TW202227281A - Transfer tool - Google Patents

Abstract

To provide a transfer tool for a transfer tape that is less likely to cause a positional deviation at a start position of a transfer layer. A transfer tool 1 comprises: a supply bobbin 53 on which a transfer tape T that has not been used is wound; a winding bobbin 54 on which the transfer tape T that has been used is wound; a transfer part 31 that transfers a transfer layer of the transfer tape T onto a surface to be transferred onto; and a rotation restriction device 100 that is able to restrict one of rotation in a feeding direction of the supply bobbin 53 and rotation in a winding direction of the winding bobbin 54.

Description

transfer tool

The present invention relates to a transfer tool for supplying a transfer belt.

Conventionally, there has been disclosed a transfer tool including a supply bobbin and a take-up bobbin, and capable of performing a transfer operation in order to supply a transfer belt to a transfer head. For example, the transfer tool disclosed in Japanese Patent Publication No. 5116098 has an adhesive on the transfer layer of the transfer belt, and is an adhesive transfer tool that can be used like a seal. Such an adhesive transfer tool has a supply bobbin and a take-up bobbin, and has a winding mechanism that transmits the rotational force of the supply bobbin to the take-up bobbin. When used as a stamp, the pressing plate part of the actuating plate is moved to the rear by contacting the surface to be transferred, the supply bobbin is rotated by the ratchet pawl provided on the actuating plate, and the transfer head is brought into contact with the surface to be transferred. The adhesive is transferred like a stamp. When the transfer operation is performed in a line, the transfer head is brought into contact with the transfer target surface in a state in which the platen portion is in contact with the transfer target surface and moved to the rear, and the transfer head can be moved by moving the transfer head. print operation.

In the conventional adhesive transfer tool, when the transfer head is moved away from the transfer surface, the transfer belt may be slightly pulled by the adhesive transferred to the transfer surface. In this way, when the transfer belt is used next time, the transfer start position of the transfer belt coated with the adhesive will be closer to the winding bobbin side than the transfer head, so that the adhesive remains in the transfer belt. belt, resulting in a shift in the starting position of the transfer layer in the next use.

An object of the present invention is to provide a transfer tool which is difficult to generate a positional shift of the starting position of the transfer layer.

The transfer tool according to the present invention is characterized by comprising: a supply bobbin for winding the unused transfer belt; a take-up bobbin for winding the used transfer belt; and a transfer section for winding the above-mentioned transfer belt The transfer layer of the transfer belt is transferred to the surface to be transferred; the rotation restricting means can restrict the rotation of either the rotation of the feeding bobbin in the feeding direction or the rotation of the take-up bobbin in the winding direction .

According to the present invention, a transfer tool can be provided, which is difficult to generate the positional deviation of the starting position of the transfer layer.

(first embodiment) The first embodiment of the present invention will be described with reference to FIGS. 1 to 10 . The transfer tool 1 disclosed in FIG. 1 is provided with a transfer belt provided with a transfer layer formed of an adhesive, by placing a sheet of paper or the like with a surface to be transferred on the side opened in an opening shape. The transferred portion 23 of the 23 can transfer the transfer layer to the transferred surface in the form of a stamp by operating like a stapler. In addition, in the following description, let the side opened in the opening shape (transferred portion 23 side) be the front, the opposite side is the back, and the left side when viewed from the back to the front is the left and the right side. Right, and let the upper side in FIG. 1 be up and the lower side be down. Here, the transfer tool 1 shown in FIG. 1 is in a constant state (initial state) as shown in FIG. 7 .

The transfer tool 1 has an upper case 10 and a lower case 20 having a slightly conchoidal shape. The upper case 10 is formed so that the height dimension in the up-down direction is larger than the width dimension in the left-right direction, and the front-rear direction is formed in an elongated shape. As also shown in FIG. 2 and FIG. 3 , the upper casing 10 has a front casing 11 disposed at the front of the upper casing 10 . The rear side of the upper case 10 (the rear side of the front case 11 ) is formed by combining the left case 12 and the right case 13 .

The front case 11 is formed to have the left and right side plates 11a and the front plate 11b, and to open the rear and the lower side. The front case 11 has a guided plate 11d extending rearward from the left and right side plates 11a. The to-be-guided plate 11d is formed in the plate shape which extended the plane in the left-right direction. The upper and lower edges of the guided plate 11d are guided in the front-rear direction by the guide portions 12g, 13g provided in a rib shape on the upper and lower sets of the inner surfaces of the left case 12 and the right case 13. . In the transfer tool 1, by moving the front case 11 in the front-rear direction, the non-contact/contact between the transfer member contact portion 11c and the contact receiving portion 37 to be described later can be switched, and the transfer operation can be performed. lock/unlock (unuse/use of transfer operation) switching operation.

As shown in FIG. 3 , the front case 11 is provided with a flat plate-shaped transfer member contact portion 11c from the inner surface side of the front plate 11b toward the rear. On the left and right edge portions of the transfer member contact portion 11c, a rib 11c1 for reinforcement is erected above. When viewed from the rear side, the transfer member contact portion 11c and the left and right protruding ribs 11c1 are formed in a slightly inverted ㄈ shape with the opening facing upward. The lower end of the front plate 11b is provided with a hook-shaped locked protrusion 11b1 protruding to the inside.

As shown in FIGS. 2 and 3 , the left casing 12 has a left side plate 12a and an upper plate 12b. On the rear lower inner surface of the left casing 12, a rotation pin 12c is erected so as to face rightward. In addition, on the slightly upper side behind the inner surface of the left side plate 12a of the left casing 12 and the upper side slightly above the center, a rightward assembling pin 12d is erected. On the lower side of the inner surface of the left side plate 12a of the left casing 12, there is provided a rack 12e having a substantially circular arc shape with teeth facing the rear.

The right casing 13 has a right side plate 13a and an upper plate 13b. On the lower inner surface behind the right side plate 13a of the right casing 13, a slightly cylindrical rotating shaft 13c is erected so as to face left. The length of the rotation pin 12c of the left housing 12 is formed to be much shorter than the rotation shaft 13c, and is inserted into the cylindrical opening of the rotation shaft 13c. Thereby, the upper case 10 can be integrally rotated using the rotation shaft 13c as a rotation shaft.

In addition, above the inner surface of the right case 13, two pillars 13d are erected toward the left. A pin 12d of the left case 12 is inserted into the support column 13d, so that the upper case 10 can be assembled. In addition, a spring receiving surface portion 13b1 may be provided on the inner surface of the upper plate 13b of the right case 13 . The spring receiving surface portion 13b1 is a receiving surface on which the coil spring 14 serving as the biasing member is received. The coil spring 14 is provided between the receiving surface part 51a1 of the refill 50 described later and the upper case 10 (spring receiving surface part 13b1 ), and is urged in a direction to separate the two.

The lower case 20 has a lower case body 21 and a refill container 22 . The lower shell body 21 has: a bottom plate 21a, which is longer in the front-rear direction, and the width in the left-right direction is slightly the same as that of the upper shell 10; The left side plate 21b and the right side plate 21c are formed so that the front end edges 21b1 and 21c1 are positioned behind the front end of the bottom plate 21a, and are connected to the bottom plate 21a at an acute angle. In other words, the front end edge portions 21b1 and 21c1 of the left side plate 21b and the right side plate 21c are inclined toward the rear from above to below. Due to this inclination, the front end edge portions 21b1 and 21c1 can guide the paper or the like having the transfer target surface inserted into the transfer target portion 23, or can restrict the movement toward the rear. In addition, the protrusions 21a1 respectively provided at the left and right sides of the front end of the bottom plate 21a also have the paper or the like that guides the surface to be transferred, or can restrict the movement toward the front.

A to-be-transferred portion 23 is provided on the upper surface of the front end side of the bottom plate 21a. The transferred portion 23 is formed of a plate-like elastic member of silicone rubber. Thereby, even when the transfer tool 1 is dry-printed (meaning that the transfer operation is performed without placing a paper or the like), it is possible to prevent the transfer layer (adhesive) of the transfer belt from sticking to the transfer target. Section 23. Further, notches 21b2 and 21c2 are formed on the rear side near the front end edges 21b1 and 21c1 of the left side plate 21b and the right side plate 21c to be engaged with the engaging protrusions 22a of the refill container 22 described later. From the inner surface in the vicinity of the rear end portion of the left side plate 21b, a slightly cylindrical rotating shaft 21b3 is erected to the right. As shown in FIG. 3, the rear part of the right side plate 21c is comprised in a notch shape so that the front end part of the rotating shaft 21b3 may be exposed. In the rotation shaft 21b3, the rotation shaft 13c of the upper case 10 (right case 13) is inserted. In addition, the rotation shaft 21b3 is inserted in the rotation shaft 22g of the filling refill container 22 mentioned later. The four protruding ribs 13c1 provided on the base of the rotating shaft 13c are in sliding contact with the end faces of the combined rotating shafts 21b3 and 22g.

The refill container 22 has a left side panel 22b, a right side panel 22c, a front panel 22d, and a rear panel 22e. The refill container 22 has an opening shape on the upper side, and the refill 50 is inserted and arranged through the opening. On the upper end of the front plate 22d, a hook-shaped locking protrusion 22d1 protruding forward is formed to be slightly elongated in the left-right direction. Holes 22b1 and 22c1 are provided on the upper sides of the left and right side plates 22b and 22c in the front-rear direction and approximately in the center, for inserting and engaging protrusions 50a provided on the left and right side surfaces of the refill 50 to be described later.

As shown in FIG.4(b), below between the left side plate 22b and the right side plate 22c, the curved plate-shaped guide plate 22f is provided so that it may straddle the left side plate 22b and the right side plate 22c. The bottom of the refill container 22 is formed so that the front side and the rear side of the guide plate 22f have large openings. The guide front plate 22f1 on the front side of the guide plate 22f is formed with an opening 22h, and the opening 22h is formed so that both the front plate 22d and the curved front plate portion 22d2 together with the bent front plate portion 22d2 on the lower side of the front plate 22d are bent. The dimension between them is inclined to become smaller as it goes down.

As shown in FIG. 4( a ) and FIG. 4( b ), a cylindrical rotating shaft 22 g is provided at the lower rear portion of the filling refill container 22 . The rotation shaft 21b3 (see FIG. 3 ) of the lower case body 21 is inserted into the rotation shaft 22g. On the rear upper side of the left side plate 22b, a substantially semicircular notch portion 22b2 whose upper side is open is provided. In the notch part 22b2, the winding gear 55 (refer FIG. 2) of the refill 50 mounted in the refill container 22 is arrange|positioned.

An elongated hole-shaped guide portion 22b3 is provided in the left side plate 22b on the lower side before the cutout portion 22b2. The guide portion 22b3 is formed to be inclined from the front lower side to the rear upper side. In the guide part 22b3, the drive gear 24 is provided. The drive gear 24 has a deep groove in the center of the shaft portion 24a, and two locking projections 24a1 provided on the end portion of the shaft portion 24a engage with the inner surface of the left side plate 22b to prevent the drive gear 24 from being pulled out from the guide portion 22b3. Therefore, the guide portion 22b3 guides the drive gear 24 within a predetermined range. In addition, an annular convex rib 24b4 is provided on the outer periphery of the guide portion 22b3 in the outer surface of the left side plate 22b, and the outer surface of the left side plate 22b and the driving gear 24 can be properly guided while reducing the area where the outer surface of the left side plate 22b is in sliding contact with the driving gear 24. twenty four.

As shown in FIGS. 2 and 3 , the refill 50 has a substantially plate shape with a plane oriented in the left-right direction, and has a left side plate 51 and a right side plate 52 arranged to face each other. In the left side plate 51, a slightly C-ring plate-shaped outer peripheral plate 51a is erected from the outer peripheral edge of the left side plate 51 toward the right. The outer peripheral plate 51a has a flat upper and lower plate portion and a curved portion connecting the upper and lower plate portions on the rear side. On the upper surface of the outer peripheral plate 51a, a receiving surface portion 51a1 for receiving the lower side of the coil spring 14 is provided. The receiving surface part 51a1 is formed in the shape of an inclined surface whose normal direction is the front-up direction. On the lower surface of the outer peripheral plate 51a. A leaf spring 51a2 is provided, the front end of which faces downward and has a protruding portion with an arc-shaped cross section. The leaf spring 51a2 is integrally provided in the outer peripheral plate 51a (left side plate 51).

As shown in the refill 50 in FIG. 5 in which the left side panel 51 is omitted, in the right side panel 52, the supply bobbin 53 is rotatably provided on the side before being erected from the inside of the right side panel 52 to the left. The shaft portion 52a is rotatably provided with the winding bobbin 54 on the shaft portion 52b on the rear side that is erected in the same manner. In the supply bobbin 53, the unused transfer belt T is wound. In the take-up bobbin 54, the used transfer belt T is wound. Ratchet gears 53a and 53b are respectively formed in the outer periphery of the left and right flange portions of the supply bobbin 53 in an annular shape. In addition, the right and left ratchet gears 53a and 53b are formed in the reverse direction, and the right ratchet gear 53b is engaged with a not-shown ratchet pawl to form a reverse rotation prevention structure. In addition, the ratchet gear 53a can also be the teeth of other types of gears.

At the axial center portion of the left side surface of the winding bobbin 54, a winding gear 55 as a spur gear is formed to protrude. On the other hand, as shown in FIG. 6, around the shaft core portion on the right side of the winding bobbin 54, a ratchet gear 54a with internal teeth is provided. A ratchet portion 52c is formed on the right side plate 52, and the ratchet portion 52c is a circular-arc-shaped leaf spring provided with a ratchet pawl at the front end portion. The ratchet pawl of the ratchet portion 52c is engaged with the ratchet gear 54a, and forms a reverse rotation preventing mechanism of the winding bobbin 54. As shown in FIG.

As shown in FIG. 5, on the upper side and the lower side of the inner surface of the right side plate 52, two pillars 52h are erected to the left, respectively. The inner surface of the left side plate 51 is inserted to the right, and a pin installed upright is fitted.

As shown in FIGS. 5 and 6 , the transfer member 30 is provided in front of the supply bobbin 53 in the right side plate 52 . The transfer member 30 is formed in a substantially square column shape in outer shape. The upper end portion of the transfer member 30 serves as the abutment receiving portion 37 whose upper surface abuts the transfer member abutting portion 11c. The transfer member 30 has a transfer portion 31 at the lower end. The transfer portion 31 is formed of a plate-shaped elastic member such as urethane rubber. In addition, the transfer portion 31 may be formed of an inelastic member such as a hard resin material. Above the transfer member 30, a through hole 32 penetrating in a rectangular shape in the front-rear direction is formed.

Below the through hole 32 is a through hole 34 that penetrates in the left-right direction across the receiving plate 33 . As shown in FIG. 6 , the receiving plate 33 has a notch portion 33a formed from the right side. Further, as shown in FIG. 5 , on the rear side of the transfer member 30 , a claw portion 35 (engaging claw) is formed in a protruding shape. Specifically, the corner portion formed by the left side surface of the claw portion 35 intersecting the rear surface corresponds to a position slightly above the center of the through hole 34 .

In the right side plate 52 , the F guide plate 52d and the B guide plate 52e are provided on the front side and the rear side of the transfer member 30 . The F guide plate 52d and the B guide plate 52e are erected from the right side plate 52 toward the left so that the flat surfaces are respectively arranged in the front-rear direction. The length of the F guide plate 52d in the vertical direction is longer than the length of the B guide plate 52e in the vertical direction. The transfer member 30 is mainly guided in the vertical direction by slidingly connecting the front surface and the rear surface of the corresponding through hole 34 with the F guide plate 52d and the B guide plate 52e.

Further, between the F guide plate 52d and the B guide plate 52e in the right side plate 52, a receiving plate 52f is provided. The receiving plate 52f is erected from the right side plate 52 to the left so that the flat surface portion is arranged in the vertical direction. On the upper surface of the receiving plate 52f, a support rod 52f1 is vertically provided. y9 In the support rod 52f1, the hook-shaped part 52f2 is formed so that it may protrude rightward from the upper end. A coil spring 56 is tied between the upper surface of the receiving plate 52f and the hook-shaped portion 52f2. The coil spring 56 is arranged in a slightly compressed state while maintaining its natural length.

The receiving plate 52 f , the support rod 52 f 1 (the hook portion 52 f 2 ), and the coil spring 56 are inserted and arranged in the through hole 34 of the transfer member 30 . Here, the notch part 33a of the receiving plate 33 is formed so that a support rod 52f1 can be inserted, and the support rod 52f1 includes a hook-shaped part 52f2. Therefore, when the transfer member 30 moves downward, the coil spring 56 supports the upper end of the coil spring 56 by abutting the lower surface of the receiving plate 33 . In addition, the lower end of the coil spring 56 is supported by the upper surface of the receiving plate 52f. Accordingly, the transfer member 30 is urged upward by the coil spring 56 as the urging member.

In addition, guide protrusions 36 a and 36 b are formed on the left and right side surfaces in the vicinity of the through hole 34 of the transfer member 30 . The guide protrusions 36a on the left side are guided in the guide grooves 51b which are elongated in the upper and lower sides of the left side plate 51 as shown in FIG. 2, and the guide protrusions 36b on the right side are shown in FIGS. 3 and 6. , is guided in the guide hole 52g in the shape of a long rectangular hole which is longer on the upper and lower sides of the right side plate 52 .

The transfer belt T fed out from the upper side of the supply bobbin 53 is inserted through the through hole 32, and is disposed on the lower surface side of the transfer portion 31 through the front side of the F guide plate 52d. The used transfer belt T is wound from the lower side of the transfer portion 31 to the lower side of the supply bobbin 53 to the winding bobbin 54 from the lower side of the winding bobbin 54 .

The refill 50 thus formed is accommodated in the refill container 22 as shown in FIGS. 7 to 10 . At this time, the protrusions 50 a on the left and right sides of the refill 50 shown in FIGS. 2 and 3 are engaged with the holes 22 b 1 and 22 c 1 of the refill container 22 . Furthermore, when the refill refill 50 is accommodated in the refill refill container 22 , the leaf spring 51 a 2 of the refill refill 50 protrudes from below the refill refill container 22 . In addition, the rotating shaft 21b3 and the rotating shaft 22g are arranged around and coaxially with the rotating shaft 13c of the upper casing 10, the upper casing 10 and the lower casing 20 (the refill container 22 and the lower casing main body 21) ) are connected coaxially and freely. In addition, the rotation restricting device 100 described later includes a transfer member 30 including a transfer member abutting portion 11c, a claw portion 35 serving as an engaging claw, and a transfer portion 31, a coil spring 56 serving as a biasing member, and a receiving plate 52f, ratchet gear 53a.

The operation of the transfer tool 1 in use will be described with reference to FIGS. 7 to 10 . In the constant state shown in FIG. 7 , the upper case 10 and the lower case 20 (the refill 50 , the refill container 22 , and the lower case body 21 ) are connected to the rotating shaft 13 c by the coil spring 14 . Around the circumference, a force is applied in a direction in which the open ends of the upper case 10 and the lower case 20 are separated from each other. The movement of the open ends of the upper case 10 and the lower case 20 in the separation direction is caused by the latched protrusion 11b1 of the upper case 10 (front case 11 ) and the front plate 22d of the refill container 22 . The locking protrusion 22d1 is restricted by being locked.

In addition, the refill container 22 and the lower case body 21 are urged to separate from each other when the front end of the leaf spring 51a2 abuts on the upper surface of the bottom plate 21a of the lower case body 21 . The movement of the refill container 22 and the lower case body 21 in the separation direction is such that the engaging protrusion 22a of the refill container 22 is caught by the notches 21b2 and 21c2 (refer to FIGS. 1 to 3 ) of the lower case main body 21 . combined and restricted.

The transfer member 30 biases the refill 50 upward by the coil spring 56 . The upward movement of the refill 50 in the transfer member 30 is caused by the guide protrusions 36a and 36b abutting the upper ends of the guide groove 51b and the guide hole 52g (see FIGS. 1 to 3 ). received and restricted.

In addition, in the steady state of FIG. 7 , the pawl portion 35 is engaged with the ratchet gear 53 a of the supply bobbin 53 . Thus, in a constant state, the supply bobbin 53 is restricted in rotation at least in the feeding direction of the transfer belt T (counterclockwise rotation direction in FIG. 7 ). In addition, the drive gear 24 meshes with the winding gear 55 while being positioned at the upper end of the guide portion 22b3 by the rack 12e in accordance with the biasing force toward the upper side of the upper casing 10. As shown in FIG. In addition, the drive gear 24 meshes with the teeth of the rack on the lower side of the rack 12e.

Next, a sheet of paper having a transfer surface or the like is placed on the transfer target portion 23, and the upper case 10 and the lower case 20 are urged against the urging force of the coil spring 14 and the leaf spring 51a2 to close the opening by operating the stapler. In this way, the upper casing 10 and the lower casing 20 are rotated around the rotating shaft 13c so that the transfer operation is performed as if they are close to each other.

Here, the leaf spring 51 a 2 (second biasing member) has a spring constant set smaller than the spring constant of the coil spring 14 (first biasing member). Therefore, after the operation of closing the upper case 10 and the lower case 20 is performed, initially, the upper case 10 does not move the refill container 22 (refill 50 ), and the upper case 10 (refill refill 50 ) does not move at first. 50 and the refill container 22) and the lower case body 21 move as if they were moved closer to the urging force of the plate spring 51a2. The movement of the upper case 10 and the lower case body 21 in the approaching direction is continued until the opening portion 22h of the filling refill container 22 abuts the transfer target portion 23 . In addition, at this time, the opening portion 22h sandwiches a sheet of paper or the like having a transfer surface between the transferred portions 23 .

After the abutment of the transferred portion 23 toward the opening portion 22h, and the operation for closing the upper case 10 and the lower case 20 is further performed, as shown in FIG. Force is applied to move downward with respect to the refill container 22 (refill 50 ). Along with the downward movement of the upper casing 10, the rack 12e also moves downward. In this way, the drive gear 24 meshed with the rack 12e does not rotate, but moves downward along the guide portion 22b3 as the shaft portion 24a slides. In this way, the drive gear 24 (shaft portion 24a) is positioned at the lower end of the guide portion 22b3. At this time, the engagement between the drive gear 24 and the take-up gear 55 is released.

Starting from the state of FIG. 8 , after the upper case 10 and the lower case 20 are operated to close the upper case 10 and the lower case 20 by the urging force of the counter coil spring 14 , as shown in FIG. In contact with the upper surface of the receiving portion 37 , the transfer member 30 moves downward against the biasing force of the coil spring 56 . When the transfer member 30 moves downward, the engagement between the pawl portion 35 and the ratchet gear 53a is released, and the supply bobbin 53 becomes rotatable. Here, since the winding bobbin 54 is provided with a reverse rotation preventing mechanism, the rotation in the winding direction and the opposite direction can be restricted. Accordingly, with the lowering of the transfer member 30 , the transfer belt T disposed on the lower surface side of the transfer portion 31 is pulled by the transfer portion 31 , so that the unused transfer belt T is sent out from the supply bobbin 53 . . When the transfer portion 31 of the transfer member 30 comes into contact with the transfer portion 23 by sandwiching a sheet of paper having the transfer belt T and the transfer target surface, etc., the transfer layer of the transfer belt T is transferred to the transfer target portion 23 . the surface to be transferred.

In addition, after the operation to close the upper case 10 and the lower case 20 is performed from the state of FIG. 8 , the drive gear 24 is formed by the rack 12e that moves downward along with the lowering of the upper case 10 . idle state. On the other hand, when the transfer portion 31 is in contact with the transferred portion 23, the drive gear 24 meshes with the teeth of the rack on the upper side of the rack 12e.

When the hand holding the upper case 10 and the lower case 20 is released from the state of FIG. 9 (transfer state), initially, the lower case body 21 does not touch the filling refill container 22 (filling refill 50 ) While moving, the upper case 10 moves upward with respect to the filling refill container 22 (filling refill 50 ). In this way, the transfer member 30 moves upward with respect to the refill container 22 (refill refill 50 ) by the biasing force of the coil spring 56 as the transfer member abutting portion 11 c rises. When the transfer member 30 moves upward with respect to the refill refill container 22 (refill refill 50 ), as shown in FIG. 10 , the pawl portion 35 is engaged with the ratchet gear 53 a.

In addition, when the hand holding the upper casing 10 and the lower casing 20 is released from the state shown in FIG. 9 , the rack 12e will also move upward in response to the upward movement of the upper casing 10 . In this way, the drive gear 24 does not rotate but moves upward along the guide portion 22b3. As shown in FIG. 10, the drive gear 24 meshes with the winding gear 55. As shown in FIG. In this way, the drive gear 24 meshes with the take-up gear 55 almost at the timing when the claw portion 35 and the ratchet gear 53a mesh with each other.

9 to the state of FIG. 10 , a sheet of paper having a transfer surface or the like is sandwiched and fixed between the transferred parts 23 by filling the opening 22h of the refill container 22 . The transfer belt T on the lower side of the transfer portion 31 is disposed on the transfer surface together with the transfer layer that has been transferred to the transfer surface.

When the upper case 10 moves upward from the state of FIG. 10 , the rack 12e also moves upward in response to the movement of the upper case 10 . Here, since the drive gear 24 meshes with the take-up gear 55, the drive gear 24 is driven and rotated (rotated clockwise in FIG. 10) by the rack 12e, and the take-up gear 55 also faces the take-up direction (in FIG. 10). counterclockwise rotation in the middle). In this way, when the transfer member 30 rises, the used transfer belt T located below the transfer portion 31 away from the transfer portion 31 is taken up by the take-up bobbin 54 . When the winding of the transfer belt T by the winding bobbin 54 is completed, the transfer tool 1 is reset to the constant state of FIG. 7 .

At the time of starting the coiling, the supply bobbin 53 is restricted from rotating at least in the feeding direction (counterclockwise rotation in FIG. 10 ). Therefore, when the take-up bobbin 54 is used for winding up, the unused transfer belt T is not fed out too much, and only the transfer layer of the transfer belt T can be taken up by the take-up bobbin 54 . The desired amount of transfer tape T. According to this, even if the next transfer operation is performed, the transfer layer to the transfer surface can be precisely performed without leaving the transfer layer on the used transfer belt T.

In this way, with the transfer tool 1 of the present embodiment, the transfer operation can be performed in the form of a stamp by operating like a stapler. In addition, the rotation restricting device 100 of the transfer tool 1 is adjacent to the transfer portion 31 and can restrict the rotation of the transfer belt T in the feeding direction of the supply bobbin 53 arranged thereon. In addition, the rotation restriction device 100 releases the rotation restriction of the supply bobbin 53 at least while the transfer portion 31 is in contact with the transferred portion 23 (that is, the transfer surface). Furthermore, the rotation restricting device 100 is configured to restrict the rotation of the supply bobbin 53 at least while the transfer belt T is wound by the take-up bobbin 54 .

With the transfer tool 1, when the transfer belt T in the transfer section 31 is separated from the surface to be transferred (that is, when the used transfer belt T is taken up by the take-up bobbin 54), due to the supply of The rotation of the bobbin 53 is restricted, and the used transfer belt T is taken up by the take-up bobbin 54, so the transfer due to the transfer layer that has been transferred to the transfer surface will not occur. When the belt T is pulled, the supply bobbin 53 does not rotate in the feeding direction, and the positional deviation of the starting position of the transfer layer hardly occurs.

(Second Embodiment) Next, a second embodiment of the present invention will be described with reference to FIG. 11 . The transfer tool 1A, which is a coating film transfer tool, can continuously transfer the transfer layer provided with the transfer belt T to the surface to be transferred. The transfer tool 1A has a casing 70, and in the casing 70, a take-up bobbin 71 and a supply bobbin 72 are rotatably provided. In addition, in FIG. 11, the half part of the casing 70 (the side close to the viewer in the drawing) is omitted and shown.

The casing 70 has an opening 73 formed so that a part of the take-up bobbin 71 can penetrate therethrough. The portion of the winding bobbin 71 exposed from the opening 73 is referred to as the transfer portion 74 . That is, in the transfer tool 1A, by pressing the transfer portion 74 that is exposed from the opening portion 73 and is a part of the take-up bobbin 71 on the surface to be transferred, the transfer tool 1A faces forward (the left side of FIG. 11 ). side), the transfer operation can be performed. In addition, the transfer tape T fed from the supply bobbin 72 is fed from one side (the right side in FIG. 11 ) of the supply bobbin 72 , and is fed from the other side (the left side in FIG. 11 ) of the take-up bobbin 71 . It is wound up to the winding bobbin 71 via the transfer part 74 .

In addition, the transfer tool 1A has a rotation restricting device 100A. The rotation restricting device 100A functions respectively in the following two periods: when the transfer section 74 transfers the transfer layer of the transfer belt T to the surface to be transferred, to cancel the rotation of the supply bobbin 72; when the transfer section 74 is not The rotation of the supply bobbin 72 is restricted when the transfer layer of the transfer belt T is transferred to the surface to be transferred.

Specifically, the rotation restricting device 100A includes a lever member 101 having a claw portion 101 a formed at a distal end thereof, and a gear 102 fixed to the supply bobbin 72 . Although the rotation restricting device 100A is not shown in detail, it has a configuration in which the claw portion 101 a is released while the take-up bobbin 71 (transfer portion 74 ) is in contact with the transfer target surface via the transfer belt T When the take-up bobbin 71 (transfer portion 74 ) is separated from the surface to be transferred by the meshing with the teeth of the gear 102 , the claw portion 101 ab is meshed with the teeth of the gear 102 . Therefore, the take-up bobbin 71 is formed so that the support shaft is movable relative to the casing 70 in the direction perpendicular to the axial direction of the support shaft.

The transfer tool 1A thus formed is such that when the take-up bobbin 71 (transfer portion 74 ) is separated from the surface to be transferred, since the rotation of the supply bobbin 72 is restricted, it is separated from the transfer after transfer. At the time of the transfer part 74, the rotation of the supply bobbin 72 is not caused by pulling the transfer belt T due to the transfer layer that has been transferred to the transfer surface. The transfer belt T can be used after the transfer operation in the printing operation is completed.

In addition, in the transfer tool 1A, in order to transmit the driving force between the winding bobbin 71 and the supply bobbin 72, a power transmission mechanism formed of gears or the like is not provided, so only the winding bobbin The transfer operation can be performed by the rotation of the tube 71 and the supply bobbin 72, so that a light operation feeling can be obtained.

As mentioned above, although embodiment of this invention was described, this invention is not limited to this embodiment, Various changes can be added and implemented. For example, in the present embodiment, the transfer belt T used includes a transfer layer formed of an adhesive, but other types of transfer belts such as correction belts may be used.

In addition, in the present embodiment, although the objects restricted by the rotation restricting devices 100 and 100A are the supply bobbins 53 and 72 , the rotation of the take-up bobbins in the winding direction may be restricted/released in structure. In this case, among the supply bobbins 53 or the take-up bobbins 54, the supply bobbin 53 or the take-up bobbin 54 can be configured in a simple manner by being adjacent to and arranged on the transfer portion 31 side as the supply bobbin 53 or the take-up bobbin 54 Rotation limiter.

In addition, the refill 50 including the supply bobbin 53, the take-up bobbin 54, the transfer member 30 of the rotation restricting device 100, etc. is accommodated in the upper case 10, and is rotatably connected with the transfer target portion 23. The lower casing 20 can be provided with a transfer tool 1, and the transfer tool 1 is operated like a stapler to perform the transfer operation in the form of a stamp.

In addition, in the above-described embodiment, the rotation restriction is performed by the engagement of the pawl portion 35 and the ratchet gear 53a or the gear engagement between the pawl portion 101b and the gear 102. However, a clutch mechanism may also be designed. However, if only by means of gear engagement, the rotation can be restricted with a simple structure. [Industrial Availability]

The present invention is to provide a transfer tool which is difficult to produce a positional deviation of the starting position of the transfer layer.

1: Transfer tool 1A: Transfer tool 10: Upper case 10b: Claw 11: Front shell 11a: Side panel 11b: Front plate 11b1: Locked protrusion 11c: Transfer member abutting portion 11c1: Rib 11d: Guided plate 12: Left shell 12a: Left panel 12b: Upper panel 12c: Rotary pin 12d: Pin 12e: Rack 12g: Guide 13: Right housing 13a: Right side plate 13b: Upper plate 13b1: Spring receiving face 13c: Rotary shaft 13c1: Rib 13d: Boss 13g: Guide 14: Coil spring 20: Lower case 21: Lower shell body 21a: Bottom plate 21a1: Protrusion 21b: Left side plate 21b1: Front end edge portion 21b2: Notched portion 21b3: Rotation shaft 21c: Right side plate 21c1: Front edge portion 21c2: Notched portion 22: Refill container 22a: Engagement protrusion 22b: Left side plate 22b1: Hole 22b2: Notch part 22b3: Guide part 22c: Right side plate 22c1: Hole 22d: Front plate 22d1: Locking protrusion 22d2: Buckling front plate 22e: Back plate 22f: Guide plate 22f1: Guide front plate 22g: Rotary shaft 22h: Opening part 23: Transferred part 24: Drive gear 24a: Shaft 24a1: Locking projection 24b4: Rib 30: Transfer member 31: Transfer part 32: Through hole 33: Receiving plate 33a: Notched part 34: Through hole 35: Claw 36a: Guide protrusion 36b: Guide protrusion 37: Abutting Receiver: 50: Filling Replacement 50a: Protrusion 51: Left side plate 51a: Peripheral plate 51a1: Receiving face 51a2: Leaf spring 51b: Guide groove 52: Right side plate 52a: Shaft 52b: Shaft 52c: Ratchet 52d: F guide plate 52e: B guide plate 52f: receiving plate 52f1: supporting rod 52f2: Hook 52g: Guide hole 52h: Boss 53: Supply bobbin 53a: Ratchet gear 53b: Ratchet gear 54: Coiled bobbin 54a: Ratchet gear 55: Coil gear 56: Coil spring 70: Housing 71: Coil bobbin 72: Supply bobbin 73: Opening part 74: Transfer section 100: Rotation restriction device 100A: Rotation restriction device 101: Rod member 101a: Claw 102: Gear T: transfer belt

Fig. 1 is a perspective view showing a transfer tool according to the first embodiment of the present invention. The exploded perspective view shown in FIG. 2 is the transfer tool according to the first embodiment of the present invention viewed from the left front side. FIG. 3 is an exploded perspective view showing the transfer tool according to the first embodiment of the present invention viewed from the right front side, in which only the front case is shown as a cross-sectional perspective view with the right half cut. Fig. 4 shows a view of the refill container for the transfer tool according to the first embodiment of the present invention, wherein Fig. 4(a) is a side view, and Fig. 4(b) is a right half of the transfer tool. Cross-sectional view. The perspective view shown in FIG. 5 is the state which abbreviate|omitted the left side plate in the filling replacement|filler of the transfer tool concerning 1st Embodiment of this invention seen from the left side. The perspective view shown in FIG. 6 is that the left side plate is omitted and the transfer member is separated from the filling replacement part of the transfer tool according to the first embodiment of the present invention viewed from the right side. Fig. 7 is a cross-sectional view showing a constant state of the transfer tool according to the first embodiment of the present invention, with the left half cut. Fig. 8 is a cross-sectional view showing a state in which the upper casing is in the middle of descending during the transfer operation of the transfer tool according to the first embodiment of the present invention, and the left half has been cut. Fig. 9 is a cross-sectional view showing the state of the transfer tool according to the first embodiment of the present invention at the time of transfer, and the left half is cut off. Fig. 10 is a cross-sectional view showing a state in which the upper case is in the middle of ascending during the transfer operation of the transfer tool according to the first embodiment of the present invention, and the left half is cut off. Fig. 11 is a side view showing the transfer tool according to the second embodiment of the present invention.

1: transfer tool

10: Upper shell

11: Front housing

11a: Side panels

11b: Front plate

11b1: Locked protrusion

11c: Transfer member abutting portion

11c1: Ribs

12e: rack

13: Right housing

13a: Right side panel

13b: Upper board

13c: Rotary axis

13d: Boss

13g: guide part

14: Coil Spring

20: Lower shell

21: Lower shell body

21a: Bottom plate

21a1: Protrusions

21b3: Rotary shaft

22: Fill the replacement parts container

22b3: Guidance

22d: Front plate

22d1: Locking protrusion

22e: rear panel

22g: Rotary shaft

22h: Opening

23: Transferred part

24: Drive gear

24a: Shaft

30: Transfer member

31: transfer part

35: Claws

36a: Guide protrusion

37: Abutment receiving part

50: Fill Replacement

51a1: Undertake the face

51a2: Leaf Spring

52a: Shaft

52d:F guide plate

52e:B guide plate

52f: receiving plate

52f1: Support bar

53: Supply bobbin

53a: Ratchet gear

54: Coiled bobbin

55: Coil gear

56: Coil Spring

100: Rotation limiter

T: transfer belt

Claims (10)

A transfer tool, characterized in that it has: Supply bobbin for winding unused transfer belt; A winding bobbin for winding the used transfer belt; The transfer part transfers the transfer layer of the transfer belt to the surface to be transferred; A rotation restricting device capable of restricting rotation of either the rotation of the supply bobbin in the feeding direction or the rotation of the take-up bobbin in the winding direction. The transfer tool according to claim 1, wherein the rotation restriction device performs the rotation restriction by engagement of gears. The transfer tool as described in claim 1, which has: an upper case housing the supply bobbin, the take-up bobbin, the transfer portion, and the rotation restricting device; and a lower case, comprising a transfer target portion on which the transfer target surface is placed; The upper case and the lower case system are rotatably connected. The transfer tool as described in claim 2, which has: an upper case housing the supply bobbin, the take-up bobbin, the transfer portion, and the rotation restricting device; and a lower case, comprising a transfer target portion on which the transfer target surface is placed; The upper case and the lower case system are rotatably connected. The transfer tool as described in claim 3, wherein, The rotation restricting device includes a transfer member for causing the transfer portion to approach/separate from the transfer target portion along with the approach/separation of the upper case and the lower case, and an engaging claw formed on the a transfer member; a gear, which is attached to the supply bobbin and is formed to be engageable with the engaging claw; The said supply bobbin is arrange|positioned adjacent to the said transfer member. The transfer tool as described in claim 4, wherein, The rotation restricting device includes a transfer member for causing the transfer portion to approach/separate from the transfer target portion along with the approach/separation of the upper case and the lower case, and an engaging claw formed on the a transfer member; a gear, which is attached to the supply bobbin and is formed to be engageable with the engaging claw; The said supply bobbin is arrange|positioned adjacent to the said transfer member. The transfer tool according to claim 5, wherein the transfer member applies a force in a direction opposite to that of the transfer portion to the upper case by a urging member, and the upper case has a force capable of engaging with the transfer member. The abutting transfer member abutting portion. The transfer tool according to any one of Claims 3 to 7, further comprising a drive gear which is arranged to be connected to the roller when the upper case and the lower case are separated from each other. The winding gear of the take-up bobbin is engaged, the take-up bobbin is driven, and the used transfer belt is taken up. The transfer tool as described in claim 8, further comprising: The guide part guides the aforementioned driving gear to a specified range; A rack is attached to the upper casing and engages with the drive gear. The transfer tool according to claim 1 or claim 2, wherein the take-up bobbin includes the transfer portion.

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