the needle 7 is counterclockwise.

As for the mechanically planted wig material 21, since the fibers and/or the hair material constituting the net fabric 11 can be arbitrarily changed, various variations can be made according to the user's preference.
The netting 20 can also be used as a wig without adding it.
The configuration of the network 11 is arbitrary. The configuration of the wefts 12a and/or the warps 12b forming the net ground 11 is arbitrary. Also, the size of the mesh 17 of the net base 11 can be changed.

The present invention can be used for wigs. It can also be used as a part of a wig as a partial wig.

REFERENCE SIGNS LIST 1 wig automatic flocking machine 3 rotating shaft 3a main shaft 5 flocking surface forming part 6 flocking surface 7 needle 7a hook part 8 holder 9 hook 10 base 11 net fabric 12a weft 12b warp 13 hair material 13a hair material 13b hair material 14 loop 15 loop Ends 16 Other parts 17 Stitches 19 Knots 20 Other net fabrics 21 Material for machine-planted wigs

Claims (22)

A method of flocking hair on the weft of a flat net fabric consisting of warps and wefts,
a step in which the needle is inserted into the mesh of the net with the hook portion facing upward and moves forward;
locking the hair material provided perpendicular to the direction of travel of the needle;
then pulling out a portion of the hair material from the eye in a locked state;
then rotating once while locking the pulled out hair material;
a step of further moving forward while being inserted into the loop portion formed at the distal end of the hair material;
After re-locking the other part of the bifurcated hair material, pulling out the other part from the loop part;
When the hair material is pulled out, the hair material is tied to the weft of the net fabric from the inside and the outside by a part located on one side passing through the eye and a part located on the other side not passing through the eye. ,
A hair-implanting method for a wig, characterized in that hair materials are implanted into a flat net fabric by sequentially repeating the above steps. 2. In the wig hair-implanting method according to claim 1, when the needles are engaged from the inside with the portion located on one side of the hair material supplied in a loop on both sides in the traveling direction, the hair material is rotated clockwise. A hair-implanting method for a wig characterized by rotating. 3. The hair-implanting method for a wig according to claim 2, wherein the other portion to which said needle re-locks is the hair material on the side initially retained. 2. In the wig hair transplanting method according to claim 1, when the needles are engaged from the outside with the portion located on one side of the hair material supplied in a loop on both sides in the traveling direction, the hair material is rotated counterclockwise. A method of flocking a wig, characterized in that the hair is rotated in the direction of rotation. 5. The hair-implanting method for a wig according to claim 4, wherein the other part to which said needle re-locks is the hair material on the side opposite to the hair material on the side initially locked. 6. The method of implanting hair of a wig according to claim 1, wherein each step is performed by a machine. 7. The hair-implanting method for a wig according to claim 6, wherein the hair material implanted by rotating clockwise in the latitude and the hair material implanted by rotating counterclockwise are mixed. Method. 8. The hair-implanting method for a wig according to claim 7, wherein said hair materials having different rotational directions are regularly implanted in the weft. 9. The hair-implanting method for a wig according to claim 8, wherein said hair materials with different rotational directions are alternately implanted in the weft. 8. The hair-implanting method for a wig according to claim 7, wherein said hair materials having different rotational directions are irregularly implanted in the weft. 11. The hair-implanting method for a wig according to any one of claims 1 to 10, wherein the needles and the bristle-implanting surface of the net fabric are rotated relative to each other. 12. The hair-implanting method for a wig according to any one of claims 1 to 11, wherein the hair-implanting surface is initially vertical, and a horizontally moving needle is inserted into the eye to scoop up one weft. A method of flocking a wig, characterized in that the flocking surface is turned horizontally. 12. The hair-implanting method for a wig according to any one of claims 1 to 11, wherein the hair-implanting surface is initially horizontal, and a vertically moving needle is inserted into the eye to scoop up one weft. and subsequently rotating the needle by 90°. 13. The hair-implanting method for a wig according to claim 12, wherein said hair-implanting surface is positioned at a right angle to said needle moving horizontally. 13. The hair-implanting method for a wig according to claim 12, wherein said bristle-implanting surface is positioned at an obtuse angle with respect to the horizontally moving needle. 17. The hair-implanting method for a wig according to any one of claims 1 to 16, wherein the needle is slightly retracted after being inserted into the mesh of the net fabric. 17. The hair-implanting method for a wig according to any one of claims 1 to 16, wherein the needle rotates once when moving upward. 6. The hair-implanting method for a wig according to claim 1, wherein each step is performed manually. It consists of a base made of a flat net fabric with warps and wefts, and a hair material that is automatically implanted by a needle that reciprocates in a direction perpendicular to the base,
The hair material is inserted into one portion where the hair material is pulled out from the back side of the weft through the mesh of the net base, and is inserted into a loop portion formed at the tip portion passing through the mesh of the net base and is pulled out from the surface side of the weft. consists of other parts,
When the needles are locked from the inside on the side of a portion of the hair material that is looped on both sides in the direction of travel, the side that the needles initially lock after the hair material is rotated clockwise. and then pull the other portion out of the loop so that the hair material is positioned on one side through the eye and on the other side that does not pass through the eye. A material for mechanically planted wigs, characterized by being tied to the wefts of the net fabric from the inside and the outside by the parts located on the sides . It consists of a base made of a flat net fabric with warps and wefts, and a hair material that is automatically implanted by a needle that reciprocates in a direction perpendicular to the base,
The hair material is inserted into one portion where the hair material is pulled out from the back side of the weft through the mesh of the net base, and is inserted into a loop portion formed at the tip portion passing through the mesh of the net base and is pulled out from the surface side of the weft. consists of other parts ,
When the needles are locked from the outside on the side of a portion of the hair material fed in loops on both sides in the advancing direction, the needles are initially locked after the hair material is rotated counterclockwise. The hair material is relocked to another portion formed on the opposite side, and then pulled out of the loop portion so that the portion of the hair material located on the other side passing through the eye and the eye. A material for mechanically planted wigs, characterized by being tied to the wefts of the net fabric from the inside and the outside by a part located on one side that does not pass through . 21. The material for a mechanically-implanted wig according to claim 19 or 20, wherein the hair materials with different rotational directions are regularly implanted in the weft. 21. The material for a mechanically-implanted wig according to claim 19 or 20, wherein the hair materials with different rotation directions are irregularly planted with respect to the weft.

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