JP3552096B2 - Fully automatic wig making machine and wig manufacturing method - Google Patents

Description

[0001]
TECHNICAL FIELD OF THE INVENTION
The present invention relates to the mechanization of wig production, and more particularly to a fully automatic wig production machine and a wig production method.
[0002]
[Prior art]
Conventionally, in the manufacture of a wig, a flocked member is folded in two on a thick base material formed into a three-dimensional shape and sewn by hand one by one, and two (if folded in two, one becomes two) or Flocked members were bundled in several bundles.
[0003]
[Problems to be solved by the invention]
However, in such a hand-planting operation, it is at best possible to plant, for example, 20,000 trees in about two to three weeks, and there is a disadvantage that work efficiency is extremely poor. In addition, there is a drawback that if the production is performed abroad, which does not like the high cost and the labor cost is low, many defective products are generated and the yield is low.
[0004]
There were proposals for mechanization, but they have not been successful yet.
[0005]
The present invention has been made in view of the above background. An object of the present invention is to enable the mechanization of wig production, thereby making it possible to manufacture wigs quickly, and to prevent the occurrence of defective products and efficiently An object of the present invention is to provide a fully automatic wig manufacturing machine and a wig manufacturing method that can be manufactured.
[0006]
[Means for Solving the Problems]
In order to achieve the above object, a fully automatic wig manufacturing machine according to the present invention includes a base supply unit that supplies an ultra-thin base to a tension / positioning unit, and a two-dimensionally orthogonally moving unit that moves at a predetermined pitch A tension / positioning unit that has a movable movement table that is performed according to a preset order, positions the base in an extended state of the base, and an artificial hair supply unit that supplies artificial hair to the back side of the base. A flocking portion for piercing the artificial hair with a needle that is movable in a direction perpendicular to the surface of the base, penetrates the needle into the base in the extended state, and pulls up the artificial hair to the surface side of the base with the needle. The planting machine body that repeats planting of artificial hair at a predetermined pitch and releases the extended state of the base after planting is completed, and the planted artificial hair is fixed to the base A first adhesive applying section for applying a first adhesive to the back surface of the base, a cutting section for cutting the base provided with the first adhesive into a predetermined shape, and a predetermined section for cutting the cut base. And a second adhesive applying section for applying a second adhesive to the back surface of the base to adhere the formed base to a human body.
In all the automatic wig manufacturing machine of claim 1, wherein the said base is a weaving thereof.
Further, in the fully automatic wig making machine according to the first aspect, the needle is provided with a needle groove for engaging the artificial hair in a direction orthogonal to a feeding direction of the artificial hair.
Further, in the fully automatic wig manufacturing machine according to the first aspect, two of the needles are provided with a certain gap along a feeding direction of the artificial hair.
Further, in the fully automatic wig manufacturing machine according to the first aspect, the planting pitch is larger than a width of a needle in a direction orthogonal to a feeding direction of the artificial hair.
Further, in the fully automatic wig manufacturing machine according to the first aspect, the planting of the artificial hair is performed when the base moves in a direction orthogonal to the feeding direction of the artificial hair.
Further, in the fully automatic wig manufacturing machine according to the first aspect, the planting of the artificial hair is performed when the base moves in the feeding direction of the artificial hair.
Further, in the fully automatic wig manufacturing machine according to the first aspect, the artificial hair is planted on the base in an oblique direction.
Further, in the automatic wig making machine according to the first aspect, the movement of the moving table and the movement of the needle are performed by control means including a computer.
Further, in the fully automatic wig manufacturing machine according to claim 1, the artificial hair supply section is provided in plural.
Further, in the fully automatic wig manufacturing machine according to the first aspect, a flow hair portion for flowing the planted artificial hair in a direction opposite to a needle is provided.
Further, in the automatic wig manufacturing machine according to the eleventh aspect, the flow hair portion is formed of a member that blows air from the needle side to the non-needle side.
Further, in the fully automatic wig manufacturing machine according to the eleventh aspect, the hair bristle portion is made of a member that performs vacuum suction from the side opposite to the needle.
Further, in the fully automatic wig manufacturing machine according to the eleventh aspect, the hair bristle portion is formed of an electrostatic generator provided on a side opposite to the needle.
Further, in the fully automatic wig manufacturing machine according to the first aspect, two devices for transferring the artificial hair of the artificial hair supply unit are connected in series.
Further, in the fully automatic wig manufacturing machine according to claim 1, the flocking machine main body, the first adhesive applying section, the cutting section, the forming section, and the second adhesive applying section are provided on one line in the above order. Features.
The method of manufacturing a wig according to the present invention extends the ultra-thin base supplied on the moving table, positions the base in the extended state, and supplies the artificial base supplied to the back side of the extended base. A hair transplanting step of raising the hair to the surface side of the base by a needle penetrating the base and penetrating the base, repeating the planting of the artificial hair made as described above at a predetermined pitch, and releasing the extended state of the base after the planting is completed, and then planting A first adhesive applying step of applying a first adhesive to the back surface of the base to fix the artificial hair to the base, and a cutting step of cutting the base provided with the first adhesive into a predetermined shape And a forming step of forming the cut base into a predetermined shape, and then applying a second adhesive to the back surface of the base to bond the formed base to a human body. It is composed of a second adhesive applying step of characterized.
[0007]
BEST MODE FOR CARRYING OUT THE INVENTION
Next, a fully automatic wig manufacturing machine according to the present invention will be described in more detail with reference to the drawings showing an embodiment. For convenience, portions having the same function are denoted by the same reference numerals, and description thereof is omitted. FIG. 1 is a conceptual diagram schematically showing a fully automatic wig manufacturing machine according to the present invention along the steps. As shown in FIG. 2, the base supply unit 1 of the flocking machine main body supplies an extremely thin base 11 to the tension / positioning unit 2. The base 11 is, for example, a cloth woven of polyurethane fibers, is formed to be extremely thin, for example, 0.06 mm, and is wound around a sheet roll 13. The sheet roll 13 is driven by a motor 15 and supplies the wound base 11 onto a moving table 21. Reference numeral 17 denotes a sheet roll holder.
[0008]
FIG. 3 shows the tension / positioning section 2 of the flocking machine main body. The tension / positioning unit 2 includes a moving table 21 that is movable in two-dimensional orthogonal directions, that is, in the X-axis and Y-axis directions. The movement of the moving table 21 in the X-axis and Y-axis directions is performed at a predetermined pitch, for example, 2 mm according to a preset order. Thus, the base 11 is positioned after being extended. That is, the movable table 21 is provided with tensioners 23 at four corners, and thereby tension is applied to the supplied base 11. The tensioner 23 includes tension nip rolls 24 and 25 for pressing and holding the base 11 from above and below, and tension motors 26 (26a, 26b, 26c and 26d) that can rotate the rolls 24 and 25 in the normal and reverse directions. Reference numeral 27 denotes a pair of upper and lower sheet in-rolls provided on the supply side of the tension / positioning unit 2. The sheet in-rolls 27 are rotated only in one direction by a motor 27a shown in FIG. Reference numeral 28 denotes a pair of upper and lower sheet out rolls provided on the discharge side of the tension / positioning unit 2, and is rotated by a motor 28a shown in FIG. Reference numeral 29 denotes a supply side of the tension / positioning unit 2, which is a sheet slack sensor provided in front of the sheet in-roll 27 and detects whether or not the supplied base 11 has slack.
[0009]
The artificial hair supply section 3 of the hair transplanter main body supplies the artificial hair 30 to the back side of the base 11, and bobbins 31A, 31B, 31C, 31D around which the artificial hair 30 is wound (hereinafter referred to as "bobbin 31"). "). Each bobbin 31 has a different color of artificial hair 30 wound thereon, and each thread has a vacuum generator 32 (32a, 32b, 32c, 32d) and a single vacuum generator 33, When activated, the artificial hair 30 is sucked and sent. Further, each bobbin 31 system has piping 35 , 35a, 35b, 35c, 35d forming a transfer path, respectively , and the artificial hair 30 passes through it and reaches the flocked portion 4. As shown in FIG. 4, a movable cutter 34 operated by a cutter motor 34a is provided in the middle of each transfer path, and each artificial hair 30 is cut into a predetermined length. Site of the pipe 35 passing through of the cutter 34 are gap G ₁ is formed between the pipe and the pipe. Numeral 38 (shown in FIG. 10) denotes a yarn detecting sensor comprising a photoelectric tube, which is turned on for a predetermined time and detects this when the artificial hair 30 is transferred to a predetermined length. The artificial hair 30 is made of a chemical fiber such as a polyester fiber and an acrylic fiber. Each artificial hair 30 is transported through the pipe 35. Four pipes 35 (35a to 35d) are provided for each color at the beginning of each bobbin 31, but after being cut to a predetermined length by the cutter 34, both pipes 35 are used together. I do. As shown in FIG. 5, a movable guide 36 that can move freely is provided in a part of the pipe 35, and a fixed guide 37 is formed in the pipe 35 on the opposite side, as shown in FIG. 5.
[0010]
5 to 7 show the flocking section 4 of the flocking machine main body. In FIG. 5, the flocking portion 4 is provided with a needle 41 (41a, 41b) that can move up and down in a direction perpendicular to the surface of the base 11, that is, in the drawing. In FIG. 5, the artificial hair 30 is transferred to the base 11 in the direction indicated by the arrow (X-axis direction). The needle 41 is as shown in FIG. That is, the distal end portion 43 of the head 42 is sharply formed like a spear, and the base end portion 44 has a shape that is expanded outward. In this embodiment, the width W of the head 42 is 1 mm. Further, a needle groove 45c for engaging the artificial hair 30 is provided in a portion surrounded by the outer surface 45a and the inner surface 45b of the hook portion 45 provided at the distal end of the head 42, and the needle whose inner surface 45b is indicated by a dashed line. It is formed to be slightly inclined inward with respect to the extension of the shaft. The two needles 41a and 41b are mounted on a vertically movable needle arm 46 with a predetermined gap, for example, 1 mm. The needles 41a and 41b are arranged such that the needle grooves 45c are orthogonal to the artificial hair 30 (see FIG. 5) . A movable guide 36 that is movable by a solenoid (not shown) is provided in a pipe 35 near the position where the needle 41 moves up and down. The needle 41 therebetween when the movable guide 36 is turned relative to the fixed guide 37 and opens is adapted to provide a gap G ₂ to enter. On the front side of the artificial hair 30, a pressing piece 47 that is movable in a direction orthogonal to the artificial hair 30 is provided, and a fixed receiving block 48 is provided to face the pressing piece 47. The pressing piece 47 is inserted between the needle 41a and the needle 41b that have descended, and is pressed against the receiving block 48 via the artificial hair 30 to clamp the artificial hair 30.
[0011]
FIG. 7 shows the hair 5 in the flock 4. That is, a blower 51 is provided on the outer surface 45a side with the needle 41 rising and lowering interposed therebetween, and air is blown to the side opposite to the needle 41. An electrostatic generator 52 is provided on the side facing the blower 51. The static electricity generator 52 rotates a nylon belt 52a in the direction of the arrow by a motor 52b, thereby generating static electricity and adsorbing the artificial hair 30. FIG. 8 shows an electromagnetic valve (a three-position closed center double solenoid) 39a which operates in conjunction with the air compressor 39 to operate the vacuum generator 32 and the vacuum generator 33 and the cylinder 49 for moving the needle 41 up and down. Used.
[0012]
Next, the operation of the flocking machine main body of the fully automatic wig manufacturing machine according to the present invention will be described with reference to FIGS. First, the slack _{T 1} provided between the sheet feeding roller 27 to the tension nip rolls 24, 25 (FIG. 9A), then delivers the base 11 by rotating the sheet out roll 28 (FIG. 9B). Until this time, the tension nip rolls 24 and 25 are open. Then the tension nip rolls 24, 25 is closed, thereby providing a slack _{T 1} again between the sheet feeding roller 27 on which sandwiches the base 11, which is fed to the tension nip rolls 24, 25 (FIG. 9C). Then providing the slack _{T 2} between the tension nip rolls 24, 25 to reverse the sheet out roller 28 to the sheet discharging roller 28 (FIG. 9D). As a result, slacks T _{1 and} T ₂ are formed so that the moving table 21 can move. Note that the hatched portion of the sheet slack sensor 29 in FIG. 9 indicates a detection range. The base 11 is fed from left to right.
[0013]
The base 11 thus fed is nipped from above and below by the tension nip rolls 24 and 25 and pulled, and is extended on the moving table 21 (see FIG. 3). Next, predetermined data such as the hair transplant pitch and the color scheme of the artificial hair 30 is read by a control means including a computer (not shown), and the planting process is started according to the data. The color scheme of the artificial hair 30 is designed in advance such that, for example, the bobbin 31A is 50%, the bobbin 31B is 30%, the bobbin 31C is 15%, and the bobbin 31D is 5%.
[0014]
Prior to the planting step, the artificial hair 30 is supplied below the base 11. That is, the artificial hair 30 is supplied by operating the vacuum generators 32 and 33 in accordance with the command from the control means and sucking the yarn under vacuum. Specifically, when selecting the A-color artificial hair 30, the A port of <1> and the A port of <2> of the solenoid valve 39a (shown in FIG. 8) in the vacuum generator 32 are turned on, The motor of 31A is turned on. When selecting the artificial hair 30 of B color, the B port of <1> and the B port of <2> of the solenoid valve 39a are turned on, and the motor of 31B is turned on. When selecting the artificial hair 30 of C color, the A port of <3> and the A port of <4> of the solenoid valve 39a are turned on, and the motor of 31C is turned on. When selecting the D-color artificial hair 30, the B port of <3> and the B port of <4> of the solenoid valve 39a are turned on, and the motor of 31D is turned on. When the yarn detection sensor 38 (shown in FIG. 10) detects that the artificial hair 30 has reached a certain length, the cutter 34 operates to cut the artificial hair 30 to a certain length. The artificial hair 30 is supplied below the base 11 (FIGS. 5A and 10A to 10D).
[0015]
Next, the artificial hair 30 is planted. First, when the movable guide 36 moves relative to the fixed guide 37 to open the pipe 35, the needle 41 descends (FIGS. 5B and 11). Next, the pressing piece 47 is operated to clamp the artificial hair 30 between the receiving blocks 48 (FIG. 5C). In this state, the needle 41 is raised. Then although the central portion of the artificial hair 30 is held between the U-shape by the pressing pieces 47 and support block 48 (FIG. 5D) left and right of the artificial hair 30 is pulled to the surface side of the base 11 (FIG. 5E, FIG. 5F, (FIG. 12 ). In this manner, the artificial hair 30 supplied below the base 11 is scooped upward by penetrating the base 11 with the needle 41, so that the artificial hair 30 is planted on the base 11. When the needle 41 rises, the artificial hair 30 implanted on the base 11 is free from the needle 41 because both ends are free (see FIG. 5F), and receives the air from the blower 51 in this state (FIG. 7A). The artificial hair 30 that has come off from the needle 41 is sucked by the static electricity of the static electricity generator 52 (FIG. 7B), and is pushed down onto the base 11 in a laid-down manner by the blower of the blower (FIG. 7C). The artificial hair 30 is planted on the base 11 at a predetermined pitch P, for example, 2 mm, in a preset order, in a direction orthogonal to the feeding direction (X axis) of the artificial hair 30, that is, in the Y axis direction (see FIG. 13). (Shown) or when moving in the X-axis direction.
[0016]
Thus, when the planting process is completed, the extended state of the base 11 is released, and the sheet-out roll 28 is operated to perform a discharging process of the completed base 11a (FIG. 14A). Next, the above-described sheet-in step is started, and a new surface 11b serving as the base 11 is supplied (FIG. 14B).
[0017]
The discharged base 11 proceeds to the next first adhesive application step B. Here, the first adhesive 61 is applied by the first adhesive applying section 6 to fix the artificial hair 30 planted on the back surface of the base 11. That is, the first adhesive application section 6 includes a tank 62, a first adhesive 61 in the tank 62, and a nozzle device 63 driven by the air compressor 39 to eject the first adhesive 61. The first adhesive 61 is sprayed on the base end 30a (shown in FIG. 5F) of the artificial hair 30 remaining on the back surface of the base 11 on which the artificial hair 30 has been planted in the above-described hair transplantation step A, and the base end 30a is removed. It is fixed to the base 11. The first adhesive 61 is made of a quick-drying adhesive, and contains a curing agent so as to be able to cope with heating and pressing in a molding process D described later.
[0018]
Next, the process proceeds to the cutting step C. Here, the cutting unit 7 including the cutter device 71 cuts the base 11 provided with the first adhesive 61 into a predetermined shape.
[0019]
Next, the process proceeds to the molding step D. Here, the base 11 cut by the forming unit 8 is heated and pressed to form a predetermined shape. The molding unit 8 includes a molded body 81 having a three-dimensional shape determined from, for example, the size of the head, and is molded along the molded body 81.
[0020]
Next, the process proceeds to the second adhesive application step E. Here, the second adhesive 91 is applied to the back surface of the base 11 by the second adhesive applying section 9. That is, the second adhesive application section 9 includes a tank 92, a second adhesive 91 that has entered the tank 92, and a nozzle device 93 that is driven by the air compressor 39 and ejects the second adhesive 91. Then, the second adhesive 91 is sprayed on the solidified first adhesive 61 to form an adhesive layer (not shown) of the wig. The second adhesive 91 is made of an adhesive in a state of adhesion to human skin, such as a medical adhesive. Thus, the wig is completed and used by directly attaching it to the head.
[0021]
The above-described control of each unit is performed by control means including a computer (not shown).
[0022]
Next, the above-described flocking process A ([0012] to [0016]) will be described in detail with reference to flowcharts shown in FIGS. That is,
In FIGS. 16 to 18, first, the power is turned on (ON) (step 1 (S.1)), and each unit is initialized (a state in which work can be started) (step 2 (S.2)). Next, a READY signal notifying the end of initialization is transmitted from each unit to the computer (step 3 (S.3)). Next, a work start signal is output from the computer, and when this signal is received (step 4 (S.4)), the process proceeds to step 5 (S.5). If this signal does not come, the process returns to step 4 (S.4). In step 5 (S.5), it is determined whether or not there is a film sheet serving as the base 11 on the sheet-out roll 28 on the discharge side. If there is, a sheet-in process (step 6 (S.6)) described in detail in FIG. ). Next, the sheet out roll 28 in the sheet out step described in detail in FIG. 31 is rotated forward (step 7 (S.7)). If there is no film sheet serving as the base 11 on the discharge side, ERROR LEVEL 9 (film sheet not set) is reached (step 8 (S.8)), and the process returns to step 5 (S.5). Next, the tension motor 26a rotates clockwise forward, the tension motor 26b rotates counterclockwise reversely, the tension motor 26c rotates forward, and the tension motor 26d rotates reversely (steps 9a (S. 9a) to 9d ( S. 9d)). Next, it is determined whether or not a cam sensor (not shown) is on (steps 10a (S. 10a) to 10d (S. 10d)). When the cam sensor is on, the tension motors 26a, 26b, 26c, 26d are off (OFF). (Step 11a (S.11a) to Step 11d (S.11d)). If the cam sensor is not turned on, the process returns to step 9a (S.9a) to step 9d (S.9d). Next, a variable for storing the rotation amounts of the tension motors 26a, 26b, 26c, 26d is initialized (steps 12a (S.12a) to 12d (S.12d)), and it is determined whether or not the value is a set value. It is determined (steps 13a (S. 13a) to 13d (S. 13d)), and if YES, the tension motors 26a, 26b, 26c, 26d are stopped (steps 14a (S. 14a) to 14d (S. .14d)). If NO, the tension motor 26a rotates in the reverse direction, the tension motor 26b rotates in the normal direction, the tension motor 26c rotates in the reverse direction, and the tension motor 26d rotates in the normal direction (steps 15a (S.15a) to 15d (S.15d), and The rotation amounts of the tension motors 26a, 26b, 26c, and 26d are counted (steps 16a (S.16a) to 16d (S.16d)) The above steps 9a, 9b, 9c, 9d to 14a, 14b, 14c, By performing the process of 14d, the sheet base 11 supplied on the moving table 21 is nipped by the tension nip rollers 24 and 25 to apply tension to an extended state, and then the sheet-in process described in detail in FIG. The in-roll 27 operates (step 17 (S.17)). Next, the sheet-out process will be described in detail with reference to Fig. 32, and the sheet-out roll 28 operates (step 18 (S.18)), and then receives predetermined data (step 19 (S.19)), and outputs the coordinate data. The reading is performed (Step 20 (S. 20). When the data reading is completed, the X-axis driving motor of the moving table 21 is stopped (Step 22 (S. 22)), and then the Y-axis driving motor of the moving table 21 is also stopped. (Step 23 (S.23)) Then, the process proceeds to the discharge processing step described in detail in Fig. 33 (Step 24 (S.24).) On the other hand, if the data reading has not been completed, Step 25 (S.23). 25), it is determined whether or not the coordinate data position is a predetermined position.If this is YES, the X-axis drive motor of the moving table 21 is stopped (step 25). 26 (S. 26)), and then the Y-axis drive motor of the moving table 21 is also stopped (step 27 (S. 27)), whereby the positioning is completed, and the process proceeds to the next planting step (step 28 (S. 26)). .28)) When the coordinate data position is NO, the X-axis drive motor of the moving table 21 is turned on (step 29 (S.29)), and it is determined whether or not the X-axis limit sensor is on (step 30). (S.30)) If this is YES, the X-axis drive motor of the moving table 21 is stopped (step 31 (S.31)), and if ERROR11 is reached (step 32 (S.32)), Returning to step 2 (S.2), if the X-axis limit sensor is not on, it is determined whether or not the Y-axis limit sensor is on (step 33 (S.33)). , The Y-axis drive motor of the moving table 21 stops (step 34 (S. 34)). When ERROR 12 is reached (step 35 (S.35)), the X-axis H / P sensor is abnormal and the X-axis drive motor is abnormal, so the process returns to step 2 (S.2). If the left Y-axis limit sensor is not on, it is determined whether the Y-axis limit sensor is on (step 36 (S. 36)), and if YES, the process proceeds to step 34 (S. 34) ". If NO, the Y-axis drive motor of the moving table 21 is turned on (step 37 (S.37)), and the process returns to step 25 (S.25).
[0023]
Next, the above-described unit initialization (Step 2 (S.2)) will be described with reference to FIGS. First, it is determined whether or not a sensor for detecting whether or not the artificial hair 30 has been inserted into the bobbin 31 is on (step 201 (S.201)). When the sensor is on, the artificial hair 30 of each color is wound. The set bobbin 31A, bobbin 31B, bobbin 31C, and bobbin 31D are set to a work start state (step 203 (S.203)). When it is not turned on, ERROR LEVEL 7 (artificial hair 30 is not inserted) is reached (step 202 (S.202)), and the process returns to step 201 (S.201). Next, the tensioner 23 of the tension / positioning section 2 and the needle 41 of the flocking section 4 are set to the operation start state, respectively, and roll initialization described in detail in FIG. 20 and subsequent figures is performed (step 204 (S.204), step 205 (S.205)). )). Next, the moving table 21 is set to a work start state (step 206 (S.206)).
[0024]
Looking at the roll initialization in detail with reference to FIG. 20, first, a timer is initialized (step 2031 (S.2031)), and a variable for storing the rotation amount of the sheet-in roll 27 for supplying the film sheet serving as the base 11 is set as follows. Initialization is performed (step 2032 (S.2032)). Next, a timer is started (step 2033 (S. 2033)), and it is determined whether or not the sheet slack sensor 29 is ON (step 2034 (S. 2034)). When this is YES, the drive motor of the sheet-in roll 27 stops (step 2035 (S.2035)), and the process returns. On the other hand, if step 2034 is NO, it is determined whether or not the timer has reached the set value (step 2036 (S.2036)). If YES, the drive motor of sheet-in roll 27 stops (step 2037). (S.2037). Since there is no film sheet serving as the base 11 when it is ERROR LEVEL1, (step 2038 (S.2038)), the flow returns to step 201 (S. 20 1). When the set value is not reached, the drive motor of the sheet-in roll 27 is turned on (step 2039 (S.2039)), and the rotation amount of the sheet-in roll 27 is counted (step 2040 (S.2040)). Thereafter, the flow returns to step 2034 (S.2034).
[0025]
Next, looking at the tensioner initialization in detail based on FIGS. 21 and 22, first, the timer is initialized (step 2041 (S.2041)), and then the timer is started (step 2042 (S.2042)). Next, the tension motor 26a rotates in the reverse direction, the tension motor 26b rotates in the normal direction, the tension motor 26c rotates in the reverse direction, and the tension motor 26d rotates in the normal direction (steps 2043a (S.2043a) to 2043d (S.2043d). Is turned off (steps 2044a (S.2044a) to 2044d (S.2044d)), and if YES, the tension motors 26a, 26b, 26c, 26d are stopped (step 2045a (S.2045a)). ) To step 2045d (S.2045d)), and then return, on the other hand, if the above steps 2044a to 2044d are NO, it is determined whether the timer has reached the set value (step 2046a (S.2046a)). Step 2 46d (S. 2046d)), and if YES, the tension motors 26a, 26b, 26c, 26d stop (steps 2047a (S.2047a) to 2047d (S.2047d)). If (steps 2048a (S.2048a) to 2048d (S.2048d)), the tensioner 23 is faulty and the process returns to step 201 (S.201) If the above steps 2046a to 2046d are NO, step 2043a (S. 2043a) to Step 2043d (S. 2043d).
[0026]
Next, the needle initialization is described in detail with reference to Fig. 23. First, a timer is initialized (step 2051 (S.2051), and then started) (step 2052 (S.2052)). It is determined whether or not it is on a needle position sensor (not shown) (step 2053 (S.2053)). If YES, the solenoid valve for initializing the needle 41 is stopped (step 2054 (S.2054)). On the other hand, if step 2053 is NO, it is determined whether the timer has reached the set value (step 2055 (S.2055)), and if YES, the solenoid valve for initializing the needle 41 is turned off. (Step 2056 (S.2056)) When the ERROR LEVEL 6 is reached, the needle part is abnormal, and the process goes to step 201 ( When the timer has not reached the set value, the solenoid valve for initializing the needle 41 is turned on (step 2058 (S.2058)), and thereafter, the process returns to step 2053 (S.2053).
[0027]
Next, looking at the movement table initialization in detail with reference to FIGS. 24 and 25, first, a timer is initialized (step 2061 (S.2061), and then started (step 2062 (S.2062)). It is determined whether or not the Y-axis H / P sensor for detecting the origin is on (step 2063 (S. 2063)), and if YES, the Y-axis drive motor of the moving table 21 stops (step 2064 ( S. 2064)) Then, it is determined whether or not the X-axis H / P sensor for detecting the origin of the X-axis is turned on (step 2065 (S. 2065)). The X-axis drive motor stops (step 2066 (S.2066)), the timer stops (step 2067 (S.2067)), and the planting stops. It is determined whether or not it is the origin position on the Y-axis at which the attaching operation is started (step 2068 (S. 2068)). If YES, the Y-axis drive motor of the moving table 21 stops (step 2069 (S. 2069)) Then, a variable for storing the X-axis movement amount is initialized (step 2070 (S. 2070)), and thereafter, a variable for storing the Y-axis movement amount is initialized (step 2071 (S. 2071)). On the other hand, if step 2068 is NO, the Y-axis drive motor of the moving table 21 rotates forward (step 2072 (S.2072), and the movement amount of the Y-axis is counted (step 2073 (S.2073)). ), And then return to step 2068 (S. 2068).
[0028]
If step 2063 is NO, the process shifts to step 2074 (S. 2074) to determine whether or not the Y-axis limit sensor is ON. If this is YES, the Y-axis drive motor of the moving table 21 stops (step 2075 (S.2075)), and the timer stops (step 2076 (S.2076)). When ERRORLEVEL10 is reached (step 2077 (S.2077)), the process returns to step 201 (S.201) because the Y-axis H / P sensor is abnormal and the Y-axis drive motor is abnormal. When step 2074 is NO, it is determined whether or not the timer has reached the set value (step 2078 (S.2078)). When YES, the process proceeds to step 2075 (S.2075). The Y-axis drive motor of the moving table 21 rotates in the reverse direction (step 2079 (S.2079)), and then returns to step 2063 (S.206 3 ).
[0029]
If NO in step 2065, it is determined whether or not the X-axis limit sensor is ON (step 2080 (S. 2080)), and if YES, the X-axis drive motor of moving table 21 is stopped (step 2081). (S.2081)), the timer is stopped (Step 2082 (S.2082)). When ERROR LEVEL 11 is reached (step 2083 (S. 2083)), the process returns to step 201 (S. 201) because it is abnormal. On the other hand, if step 2080 is NO, it is determined whether or not the timer has reached the set value (step 2084 (S. 2084)). If YES, the process proceeds to step 2081 (S. 2081). Makes the X- axis drive motor of the moving table 21 rotate forward (step 2085 (S.2085)), and then returns to step 2065 (S.2065).
[0030]
Next, the step of planting artificial hair will be described with reference to FIGS. 26 and 27. First, the timer is initialized (Step 2801 (S.2801), and the timer is started (Step 2802 (S.2802)). Then, the solenoid valve in the vacuum generator 32 is turned on (Step 2803 (S.2803)). Next, the solenoid valve in the vacuum generator 33 is turned on (step 2804 (S. 2804)) Then, it is determined whether or not the thread detection sensor 38 for detecting the supplied artificial hair 30 of a predetermined length is on. (Step 2805 (S. 2805)) If YES, the motor (not shown) for driving each bobbin 31 is stopped (Step 2806 (S. 2806)), and the solenoid valve in the vacuum generator 33 is stopped. (Step 2807 (S.2807)), and then the solenoid valve in the vacuum generator 32 stops (Step 2808 (S.2808)). The solenoid that drives the movable guide 36 is turned on, and the movable guide 36 is opened (step 2809 (S.2809)), and then the needle descends as described in detail in Fig. 28 (step 2810 (S.2810)). The solenoid is turned on (step 2811 (S. 2811)), and then the cutter motor 34a is driven (step 2812 (S. 2812)), then the cut solenoid is turned on (step 2813 (S. 2813)), and then the cutting is performed. solenoid from turned off (step 2814 (S.2814)), cut data motor is stopped (step 2815 (S.2815)), the artificial hair 30 is cut to a predetermined length by the cutter 34. then 29 (Step 2816 (S. 2816) Next, the catch solenoid is turned off (step 2817 (S.2817)), the solenoid for driving the movable guide 36 is turned off (step 2818 (S.2818)), the movable guide 36 is closed, and the process returns. If NO in step 2805, it is determined whether the timer has reached the set value (step 2819 (S. 2819)), and if YES, the motor driving each bobbin 31 stops (step 2820). (S.2820)) When the ERROR LEVEL 8 is reached, it is either the absence of the artificial hair 30 on the bobbin 31, the clogging of the hair, or the sensor abnormality (step 2821 (S.2821)). Return to step 2801. If the set value has not been reached in step 2819, Are driven motor allowed to drive the bobbin 31 (Step 2822 (S. 2822)), and returns to step 2805.
[0031]
Looking at the needle descending process in step 2810 in detail with reference to FIG. 28, first, it is determined whether or not a needle position sensor (not shown) is downward (step 2810-1 (S. 2810-1)). , The needle descending solenoid valve in the cylinder 49 stops (step 2810-2 (S.2810-2)), and then returns. If NO, the needle descending solenoid valve in the cylinder 49 is turned on (step 2810-3 (S.2810-3)), and the process returns to step 2810-1 (S.2810-1).
[0032]
Looking at the needle raising process in step 2816 in detail with reference to FIG. 29, first, it is determined whether or not a needle position sensor (not shown) is upward (step 2816-1 (S. 2816-1)). At this time, the needle rising solenoid valve in the cylinder 49 is stopped (step 2816-2 (S. 2816-2)), and thereafter, the routine returns. If NO, the needle raising solenoid valve in the cylinder 49 is turned on (step 2816-3 (S. 2816-3)), and the process returns to step 2816-1 (S. 2816-1).
[0033]
Next, looking at the sheet-in process in step 6 in detail with reference to FIG. 30, first, a variable for storing the rotation amount of the sheet-in roll 27 is initialized (step 61 (S.61)), and then the sheet slack sensor is set. It is determined whether or not No. 29 is on (step 62 (S. 62)). If YES, the roll drive motor 15 of the base supply unit 1 stops (step 63 (S. 63)). The roll drive motor 15 is driven, and the process returns to step 62. Next, it is determined whether or not the rotation amount of the sheet-in roll 27 is a predetermined winding time (step 65 (S.65)). If YES, the sheet-in motor 27a that drives the sheet-in roll 27 is stopped. (Step 66 (S.66), then returns. If NO in step 65, the sheet-in motor 27a is driven (step 67 (S.67)), and the pulse counter rotates the sheet-in roll 27. Is counted (step 68 (S. 68)), and thereafter, the process returns to step 62.
[0034]
Next, looking at the sheet-out normal rotation process in step 7 in detail with reference to FIG. 31, first, the number of normal rotations of the sheet-out roll 28 is initialized (step 71 (S.71)). Next, it is determined whether or not the number of forward rotations of the sheet out roll 28 is a predetermined value (step 72 (S.72)), and if YES, the drive motor 28a of the sheet out roll 28 stops (step 73 (S. 72)). 73), and when the answer is NO in step 72, the drive motor 28a of the sheet out roll 28 rotates forward (step 74 (S.74)), and then the rotation amount is counted (step 75 (S75)). S.75)), and then returns to step 72. Thus, the operations of A to C in FIG.
[0035]
Next, looking at the sheet-out reversing process in step 18 in detail with reference to FIG. 32, first, the number of reversals of the sheet-out roll 28 is initialized (step 181 (S.181)). Next, it is determined whether or not the number of reverse rotations of the sheet out roll 28 is a predetermined value (step 182 (S.182)), and if YES, the drive motor 28a of the sheet out roll 28 stops (step 183 (S. 182)). If step 182 is NO, the drive motor 28a of the sheet out roll 28 rotates in the reverse direction (step 184 (S. 184)), and the rotation amount is counted (step 185 (S. 184)). 185)), and then return to step 182. Thereby, the operation of D in FIG.
[0036]
Next, the discharging process of step 24 will be described in detail with reference to FIG. First, it is determined whether the Y-axis H / P sensor is on and whether the X-axis H / P sensor is on (step 241a (S.241a), step 241b (S.241b)). ). If this is the case, the Y-axis drive motor of the moving table 21 stops (step 242a (S.242a)), and the X-axis drive motor of the moving table 21 stops (step 242b (S.242b)). If this is NO, the Y-axis drive motor of the moving table 21 rotates reversely (step 243a (S.243a)), returns to step 241a, and the X-axis drive motor of the moving table 21 rotates forward (step 243b ( S.243b)), and returns to step 241b. Next, the pulse counter is initialized, and the Y-axis movement amount is set to “0” (step 244 (S.244)). Next, it is determined whether or not the amount of movement of the Y axis has reached a specified position (step 245 (S.245)). If this is the case, the Y-axis drive motor of the moving table 21 stops (step 246 (S.246)). If NO, the Y-axis drive motor of the moving table 21 rotates forward (step 247 (S.247)), and then counts the amount of movement (step 248 (S.248)), and then returns to step 245. Next, the process proceeds to the sheet-out normal rotation process (FIG. 31) (step 249 (S.249)), and then proceeds to the tensioner initialize process (FIGS. 21 and 22) (step 250 (S.250)). Next, the rotation amount of the sheet out roll 28 is initialized (step 251 (S. 251)), and it is determined whether or not this is a set value (step 252 (S. 252)). The sheet-out motor 28a that drives the roll 28 stops (step 253 (S.253)), and then returns. If NO in step 252, the sheet-out motor 28a rotates forward (step 254 (S.254)), counts the amount of movement on the sheet discharge side (step 255 (S.255)), and then returns to step 252.
[0037]
According to the above-described embodiment, the following operations and effects are obtained. First, since the flocking process A, the first adhesive applying process B, the cutting process C, the forming process D, and the second adhesive applying process E by the flocking machine main body were provided on one line in the above order, the wig was conventionally a manual wig. The production can be an integrated line production by machine. Thereby, there is an effect that wig production is remarkably speeded up and efficient.
[0038]
In addition, a wig (in this case, a flat wig that does not go through the molding process D) was created by the line manufacturing, regardless of the individual order, and the wig was adapted to the individual client's head when the order was placed. It can be formed into a three-dimensional shape. This is because the base 11 is made of an extremely thin material, so that post-processing after the flocking process A is free, which has the effect of expanding the range of applications.
[0039]
Further, the traction relationship between the width W of the needle 41 and the planting pitch P is divided. That is, in the natural state, human hair often grows at an interval of 1 mm or less, usually about 0.5 mm. Therefore, it is desirable that the hair is also implanted in the wig at 1 mm or less, for example, at about 0.5 mm. By the way, in order to set the planting pitch to about 0.5 mm, unless the width of the needle 41 is considerably smaller than 0.5 mm, the needle holes penetrated through the base are continuous, so that the hair cannot be planted. On the other hand, the width W of the needle 41 is inevitably about 1 mm or more with the current technology and the material, and if the width W of the needle 41 is reduced to about 0.5 mm, the needle breaks or bends and the trouble increases. There is a relationship to do.
[0040]
However, since the base 11 is made of a woven cloth, it is in an expanded state when tension is applied. In this stretched state, the pitch width P (2 mm in the embodiment) is larger than the width W (1 mm in the embodiment) of the needle 41 in the direction orthogonal to the feeding direction of the artificial hair 30, so that it accompanies planting. Needle holes are not continuous. In addition, even if the planting pitch P is doubled from the width W of the needle 41, the planting pitch P is reduced by half due to the contraction of the base 11 when the extended state of the base 11 is released after the completion of the planting process (about 0.5 mm in the embodiment). And the planting pitch P in a desirable state. Therefore, mechanization becomes possible, whereby the wig can be manufactured quickly and the occurrence of defective products can be prevented. In addition, since the base 11 is made of a woven cloth, it has air permeability, and prevents stuffiness when adhered to a human body such as a head.
[0041]
Moreover, since the planted artificial hair 30 is flowed in the opposite direction of the needle 41 by the flow hair part 5, the planted hair can be planted without any obstacles on the planting surface at the time of flocking. Therefore, the planted artificial hair 30 and the next artificial hair 30 do not become entangled with each other, and the operation is performed smoothly.
[0042]
The artificial hair 30 is not limited in length like human hair and can be continuously supplied in an endless manner. Are continuous without being divided, which contributes to quicker operation.
[0043]
In addition, since the artificial hair 30 has a plurality of colors and materials, a special wig such as a wig mixed with white hair and an all-weather wig that is resistant to water and moisture can be manufactured quickly and easily.
[0044]
Further, since the movement of the moving table 21 and the needle 41 is performed by a control means such as a computer, not only a straight stitch but also a zigzag stitch, for example, can be performed for the method of planting the hair, that is, the method of sewing the artificial hair 30 to the base 11, and it is more difficult to pull out. Hair transplantation becomes possible.
[0045]
The present invention is not limited to the above embodiment. For example, the degree of tension on the base 11 can be changed in accordance with the degree of expansion and contraction of the material of the base 11, whereby the planting pitch P can be set arbitrarily.
[0046]
The material constituting the base 11 is desirably a resin fiber, but is not limited thereto, and may be made of a vegetable fiber, a mineral fiber, or the like.
[0047]
The artificial hair 30 may be planted on the base 11 in an oblique direction.
[0048]
In addition, the length of the artificial hair 30 can be arbitrarily changed according to the design by management of a computer.
[0049]
The moving means for feeding the artificial hair 30 into the pipe 35 may be other than a vacuum generator.
[0050]
Alternatively, as shown in FIG. 15, the movable guide 36 and the fixed guide 37 may be movable in the direction of the needle 41, and the movable guide 36 and the fixed guide 37 themselves may be moved to the needle 41 side after the needle 41 descends. In such a case, it is not necessary to provide the pressing piece 47 and the receiving block 48 for holding down the artificial hair 30, which contributes to simplification of the device.
[0051]
The supply of the artificial hair 30 may be singular or plural.
[0052]
Further, the wig may be commercialized as a flat shape, or may be commercialized into a predetermined three-dimensional shape.
[0053]
In addition, since the wig manufactured by the present invention has an extremely thin base 11, the wig can be applied not only to the direct attachment to the head but also to, for example, an actor's wig. In this case, it is used by attaching it to a separately prepared thick base material (here, one that is formed only in a three-dimensional shape without artificial hairs 30 so as to correspond to the head of the adherend).
[0054]
If the direction of movement of the needle 41 is a direction perpendicular to the artificial hair 30, the needle 41 can be installed so as to be movable, for example, left and right.
[0055]
【The invention's effect】
As described above, according to the fully automatic wig manufacturing machine and the wig manufacturing method according to the present invention, there is an effect that the wig can be manufactured quickly, and the occurrence of defective products can be prevented and the wig can be manufactured efficiently. .
[Brief description of the drawings]
FIG. 1 is a conceptual diagram schematically showing a process flow, showing an embodiment of an automatic hair transplanter for producing a wig according to the present invention.
FIG. 2 is a schematic front view illustrating an example of a base supply unit according to the present invention.
FIG. 3 is a view showing an example of a tension / positioning unit according to the present invention, wherein A is a schematic plan view, B is a schematic front view, and C is a schematic plan view of a main part.
FIG. 4 is a schematic perspective view showing an example of a hair color selection and cutting unit, which is a part of the artificial hair supply unit according to the present invention.
FIG. 5 is a view showing an example of a flocking portion according to the present invention, wherein A is a schematic perspective view of the entirety, B to D are schematic perspective views of main parts, and E and F are schematic front views of main parts .
FIG. 6 shows an example of a needle used for a flocked portion, wherein A is a front view thereof, and B is a partially enlarged view of AA.
FIG. 7 is a schematic side view showing an example of a hair flow portion according to the present invention, wherein A is a state immediately after the artificial hair is pulled up by the needle, B is a state detached from the needle, and C is an artificial hair base. Shows a state of lying on top.
FIG. 8 shows an example of a solenoid valve used in a fully automatic wig manufacturing machine according to the present invention, wherein A is a schematic perspective view and B is a circuit diagram.
FIG. 9 is a diagram (schematic side view) for explaining how to apply tension on the base.
FIG. 10 is a schematic front view showing a step of supplying artificial hairs of the flocking portion according to the present invention.
11A and 11B are diagrams showing a lowering step of the flocking portion according to the present invention, wherein A is a schematic front view thereof, and B is a left side view thereof.
FIGS. 12A and 12B are diagrams showing a process of raising the flocking portion according to the present invention, wherein A is a schematic front view, and B is a left side view thereof.
FIG. 13 is a diagram showing a state where artificial hairs are planted on a base.
FIG. 14 is a diagram (schematic plan view) for explaining a process following the flocking process.
FIG. 15 is a plan view of a main part showing another embodiment of the flocking portion according to the present invention.
FIG. 16 is a flowchart (partly) showing an automatic flocking method by the flocking machine body of the fully automatic wig manufacturing machine according to the present invention.
FIG. 17 is a flowchart (part) showing an automatic flocking method by the flocking machine main body of the fully automatic wig manufacturing machine according to the present invention.
FIG. 18 is a flowchart (part) showing an automatic flocking method by the flocking machine main body of the fully automatic wig manufacturing machine according to the present invention.
FIG. 19 is a flowchart showing each unit initialization process of FIGS. 16 to 18;
FIG. 20 is a flowchart showing a roll initialization step in FIG. 19;
FIG. 21 is a flowchart (part) showing a tensioner initializing step in FIG. 19;
FIG. 22 is a flowchart (part) showing a tensioner initializing step in FIG. 19;
FIG. 23 is a flowchart showing a needle initialization step of FIG. 19;
FIG. 24 is a flowchart (part) showing a moving table initialization process in FIG. 19;
FIG. 25 is a flowchart (part) showing a moving table initialization step in FIG. 19;
FIG. 26 is a flowchart (part) showing the planting process of FIGS. 16 to 18;
FIG. 27 is a flowchart (part) showing the planting step of FIGS. 16 to 18;
FIG. 28 is a flowchart showing a needle descending step of FIGS. 26 and 27.
FIG. 29 is a flowchart showing a needle raising process of FIGS. 26 and 27.
FIG. 30 is a flowchart showing a sheet-in process shown in FIGS. 16 to 18;
FIG. 31 is a flowchart showing a sheet-out (forward rotation) in FIGS. 16 to 18;
FIG. 32 is a flowchart showing the sheet-out (reverse rotation) in FIGS. 16 to 18;
FIG. 33 is a flowchart showing the discharge processing steps of FIGS. 16 to 18;
[Explanation of symbols]
1 Base Supply Unit 11 Base 13 Sheet Roll 15 Motor 17 Sheet Roll Holder 2 Tension / Positioning Unit 21 Moving Table 23 Tensioner 24 Tension Nip Roll 25 Tension Nip Roll 26 Tension Motor 27 Sheet In Roll 27a Sheet In Roll Motor 28 Sheet Out Roll 28a Sheet Out Roll motor 29 Sheet slack sensor 3 Artificial hair supply unit 30 Artificial hair 30a Base end 31 Bobbin 31A Bobbin 31B Bobbin 31C Bobbin 31D Bobbin 32 Vacuum generator 33 Vacuum generator 34 Cutter 34a Cutter motor 35 Pipe 36 Movable guide 37 Fixed guide 38 Thread detection sensor 39 Air compressor 39a Solenoid valve 4 Flocked portion 41 Needle 41a Needle 41b Needle 42 Head 43 Head end 44 Base end 45 Hook 45a Outside Surface 45b Inner surface 45c Needle groove 46 Needle arm 47 Pressing piece 48 Receiving block 49 Cylinder 5 Flurry portion 51 Blower 52 Static electricity generator 52a Belt 52b Motor 6 First adhesive application section 61 First adhesive 62 Tank 63 Nozzle device 7 Cutting unit 71 Cutter device 8 Molding unit 81 Molded body 9 Second adhesive application unit 91 Second adhesive 92 Tank 93 Nozzle device G ₁ gap G ₂ gap T ₁ slack T ₂ slack W Needle width A flocking process B first bonding Agent applying step C Cutting step D Molding step E Second adhesive applying step

Claims (17)

It has a base supply unit for supplying an ultra-thin base to the tension / positioning unit, and a movable table that is movable in a two-dimensional orthogonal direction and is moved at a predetermined pitch in a predetermined order. Then, a tension / positioning portion for positioning the base in the extended state of the base, an artificial hair supply portion for supplying artificial hair to the back side of the base, and a needle movable in a direction perpendicular to the surface of the base. A hair implantation part for penetrating the needle through the base in the extended state, pulling up the artificial hair to the surface side of the base by the needle, and implanting the artificial hair,
The planting of the artificial hair is repeated at a predetermined pitch, and after the planting is completed, the base of the hair transplanter that releases the extended state of the base, and the first adhesive applied to the back surface of the base to fix the planted artificial hair to the base. (1) an adhesive applying section, a cutting section for cutting the base provided with the first adhesive into a predetermined shape, a forming section for forming the cut base into a predetermined shape, and the formed base A fully automatic wig manufacturing machine comprising a second adhesive applying section for applying a second adhesive to a back surface of a base for bonding to a human body. In claim 1 Fully Automatic wig manufacturing machine described in the full-automatic wig making machine, characterized in that said base is a weaving thereof. 2. A fully automatic wig manufacturing machine according to claim 1, wherein said needle is provided with a needle groove for engaging said artificial hair in a direction orthogonal to a direction of feeding the artificial hair. 2. A fully automatic wig manufacturing machine according to claim 1, wherein two of said needles are installed with a predetermined gap in a direction of feeding the artificial hair. 2. A fully automatic wig making machine according to claim 1, wherein said planting pitch is larger than a width of a needle in a direction orthogonal to a feeding direction of the artificial hair. 2. The fully automatic wig manufacturing machine according to claim 1, wherein the planting of the artificial hair is performed when the base moves in a direction orthogonal to the feeding direction of the artificial hair. 2. The fully automatic wig manufacturing machine according to claim 1, wherein the planting of the artificial hair is performed when the base moves in a direction of feeding the artificial hair. 2. The fully automatic wig manufacturing machine according to claim 1, wherein the artificial hair is planted on the base in an oblique direction. 2. The fully automatic wig manufacturing machine according to claim 1, wherein the movement of the moving table and the movement of the needle are performed by control means including a computer. 2. The fully automatic wig manufacturing machine according to claim 1, wherein the artificial hair supply unit is plural. 2. A fully automatic wig manufacturing machine according to claim 1, further comprising: a flow hair portion for flowing the planted artificial hair in a direction opposite to a needle. 12. The fully automatic wig manufacturing machine according to claim 11, wherein the flow hair portion comprises a member that blows air from a needle side to a non-needle side. 12. The fully automatic wig manufacturing machine according to claim 11, wherein said hair bristle portion is made of a member that sucks vacuum from a side opposite to the needle. 12. The fully automatic wig manufacturing machine according to claim 11, wherein the hair bristles are formed of an electrostatic generator provided on the opposite side of the needle. 2. The fully automatic wig manufacturing machine according to claim 1, wherein two devices for transferring the artificial hair in the artificial hair supply unit are connected in series. 2. The fully automatic wig manufacturing machine according to claim 1, wherein the flocking machine main body, the first adhesive applying section, the cutting section, the forming section, and the second adhesive applying section are provided on one line in the above order. Fully automatic wig making machine. A needle that extends the ultra-thin base supplied on the moving table, positions the base in this extended state, and penetrates the artificial hair supplied to the back side of the base in the extended state through the base. In order to fix the artificial hair to the base, the artificial hair is planted to the surface side of the base, and the planting of the artificial hair is repeated at a predetermined pitch. A first adhesive application step of applying a first adhesive to the back surface of the base, a cutting step of cutting the base to which the first adhesive has been applied into a predetermined shape, and Forming a shape into a shape, and then applying a second adhesive to the back surface of the base to adhere the formed base to a human body. Method of manufacturing a wig to butterflies.

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