JP6233754B2 - Film transfer tool - Google Patents

Description

  The present invention relates to a coating film transfer tool used for transferring a coating film of a transfer tape provided with a coating film for correction, an adhesive for adhesion, a coating film for decoration, etc. on a base tape.

  Conventionally, a transfer tape is stored in a cassette so that the transfer tape can be fed out, and a transfer head for transferring a coating film provided on the transfer tape to a transfer target is provided, and the transfer tape that has been transferred can be wound up. A film transfer tool is known. As one of such coating film transfer tools, there has been proposed a coating film transfer tool in which the coating film transfer tool is configured by a transfer roller that extrudes the coating film transfer tool in the forward direction of the transfer head and transfers the coating film. . (See Patent Document 1) This prevents the transfer position from becoming a shadow of the transfer head and prevents the transfer film from being excessive or insufficient compared to the case where the film is transferred by pulling the film transfer tool forward. An effect can be obtained. Further, as compared with a plate-like transfer head, it is possible to perform a transfer operation without applying an excessive pressing force to the transfer tape when transferring the coating film.

  In the present specification, as in Patent Document 1, “push transfer” means that the coating film transfer tool is pushed forward (direction away from the body of the user holding the coating film transfer tool) to transfer the coating film. The transfer of the coating film by pulling the coating film transfer tool backward (in the direction approaching the body of the user holding the coating film transfer tool) is called “pull transfer”.

JP2002-12000

  Conventionally, the press transfer type film transfer tool was suitable for transferring a thin part or a short part, but when transferring a film to a large area or a long part quickly, a pull transfer type film transfer The tool was easy to operate.

  An object of the present invention is to provide a coating film transfer tool capable of realizing both push transfer and pull transfer with a single unit.

A coating film transfer tool according to an A1 aspect is a coating film transfer tool for transferring the coating film of a transfer tape provided with a coating film on a base tape to a transfer target, a storage tool, a first state, And an internal transfer tool that can be stored in the storage tool in a second state that is upside down from the first state. The internal transfer tool includes: a feeding unit that feeds out the transfer tape; and a plate-like transfer head that presses the transfer tape fed from the feeding unit against the transfer target and transfers the coating film to the transfer target. A winding portion that winds up the base tape after transfer, and is disposed downstream of the plate-shaped transfer head along the transport direction of the base tape, and the internal transfer tool is placed in the storage tool. In the case where it is stored in the first state, it has a transport roller capable of pressing the transferred base tape against the transfer target. When the internal transfer tool is stored in the storage tool in the first state, the coating film is transferred to the transfer target by pushing the plate-like transfer head forward, and the second When stored in a state, the coating film is transferred to the transfer object by pulling the plate-like transfer head backward.

The coating film transfer tool according to the A2 viewpoint is the coating film transfer tool according to the A1 viewpoint, and the storage tool has a convex portion provided at a position in contact with the transfer target during coating film transfer.
The coating film transfer tool according to the A3 viewpoint is the coating film transfer tool according to the A2 viewpoint, and the convex portion is a rotating roller.

The coating film transfer tool according to the A4 viewpoint is the coating film transfer tool according to the A1 or A2 viewpoint, and the internal transfer tool further includes an elastically deformable support body that rotatably supports the transport roller.
The coating film transfer tool according to the A5 viewpoint is the coating film transfer tool according to the A4 viewpoint, and the support is deformed at the time of coating film transfer to press the transport roller against the transfer target body. Elastically deforms to generate pressure.

  The coating film transfer tool according to the A6 aspect is the coating film transfer tool according to any of the A1 to A5 viewpoints, and the transport roller has a width wider than the width of the base tape, In contact with the transfer object, a rotational force is received from the transfer object during coating film transfer, and a feeding force in the winding direction is applied to the base tape.

  The coating film transfer tool according to the A7 viewpoint is the coating film transfer tool according to any of the A1 to A6 viewpoints, wherein one of the internal transfer tool and the storage tool has a protrusion, and the other has the protrusion. It has a receiving part which receives so that rotation is possible.

  The coating film transfer tool according to the B1 viewpoint includes at least a feeding unit that feeds a transfer tape provided with a coating film on a base tape, and a transfer tape that is fed from the feeding unit is pressed against a transfer target to transfer the coating film. A plate-shaped transfer head for transferring to a body, a take-up portion for taking up a base tape after transfer, and a conveying roller for applying a feeding force in the direction of the transfer tape take-up portion by rotating in contact with the transfer target during coating film transfer A coating film transfer tool comprising an internal transfer tool provided with a storage tool for storing the internal transfer tool. The said coating film transfer tool is provided with the convex part in the position where a storage tool contacts a to-be-transferred body. The coating film transfer tool is a coating film transfer tool that extrudes the coating film transfer tool in the forward direction of the plate-shaped transfer head and transfers the coating film to the transfer target. The width of the conveying roller is wider than the width of the transfer tape, and the conveying roller is rotatably supported by an elastically deformable support. Further, the coating film transfer tool not only extrudes and transfers the coating film, but also stores the internal transfer tool in the storage tool upside down with respect to the transfer target. On the other hand, it is a coating film transfer tool which can transfer a coating film to a to-be-transferred object also by pulling a coating film transfer tool to the near side.

The coating film transfer tool according to the B2 viewpoint is the coating film transfer tool according to the B1 viewpoint in which the convex portion is a rotating roller.
The coating film transfer tool according to the B3 viewpoint is a method in which the internal transfer tool is turned upside down with respect to the transfer target and stored in the storage tool, and the protrusion provided on the internal transfer tool and the engagement provided in the storage tool. The film transfer tool according to the B1 viewpoint or the B2 viewpoint, wherein the joint portion is rotatably connected.

  According to the present invention, it is possible to provide a coating film transfer tool that can handle both push transfer and pull transfer with a single unit.

The side view which removed the cover of the internal transfer tool of 1st embodiment of this invention. The figure which looked at the internal transfer tool from various directions. The figure which looked at the storage tool used for 1st embodiment of this invention from various directions. Sectional drawing of the storage tool in each location instruct | indicated in FIG. Each sectional view of a coating film transfer tool. The rotation figure which looked at the internal transfer tool combined with the storage tool from the back side. FIG. 5 is a layout diagram of an internal transfer tool during push transfer and pull transfer. The figure which shows the storage tool of 2nd embodiment of this invention.

A1 Central axis of the internal transfer tool (reference axis)
DESCRIPTION OF SYMBOLS N Internal transfer tool S Storage tool S1 Storage tool main body S2 Auxiliary part T1 Transfer tape T2 Base tape 1 Feeding core 2 Plate-shaped transfer head 2a Support body 2b Bearing part 3 Winding core 4 O-ring 5 Conveying roller 6 Internal transfer tool case 6a End portion of the internal transfer tool case 6b Semi-arc-shaped protrusion of the internal transfer tool case 6c Protruding rib of the internal transfer tool case 7 Internal transfer tool cover 7a End portion of the internal transfer tool cover 7b Half of the internal transfer tool cover Arc-shaped projecting portion 7c Projecting rib of internal transfer tool cover 67a Disk-shaped portion (diameter L) by coupling of inner transfer tool case and cover
67b Cylindrical part (diameter m) by combining the inner transfer tool case and cover
8 Storage Tool Case 8a Storage Tool Case Side Space 8b Storage Tool Case Rib Stop 8c Storage Tool Case Transfer Head Side Tip 8d Storage Tool Case Protrusion 8e Storage Tool Case Semi-Arc Shaped Member 9 Storage Tool Cover 9a Space on side surface of storage tool cover 9b Rib stopper of storage tool cover 9c Tip of transfer head side of storage tool cover 9d Convex part of storage tool cover 9e Semi-circular member of storage tool cover 89e Storage tool case and storage tool cover Cylindrical hole (diameter n)
89f Tip of storage tool 10 Rotating roller

  The coating film transfer tool of the first embodiment of the present invention includes an internal transfer tool N and a storage tool S for storing the internal transfer tool N. FIG. 1 is a side view of the internal transfer tool N with an internal transfer tool cover 7 described later removed. The internal transfer tool N includes a feeding core 1 in which a transfer tape T1 having a coating film applied to a base tape T2 is wound, a plate-like transfer head 2 for transferring the coating film to a transfer target, and a base tape T2 after transfer. The winding core 3 to be wound up, the O-ring 4 for transmitting the rotation of the feeding core 1 to the winding core 3, the conveying roller 5 for applying a feeding force in the winding direction to the transfer tape T1, and the internal transfer forming the internal transfer tool cassette. It comprises a tool case 6 and an internal transfer tool cover 7 (not shown). The feeding core 1, the winding core 3 and the O-ring 4 are accommodated in the internal transfer tool cassette. The plate-like transfer head 2 is formed with a support 2a that can be elastically deformed. The support body 2a is provided with a bearing portion 2b that receives the shaft of the transport roller 5 and supports it. As a method for transmitting the rotation of the feeding core 1 to the winding core 3, the O-ring 4 is used in the present embodiment, but transmission by a gear or the like is also possible, and there is no particular limitation.

  In the state shown in FIG. 1, the transport roller 5 is disposed downstream of the plate-shaped transfer head 2 and upstream of the winding core 3 along the transport direction of the base tape T2, and the base after the transfer. The material tape T2 is pressed against the transfer target. The conveyance roller 5 includes a shaft made of molding resin, metal, or the like, and an outer peripheral portion made of an elastic material. The outer peripheral portion of the conveying roller 5 is formed of an elastic material having a high frictional force in order to obtain a frictional force with the transfer target. Examples of elastic materials include polyurethane elastomers, olefin elastomers, styrene elastomers, polyamide elastomers, nylon 12 elastomers, polyester elastomers, acrylic rubber, NBR, isoprene rubber, SBR, butadiene rubber, silicone rubber, butyl rubber, and the like. Various rubber materials are mentioned.

  The width of the conveyance roller 5 is wider than the width of the base tape T2. For this reason, the transfer roller 5 and the transfer object come into contact with each other at the time of coating film transfer, and a frictional force is generated between them, so that the rotation force of the transfer roller 5 is generated by this frictional force. And the rotational force of this conveyance roller 5 becomes the feeding force of base tape T2, and can wind up base tape T2 smoothly. That is, due to the effect of the conveying roller 5 provided separately from the plate-like transfer head 2, even if the plate-like transfer head 2 is used, a smooth transfer operation can be performed without applying a strong pressing force when transferring the coating film. Can be done. In particular, during the final run of the transfer tape T1, the winding force of the base tape T2 decreases, but the transport roller 5 functions to compensate for this decrease. That is, even during the final travel of the transfer tape T1, the transport roller 5 gives a feeding force in the winding direction, so that a smooth transfer operation can be performed. Further, by making the width of the transport roller 5 wider than the width of the base tape T2, the straightness of the coating film transfer tool can be improved, and the meandering of the coating film transfer tool can be prevented.

  Further, the width of the transport roller 5 is preferably narrower than the width of the storage tool S and the width of the internal transfer tool cassette, and when expressed numerically, it is 2-10 mm wider than the width of the base tape T2. It is preferable to do. This is because if the length obtained by subtracting the width of the base tape T2 from the width of the transport roller 5 is less than 2 mm, it is difficult to obtain a frictional force between the transport roller 5 and the transfer object during coating film transfer. There is a risk of poor winding of the material tape T2. In general, when the width of the transport roller 5 exceeds 10 mm, the transport roller 5 protrudes from the wider side of the storage tool S and the internal transfer tool cassette, and the transport roller 5 is damaged. Because fear comes out.

  The transport roller 5 is rotatably supported by an elastically deformable support 2a. In FIG. 1, the support 2a is made elastically deformable by forming the shape of FIG. 1 by resin molding. Here, “elastically deformable” is the shape shown in FIG. 1 when no external force is applied. However, when the coating film is transferred, the transfer roller 5 moves toward the inside of the internal transfer tool cassette from the transfer target side. When an external force is applied in the direction, the conveying roller 5 is deformed so as to move further inside the internal transfer tool cassette, and when the external force is removed after the coating film is transferred, the property returns to the shape of FIG. The method for making the support 2a elastically deformable is not particularly limited. For example, another shape of resin molding may be used, or a pressing spring such as a coil spring may be used. Due to this elastically deformable property, the support 2a functions to press the transport roller 5 against the transfer target when the transfer tape T1 is transferred. Therefore, when using the coating film transfer tool of the present embodiment, at least the transfer head 2 and the transport roller 5 are pressed against the transfer target, and the coating film transfer tool is pushed out in the forward direction of the transfer head 2 for use. Can do.

  2 is a view in which a cover 7 is attached to the internal transfer tool N of FIG. 1, (A) a side view of the internal transfer tool N viewed from the cover 7 side, and (B) an internal transfer viewed from the transfer tape T1 side. (C) a bottom view of the internal transfer tool N viewed from the transfer target side, (D) a perspective view of the case 6 and the tips 6a and 7a of the cover 7 viewed from the transfer head 2 side. 2) A rear view of the internal transfer tool N viewed from the side opposite to the transfer head 2 side.

  The outer periphery of the front end portion 6a of the internal transfer tool case 6 on the plate-like transfer head 2 side and the front end portion 7a of the internal transfer tool cover 7 is provided so as to have a semicircular arc shape, and one is fitted into the other. The tip portions 6a and 7a are joined together to form a disk-shaped member 67a (diameter L). On the back side opposite to the plate-like transfer head 2 side, semi-arc-shaped protrusions 6b and 7b extending outward are provided on the internal transfer tool case 6 and the internal transfer tool cover 7, respectively. A projection 67b (diameter m) having a cylindrical shape is formed by joining the projections 6b and 7b in such a manner that one is fitted into the other. Further, on the outer surfaces of the internal transfer tool case 6 and the internal transfer tool cover 7, protruding ribs 6c and 7c extending outward are provided on the upper surface side and the bottom surface side, respectively.

  The outer shape of the internal transfer tool cassette is substantially rotationally symmetric (two-fold symmetry) with respect to the central axis A1 of the internal transfer tool N. The central axis A1 of the internal transfer tool N is a straight line that passes through the center of the disk-shaped member 67a and the center of the protrusion 67b, and is hereinafter referred to as a reference axis A1.

  FIG. 3 shows the storage tool S used in the first embodiment of the present invention, (A) a side view of the storage tool S viewed from the cover 9 side, (B) a top view of the storage tool S, C) Bottom view of the storage tool S, (D) the storage tool case 8 and the tips 8c and 9c of the cover 9 as viewed from the transfer head 2, and (E) the storage tool S as viewed from the side opposite to the transfer head 2 side. A rear view is shown.

  The storage tool S includes a storage tool case 8 and a storage tool cover 9. In addition, in a state where the storage tool case 8 and the storage tool cover 9 are coupled, the storage tool S includes a storage tool body S1 that forms a closed loop in a bowl shape, and an auxiliary portion S2 that has a generally triangular prism-shaped outer shape. . Spaces 8a and 9a that are generally along the outline of the internal transfer tool N are formed on the side surfaces of the storage tool case 8 and the storage tool cover 9, respectively. In other words, the storage tool body S1 includes the spaces 8a and 9a inside. It prescribes. The spaces 8a and 9a substantially along the contour of the internal transfer tool N have a shape that is generally rotationally symmetric (two-fold symmetric) with respect to the reference axis A1 when the two spaces 8a and 9a are combined. When the storage tool S is described with reference to the reference axis A1, the state in which the storage tool S stores the internal transfer tool N is assumed to be a reference. In the storage case 8 and the storage cover 9, rib stops 8b and 9b are provided at positions defining the outer peripheries of the spaces 8a and 9a, respectively. Spaces 8a and 9a for projecting and disposing the plate-like transfer head 2 of the internal transfer tool N toward the transferred body are provided at the tips 8c and 9c of the storage tool case 8 and the storage tool cover 9 on the transfer head 2 side. There is a hole that leads to

  The auxiliary portion S2 is coupled adjacent to the storage device main body S1. The storage device main body S1 has an outer shape that is generally rotationally symmetric (two-fold symmetric) with respect to the reference axis A1. Therefore, the storage tool S as a whole has a non-rotationally symmetrical outer shape with respect to the reference axis A1. Further, convex portions 8d and 9d are formed at positions where the auxiliary portion S2 is formed in the storage device case 8 and the storage device cover 9 at positions where they are in contact with the transfer object.

  4 is a cross-sectional view of the storage tool S at each location indicated in FIG. 3, and the storage tool case 8 and the storage tool cover 9 viewed from the cross-section BB on the back side of the internal transfer tool N include: Semi-arc-shaped members 8e and 9e extending inward of the spaces 8a and 8b are provided, respectively, and one of the members 8e and 9e is coupled in a manner of being fitted into the other, thereby forming a cylindrical hole 89e (diameter n ). Further, when viewed from the cross-section C-C, the tips of the storage case 8 and the storage cover 9 on the transfer head 2 side are respectively stapled needle shapes (one line is bent at 90 ° twice in the same direction). When the two are combined so that one is fitted into the other, a square tip portion 89f (one side dimension W of the opening) is formed.

  FIG. 5 is a cross-sectional view of the coating film transfer tool in which the internal transfer tool N is stored in the storage tool S. FIG. (Each cross-sectional view is a cross-sectional position indicated in FIG. 3.) In a state where the internal transfer tool N and the storage tool S are coupled, a disk shape formed on the plate-like transfer head 2 side of the internal transfer tool N. The member 67a is inserted into the square tip portion 89f (one side dimension W) of the storage tool S, and is formed in a cylindrical shape formed on the back surface portion of the internal transfer tool N opposite to the plate-like transfer head 2. The protrusion 67b is inserted into the cylindrical hole 89e. The internal transfer tool N is rotatably held in this state with respect to the storage tool S. It should be noted that the diameter of the member 67a <the side W of the opening defined by the tip portion 89f, and the diameter m of the projection 67b <the diameter n of the cylindrical hole 89e, so that the storage tool S is an internal transfer tool. N can be held rotatably. Moreover, although the front-end | tip part 89f of the storage tool S shall have the square-shaped opening of the one side dimension W, you may have a circular shape and polygonal-shaped opening of the diameter dimension W. In addition, a cylindrical hole is formed on the internal transfer tool N side, and a cylindrical projection is formed on the storage tool S side. The latter is inserted into the former so that the internal transfer tool N is stored. You may comprise so that rotation with respect to the instrument S may be hold | maintained.

  FIG. 6 shows a rotation view of the internal transfer tool N combined with the storage tool S as seen from the back side. The protruding ribs 6c and 7c formed on the outer surfaces of the internal transfer tool case 6 and the internal transfer tool cover 7 are positioned inside the rib stoppers 8b and 9b formed in the storage tool S, and the internal transfer tool N is rotated. At this time, the ribs 8b and 9b are projected to contact with each other. As a result, the internal transfer tool N can be fixed in the storage tool S so that it cannot be rotated unintentionally. Further, when the internal transfer tool N is intentionally rotated, by applying a rotational force of a certain level or more to the internal transfer tool N, the rib 6c is elastically deformed by at least one of the rib stoppers 8b and 9b and the ribs 6c and 7c. 7c is disengaged from the rib stoppers 8b and 9b and can be rotated. With this structure, the internal transfer tool N stored in the storage tool S can be turned upside down by rotating 180 ° with respect to the reference axis A1. As a result, the coating film transfer tool becomes a coating film transfer tool that can handle both push transfer and pull transfer.

FIG. 7 is an arrangement diagram of the internal transfer tool N at the time of push transfer and an arrangement diagram of the internal transfer tool at the time of pull transfer in which the internal transfer tool N is turned upside down. The arrow direction indicates the direction of the transfer operation. As described above, when the convex portions 8d and 9d of the storage tool S and the conveying roller 5 are set so as to perform the press transfer (first state), they pass through the reference axis A1 and are perpendicular to the paper surface of FIG. In a state (second state) that is arranged on the same side with respect to the surface (hereinafter referred to as a reference surface) and is set so as to perform pulling transfer, it is arranged on the opposite side with respect to the reference surface. Further, in a state set to perform push-transfer, the convex portions 8d and 9d, the conveying roller 5, and the tip end portion of the plate-like transfer head 2 that performs transfer are arranged in a substantially straight line. Has been. Therefore, at the time of push-transfer, the transfer operation can be performed in a state where these three elements are simultaneously in contact with the transfer target, and the meandering of the coating film transfer tool is prevented. On the other hand, at the time of pull transfer, the transfer operation can be performed in a state where the convex portions 8d and 9d and the tip of the plate-like transfer head 2 that performs transfer are in contact with the transfer target at the same time. Is prevented.

  FIG. 8 is a side view and a rear view of the coating film transfer tool of the second embodiment of the present invention, and a part of the bottom view as seen from the transferred object side. Here, instead of the convex portions 8d and 9d provided on the transfer body side of the storage tool S, a cylindrical rotating roller 10 that plays the same role as the convex portions 8d and 9d is provided. Further, here, the housing case 8 is provided with a shaft, and the housing cover 9 is provided with a concave portion of a bearing, and a cylindrical rotating roller 10 is inserted into the shaft of the case 8. The material of the rotating roller 10 is preferably formed of ABS, POM, PE, PS, PP or the like, and most preferably POM (polyacetal) having good rotational slidability. By using the convex portion as the rotation roller 10, the force when pushing the coating film transfer tool forward of the transfer head is reduced, and the straightness of the coating film transfer tool is increased, thereby preventing the meandering. . In addition, by providing a film of elastomer or various rubber materials used as the elastic material of the transport roller 5 on the surface of the rotating roller 10, the coefficient of friction with the transfer object is increased, and the straightness of the coating film transfer tool is further increased. This increases the effect of preventing meandering.

  In the coating film transfer tool of the above embodiment, since a plate-like member that rises sharply from the transfer target is used for the transfer head, the coating film transfer tool described in Patent Document 1 that performs press transfer using a roller for the plate member. Unlike the above, it is possible to easily confirm the start position and the end position of the coating film transfer. Further, in Patent Document 1 that performs push-transfer, since the pressing force of the transfer roller is light when the coating film transfer tool is run, the contact of the transfer head with the transfer target becomes unstable, and the coating film transfer tool is There may be a problem such as meandering. However, in the coating film transfer tool of the above embodiment, since a plate-like member is used for the transfer head, there is no problem that the pressing force of the transfer head becomes too light. On the other hand, due to the effect of the conveying roller 5 provided separately from the plate-like transfer head, even if the plate-like transfer head 2 is used, a smooth transfer operation can be performed without applying a strong pressing force at the time of coating film transfer. Can be performed. Therefore, the press transfer using the coating film transfer tool of the above embodiment has higher operability than the press transfer using the coating film transfer tool of Patent Document 1.

  Furthermore, the coating film transfer tool of the above embodiment is configured so that the internal transfer tool N can be reversed in the storage tool S. By this reversal, in addition to the above-described push transfer, if necessary, It is also possible to transfer the coating film by pulling backward.

  In the above embodiment, the support 2a that supports the transport roller 5 can be elastically deformed, and the support 2a is elastically deformed during coating film transfer, so that the space between the transport roller 5 and the plate-like transfer head 2 is reduced. Therefore, there is no level difference and the surface is aligned with the transfer target. However, the support 2a may not be elastically deformable. In this case, the transfer roller 5 itself is pushed by the transfer target body and elastically deformed when the coating film is transferred, so that the step is eliminated and the surfaces of the transfer roller 5 and the plate-like transfer head 2 are aligned with the transfer target body. It is preferable to configure as described above. Alternatively, there may be no step between the transport roller 5 and the plate-shaped transfer head 2 before the transport roller 5 is pressed against the transfer target, and the surface may be aligned with the transfer target.

  In the above embodiment, the width of the transport roller 5 is wider than the width of the base tape T2, but the width of the transport roller 5 may be narrower than the width of the base tape T2 even if both widths are the same. . In this case, the transport roller 5 does not directly contact the transfer target during coating film transfer, but can directly contact only the base tape T2 that has been subjected to the release treatment. Therefore, the transport roller 5 is rotated. Such a frictional force is not necessarily generated. However, the presence of the transport roller 5 causes the base tape T2 and the transfer target to be in contact with each other at the transport roller 5 in addition to the plate-shaped transfer head 2, and the base tape T2 and the transfer target. The contact area with the transfer body increases. Therefore, the base tape T2 is easily pulled out even with the same pressing force, and as a result, the base tape T2 can be smoothly wound. That is, due to the effect of the conveying roller 5 provided separately from the plate-like transfer head 2, it is possible to perform a smooth transfer operation without applying a strong pressing force at the time of coating film transfer.

Claims (15)

A coating film transfer tool for transferring the coating film of a transfer tape provided with a coating film on a base tape to a transfer target,
A storage tool;
An internal transfer tool that can be stored in the storage tool in a second state that is upside down from the first state and the first state with respect to the transfer object;
The internal transfer tool is
An unwinding section for unwinding the transfer tape;
A plate-like transfer head that presses the transfer tape fed out from the feed-out portion against the transfer object and transfers the coating film to the transfer object;
A winding part for winding the base tape after transfer;
Arranged on the downstream side along the transport direction of the base tape from the plate-like transfer head,
When the internal transfer tool is stored in the storage tool in the first state, it has a transport roller capable of pressing the base tape after transfer to the transfer target,
When the internal transfer tool is stored in the storage tool in the first state, the coating film is transferred to the transfer target by pushing the plate-like transfer head forward, and the second In the case of being housed in a state, the plate-like transfer head is pulled rearward so that the coating film is transferred to the transfer target.
Film transfer tool. The storage device has a convex portion provided at a position in contact with the transferred body during coating film transfer,
The coating film transfer tool according to claim 1. The convex portion is a rotating roller;
The coating film transfer tool according to claim 2. The internal transfer tool is
An elastically deformable support that further rotatably supports the transport roller;
The coating film transfer tool according to claim 1. The internal transfer tool is
An elastically deformable support that further rotatably supports the transport roller;
The coating film transfer tool according to claim 2. The internal transfer tool is
An elastically deformable support that further rotatably supports the transport roller;
The coating film transfer tool according to claim 3. The support is deformed at the time of coating film transfer, and is elastically deformed to generate a pressing force that presses the transport roller against the transfer target.
The coating film transfer tool according to claim 4. The support is deformed at the time of coating film transfer, and is elastically deformed to generate a pressing force that presses the transport roller against the transfer target.
The coating film transfer tool according to claim 5. The transport roller has a width wider than the width of the base tape, and comes into contact with the transfer target during coating film transfer, thereby receiving rotational force from the transfer target during transfer of the coating film. Give the tape a feed force in the winding direction,
The coating film transfer tool according to claim 1. The transport roller has a width wider than the width of the base tape, and comes into contact with the transfer target during coating film transfer, thereby receiving rotational force from the transfer target during transfer of the coating film. Give the tape a feed force in the winding direction,
The coating film transfer tool according to claim 2. The transport roller has a width wider than the width of the base tape, and comes into contact with the transfer target during coating film transfer, thereby receiving rotational force from the transfer target during transfer of the coating film. Give the tape a feed force in the winding direction,
The coating film transfer tool according to claim 5. The transport roller has a width wider than the width of the base tape, and comes into contact with the transfer target during coating film transfer, thereby receiving rotational force from the transfer target during transfer of the coating film. Give the tape a feed force in the winding direction,
The coating film transfer tool according to claim 6. One of the internal transfer tool and the storage tool has a protruding portion, and the other has a receiving portion that rotatably receives the protruding portion.
The coating film transfer tool according to claim 1. One of the internal transfer tool and the storage tool has a protruding portion, and the other has a receiving portion that rotatably receives the protruding portion.
The coating film transfer tool according to claim 11. One of the internal transfer tool and the storage tool has a protruding portion, and the other has a receiving portion that rotatably receives the protruding portion.
The coating film transfer tool according to claim 12.

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