JPH0434053Y2 - - Google Patents

Description

[Detailed description of the invention] (Field of industrial application) The invention is based on the invention: When a printing base plate on which printing paper, a printing mold, and carbon paper are set is pushed along the top surface of the printing base, printing is done and the printing base is It concerns a printed toy in which the board is pushed back to its original state.

(Prior art and its problems) Conventional printed toys include, for example, those that directly apply the mimeograph printing format, those that use a transfer sheet, and those that use a printing mold and carbon paper to print patterns on printing paper. There are various types of printers, including those that print . However, conventional printing toys have the appearance of a printing machine and are used in the same way as a printing machine, so they lack interest.

(Means for solving the problem) The present invention was made in view of the above, and for example, the printed paper comes out from the toy body, just like the photo comes out from the camera body in an instant camera. The purpose is to provide a printed toy that is

(Means for Achieving the Object) In order to achieve the above object, the printing toy according to the present invention includes a printing base, a pressing roller rotatably supported by the printing base, and a pressing roller that presses the upper surface of the base. Printing that includes a printing base plate that is slidably provided between the rollers and prints by pressing a printing mold placed on the printing base plate, carbon paper, and printing paper with a press roller. A toy, characterized by having the following requirements.

(a) The printing base plate is biased by a spring to the rear of the base, and has an elastic plate on its upper surface on which the printing mold, carbon paper, and printing paper are stacked sequentially from the bottom, and the printing paper. A presser sheet is provided to press down from above.

(b) A rack is engraved in the sliding direction on one side of the upper surface of the printing base plate, and a reduction gear mechanism is provided on the base, and the final gear constituting the reduction gear mechanism is as described above. It should mesh easily.

(Example) The printed toy of the present invention will be described below. Figures 1a, b and 2a, b are explanatory diagrams of the configuration of an embodiment of the present invention, and this printing toy has a printing base 1
and a pressure mechanism 5 formed at the front of the printing base 1.
, a reduction gear mechanism 10 , and a printing base plate 2 .

The printing base 1 has a flat sliding surface 3 located on the upper surface, and a pair of guide portions 4 projecting parallel to the sliding surface 3.

The pressurizing mechanism 5 includes a pair of support members 6 protruding from opposite sides of the front side of the printing base, and a bearing hole 6a formed in the pair of support members 6 and bent at an angle from the front lower side to the rear upper side. The pressing roller 7 has a rotating shaft 7a supported thereon, and the locking protrusion 6b of the support member 6
and a spring 8 which is stretched between the rotation shaft 7a of the pressure roller 7 and constantly biases the rotation shaft 7a downward. The pressure roller 7 is supported by a rotating shaft 7a so as to be relatively rotatable.

The reduction gear mechanism 10 includes a plurality of gears 12, 13, 14 rotatably supported by a support plate 11, a pendulum 15, and a cover 16, as shown in FIGS. 3a, b, and c.

The printing base plate 2 is supported on the sliding surface 3 of the printing base 1 so as to be slidable in the front and back direction while being guided by a pair of guide parts 4, and the rear edge of the printing base plate 2 is provided with a vinyl sheet. presser foot sheet 2
The ends of the printing base plate 2 are fixed, and an elastic sheet 23 is stretched over the upper surface of the printing base plate 2. The printing base plate 2 is always urged in the drawing direction (direction indicated by arrow A) by a spring means (not shown). A linear rack gear 28 is formed from the front to the rear on one side edge of the upper surface of the printing base plate 2 (the side where the reduction gear mechanism 10 is located), and this rack gear 28 is the first gear of the reduction gear mechanism 10. (Pinion gear) 1
By constantly meshing with the first gear 12, the first gear 12 is rotated when the printing base plate 2 slides on the printing base 1. code 2
7 indicates a stopper.

A printing mold 24 is removably placed on the elastic sheet 23, and a printing paper 25 and carbon paper 26 are placed on the uneven portion of the upper surface of the printing mold 24. Note that the stacking order of the printing paper 25 and the carbon paper 26 may be reversed.

The support plate 11 of the reduction gear mechanism 10 is shown in FIG.
As shown in FIG. (has a concentric arc shape)
, a hole 11c for rotatably supporting the third gear (large pitch gear) 14, and a hole 11d for rotatably supporting the inverted Y-shaped pendulum 15. A small gear 12a is coaxially integrated with the rotating shaft of the first gear 12, and a small gear 12a is also integrated with the rotating shaft of the third gear 14.
a are coaxially integrated. The second gear transfers the rotational force of the first gear to the third gear by meshing with the pinions 12a and 14a of the first and second gears.
It is configured to transmit the signal to the gear. Also,
Since the rotation shaft of the second gear 13 is supported by the slit-shaped hole 11b, it is possible to reciprocate between the first and third gears along the length direction of the hole 11b, and in the process of movement. While the first gear always meshes with the pinion 12a of the first gear, it meshes with the pinion 14a of the third gear only when it is located on the third gear side. The gear portion with a large pitch of the third gear 14 is an engaging portion 1 formed inside a pair of branch portions 15a at the lower end of the inverted Y-shaped pendulum 15.
It meshes with 5b. The third gear and the pendulum constitute a sound producing mechanism. When the printing base plate 2 is pushed into the printing base 1 against the elastic means 27, the first gear 12 meshing with the rack gear 28 on the printing base plate 2 moves in the direction indicated by the arrow in FIG. 3a. Therefore, the second gear 13 rotates in the direction of the arrow, and its rotation shaft 13a is connected to the slit-shaped hole 11.
It reciprocates along arrow b in the arrow xy direction. When the rotating shaft 13a is displaced in the x direction, the third gear 14
(small gear 14a), and when displaced in the y direction, it comes into mesh with the third gear. Therefore, transmission and interruption of the rotational force to the third gear are sequentially repeated. When the printing base plate 2 is pushed in and then the pressing force is released, the printing base plate naturally tries to return to the pull-out direction A by the force of the elastic means 27, but at this time, each gear 12, 13 moves in the direction shown in FIG. 3a. Similarly to the case where the second gear rotates in the direction opposite to the arrow direction and slides in the pushing direction, the rotation shaft hole 13a of the second gear reciprocates in the x-y direction within the hole 11b, and the third gear 14 meshing with the small gear 14a,
Repeat disengagement. For this reason, the third gear 14
rotates intermittently to finely reciprocate the pendulum 15 to the left and right, which is engaged with the large pitch gear part. At this time, a continuous buzzing sound is generated due to the collision between the engaging portion 15b at the lower end of the pendulum and the large pitch gear. Note that, of course, when the printing base plate 2 is pushed in, noise is also generated due to the contact between the pendulum and the third gear. The support plate 1 is attached to the cover 16.
Hole 1 corresponding to each hole 11a, 11b, 11c of 1
6a, 16b, and 16c are formed, respectively.

In the above configuration, when printing, first place the printing base plate 2 in the pull-out direction as shown in FIG.
3, a desired printing mold 24, printing paper 25, and carbon paper 26 are sequentially laminated on top of the sheet 3, and then pressed with a presser sheet 22, and then these are pushed between the sliding surface 3 of the printing base 1 and the pressing roller 7. . At this time, some printing is performed. That is, since the pressure roller 7 is always urged downward by the spring 8,
By simply pushing the printing base plate 2 holding the printing paper 25, carbon paper 26, etc. in a stacked state, the roller 7 rolls on the presser sheet and presses it, and as a result, the carbon of the carbon paper is transferred to the protrusions of the printing mold. It can be transferred onto printing paper along the part shape. Further, as the printing base plate 2 is pushed in, the rotation shaft 7a of the roller 7 moves from the lower front to the upper rear while resisting the spring 8 along the bearing hole 6a. For this reason, it is possible to prevent excessive pressure from being applied.

In the reduction gear mechanism 10, when the movable member 20 is pushed in, the first and second gears 12, 13 are rotated by the rack gear 28 in the direction of the arrow in FIG. is the support plate 11
It reciprocates in the x-y direction within the hole 1b and repeats meshing and non-meshing with the third gear 14. Movable member 2
0 is pulled back in the pulling direction by the elastic pulling means, the first and second
gears 12 and 13 are rotated in the direction opposite to the direction of the arrow in FIG.
The third gear 1 moves back and forth in the x-y direction within 1b.
Repeated engagement and separation with 4. For this reason, torque transmission is repeatedly interrupted, and the speed of return to the pulling direction is reduced. While the rotational force is being transmitted from the second gear to the third gear, the rotation of the third gear causes the gear threads of the gear portion of the third gear and the pendulum 1 to
Hits (collisions) occur sequentially between the engagement portion 15b of No. 5 and a whirring sound. When it is pulled out, the pressure for printing is performed again, and the printing base plate 2
The printed printing paper 25 can be removed from the holder.

By adopting the above-mentioned printing toy mechanism in a toy having the form of an instant camera as shown in Figure 4, printing can be performed in a photograph-like image, expanding the range of development of toys. can. In this case, the printing toy mechanism having the above configuration may be covered with the camera casing 30.
The arrow indicates the direction in which the printing base plate 2 is pulled out.

(Effects of the invention) As described above, according to the printing toy of the invention, the printed paper can be made to come out from the toy body, so the printing looks like a photo taken with an instant camera. It is possible to expand the development area of toys.

[Brief explanation of the drawing]

Figures 1a and b are explanatory diagrams of the entire configuration of an embodiment of the present invention, Figures 2a and b are diagrams that explain the configuration of the movable part and the state in which the movable part is pressurized, and Figure 3a , b, and c are explanatory diagrams of the structure of the reduction gear mechanism, and FIG. 4 is an example of the case where the printed toy mechanism of the present invention is applied to a camera. Code 1...Printing base, 2...Printing base plate, 5...
Pressure mechanism mechanism, 6... Support member, 7... Press roller, 7a... Rotating shaft, 8... Spring, 10...
...Reduction gear mechanism, 11...Support plate, 12, 13,
14... Gear, 12a, 14a... Small gear, 13
a... Rotating shaft, 15... Pendulum, 16... Cover,
22... Presser sheet, 23... Elastic sheet, 24
...Printing mold, 25...Printing paper, 26...Carbon paper, 30...Casing.

Claims (1)

[Claims for Utility Model Registration] A printing base comprising a printing base, a press roller rotatably supported by the printing base, and a printing base plate slidably provided between the top surface of the base and the press roller. A printing toy that prints by pressing a printing die arranged on a printing base plate, carbon paper, and printing paper with a pressing roller, and characterized in that it has the following requirements. (a) The printing base plate is biased by a spring to the rear of the base, and has an elastic plate on its upper surface on which the printing mold, carbon paper, and printing paper are stacked sequentially from the bottom, and the printing paper. A presser sheet is provided to press down from above. (b) A rack is engraved in the sliding direction on one side of the upper surface of the printing base plate, and a reduction gear mechanism is provided on the base, and the final gear constituting the reduction gear mechanism is as described above. It should mesh easily.