JP2015134135A - Handstand top toy - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a novel innovative top toy by adding an element of deformation to a handstand top toy.SOLUTION: A handstand top toy includes a swing member 17 that constitutes a body part 11 and is swingable in an opening direction, and a moving member 23 slidable in an axial direction of a shaft part 21. When the handstand top toy 10 does handstands, the moving member 23 slides, and by the action of the moving member 23 that has slid, the engagement of an engaging part 17b of the swing member 17 is released. By the release of the engagement of the engaging part 17b, the swing member 17 swings in an opening direction.

Description

  The present invention comprises a substantially spherical body part and a shaft part protruding from the body part, and stands upside down so that when the shaft part is rotated upward, the shaft part is lowered. It relates to sesame toys.

Conventionally, there is an approximately spherical body part and a shaft part protruding from the body part, and when the shaft part is rotated with the shaft part facing up, the inverted sesame stands upside down so that the shaft part is down Traditionally known.
Patent Document 1 discloses a top toy that is deformed by releasing the engagement of members by centrifugal force when the top is rotated.

Japanese Utility Model Publication No. 62-130585

In the past, handstands such as the above-mentioned sesame seeds and deformed top toys were known, but there was no combination of both.
Then, this invention makes it a subject to provide the novel top toy which is not until now by adding the element of deformation to the handstand sesame toy.

  The present invention has been made to solve the above-described problems, and is characterized by the following.

  The invention according to claim 1 includes a substantially spherical body portion and a shaft portion protruding from the body portion, and the shaft portion is lowered when the shaft portion is rotated upward. An upside-down sesame toy standing upside down, comprising: a rocking member that constitutes the body part and can be swung in an opening direction; and a moving member that is slidable in the axial direction of the shaft part. The member includes an engaging portion that is locked so as to be in a closed state with the shaft portion facing up, and the movable member slides when the inverted sesame toy stands upside down, and the sliding movement is performed. When the member acts, the locking of the engaging portion is released, and when the locking of the engaging portion is released, the swinging member swings in the opening direction.

  According to a second aspect of the present invention, the moving member is a ring-shaped weight member, and when the inverted sesame toy stands upside down, the weight member slides downward by its own weight to lock the engaging portion. It is characterized by releasing.

  According to a third aspect of the present invention, there is provided a rotation preventing means for preventing the ring-shaped weight member from rotating with respect to the shaft portion.

  The invention according to claim 4 is that the moving member is a rod-like member built in the shaft portion, the tip of the rod-like member protrudes from the tip of the shaft portion, when the handstand sesame toy stands upright, When the tip of the rod-like member protruding from the tip of the shaft portion is pushed in by the ground, the rod-like member moves upward to release the engagement portion.

  The invention according to claim 1 is as described above, and when the inverted sesame toy stands upside down, the moving member slides, and when the sliding moving member acts, the locking of the engaging portion is released. Since the swinging member swings in the opening direction when the joint is released, the inverted sesame toy can be deformed in conjunction with the operation of the handstand, and the handstand that performs an unprecedented movement A sesame toy can be provided.

  Further, the invention according to claim 2 is as described above, and the moving member is a ring-shaped weight member, and when the inverted sesame toy stands upside down, the weight member slides downward by its own weight, and Since the locking of the engaging portion is released, a part (such as a spring) for operating the moving member is unnecessary. Therefore, it is possible to provide a handheld sesame toy that suppresses manufacturing costs and is less likely to cause problems such as breakdowns.

  Further, the invention according to claim 3 is as described above, and includes a rotation preventing means for preventing the ring-shaped weight member from rotating with respect to the shaft portion. Therefore, the inverted sesame toy is rotated. Sometimes the weight member rotates with the shaft. With this configuration, the weight member rotates and centrifugal force works, and even if the inverted sesame toy is turned upside down, the weight member does not fall until the rotational speed drops. Instead of doing it, it can be deformed with a delay after standing upside down. In other words, since it can be enjoyed to rotate while standing upside down, it can be a more interesting toy.

  The invention according to claim 4 is as described above, wherein the moving member is a rod-like member built in the shaft portion, and a tip of the rod-like member protrudes from a tip of the shaft portion. When the toy is turned upside down, the tip of the rod-like member protruding from the tip of the shaft portion is pushed by the ground so that the rod-like member moves upward and unlocks the engaging portion. A hand-held sesame toy can be manufactured with a simple structure of sliding the. Therefore, it is possible to provide a handheld sesame toy that suppresses manufacturing costs and is less likely to cause problems such as breakdowns.

It is a perspective view of the handstand sesame toy concerning a 1st embodiment. It is a perspective view of the handstand sesame toy concerning a 1st embodiment, and is a figure of the state where it changed by standing upside down. It is a disassembled perspective view of the handstand sesame toy concerning a 1st embodiment. It is (a) side view and (b) AA sectional drawing of the handstand sesame toy concerning a 1st embodiment. It is a figure which shows a mode that the handstand sesame toy which concerns on 1st Embodiment deform | transforms, Comprising: (a) Side view immediately after handstand, (b) B1-B1 sectional drawing, (c) A rocking | swiveling member begins to rock | fluctuate. (D) B2-B2 cross-sectional view, (e) Side view while the swinging member is swinging, (f) B3-B3 cross-sectional view, (g) Swinging of the swinging member It is a side view after completion of (h) B4-B4 sectional drawing. It is a perspective view of the handstand sesame toy concerning a 2nd embodiment. It is a perspective view of the hand-held sesame toy concerning a 2nd embodiment, and is a figure in the state where it turned upside down and changed. It is a disassembled perspective view of the handstand sesame toy concerning a 2nd embodiment. It is (a) side view and (b) CC sectional drawing of the handstand sesame toy concerning 2nd Embodiment. It is a figure which shows a mode that the handstand sesame toy which concerns on 2nd Embodiment deform | transforms, Comprising: (a) Side view immediately after handstand, (b) D1-D1 sectional drawing, (c) A rocking | swiveling member begins to rock | fluctuate. (D) D2-D2 cross-sectional view, (e) Side view during swinging of swing member, (f) D3-D3 cross-sectional view, (g) Swing of swing member It is a side view after completion of (h) D4-D4 sectional drawing.

(First embodiment)
A first embodiment will be described with reference to FIGS.

  The inverted sesame toy 10 according to the present embodiment stands upside down so that when the shaft portion 21 protruding from the substantially spherical body portion 11 is rotated upward, the shaft portion 21 is downward. The principle of handstand is the same as that of known handstand sesame. In other words, it uses the principle that the center of gravity is raised and stabilized when the frame rotates, and the center of gravity is placed slightly below the center of the body 11 (opposite direction when viewed from the tip of the shaft 21). By doing so, it is designed to stand upside down when rotated at a certain rotational speed.

  In addition, the inverted sesame toy 10 is not only standing upside down, but also deformed in conjunction with the operation of standing upside down. Specifically, as shown in FIG. 1, in the state where the shaft portion 21 is turned up, the configuration is the same as that of the conventional handstand sesame, but as shown in FIG. It comes to be independent in the state that I did.

  As shown in FIG. 3, the inverted sesame toy 10 includes a substantially spherical body part 11, a shaft part 21 protruding from the body part 11, and a hook member 22 disposed inside the body part 11. And a weight member 23 disposed inside the body portion 11.

  As shown in FIG. 1 etc., the trunk | drum 11 becomes a substantially spherical shape in the closed state, It becomes a shape which expanded the member in the shape of a petal as shown in FIG. 2 by deform | transforming. The body portion 11 includes a base 12, a first swing member 17, and a second swing member 18.

  The base 12 is a part for supporting the rocking members 17 and 18 and is configured by combining the top member 13 and the cover member 14 as shown in FIG. The head member 13 and the cover material 14 are combined to form a space inside, and the hook member 22 and the weight member 23 can be accommodated in the internal space. The top member 13 and the cover member 14 are fixed to each other by a fastening screw 15.

  The parietal member 13 is a member located at the parietal portion of the body portion 11, and the outer surface of the parietal member 13 is continuous with the outer surface of the first swing member 17 to form a substantially spherical outer shape. . As shown in FIG. 3, the top member 13 is formed with two bearing portions 13a for supporting the second swinging member 18 so as to be swingable. Moreover, the notch 13b for enabling insertion of the engaging part 17b of the 1st rocking | swiveling member 17 mentioned later is provided in four places of the circumferential direction.

  The cover material 14 is a member attached so as to cover the open surface of the crown member 13. As shown in FIG. 3, the cover member 14 is formed with bearing portions 14a for supporting the first swing member 17 so as to be swingable at four locations in the circumferential direction. Moreover, the notch 14b for enabling insertion of the engaging part 17b of the 1st rocking | swiveling member 17 mentioned later is provided in four places of the circumferential direction.

  In addition, the notch 13b of the top member 13 and the notch 14b of the cover member 14 are provided at corresponding positions. When the top member 13 and the cover member 14 are combined, the notches 13b and 14b are continuous with each other. In addition, four holes 12a are formed around the base 12 (see FIG. 2). The hole 12 a is for guiding the engaging portion 17 b of the first swing member 17 to the internal space of the base portion 12.

  The first rocking member 17 is a plate-like member having a rounded petal shape as shown in FIG. 3. In the present embodiment, four first rocking members are provided so as to cover the periphery of the body portion 11. 17 is provided. The first swing member 17 is attached to the base 12 so as to be swingable in the opening direction. Specifically, an end portion of the first swing member 17 is provided with a shaft support portion 17a for connection to the bearing portion 14a of the cover member 14 described above, and the swing through the shaft support portion 17a. The first swing member 17 can swing with respect to the base portion 12 by the shaft 19 being pivotally supported by the bearing portion 14a. A torsion coil spring 20 is attached to the swing shaft 19, and the torsion coil spring 20 biases the first swing member 17 against the base 12 in the opening direction.

  Further, a hook-like engagement portion 17 b is formed on the back surface of the first swing member 17 so as to protrude. The engaging portion 17b is a member that is locked to the hook member 22 so that the first swing member 17 is closed with the shaft portion 21 facing upward. As will be described in detail later, when the engaging portion 17b is locked to the hook member 22, the first swing member 17 can be kept closed against the biasing force of the torsion coil spring 20. ing.

  The second oscillating member 18 is a petal-like plate-like member as shown in FIG. 3, and is accommodated inside the first oscillating member 17 when the first oscillating member 17 is closed. It has become. Similarly to the first swing member 17, the second swing member 18 is also attached to the base 12 so as to be swingable in the opening direction. Specifically, an end portion of the second swing member 18 is provided with a shaft support portion 18a for connection to the bearing portion 13a of the crown member 13 described above, and the swinging through the shaft support portion 18a. The second swing member 18 can swing with respect to the base 12 by pivotally supporting the dynamic shaft 19 on the bearing portion 13a. A torsion coil spring 20 is attached to the swing shaft 19, and the second swing member 18 is biased in the opening direction with respect to the base 12 by the torsion coil spring 20.

  Since the second swing member 18 is housed inside the first swing member 17, it is pushed in the closing direction by the first swing member 17 when the first swing member 17 is closed. Yes. When the first swing member 17 is opened, the first swing member 17 is not pushed in, so that the second swing member 18 swings in the opening direction by the biasing force of the torsion coil spring 20. Yes.

  The shaft portion 21 is a rod-shaped member as shown in FIG. 3 and is fixed to the base portion 12 so as not to rotate. The shaft portion 21 includes a knob portion 21 a that is operably protruded from the body portion 11, and a sliding guide portion 21 b that is housed inside the body portion 11. A longitudinal groove-like key 21c is provided on the outer peripheral surface of the sliding guide portion 21b, and constitutes a rotation preventing means for preventing rotation of the weight member 23 in cooperation with a key groove 23b described later. .

  The hook member 22 is a ring-shaped member as shown in FIG. 3, and a central hole 22 a for allowing the sliding guide portion 21 b of the shaft portion 21 to penetrate is formed in the center. The hook member 22 is slidable in the axial direction of the shaft portion 21 by the sliding guide portion 21b passing through the central hole 22a. A key groove 22 c that engages with the key 21 c of the sliding guide portion 21 b is provided inside the central hole 22 a so that the hook member 22 does not rotate with respect to the shaft portion 21. In other words, the hook member 22 is configured to rotate integrally with the body portion 11 and the shaft portion 21, and even when the inverted sesame toy 10 is rotated, an engagement claw 22 b described later is a first swinging member. The 17 engaging portions 17b are not disengaged.

  Further, an engaging claw 22 b for engaging the engaging portion 17 b of the first swing member 17 is provided on the peripheral portion of the hook member 22. The engaging claws 22 b are provided at four locations so as to face the four engaging portions 17 b of the first swing member 17. Since the engaging claws 22b are provided at four positions at equal intervals in the circumferential direction, the engaging claws 22b face each other around the shaft portion 21 as shown in FIG. 4 (b). Therefore, when the engagement portion 17b of the first swing member 17 is engaged with the engagement claw 22b, the hook member 22 is moved by the engagement portion 17b of the first swing member 17 biased in the opening direction. Is pulled from both sides, the hook member 22 is held by this pulling force, and the engagement between the engagement claw 22b and the engagement portion 17b is maintained.

  The hook member 22 is slidably guided by the sliding guide portion 21b of the shaft portion 21, and slides in the direction of the end portion (the knob portion 21a) of the shaft portion 21 to thereby engage the engaging claw. The engagement between 22b and the engaging portion 17b can be released.

  The weight member 23 is a ring-shaped member as shown in FIG. 3 and is formed of a relatively heavy material such as metal. The weight member 23 is formed with a hole 23a in the center for allowing the sliding guide portion 21b of the shaft portion 21 to pass therethrough. The weight member 23 can slide in the axial direction of the shaft portion 21 by the sliding guide portion 21b penetrating through the hole portion 23a. A key groove 23 b that engages with the key 21 c of the sliding guide portion 21 b is provided inside the hole portion 23 a so that the weight member 23 does not rotate with respect to the shaft portion 21. In other words, the weight member 23 rotates integrally with the body portion 11 and the shaft portion 21.

The weight member 23 is slidably guided by the sliding guide portion 21b of the shaft portion 21, and is slid in the direction of the end portion (the knob portion 21a) of the shaft portion 21, thereby causing the hook member 22 to slide. Is pushed down so that the engagement between the engagement claw 22b and the engagement portion 17b can be released.
The handheld sesame toy 10 described above can be played as follows.

  First, as shown in FIG. 4, the first rocking member 17 is closed with the shaft portion 21 facing up. Even when the first swing member 17 is open, if the first swing member 17 is closed with the shaft portion 21 facing up, the hook member 22 descends due to its own weight and the engagement portion 17b and the engaging claw 22b are automatically engaged. Thus, if the engaging part 17b and the engaging claw 22b engage, even if the hand which closes the 1st rocking member 17 is released, the hook member 22 will be pulled from both sides by the 1st rocking member 17. Therefore, the engaging claw 22b of the hook member 22 does not come off from the engaging portion 17b.

  When the first rocking member 17 is set in the closed state as described above, the shaft portion 21 is turned up and rotated vigorously. Then, the hand-held sesame toy 10 is turned upside down on the same principle as the conventional hand-held sesame (see FIGS. 5A and 5B). Then, as shown in FIGS. 5C and 5D, the weight member 23 slides downward by its own weight. Since the weight member 23 slid downward pushes down the hook member 22, as shown in FIGS. 5E and 5F, the engaging claw 22b is disengaged from the engaging portion 17b, and the engaging portion 17b is locked. The first swinging member 17 swings in the opening direction due to the release. Further, as the first swing member 17 swings, the second swing member 18 held by the first swing member 17 also swings simultaneously.

  As shown in FIGS. 5G and 5H, the first swing member 17 finally swings to the same as the tip end of the shaft portion 21 or below the tip end of the shaft portion 21. . When the swinging of the first swinging member 17 is completed in this way, the tips of the four first swinging members 17 are grounded, so that the friction increases and the rotation of the inverted sesame toy 10 stops. In addition, the inverted sesame toy 10 that has stopped rotating is self-supported in a state where the tips of the four first swing members 17 are grounded in the inverted state.

  In this embodiment, the weight member 23 does not slide downward immediately after the handstand 10 is turned upside down, but the weight member 23 slides down after the handstand 10 is turned upside down. It is supposed to be. That is, when the weight member 23 rotates, centrifugal force works, and even if the inverted sesame toy 10 is inverted, the weight member 23 does not fall until the rotational speed is reduced.

  As described above, according to the present embodiment, the weight member 23 slides when the inverted sesame toy 10 is turned upside down, and the engagement of the engaging portion 17b is released by the action of the slid weight member 23. Since the swinging members 17 and 18 swing in the opening direction due to the release of the engagement portion 17b, the handstand 10 can be deformed in conjunction with the handstand operation. The hand-held sesame toy 10 which does not have a novel movement can be provided.

  Further, when the inverted sesame toy 10 is turned upside down, the weight member 23 slides downward due to its own weight and unlocks the engaging portion 17b, so that the moving member (the weight member 23) is operated. No parts (springs etc.) are required. Therefore, it is possible to provide the inverted sesame toy 10 that is less prone to problems such as breakdowns while suppressing the manufacturing cost.

  Further, since the ring-shaped weight member 23 is provided with rotation preventing means 21c and 23b for preventing the ring-shaped weight member 23 from rotating with respect to the shaft portion 21, the weight member 23 and the shaft when the inverted sesame toy 10 is rotated. It is designed to rotate together. If comprised in this way, since the weight member 23 will rotate, a centrifugal force will work, and even if the handstand 10 will stand upright, since the weight member 23 will not fall until the rotational speed falls, the handstand 10 will stand upside down. Instead of being deformed immediately, it can be deformed with a delay after standing upside down. In other words, since it can be enjoyed to rotate while standing upside down, it can be a more interesting toy.

  If the engagement between the engagement claw 22b and the engagement portion 17b is not released well for some reason, a protrusion 17c may be provided on the outer peripheral edge of the body portion 11, as shown in FIG. If the protrusion 17c is provided in this way, an impact is generated when trying to get over the protrusion 17c during the operation of the handstand 10 to stand upside down, and the hook member 22 and the weight member 23 are moved by this impact. The engagement between the engagement claw 22b and the engagement portion 17b can be released.

  In the above-described embodiment, the key 21c and the key groove 23b are used as the rotation prevention means, but the specific aspect of the rotation prevention means is not limited to this. For example, the sliding guide portion 21b may have a prismatic shape, and the hole portion 23a of the weight member 23 may have a rectangular hole shape corresponding to the prismatic shape of the sliding guide portion 21b.

(Second Embodiment)
A second embodiment will be described with reference to FIGS.

  The inverted sesame toy 10 according to the present embodiment stands upside down so that when the shaft portion 21 protruding from the substantially spherical body portion 11 is rotated upward, the shaft portion 21 is downward. The principle of handstand is the same as that of known handstand sesame. In other words, it uses the principle that the center of gravity is raised and stabilized when the frame rotates, and the center of gravity is placed slightly below the center of the body 11 (opposite direction when viewed from the tip of the shaft 21). By doing so, it is designed to stand upside down when rotated at a certain rotational speed.

  In addition, the inverted sesame toy 10 is not only standing upside down, but also deformed in conjunction with the operation of standing upside down. Specifically, as shown in FIG. 6, in the state where the shaft portion 21 is up, the form is the same as that of the conventional handstand sesame, but as shown in FIG. It comes to be independent in the state that I did.

  As shown in FIG. 8, the inverted sesame toy 10 includes a substantially spherical body portion 11, a shaft portion 21 protruding from the body portion 11, a rod-like member 24 disposed inside the body portion 11, and a rod-like shape. A compression spring 25 that urges the member 24 and a spring receiving member 26 that receives an end of the compression spring 25 are provided.

  As shown in FIG. 6 etc., the trunk | drum 11 becomes a substantially spherical shape in the closed state, and becomes a shape which expanded the member in the shape of a petal as shown in FIG. 7 by deform | transforming. The body portion 11 includes a base 12, a first swing member 17, and a second swing member 18.

  The base 12 is a part for supporting the rocking members 17 and 18, and is configured by combining the top member 13 and the cover member 14 as shown in FIG. The top member 13 and the cover member 14 are combined to form a space inside, and a part of the rod-shaped member 24, the compression spring 25, and the spring receiving member 26 can be accommodated in the internal space. Yes. The top member 13 and the cover member 14 are fixed to each other by a fastening screw 15.

  The parietal member 13 is a member located at the parietal portion of the body portion 11, and the outer surface of the parietal member 13 is continuous with the outer surface of the first swing member 17 to form a substantially spherical outer shape. . As shown in FIG. 8, the top member 13 is formed with bearing portions 13 a for supporting the second swing member 18 so as to be swingable at two positions on the left and right.

  The cover material 14 is a member attached so as to cover the open surface of the crown member 13. As shown in FIG. 8, the cover member 14 is formed with bearing portions 14a for supporting the first swing member 17 so as to be swingable at four locations in the circumferential direction. Moreover, the notch 14b for enabling insertion of the engaging part 17b of the 1st rocking | swiveling member 17 mentioned later is provided in four places of the circumferential direction. By providing the notches 14b, four holes 12a are formed around the base 12 when the crown member 13 and the cover member 14 are combined (see FIG. 7). The hole 12 a is for guiding the engaging portion 17 b of the first swing member 17 to the internal space of the base portion 12.

  The first oscillating member 17 is a plate-like member having a petal-like round shape as shown in FIG. 8, and in the present embodiment, four first oscillating members are provided so as to cover the periphery of the body portion 11. 17 is provided. The first swing member 17 is attached to the base 12 so as to be swingable in the opening direction. Specifically, an end portion of the first swing member 17 is provided with a shaft support portion 17a for connection to the bearing portion 14a of the cover member 14 described above, and the swing through the shaft support portion 17a. The first swing member 17 can swing with respect to the base portion 12 by the shaft 19 being pivotally supported by the bearing portion 14a. A torsion coil spring 20 is attached to the swing shaft 19, and the torsion coil spring 20 biases the first swing member 17 against the base 12 in the opening direction.

  Further, a hook-like engagement portion 17 b is formed on the back surface of the first swing member 17 so as to protrude. The engaging portion 17b is a member that is locked to an engaging claw 24c (described later) of the rod-like member 24 so that the first swinging member 17 is closed with the shaft portion 21 facing upward. As will be described in detail later, the engagement portion 17b is locked to the engagement claw 24c so that the first swing member 17 can be kept closed against the urging force of the torsion coil spring 20. It has become.

  The second rocking member 18 is a petal-like plate-shaped member as shown in FIG. 8, and is accommodated inside the first rocking member 17 when the first rocking member 17 is closed. It has become. Similarly to the first swing member 17, the second swing member 18 is also attached to the base 12 so as to be swingable in the opening direction. Specifically, an end portion of the second swing member 18 is provided with a shaft support portion 18a for connection to the bearing portion 13a of the crown member 13 described above, and the swinging through the shaft support portion 18a. The second swing member 18 can swing with respect to the base 12 by pivotally supporting the dynamic shaft 19 on the bearing portion 13a. A torsion coil spring 20 is attached to the swing shaft 19, and the second swing member 18 is biased in the opening direction with respect to the base 12 by the torsion coil spring 20.

  Since the second swing member 18 is housed inside the first swing member 17, it is pushed in the closing direction by the first swing member 17 when the first swing member 17 is closed. Yes. When the first swing member 17 is opened, the first swing member 17 is not pushed in, so that the second swing member 18 swings in the opening direction by the biasing force of the torsion coil spring 20. Yes.

  The shaft portion 21 is a cylindrical member as shown in FIG. 8, and is fixed to the base portion 12 so as not to rotate by a retaining screw 16. The shaft portion 21 includes a knob portion 21a that protrudes from the body portion 11 so as to be operable. The shaft portion 21 is provided with a through hole 21d in the axial direction so that the central shaft portion 24a of the rod-shaped member 24 can be passed therethrough.

  The rod-like member 24 is a rod-like member as shown in FIG. 8, and is built in the base portion 12 and the shaft portion 21, and the tip projects from the tip of the shaft portion 21. Specifically, the rod-shaped member 24 includes a round bar-shaped central shaft portion 24a that penetrates the through-hole 21d, and the tip of the central shaft portion 24a protrudes from the opening of the through-hole 21d. It has become. The rod-shaped member 24 is slidable in the axial direction of the shaft portion 21, and is slidable in a direction in which the protruding tip is pushed into the shaft portion 21.

  Also, four engaging claws 24c projecting radially are provided at the proximal end portion of the central shaft portion 24a. The engaging claws 24c are for engaging the engaging portions 17b of the first swinging member 17, and are provided at four positions so as to face the four engaging portions 17b of the first swinging member 17, respectively. Is provided.

  The rod-shaped member 24 is slidably guided by the shaft portion 21, and is slid in the direction opposite to the tip side (the direction of the crown member 13), so that the engagement claw 24c and the engagement portion 17b are in contact with each other. The engagement can be released.

The compression spring 25 is for urging the rod-shaped member 24 in the distal direction. The compression spring 25 biases the rod-shaped member 24, whereby the rod-shaped member 24 is biased in the direction in which the engagement claw 24c and the engagement portion 17b are engaged.
The spring receiving member 26 is a member for stabilizing the seating surface of the compression spring 25, and is used by being fixed to the inside of the crown member 13.
The handheld sesame toy 10 described above can be played as follows.

  First, as shown in FIG. 9, the first swing member 17 is closed with the shaft portion 21 facing upward. Even when the first swing member 17 is open, if the first swing member 17 is closed with the shaft portion 21 facing up, the engaging claw 24c is utilized using the biasing force of the compression spring 25. And the engaging portion 17b are elastically engaged. If the engaging portion 17b and the engaging claw 24c are thus engaged, the engaging claw 24c is engaged by the urging force of the compression spring 25 even if the hand that closes the first swinging member 17 is released. It does not come off from the portion 17b.

  When the first rocking member 17 is set in the closed state as described above, the shaft portion 21 is turned up and rotated vigorously. Then, the handstand sesame toy 10 is turned upside down on the same principle as the conventional handstand sesame (see FIGS. 10A and 10B). Then, as shown in FIGS. 10C and 10D, the tip of the rod-like member 24 protruding from the tip of the shaft portion 21 is pushed by the ground, and the rod-like member 24 slides upward. When the rod-shaped member 24 slides upward, as shown in FIGS. 10E and 10F, the engagement claw 24c is disengaged from the engagement portion 17b, and the engagement portion 17b is unlocked. 1 The swing member 17 swings in the opening direction. Further, as the first swing member 17 swings, the second swing member 18 held by the first swing member 17 also swings simultaneously.

  As shown in FIGS. 10G and 10H, the first swing member 17 finally swings to the same as the tip of the shaft portion 21 or below the tip of the shaft portion 21. . When the swinging of the first swinging member 17 is completed in this way, the tips of the four first swinging members 17 are grounded, so that the friction increases and the rotation of the inverted sesame toy 10 stops. In addition, the inverted sesame toy 10 that has stopped rotating is self-supported in a state where the tips of the four first swing members 17 are grounded in the inverted state.

  As described above, according to the present embodiment, when the inverted sesame toy 10 is turned upside down, the rod-shaped member 24 slides, and the engagement of the engaging portion 17b is released by the sliding rod-shaped member 24 acting. Since the swinging members 17 and 18 swing in the opening direction due to the release of the engagement portion 17b, the handstand 10 can be deformed in conjunction with the handstand operation. The hand-held sesame toy 10 which does not have a novel movement can be provided.

  Further, when the inverted sesame toy 10 is turned upside down, the tip of the rod-shaped member 24 is pushed by the ground so that the rod-shaped member 24 moves upward and the engagement portion 17b is unlocked. The hand-held sesame toy 10 can be manufactured with a simple structure in which 24 is slid. Therefore, it is possible to provide the inverted sesame toy 10 that is less prone to problems such as breakdowns while suppressing the manufacturing cost.

  If the engagement between the engagement claw 24c and the engagement portion 17b is not released well for some reason, a protrusion 24b may be provided at the tip of the rod-shaped member 24 as shown in FIG. That is, the tip of the rod-shaped member 24 may be a circular flat surface as shown in FIG. 6, and the protrusion 24b may be provided on the circular flat surface at a position eccentric to the center of the circle. If the protrusion 24b is provided in this way, when the inverted sesame toy 10 is rotating in the inverted state, an impact is generated when trying to get over the protrusion 24b, and the impact is used to engage. The engagement between the claw 24c and the engaging portion 17b can be reliably released.

DESCRIPTION OF SYMBOLS 10 Standing sesame toy 11 Body part 12 Base part 12a Hole 13 Top member 13a Bearing part 13b Notch 14 Cover material 14a Bearing part 14b Notch 15,16 Set screw 17 1st rocking | swiveling member (oscillating member)
17a Shaft support portion 17b Engagement portion 17c Protrusion 18 Second swing member (swing member)
18a Shaft support portion 19 Oscillating shaft 20 Torsion coil spring 21 Shaft portion 21a Knob portion 21b Sliding guide portion 21c Key (rotation prevention means)
21d Through-hole 22 Hook member 22a Center hole 22b Engagement claw 22c Keyway 23 Weight member (moving member)
23a hole 23b keyway (rotation prevention means)
24 Bar-shaped member (moving member)
24a Center shaft portion 24b Protrusion 24c Engaging claw 25 Compression spring 26 Spring receiving member

Claims (4)

An upright sesame toy comprising an approximately spherical body part and a shaft part protruding from the body part, wherein the shaft part is turned upside down when the shaft part is rotated upward. And
A swing member that constitutes the body portion and can swing in the opening direction;
A movable member slidable in the axial direction of the shaft portion;
With
The swing member includes an engaging portion that is locked so as to be in a closed state with the shaft portion facing up,
The moving member slides when the inverted sesame toy is turned upside down, and the engagement of the engagement portion is released by the action of the sliding movement member, and the engagement portion is released. The inverted sesame toy characterized in that the swinging member swings in the opening direction. The moving member is a ring-shaped weight member,
The inverted sesame toy according to claim 1, wherein when the inverted sesame toy stands upside down, the weight member slides downward due to its own weight to release the locking of the engaging portion.   The inverted sesame toy according to claim 2, further comprising a rotation preventing means for preventing the ring-shaped weight member from rotating with respect to the shaft portion. The moving member is a rod-like member built in the shaft portion,
The tip of the rod-shaped member protrudes from the tip of the shaft part,
When the inverted sesame toy stands upside down, the tip of the rod-shaped member protruding from the tip of the shaft portion is pushed in by the ground, so that the rod-shaped member moves upward and unlocks the engaging portion. The hand-held sesame toy according to claim 1, wherein

Images