KR101733452B1 - Artificial nails and a method of manufacturing the same with capacitive touch capability using a 3D scanner and a 3D printer - Google Patents

Abstract

The present invention relates to a method and apparatus for scanning a surface of a nail of a person and a skin shape around the nail using a 3D scanner and scanning data obtained through a 3D printer in a shape corresponding to the surface of the nail of the individual, Or a 3D printing material containing a conductive material, and is formed by 3D printing, and has an insertion groove which is opened frontward or forward and downward in a central medial side, A main body in which a receiving groove is formed to be inserted at a depth of at least 1/2; A touch member made of a conductive material and including an insertion rod which is inserted into the insertion groove and can be inserted into and out of the insertion groove and a part or the whole of the outer surface is energized with the main body and a touch tip integrally formed at the distal end of the insertion rod, And a conductive attachment member containing a conductive component so as to adhere or adhere the surface of the nail to the body so as to energize the body.
According to the present invention, since a customer's nails are scanned in 3D and output to a 3D printer, various 2D and 3D nail art designs fit to their nails can be made, and various kinds of artificial nails The nail can be used by being adhered or adhered to the nail, and the electrostatic touch mobile device touch screen can be precisely touched even when the artificial nail is worn, and when the touch member is housed inside the artificial nail, It is very convenient because it can be used by protruding only the tip part of the touch.

Description

Technical Field [0001] The present invention relates to an artificial nail having a capacitive touch function using a 3D scanner and a 3D printer, and a method of manufacturing the artificial nail,

The present invention relates to an artificial nail, and more particularly, to an artificial nail which 3D-scans a customer's nail and outputs it to a 3D printer, thereby providing an artificial nail adapted to the nail itself. In addition, The present invention relates to an artificial nail having a capacitive touch function using a 3D scanner and a 3D printer, and a manufacturing method thereof.

Generally, nail art is roughly divided into applying nail polish directly onto nails, nailing various types of sticky nail polish, and artificial nails attaching pre-made artificial nails to the nails.

In particular, artificial nails are manufactured according to the average nail size of the customer. Most of them are produced by injection molds, so they are not suitable for individual nail sizes. They are used for temporary attachment, and are not widely used to be.

In addition, when the artificial nails are attached, there is a problem that the touch operation of the smart mobile device of the electrostatic type is inconvenient, so artificial nails capable of touching with electrostatic force have been released. However, as described above,

As a first prior art related to artificial nails capable of performing electrostatic touch operation, Korean Patent Laid-Open No. 10-2012-0138983 entitled "Capacitive Touch Type Artificial Nail" and second prior art, 1359023 discloses an artificial nail having a " touch pen function ".

As described above, in the prior art, since the shape of the tip portion is round or straight, a touch protrusion is formed at the center of the tip of the artificial nail for local touch operation.

Therefore, conventional artificial nails capable of touch operation are capable of simple touch operation, but there are inconveniences in making fine notes or especially drawing pictures.

In addition, since the conventional artificial nail touch protrusion has a simple protrusion shape, there are limitations in expressing various lines or shapes on the screen by controlling the pressing force of the touch in the touch operation. There has been a problem in that it is not possible to provide various structures of the touch protrusions corresponding to the touch operation pattern, such as inconvenience that the pen setting must be changed every time in the menu.

As a result, consumers are demanding artificial nails that are manufactured to fit artificial nails to their nails and accordingly, artificial nails capable of providing various types of touch tips capable of sophisticated touch manipulation.

Korean Patent Publication No. 10-2012-0138983 Korean Patent No. 10-1359023

The object of the present invention is to provide a 3D scanner and a 3D scanner which are capable of various 2D and 3D nail art designs fit to a nail and can be worn by replacing an artificial nail having various decorations, An artificial nail having a capacitive touch function using a printer, and a manufacturing method thereof.

Another object of the present invention is to provide a 3D scanner and an artificial nail having a capacitive touch function using a 3D printer, which are capable of performing a sophisticated touch operation by using an artificial nail when using the electrostatic touch mobile device product even in the state of wearing the artificial nail, And a method for manufacturing the same.

Another object of the present invention is to provide a 3D scanner capable of providing a touch member having various touch tip structures corresponding to a touch operation and being replaceable and receivable in an artificial nail, And a method for manufacturing the same.

An artificial nail having a capacitive touch function using a 3D scanner and a 3D printer according to an embodiment of the present invention,

The scan data obtained by scanning the skin shape of the nail surface of the nail and the nail surface of the individual using the 3D scanner is formed into a shape corresponding to the surface of the nail of the individual through the 3D printer and the synthetic resin or conductive material And at least one opening is formed at the center inside of the central opening so as to be opened frontward or forward and downward, and at least one / A receiving groove formed at a depth of 2 mm or less; A touch member made of a conductive material and including an insertion rod which is inserted into the insertion groove and can be inserted into and out of the insertion groove and a part or the whole of the outer surface is energized with the main body and a touch tip integrally formed at the distal end of the insertion rod, And a conductive attachment member containing a conductive component so as to adhere or adhere the surface of the nail to the body so as to energize the body.

According to the present invention, a decoration member formed by 3D printing using a nail design 2D or 3D source previously made of a material selected from a synthetic resin or a metal 3D print material containing a conductive component may be further included on the body .

According to the present invention, a coupling member may be further provided between the main body and the decorative member so as to be electrically connected to the skin around the nail, to have an ultraviolet shielding function and a conductive function, and to adhere or detach the decorative member to or from the main body.

According to the present invention, the decorative member may further include a thermosetting or ultraviolet ray-curable transparent coating layer containing a conductive component.

According to the present invention, the decorative member is made of metal or synthetic resin capable of plating or coating processing, and can be configured to be detachable from the main body by the engagement member.

According to the present invention, the conductive attachment member may further include a side surface finishing portion which surrounds the side surface of the main body and is electrically connected to the decorative member and the transparent coating layer, and is electrically connected to the skin.

According to the present invention, the insertion groove is formed such that the touch tip is further inserted into the bottom of the main body so that the touch tip can be inserted into the bottom of the main body, and a pair of locking protrusions are formed on both side walls thereof. A plurality of engaging grooves may be formed on both sides of the insertion rod to elastically outwardly engage the engaging protrusions.

The 3D printer may be a 3D printer such as Fused Deposition Modeling (FDM), Digital Light Processing (SLP), Stereolithography (SLA), Selective Laser Sintering (SLS), Polyjet (Photopolymer Jetting Technology), DMT head 3d printing, and LOM (Laminated Object Manufacturing).

A method of manufacturing an artificial nail having an electrostatic touch function using a 3D scanner and a 3D printer according to the present invention is characterized by scanning the surface of an individual's nail and the skin around the nail using the 3D scanner, Preforming a forming guide member corresponding to the shape of the nail surface of the individual through the nail; First 3D printing the conductive attachment member on the forming guide member; 3D printing the body on the conductive attachment member; 3D printing the decorative member on the body; Separating the conductive attachment member, the artificial nail member, and the decorative member from the molding guide member, and attaching the protective sheet to the back surface of the conductive attachment member.

And forming the coupling member on the main body in the step.

The present invention provides 3D and 3D printer scanning of a customer's nails, thereby providing various 2D and 3D nail art designs that fit their nails.

In addition, the present invention provides the effect that various artificial nails having decorating members designed in a nail art form in a 2D or 3D shape on an artificial nail body can be used in a sticky or adhesive manner.

In addition, since the electrostatic touch mobile device touch screen can be replaced with a touch tip provided in various forms even when the artificial nails are worn, the present invention is advantageous in that a precise touch operation can be performed.

In addition, the present invention is very convenient because the touch member is accommodated in the artificial nail and only the touch tip portion can be used only when the touch operation is performed.

In addition, since the effect of the present invention is obviously exerted by the constitution of the invention irrespective of whether or not the inventor perceives it, the above effect is only some effects according to the present invention, It should not be.

Further, the effect of the present invention should be additionally grasped by the entire description of the specification, and even if it is not written in an explicit sentence, those skilled in the art will recognize that the present invention has such an effect If it is an effect, it should be regarded as an effect described in this specification.

1 and 2 are a perspective view and a longitudinal sectional view showing the construction of an artificial nail having an electrostatic touch function using a 3D scanner and a 3D printer according to an embodiment of the present invention,
FIG. 3 is an enlarged cross-sectional view of FIG. 2 showing the laminated structure of an artificial nail having an electrostatic touch function using the 3D scanner of the present invention and a 3D printer,
4 is an enlarged cross-sectional view illustrating a detachment structure of a decorative member of a synthetic nail having a capacitive touch function using a 3D scanner and a 3D printer according to an embodiment of the present invention,
5 and 6 are a plan view and a longitudinal sectional view illustrating a touch member storage structure and replacement structure of an artificial nail having an electrostatic touch function using a 3D scanner and a 3D printer according to the present invention,
FIGS. 7 and 8 are a plan view and a longitudinal sectional view, respectively, of a state in which a touch member of an artificial nail having an electrostatic touch function is drawn using a 3D scanner and a 3D printer according to the present invention.
9 is a plan view showing a state in which the touch member of the artificial nail having the electrostatic touch function using the 3D scanner and the 3D printer of the present invention is elastically deformed when the touch member is stored or taken out,
10 is a view for explaining a method of manufacturing an artificial nail having a capacitive touch function using a 3D scanner and a 3D printer according to the present invention.

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

It will be understood by those of ordinary skill in the art that various changes in form and detail may be made therein without departing from the spirit and scope of the invention as defined by the appended claims.

In addition, the sizes and shapes of the components shown in the drawings may be exaggerated for clarity and convenience of explanation, and the terms defined specifically in consideration of the configuration and operation of the present invention may vary depending on the intention or custom of the user, operator And the definitions of these terms should be based on the contents throughout this specification.

1 and 2 are a perspective view and a longitudinal sectional view showing the construction of an artificial nail having an electrostatic touch function using a 3D scanner and a 3D printer according to an embodiment of the present invention, FIG. 4 is an enlarged cross-sectional view of an artificial nail having a capacitive touch function using a 3D scanner and a 3D printer according to the present invention, and FIG. 4 is a cross- FIGS. 5 and 6 are a plan view and a longitudinal sectional view illustrating a touch member storing structure and replacement structure of an artificial nail having an electrostatic touch function using the 3D scanner and the 3D printer of the present invention. FIG. And FIGS. 7 and 8 are a plan view and a longitudinal sectional view showing a state in which a touch member of an artificial nail having a capacitive touch function is drawn using a 3D scanner of the present invention and a 3D printer And FIG. 9 is a plan view showing a state where the touch member of the artificial nail having the electrostatic touch function using the 3D scanner and the 3D printer of the present invention is elastically deformed when the touch member is stored or taken out.

Referring to the drawings, an artificial nail having a capacitive touch function using a 3D scanner and a 3D printer according to the present invention comprises a main body 11, a touch member 20, and a conductive attachment member 30.

The main body 11 scans the surface of the nail N and the skin H around the nail N using a 3D scanner and transmits the obtained scan data to the nail surface N As shown in FIG.

Also, 3D printing is performed using a material selected from a synthetic resin containing a conductive component or a 3D printing material containing a conductive component.

The main body 11 may be made of a transparent or opaque material and may be made of a synthetic resin material (ABS, PC, PET, OPP, PE, PVC, TPU It consists of materials that can be printed with the selected 3D printer.

The body 11 of the artificial nail 10 can be constructed by the 3D scanning so as to fit the nail N of the user so that the edge of the nail N and the finger skin H) and the boundary line.

In addition, since the thickness of the main body 11 can be minimized and output to the 3D printer, it is possible to wear the artificial nails 10, which are excellent in wearing feeling compared to the conventional artificial nails 10 manufactured by general injection molding It is possible to provide the user with the satisfaction that the user can do.

The artificial nail 10 of the present invention can be attached while maintaining the edge side of the main body 11 in contact with the skin H and thus the tip end portion of the body 11 of the artificial nail 10 can be used, The touch operation can be directly performed.

1 and 2, the artificial nail 10 according to the present invention is mounted on the inside of the main body 11 of the artificial nail 10 as shown in Figs. 1 and 2, Or an insertion groove 12 opened frontward and downward can be formed.

The entire circumference of the insertion groove 12 is formed with a receiving groove 13 at least at a depth of at least 1/2 with respect to the entire thickness of the receiving groove 13 so that the conductive mounting member 30 is positioned in the receiving groove 13.

The insertion groove 12 is formed in a tunnel shape that opens forward in the longitudinal direction of the nail N and is configured to receive a touch member 20 to be described later. The body 11 is held by the conductive attachment member 30 Is detachably attached to the nail (N). A detailed description thereof will be described later.

The conductive attachment member 30 may be composed of an adhesive or an adhesive for attaching to the nail N. The conductive attachment member 30 may be formed by editing the data scanned by the user's nail N to fit the nail N of the user, It is preferable to receive the 3D scan data and to form the conductive attachment member 30 into the same shape as the shape of the user's nail N through the 3D printer.

10, since the conductive attachment member 30 is placed on the 3D printer of the user's nail N and is unsuitable for the printing operation, the shape of the conductive guide member 70 ) Is preferably used to form a 3D printer.

 The forming guide member 70 scans the surface of the nail N and the shape of the skin H around the nail N using a 3D scanner and then transmits the scan data obtained through the 3D printer to the nail N And a conductive line forming part 72 formed to correspond to the boundary line between the edge of the individual nail N and the skin H. [

The touch member 20 may be made of a synthetic resin or a metal material containing a conductive component. The touch member 20 is slim in thickness and has the same width as the width of the touch tip 22, And a rod 21 as shown in FIG.

The insertion rod 21 is mounted in contact with the inner surface of the insertion groove 12 of the main body 11 having a conductive property so that part or all of the outer surface of the insertion rod 21 can be fitted into the insertion groove 12, 11 and the skin H of the user.

The tip of the insertion rod 21 is integrally formed with a touch tip 22 having various shapes as shown in Figs. 1 and 5.

Since the touch tip 22 and the insertion rod 21 have conductivity, the touch tip 22 and the insertion rod 21 are electrically connected to each other by the main body 11 and the conductive attachment member 30 which are in contact with the finger skin H of the user, Allows the touch operation of the expression.

It is needless to say that the touch member 20 having such a configuration can be constructed by using a 3D printer or preliminarily manufactured as a separate injection mold and then mounted on the insertion groove 12 of the main body 11 for use.

In addition, the inner side end of the touch member 20 is formed with an engaging portion 23 which is cut at an intermediate interval and is elastically extruded outward. A locking protrusion 14 is formed on the inside of the insertion groove 12 so that the locking part 23 is caught and the touch member 20 is not easily detached.

Therefore, when the touch member 20 is inserted into the insertion groove 12, the latching portion 23 is elastically deformed inward, and is positioned on the latching jaw 14, .

When the other touch member 20 is to be replaced, the touch member 20 may be detached while the catch 23 is momentarily disengaged by forcibly pulling the touch tip 22 by grasping it.

At this time, when the artificial nail 10 is worn on the nail N, when the touch member 20 is replaced, the adhesive force of the conductive attachment member 30 is higher than the force High It is desirable to maintain the adhesive force.

The touch tip 22 may be composed of a round tip 22a having a hemispherical tip, a pencil tip 22b having a sharp tip like a pencil and a brush tip 22c having a flat and wide width in order to obtain a brush touch effect In addition, the touch member 20 having various types of the touch tips 22 can be replaced and used.

According to another embodiment of the present invention, the touch member 20 may be housed in the insertion groove 12 of the main body 11, and only the portion of the touch tip 22 may protrude when necessary. .

For example, the insertion groove 12 of the main body 11 is formed so that the touch tip 22 can be further inserted into and deeper into the main body 11, and a pair of engagement protrusions 15 are spaced apart .

A plurality of engaging grooves 24 are formed on both sides of the insertion rod 21 so as to be outwardly biased to be selectively engaged with the pair of engaging projections 15.

5 and 6, the engaging protrusions 15 and the engaging grooves 24 are engaged with each other in the state in which the touch member 20 is accommodated in the inserting groove 12. Therefore, It will not be detached.

When the user pulls out the touch member 20, the pull-out jaw portion formed at the lower end of the touch tip 22 is pulled by the fingertip to pull the pull-out protrusion 15 toward the elasticity imparting groove 25 formed at the center as shown in FIG. The portion is released from the engaging groove 24 and moves slightly toward the pulling direction.

Then, the latching protrusion 15 comes out of the latching groove 24 when it is moved to the next latching groove 24, and is engaged with the latching protrusion 15 at the protruding position of the touching tip 22.

With this engagement structure, the touching member 20 is not pushed back even if the touching tip 22 is pushed onto the touching screen to draw a touch or draw a handwriting or a picture.

In other words, it is preferable that the insertion rod 21 is made of a resilient synthetic resin or metal so that the engagement force of the engagement protrusion 15 and the engagement groove 24 becomes greater than the force applied during the touch operation.

On the other hand, the conductive attachment member 30 is formed in the receiving groove 13 of the main body 11 so that the surface of the nail N and the main body 11 can be energized And may be composed of a pressure-sensitive adhesive or an adhesive containing a conductive component so as to be adhered or adhered.

3 and 4, the conductive attachment member 30 surrounds the side surface of the main body 11 and contacts the skin H while being energized together with the decorative member 40 and the transparent coating layer 60. [ And a side surface finishing portion 31 for allowing the current to flow.

The side finishing unit 31 can be integrally formed when the conductive attachment member 30 is formed into a 3D printer, and is formed by molding the decorative member 40 into a 3D printer and separately printing on the side surface thereof with a 3D printer .

According to the side end closing portion 31, when the artificial nail 10 is worn by the user, the side finishing portion 31 keeps contact with the skin H around the nail N, It is possible to precisely perform the touch operation without causing erroneous operation when the touch operation is performed using the tip or the touch tip 22 of the touch member 20. Thus, a very sophisticated operation can be expressed on the screen of the mobile device when drawing a handwriting or a picture.

The conductive attaching member 30 may be made of silicone, urethane-based or acrylic-based adhesive or adhesive, and may be selected from among materials that can be printed by the 3D printer, and formed into the same shape as the receiving groove 13 70 to the nail surface forming portion 71 of the nail surface forming portion 71.

In addition, on the main body 11 of the artificial nail 10 of the present invention, 3D printing is performed by using a nail design 2D or 3D source preformed as a material selected from a synthetic resin material containing a conductive component or a metal material, And a decorative member (40).

The decorative member 40 may be a flat image or a three-dimensional 3D source ornament such as a character, a natural object, an object, or the like. The 3D source is pre-manufactured by a modeling program, and the user selects a 3D source suited to his / her taste and outputs the decorative member 40 to the 3D printer.

The decorating member 40 is attached to the main body 11 by being energized with the skin H around the nail N and having an ultraviolet shielding and conductive function between the main body 11 and the decorative member 40 a coupling member (50) for detachable or may further include.

The joining member 50 may be composed of a silicone or urethane-based or acrylic-based adhesive or adhesive, such as the conductive attachment member 30 described above.

The engaging member 50 may be formed of a material capable of being printed by a 3D printer to have a thickness of 0.1 mm to 0.2 mm.

Alternatively, the cut adhesive tape having a thickness of 0.1 mm to 0.2 mm may be edited in the form of an exploded view of the nail (N) scanning data to attach the cut adhesive tape.

When the artificial nails 10 are attached with the ultraviolet ray shielding function, the engaging member 50 is cured as a conventional ultraviolet LED curing, and the nail N and the skin under the nail N H) tissue deformation or skin (H) disease.

The decorative member 40 may further include a thermosetting or ultraviolet ray-curable transparent coating layer 60 including a conductive component on the entire outer surface of the decorative member 40.

Since the decorative member 40 is printed using a 3D printer as a variety of printing materials, the surface of the decorative member 40 may vary in roughness depending on the material.

In this case, the transparent coating layer 60 is applied to the entire outer surface of the decorative member 40 to provide a more decorative effect, and the surface of the artificial nail 10 is clogged by the transparent coating layer 60, It is possible to prevent the body skin H from being damaged.

The transparent coating layer 60 may be a liquid coating liquid such as a thermosetting or ultraviolet ray curing resin based liquid such as transparent manicure and may be formed by using a transparent liquid silicon or a transparent urethane coating liquid to form an outer shape of the decorative member 40 It is preferable to apply it with a constant thickness of 0.1 mm to 0.2 mm.

Alternatively, the decorative member 40 may be made of metal or synthetic resin capable of plating or coating processing, and may be configured to be detachable from the main body 11 by the engagement member 50.

For example, the decorative member 40 may be firstly made of a synthetic resin or a metal material as a 3D printer in the shape of a 3D source desired by the user, and then secondarily prepared by various post-processing such as gold plating or silver plating titanium coating or ceramic coating, The decorative member 40 can be attached to the main body 11 of the artificial nail 10 using the member 50. [

According to this construction, when the joining member 50 is made of the adhesive, the decorative member 40 of various designs can be attached to and detached from the main body 11, so that the user can utilize one artificial handcob main body 11, The decorating member 40 can be replaced with various decorative effects.

The 3D printer to be applied in the above embodiments may be a 3D printer such as Fused Deposition Modeling (FDM), Digital Light Processing (DLP), Stereolithography (SLA), Selective Laser Sintering (SLS), Polyjet (Photopolymer Jetting Technology) The artificial nail 10 body 11 and the conductive member 30 can be formed by 3D printing by using the conductive adhesive member 30 and the artificial nail 10 by using any one of the powder bed and inkjet head 3dprinting (PBP) and the laminated object manufacturing (LOM) It is preferable to select a 3D printer according to the material to be used.

A manufacturing method of the artificial nail 10 having a capacitive touch function using the 3D scanner and 3D printer of the present invention will be described with reference to FIG.

First, the 3D scanner is used to scan the surface of the nail N and the shape of the skin H around the nail N, and then the scan data obtained through the 3D printer is applied to the surface shape of the nail N (S1) of preforming the correspondingly formed forming guide member 70.

The forming guide member 70 is formed using a printing material of a metal material or a synthetic resin. The upper surface of the forming guide member 70 includes a nail surface forming part 71 formed by scanning the entire surface of the user nails N. And an electrification line forming portion 72 formed outside the nail surface forming portion 71 so as to correspond to the boundary line between the individual nail N and the skin H to form the forming guide member 70 in 3D Produced by printer.

Next, the molding guide member 70, (S2) 3D printing of the conductive mounting member 30 on the surface of the substrate.

The present step S2 is to maintain the thickness of the nail surface forming part 71 and the electric line forming part 72 of the molding guide member 70 to 0.2 to 0.4 mm by the edited 2D or 3D scan data, The surface attachment portion and the electrification line attachment portion are formed.

The following is 3D printing (S3) of the main body 11 on the conductive attaching member 30.

In this step S3, the edited 2D or 3D scan nail data is received and is printed as a 3D printer on the conductive attachment member 30 through the 3D printer. The nail surface forming unit 71, The main body 11 of the artificial nail 10 is formed in the area of the area 72 where the conductive adhesive member 30 is included and the overall thickness is kept within 0.5 mm to 1 mm.

Next, the 3D printing of the decorative member 40 on the main body 11 is performed (S4).

In this step S4, only the nail surface attachment region of the forming guide member 70 is printed on the main body 11 of the artificial nail 10, and a preliminarily edited 2D or 3D nail art design source is transmitted to the 3D printer A decorative material 40 of a planar or cubic shape is formed by irradiation with radiant heat or ultraviolet ray curing treatment.

According to another embodiment of the present invention, the step (S4) may further include a step (40) of forming the engaging member (50) on the main body (11).

That is, when the decorative member 40 is detachable from the main body 11, the adhesive or the adhesive material is 3D-printed to form the engaging member 50, so that the user can attach the decorative member 40, And various decorative effects can be exhibited.

Next, a step of separating the conductive attachment member 30, the artificial nails 10, and the decorative member 40 from the molding guide member 70 and attaching a known protective sheet (not shown) on the back surface of the conductive attachment member S5).

The following is a step of mounting the pre-manufactured touch member 20 or the touch member 20 manufactured by 3D printing separately into the insertion groove 12 of the main body 11.

As described above, according to the manufacturing method of the present invention, the main body 11 of the artificial nails 10 fitted to the user nails N can be manufactured, and the artificial nails 10 having a comfortable wearing feeling can be attached to the nails N.

In addition, the decorative member 40 and the touch member 20 desired by the user can be output to the 3D printer using the pre-designed 3D source data, and various nail art decorating effects can be exhibited.

Although the present invention has been described in connection with the above-mentioned preferred embodiments, it will be readily apparent to those skilled in the art that various modifications may be made without departing from the spirit and scope, Belongs to.

10: artificial nail 11: body
12: insertion groove 13: receiving groove
14: latching jaw 15:
20: touch member 21: insertion rod
22: Touch tip 22a: Round tip
22b: Pencil type tip 22c: Brush tip
23: engaging portion 24: engaging groove
25: elasticity imparting groove
30: Conductive adhesive member 31: Side closure
40: decorative member 50: engaging member
60: transparent coating layer 70: molding guide member
71: nail surface forming part 72: electrification line forming part
N: Nails H: Skin

Claims (10)

The scan data obtained by scanning the skin shape of the nail surface of the nail and the nail surface of the individual using the 3D scanner is formed into a shape corresponding to the surface of the nail of the individual through the 3D printer and the synthetic resin or conductive material A 3D printing material made of a metal material,
A central opening formed in the center of the insertion groove for opening forwardly or forwardly and downwardly, and a receiving groove formed at least about 1/2 of the entire thickness of the insertion groove is formed in the entire periphery of the insertion groove;
A touch member made of a conductive material and including an insertion rod which is inserted into the insertion groove and can be inserted into and out of the insertion groove and a part or the whole of the outer surface is energized with the main body and a touch tip integrally formed at the distal end of the insertion rod, And
Wherein the receiving groove includes a conductive attaching member containing a conductive component so as to conductively adhere or adhere the surface of the nail and the main body electrically,
Wherein the insertion groove is formed so that the touch tip can be further inserted into and deeper into and out of the main body, a pair of locking projections are formed on both side walls of the insertion groove,
Wherein a plurality of engaging grooves are formed on both sides of the insertion rod so as to be selectively outwardly engaged with the pair of engaging projections. The method according to claim 1,
And a decorative member formed on the body by 3D printing using a pre-fabricated nail design 2D or 3D source as a material selected from a synthetic resin containing a conductive component or a 3D print material made of a metal material. And artificial nails with electrostatic touch function using 3D printer. 3. The method of claim 2,
The 3D scanner and the 3D printer may further include an engaging member that is energized with the skin around the fingernail between the body and the decorative member, has a function of shielding ultraviolet rays and has a conductive function, and adheres or removes the decorative member to the body. Artificial nails with electrostatic touch function. 3. The method of claim 2,
Wherein the decorative member further comprises a thermosetting or ultraviolet curable transparent coating layer containing a conductive component. 3. The artificial nail as claimed in claim 1, The method of claim 3,
Wherein the decorative member is made of a metal or a synthetic resin material capable of being plated or coated, and is detachable from the main body by the coupling member, and the artificial nail having the electrostatic touch function using the 3D printer. 5. The method of claim 4,
Wherein the conductive attaching member further includes a side surface finisher which is configured to surround a side surface of the main body and is energized while being electrically energized together with the decorative member and the transparent coating layer. Artificial fingernails with function. delete 7. The method according to any one of claims 1 to 6,
The 3D printer may be a 3D printer such as Fused Deposition Modeling (FDM), Digital Light Processing (SLP), Stereolithography (SLA), Selective Laser Sintering (SLS), Polyjet (Photopolymer Jetting Technology), DMT head 3dprinting, and LOM (Laminated Object Manufacturing). The present invention relates to a 3D scanner and an artificial nail having a capacitive touch function using a 3D printer. A method of manufacturing an artificial nail having a capacitive touch function using a 3D scanner and a 3D printer according to any one of claims 1 to 6,
Preparing a molding guide member corresponding to the shape of the nail surface of the individual through the 3D printer with the scan data obtained by scanning the surface of the nail of the individual and the skin shape around the nail using the 3D scanner;
First 3D printing the conductive attachment member on the forming guide member;
3D printing the body on the conductive attachment member;
3D printing the decorative member on the body;
And separating the conductive attaching member, the artificial nail member, and the decorative member from the molding guide member, and attaching the protective sheet to the back surface of the conductive attaching member. The 3D scanner and the artificial touch having the electrostatic touch function using the 3D printer Method of manufacturing nails. [10] The method of claim 9, further comprising: forming the coupling member on the main body in the step.

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