JP6093572B2 - Film transfer tool - Google Patents

Description

  The present invention relates to a coating film transfer tool. The coating film transfer tool transfers the transfer coating film formed on the surface of the base tape to the transfer surface. A pressure-sensitive transfer tape having a transfer coating film formed on the surface of the base tape is loaded into a coating film transfer tool. The pressure-sensitive transfer tape is pressed from the back surface of the base tape with a transfer head of the coating film transfer tool to transfer the transfer coating film on the surface of the base tape to the transfer surface. In particular, the present invention relates to a coating film transfer tool capable of successfully transferring a transfer coating film of a pressure-sensitive transfer tape to a transfer surface regardless of the user's familiarity.

  Conventionally, coating film transfer tools are sold under trade names such as correction tapes and tape glues. In the correction tape, the transfer coating film of the pressure-sensitive transfer tape to be loaded is a correction coating film for concealing typographical characters and the like so that rewriting can be performed. In a tape paste, the transfer coating film is an adhesive coating film for bonding papers and the like.

  Thus, the kind of transfer coating film differs depending on the purpose. Moreover, the structure of the coating film transfer tool loaded with the pressure-sensitive transfer tape forming the transfer coating film is as follows.

  The feeding reel, transfer head, take-up reel, and pressure-sensitive transfer tape are placed in the case of the coating film transfer tool so that the pressure-sensitive transfer tape is fed from the feeding reel and taken up by the take-up reel through the transfer head. It is arranged.

  The feeding reel is wound with a pressure-sensitive transfer tape before transfer. The transfer head is provided so as to protrude from the case so that the transfer coating film can be transferred to the transfer surface, and can be pressed from the back surface of the base tape of the pressure-sensitive transfer tape to the transfer surface. The take-up reel can take up the base tape after the coating film is transferred.

  There is an interlocking mechanism between the supply reel and the take-up reel, and the tape moves smoothly from the supply reel to the take-up reel. Generally, a gear or an O-ring is used as the interlocking mechanism. The interlocking mechanism moves the coating film transfer tool while transferring the transfer coating film of the pressure-sensitive transfer tape to the transfer surface with the transfer head, so that the pressure-sensitive transfer tape is fed out from the feeding reel, and is based on the take-up reel. Until the material tape is wound, it is automatically wound (tape automatic winding type).

  Since these are provided in the case of the coating film transfer tool, the user can use the coating film transfer tool. The coating film transfer tool has such a configuration.

  By the way, such a coating film transfer tool may or may not be successfully transferred depending on how the user holds it. Therefore, a device that can be used like a “mouse” that is a computer input device has been developed so that anyone can transfer it successfully. For example, there are JP-A-2005-0667153, JP-A-2008-290257, JP-A-2009-255330, and JP-A-2010-036550.

Japanese Patent Application Laid-Open No. 2005-0667153 JP 2008-290257 A JP 2009-255330 A JP 2010-036550 A

  However, the coating film transfer tool that can be used like these “mouse” has a part where the transfer tool is in contact with the surface to be transferred in addition to the transfer head. By touching like that, it could be used like a “mouse” and was able to transfer stably. On the other hand, in the conventional coating film transfer tool, only the transfer head is in contact with the transfer surface and is used by gripping. The problem to be solved by the present invention is to provide a device that can be gripped and used without touching the surface to be transferred except for the transfer head, and can be successfully transferred by anyone.

  In a general film transfer tool that does not hold like a “mouse”, each user has a different way of holding, and it is scattered. That was the problem. Therefore, the coating film transfer tool is provided with a mechanism that the user always has a certain way of holding.

  The present invention provides a self-winding film transfer tool for transferring a transfer coating film of a pressure-sensitive transfer tape to a transfer surface, and a movable part provided so as to slide along the outer surface of the case has a fixed outer surface of the case. There is no locking mechanism between the case and the movable part at the position slid from its fixed position, and the coating film is applied while holding the movable part slid while applying force. A film transfer tool for transferring, wherein the movable part is interlocked with the protective cover of the transfer head, and when the movable part is slid, the protective cover moves to enable transfer. Alternatively, the movable portion is interlocked with the transfer head, and when the movable portion is slid, the transfer head comes out of the case and can be transferred.

  Thus, the movable part needs to be slid and held as it is. Since the movable portion is provided along the outer surface of the case, it is difficult to slide the movable portion while holding the coating film transfer tool with one hand. Therefore, the user slides the movable part while pressing the coating film transfer tool with the other hand. Then, while keeping the movable part slid, release the other hand holding the coating film transfer tool, move the coating film transfer tool, and transfer the transferred coating film to the transfer surface. . As a result, it has a certain way of holding and must be used in that state. In this way, it is not easy to use with one hand on purpose, but with the other hand, it is designed to be held in a certain way.

  According to the present invention, it is possible to provide a device that can be held and used without contacting the surface to be transferred except for the transfer head, and that anyone can transfer well.

It is explanatory drawing which showed the coating-film transfer tool of the state which cannot be transferred. It is explanatory drawing which showed the coating-film transfer tool of the state which can be transcribe | transferred. FIG. 2 is an explanatory diagram illustrating the inside of FIG. 1 in the first embodiment. It is explanatory drawing which showed the inside of FIG. 2 in Example 1. FIG. FIG. 4 is an explanatory view showing the inside of the cartridge of FIG. 3. FIG. 5 is an explanatory view showing the inside of the cartridge of FIG. 4. FIG. 3 is an explanatory view showing a cartridge of Example 1. It is explanatory drawing which showed the opposite surface of FIG. It is explanatory drawing which showed the inside of FIG. FIG. 3 is an explanatory diagram showing the inside of FIG. 2 in Example 2. FIG. 6 is an explanatory diagram showing a state where transfer is impossible in Example 3. It is explanatory drawing which showed the inside of FIG. 12 in Example 3. FIG. It is explanatory drawing which showed the inside of FIG. 13 in Example 3. FIG.

  The coating film transfer tool may be any transfer coating film such as a correction tape or a tape glue. Here, the case where a tape transfer is used as the coating film transfer tool will be described. In the tape glue, the transfer coating film of the pressure-sensitive transfer tape is an adhesive coating film for bonding papers and the like. The coating film transfer tool here has a cartridge inside the case, and this cartridge is provided with a feeding reel, a transfer head, a take-up reel, a pressure-sensitive transfer tape, and the like. Although it is such a cartridge, it is a so-called single-use type that cannot be replaced.

  The pressure-sensitive transfer tape is a pressure-sensitive adhesive coating film obtained by subjecting both surfaces of a base tape to a peeling treatment to form a transparent adhesive layer on the surface of the base tape. In the peeling treatment, it is preferable to provide a difference in peeling force depending on the surface of the base tape. It is more preferable to use the back surface of the opposite substrate tape as a surface that peels well than the surface of the substrate tape that forms the adhesive coating film.

  In the first and second embodiments, the movable portion in claim 1 is interlocked with the protective cover of the transfer head, and in the third embodiment, the movable portion in claim 2 is interlocked with the transfer head. These will be described with reference to the drawings.

  The interlocked movement of the movable part 3 and the protective cover 4 provided on the case 2 in the coating film transfer tool 1 will be described first. Next, other configurations will be described in detail.

  FIG. 1 is an explanatory view showing a coating film transfer tool 1 in a state where transfer is impossible. The external appearance of the coating-film transfer tool 1 which is the state which cannot transfer in Claim 1 is represented. In the figure, the coating film transfer tool 1 has a thickness in the vertical direction of the drawing. The movable part 3 provided so as to slide along the outer surface of the case 2 is urged to a fixed position on the outer surface of the case, and the protective cover 4 interlocked with the movable part 3 covers the transfer head so that the transfer is performed. Incapable of being transferred (untransferable state).

  The movable portion 3 is provided so as to slide along the outer surface of the case 2 which is a thickness portion in the vertical direction of the drawing. The position of the movable part 3 in FIG. 1 is a fixed position where the movable part 3 is urged on the outer surface of the case 2. The movable part 3 that can be seen in the figure has an elongated shape and has a convex part in the left direction in the upper right part. The elongate portion looks elongated because the surface on which the user's finger is placed is viewed from the side. A convex part is a part provided so that a user's finger | toe may apply | hang | start and slide easily.

  FIG. 2 is an explanatory view showing the coating film transfer tool 1 in a transferable state. The external appearance of the coating-film transfer tool 1 which is the state which can be transferred in Claim 1 is represented. The movable part 3 is slid along the outer surface of the case 2, and the protective cover 4 is moved and hidden in the case 2 in conjunction with the movable part 3 so that the transfer head 5 appears and can be transferred (transferable state). is there.

  In FIG. 2, the protective cover 4 that was visible in FIG. 1 is in the case 2 and is not visible. The transfer head 5 shown here is a roller type. The pressure-sensitive transfer tape 6 coming out of the case 2 is reversed by the roller 7 and returned to the case 2. A roller support shaft 8 of the roller 7 is supported on the head side wall 9.

  Since the movable part 3 is provided along the outer surface of the case 2, it is difficult to slide the movable part 3 while holding the coating film transfer tool 1 with one hand. Although the user's finger is not drawn in the figure, it is difficult to slide the movable part 3 with, for example, the thumb while holding the coating film transfer tool 1 with one hand from the state of FIG. 1 to the state of FIG.

  Therefore, the user slides the movable portion 3 while pressing the coating film transfer tool 1 with the other hand, for example, holding the coating film transfer tool 1 with the index finger and thumb of the other hand. Then, with the movable part 3 kept in the slid state, the other hand holding the coating film transfer tool 1 is released, the coating film transfer tool 1 is moved, and the transferred coating film is transferred to the transfer surface. It will be.

  As a result, it has a certain way of holding and must be used in that state. In this way, it is not easy to use with one hand on purpose, but with the other hand, it is designed to be held in a certain way. 1 and 2, the circle with the net pattern shown in the case 2 is a portion where the finger of the other hand that presses the coating film transfer tool 1 is easily applied.

  FIG. 3 is an explanatory diagram showing the inside of FIG. 1 in the first embodiment. It is the coating-film transfer tool 1 of Example 1 in the state which cannot transfer, The case 2 etc. are made transparent and the inside is represented. FIG. 4 is an explanatory diagram showing the inside of FIG. 2 in the first embodiment. It is the coating-film transfer tool 1 of Example 1 in the state which can be transferred, The case 2 etc. are made transparent and the inside is represented similarly to FIG.

  For the sake of explanation, only the main members are shown. For this reason, other parts are omitted as appropriate, and there are parts that are actually present but not shown in this figure. For example, a portion where the cartridge 10 which is represented by opaqueness is fixed to the case 2 and a portion which is slid well inside the case 2 are omitted.

  When the movable part 3 is slid along the outer surface of the case 2 from the state of FIG. 3 showing the inside of FIG. 1, which is the state in which transfer is impossible, the protective cover 4 is moved and hidden in the case 2 in conjunction with the movement. The head 5 appears. FIG. 4 shows the state that appears, and shows the inside of FIG. 2 in Example 1 that is in a transferable state.

  The protective cover 4 covering the transfer head 5 has a rectangular tube shape. In the figure, one of the sides of the rectangular cylinder is visible and is represented by a rectangle. A connecting portion 11 is connected to the end. The cartridge 10 is fixed through the inside of the rectangular cylinder of the protective cover 4. A portion of the take-up reel 12 has emerged from the flat plate 13 of the cartridge 10 which is shown opaque and is visible in the figure.

  When the movable part 3 slides, the connection part 11 connected to the movable part 3 moves, the protective cover 4 connected to the connection part 11 slides and moves, and the protective cover 4 moves into the case 2. It is arranged to hide. The transfer head 5 also protrudes from the cartridge 10 and protrudes from the case 2. Since the cartridge 10 is fixed to the case 2, when the protective cover 4 moves into the case 2 and is hidden, the transfer head 5 appears and can be transferred.

  The connecting portion 11 has a shape curved to the left in the drawing. Near the thickness center of the case 2 in the vertical direction of the drawing, there is an opening 14 in the case 2, and there is a portion through which the movable part 3 and the connection part 11 are connected. From there, the connecting portion 11 inside the case 2 is divided into the front side and the back side of the drawing, and the tip of the left curved shape is connected to the end of the protective cover 4 not only in the front side of the drawing but also in the back side of the drawing. The back side of the drawing is not visible.

  Since the opening 14 opened in the case 2 is configured to be hidden from the appearance by the movable portion 3 at any position where the movable portion 3 is slid, the opening 14 is present in the case 2 from the appearance. I don't know.

  Here, the movable portion 3 is biased to a fixed position on the outer surface of the case 2 by a torsion spring 15. The torsion spring 15 is held by a spring holding portion 17 provided on the case 2 with one of the torsion springs 15 being held via a cylindrical spring support shaft 16, and the other is held by an urging protrusion 18 of the protective cover 4. It is installed in the case 2 so as to contact.

  The urging protrusion 18 is provided in a cylindrical convex shape from the side surface of the protective cover 4 visible in the drawing toward the front of the drawing. In the figure, it is represented by a circle on the side surface of the protective cover 4. As a result, the protective cover 4 is urged outward from the case 2. At the same time, the movable portion 3 is biased to a fixed position on the outer surface of the case 2 via the connection portion 11 connected to the protective cover 4. Here, there is one torsion spring 15 and one urging projection 18.

  The case 2 and the movable part 3 have no locking mechanism. For this reason, if the movable part 3 is not held while force is applied, the protective cover 4 interlocked with the movable part 3 comes out of the case 2 so that the transfer cannot be performed. . When the finger is removed from the movable part 3, it is in a state where it cannot be used. The user must continue to slide the movable part 3 and, at the same time, must move the coating film transfer tool 1 to transfer it. This further makes it difficult to hold the coating film transfer tool 1 with one hand and slide the movable part 3. There are these effects.

  Next, the other structure etc. in the coating-film transfer tool 1 of Example 1 are demonstrated in detail.

  FIG. 5 is an explanatory view showing the inside of the cartridge 10 of FIG. FIG. 6 is also an explanatory view showing the inside of the cartridge 10 of FIG. FIG. 5 is a view in which a flat plate 13 of the cartridge 10 which has been made opaque in FIGS. 3 and 4 is made transparent so that the inside of the cartridge 10 can be seen.

  Inside the cartridge 10, the pressure-sensitive transfer tape 6 fed from the feed reel 19 is guided toward the transfer head 5 through a cylindrical feed tape guide 20, and the pressure-sensitive pressure returned from the transfer head 5. It can be seen that the transfer tape 6 is wound on the take-up reel 12.

  In FIG. 5, the transfer head 5 is hidden by the protective cover 4, but in FIG. 6, since the movable portion 3 remains slid, the protective cover 4 is accommodated in the case 2, and the transfer head 5 is I can see it. In FIG. 6, the head side wall 9 of the transfer head 5 is also shown transparent.

  FIG. 7 is an explanatory diagram illustrating the cartridge 10 according to the first embodiment. There are two flat plates 13 in front of the drawing and on the back side of the drawing, and a supply reel 19 and a take-up reel 12 are interposed between them. Like FIG.5 and FIG.6, the flat plate 13 and the head side wall 9 are made transparent and the inside is represented.

  The transfer head 5 is also arranged so as to protrude from the flat plate 13. When the movable part 3 is slid, the protruding part is accommodated in the case 2 so that the protruding part appears. Thereby, the transfer coating film can be transferred by the transfer head 5.

  In the cartridge 10, the pressure-sensitive transfer tape 6 is unwound from the supply reel 19 and is wound around the take-up reel 12 via the transfer head 5. When the transfer coating film of the pressure-sensitive transfer tape 6 is transferred to the transfer surface by the transfer head 5, only the base tape of the pressure-sensitive transfer tape 6 is wound on the take-up reel 12.

  The supply reel 19 is rotatably fitted on a cylindrical supply reel support shaft 21. The feeding reel 19 has a core 22 around which the pressure-sensitive transfer tape 6 is wound. The core 22 is connected to the feeding gear 24 on the side surface of the feeding reel 19 on the back side of the drawing through the connection intermediate portion 23. The connection intermediate portion 23 is integrated with the feeding gear 24 on the side surface of the feeding reel 19 and has the same pattern in the figure. And the center circle of the connection intermediate part 23 is fitted in the cylindrical supply reel spindle 21 so that rotation is possible.

  Four portions of a “<” shape provided on the outer side from the center circle of the connection intermediate portion 23 are in contact with the inner peripheral surface of the core 22 while being pushed outward. If the timing is out of sync between somewhere where the tape is moving while being transferred, and the pressure-sensitive transfer tape 6 is pulled by some strong force, it slides at these four locations. As a result, it is possible to prevent problems such as sagging due to excessive drawing and breakage of the tape.

  The pressure-sensitive transfer tape 6 fed from the feed reel 19 is guided to the transfer head 5 through a cylindrical feed tape guide 20.

  The transfer head 5 is of a roller type. A pressure-sensitive transfer tape 6 is wound around the roller 7 so that transfer can be performed. Therefore, the transfer coating film of the pressure-sensitive transfer tape 6 can be transferred to the transfer surface by pressing from the back surface of the base tape of the pressure-sensitive transfer tape 6. In addition, the pressure-sensitive transfer tape 6 is reversed and returned by the roller 7.

  A roller support shaft 8 of the roller 7 is supported on the head side wall 9 of the transfer head 5. The head side wall 9 is roughly triangular and has two on the front side and the back side of the drawing, and supports the roller support shaft 8 so as to be rotatable with the roller 7 interposed therebetween.

  A main shaft fixedly connected to the two head side walls 9 extends between the two flat plates 13, and the transfer head 5 is held by a cylindrical transfer head support shaft 25. In the figure, these are also shown transparently and have the same pattern. In addition, a guide portion for restricting the movement of the transfer head 5 may be provided as appropriate, but is omitted in the drawing.

  After being transferred, the base tape of the pressure-sensitive transfer tape 6 is reversed by the roller 7 and is taken up by the take-up reel 12.

  The take-up reel 12 is rotatably fitted on a cylindrical take-up reel support shaft 26. The take-up reel 12 has a corrugated groove reel side surface 27 on the reel side surface in front of the drawing, and a corrugated groove 28 on the reel side surface. From there, the center circle of the take-up reel 12 through four short spokes toward the center is fitted on a cylindrical take-up reel spindle 26 so as to be rotatable.

  The corrugated groove 28 has a triangular wave shape composed of a vertical plane that rises in front of the drawing in the vertical direction and an inclined surface that obliquely descends from the vertical plane, and is formed like a circular fan. The corrugated groove 28 is a groove used for repairing when the tape is slackened. In the figure, the vertical plane of the corrugated groove 28 is represented by a straight line toward the outer circumference.

  In the cartridge 10, a cylindrical feeding reel spindle 21, a cylindrical feeding tape guide 20, a cylindrical transfer head spindle 25, a cylindrical take-up reel spindle 26, and a flat plate connection portion 29 are in front of the drawing. And two flat plates 13 on the back side of the drawing. Therefore, these are portions that become cross sections near the thickness center in the direction perpendicular to the drawing of the coating film transfer tool 1, and are therefore indicated by hatching in the drawing.

  FIG. 8 is an explanatory view showing the opposite surface of FIG. The structure and the like of the cartridge 10 are the same as those in FIG. As in FIG. 7, the flat plate 13 and the head side wall 9 are made transparent to represent the inside. Hereinafter, main parts in FIG. 8 will be described.

  The supply reel 19 is rotatably fitted on a cylindrical supply reel support shaft 21. The supply reel 19 has a supply gear 24, two claw portions 30, and two fan windows 31 that can check the remaining amount of the pressure-sensitive transfer tape 6 on the side of the reel in front of the drawing. In the vicinity of the center of the side surface, there is a central circle of the connection intermediate portion 23 connected by four short spokes. These are integrated, and the same pattern is given in the figure, but only the two claw portions 30 are difficult to understand, so the pattern is not given. And the center circle of the connection intermediate part 23 is fitted in the cylindrical supply reel spindle 21 so that rotation is possible. From the gaps due to the spokes, four locations of the “shape” provided outward from the connection intermediate portion 23 are visible.

  The take-up reel 12 is rotatably fitted on a cylindrical take-up reel support shaft 26. The take-up reel 12 has a circular side surface 32 on the side surface of the reel in front of the drawing, and a take-up gear 33 smaller than the diameter of the circular side surface 32 on the side surface. The center circle of the take-up reel 12 is fitted on a cylindrical take-up reel spindle 26 so as to be rotatable.

  Here, a gear is used as an interlocking mechanism for smoothly moving the pressure-sensitive transfer tape 6 from the supply reel 19 to the take-up reel 12. The feeding gear 24 of the feeding reel 19 and the winding gear 33 of the winding reel 12 are engaged with each other. Thereby, the supply reel 19 and the take-up reel 12 are interlocked.

  Further, the gear ratio and the reel diameter ratio are adjusted so that the pressure-sensitive transfer tape 6 moves smoothly without sagging. In addition, it is rotated in one direction by a reverse rotation prevention mechanism so that the tape can be automatically wound while the transfer coating film is transferred by the transfer head. The tape is wound between the corrugated groove reel side surface 27 and the circular side surface 32.

  The reverse rotation prevention mechanism is the same as that provided in a general coating film transfer tool, and has a structure like a so-called ratchet. The two claw portions 30 of the feeding reel 19 and the transparent inner portion are not shown in the figure, but are not shown in the figure. However, the circular fan-shaped concave and convex grooves provided on the inner surface of the flat plate 13 prevent reverse rotation.

  The second embodiment is different in the means for urging the movable portion 3 to a fixed position on the outer surface of the case, and uses a coil spring instead of a torsion spring. Other structures are the same as those in the first embodiment, and the appearance of the coating film transfer tool 1 in the second embodiment is also the same as that shown in FIGS. Therefore, the appearance movement of the protective cover 4 interlocked with the movable part 3 is the same as that of the first embodiment.

  FIG. 9 is an explanatory diagram showing the inside of FIG. 1 in the second embodiment. It is the coating-film transfer tool 1 of Example 2 in the state which cannot transfer, The case 2 etc. are made transparent and the inside is represented. FIG. 10 is an explanatory diagram showing the inside of FIG. 2 in the second embodiment. It is the coating-film transfer tool 1 of Example 2 in the state which can be transferred, The case 2 etc. are made transparent and the inside is represented similarly to FIG.

  When the movable part 3 is slid along the outer surface of the case 2 from the state of FIG. 9 showing the inside of FIG. 1 which is a state incapable of transfer, the protective cover 4 moves into the case 2 and hides in conjunction with it. The transfer head 5 appears. FIG. 10 shows the state that appears, and shows the inside of FIG. 2 in the second embodiment in which transfer is possible.

  The configurations and movements of the movable portion 3, the protective cover 4, and the connection portion 11 in the second embodiment are the same as those in the first embodiment.

  Here, the movable portion 3 is biased to a fixed position on the outer surface of the case 2 by a coil spring. The coil spring is installed inside the spring portion 34. The spring part 34 is connected and fixed to a spring part holding part 35 at the upper right and lower left of the drawing as both ends thereof, and the two spring part holding parts 35 are respectively attached to the inner surface of the case 2 on the front side and the back side of the drawing. Connected and fixed.

  The force of the coil spring installed inside the spring portion 34 is transmitted to the spring biasing projection 36. The spring biasing projection 36 is provided in a cylindrical convex shape so as to protrude outward from an elongated projection window 37 provided in the spring portion 34. The internal structure of the spring portion 34 that should be visible from the protruding window 37, for example, a part of the coil spring, is omitted.

  A cylindrical convex spring biasing projection 36 is biased in contact with the connecting portion 11 and simultaneously biases the movable portion 3 and the protective cover 4. Similarly, on the back side of the drawing, there is an elongated projection window 37 provided in the spring portion 34, and a cylindrical convex spring biasing projection 36 protruding outward from the window is provided on the connection portion 11 that is not visible on the back side of the drawing. Energized in contact. Here, there is one coil spring, and there are two spring biasing projections 36.

  The case 2 and the movable part 3 have no locking mechanism. Therefore, the effects described in the first embodiment are the same in the second embodiment.

  Also, other configurations in the coating film transfer tool 1 of the second embodiment, such as the configuration of the cartridge and the internal movement, are the same as those of the first embodiment.

  FIG. 11 is an explanatory view showing the coating film transfer tool 1 in a non-transferable state in the third embodiment. The external appearance of the coating-film transfer tool 1 which is the state which cannot transfer in Claim 2 is represented. In the figure, the coating film transfer tool 1 has a thickness in the vertical direction of the drawing. A movable portion 3 provided so as to slide along the outer surface of the case 2 is urged to a fixed position on the outer surface of the case, and a transfer head 5 linked to the movable portion 3 is accommodated in the case 2. In this state, transfer cannot be performed (transfer cannot be performed).

  In FIG. 11, the only difference in appearance from FIG. 1, which is the same untransferable state, is the protective cover portion. In FIG. 11, there is no protective cover, and the transfer head 5 is housed inside the case 2. The movable part 3 is the same as that of the first embodiment.

  FIG. 2 is also an explanatory view showing the coating film transfer tool 1 in a transferable state according to the third embodiment. The external appearance of the coating-film transfer tool 1 which is the state which can be transferred in Claim 2 is represented. FIG. 2 in the third embodiment is such that the movable part 3 is slid along the outer surface of the case 2, and the transfer head 5 comes out of the case 2 and appears in association with the movable part 3. ).

  Even in this case, similarly to the first embodiment, it is difficult to slide the movable part 3 while holding the coating film transfer tool 1 with one hand. Therefore, the user slides the movable portion 3 while pressing the coating film transfer tool 1 with the other hand, for example, holding the coating film transfer tool 1 with the index finger and thumb of the other hand. Then, with the movable part 3 kept in the slid state, the other hand holding the coating film transfer tool 1 is released, the coating film transfer tool 1 is moved, and the transferred coating film is transferred to the transfer surface. It will be.

  As a result, it has a certain way of holding and must be used in that state. In this way, it is not easy to use with one hand on purpose, but with the other hand, it is designed to be held in a certain way. Also in FIG. 11, the circle with a net pattern shown in the case 2 is a portion where the finger of the other hand that presses the coating film transfer tool 1 is easily applied.

  FIG. 12 is an explanatory diagram showing the inside of FIG. 11 in the third embodiment. It is the coating-film transfer tool 1 of Example 3 in the state which cannot transfer, The case 2 etc. are made transparent and the inside is represented. FIG. 13 is an explanatory diagram showing the inside of FIG. 2 in the third embodiment. It is the coating-film transfer tool 1 of Example 3 in the state which can be transferred, The case 2 etc. are made transparent and the inside is represented similarly to FIG.

  For the sake of explanation, only the main members are shown. For this reason, other parts are omitted as appropriate, and there are parts that are actually present but not shown in this figure. For example, a portion for smoothly sliding the cartridge 10 that is opaque in the case 2 is omitted.

  When the movable part 3 is slid along the outer surface of the case 2 from the state of FIG. 12 showing the inside of FIG. 11 which is the state in which transfer is impossible, the transfer head 5 appears to move out of the case 2 in conjunction therewith. FIG. 13 shows the state that appears, and shows the inside of FIG. 2 in the third embodiment in which transfer is possible.

  When the movable part 3 slides, the movable part rack 38 connected to the movable part 3 also slides through the opening 14 near the thickness center of the case 2 in the vertical direction of the drawing. The movable part rack 38 is engaged with the pinion 39, and the pinion 39 rotates as the movable part rack 38 slides.

  The pinion 39 is rotatable about a cylindrical rotation shaft 40 fixed to the case 2. The pinion 39 is also engaged with a cartridge rack 41 provided in the cartridge. When the pinion 39 rotates, the cartridge 10 having the cartridge rack 41 slides.

  Here, the movable part 3 is urged to a fixed position on the outer surface of the case 2 by transmitting the force of the torsion spring 15. One of the torsion springs 15 is sandwiched and held by a spring holding portion 17 provided in the case 2 via a cylindrical spring support shaft 16, and the other is in contact with the biasing protrusion 18 of the cartridge 10. As shown in FIG.

  The biasing protrusion 18 is provided in a cylindrical convex shape from the flat plate 13 of the cartridge 10 visible in the drawing toward the front of the drawing. In the figure, the cartridge 10 is represented by a circle on the flat plate 13. As a result, the cartridge 10 is urged toward the inside of the case 2. At the same time, the force is transmitted in the direction opposite to the direction of the force of the torsion spring 15 via the pinion 39, and the movable part 3 is urged to a fixed position on the outer surface of the case 2. Here, there is one torsion spring 15 and one urging projection 18.

  The case 2 and the movable part 3 have no locking mechanism. Therefore, the effects described in the first embodiment are the same in the third embodiment.

  Also, other configurations in the coating film transfer tool 1 of the third embodiment, such as the configuration of the cartridge and the internal movement, are the same as in the third embodiment except that the rack and pinion mechanism, the torsion spring 15 and the cartridge 10 slide. Same as 1.

DESCRIPTION OF SYMBOLS 1 Coating film transfer tool 2 Case 3 Movable part 4 Protective cover 5 Transfer head 6 Pressure-sensitive transfer tape 7 Roller 8 Roller spindle 9 Head side wall 10 Cartridge 11 Connection part 12 Take-up reel 13 Flat plate 14 Opening part 15 Torsion spring 16 Spring support Shaft 17 Spring holding portion 18 Energizing protrusion 19 Feeding reel 20 Feeding tape guide 21 Feeding reel spindle 22 Core 23 Connection intermediate part 24 Feeding gear 25 Transfer head spindle 26 Take-up reel spindle 27 Waveform groove reel side face 28 Waveform groove DESCRIPTION OF SYMBOLS 29 Flat plate connection part 30 Claw part 31 Fan window 32 Circular side surface 33 Winding gear 34 Spring part 35 Spring part holding | maintenance part 36 Spring projection 37 Spring window 38 Movable part rack 39 Pinion 40 Rotating shaft 41 Cartridge rack

Claims (2)

A case with an interlocking mechanism between the take-up reel and the take-up reel so that the pressure-sensitive transfer tape with the transfer coating film formed on the surface of the base tape is drawn out from the take-out reel and wound around the take-up reel via the transfer head In the automatic winding type film transfer tool that transfers the transfer coating film of the pressure-sensitive transfer tape to the transfer surface with the transfer head protruding from the case,
The movable part provided to slide along the outer surface of the case is biased to a fixed position on the outer surface of the case, and there is no locking mechanism between the case and the movable part at the position slid from the fixed position. A coating film transfer tool for transferring the coating film in a state where the movable part is held while being slid while giving
A coating film transfer tool, wherein the movable part is interlocked with the protective cover of the transfer head, and when the movable part is slid, the protective cover moves to enable transfer. A case with an interlocking mechanism between the take-up reel and the take-up reel so that the pressure-sensitive transfer tape with the transfer coating film formed on the surface of the base tape is drawn out from the take-out reel and wound around the take-up reel via the transfer head In the automatic winding type film transfer tool that transfers the transfer coating film of the pressure-sensitive transfer tape to the transfer surface with the transfer head protruding from the case,
The movable part provided to slide along the outer surface of the case is biased to a fixed position on the outer surface of the case, and there is no locking mechanism between the case and the movable part at the position slid from the fixed position. A coating film transfer tool for transferring the coating film in a state where the movable part is held while being slid while giving
A coating film transfer tool, wherein the movable part is interlocked with the transfer head, and when the movable part is slid, the transfer head comes out of the case and can be transferred.

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