JP2015013219A - Flying rubber baloon - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a flying rubber baloon capable of preventing an air outlet member from being removed even if strong force is applied.SOLUTION: A flying rubber baloon comprises: a rubber baloon body 2; an upper body 20 that is formed by providing opening parts on both upper and lower surfaces, providing a first locking convex part 24 on a peripheral side wall in a manner protruded outward and providing a removal suppressing projection part 23 on an upper side of the peripheral side wall than the first locking convex part in a manner protruded outward; and a bottom body 30 that is formed by providing opening parts on both upper and lower surfaces and providing a second locking convex part 34 on a peripheral side wall in a manner protruded inward. The upper body and the bottom body are formed of synthetic resin, a peripheral side wall 35 of the bottom body is outwardly fitted to a peripheral side wall 25 of the upper body and the upper body and the bottom body are integrally fitted to each other by engagement of the first locking convex part 24 with the second locking convex part 34. A mouth part 2a of the rubber baloon body is stored in a receiving space 26 that is located between the peripheral side walls of the upper and bottom bodies and is located below the removal suppressing projection part, and a gap between the removal suppressing projection part 23 and the peripheral side wall 35 of the bottom body is smaller than an outer diameter of the mouth part 2a.

Description

  The present invention relates to a flying rubber balloon that is inflated by injecting air from a mouth portion into a balloon and flying in the air by a jet output of the injected air.

  In the present specification and claims, the term “rubber balloon” is used to include not only balloons made of rubber but also balloons made of a material having rubber elasticity.

  Conventionally, as for the above-mentioned flying rubber balloon, the mouth of the rubber balloon is fitted in an externally fitted state on the peripheral side wall of a substantially cylindrical hollow member (blow-off member) having openings on the upper and lower walls. Is known (see Patent Documents 1 to 3). After inflating by injecting air from the mouth into the rubber balloon, letting it go into the air, air blows out from the opening of the lower wall all at once, and this jet output becomes the driving force to make the rubber balloon almost vertical Although it rises, when the air filled in the rubber balloon flows out from the upper wall opening to the lower wall opening, at least a part of it recirculates in the hollow space of the hollow member, which is called pee Such a high sounding sound is generated, and the air is blown in the air in this sounding state.

  Because it flies in the air while generating such a high sounding sound, it is conspicuous and excellent in interest, and is used as a general toy. In recent years, for example, a stand for professional baseball, soccer, etc. In order to support their favorite team, the crowd is often used in such a way that the flying rubber balloons fly all at once in the air and raise the atmosphere at once.

JP 2001-218986 A JP 2004-89518 A JP 2008-61686 A

  By the way, in the above conventional flying rubber balloon, the balloon is attached to the hollow member by fitting the mouth of the rubber balloon in an externally fitted state on the peripheral side wall of the substantially cylindrical hollow member. That is, in the conventional flying rubber balloon, the mouth portion of the rubber balloon is fitted in a circumferential groove between two parallel annular protrusions protruding on the peripheral side wall of the hollow member. Thus, the rubber balloon and the hollow member are connected to each other.

  Since the rubber balloon and the hollow member are connected with such a structure, the hollow member does not come off from the rubber balloon in a normal use state.

  On the other hand, recently, even if the toy is of a size that cannot be swallowed by a small child, if this toy is constructed by integrating small parts, In the case of a size that may cause accidental ingestion, it is required to be strongly connected and integrated so that even if a strong force (70 N) is applied to the toy, small parts do not come off (2012). Revised Toy Safety Standards ST-2012 issued on October 3, 2000).

  However, since the conventional flying rubber balloon has a connection structure in which the mouth portion of the rubber balloon is externally fitted in the circumferential groove of the peripheral side wall of the hollow member, a strong force (70 N) is applied in the direction of releasing the hollow member. Then, there is a concern that the hollow member (blowing member) is detached from the balloon.

  The present invention has been made in view of such technical background, and an object of the present invention is to provide a flying rubber balloon in which a hollow member (blow-off member) does not come off even when a strong force is applied.

  In order to achieve the above object, the present invention provides the following means.

[1] A rubber balloon body,
An upper body made of a hollow member having openings on the upper surface and the lower surface;
A bottom body made of a hollow member having openings on the upper surface and the lower surface,
A first locking projection is provided on the peripheral side wall of the upper body so as to protrude outward, and an anti-extraction protrusion is provided above the first locking projection on the peripheral wall of the upper body. Projecting outward,
A second locking convex portion is provided on the peripheral side wall of the bottom body so as to protrude inward,
The peripheral side wall of the bottom body is disposed on the peripheral side wall of the upper body so that the first locking convex portion of the upper body is engaged with the second locking convex portion of the bottom body. Accordingly, the upper body and the bottom body are fitted and integrated, and a receiving space is formed below the protrusion for preventing removal between the peripheral side wall of the upper body and the peripheral side wall of the bottom body. The opening of the rubber balloon main body is accommodated in the receiving space, and the gap between the protrusion for preventing removal of the upper body and the peripheral side wall of the bottom body is outside the mouth of the rubber balloon main body. A flying rubber balloon characterized in that, by being smaller than the diameter, the mouth portion of the rubber balloon body is not pulled out.

  [2] The flying rubber balloon as recited in the aforementioned Item 1, wherein the removal preventing projection is an annular ridge extending along the circumferential direction on the outer surface of the peripheral side wall of the upper body.

  [3] The first locking projection is an annular ridge extending along the circumferential direction on the outer surface of the peripheral side wall of the upper body, and the second locking projection is 3. The flying rubber balloon according to item 1 or 2, which is an annular ridge extending along the circumferential direction on the inner surface of the peripheral side wall of the bottom body.

[4] The pull-out preventing projection includes a plurality of projections provided on the outer surface of the peripheral side wall of the upper body so as to be spaced apart from each other along the circumferential direction, and the first locking projection is , Consisting of a plurality of convex portions provided on the outer surface of the peripheral side wall of the upper body and spaced apart from each other along the circumferential direction,
When the upper body is viewed from above, the pull-out preventing projection and the first locking projection are arranged so as not to overlap,
2. The flying rubber balloon according to claim 1, wherein the second locking convex portion is an annular convex ridge portion extending along the circumferential direction on the inner surface of the peripheral side wall of the bottom body.

  [5] The peripheral side wall of the bottom body includes an enlarged wall portion in which an inner diameter from an intermediate position between the upper end and the lower end of the peripheral side wall to an upper end is set larger than an inner diameter from the intermediate position to the lower end, 5. The flying rubber according to any one of the preceding items 1 to 4, wherein a receiving space is formed below the protrusion for preventing removal between the peripheral side wall of the upper body and the enlarged wall portion of the bottom body. balloon.

  In the invention of [1], the peripheral side wall of the bottom body is disposed in an externally fitted state on the peripheral side wall of the upper body, and the first locking convex portion of the upper body and the second locking convex portion of the bottom body are engaged. Since they are combined, a blower member (hollow member) in which the upper body and the bottom body are fitted and integrated is configured.

  In addition, the mouth of the rubber balloon body is housed in a receiving space formed below the protrusion for preventing removal between the peripheral side wall of the upper body and the peripheral side wall of the bottom body, and the upper body is prevented from being removed. Since the gap between the protruding portion for use and the peripheral side wall of the bottom body is smaller than the outer diameter of the mouth portion of the rubber balloon body, the mouth portion of the rubber balloon body does not pull out even if a strong force is applied. Therefore, even if a strong force is applied, the blower member (a fitting integrated body of the upper body and the bottom body) does not separate from the rubber balloon body.

  After inflating the air balloon body by inflating it and letting it go into the air, the air blows out from the opening of the air outlet member. It rises. At this time, when the air filled in the balloon body escapes through the blower member, at least a part of it recirculates in the hollow space of the blower member, so a high whistling sound such as a beep is generated in the air. To fly.

  In the invention of [2], the protrusion for pulling out prevention is an annular ridge extending along the circumferential direction on the outer surface of the peripheral side wall of the upper body. The work of mounting (accommodating) in the receiving space below the depressing protrusion can be greatly facilitated (the mounting work can be performed smoothly), and productivity is improved.

  In the invention of [3], the first locking projection is an annular ridge extending along the circumferential direction on the outer surface of the peripheral side wall of the upper body, and the second locking projection is It is the structure which is the cyclic | annular convex ridge part extended along the circumferential direction on the inner surface of the surrounding side wall of a bottom part body, Such a cyclic | annular 1st locking convex part and a cyclic | annular 2nd locking convex Since the upper body and the bottom body are fitted and integrated by engaging the strip, the connection strength between the upper body and the bottom body can be further increased.

  In the invention of [4], the protrusion for preventing removal includes a plurality of protrusions provided on the outer surface of the peripheral side wall of the upper body so as to be spaced apart from each other along the circumferential direction. Consists of a plurality of protrusions provided on the outer surface of the peripheral side wall of the upper body so as to be spaced apart from each other along the circumferential direction, and is prevented from being pulled out when the upper body is viewed from the top (when viewed from the top). Since the projection for projection and the first locking projection are arranged so as not to overlap (see FIG. 10), the molding die (split die) is removed after molding the upper body by injection molding or the like. The work of taking out the upper body can be performed smoothly, and productivity can be improved.

  In addition, since the second locking convex portion is a configuration that is an “annular” convex strip portion extending along the circumferential direction on the inner surface of the peripheral side wall of the bottom body, a plurality of first protrusions are formed in the upper body. Regardless of the configuration in which the locking projections are spaced apart from each other along the circumferential direction, the upper body and the bottom body always have a plurality of upper bodies, regardless of the relative arrangement relationship in the circumferential direction. The first locking projections and the annular second locking projections of the bottom body are engaged. Therefore, productivity can be improved and the connection strength between the upper body and the bottom body can be further increased.

  In the invention of [5], the peripheral wall of the bottom body has an enlarged wall portion in which an inner diameter from an intermediate position between the upper end and the lower end of the peripheral side wall to an upper end is set larger than an inner diameter from the intermediate position to the lower end. And the receiving space is formed below the protrusion for preventing removal between the peripheral side wall of the upper body and the enlarged wall portion of the bottom body, so that the receiving space can be formed by the presence of the enlarged wall portion. At the same time, since a portion having a smaller diameter than the enlarged wall portion exists on the peripheral side wall of the bottom body, the material cost can be reduced accordingly.

It is a front view which shows the flying rubber balloon which concerns on one Embodiment of this invention. It is sectional drawing of the AA in FIG. It is a perspective view which shows the blowing member (hollow member) used in FIG. 1 in a separated state. It is a longitudinal cross-sectional view which shows the blowing member (hollow member) used in FIG. 1 in a separated state. It is a top view of the upper body of the blower outlet member (hollow member) used in FIG. It is a front view which shows the flying rubber balloon which concerns on other embodiment of this invention. (A) is sectional drawing of the BB line in FIG. 6, (B) is sectional drawing in the line equivalent to CC line shown in FIG. 10 in FIG. It is a perspective view which shows the blowing member (hollow member) used in FIG. 6 in a separated state. It is a longitudinal cross-sectional view which shows the blowing member (hollow member) used in FIG. 6 in the isolation | separation state. It is a top view of the upper body of the blower outlet member (hollow member) used in FIG.

  A flying rubber balloon according to an embodiment of the present invention is shown in FIGS. The flying rubber balloon 1 includes a rubber balloon main body 2, an upper body 20 made of a substantially cylindrical hollow member having openings on the upper and lower surfaces, and a substantially cylindrical shape having openings on the upper and lower surfaces. And a bottom body 30 made of a hollow member.

  As shown in FIG. 1, the rubber balloon main body 2 is formed of a substantially long rubber balloon, and a tip end portion is formed in a bulging shape, while a thick mouth portion 2 a is formed at a base end portion. (See FIG. 2). A spiral color pattern 9 centered on the axis L of the balloon body 2 is attached to the outer peripheral surface of the rubber balloon body 2 (see FIG. 1).

  As shown in FIG. 4, the upper body 20 is made of a substantially cylindrical hollow member having a fully open lower end, and an opening 22 is formed at the center of the upper wall 21. In FIG. 4, reference numeral 27 denotes an opening on the lower surface of the upper body 20. The upper body 20 is a synthetic resin molded body. A first locking projection 24 projects outwardly from the outer surface of the peripheral side wall 25 of the upper body 20. The first locking ridges 24 are annular ridges that extend along the circumferential direction on the outer surface of the peripheral side wall 25 of the upper body 20 (see FIGS. 3 and 4). Further, an anti-extraction projection 23 projects outward from the first locking ridge 24 on the outer surface of the peripheral side wall 25 of the upper body 20. The pull-out preventing protrusion 23 is an annular ridge extending along the circumferential direction on the outer surface of the peripheral side wall 25 of the upper body 20 (see FIGS. 3 and 4). The pull-out preventing protrusion 23 projects outward in the radial direction from the first locking protrusion 24 (see FIG. 4).

  On the inner surface of the peripheral side wall 25 of the upper body 20, rotation protrusions 8, 8 are provided so as to face each other (see FIG. 3). When the rotation protrusions 8 are viewed from the center position of the hollow internal space of the upper body 20 as shown in FIG. 4, the rotation protrusions 8 are vertically aligned with the right side surface 8a of the rotation protrusion 8 as shown in FIG. Is longer than the length n in the vertical direction of the left side surface 8b.

  As shown in FIG. 4, the bottom body 30 is formed of a substantially cylindrical hollow member whose upper end is fully opened, and an opening 32 is formed at the center of the lower wall 31. In FIG. 4, 37 is an opening on the upper surface of the bottom body 30. The bottom body 30 is a synthetic resin molded body. On the inner surface of the peripheral side wall 35 of the bottom body 30, a second locking protrusion 34 projects inward. The second locking protrusion 34 is an annular protrusion extending along the circumferential direction on the inner surface of the peripheral side wall 35 of the bottom body 30 (see FIGS. 3 and 4).

  In the peripheral side wall 35 of the bottom body 30, the inner diameter from the intermediate position (intermediate position) between the upper end and the lower end of the peripheral side wall 35 to the upper end is set larger than the inner diameter from the intermediate position (intermediate position) to the lower end. An enlarged wall portion 33 is provided (see FIGS. 3 and 4).

  Thus, after fitting the mouth portion 2a of the rubber balloon body 2 into the outer fitting state from the upper wall 21 side at a position below the protrusion 23 for removal prevention on the peripheral side wall 25 of the upper body 20, The upper body 20 and the bottom body 30 are faced to each other, and the peripheral side wall 35 of the bottom body 30 is disposed in an externally fitted state on the peripheral side wall 25 of the upper body 20. If pushed to the side, the first locking ridge 24 of the upper body 20 is pushed to the lower wall 31 side from the second locking ridge 34 of the bottom body 30, and the first locking ridge Since 24 is engaged with the second locking protrusion 34 (see FIG. 2), the upper body 20 and the bottom body 30 are fitted and integrated, and thus the flying rubber balloon 1 is obtained. The upper body 20 and the bottom body 30 that are integrated with each other form a substantially cylindrical hollow blowing member 3, and an opening 22 is formed at the center of the upper wall 21 of the blowing member 3. In addition, an opening 32 is formed in the central portion of the lower wall 31 of the blowing member 3 (see FIG. 2).

  As shown in FIG. 2, in the flying rubber balloon 1, a receiving space 26 is formed below the protrusion 23 for preventing removal between the peripheral side wall 25 of the upper body 20 and the peripheral side wall 35 of the bottom body 30. In other words, a receiving space 26 is formed below the protrusion 23 for preventing removal between the peripheral side wall 25 of the upper body 20 and the diameter-enlarging wall portion 33 of the bottom body 30. The mouth 2a of the rubber balloon body 2 is accommodated. And the clearance gap between the protrusion part 23 for extraction | desorption suppression of the upper body 20 and the surrounding side wall 35 (expansion wall part 33) of the bottom part 30 is smaller than the outer diameter of the opening | mouth part 2a of a rubber balloon main body (FIG. As shown in the figure, the clearance between the protrusion 23 for removal prevention and the peripheral side wall 35 is smaller than the diameter of the longitudinal section of the mouth portion 2a (the thickness of the thick mouth portion 2a). The mouth portion 2a of the main body does not pull out (do not leave) from the blowing member 3 (an integrated body of the upper body and the bottom body) 3. That is, even if a strong force is applied, the blowout member (fitted and integrated body of the upper body and the bottom body) 3 does not separate from the rubber balloon body 2. The flying rubber balloon 1 having the above-described configuration is tested according to the general procedure for tensile testing described in 5.2.6.1 of the revised toy safety standard ST-2012 (issued on October 3, 2012) of the Japan Toy Association. As a result, the blowing member 3 did not leave the rubber balloon body 2 even when a strong force of 70 N (Newton) was applied. The torque test described in 5.22.5 of the revised toy safety standard ST-2012 was performed on the flying rubber balloon 1 having the above-described configuration. There was no disassembly.

  After inflating the air balloon body 2 of the flying rubber balloon 1 having the above structure by injecting air from the opening portion of the blowing member 3 and inflating it, air is released from the opening portion 32 of the lower wall 31 of the blowing member 3. The rubber balloon 1 ascends in a substantially vertical direction. At this time, as described above, the vertical length m of the right side surface 8a of the rotation protrusion 8 is larger than the vertical length n of the left side surface 8b. When the air flows from the top to the bottom, the right side 8a side is more negative than the left side 8b side around the rotation protrusion 8, and therefore, as shown by the short dotted arrows in FIGS. Since a force for moving the protrusion 8 to the negative pressure side (right side surface) acts, a rotational force is generated in the direction shown by the long solid arrow in the drawing with respect to the blower member 3, and consequently the rubber balloon body 2 Is applied with a rotational force about the axis L, and the rubber balloon 1 flies while rotating (rotates in the direction of the long solid arrow in FIGS. 3 and 5). Thus, since it will fly in the novel form of flying while rotating, it will be more conspicuous and more interesting. Furthermore, as the rubber balloon body 2 rotates, the spiral pattern 9 also moves and changes every moment, so that it can be noticed that it is rotating, and it can be made more beautiful, further improving the interest. Can be made. In addition, when the air filled in the rubber balloon body 2 passes through the air outlet member 3, at least a part of the air recirculates (convects) in the air outlet member 3, so that the air blows in the air while generating a high sound. To fly.

  Next, a flying rubber balloon according to another embodiment of the present invention is shown in FIGS. This flying rubber balloon 1 includes a rubber balloon body 2, an upper body 60 made of a substantially cylindrical hollow member having openings on the top and bottom surfaces, and a substantially cylindrical shape having openings on the top and bottom surfaces. A bottom body 70 made of a hollow member.

  As shown in FIG. 6, the rubber balloon main body 2 is formed of a substantially long rubber balloon. The tip end portion is formed in a bulging shape, and the thick mouth portion 2 a is formed at the base end portion. (See FIG. 7). A spiral color pattern 9 centered on the axis L of the balloon body 2 is attached to the outer peripheral surface of the rubber balloon body 2 (see FIG. 6).

  As shown in FIG. 9, the upper body 60 is formed of a substantially cylindrical hollow member having a fully open lower end, and an opening 62 is formed at the center of the upper wall 61. In FIG. 9, 67 is an opening on the lower surface of the upper body 60. The upper body 60 is a synthetic resin molded body. A plurality of first locking projections 64 project outward from the outer surface of the peripheral side wall 65 of the upper body 60. The plurality of first locking convex portions 64 are provided apart from each other along the circumferential direction on the outer surface of the peripheral side wall 65 of the upper body 60 (see FIGS. 8 and 10). Further, a plurality of removal restraining projections 63 project outwardly from the outer surface of the peripheral side wall 65 of the upper body 60 at positions above the first locking projections 64. The plurality of pull-out preventing projections 63 are provided apart from each other along the circumferential direction on the outer surface of the peripheral side wall 65 of the upper body 60 (see FIGS. 8 and 10).

  Then, when the upper body 60 is viewed from above, the protrusions 63 for preventing removal and the first protrusions 64 for locking are alternately arranged in the circumferential direction so as not to overlap (see FIG. 10).

  On the inner surface of the peripheral side wall 65 of the upper body 60, rotation protrusions 8, 8 are provided so as to face each other (see FIG. 8). When the rotation protrusions 8 are viewed from the center position of the hollow internal space of the upper body 60 as shown in FIG. 9, the rotation protrusions 8 are vertically aligned with the right side surface 8a of the rotation protrusion 8 as shown in FIG. Is longer than the length n in the vertical direction of the left side surface 8b.

  As shown in FIG. 9, the bottom body 70 is made of a substantially cylindrical hollow member whose upper end is fully opened, and an opening 72 is formed at the center of the lower wall 71. In FIG. 9, reference numeral 77 denotes an opening on the upper surface of the bottom body 70. The bottom body 70 is a molded body of synthetic resin. A second locking protrusion 74 projects inward from the inner surface of the peripheral side wall 75 of the bottom body 70. The second locking ridge 74 is an annular ridge extending along the circumferential direction on the inner surface of the peripheral side wall 75 of the bottom body 70 (see FIGS. 8 and 9).

  Thus, after fitting the mouth portion 2a of the rubber balloon body 2 into the outer fitting state from the upper wall 61 side at a position below the protrusion 63 for removal prevention on the peripheral side wall 65 of the upper body 60, The upper body 60 and the bottom body 70 are opposed to each other with their respective openings facing each other, and the peripheral side wall 75 of the bottom body 70 is disposed in a substantially externally fitted state on the peripheral side wall 65 of the upper body 60. When pushed into the side 70, the first locking convex portion 64 of the upper body 60 is pushed into the lower wall 71 side from the second locking convex portion 74 of the bottom body 70, and the first locking convex portion 64. Is engaged with the second locking ridge 74 (see FIG. 7B), the upper body 60 and the bottom body 70 are fitted and integrated, and thus the flying rubber balloon 1 is obtained. The upper body 60 and the bottom body 70 which are integrated with each other form a substantially cylindrical hollow member 3 and an opening 62 is formed at the center of the upper wall 61 of the member 3. In addition, an opening 72 is formed at the center of the lower wall 71 of the air outlet member 3 (see FIG. 7).

  As shown in FIG. 7, in the flying rubber balloon 1, a receiving space 66 is formed below the protrusion 63 for preventing desorption between the peripheral side wall 65 of the upper body 60 and the peripheral side wall 75 of the bottom body 70. The mouth portion 2 a of the rubber balloon main body 2 is accommodated in the receiving space 66. And the clearance gap between the protrusion 63 for pulling out prevention of the upper body 60 and the peripheral side wall 75 of the bottom body 70 is smaller than the outer diameter of the mouth part 2a of the rubber balloon body (as shown in FIG. 7A). Since the gap between the protrusion 63 for disinhibition and the peripheral side wall 75 is smaller than the diameter of the longitudinal section of the mouth portion 2a (the thickness of the thick mouth portion 2a), the mouth portion of the rubber balloon main body is applied even if a strong force is applied. 2a is not pulled out (not detached) from the blow-off member (fitted and integrated body of the upper body and the bottom body) 3. That is, even if a strong force is applied, the blowout member (fitted and integrated body of the upper body and the bottom body) 3 does not separate from the rubber balloon body 2. The flying rubber balloon 1 having the above-described configuration is tested according to the general procedure for tensile testing described in 5.2.6.1 of the revised toy safety standard ST-2012 (issued on October 3, 2012) of the Japan Toy Association. As a result, the blowing member 3 did not leave the rubber balloon body 2 even when a strong force of 70 N (Newton) was applied. The torque test described in 5.22.5 of the revised toy safety standard ST-2012 was performed on the flying rubber balloon 1 having the above-described configuration. There was no disassembly.

  After inflating the air balloon body 2 of the flying rubber balloon 1 having the above-described structure by injecting air from the opening portion of the blowing member 3 and releasing it, the air is released from the opening portion 72 of the lower wall 71 of the blowing member 3. The rubber balloon 1 ascends in a substantially vertical direction. At this time, as described above, the vertical length m of the right side surface 8a of the rotation protrusion 8 is larger than the vertical length n of the left side surface 8b. When the air flows from the top to the bottom, the right side 8a side is more negative than the left side 8b side around the rotation projection 8, and accordingly, as shown by the short dotted arrows in FIGS. Since a force for moving the protrusion 8 to the negative pressure side (right side surface) acts, a rotational force is generated in the direction shown by the long solid arrow in the drawing with respect to the blower member 3, and consequently the rubber balloon body 2 Is applied with a rotational force about the axis L, and the rubber balloon 1 flies while rotating (rotates in the direction of a long solid arrow in FIGS. 8 and 10). Thus, since it will fly in the novel form of flying while rotating, it will be more conspicuous and more interesting. Furthermore, as the rubber balloon body 2 rotates, the spiral pattern 9 also moves and changes every moment, so that it can be noticed that it is rotating, and it can be made more beautiful, further improving the interest. Can be made. In addition, when the air filled in the rubber balloon body 2 passes through the air outlet member 3, at least a part of the air recirculates (convects) in the air outlet member 3, so that the air blows in the air while generating a high sound. To fly.

  In the latter embodiment (FIGS. 6 to 10), six first locking convex portions 64 are provided, but the number is not particularly limited, and for example, 1 to 5 Or 7 or more.

  In the latter embodiment (FIGS. 6 to 10), the number of protrusions 63 for preventing removal is provided, but the number is not particularly limited. Or 7 or more.

  Moreover, in the said embodiment (FIGS. 1-10), the protrusion 8 for rotation is comprised so that the length m of the up-down direction of the right side surface 8a may become larger than the length n of the up-down direction of the left side surface 8b. However, on the contrary, it goes without saying that the length of the left side surface 8b in the vertical direction may be larger than the length of the right side surface 8a in the vertical direction (in this case, the flying rubber balloon 1 is The direction of rotation is reversed.)

  Moreover, in the said embodiment (FIGS. 1-10), although it has set as the structure which provided the two protrusions 8 for rotation, the number is not specifically limited, It is good also as one, or as three or more Also good.

  Among them, a plurality of the rotation protrusions 8 are provided, and in any of the plurality of rotation protrusions, the length in the vertical direction of the side surface on the same side of the left and right side surfaces 8a and 8b is the other side. It is preferable that the length of the side surface is greater than the vertical length. By adopting such a configuration, a strong rotational force can be applied to the rubber balloon body 2.

  In addition, in the said embodiment, although it is set as the structure which provided the protrusion 8 for rotation, it is good also as a structure which does not provide such a protrusion 8 for rotation.

  The flying rubber balloon according to the present invention is used, for example, as a toy, and is used by flying in the air in order to support a favorite team at a stand in a game such as professional baseball or soccer. It is not limited to these uses.

DESCRIPTION OF SYMBOLS 1 ... Flying rubber balloon 2 ... Rubber balloon main body 2a ... Mouth part 3 ... Blow-out member 20 ... Upper body 21 ... Upper wall 22 ... Opening part 23 ... Protrusion part 24 for extraction | determination prevention ... First protrusion protrusion part 25 ... Peripheral side wall 26 ... Receiving space 27 ... Opening 30 ... Bottom body 31 ... Lower wall 32 ... Opening 33 ... Expanded wall 34 ... Second locking projection 35 ... Peripheral side wall 37 ... Opening 60 ... Upper body 61 ... Upper wall 62 ... Opening 63 ... Detachment preventing projection 64 ... First locking convex 65 ... Peripheral side wall 66 ... Receiving space 67 ... Opening 70 ... Bottom body 71 ... Lower wall 72 ... Opening Part 73 ... Diameter-expanding wall part 74 ... Second locking ridge 75 ... Peripheral side wall 77 ... Opening

Claims (5)

Rubber balloon body,
An upper body made of a hollow member having openings on the upper surface and the lower surface;
It consists of a bottom body made of a hollow member with openings on the top and bottom surfaces,
A first locking projection is provided on the peripheral side wall of the upper body so as to protrude outward, and an anti-extraction protrusion is provided above the first locking projection on the peripheral wall of the upper body. Projecting outward,
A second locking convex portion is provided on the peripheral side wall of the bottom body so as to protrude inward,
The upper body is a synthetic resin molded body, and the bottom body is a synthetic resin molded body,
The peripheral side wall of the bottom body is disposed on the peripheral side wall of the upper body so that the first locking convex portion of the upper body is engaged with the second locking convex portion of the bottom body. Accordingly, the upper body and the bottom body are fitted and integrated to form a blow-off member, and the protrusion for preventing removal is formed between the peripheral side wall of the upper body and the peripheral side wall of the bottom body. A receiving space is formed below, the mouth portion of the rubber balloon main body is accommodated in the receiving space, and the gap between the protrusion for preventing removal of the upper body and the peripheral side wall of the bottom body is the rubber. A flying rubber balloon characterized in that the mouth part of the rubber balloon body is not pulled out by being smaller than the outer diameter of the mouth part of the balloon body.   2. The flying rubber balloon according to claim 1, wherein the pull-out prevention protrusion is an annular ridge extending along the circumferential direction on an outer surface of a peripheral side wall of the upper body.   The first locking convex portion is an annular ridge extending along the circumferential direction on the outer surface of the peripheral side wall of the upper body, and the second locking convex portion is formed on the bottom body. The flying rubber balloon according to claim 1, wherein the flying rubber balloon is an annular ridge extending along the circumferential direction on the inner surface of the peripheral side wall. The pull-out restraining protrusion is composed of a plurality of protrusions provided on the outer surface of the peripheral side wall of the upper body so as to be spaced apart from each other along the circumferential direction. The outer surface of the peripheral side wall of the body consists of a plurality of convex portions provided apart from each other along the circumferential direction,
When the upper body is viewed from above, the pull-out preventing projection and the first locking projection are arranged so as not to overlap,
2. The flying rubber balloon according to claim 1, wherein the second locking projection is an annular ridge extending along the circumferential direction on the inner surface of the peripheral side wall of the bottom body.   The peripheral side wall of the bottom body includes an enlarged wall portion in which an inner diameter from an intermediate position between the upper end and the lower end of the peripheral side wall to an upper end is set larger than an inner diameter from the intermediate position to the lower end. The flying rubber balloon according to any one of claims 1 to 4, wherein a receiving space is formed below the protrusion for preventing removal, between the peripheral side wall of the base member and the enlarged-diameter wall portion of the bottom body.

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