KR100924680B1 - A wave permanent for hair volume heating body and the manufacturing method - Google Patents

Abstract

PURPOSE: A hair volume heating body for wave permanent and a manufacturing method for the same are provided, which achieve uniform wave curl power and light weight. CONSTITUTION: A manufacturing method of hair volume heating body for wave permanent comprises a winding member uniform heat distribution forming process(P1) that a uniform heat distribution member is insert-injected; a film heater fixed forming process(P2) for fixing a film heater fixed in the outer circumference between the both sides protruding wheels; a thermal mixture air layer formation process(P3) for forming a thermal mixture air layer between the uniform heat distribution member and film heater; and an fixation process(P4) for fixing the thermal mixture air layer.

Description

A wave permanent for hair volume heating body and the manufacturing method

The present invention relates to a hair winding heating element for applying heat energy to hair to make it a perm, and more particularly, to improve a good perm by allowing the hair winding member to be in direct contact with the hair being wound and having a uniform temperature. The present invention relates to a hair winding heater for a wave perm and a method of manufacturing the same.

In general, a wave perm is a perm using a wave perm device such as hair iron for hair perm or hair rod.

In the wave permeation device, the hair iron has a hair winding heating body which winds the hair to impart thermal energy to become a perm, and the hair rod itself may be referred to as a hair winding heating body.

Such a hair winding heating body generates heat energy by electric energy so that heat energy emitted to the outside is transferred to the hair so that the hair becomes a wave perm to have a curved shape.

Therefore, the hair winding heating body is manufactured to have a heating element for generating thermal energy by electric energy and to be embedded in the permeation mechanism.

In addition, since the hair winding heater is for wave perm, the hair winding member in direct contact with the hair has a circular shape, and an electric heating element that generates heat energy has been mainly used in a rod heater or a plate heater.

Therefore, the electric heating element is arranged so that the electric heating element is located at the center of the hair winding member in order to distribute heat evenly to the outer circumferential surface of the circular hair winding member, but it takes a long time for the heat energy to be transferred from the electric heating element at the center to the hair winding member. Not only has this resulted, but also has the disadvantage that the weight of the permanent instrument is heavy.

The above disadvantages not only caused the perm treatment time to be long, but also caused the problem of having to perform a perma treatment very hard for a practitioner (cosmetician) who had to perform perma for a long time with a heavy hair iron because the perma instrument was heavy. In the case of permarod, a heavy permarod should be suspended by the operator (customer) for a long time, causing inconvenience.

Therefore, a wave perm mechanism employing a film heater (or also called a heating film) has been disclosed for lightening the wave perm mechanism, and US Patent No. 4697066 and Korean Patent No. 0478672 are disclosed as prior art.

The prior art has a film heater in the barrel or the heating rod in which the hair is wound so that the thermal energy is transferred to the barrel or the heating rod so that the thermal energy can be transferred to the hair wound on the barrel or the heating rod. Since only one product name is different, the waveper mechanism has substantially the same structure.

Therefore, since the barrel or the heating rod as the wave permeable mechanism has a cylindrical tubular shape and the hair is directly wound to be a perm, the following description will be referred to as a hair winding heating body.

Therefore, the hair winding heaters of the prior art have a structure in which a film heater that generates heat energy together inside has the advantage that the waveper mechanism can be lighter, but damage of the hair itself becomes a perm. Not only resulted in a fatal drawback to increase the non-uniform wave curling force caused a disadvantage.

Therefore, the applicant found out the cause and found out through experiments that the cause comes from the film heater.

In detail, in the film heater 10 employed in the wave permeation mechanism, power is applied to both end contact ends of the resistor 12 arranged inside the resin film member 11 as shown in FIG. 1, so that the resistor 12 generates heat. By doing so, the heat energy will be generated.

However, since the resistors 12 are arranged in a zigzag manner, as shown in FIG. 2, the non-contact parts (a) in which the resistors 12 are directly contacted in the hair winding member 20 and the resistors 12 are not in contact with each other ( It was found that the temperature difference with b) appears. For the sake of understanding, for example, the hot water pipes that are buried in the floor heating by the hot water pipes will not only heat faster than the hot water pipes but also the temperature difference will be different even after long time heating. The same reason can be said.

Therefore, since the temperature transmitted to the hair (H) in each portion of the hair winding member 20 is found to be a poor perm due to the difference in the permanent temperature on the hair (H).

For the sake of understanding, the hair (H) subjected to permalysis by the wave permeation device is cut into the cuticle (Ha) and the cortex (Hb) and in the center as shown in FIG. It consists of (medulla) (Hc), the cuticle (Ha) is located on the outermost of the hair (H) is superimposed like a scaly or tiled roof, but because it does not have a melanin pigment, it is a translucent material.

The cortex (Hb) is located inside the cuticle (Ha) and occupies 85-90% of the volume of the hair. The components of the cortex (Hb) are carotene proteins, intercellular hepatitis, cortical cells, and water. Cortical cells are composed of cells in the form of fibrous bundles. Since the cortex (Hb) is hydrophilic and contains a melanin pigment, it is also the most affected by permeability.

And the nutrients of the hair, which can be regarded as a nutritional component of the hair, appear differently depending on the amount of hair. That is, in addition to maintaining proper moisture and elasticity to the hair, it can be said to be an element to be formed in the state of the elastic wave perm, and it is very difficult to recover again after hepatitis is lost by chemical and physical causes. The medulla (Hc) is located in the center of the hair (H) and is hardly found in fluffy or thin hair, and is mainly found only in thick hair (H), and there are some melanin pigment particles.

The principle of perma for hair with such a component is to change the tissue of the hair (H) by the action of heat or chemicals to artificially form wave curls. The cuticle (Ha) of the hair (H) is softened with) so that the cuticle (Ha) is cracked and the cortex (Hb) is externally affected as shown in FIG. Then, the permanent medicine is washed and removed, and the hair (H) is dried and then secondaryly treated.

Next, the wave curl is artificially formed by the wave permeation device and the heat energy emitted therefrom, and the protein component of the cortex (Hb) hardens easily when subjected to heat. As described above, the heat curls are formed as the protein is hardened in the curled state of the hair H by receiving thermal energy in the curled state of the hair winding member 20 of the wave permeable device.

Next, it becomes perma by the procedure which restores the cuticle (Ha) divided by the neutralizing agent (second agent) to the original state like FIG. 3 (a), and the cortex (Hb) of a protein component As the cuticle (Ha), which was split and hardened, becomes filled, the perm is maintained so that the wave curl state is maintained.

However, when the perm treatment is performed by the wave permeation mechanism, as shown in FIG. 2, the contact portion (a) portion through which the thermal energy of the resistor 12 is directly transmitted not only has a high heat transfer speed and a high temperature, but also has a high temperature, while the non-contact portion is not. (b) shows that the hair (H) wound on the non-contact part (b) is wound on the non-contact part (b) because the heat transfer speed, time and temperature are low, and thus the hair (H) wound on the contact part (a) receives heat energy faster. ) Is relatively slow to receive heat energy, while the contact portion (a) is perm at a high temperature and the non-contact portion (b) is perm at a relatively low temperature.

Therefore, in the hair surface (Hb) of the hair (H), which receives heat energy at the contact portion (a) of the hair winding member (20), and in the hair surface (Hb) of the hair (H), which receives heat energy in the non-contact portion (b). There is a difference in the amount of water outflow. That is, a large amount of water flows out of the hair surface (Hb) of the hair (H), which is subjected to high temperature heat energy, while in the hair surface (Hb) of the hair (H), which is subjected to a relatively low temperature thermal energy, A quantity of water will flow out.

Since the hair is in the state of elastic wave perm only when the proper moisture is maintained, the more moisture is released from the surface (Hb) of the hair (H) during the thermal perm treatment, the rougher and higher the damage is. As the perm treatment time given to H) is shorter and the perm temperature is lower, the degree of hair damage decreases.After the operator measures the degree of damage to the hair (H), it is usually about 7-15 minutes in the perm temperature range of 120-160. According to the degree of hair damage, the operator decides the perm temperature and time to perform perm treatment.

Therefore, a large amount of water flows out of the hair surface (Hb) of the hair (H), which receives high temperature heat energy, while in the hair surface (Hb) of the hair (H), which receives relatively low temperature thermal energy. Since a small amount of moisture is leaked out, for example, when a condition of receiving high temperature heat energy is performed on the basis of the permer temperature and the perm time, the heat perm time is shortened and heat energy is received at the contact portion (a) in FIG. 2. The damage of the hair (H) can be reduced, but the hair (H) located in the non-contact portion (b) can not receive heat energy for a sufficient time required for the perm, so the protein component of the hair surface (Hb) is not completely hardened. Since curling force is reduced, there is a problem in that the curling force is a perm in a non-uniform state.

On the contrary, when the condition of receiving relatively low temperature thermal energy is performed on the basis of the permer temperature and the perm time, the thermal matrix time is sufficient, and thus, in the case of hair (H) receiving thermal energy at the non-contact part (b) in FIG. Since the protein component of (Hb) is completely hardened, the wave curling force is improved, but in the case of hair (H) located in the contact portion (a), a large amount of water is released from the hair surface (Hb), so that the hair (H The roughness and stiffness) causes hair (H) and curling force of the non-contact portion (b) to be not uniform, as well as a problem of high damage.

Therefore, according to the above-described prior art, even a high-skilled person as well as a non-skilled person has a problem in that the perm operation cannot be performed to have a uniform wave curl force.

On the other hand, the Republic of Korea Patent Publication No. 10-0618284 and the Utility Model Registration No. 20-0338803 No. 20-0338803 has been disclosed as another prior art, but these also do not solve the disadvantages and problems as described above.

In Patent Registration No. 10-0618284, a film heater fixing member is used, but this is a means for installing a bimetal having a function of preventing overheating, and serves only to close and fix the film heater to the inner surface of the hair winding member (rod). This does not solve the above problem.

Literature Information of the Prior Art

[Reference 1] US 4,697,066 B1 1987.09.29

[Document 2] KR 10-0478672 B1 2005.03.23

[Document 3] KR 20-0338803 Y1 2004.01.24

[Document 4] KR 10-0618284 B1 2006.08.31

[Document 5] KR 10-0850559 B1 2008.08.06

It is an object of the present invention to provide a hair winding heater for a wave perm and a method for manufacturing the same, which can achieve a light weight and at the same time obtain a uniform wave curl force, and even a non-skilled person can be subjected to a good perm procedure.

The present invention provides a winding member uniform heat distribution forming process of the first process to provide a uniform heat distribution member for inserting the heat injection into the hair contact surface on the inner circumferential surface of the hair winding member having an inner hole so as to eject the insert; A film heater floating forming process of a second process having a protrusion having a core member on both sides and allowing the film heater to be floatingly attached by an elastic double-sided tape to an outer circumferential surface between the both protrusions; A thermally mixed air layer forming process of a third step of inserting a core member having a film heater into the inner winding of the hair winding member to provide a thermally mixed air layer between the uniform heat distribution member and the film heater; A method of manufacturing a hair winding heating element for a wave perm comprising a fixing process of a fourth process for attaching both inner circumferential surfaces of the hair winding member and both protrusions of the core member to fix the heat-mixed air layer so as not to be lost. .

In another aspect, the present invention provides a heater uniform heat distribution forming process of the first process of attaching a uniform heat distribution member to one side of the film heater to absorb the heat energy of the film heater so that the entire temperature is at a boiling temperature so that the heat is released; A film heater floating forming process of a second process for attaching the film heater having the uniform thermal distribution member to the outer circumferential surface between the two wheels of the core member by means of elastic double-sided tape; A heat mixing air layer forming process of a third step of inserting the core member having the uniform heat distribution member and the film heater into the inner hole of the hair winding member to provide a heat mixed air layer between the uniform heat distribution member and the inner circumferential surface of the hair winding member; The method of manufacturing a hair winding heater for a wave perm comprising a fixing process of a fourth process for attaching both inner circumferential surfaces of the hair winding member and both protrusions of the core member to fix the heat mixed air layer so as not to be lost. .

Another feature is that the uniform heat distribution member is attached to one side of the film heater by a double-sided tape.

After the thermosetting adhesive is applied to one side of the film heater, the powder constituting the uniform heat distribution member is applied to provide a uniform heat distribution member.

In another aspect, the hair winding member and the core member are formed of a resin to be fixed by ultrasonic welding of both inner circumferential surfaces and the protrusion wheel.

And the present invention is to heat the heat energy generated in the film heater is transferred to the hair contact surface of the hair winding member to give heat energy to the hair to be a wave perm; A hair winding member having a uniform heat distribution member fixed to an inner circumferential surface to uniformly distribute thermal energy of the film heater to the hair contact surface; A core member to which the film heater is floated and attached to an outer circumferential surface between both side wheel portions by an elastic double-sided tape; A thermally mixed air layer inserted between the uniform heat distribution member and the film heater by inserting the core member into the inner hole of the hair winding member; It characterized in that the hair winding heater for wave perm which is fixed to both inner peripheral surface of the hair winding member and both side wheel portion of the core member so that the heat-mixed air layer is not lost.

In addition, the present invention is to heat the heat energy generated in the film heater is transferred to the hair contact surface of the hair winding member to give heat energy to the hair to be a wave perm; A film heater configured to attach a uniform heat distribution member to one side in order to absorb heat energy of the film heater so that the entire temperature becomes boiling and heat is released; A core member to which the film heater having the uniform heat distribution member is floatingly attached to the outer circumferential surface between the two wheels by elastic double-sided tape; A thermally mixed air layer inserted into the inner hole of the hair winding member to be provided between the uniform heat distribution member and the inner circumferential surface of the hair winding member; It is another feature that both the inner peripheral surface of the hair winding member and the both side protrusions of the core member are fixed so that the heat-mixed air layer is not lost.

The uniform heat distribution member is characterized in that it is attached to one side of the film heater by a double-sided tape.

The uniform heat distribution member is characterized in that the powder constituting the uniform heat distribution member is attached to be provided by a thermosetting adhesive applied to one side of the film heater.

The uniform heat distribution member is characterized in that any one of stainless, aluminum, carbon material.

The uniform heat distribution member is characterized in that the other made of a thickness of 0.05-0.1mm.

The heat-mixed air layer is characterized in that it is another width made of 0.05-1mm.

It is another feature that both inner circumferential surfaces of the hair winding member and both protrusions of the core member are made of resin and fixed by ultrasonic fusion.

Another feature of the present invention is to provide a temperature sensing sensor inserted into the sensor groove into one end of the film heater attached to the core member and fixed by a copper tape to sense the temperature of the film heater.

In the present invention, since the temperature of the hair contact surface of the hair winding member is uniformly heated, since the moisture of numerous hairs is uniformly discharged without being differentiated, the curling force is not only uniformly perming after the perm treatment, but also hair damage. It provides an effect that allows the procedure to be reduced as much as possible.

In addition, the present invention has the effect that the hair stiffness of the hair stiffness is prevented in advance because not only the normal heating but also the normal temperature is heated after the hair is preheated at the beginning of the procedure.

In addition, since the wave curl force is uniform and can reduce the degree of hair damage, the non-skilled person is also good and has the effect of promoting a good quality permanent treatment.

In addition, light weight film heaters are used, and the components that make good quality permanent treatment are also light, so that the light-permeable hair winding heater is lightened, so that the permeable mechanisms that are adopted are lightened, and thus easy permeation is possible. It will be able to do a more excellent quality of the perm but also the effect.

Hereinafter, the present invention will be described in detail with reference to the accompanying drawings.

4 to 7 show one embodiment of the present invention, Figure 4 shows a manufacturing process showing the manufacturing method of one embodiment.

4, the present invention has a winding member uniform heat distribution forming process (S1) as a first process. The winding member uniform heat distribution forming process (S1) is carried out in the process of manufacturing the hair winding member 120.

The hair winding member 120 is injection-molded with a non-conductive resin, and at this time, a structure is formed in the hair winding member 120 to allow thermal energy to be evenly distributed to the hair winding member 120.

Referring to Figure 5 (a), the hair winding member 120 has a circular elongated tubular shape so that the hair (H) is wound around the hair contact surface 121 to be the outer peripheral surface inner hole 122 and the inner peripheral surface 123 is provided.

Therefore, the inner circumferential surface 123 is configured such that the uniform heat distribution member 130 having a long and thin thickness in the longitudinal direction is provided by insert injection when the hair winding member 120 is injection molded.

The uniform heat distribution member 130 is formed of a stainless steel or aluminum and carbon material having a high heat transfer coefficient, and having a thin thickness of 0.05-0.1 is fixed to the inner circumferential surface 123 so as to fix the hair winding heater 100. The total weight can be made not heavy. However, it is desirable to employ the uniform heat distribution member 130 of 0.05 for light product weight and rapid heat distribution.

Next, the present invention is a film heater floating forming process (S2) is carried out as a second process. In the second process, the film heater 10 is fixed at one point in the hair winding heating body 100 but fixed so as not to change its position.

Therefore, the present invention is provided with a core member 140 as shown in Figure 5 (b).

The core member 140 is formed by injection molding of a non-conductive resin so as to have protrusions 141 and 141 'on both sides, and the film heater 10 is formed such that the double-sided tape 13 is deposited on one side thereof. . Since the double-sided tape 13 has heat resistance up to 200, a heating temperature (hereinafter, also referred to as a permer temperature) for the perm is generally 120-160 so that the adhesive force does not decrease or the physical properties of the perm are changed.

The film heater 10 is a resistor made of a conductive metal material by applying power to both end contact ends of the resistor 12 arranged inside the polyimide resin film member 11 as described above with reference to FIG. 1. As (12) generates heat, heat energy is generated.

That is, in the film heater 10, a resistor 12 having a thickness of 0.05 is printed on the polyimide film layer 11a having a thickness of 0.05 from one side and zigzag-printed, and the polyimide layer 11b having a thickness of 0.05 is again formed thereon. By laminating, a thin film heater 10 having a resistor 12 is manufactured in the resin film member 11, and in some cases, a teflon layer is formed instead of the polyimide layers 11a and 11b. May be

Therefore, the double-sided tape 13 having a thickness of 0.02-0.03 is deposited on one side of the film heater 10. Therefore, since the double-sided tape 13 is very thin, the weight of the product can be reduced, and the heat transfer action is not adversely affected.

In addition, the double-sided tape 13 is used to attach the backing paper on one side, and when attaching to the film heater 10, the backing paper is attached to the film heater 10, and then the backing paper is removed and then When the backing paper is detached to the outer surface of the core member 140 by the adhesive surface exposed to the outside is to be attached. However, in some cases, it may be applied by spray spraying.

Therefore, when the film heater 10 is wound around the core member 140, the film heater 10 is adhered to and fixed to the core member 140 by the double-sided tape 13 as shown in FIG. 6. The heater 10 is fixed to a state in which the heater 10 is in close contact with the outer circumferential surface of the core member 140 so as not to move.

In the present invention, the power line wired to the film heater 10 is wired to either side of both sides of the hair winding member 120 through one side of the core member 140, and since such a wiring structure is already known, here Detailed drawings and descriptions will be omitted.

Next, the present invention is a thermal mixing air layer forming process (S3) is carried out as a third process.

The third process is a process of inserting the core member 140 having the film heater 10 into the inner hole 122 of the hair winding member 120 to be coupled as shown in FIG.

When the core member 140 is inserted into the inner hole 122, the wheel wheels 141 and 141 ′ are in close contact with the inner hole 122, and the heat mixed air layer 110 is disposed between the uniform heat distribution member 130 and the film heater 10. Will form. The thermally mixed air layer 110 is provided to form a 0.2-1 interval, but preferably has a width of 1.

Next, the fixing process (S4) is carried out as a fourth process. This process is to irradiate the ultrasonic wave by an ultrasonic device (not shown) to make the components are fused together.

Therefore, when the fixing process (S4) is completed, as shown in (d) of FIG. 5, the wheel winding parts 141 and 141 'of the core member 140 are fusion-bonded with the hair winding member 120 integrally with each other. In the inner hole 122, the core member 140 is fixed to float without moving at all, and the film heater 10 is fixed to the core member 140 so that the film heater 10 and the uniform heat distribution member 130 are fixed. The heat-mixed air layer 110 between) will not be lost and will exist reliably.

On the other hand, both sides of the hair winding member 120 is to be shielded when the product is formed into a hair iron or permarod, and the electric heater is supplied to the film heater 10 by an on and off switch when using the product. As an example, the operation of one embodiment will be described with reference to FIG. 7.

When the electrical energy is supplied to the film heater 10, the resistor 12 generates heat. At this time, the heat energy generated by the resistor 12, which is arranged evenly in a large number, is transferred to the part without the resistor 12. However, even though it is transmitted in this way, more heat energy is released at the portion where the resistor 12 is located than the portion without the resistor 12.

That is, when the film heater 10 generates heat, heat energy different from each other in the amount of heat is emitted from the portion with and without the resistor 12.

However, the heat energy of the different calories are all released to the heat-mixed air layer 110, so that the air in the heat-mixed air layer 110 becomes a fast heat transfer medium, so that heat energy of different calories is mixed with each other primarily. Since the air of the mixed air layer 110 has the heat quantity of a uniform state as a whole, it becomes the same temperature state.

Therefore, the uniform amount of heat energy of the heat-mixed air layer 110 is transmitted to the uniform heat distribution member 130, so that the temperature of the uniform heat distribution member 130 is heated to the same temperature as a whole, and thus the hair winding member 120 The surface temperature of the hair contact surface 121 of) is to be heated to a uniform temperature as a whole.

Therefore, the hairs (H) to be rolled up and wound on the hair contact surface 121 are all permized at a uniform perm temperature. As described above, the hairs (H) are perm at a uniform perm temperature, so that the hairs are satisfactorily described later.

8 shows that the temperature sensor 150 is additionally provided.

Referring to Figure 8 (a), (b), in the film heater floating forming process (S2) of the second process of the present invention to form a sensor groove 142 on one side of the core member 140 and temperature sensing here After the sensor 150 is inserted, the copper tape 151 is attached to the outside to be fixed.

Then, the film heater 10 is attached to the outside by the double-sided tape 13. Reference numeral 150a denotes an application line of the temperature sensor 150.

In this case, since the temperature sensor 150 is in direct contact with the film heater 10, the temperature sensor 150 can be made to be more accurately detected than before.

9 to 12 show another embodiment of the present invention, Figure 9 shows a manufacturing process showing a manufacturing method of another embodiment.

Referring to FIG. 9, in another embodiment of the present invention, a heater uniform heat distribution forming process P1 is performed as a first process.

The heater uniform heat distribution forming process P1 of the first process is a process of attaching the uniform heat distribution member 130 to the film heater 10 as shown in FIGS. 10A and 10B.

Referring to (a) of FIG. 10, the film heater 10 has a resistor 12 having a thickness of 0.05 printed on the polyimide film layer 11a having a thickness of 0.05 from one side, and is stacked in a zigzag fashion, and again 0.05 thickness on the film heater 10. By stacking the polyimide layer 11b of the thin film heater 10 having a resistor 12 inside the resin film member 11 is manufactured.

Therefore, when manufacturing the film heater 10, the uniform heat distribution member 130 is adhered to one side by a double-sided tape 13 'having a thickness of 0.02 on one side thereof to be integrated.

The uniform heat distribution member 130 is formed of a stainless steel or aluminum and carbon material having a high heat transfer coefficient, and the one having a thin thickness of 0.05-0.1 is used, but the uniformity of 0.05 for weight reduction and rapid heat distribution. It is preferable that the heat distribution member 130 is employed.

10 (b), when manufacturing the film heater 10, a thermosetting adhesive 13 ″ such as melamine resin having a thickness of 0.02 is coated on one side thereof, and a uniform heat distribution member 130 is formed thereon. When the powder of the material to be applied and thermally cured to form a uniform thermal distribution member 130. The manufacturing of the film heater 10 is already known and the curing temperature of the thermosetting adhesive (13 ") is also known technology Detailed description thereof will be omitted, and the thermosetting adhesive 13 "may be used in addition to the melamine resin. Meanwhile, although the uniform thermal distribution member 130 and the thermosetting adhesive 13 "are separately shown in FIG. 10 (b), the powder of the material which forms the uniform thermal distribution member 130 is a thermosetting adhesive 13". It is mixed with and hardened to harden.

Therefore, the uniform heat distribution member 130 is integrally provided on one side of the film heater 10 by the first process. The uniform heat distribution member 130 is made of stainless steel or aluminum and carbon material having a high heat transfer coefficient. What is formed is used and the thickness is manufactured so that the film heater 10 can be bent by having a thin thickness of 0.05-0.1.

Next, the second to fourth processes are carried out. The above processes are performed almost the same as the second to fourth processes of one embodiment, but to clarify the second to fourth processes of another embodiment as follows. same.

As a second process of another embodiment, a film heater floating forming process P2 is performed. In the second process, the film heater 10 is fixed at one point in the hair winding heating body 100 ′ but fixed so as not to change the position.

That is, the second process includes a core member 140 as shown in FIG. 11A and the core member 140 is made of a non-conductive resin so as to include protrusions 141 and 141 'on both sides. The injection molding is configured, and the double-sided tape 13 is deposited on the other side of the film heater 10 opposite to the uniform heat distribution member 130 (see FIG. 10).

Since the double-sided tape 13 has heat resistance up to 200, a heating temperature (hereinafter, also referred to as a permer temperature) for the perm is generally 120-160 so that the adhesive force does not decrease or the physical properties of the perm are changed.

Therefore, the double-sided tape 13 having a thickness of 0.02-0.03 is deposited on the entire other side of the film heater 10, and the double-sided tape 13 is one having a backing paper attached to one side thereof and the film heater 10 ) When the opposite side is attached to the film heater 10, the backing paper is removed and then the backing paper is detached so that it is adhered to the outer circumferential surface of the core member 140 by the adhesive surface exposed to the outside. To make it happen.

Therefore, when the film heater 10 having the uniform heat distribution member 130 is wound on the outer circumferential surface of the core member 140, the film heater 10 is adhered to and fixed to the core member 140 by the double-sided tape 13. The film heater 10 is in close contact with the outer circumferential surface of the core member 140 is fixed in a floating state not to move.

Next, a thermal mixing air layer forming process P3 is performed as a third process.

In the third process, as shown in FIG. 11B, the core member 140 having the film heater 10 having the uniform heat distribution member 130 is inserted into the inner hole 122 of the hair winding member 120. It is the process of being combined.

When the core member 140 is inserted into the inner hole 122, the wheel wheels 141 and 141 ′ are in close contact with the inner hole 122, but between the uniform heat distribution member 130 and the inner circumferential surface 123 of the hair winding member 120. In order to form a thermally mixed air layer 110 in the interval 0.2-1.

Next, the fixing process P4 is performed as a fourth process. This process is to irradiate the ultrasonic wave by an ultrasonic device (not shown) to make the components are fused together.

Therefore, when the fixing process (S4) is completed, as shown in FIG. 5 (d), the protrusions 141 and 141 'of the core member 140 are integrally fused with the hair winding member 120, thereby causing the hair winding member 120 to be fused together. In the inner hole 122, the core member 140 is fixed to float without moving at all, and the film heater 10 is fixed to the core member 140 so that the inner circumferential surface 123 of the hair winding member 120 is fixed. And the heat-mixed air layer 110 between the uniform heat distribution member 130 of the film heater 10 are not lost and are reliably present.

On the other hand, both sides of the hair winding member 120 is to be shielded when the product is formed into a hair iron or permarod, and the electric heater is supplied to the film heater 10 by an on and off switch when using the product. Referring to the operation of another embodiment as follows.

Referring to FIG. 12, when electrical energy is supplied to the film heater 10, the resistor 12 generates heat. In this case, the heat energy generated from the portion of the resistor 12 disposed evenly in the plurality is the resistor 12. Heat is transferred to the part without, but even though it is transmitted in this way, more heat energy is dissipated in the part with the resistor 12 than with the part without the resistor 12.

That is, when the film heater 10 generates heat, heat energy different from each other in the amount of heat is emitted from the portion with and without the resistor 12, but the heat energy of the heat amount different from each other is a uniform heat distribution member 130 Will be delivered.

However, since the uniform heat distribution member 130 is made of a material having a high heat transfer coefficient, different amounts of heat are transferred from the film heater 10 to each part, but the heat is rapidly spread and the heat transmitted rapidly spreads out almost entirely. Primary heat distribution is achieved with boiling temperature.

Therefore, heat energy is transferred from the uniform heat distribution member 130, which has been heat-distributed at an almost boiling temperature, to the heat-mixed air layer 110, whereby the air in the heat-mixed air layer 110 becomes a fast heat transfer medium. Although the heat energy of slightly different heat is transmitted in 130, the air of the heat-mixed air layer 110 has a uniform temperature as a whole as it is mixed with each other.

On the other hand, the air of the heat-mixed air layer 110 is expanded when it is a high temperature, but because the double-sided tape 13 is elastic, it is compressed so that no particular problem occurs.

Therefore, since the heat of the uniform temperature of the heat-mixed air layer 110 is transmitted to the hair winding member 120, the hair contact surface 121 is in a state where the whole thereof is heated to the same temperature, and thus the hair winding member 120 The surface temperature of the hair contact surface 121 is to be heated to a uniform permanent temperature as a whole.

Therefore, the hairs (H) to be rolled up and wound on the hair contact surface 121 are all permized at a uniform perm temperature. As described above, the hairs (H) are perm at a uniform perm temperature, so that the hairs are satisfactorily described later.

Meanwhile, in another exemplary embodiment, the temperature sensor 150 may be additionally provided as shown in FIG. 13.

Even in this case, the sensor heater 142 is formed at one side of the core member 140 in the film heater floating forming process P2 which is the second process, and the temperature sensor 150 is inserted therein, and then the copper tape ( 151 to be fixed by attaching the same as in the case of the embodiment will not be described in detail.

Figure 14 (a), (b) shows a wave permeable mechanism employing the hair winding heating body (100, 100 ') according to the present invention.

14 (a) shows a hair iron for a wave perm employing the hair winding heating body 100 of one embodiment and (b) shows a hair rod employing the hair winding heating body 100 'of another embodiment. will be. The hair rod is also referred to as a heating rod as electrical energy is supplied to one side through a power jack (K).

Although not illustrated in the drawings, the hair winding heater 100 'of another embodiment may be employed in the hair iron for wave perm, and the hair winding heater 100 of the embodiment may be employed in the hair rod. Of course it is.

On the other hand, the components provided to be installed on both sides of the hair winding heater (100, 100 ') in the wave perm device shown in Figure 14 are already known parts, detailed description and description thereof will be omitted.

Therefore, the present invention is a hair contact surface 121 having a long length because the temperature of the hair contact surface 121 (hereinafter also referred to as the permanent temperature) of the hair winding member 120 is uniform when used as the wave permeable mechanism as described above The heat energy transmitted to the hair (H) in contact with the part is to be transmitted at a uniform perm temperature.

Therefore, in the process of artificially forming the wave curl by the wave permeation device and thermal energy emitted therefrom, the hairs (H) can perform perma treatment at the same perm temperature as a whole.

Therefore, since the hairs (H) are perm by the uniform perm temperature, not only the perm is used to have a uniform curling force but also the perm temperature is not uniform before the damaged hair is further damaged. .

In order to facilitate the understanding of the present invention, hair (H), which is in contact with the hair winding member and receives thermal energy, becomes a perm at a high perm temperature and a low perm temperature, respectively. A large amount of water is discharged from the vagina (Hb), while a small amount of moisture is released from the matrix (Hb) of the hair (H), which receives heat energy at a relatively low temperature. If you do not or a long perm time, there was a disadvantage that the hair (H) damage degree is increased, but the present invention is a perm treatment at a uniform perm temperature, so that the perm to have a uniform wave curl force and damage the hair according to the difference in the perm temperature It will be possible to prevent the permalink as much as possible.

Therefore, the present invention not only becomes a good wave perm, but also enables an unskilled person to have a good perm.

In the present invention, since the thermal energy of the film heater 10 is distributed to the hair winding member 130 via the thermal mixed air layer 110 and the uniform heat distribution member 130, the temperature of the hair contact surface 121 at the initial power supply is previously used. It rises more slowly and more slowly when powered down than before. As a result of the initial power supply, the old one was raised 3-4 ° C. first, and when the power was cut, it was confirmed that the temperature of the present invention decreased 3-4 ° C. later.

Therefore, in the past, the hair (H) was rapidly heated, and thus the hair damage degree was increased. However, in the present invention, since the hair (H) wound on the hair contact surface 121 is gradually warmed up and heated, As the temperature rises slowly, hair damage is prevented as much as possible.

In addition, the present invention, since the temperature drops more slowly than before when the power is cut off, since the temperature of the hair (H) is gradually dropped at the time of completion of the procedure, the hair stiffness caused by the rapid drop in the temperature of the hair (H) becomes stiff. This is avoided beforehand.

On the other hand, the present invention is made by containing the ocher component in the hair winding member 120 (see Korean Laid-Open Patent Publication No. 10-2006-0023376) by irradiating anion and far infrared rays to the hair (H) better perm surgery It may be provided so that it can be planned and have an antibacterial and bactericidal effect.

And the present invention has been described by a plurality of embodiments, but may be modified by those of ordinary skill in the art to which the present invention is obviously to be broadly protected without departing from the scope of the claims. .

1 is a configuration diagram of a film heater illustrating the shortcomings of the conventional waveper mechanism,

Figure 2 is a cross-sectional view illustrating the disadvantages of the perm procedure by the conventional wave perm mechanism,

3 is a cross-sectional view of the hair at the time of perm for explaining the conventional disadvantages,

Figure 4 is a manufacturing process of the hair winding heating body of one embodiment according to the present invention,

Figure 5 is a cross-sectional view showing the manufacturing process of the hair winding heating body according to an embodiment of the present invention,

Figure 6 is a cross-sectional side view of the core member in the film heater floating forming process of the present invention,

Figure 7 is an enlarged cross-sectional view of the main portion explaining the operation of one embodiment according to the present invention;

8 (a), (b) is a configuration and one side cross-sectional view of the temperature sensor in one embodiment according to the present invention,

9 is a process of manufacturing a hair winding heating body according to another embodiment of the present invention;

10 is a cross-sectional view of a film heater illustrating a heater uniform heat distribution forming process of another embodiment according to the present invention;

11 is a cross-sectional view showing another manufacturing process of another embodiment according to the present invention;

12 is an enlarged cross-sectional view of a main portion illustrating the operation of another embodiment according to the present invention;

13 is a configuration diagram of the temperature sensor in another embodiment according to the present invention,

14 (a) and 14 (b) show wavepermechanisms according to the present invention.

Explanation of symbols on the main parts of the drawings

10: film heater 13,13 ': double sided tape

100,100 ': Hair winding heater 110: Heat mixed air layer

120: hair winding member 130: uniform heat distribution member

140: core member 150; Temperature sensor

S1: Winding member uniform heat distribution forming process P1: Heater uniform heat distribution forming process

S2, P2: Film Heater Floatation Process S3, P3: Heat Mixed Air Layer Formation Process

S4, P4: Fixing process H: Hair

Claims (14)

A winding member uniform heat distribution forming process according to a first step of having an insert ejecting a uniform heat distribution member for uniformly distributing thermal energy to the hair contact surface on an inner circumferential surface of the hair winding member having an inner hole; A film heater floating forming process of a second process having a protrusion having a core member on both sides and allowing the film heater to be floatingly attached by an elastic double-sided tape to an outer circumferential surface between the both protrusions; A thermally mixed air layer forming process of a third step of inserting a core member having a film heater into the inner winding of the hair winding member to provide a thermally mixed air layer between the uniform heat distribution member and the film heater; And a fourth fixing step of attaching both inner circumferential surfaces of the hair winding member to both side protrusions of the core member to fix the heat-mixing air layer so as not to be lost. A heater uniform heat distribution forming process of a first process of attaching a uniform heat distribution member to one side of the film heater so as to absorb heat energy of the film heater so that the entire temperature becomes boiling and heat is released; A film heater float forming process of a second process for attaching the film heater having the uniform heat distribution member to the outer circumferential surface between both side wheel portions of the core member by means of elastic double-sided tape; A heat mixing air layer forming process of a third step of inserting the core member having the uniform heat distribution member and the film heater into the inner hole of the hair winding member to provide a heat mixed air layer between the uniform heat distribution member and the inner circumferential surface of the hair winding member; And a fourth fixing step of attaching both inner circumferential surfaces of the hair winding member to both side protrusions of the core member to fix the heat-mixing air layer so as not to be lost. 3. The method of claim 2, wherein a uniform heat distribution member is attached to one side of the film heater by a double-sided tape. The method of claim 2, wherein the thermosetting adhesive is applied to one side of the film heater and then the powder forming the uniform heat distribution member is applied so that the uniform heat distribution member is provided. The method of claim 1 or claim 2, wherein the hair winding member and the core member is formed of a resin and the hair winding heater manufacturing method for a wave perm, characterized in that the inner peripheral surface and the protrusions are fixed by ultrasonic welding. Heat energy generated by the film heater is transferred to the hair contact surface of the hair winding member to impart heat energy to the hair so as to be a wave perm; A hair winding member having a uniform heat distribution member fixed to an inner circumferential surface to uniformly distribute thermal energy of the film heater to the hair contact surface; A core member to which the film heater is floated and attached to an outer circumferential surface between both side wheel portions by an elastic double-sided tape; A thermally mixed air layer inserted between the uniform heat distribution member and the film heater by inserting the core member into the inner hole of the hair winding member; Hair winding heater for a wave perm, characterized in that the inner circumferential surface of the both sides of the hair winding member and the both side wheel portion of the core member is fixed so that the heat-mixed air layer is not lost. Heat energy generated by the film heater is transferred to the hair contact surface of the hair winding member to impart heat energy to the hair so as to be a wave perm; A film heater configured to attach a uniform heat distribution member to one side in order to absorb heat energy of the film heater so that the entire temperature becomes boiling and heat is released; A core member to which the film heater having the uniform heat distribution member is floatingly attached to the outer circumferential surface between the two wheels by elastic double-sided tape; A thermally mixed air layer inserted into the inner hole of the hair winding member to be provided between the uniform heat distribution member and the inner circumferential surface of the hair winding member; Hair winding heater for a wave perm, characterized in that the inner circumferential surface of the both sides of the hair winding member and the both side wheel portion of the core member is fixed so that the heat-mixed air layer is not lost. The hair winding heater of claim 7, wherein the uniform heat distribution member is attached to one side of the film heater by a double-sided tape. The hair winding heater of claim 7, wherein the uniform heat distribution member is formed such that powders constituting the uniform heat distribution member are attached to each other by a thermosetting adhesive applied to one side of the film heater. The hair winding heater of claim 6 or 7, wherein the uniform heat distribution member is made of any one of stainless steel, aluminum, and carbon. The hair winding heater for a wave perm according to claim 6 or 7, wherein the uniform heat distribution member has a thickness of 0.05-0.1 mm. The hair winding heater for a wave perm according to claim 6 or 7, wherein the heat-mixed air layer has a width of 0.05-1 mm. The hair winding heater according to claim 6 or 7, wherein both inner circumferential surfaces of the hair winding member and both protrusions of the core member are made of resin so as to be fixed by ultrasonic welding. According to claim 6 or 7, characterized in that the end of the film heater attached to the core member having a temperature sensor inserted into the sensor groove and fixed by a copper tape to detect the temperature of the film heater. Hair winding heating body for wave perm.

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