KR850002525Y1 - Toy - Google Patents

Abstract

No content.

Description

toy

The accompanying drawings show an embodiment of a toy according to the present invention,

1 is a front view of the whole.

2 is a cross-sectional view of the first operating member.

3 and 4 are partial cross-sectional views of the first operating member.

5 is a cross-sectional view of the second operating member.

6 is a perspective view of the cap.

7 and 8 are cross-sectional views of the second operating member.

9 and 10 are cross-sectional views of the third operating member.

11 is a partially broken front view of the auxiliary operating unit.

12 is a partially broken rear view of the first manual actuating member.

13 is a partially broken rear view of the second manual actuating member.

* Explanation of symbols for main parts of the drawings

10: first operating member 20: second operating member

30: third operation member 11: first rod member

21: second rod member 31: third rod member

12: second rod member 22: second moving member

32: third moving member 13: first operating member

23: second operating member 14: first manual operating member

24: second manual operation member 34: auxiliary operation member

15: the first hammer member 25: the second hammer member

35: third hammer member 16: the first operating force transmission member

26: second operating force transmission member 36: third operating force transmission member

4: mounting table 5: mounting member

The present invention relates to toys for infants and toddlers.

An object of the present invention is to provide a toy for directing the movement of the infant infant through vision or hearing by operating the operating member via the moving member to operate the operation member.

Hereinafter, one embodiment of the toy according to the present invention will be described with reference to the accompanying drawings.

In this embodiment, the toy of the present invention is provided with the first operating member 0, the second operating member 20, and the third operating member 30 on the mounting table 4, and the first rod member 11, the first rod member 11, on the mounting table 4. The base end of the two rod member 21 and the third rod member 31 is fixed upright.

The first rod member 11, the second rod member 21, and the third rod member 31 have spherical first moving members 12, second moving members 22, and third moving members 32. Slide in the axial direction of from the outside. The installation member 5 is installed in the front end (upper end) of the 1st rod member 11, the 2nd rod member 21, and the 3rd rod member 31 which were mentioned above. The first operating member 13 and the second operating member 23 are mounted on the mounting member 5, and the first manual operating member 14 and the second manual operating member 24 are mounted on the mounting member 5.

The auxiliary actuating member 34 is mounted on the third rod member 31 described above so as to be positioned above the third moving member 32. The 1st hammer member 15, the 2nd hammer member 25, and the 3rd hammer member 35 were installed in the installation table 4 mentioned above, and the 1st hammer member 15, the 2nd hammer member 25, and the 3rd hammer member 35 were installed. The first operating force transmitting member 16, the second operating force transmitting member 26, and the third operating force transmitting member 36 are interposed between the 10 and the second operating member 20 and the third operating member 30.

The above-mentioned mounting table 4 consisted of the main body 40 and the bottom plate 41 of the synthetic resin body. The main body 40 described above has a hollow shape and has an upward slope from the front part toward the rear part (opposite side) and forms a protrusion 400 at the rear part.

The spherical convex part 401 is provided in the center of the inclined surface mentioned above, the circular perforation 402 is provided in the left side, and the square perforation 403 is provided in the right side, respectively.

Square circular holes 404 are provided on the left and right sides of the upper surface of the above-described protrusion 400, and three circular small holes 405 are installed. The first mounting part 406, the second mounting part 407, and the third mounting part 408 are installed in correspondence with the convex part 401, the circular hole 402, and the square hole 403, respectively.

2 pieces of shores 42 and 42 proximal ends (lower ends) are inserted into the square hole 404 of the protrusion 400 of the mounting table 4, and the snowing members posted to the front ends (upper ends) of the two shores 42 and 42. Secure 5

This installation member 5 forms the circular part 51 in the center, and the uneven parts 52 and 53 in the left and right sides, respectively. The first operating member 10 described above is of a lever type and is composed of a handle portion 100, a semicircular mounting plate portion 101 and a engagement pin 102 implanted in the mounting portion 101.

The mounting plate portion 101 is rotatably mounted on the first mounting portion 406 with the pin 103, and at the same time, the handle portion 100 protrudes outward from the cutout portion of the convex portion 401. The first rod member 11 is inserted into the small hole 405 of the mounting table 4, and the lower end thereof is fixed to the fixing plate 409 of the mounting table 4, while the upper end is fixed to the circular portion 51 of the mounting member 5, The first moving member 12 is inserted from outside to slide.

The first hammer member 15 described above has a tubular shape and the outer diameter of the first tube part slightly smaller than the diameter of the small hole 405, the outer diameter of which is slightly larger than the diameter of the small hole 405. The engaging plate portion 153 which is larger than the outer diameter of the second pipe portion 152 is molded continuously and integrally.

The first hammer member 15 is inserted into the first rod member 11, which slides in the axial direction of the first rod member 11 and from the outside so that the first pipe portion 151 is positioned thereon.

A compression spring 154 is interposed between the engaging plate portion 153 of the first hammer member 15 and the fixed plate 409 so that the end portion 155 of the boundary between the first pipe portion 151 and the second pipe portion 152 is locked to the edge of the small hole 405. . A short pipe 156 for cushioning is interposed between the first hammer member 15 and the first movable member 12 described above.

The first operating force transmitting member 16 described above rotatably installs the ring member 160 to the first mounting portion 406 by the pin 161, and extends the tension spring 162 between one end of the ring member 160 and the first mounting portion 406. It is interposed and configured so that one end of the ring member 160 is always engaged with the engagement pin 102 of the first manipulation member 10.

The engagement tank 163 is rotatably installed at the other end of the ring member 160, and the engagement tank 162 is engaged with the upper surface of the engagement plate portion 153 of the first hammer member 15. When the ring member 160 is brought into the state of the double chain line, the engagement state between the engagement member 163 and the engagement plate portion 153 is released. When the ring member 160 is returned to the solid state, the engagement member 163 is engaged with the upper surface of the engagement plate portion 153. do.

The first operating member 13 described above installs the circular rotating plate 130 on the front surface of the circular portion 51 of the mounting member 5 so as to be rotated by the rotation shaft 131.

The gear 132 is fixed to the rotational shaft 131, and one end of the ring member 133 is pivotally installed on the rear surface of the circular portion 51 by the pin 134, and the engagement bar 135 is rotated to the other end of the ring member 133 by the pin 134 and also electrically The elevating pipe 136 slides in the axial direction of the 1st rod member 11 from the outside to the 1st rod member 11 which was installed and installed facing the gear 132.

The engagement part 137 is installed on the upper part of the elevating pipe 136 mentioned above, and the lower stopper 138 is installed on the back surface of the circular part 51, and as shown in FIG. 3, the lower surface of the ring member 133 and the elevating pipe 136 The engaging portion 137 is configured to engage the lower stopper 138 by its own weight.

In addition, an upper stopper 139 is installed on the rear surface of the circular portion 51, and as shown in FIG. 4, when the elevating pipe 136 is raised and the ring member 133 engaged with the elevating pipe 136 is rotated, the other end of the ring member 133 is rotated. The upper stopper 138 is configured to engage.

And when the ring member 133 rotates from the state of FIG. 3 to the state of FIG. 4, the engagement tank 135 engages with the gear 132, and it is comprised so that the gear 132, ie, the rotation plate 130, may rotate in an arrow direction. The second operation member 20 described above has a dial type, and is composed of a handle portion 200, a shaft portion 201, and a cam 202 fixed to the biaxial portion 201.

The lower end of the aforementioned shaft portion 201 is rotatably mounted on the second mounting portion 407 and the handle 200 is protruded outward from the circular hole 402.

As shown in FIG. 6, the cam 202 described above is provided with an upper portion 203 and a curved portion 204 alternately provided every 120 degrees on the upper surface.

The second rod member 21 is inserted into the small hole 405 of the mounting table 4, and the bottom thereof is fixed to the fixing plate 409 of the mounting table 4, and the upper end is fixed to the stopper 231 of the door 42 of the mounting member 5, and the second rod member 21 The second movable member 22 is inserted into the slide freely from the outside.

The second hammer member 25 described above has a tubular shape and the outer diameter of the first tube part 251 is slightly smaller than the diameter of the small hole 405, the outer diameter of the second tube part 252 is slightly larger than the diameter of the small hole 405, and the outer diameter is The engaging plate portion 253 larger than the outer diameter of the second pipe portion 252 is continuously molded integrally.

The second hammer member 25 is inserted into the second rod member 21, which slides in the axial direction of the second rod member 21 and from the outside so that the first pipe portion 251 is positioned thereon.

The compression spring 254 is interposed between the engaging plate portion 253 and the fixed plate 409 of the second hammer member 25 so that the end portion 255 of the boundary between the first pipe portion 251 and the second pipe portion 252 is locked to the edge of the small hole 405. Let's do it.

The second operating force transmission member 26 described above installs the ring member 260 rotatably on the second mounting portion 407 with a pin 261, and interposes a tension spring 262 between one end of the ring member 260 and the second mounting portion 407. One end of the ring member 260 is configured to engage the cam 202 of the second operating member 20 at all times.

The engagement tank 263 is installed at the other end of the ring member 260 so as to be rotated, and the engagement tank 263 is engaged with the upper surface of the engagement plate portion 253 of the second hammer member 25.

When the ring member 260 is brought into the state of the double chain line, the engagement state between the engagement tank 263 and the engagement plate part 253 is released, and when the ring member 260 is returned to the solid line state, the engagement member 263 is engaged with the upper surface of the engagement plate part 253. do.

In the above-mentioned second operating member 23, the bell 230 is mounted on the front face of the clouded portion 52 on the left side of the snowing member 5.

The elevating pipe 232 is inserted into the second rod member 21 described above from the outside so as to slide in the lateral direction of the second rod member 21.

The stopper 233 whose outer diameter is larger than the diameter of the perforation 520 of the tsunami portion 52 is installed at the lower end of the elevating pipe 232, and the steel ball 235 is installed at the upper end of the elevating steel pipe 232 through the spring 234. It protrudes outward from the through hole 521 of 52 and is positioned in the bell 230.

Normally, the elevating pipe 232 descends by its own weight, as shown in FIG. 7, and hits the second moving member 22 to raise the elevating pipe 232, as shown in FIG. Configure 235 to ring bell 230 to ring bell 230.

The above-mentioned third operating member 30 is in the form of a push button. The slide bar 301 is integrally implanted into the main body 300 of the hollow rectangular parallelepiped with the bottom open, and the engagement cutout 304 is formed.

The slide rod portion 301 is inserted into the slide hole of the third mounting portion 408 and the main body 300 is projected outward by the forward hole 403.

The main body 300 is always protruded upwards through the compression spring 302 between the above-mentioned main body 300 and the 3rd mounting part 408. The stopper 303 is projected outwardly at the edge of the bottom opening of the main body 300 described above, and the stopper 303 touches the edge of the square hole 403 to prevent the main body 300 from escaping from the mounting table 4 by the spring force of the compression spring 302. .

The third rod member is inserted into the small hole 405 of the mounting rod 4, and the lower end thereof is fixed to the fixing plate 409 of the mounting rod 4, and the upper end is fixed to the ridge 53 on the right side of the mounting member 5, and the third rod member 31 3 Slide the movable member 32 outwards.

The third hammer member 35 described above is formed in a tubular shape and is integrally formed with the first tube part 351 which is slightly smaller than the diameter of the small hole 405 posted outside, and the engaging plate part 352 which is slightly larger than the diameter of the small hole 405 posted outside. It was molded by.

The third hammer member 35 is inserted into the third rod member 31 which slides in the lateral direction of the third rod member 31 and from the outside so that the first pipe portion 351 is positioned thereon. Extrude slightly from perforation 405.

The third operating force transmission member 36 described above installs the distal end portion of the ring member 360 to the third mounting portion 408 by a pin 361 so as to be rotatable, and the engagement cutout portion 304 of the third operating member 30 which posts one end of the ring member 360 is rotated. And the other end of the ring member 360 to the lower surface of the engaging plate portion 352 of the third hammer member 35.

In the normal state, the other end sides of the third hammer member 35 and the ring member 360 are brought down by their own weight as shown in FIG. 9, and the third hammer member 35 and The other end axis of the ring member 360 is configured to be in a raised state as shown in FIG.

The aforementioned auxiliary operating member 34 is composed of a main body 340, which is modeled after a small bird, and a short pipe 341 whose inner diameter is slightly larger than the outer diameter of the third rod member 31.

A cavity 342 is formed in the abdomen of the main body 340 described above, while the protrusion 343 is integrally protruded from the end pipe 341, and the tip of the protrusion 343 is inserted into the cavity 342 of the main body 340 to insert the protrusion 343 into the main body 340. It is installed so as to be able to rotate with the pin 344, and the spring 345 is interposed between the protrusion 343 and the main body 340.

The first manual operation member 14 described above is pivotally mounted by the rotating shaft 141 on the ridge portion 53 on the right side of the mounting member 5 of the main body 140 in the shape of an airplane, and fixes the gear 142 on the rotating shaft 141.

On the other hand, one end of the leaf spring 143 is fixed to the rear surface of the cloud portion 53, and the tip of the leaf spring 143 is engaged with the gear 142.

The second manual operation member 24 described above is provided with the main body 240, which is shaped like a small bird, by rotating the shaft 241 on the clouding portion 52 on the left side of the snowing member 5 and facing the bell 230.

The leaf spring 242 is fixed to the main body 240 described above, and the front end of the leaf spring 242 is engaged with the engaging portion 243 on the rear surface of the cloud portion 52.

In this embodiment, the toy of the present invention is constructed as described above. The play method will be described below. First, the handle 100 of the first operating member 10 is grasped so that the first operating member 10 falls as indicated by the double-dotted line against the spring force of the tension spring 162. (Fig. 2) Then, the ring member 160 of the first operating force transmission member 16 engaged with the engagement pin 102 of the first operating member 10 is rotated in the direction of the arrow centered on the pin 161.

As the ring member 160 rotates, the first hammer member 15 engaging with the engagement tank 163 of the ring member 160 descends against the spring force of the compression spring 154. When the ring member 160 and the first hammer member 15 are in the state indicated by the double-dot chain line, the engagement state between the engagement tank 163 of the ring member 160 and the engagement plate 153 of the first hammer member 15 is released and the elastic return force of the compression spring 154 is achieved. As a result, the first hammer member 15 ascends violently and lifts up the first movable member 12 placed on the protrusion 400 of the mounting table 4 via the buffer end pipe 156.

At this time, the first hammer member 15 is in a solid state by the spring force of the compression spring 154.

The wound first moving member 12 strikes the elevating pipe 136 to raise the elevating pipe 136, whereby the ring member 133 engaging with the elevating pipe 136 rotates in the direction of the arrow. At this time, the engagement group 135 of the ring member 133 is engaged with the gear 132 to rotate the gear 132 in the direction of the arrow.

As a result, the rotating plate 130 is rotated in the direction of the arrow. Thus, when the first operating member 10 is released, the first operating member 10 and the ring member 160 are returned to the solid state from the double-stranded chain by the spring return force of the tension spring 162.

Next, by holding the handle 200 of the second operating member 20 and turning it to the right or left direction, the cam 202 of the second operating member 20 is rotated in the same direction, so that one end of the ring member 260 moves from the curved portion 204 of the cam 202 to the peak 203. The ring member 260 is rotated from the solid line state to the double-strength line state against the spring force of the tension spring 262.

As the ring member 260 rotates, the first hammer member 251 engaging with the engagement tank 263 of the ring member 260 descends against the spring force of the compression spring 254.

When the ring member 260 and the second hammer member 25 are in the state indicated by the double chain, the engagement state between the engagement member 263 of the ring member 260 and the engagement plate 253 of the second hammer member 25 is released and the spring return force of the compression spring 254 is achieved. As a result, the second hammer member 25 ascends violently and lifts up the second moving member 22 placed on the protrusion 400 of the mounting table 4. The wounded second moving member 22 hits the elevating pipe 232 and as the elevating pipe 232 rises, the steel ball 235 touches the bell 230 via the spring 234 and the bell 230 rings.

Thus, when the second operating member 20 is released, one end of the ring member 260 moves from the second rod member 12 of the cam 202 to the curved portion 204 by the spring return force of 262, and the ring members 260 and the cam 202 are in a solid state. Is returned.

Then, the main body 300 of the third operating member 30 is pressed against the spring of the compression spring 302. Then, the ring member 360 engaged with 304 of the main body 300 is rotated from the state of FIG. 9 to the state of FIG. 10.

In response to the rotation of the ring member 360, the third hammer member 35 engaged with the ring member 360 ascends violently, and the third movable member 32 and the auxiliary operating member 34 mounted on the protrusion 400 of the mounting table 4 are wounded.

Then, the third moving member 32 immediately descends by its own weight. However, as shown in FIG. 11, the auxiliary operating member 34 descends while the main body 340, which is modeled after the small bird by the vibration of the spring 345, reciprocates between the state of the solid line and the state of the double-stranded chain. And grasping the 1st manual operation member 14, it rotates to the right direction or the left direction.

Then, the gear 141, which is integrated with the main body 140, which is modeled after the plane, rotates, and the leaf spring 143 that interlocks with the tooth wheel 142 is bent to make a sound. When holding the second manual operation member 24 and turning it in the direction of the arrow against the spring force of the leaf spring 242 and releasing the hand, the main body 240, which is modeled after the small bird, rotates vigorously in the opposite direction to the arrow by the spring return force of the leaf spring 242. The bell of the body 240, modeling the bird, beats the bell 230, and the bell 230 rings.

As apparent from the above embodiment, the toy of the present invention is configured to move the moving member to the hammer member by operating the operating member, and to move the moving member to the operating member to operate the operating member. , Or the sound of the hammer member striking the movable member or the sound of the movable member touching the actuating member causes the suckling infant's interest through sight or hearing, and the feeding through the manipulation of the actuating member. Infant exercise nerves, etc. can be improved.

As a matter of course, the toy of the present invention is not limited to the above-described embodiment only.

Claims (3)

While mounting the operating members 10, 20, 30 on the mounting table 4, and fixing the base end of the rod members 11, 21, 31 on the mounting table 4, The movable members 12, 22, and 32 are fitted to the slide members 11, 21, and 31 so as to slide in the axial direction of the rod member. The hammer members 15, 25, 35 which mount the operating members 13, 23 on this mounting member 5, and hit the moving members 12, 22, 32 on the mounting table 4 mentioned above. It is installed, and the operation member which operated the said operation part by interposing the operation force transmission member 16, 26, 36 between the hammer member 15, 25, 35 and the operation member 10, 20, 30, and a moving member ( 12, 22, 32 is hammered by the members 15, 25, 35 and the movable members 12, 22, 32 are brought into contact with the operating members 13, 23 to operate the operating members 13, 23. Toys characterized by the construction. The toy as claimed in claim 1, wherein the actuating member (13, 23) is a rotating body mounted on the mounting member (5) to rotate when the moving member (12, 22, 32) touches. The toy as claimed in claim 1, wherein the actuating member (13, 23) is a bell mounted on the snowing member (5) and rings when the moving member (12, 22, 32) touches.