KR20210065456A - Launchable toy - Google Patents

Abstract

According to the present invention, provided is a launchable toy including: a lower body formed to be gripped by a user to be carried and aimed; an elastic member having both ends fixed to the lower body to provide energy accumulated by tension to a projectile; an upper part moved forward and backward in an upper part of the lower body to apply and release a tensile force to the elastic member placed therethrough, having an inlet formed in an upper part to allow the projectile to be inserted therethrough, and having a launching hole formed therein to allow the inserted projectile to be discharged forward by the elastic member; and a lever part rotated around the lower body to move the upper body forward and backward with respect to the lower body. Since the lever part has one end hinged with the lower body, a center part hinged with the upper body spaced apart from the one end to the rear side, and has the other end formed to be gripped by the user, as the user rotates the lever part forward and backward by gripping the other end, the lever part is rotated around the one end to move the upper body forward and backward. Accordingly, the present invention can lead a child to have more curiosity and interest, and can prevent accidents by prohibiting the discharge of other projectiles such as a nail through a safety means, which can lead to an improvement in safety.

Description

launch toy {Launchable toy}

The present invention relates to a launch toy, and more particularly, to a launch toy that can cause fun and interest in children, and is configured not to be launched with a projectile other than a designated projectile, thereby improving safety.

In general, children's toys are mainly robots, airplanes, dolls, etc., and firing toys such as guns, swords, or bows are widely used as toys for boys.

As an example of the technology for such a launch toy, Registered Utility Model Publication No. 20-0322973 provides an elastic force and provides a bow with a passage passing through the center, a string fixed to both ends of the bow, and a string fitted in the passage and in the string A moving bar having a hooking part protruding so as not to fall out from the passage when it is separated is provided at the end of the chord and having a hook surface of a hook-and-loop fastener at the end of the far side from the chord, and a hook-and-loop fastener coupled to the hook surface of the moving bar A play bow including a ball having a loop surface formed on the outer surface of the bar has been disclosed.

However, the above-mentioned launch toy is a launch toy that is commonly seen around, and there is a problem that children quickly get tired of it and arouse curiosity about the launch toy, and there is a problem that may cause a safety accident during use.

Registered Utility Model Publication No. 20-0322973

The present invention is to provide a launch toy with improved safety so that children can escape the risk of a safety accident by improving safety while providing a new type of launch toy by allowing a projectile to be launched by operation of a pivoting lever. The purpose.

The present invention includes a lower body configured to be gripped by a user and to be carried and aimed; an elastic member having both ends fixed to the lower body and providing energy accumulated by tension to the projectile; The upper part of the lower body rotates forward and backward to add and release tensile force to the elastic member disposed therethrough, and the projectile is introduced through an inlet formed at the upper portion, and the injected projectile is fired forward by the elastic member an upper body formed with a launch port; It is configured to include a lever part for rotating about the lower body to move the upper body forward and backward with respect to the lower body, wherein the lever part has one end hinge-coupled to the lower body, and the central part is the one end It is hinged to the upper body spaced apart from the rear, and the other end is configured to be gripped by the user, and when the user grips the other end and rotates it forward and backward, it rotates around the one end to move the upper body forward and backward. It provides a launch toy, characterized in that configured to let.

Here, the lower body may include a support member that supports the upper body and has a grip portion that can be gripped by a user at the rear end thereof, and a bow member to which both ends of the elastic member are fixedly coupled to both sides, respectively. have.

In addition, the upper body is provided in the lower part of the upper body, the projectile is seated on the upper surface, and consists of a groove formed at the rear end so that as the elastic member moves along the upper surface, the elastic member is seated and the elastic member It may be configured to include a seating member in which a loading groove is formed so that a tensile force is applied thereto.

The loading groove is formed in the upper portion of the lower end surface of the upper body, and both ends of the rod member are formed in the lower portion of the upper surface of the lower body, and the elastic member is provided with a step difference between the loading groove and both ends of the rod member. may be seated downwardly in the loading groove.

The front edge portion of the loading groove may be formed as a round portion to reduce interference and frictional force when the elastic member is separated from the loading groove and moved forward.

The projectile may be formed of a cylindrical elastic foam resin.

The seating member may be formed with a seating groove on the upper surface of which the projectile is mounted.

The seating member is installed so as to elevate and descend through a through hole formed through the bottom of the loading groove, so that the elastic member is fitted into the loading groove when descending, and the elastic member fitted into the loading groove is lifted upwards when lifting. It may be configured to include a launch member for moving the elastic member to be separated from the loading groove.

The firing member may be configured to descend by its own weight when the upper body is spaced apart from the lower body, and when the upper body is in contact with the lower body, the lower surface is in contact with the upper surface of the lower body to ascend and descend.

The firing member may be configured to further include a locking part which is formed to protrude in the outer circumferential direction at the upper end, and to prevent the bottom surface from being caught in contact with the through-hole when descending and to be prevented from being separated downwardly from the through-hole.

The launch toy is installed in the launcher of the upper body, and one end of the launcher is inside the launcher so that movement of the projectile from the inlet to the outlet is possible and movement of the launcher from the outlet to the inlet is restricted. It may be configured to further include a deflection safety plate coupled to the upper surface and the other end inclined downward toward the outlet of the launcher.

On the other hand, a loading separation groove having a cutting depth extended from the seating groove is formed at an end of the seating groove, and when a projectile having a head portion formed therein is inserted, the head portion may be inserted and seated in the loading separation groove.

The deflection safety plate may include a pivoting hinge installed on the inner upper surface of the launcher, one end rotatably coupled to the pivoting hinge, and the other end inclined downward toward the outlet of the launcher.

In this case, the upper body may be configured to further include a magnet member installed on the inner surface of the launch port adjacent to the other end of the rotation plate, and allowing an attractive force to act on the rotation plate.

The upper body is configured to include a firing block to which the deflection safety plate is coupled and forming the firing port, and the firing block may be detachably coupled to the front of the upper body.

The launch toy according to the present invention provides the following effects.

First, it is configured to fire a projectile while rotating the lever, so it is possible to provide a firing toy in a new way, which can arouse curiosity and interest in children.

Second, even if a projectile such as a nail is inserted into the inlet, the projectile is provided with the tensile energy of the elastic member through the loading separation groove to prevent the projectile from being fired. Even in the case of the same writing instrument, safety accidents can be prevented as much as possible by installing safety devices on both the launch port and the inlet port so that the launch port is prevented from being loaded through the deflection safety plate.

Third, since the structure is simple and manufacturing is easy, it is possible to provide an economic effect.

1 is a perspective view of a launch toy according to an embodiment of the present invention.
FIG. 2 is a front cross-sectional view showing an upper body and a lower body in the launch toy of FIG. 1 .
FIG. 3 is a perspective view showing the projectile and the firing member seated on the seating member in the firing toy of FIG. 1 .
4 is a front cross-sectional view showing an embodiment in which the loading separation groove is formed in the seating member in the launch toy of FIG. 4 .
5 is a front cross-sectional view showing the loading and unloading of the firing member in the firing toy of FIG.
6 is a cross-sectional view showing a deflection safety plate in the launch toy of FIG.
7 is a cross-sectional view showing another embodiment configured to be able to rotate the deflection safety plate of FIG.
8 to 12 are views illustrating an operation sequence of the launch toy of FIG. 1 .

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings.

1 and 2 , the launch toy according to an embodiment of the present invention includes a lower body 100 , an elastic member 200 , an upper body 300 , and a lever part 400 . can be

First, looking at the lower body 100, the lower body 100 is located in the lower portion of the upper body 300 to support the upper body 300 upward, and the user can hold it to carry and aim. configured to be able to

In the drawing, the lower body 100 is configured such that the rear end is inclined downward so that the user can easily grip it.

The lower body 100 may include a support member 110 and a bow member 120 .

The support member 110 has a flat upper surface so that the upper body 300 can be seated on the upper surface to support the upper body 300 upward, and the rear end is a grip part 111 that can be gripped by a user. is formed.

In the drawings, the grip portion 111 is formed to be inclined downward to facilitate gripping by the user.

Both ends of the elastic member 200 are fixedly coupled to both sides of the bow member 120 , respectively.

In the drawing, the bow member 120 is formed in an arcuate shape so that the central concave surface is coupled to the front surface of the support member 110, and the elastic member 200 moves in the front-rear direction to be stretched and contracted. It is arranged in a horizontal direction so that both ends of the elastic member 200 are positioned along the horizontal direction.

The elastic member 200 has both ends fixed to the lower body 100 , elastically deformed to accumulate energy due to tension, and provides the accumulated energy to the projectile 10 to launch the projectile 10 . do That is, the elastic member 200 is loaded with tensile force added during elastic deformation, and is configured to fire the projectile 10 when the applied tensile force is released.

Both ends of the elastic member 200 are coupled to both ends of the bow member 120 , respectively, and are disposed through the sliding holes 341 formed in the upper body 300 . Here, the sliding hole 341 is formed as a long hole formed along the upper surface of the seating member 320, which will be described later, so that the elastic member moves.

On the other hand, the sliding hole 341 is located higher than both ends of the bow member 120 to which the elastic member 200 is coupled, so that the elastic member 200 elastically supports the upper body 300 downwards to the upper body ( 300 may be configured to be in contact with the lower body 100 .

The elastic member 200, a rubber band may be applied.

Furthermore, the elastic member 200 may use a member having a low frictional force with respect to the central portion in contact with the sliding hole 341 so as to reduce frictional force when moving along the sliding hole 341 .

Hereinafter, the upper body 300 will be described.

The upper body 300 serves to add and release a tensile force to the elastic member 200 disposed through the upper body 100 by pivoting back and forth in the upper portion of the lower body 100 .

In the upper body 300, an inlet 311 through which the projectile 10 is inserted is formed through the upper body 300, and a launcher 312 through which the injected projectile 10 is fired forward by the elastic member 200. is formed through

Here, the inlet 311 is formed penetrating in a vertical direction from the upper part to the lower part of the upper body 300, and when the projectile 10 is put into the upper inlet 311, it moves downward by its own weight and is stacked. do.

The launch port 312 is formed to communicate with the front of the inlet 311 and is formed in a horizontal direction so that the projectile 10 injected into the inlet 311 is fired from the rear entrance toward the front exit. guide

Meanwhile, the upper body 300 may further include a pressing member 301 that is put into the inlet 311 so as to be seated on the upper surface of the projectile 10 to downwardly support the projectile 10 . The pressing member 301 may be variously formed, such as a rectangular parallelepiped shape, depending on the shape of the inlet 311 as shown, and any member having a constant load to support the projectile 10 downward is possible. .

On the other hand, the upper body 300 is provided in the lower portion of the upper body 300, and as the elastic member 200 moves along the upper surface, the elastic member 200 is inserted into the loading groove so that a tensile force is added ( 321) may be configured to include a mounting member 320 is formed.

Referring to Figure 3, the seating member 320, the projectile 10 is seated on the upper surface, as the elastic member 200 moves along the upper surface, the elastic member 200 is fitted so that a tensile force is added. A loading groove 321 is formed.

Here, the loading groove 321 is formed in the upper portion of the lower surface of the upper body 300, both ends of the bow member 120 are formed in the lower portion of the upper surface of the lower body 100, the loading groove 321 The bottom surface of the is located higher than both ends of the elastic member (200).

Accordingly, the elastic member 200 is seated downwardly in the loading groove 321 by the step difference between the loading groove 321 and the both ends of the bow member 120, so that the upper body 300 is not easily detached when the upper body 300 is moved. Of course, the elastic member 200 of the loading groove 321 has a restoring force acting downward to press the upper body 300 toward the lower body 100 so that the upper body 330 is in contact with the lower body 100 . make it

The loading groove 321 may be formed in a rectangular box shape as shown in FIG. 3 so that the side surface of the elastic member 200 can be fitted thereinto.

Furthermore, the front edge portion of the loading groove 321 forms a round portion 321a to reduce the frictional force when the elastic member 200 is separated from the loading groove 321 by the firing member 330 and moves forward. It may be configured to reduce interference to facilitate release of tension force.

The projectile 10 may be formed of a cylindrical elastic foam resin to prevent safety accidents during use, but any other material capable of preventing safety accidents such as rubber materials may be used.

The seating member 320 may have a seating groove 322 on its upper surface in which the projectile 10 is mounted.

The seating groove 322 is formed from the exit of the front inlet 311 to the front of the loading groove 321 , and may have a semicircular longitudinal cross-section to correspond to the shape of the cylindrical projectile 10 .

On the other hand, the launch toy can be operated after the user puts another dangerous projectile 11 such as a nail other than the set projectile 10 into the inlet 311, in this case, there is a risk of a safety accident. It is necessary to prevent firing when 11) is input.

Accordingly, in the launch toy of the present invention, a loading separation groove 323 may be formed in the seating member 320 as shown in FIG. 4 .

The loading separation groove 323 is formed at an end of the seating groove 322 , and is formed to have a cutting depth extended from the seating groove 322 .

Accordingly, when the projectile 11 having a head portion having an enlarged cross-section, such as a nail, is seated in the seating groove 322 , the head portion of the projectile 11 is inserted and seated in the loading separation groove 323 .

That is, the loading separation groove 323 allows the head portion of the projectile 11 to be seated when the projectile 11 provided with the head portion is inserted as described above, so that the head portion is an elastic member when loading as shown in FIG. 4 . In addition to preventing the projectile 11 from being fired by making it spaced apart from 200 , the head part inserted into the loading separation groove 323 is caught in the loading separation groove 323 even if the elastic member 200 hits the head portion, and the projectile is caught in the loading separation groove 323 . (11) to prevent normal firing.

As described above, in the launch toy, even if a projectile 11 with a risk of a safety accident such as a nail is put into the inlet, the head portion of the projectile 11 and the loading separation groove ( 323), the launch of the projectile 11 is prevented, thereby preventing a safety accident.

Hereinafter, the lever 400 will be described.

The lever part 400 serves to rotate about the lower body 100 to move the upper body 300 forward and backward with respect to the lower body 100 .

The lever 400 is configured such that one end is hinged to the lower body 100, the central portion is hinged to the upper body 300 spaced rearward from one end, and the other end is gripped by the user. When the user grips the other end and rotates it forward and backward, it is configured to rotate around one end to move the upper body 300 forward and backward.

Referring to the drawings, the lever unit 400 may include an operation lever 410 and a handle unit 420 .

The operation lever 410 is configured as a pair and is located on both sides of the upper body 300 and the lower body 100, one end is rotatably coupled to the lower body 100, and the central part is the upper body (300) is rotatably coupled.

The handle portion 420 is coupled to the other end of each of the operation levers 410 and is configured to be gripped by the user.

Hereinafter, the release of the tensile force of the elastic member 200 according to the pivotal movement of the upper body 300 and the firing process of the projectile 10 will be described.

Referring to FIG. 5 , the seating member 320 may include a launch member 330 installed to ascend and descend in a through hole 332 formed through a bottom surface of the loading groove 321 .

In detail, the firing member 330 is configured to fit the elastic member 200 into the loading groove 321 when descending.

And the firing member 330 moves upwards by moving the elastic member 200 fitted in the loading groove 321 when lifting and lowering the elastic member 200 from the loading groove 321, and thus the elastic member ( While the tensile force of the 200) is released, the projectile 10 is configured to be fired.

On the other hand, in the present invention, the firing member 330 is configured to be raised and lowered according to whether or not spaced apart from the upper body 300 .

Looking at this, the launch member 330 is lowered by its own weight when the upper body 300 is spaced apart from the lower body 100 as shown in FIG. 5A.

On the other hand, the firing member 330, as shown in Fig. 5 (b), when the upper body 300 is in contact with the lower body 100, the lower surface is in contact with the upper surface of the lower body 100, and the lower body 100 ), while being supported upwards, it ascends and descends.

Here, the separation between the upper body 300 and the lower body 100 is made by the pivotal movement of the upper body 300 , and the pivotal movement of the upper body 300 is performed by the rotation of the lever part 400 . is done

Looking at this, the upper body 300, when the lever part 400 is rotated forward, is pivotally moved forward in conjunction with this to be spaced apart from the lower body 100, and when the lever part 400 is rotated rearward, this It is pivotally moved to the rear in interlocking contact with the lower body 100 .

Accordingly, in the launch member 330 of the present invention, when the upper body 300 is pivotally moved forward by the forward rotation of the lever part 400, the upper body 300 and the lower body 100 are spaced apart from each other. and moves downward by its own weight. Then, the elastic member 200 can be inserted into the loading groove 321 to be fitted.

On the other hand, when the upper body 300 is pivotally moved to the rear by the rear rotation of the lever part 400, the firing member 330 brings the upper body 300 and the lower body 100 into contact with each other and the lower surface is the lower surface. It is in contact with the body 100 and is lifted while being supported upward by the lower body 100 .

The launch member 330 may be configured to include a locking portion 331 to prevent separation from the through hole 332 .

The locking part 331 is formed to protrude in the outer circumferential direction of the end of the firing member 330, and the bottom surface of the firing member 330 is caught in contact with the side surface of the seating member 320 when the firing member 330 is raised and lowered. is prevented from being separated from the through hole 332 .

In the drawing, the locking part 331 is formed to protrude in the outer circumferential direction at the upper end of the firing member 330, so that the bottom surface is caught in contact with the through-hole 332 when descending and is separated downward from the through-hole 332. designed to prevent it. However, this is an embodiment, the locking part 331 is formed at the upper end and the lower end of the firing member 330, respectively, so that the bottom surface is in contact with the upper and lower portions of the through hole 332 when elevating and lowering. of course there is

The firing member 330 is formed in a cylindrical shape as shown, and the engaging portion 331 may also be formed in a disk shape.

On the other hand, according to the above-mentioned bar, in the launch toy of the present invention, in consideration of the case where an unspecified projectile 11 that may cause a safety accident is put into the inlet 311, the loading separation groove ( By forming 323), even if the projectile 11, such as a nail, is inserted into the inlet 311, it is not fired to prevent a safety accident.

This is in consideration of the case in which the projectile 11 is put into the inlet 311, and the launch toy of the present invention causes a safety accident through the above-described inlet 311 as well as the launcher 312. It is also necessary to prevent safety accidents that may occur due to the input.

For example, since writing instruments such as pencils or ballpoint pens, which have a long and thin shape that can be inserted into the launcher 312 and can cause a safety accident during launch, can cause a safety accident during launch, the safety accident prevention configuration is need.

Accordingly, in the launch toy of the present invention, as shown in FIG. 6 , a deflection safety plate 510 for preventing reverse input of the projectiles 10 and 11 may be installed in the launcher 312 .

The deflection safety plate 510 is installed in the launch port 312 of the upper body 300 to enable the projectile 10 to move from the inlet to the outlet of the launch port 312 and By restricting the movement from the exit to the inlet, it serves to prevent the reverse injection of the projectiles 10 and 11 from the exit of the launcher 312 .

That is, the deflection safety plate 510 is shown in (b) of FIG. 6, while the projectile 10 can move from the inlet to the outlet of the launcher 312 as shown in FIG. 6(a). It is configured such that the movement of the projectile 11 from the exit of the launcher 312 to the inlet is restricted as described above, so that the projectiles 10 and 11 are prevented from entering the launcher 312 other than the inlet 311. .

Looking in detail with respect to the deflection safety plate 510 , the deflection safety plate 510 has one end coupled to the inner upper surface of the launcher 312 and the other end inclined downward toward the exit of the launcher 312 . (312) is configured to be adjacent to the inner lower surface.

Accordingly, when the projectile 10 moves from the inlet to the exit of the launcher 312, the deflection safety plate 510 moves the other end upward so that the projectile 10 is fired (see (a) of FIG. 6). , when the projectile 11 moves from the exit of the launcher 312 to the inlet, since the other end is located on the inner lower surface of the launcher 312, the movement of the projectile 11 can be restricted.

The deflection safety plate 510 is preferably formed of a material having an elastic restoring force so that the other end moves to the upper side and then to the lower side when the projectile 10 is fired, and a metal or synthetic resin of an elastic material is applied thereto. can do.

7 is a view showing another embodiment of the deflection safety plate 520 .

Referring to the drawings, the deflection safety plate 520 has one end rotatably coupled to the launcher 312 , thereby reducing the movement resistance of the projectile 10 when the projectile 10 is fired, and the projectile 10 . can minimize the speed decrease.

In addition, since one end of the deflection safety plate 520 of the above embodiment is rotatably coupled to the inner upper surface of the launcher 312, a material having higher strength than an elastic material may be used. Accordingly, since the deflection safety plate 520 is not deformed even when the user forcibly inserts the projectile 11 into the exit of the launcher 312 and applies an external force, durability and lifespan can be improved.

Hereinafter, the deflection safety plate 520 will be described in detail. The deflection safety plate 520 may include a rotation hinge 521 and a rotation plate 522 .

The rotation hinge 521 is installed on the inner upper surface of the launcher 312 .

Here, the pivoting hinge 521 may be installed in an installation groove formed on the inner surface of the launcher 312 so as not to interfere with the launch of the projectile 10 as shown, and is installed in a horizontal direction to prevent the launch of the projectile 10 from being interfered with. 522 is configured to be able to rotate about the horizontal axis.

The rotation plate 522 has one end rotatably coupled to the rotation hinge 521 in a plate shape, and the other end is formed to be inclined downwardly toward the outlet of the launcher 312, and the rotation hinge 521 is horizontal. It is configured to be able to rotate in the vertical direction with the rotation axis.

On the other hand, the deflection safety plate 520, the other end may be rotated according to the upper and lower positions of the upper body 300 as much as one end is rotatably coupled around the pivoting hinge 521.

In other words, since one end of the deflection safety plate 520 is rotatably coupled in both directions by a rotation hinge 521 , the other end is configured to descend by its own weight.

Therefore, as shown in the figure, when the upper and lower portions of the upper body 300 are respectively located at the upper and lower portions in the forward direction, the deflection safety plate 520 has a pivoting hinge 521 located on the inner upper portion of the launcher 312 and the lower end Silver is formed to be inclined downward to contact the inner lower surface of the launcher 312 by its own weight.

However, when the upper and lower portions of the upper body 300 are reversed so that the upper part is positioned at the lower part and the lower part is positioned at the upper part, the deflection safety plate 520 has a pivoting hinge 521 positioned at the lower inner side of the launcher 312 . The lower end also comes into contact with the inner lower surface of the launcher 312 by its own weight, and the launcher 312 is always opened, thereby enabling the reverse injection of the projectile 10 from the outlet of the launcher 312 .

Accordingly, when the pivoting hinge 521 is configured as described above, the position of the deflection safety plate 520 needs to be adjusted so that the other end is always adjacent to the inner surface of the launcher 312 .

Accordingly, the rotation plate 522 is formed of a paramagnetic material, and the upper body 300 is installed on the inner surface of the launcher 312 adjacent to the other end of the rotation plate 522, and the rotation plate ( 522) may be configured to further include a magnet member (not shown) to act on the attractive force.

Here, the magnet member is a permanent magnet and is configured to act as an attractive force with respect to the rotating plate 522, so that the other end of the rotating plate 522 is constantly applied even when the upper body 300 is turned over and the upper and lower parts are reversed. It is sucked into contact with the inside of the launcher 312 .

Here, the magnet member has a magnetic force so as to be in contact with the other end of the rotating plate 522, and the external force caused by the firing of the projectile 10 has a magnetic force sufficient to be separated from the rotating plate 522. It is configured so as not to interfere with the launch of the projectile 10 .

Meanwhile, the present invention may be configured to facilitate replacement or repair of the deflection safety plates 510 and 520 described above.

To this end, the upper body 300 may be configured to include a launch block (not shown) to which the deflection safety plates 510 and 520 are coupled, a launch port 312 is formed, and a launch block (not shown) positioned in front of the upper body 300 .

Here, the firing block is detachably coupled to the upper body 300 .

Accordingly, the deflection safety plates 510 and 520 can be repaired by separating only the firing block from the upper body 300 without the need to disassemble and repair the entire upper body 300 when replacement or repair is required. and consequently the cost can be reduced.

On the other hand, in the detachable configuration of the firing block in the above, the firing block can be assembled or separated from the upper body 300 through a coupling member such as a coupling bolt, or sliding through a mutual coupling structure made of coupling grooves or coupling protrusions. It may be configured to be assembled or disassembled.

Hereinafter, the operation of the launch toy of the present invention will be described with reference to FIGS. 8 to 12 .

First, referring to FIG. 8, FIG. 8 is a view showing a state of preparation before loading the launch toy. The launch toy is still loaded because the lever part 400 and the upper body 300 are located at the rear. is unsupported.

At this time, the projectile 10 may be put into the upper portion of the inlet 311 , and is stacked in the vertical direction in the inlet 311 , and the projectile 10 located at the lowermost end is sequentially fired.

When the preparation for loading is completed as described above, the launch toy is operated to be loaded as shown in FIGS. 9 and 10 .

Looking at this, first, as shown in FIG. 9 , the user rotates the lever part 400 forward. Then, the upper body 300 also rotates forward and moves accordingly.

And as described above, when the upper body 300 pivots forward and moves, the elastic member 200 moves rearward along the sliding hole 341 so as to approach the loading groove 321 .

FIG. 10 is a case in which the user rotates the lever 400 to the front end in the state of FIG. 9 , and the upper body 300 at this time is further pivotally moved forward, and thus the elastic member 200 is moved to the rear It moves and is fitted into the loading groove 321 .

At this time, the firing member 330 is moved downward by its own weight, so that the elastic member 200 is inserted into the loading groove 321 to be fitted.

And the projectile 10 is seated in the seating groove 322 while the elastic member 200 is fitted in the rear loading groove 321.

After that, the user rotates the lever 400 backward as shown in FIG. 11 .

Then, the upper body 300 is rotated to the rear, and accordingly, the elastic member 200 fitted in the loading groove 321 has a tensile force added thereto, and is accumulated by the tensile force according to the rear rotation of the lever part 400 . As the accumulated energy gradually increases, it becomes a charged state.

Here, the above-mentioned loading state means a state in which a tensile force is added to the elastic member 200 and energy is accumulated by the tensile force, and when the tensile force is released in this state, the energy accumulated by the tensile force is transferred to the projectile 10 . will be provided to

When the loading of the launch toy is completed as described above, the tensile energy of the elastic member 200 is released so that the projectile 10 is launched.

In this regard, referring to FIG. 12 , the user further moves the lever part 400 to the rear in a state where the elastic member 200 is fitted in the loading groove 321 as shown in FIG. 11 , and the lower surface of the upper body 300 . It moves until it comes into contact with the upper surface of the lower body (100).

Then, as the previous upper body 300 is spaced apart with respect to the lower body 100, the firing member 330, which has been moved to the lower side, comes into contact with the upper surface of the lower body 100 and moves upward.

And according to the upper movement of the firing member 330, the elastic member 200 is moved upward, and is pushed upward from the loading groove 321, and is separated into the loading groove 321 and added tensile force. This release is released to provide the energy accumulated by the tension to the projectile 10 so that the projectile 10 is fired.

Although the present invention has been described with reference to the embodiment shown in the drawings, which is merely exemplary, those skilled in the art will understand that various modifications and equivalent other embodiments are possible therefrom. Accordingly, the true technical protection scope of the present invention should be determined by the technical spirit of the appended claims.

10,11: projectile 100: lower body
110: support member 111: grip part
120: bow member 200: elastic member
300: upper body 301: pressing member
311: inlet 312: launcher
320: seating member 321: loading groove
321a: round part 322: seating groove
323: loading separation groove 330: firing member
331: locking part 332: through hole
341: sliding hole 400: lever part
410: operation lever 420: handle part
510,520: deflection safety plate 521: rotation hinge
522: rotating plate

Claims (11)

a lower body configured to be grasped by a user, carried and aimed;
an elastic member having both ends fixed to the lower body and providing energy accumulated by tension to the projectile;
To add and release a tensile force to the elastic member disposed through the upper portion of the lower body by pivoting forward and backward, the projectile is introduced through an inlet formed at the upper portion, and the injected projectile is fired forward by the elastic member an upper body formed with a launch port;
It is configured to include a lever part that rotates about the lower body to move the upper body forward and backward with respect to the lower body,
The lever part,
One end is hinged to the lower body, the central portion is hinged to the upper body spaced rearwardly from the one end, and the other end is configured to be gripped by the user, and the user grips the other end to rotate forward and backward. Launch toy, characterized in that it is configured to rotate around the one end to move the upper body forward and backward when done.
The method of claim 1,
The lower body,
A support member that upwardly supports the upper body and has a gripping portion that can be gripped by a user at a rear end thereof;
A launch toy characterized in that it comprises a bow member on both sides of which both ends of the elastic member are fixedly coupled to each other.
3. The method of claim 2,
The upper body,
It is provided in the lower part of the upper body, the projectile is seated on the upper surface, and is composed of a groove formed at the rear end. As the elastic member moves along the upper surface, the elastic member is seated so that a tensile force is applied to the elastic member. A launch toy comprising a seating member having a groove formed therein.
4. The method of claim 3,
The loading groove is formed in the upper portion of the lower surface of the upper body,
Both ends of the bow member are formed in the lower portion of the upper surface of the lower body,
and the elastic member is seated downwardly in the loading groove due to a step difference between the loading groove and both ends of the pole member.
5. The method of claim 4,
The front edge of the loading groove,
The launch toy, characterized in that the elastic member is formed in a round portion to reduce interference and frictional force when the elastic member is separated from the loading groove and moved forward.
5. The method of claim 4,
The projectile is
A launch toy characterized in that it is formed of a cylindrical elastic foam resin.
5. The method of claim 4,
The mounting member is
A launch toy, characterized in that a seating groove in which the projectile is seated is formed on the upper surface.
5. The method of claim 4,
The mounting member is
It is installed so as to elevate and descend in the through-hole formed through the bottom surface of the charging groove, so that the elastic member is inserted into the charging groove when descending, and when lifting, the elastic member inserted in the charging groove is moved upward to move the elastic member A launch toy characterized in that it is configured to include a launch member for disengaging the member from the loading groove.
9. The method of claim 8,
The launch member is
When the upper body is spaced apart from the lower body, it descends by its own weight,
Launch toy, characterized in that when the upper body is in contact with the lower body, the lower surface is in contact with the upper surface of the lower body and is configured to elevate.
10. The method of claim 9,
The launch member is
The launch toy, characterized in that it further comprises a locking part that is formed to protrude in the outer circumferential direction at the upper end and prevent the bottom surface from being caught in contact with the through hole when descending to prevent the downward separation from the through hole.
11. The method according to any one of claims 1 to 10,
The launch toy,
Installed in the launcher of the upper body, one end is coupled to the inner upper surface of the launcher and the other end is provided to enable movement of the projectile from the inlet to the outlet of the launcher and limit movement from the outlet to the inlet of the launcher. is a launch toy characterized in that it further comprises a deflection safety plate provided to be inclined downward toward the exit of the launcher.

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