JP2014200979A - Transfer tool - Google Patents

Abstract

An object of the present invention is to eliminate the point that the base material loosens during the state transition between used and unused, and the stringing of the transfer medium is promoted.
A transfer tool 1 of the present invention is provided within a housing 2 and the housing 2, and a delivery shaft portion 3, a winding shaft portion 4, drive gears 5, 6 and a transfer portion 7 are connected to each other. The substrate 8 is fixedly arranged without changing its position, and when the transfer unit 7 is pushed against the transfer target body on the inner surface of the housing 2 during use, the substrate 8 moves relative to the housing 2. When the engagement with the drive gear 5 is disengaged and the transfer portion 7 is separated from the transfer target body when not in use, the engagement portion 10 is provided in which the substrate 8 is relatively moved from the inside of the housing 2 and engaged with the drive gear 5. It was.
[Selection] Figure 2

Description

  The present invention is a state in which the substrate in an unused state is in a slack state, the slack substrate is in contact with the outside and damaged, twisted, or without attaching a transfer medium to an unintended location, The present invention relates to a transfer tool that can suppress the occurrence of a phenomenon such as pulling a thread even when a transfer medium with low breakability is used.

  A transfer tool for transferring a transfer medium to a transfer medium such as paper has as its main component a transfer shaft portion in which a transfer tape having a transfer medium coated on a base material is wound in a housing, and transfer of the transfer tape. A take-up shaft portion that winds the substrate after the medium is transferred to the transfer target, and a transfer portion that transfers the transfer medium of the transfer tape to the transfer target. Hereinafter, the transfer tape on the delivery side and the base material on the take-up side will be collectively referred to as “base material” unless the transfer tape and the transfer medium are specifically described.

  With the transfer tool, the transfer unit exposed from the housing is pressed against the transfer target body while moving the whole on the transfer target member, so that the relative movement between the substrate and the transfer target member is caused by the output of the transfer shaft part. It becomes the driving force (and the winding driving force of the winding shaft portion), the base material is pulled out from the sending shaft portion (the base material is taken up by the winding shaft portion), and at the transfer portion when this base material is transported The transfer medium on the substrate is transferred to the transfer target.

  By transferring the entire transfer tool away from the transfer target, the transfer tool breaks so that the transfer medium on the transfer target side (transferred) and the transfer medium on the transfer part side (untransferred) are torn off. This completes the transfer operation.

  At this time, the transfer medium is poorly ruptured, and as shown in FIG. 18 (a), when the transfer tool is separated from the transfer target, the transfer medium is not broken and is not between the transfer target and the transfer tool. The transfer medium remains, for example, as shown in FIG. 18B, the transfer medium remains on the transfer portion side, and the transfer medium is peeled off from the transfer target, and conversely, as shown in FIG. 18C. A so-called “string drawing” phenomenon may occur in which the transfer medium remains on the transfer target side and the transfer medium (base material) is unnecessarily sent out from the transfer portion side.

  For example, Patent Documents 1 and 2 propose that the yarn drawing phenomenon is eliminated by the structure on the transfer tool side. In Patent Documents 1 and 2, when the transfer unit is pressed against the transfer target, the transfer unit is moved from the initial position by pressing the transfer unit against the transfer target. Then, when the engagement state of the delivery shaft portion is released and the transfer portion is separated from the transfer target, the transfer portion returns to the initial position, and the delivery shaft portion is moved by this movement (initial position). And a member that engages with the outer delivery shaft portion to prevent rotation (feeding of the base material).

  In short, the configurations of Patent Documents 1 and 2 are such that when the transfer unit is pressed against the transfer target during use, or when the transfer unit is separated from the transfer target when not used, the feed shaft is set according to the position angle of the transfer unit. It is the structure which cancels | releases engagement with a part or engages.

  In the configurations of Patent Documents 1 and 2, when the position angle of the transfer portion is set to 0 ° with respect to the attachment portion of the unused transfer portion, the center of the unused portion when the transfer portion is pressed against the transfer target during use It changes by several degrees (for example, about 5 ° to 10 °) from the reference. The change of the position angle means that the transfer portion and the housing visually appear to be in a series or bent around the attachment portion of the transfer portion.

  Therefore, in Patent Documents 1 and 2, when the transfer unit is separated from the transfer target, the position angle used up to that time changes (returns), and the sending shaft unit moves along with the return movement of the position angle of the transfer unit. Since the rotation of the substrate is blocked and the substrate is not sent out or taken up any further, the substrate (transfer medium) that has already been sent out by moving the transfer part several degrees during use is not used. When the position angle of the transfer portion returns to (initial position), it remains sent out.

  That is, in the configurations of Patent Documents 1 and 2, a base material that is loose (not in close contact) with respect to the transfer portion is generated each time the state transitions from the time of use to the time of nonuse. If the base material is used again in a slack state as described above, the delivery shaft portion can be rotated again at the time of use, and therefore, there is a possibility that the use is started without the slackness being eliminated.

  If you try to use it again with the base material loosened, the transfer medium cannot be transferred to the transfer target as intended, or in an unused transfer tool with the base material loosened, There is a great possibility of contact with the outside, damage, catching, twisting, or attaching a transfer medium to an unintended location. Furthermore, the thread pulling is promoted synergistically with the point that the transfer tape remains unnecessarily delivered when the transfer object and the transfer tool (base material) are separated, that is, when not used. It will also be a thing.

  With respect to the occurrence of slack in the base material and the promotion of stringing in the configurations of Patent Documents 1 and 2, the following can be said. Under circumstances where stringing occurs, the transfer tape (base material) on the transfer tool side is transferred by the transfer medium (which is still in a stringing state that has not yet been broken) on the transfer object side when the state transitions when not in use. Will be sent out. As a result, an unnecessary amount of the transfer tape is sent out, and the transfer tape cannot be broken at the position where the transfer tape is to be broken along with the feed amount, and the stringing is promoted.

JP-A-5-178525 Japanese Patent Laid-Open No. 11-1095

  In Patent Documents 1 and 2, the problem to be solved is that the base material in an unused state is loosened, and the loose base material comes into contact with the outside and is damaged, twisted, or transferred to an unintended location. The point to which the medium is adhered and the point that the stringing of the transfer medium is facilitated by the loosening of the base material.

  The present invention includes a casing, a delivery shaft provided in the casing and wound with a transfer tape coated with a transfer medium on a base material, and the transfer medium of the transfer tape is transferred to a transfer target. The winding shaft for winding the substrate after, the drive gear provided on each of the feeding shaft and the winding shaft, and the transfer unit for transferring the transfer medium of the transfer tape to the transfer medium are positioned relative to each other. The substrate is fixedly arranged without changing, and when the transfer unit is pushed against the transfer target body during use on the inner surface of the housing, the substrate is relatively moved into the housing and the drive gear is moved. The main feature is that when the transfer part is separated from the transfer body when not in use and the transfer part is separated from the transfer object when not in use, the board is relatively moved from the inside of the housing to be engaged with the drive gear. To do.

  The present invention does not change (move) the position angle of the transfer portion, that is, does not have a configuration in which the substrate is sent out excessively when not in use, and the mutual arrangement relationship of the configuration accompanying the conveyance and use of the substrate does not change. However, since the drive gear and the engaging portion are engaged when not in use, unnecessary base materials are not sent out each time the state transitions from use to unused.

  Therefore, according to the present invention, a base material that is slackened when not in use is prevented from being damaged due to contact with the outside, twisting, or attaching a transfer medium to an unintended location. Further, the present invention does not produce a slack base material as described above by engaging the driving gear and the engaging portion when not in use, so that the stringing is not promoted. Even if a highly rigid transfer medium having a high adhesive strength or a large layer thickness is employed, it can be reliably broken.

FIG. 1 shows the overall structure of the transfer tool of the present invention, wherein (a) is a front view and (b) is a perspective view. Example 1 FIG. 2 is an exploded perspective view showing the overall structure of the transfer tool of the present invention. Example 1 FIGS. 3A and 3B are views showing the housing of the transfer tool of the present invention. Example 1 4A to 4C are views showing one side of the substrate of the transfer tool of the present invention. Example 1 5A to 5C are views showing the other side of the substrate of the transfer tool of the present invention. Example 1 6A to 6C are views showing a winding shaft portion of the transfer tool of the present invention. Example 1 FIGS. 7A to 7C are views showing the delivery shaft portion of the transfer tool of the present invention. Example 1 FIG. 8 shows the operating state of the transfer tool of the present invention, where (a) is an illustration for explaining the initial state and the unused state, and (b) the used state. Example 1 FIG. 9 shows the operation status of the transfer tool of the present invention, where (a) shows the relationship between the transfer part in an appropriate use state and the transfer target, and (b) shows the use in which the situation where stringing is likely to occur is prevented. It is a figure for demonstrating the relationship between the transfer part of a state, and a to-be-transferred body. Example 1 FIG. 10 shows the overall structure of the transfer tool of the present invention, where (a) is a front view and (b) is a perspective view. (Example 2) FIG. 11 is an exploded perspective view showing the overall structure of the transfer tool of the present invention. (Example 2) 12 (a) and 12 (b) are views showing the housing of the transfer tool of the present invention. (Example 2) 13A to 13C are views showing one side of the substrate of the transfer tool of the present invention. (Example 2) FIGS. 14A to 14C are views showing the other side of the substrate of the transfer tool of the present invention. (Example 2) FIG. 15 shows the operating state of the transfer tool of the present invention, where (a) is an illustration for explaining an initial state and an unused state, and (b) a used state. (Example 2) FIG. 16 shows the operation status of the transfer tool of the present invention, where (a) shows the relationship between the transfer part in an appropriate use state and the transfer target, and (b) shows the use in which the situation where stringing is likely to occur is prevented. It is a figure for demonstrating the relationship between the transfer part of a state, and a to-be-transferred body. (Example 2) FIG. 17 is a view showing the structure of a transfer tape used in the transfer tool of the present invention. 18 (a) to 18 (c) are diagrams for explaining the thread drawing situation.

  The present invention specifies that the problem of the transfer tool of the conventional Patent Documents 1 and 2 is caused by the change in the position angle of the transfer portion when the state transition from use to unused, and moves between unused and used A “substrate” in which a transfer portion, a take-up shaft portion, a feed shaft portion, and a drive gear of each of the take-up shaft portion and each drive gear of the feed shaft portion are provided invariably is a “housing”. This is solved by adopting a configuration in which the drive gear and the engaging portion are disengaged when in use, and the drive gear and the engaging portion are engaged when not in use.

  That is, the structure of the transfer tool of the present invention includes a housing, a delivery shaft provided in the housing and wound with a transfer tape coated with a transfer medium on a base material, and a transfer medium of the transfer tape. The winding shaft that winds up the substrate after being transferred to the transfer body, the drive gear provided on each of the feed shaft and the winding shaft, and the transfer medium of the transfer tape are transferred to the transfer body. And a substrate on which the transfer portion is fixedly arranged without changing its position, and when the transfer portion is pressed against the transfer object during use on the inner surface of the housing, the substrate is placed in the housing. Relative movement disengages from the drive gear, and when the transfer portion is separated from the transfer target when not in use, an engagement portion that engages with the drive gear by relative movement of the substrate from within the housing is provided. Is.

  Further, according to the present invention, there is a possibility that stringing may occur redundantly by adopting a configuration in which the transfer tape feeding direction is regulated at an angle of 70 ° or more even when tilted with respect to the transfer target. Further suppression can be achieved.

  Furthermore, according to the present invention, in any one of the above-described configurations, the transfer tool is separated from the transfer target body by providing an elastic member that is in a stretched state when not in use, between the substrate and the inner surface of the housing. When the state is reached, the engagement portion and the drive gear can be quickly engaged to further prevent the substrate from being sent out excessively by the thread drawing.

  Further, in the present invention, in any of the above-described configurations, it is possible to use a transfer tape having a pressure-sensitive adhesive layer provided with adhesiveness on the upper and lower surfaces of the support layer on a base material via a release layer. By using such a transfer tape, it can be used well in applications that require a strong viscosity and high rigidity.

  Hereinafter, specific embodiments of the present invention will be described with reference to FIGS. The transfer tool 1 of the present invention has, as a basic configuration, a feed shaft portion 3 in which a transfer tape P in which a transfer medium T is applied to a base material B is wound in a housing 2 and a transfer of the transfer tape P. A winding shaft portion 4 for winding the base material B after the medium T is transferred to the transfer target S, and drive gears 5 and 6 provided in each of the feeding shaft portion 3 and the winding shaft portion 4; The transfer portion 7 for transferring the transfer medium T of the transfer tape P to the transfer target S, the sending shaft portion 3, the winding shaft portion 4, the drive gears 5, 6, and the transfer portion 7 are not changed in mutual arrangement. A fixedly arranged substrate 8 is provided.

Example 1
The transfer tool 1 in Example 1 shown in FIGS. 1 to 9 has the following configuration in the basic configuration. In the following description, the opposite surface is the “inner side surface”, the opposite side of the inner side surface is the “outer side surface”, and the side on which the transfer unit 7 is arranged is “lower side” in the configuration. The description will be made assuming that the side opposite to the lower side is the “upper side”.

  As shown in FIGS. 2 and 3, the housing 2 is divided into, for example, two side surfaces, which are housings 2 </ b> A and 2 </ b> B. Note that a configuration for closing the casings 2A and 2B and integrating them as the casing 2 is not shown. The housing 2A is provided with one end of a spring 9 as an elastic member on the upper inner surface. The spring 9 has a natural length and is in an extended state.

  Further, the housing 2A is formed with rails 2b extending on the inner side surface in an upper-lower direction and parallel to a direction orthogonal to the direction. The rail 2b is for guiding the movement of a guide 8a of a substrate 8 (8A) described later.

  The housing 2B is provided with an engaging portion 10 having a triangular cross section on the inner surface. The engaging portion 10 is provided such that the apex points upward.

  As shown in FIGS. 2, 4 and 5, the substrate 8 is composed of a pair of substrates 8A (FIG. 4) and 8B (FIG. 5). A configuration for integrating the substrates 8A and 8B as the substrate 8 is not shown.

  The substrate 8A shown in FIG. 4 has, for example, a T-shaped guide 8a that moves along the rail 2b and abuts on the end of the rail 2b at a predetermined position to stop the movement. . Further, the substrate 8A has a base portion 8b protruding from the upper end portion toward the inner surface. The base portion 8b is provided with a spring receiving portion 8c that receives the other end of the spring 9.

  Further, the substrate 8A pivotally supports the drive gears 5 and 6 in the delivery shaft portion 3 and the take-up shaft portion 4 and the intermediate gear G engaged with the drive gears 5 and 6 on the inner surface. The pivot portions 8d, 8e, and 8f are provided in order from the upper side. In this example, since the winding shaft portion 4 is located on the upper side and the delivery shaft portion 3 is located on the lower side, the pivotal support portion 8d is located on the winding shaft portion 4, and the pivotal support portion 8f is located on the delivery shaft portion 3. It corresponds. Further, the substrate 8A is provided with a transfer portion 7 below the inner side surface. Details of the transfer unit 7 will be described later.

  The substrate 8B is provided with bearing portions 8g, 8h, and 8i on the inner surface thereof for receiving the pivot portions 8d, 8e, and 8f, respectively. Further, the substrate 8B is formed with a window portion 8C through which the engaging portion 10 formed on the inner surface of the housing 2B is inserted immediately above the bearing portion 8i.

  As shown in FIG. 6, the take-up shaft portion 4 is formed integrally with the drive gear 6 at its bottom (side facing the substrate 8A), and a cylindrical reel portion 4A is formed from the gear surface. Become. The winding shaft portion 4 is formed with a hole in the shaft core portion of the drive gear 6 and the reel portion 4A, and the pivot portion 8d is inserted therethrough.

  As shown in FIG. 7, the delivery shaft portion 3 has a drive gear 5 integrally formed at the bottom (side facing the substrate 8A) and a cylindrical reel portion 3A formed from the gear surface. . The delivery shaft portion 3 is different from the take-up shaft portion 4 in that the reel portion 5A has an inner tooth 3B formed on a cylindrical inner peripheral surface. Further, a shaft cylinder portion 3C is suspended from the gear surface of the drive gear 5, and the pivot portion 8f is inserted into the shaft hole of the drive gear 5 communicating with the shaft hole of the shaft cylinder portion 3C.

  The engaging portion 10 of the housing 2B is positioned in the radial space between the reel portion 3A and the shaft tube portion 3C via the window portion 8C of the substrate 8B. And this engaging part 10 engages with the internal tooth 3B when not in use, as will be described later.

  The transfer unit 7 will be described in detail later in the description of the operation. As a configuration, the transfer unit 7 has a mounting portion 7A attached to the substrate 8A, and a virtual vertical line extending from the transfer body S by the transfer tape P (this is 90 °: A guide body 7B that regulates the entire transfer unit 7 and the transfer tool 1 so that it does not tilt less than 70 ° (−20 °) with respect to the reference), and a roller 7C provided on the guide body 7B.

  The guide body 7B is formed with a transport hole 7a (sending side) and a transport hole 7b (winding side) for constituting a transfer path and a winding path of the transfer tape P with the mounting portion 7A interposed therebetween. The transfer tape P (substrate B on the take-up side) is inserted through (on the delivery side) to form a conveyance path for turning back the roller 7C.

  The transfer tool 1 of Example 1 having the above-described configuration is assembled as shown in FIG. In the initial state (unused), as shown in FIG. 8A, the substrate 8 (the substrate 8 referred to here is the delivery shaft portion 3, the winding shaft portion 4, the drive gear 5, as shown in the figure). 6, which is a state in which the transfer unit 6 is integrated), is urged by the spring 9 in the housing 2 and is positioned on the lower side.

  In this unused state, the T-shaped horizontal portion of the guide 8a of the board 8A is in contact with the upper end of the rail 2b of the housing 2A, and the board 8 is restricted from moving further downward. doing. Further, the engagement portion 10 of the housing 2B viewed from the window portion 8C of the substrate 8B meshes with the internal teeth 3B of the delivery shaft portion 3, and the transport itself of the delivery shaft portion 3 (drive gear 5) and the transfer tape P itself. Is blocking.

  When the housing 2 (transfer tool 1) is pressed against the transfer target S in the use state, as shown in FIG. 8B, the case 2 is based on the contact position between the transfer unit 7 and the transfer target S. Moves so as to approach the transfer body S while shortening the spring 9, and the substrate 8 moves in the upper direction of the upper-lower direction relative to the movement of the housing 2.

  In this state of use, as described above, the spring 9 is shortened, and the engagement portion 10 of the housing 2B viewed from the window portion 8C of the substrate 8B is disengaged from the internal teeth 3B of the delivery shaft portion 3. The delivery shaft 3 (drive gear 5) and the transfer tape P can be conveyed.

  That is, since the transfer tool 1 of the present invention is configured so that the transfer tape P can be transported and cannot be transported in a configuration that does not involve the transport of the transfer tape P. Furthermore, the mutual arrangement of the delivery shaft portion 3 and the drive gear 5, the take-up shaft portion 4 and the drive gear 6, and the transfer portion 7 does not change at all during the state transition between use and unused. Occurrence of slack is suppressed, and the stringing phenomenon is improved.

  In addition, the transfer tool 1 of this example has a structure for improving the stringing phenomenon in the transfer unit 7 as shown in FIG. That is, in the threading phenomenon, when the transfer tool 1 is separated from the transfer target S, the transfer tape P feed-out direction (feed-out path line) is inclined beyond the range of 70 ° with respect to the transfer target S. It has been found by research of the inventors of the present invention that it is likely to occur.

  Therefore, the transfer tool 1 of the present invention has a delivery route line from the transfer target S as shown in FIG. 9 (a) when it is in an unused state in consideration of the thread drawing phenomenon and the user's comfort. The transfer unit 7 is configured so as to be within ± 20 ° as shown in FIG. 9 (b) even though it is optimal to be separated so as to coincide with the virtual vertical line (90 °).

  The transfer unit 7 is configured such that the guide body 7B does not come into contact with the transfer body S even if the transfer tool 1 is inclined at an angle smaller than, for example, 70 ° with respect to the virtual vertical line. Along with the suppression of the inclination of the guide body 7B, the transport hole 7a is also formed so that the transport path line of the transfer tape P is 70 ° or more with respect to the virtual vertical line.

  By doing so, even if the transfer tool 1 is separated from the transfer target S after use, the transfer medium T is not separated from the virtual vertical line by an angle smaller than 70 °. In addition, the stringing phenomenon is surely improved.

  Therefore, the transfer tool 1 according to the first embodiment of the present invention moves relative to the upper side when the substrate 8 to which the arrangement of the main components for use is fixed is used, and to the lower side when not in use. Since the driving gear 5 is prevented from rotating by the engaging portion 10 when it is not in use, it is easily broken even if the transfer tape P has a strong adhesive force or a thick adhesive layer, and the thread. The pulling phenomenon is dramatically improved, the transfer tape P is not sent out excessively and is not loosened, and the stringing is not promoted.

(Example 2)
The transfer tool 1 of the second embodiment shown in FIGS. 10 to 16 is different from the first embodiment in the shape of the housing 2 (housing 2A, 2B) and the substrate 8 (substrate 8A, 8B). Hereinafter, a configuration different from that of the first embodiment will be described, and overlapping description will be simplified.

  As described above, the transfer tool 1 according to the second embodiment is different in the shape of the housing 2 and the substrate 8, and the longitudinal direction of the housing 2 (upper-lower direction in the first embodiment) is laid horizontally. It has become. In Example 2, the definitions of the upper side and the lower side are the same.

  The housing 2A is provided with a spring 9 on the upper inner surface, and a shaft portion 2c is formed on the inner surface. The shaft portion 2 c pivotally supports the winding shaft portion 4 (and the drive gear 6) together with the substrate 8. The housing 2B is provided with an engaging portion 10 on the inner surface on the side where the opening 2a is formed, and a bearing 2d that receives the shaft portion 2c is formed on the inner surface on which the winding shaft portion 4 is located during assembly. Yes.

  11 and 13 includes a base portion 8b on the inner surface, a spring receiving portion 8c provided on the base portion 8b, a pivotal support portion 8e of the intermediate gear G, and the delivery shaft portion 3 (and the drive gear 5). The pivot part 8f and the transfer part 7 are provided. The substrate 8A is formed with a through hole 8j through which the shaft portion 2c formed in the housing 2A is inserted.

  The board 8B shown in FIGS. 11 and 14 is provided with a window portion 8C on the inner surface, a bearing portion 8h corresponding to the pivot portion 8e, and a bearing portion 8i corresponding to the pivot portion 8f. Further, the substrate 8B is also formed with a through hole 8j, similar to the substrate 8A.

  The configuration of the take-up shaft 4 and the drive gear 6, the delivery shaft 3 and the drive gear 5 is exactly the same as that shown in FIGS. Also, the shape of the transfer portion 7 is different from that of the first embodiment, and is the same as that of the first embodiment in that an attachment portion 7A, a guide body 7B, a roller 7C, and conveying holes 7a and 7b are provided.

  The transfer tool 1 of Example 2 configured as described above is assembled as shown in FIG. In the initial state (unused), as shown in FIG. 15A, the substrate 8 (the substrate 8 referred to here is the delivery shaft portion 3, the winding shaft portion 4, the drive gear 5, as shown in the figure). 6, which is a state in which the transfer unit 6 is integrated), is urged by the spring 9 in the housing 2 and is positioned on the lower side.

  In this unused state, the shaft portion 2c, the bearing 2d, and the engaging portion 10 are restricted from moving further downward by the engagement of the inner teeth 3B of the delivery shaft portion 4 with the shaft 8c. Further, the engagement portion 10 of the housing 2B viewed from the window portion 8C of the substrate 8B meshes with the internal teeth 3B of the delivery shaft portion 3, and the transport itself of the delivery shaft portion 3 (drive gear 5) and the transfer tape P itself. Is blocking.

  When the housing 2 (transfer tool 1) is pressed against the transfer target S in use, the case 2 is based on the contact position between the transfer unit 7 and the transfer target S as shown in FIG. Moves so as to approach the transfer target S while shortening the spring 9, and at this time, the portion where the winding shaft portion 4 of the housing 2 is disposed with respect to the substrate 8 around the shaft portion 2c and the bearing 2d. It rotates so as to be relatively away from the transfer target S. That is, the substrate 8 moves in the upper direction of the upper-lower direction relative to the rotation of the housing 2.

  In this state of use, as described above, the spring 9 is shortened, and the engagement portion 10 of the housing 2B viewed from the window portion 8C of the substrate 8B is disengaged from the internal teeth 3B of the delivery shaft portion 3. The delivery shaft 3 (drive gear 5) and the transfer tape P can be conveyed. At this time, in the configuration of the second embodiment, the portion where the winding shaft portion 4 of the housing 2 is disposed is not used so as to approach the transfer target S, and therefore, it is sent to the virtual vertical line as shown in FIG. The route line hardly tilts.

  Therefore, even with the configuration of the second embodiment, the same effects as those of the first embodiment can be obtained. Further, since the shape of the second embodiment can be grasped with the palm of the hand, there is an advantage that it is easier to apply force and easier to operate than the first embodiment.

(Example 3)
Example 3 relates to a transfer tape P that is suitable for use in the transfer tool 1 (Examples 1 and 2) of the present invention described above. Conventionally, in order to increase the adhesive force, the transfer medium T has been increased in thickness (increase the amount) or the transfer medium T having a high adhesive force is used (change material). There is a problem that T tends to flow (sticks to the transfer medium S via the transfer medium T) and protrudes from the adherend, and also causes a stringing phenomenon in the first place.

  In addition, in order to eliminate the point of being easy to flow and sticking out from the adherend, it was one plan to provide a support material layer of this adhesive material together with the layer of the adhesive material on the transfer medium T. In the first place, there was also a problem that it was not easy to break the support layer. That is, the adhesive force of the transfer tape P cannot be increased any more with a conventional transfer tool, and a support layer cannot be provided on the transfer medium T.

  The transfer tool 1 of the present invention can break the transfer medium T as intended and the stringing phenomenon is improved, and the threading of the transfer tape P by the threading or the threading of the transfer tape P by There is no mutual encouragement. In the transfer tool 1 of the present invention, if the structure of the transfer tape P is improved, the transfer medium T having a support layer and exhibiting strong adhesive force can be used.

That is, the transfer tape P in Example 3 is impregnated with a liquid such as thin paper or non-woven fabric having a density of 5 to 10 g / m ² via a release layer (not shown) on the substrate T as shown in FIG. A flexible fibrous material is used as a support layer T1, and the support medium is coated on and impregnated with the transfer medium T from the upper surface or the lower surface of the support layer T1. The adhesive layer N having a total thickness of 30 to 50 μm and having adhesiveness was provided on the upper and lower surfaces of the layer T1.

  By doing so, the adhesive force can be increased and the transfer medium T does not protrude from the adherend, and even if such a transfer tape P is used, the transfer tool 1 of the present invention is not used. When the state transitions to use, the above-described effects are not reduced, although a little force is required to break the transfer medium T from the normal transfer tape P.

DESCRIPTION OF SYMBOLS 1 Transfer tool 2 Case 2A Case 2B Case 3 Delivery shaft part 3B Internal tooth 4 Winding shaft part 7 Transfer part 7B Guide body 8 Substrate 8A Substrate 8B Substrate 8c Spring receiving part 9 Spring 10 Engagement part

Claims (4)

  A housing, a delivery shaft provided in the housing and wound with a transfer tape coated with a transfer medium on the substrate, and a substrate after the transfer medium of the transfer tape is transferred to the transfer target The position of the take-up shaft portion for winding the transfer shaft, the drive gear provided in each of the feed shaft portion and the take-up shaft portion, and the transfer portion for transferring the transfer medium of the transfer tape to the transfer target are not changed. A fixedly arranged substrate, and when the transfer unit is pushed against an object to be transferred during use on the inner surface of the housing, the substrate moves relative to the housing and engages with the drive gear. The transfer tool is provided with an engaging portion that engages with the drive gear by moving the substrate relative to the inside of the housing when the transfer portion is separated from the transfer target body when not used.   The transfer tool according to claim 1, wherein the transfer portion is configured to be regulated at an angle of 70 ° or more even if the transfer portion is inclined with respect to the transfer target.   The transfer tool according to claim 1, wherein an elastic member that is in a stretched state when not in use is provided between the substrate and the inner surface of the housing.   4. The transfer tape according to claim 1, wherein the transfer tape has a pressure-sensitive adhesive layer provided with adhesiveness on the upper and lower surfaces of the support layer via a release layer on the base material. The transfer tool described.

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