WO2018196051A1 - 组合变形玩具 - Google Patents

组合变形玩具 Download PDF

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Publication number
WO2018196051A1
WO2018196051A1 PCT/CN2017/084637 CN2017084637W WO2018196051A1 WO 2018196051 A1 WO2018196051 A1 WO 2018196051A1 CN 2017084637 W CN2017084637 W CN 2017084637W WO 2018196051 A1 WO2018196051 A1 WO 2018196051A1
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WO
WIPO (PCT)
Prior art keywords
assembly
trigger
toy
limb
base
Prior art date
Application number
PCT/CN2017/084637
Other languages
English (en)
French (fr)
Inventor
蔡东青
Original Assignee
奥飞娱乐股份有限公司
广州奥飞文化传播有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by 奥飞娱乐股份有限公司, 广州奥飞文化传播有限公司 filed Critical 奥飞娱乐股份有限公司
Publication of WO2018196051A1 publication Critical patent/WO2018196051A1/zh

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Classifications

    • A—HUMAN NECESSITIES
    • A63—SPORTS; GAMES; AMUSEMENTS
    • A63H—TOYS, e.g. TOPS, DOLLS, HOOPS OR BUILDING BLOCKS
    • A63H3/00—Dolls
    • A63H3/04—Dolls with deformable framework
    • A—HUMAN NECESSITIES
    • A63—SPORTS; GAMES; AMUSEMENTS
    • A63H—TOYS, e.g. TOPS, DOLLS, HOOPS OR BUILDING BLOCKS
    • A63H17/00—Toy vehicles, e.g. with self-drive; ; Cranes, winches or the like; Accessories therefor
    • A63H17/26—Details; Accessories
    • A—HUMAN NECESSITIES
    • A63—SPORTS; GAMES; AMUSEMENTS
    • A63H—TOYS, e.g. TOPS, DOLLS, HOOPS OR BUILDING BLOCKS
    • A63H3/00—Dolls
    • A63H3/36—Details; Accessories
    • A—HUMAN NECESSITIES
    • A63—SPORTS; GAMES; AMUSEMENTS
    • A63H—TOYS, e.g. TOPS, DOLLS, HOOPS OR BUILDING BLOCKS
    • A63H33/00—Other toys
    • A—HUMAN NECESSITIES
    • A63—SPORTS; GAMES; AMUSEMENTS
    • A63H—TOYS, e.g. TOPS, DOLLS, HOOPS OR BUILDING BLOCKS
    • A63H33/00—Other toys
    • A63H33/003—Convertible toys, e.g. robots convertible into rockets or vehicles convertible into planes

Definitions

  • the present invention relates to the field of toy technology, and in particular to a combined deformation toy.
  • the present invention aims to solve at least one of the technical problems in the related art to some extent. To this end, the present invention proposes a combined deformation toy which has the advantages of simple operation and strong entertainment.
  • the combined anamorphic toy has an initial state and a combined state
  • the combined morphing toy includes: a triggering component, the triggering component is deformable; a deforming component having a passage therein, a trigger switch is disposed in the channel, wherein the trigger component is away from the trigger switch when the combined deformation toy is in the initial state; and the trigger component is located when the combined deformation toy is in the combined state
  • the trigger switch is touched in the channel, and the deformation component and the trigger component are simultaneously deformed and combined into one body.
  • the trigger component itself can be a deformed toy having a certain shape, and the trigger component can be played in a single piece.
  • the triggering component can enter the channel of the deforming component and touch the trigger switch, and combine with the deforming component to transform into a modified toy of other shapes, which is simple in operation and enhances the entertainment of the toy.
  • the trigger component is provided with a first sensing component
  • the triggering switch is provided with a second sensing component, when the first sensing component and the second sensing component are close to each other.
  • the trigger switch is activated, and at least one of the first sensing member and the second sensing member is a magnetic member. Thereby, the inductive touch between the first sensing element and the second sensing element is facilitated, and the production is low.
  • the deformation component is provided with a sliding plate, and the sliding plate is provided with a first matching oblique a second matching inclined surface is disposed on the trigger switch.
  • the trigger component is located in the channel and the trigger switch is touched, the second matching inclined surface cooperates with the first matching inclined surface, and the triggering The switch moves in a first direction, the slide moves in a second direction, the first direction is perpendicular to the second direction, and the combined deformation toy is deformed.
  • the deformation assembly includes: a body assembly, the trigger switch is disposed on the body assembly, the body assembly is provided with a body skateboard, and the body skateboard and the body assembly are movable Ground connection, the body skateboard is provided with a sliding limiting portion and a sliding driving portion; a head assembly, the head assembly is pivotally disposed on the body assembly, and the head assembly is provided with a stop a bump and a head torsion spring that often drives the head assembly to rotate; a head connector that is pivotally disposed on the body assembly, one end of the head connector The stop projection abuts against stopping rotation of the head assembly, the other end of the head connector abuts the sliding drive portion, and a limb assembly pivotally disposed on the body
  • the limb assembly is provided with a sliding stop, wherein the body assembly, the head assembly and the limb assembly define the passage, when the combined deformation toy is in an initial state, Sliding stop and the sliding Limiting the contacting portion; transformable
  • the limb assembly includes: a hind limb assembly pivotally coupled to the body assembly, the hind limb assembly having a hind limb lug; and a forelimb assembly pivotally coupled to the fore limb assembly
  • the body assembly is connected, the forelimb assembly is provided with a fore limb hook; and a limb link, one end of the limb link is opposite to the hind limb bump, and the other end of the limb link is opposite to the fore limb
  • the hook is engaged, and when the combined deformation toy is in the combined state, the other end of the limb link is disengaged from the forelimb hook. Thereby, it is easy to combine the disengagement between the different parts of the deformed toy.
  • the body slide is provided with a first mating ramp
  • the trigger switch is provided with a second mating ramp when the trigger assembly is located in the channel and the trigger switch is activated.
  • the second mating ramp cooperates with the first mating ramp
  • the trigger switch moves in a first direction
  • the body skate moves in a second direction
  • the first direction is perpendicular to the second direction
  • the sliding stop portion is separated from the sliding limit portion.
  • the deformation assembly includes: a base assembly, the trigger switch is disposed on the base assembly; a trigger link, the trigger link is pivotally disposed on the base assembly, The trigger link is adapted to be engaged with the base assembly; the lower limb assembly is pivotable relative to the base assembly, the trigger link is movable relative to the lower limb assembly; the upper limb assembly, The upper limb assembly is pivotally disposed on the base assembly, and the upper limb assembly is adapted to be engaged with the base assembly, wherein the base assembly and the upper limb assembly And the lower limb assembly defines the passageway, when the combined deformation toy is in an initial state, the trigger link is engaged with the base assembly, and the upper limb assembly is engaged with the base assembly; When the combined deformation toy is switched from the initial state to the combined state, the trigger link is disengaged from the base assembly, and the upper limb assembly is disengaged from the base assembly. Thereby, the combined deformation toy can be transformed from the initial state combination into a combined
  • the base assembly is provided with a base slide plate, the base slide plate is movably connected to the base assembly, the base slide plate is provided with a first matching inclined surface, and the trigger switch is provided with a second matching inclined surface.
  • the trigger component is located in the channel and touches the trigger switch
  • the second matching ramp cooperates with the first matching ramp
  • the trigger switch moves in a first direction
  • the first direction is perpendicular to the second direction
  • the trigger link is disengaged from the base slide.
  • the movement of the base slide can be driven by the trigger switch, thereby controlling the combined deformation of the combined deformation toy.
  • a trigger hook is disposed on one of the base slide and the trigger link, and the other is provided with a trigger card joint adapted to be engaged with the trigger hook.
  • the assembly and disengagement of the base slide and the trigger link are facilitated.
  • one of the trigger link and the lower limb assembly is provided with a limiting slot, and the other is provided with a limiting protrusion adapted to the limiting slot.
  • the lower limb assembly is a telescopic member.
  • the lower limb assembly can be elongated or shortened, thereby enhancing the entertainment of the combined deformation toy.
  • the deformation assembly further includes: a base link, one end of the base link being pivotally coupled to the base assembly, the other end of the base link and the lower limb assembly
  • the upper limb assembly is pivotally connected to the upper limb assembly, and the base link is provided with a link engagement portion adapted to the upper limb engagement portion.
  • the upper limb assembly is provided with an upper limb slide
  • the base assembly is provided with an upper limb chute adapted to the upper limb slide
  • the deformation assembly further includes an upper limb limit. a part of the upper limb limiting member is located in the base assembly, a portion of the upper limb limiting member located inside the base assembly is provided with a first pushing slope, and another portion of the upper limb limiting member is located
  • the base assembly is externally and adapted to abut the upper limb assembly, the base assembly is provided with a push block, and the push block is provided with a second push ramp adapted to the first push ramp.
  • the base assembly is provided with a pushing portion, and the pushing portion is pivotally connected to the base assembly. And the pushing portion is adapted to push the push block to move. Thereby, the movement of the push block can be driven by the pushing portion.
  • the trigger component is a deformed toy car or a doll.
  • the deformed toy car is a clockwork or a tram powered car, and the deformed toy The car can be placed manually into the channel or can be launched into the channel using a launch device.
  • the trigger component itself can be made highly playable and entertaining.
  • FIG. 1 is a schematic structural view of a trigger assembly of a combined deformation toy according to an embodiment of the present invention
  • FIG. 2 is a schematic structural view of a modified trigger assembly of a modified toy according to an embodiment of the present invention
  • FIG. 3 is a partial structural schematic view of a combined deformation toy according to an embodiment of the present invention.
  • FIG. 4 is a partial structural schematic view of a combined deformation toy according to an embodiment of the present invention.
  • Figure 5 is an enlarged partial view showing a portion A of Figure 4.
  • FIG. 6 is a schematic structural view of a deformation assembly of a combined deformation toy according to an embodiment of the present invention.
  • FIG. 7 is a partial structural schematic view of a deformation assembly of a combined deformation toy according to an embodiment of the present invention.
  • FIG. 8 is a partial structural schematic view of a deformation assembly of a combined deformation toy according to an embodiment of the present invention.
  • FIG. 9 is a schematic structural view of a combined deformation toy according to an embodiment of the present invention.
  • Figure 10 is a partial structural view of a combined deformation toy according to an embodiment of the present invention.
  • Figure 11 is a partial structural exploded view of a combined deformed toy in accordance with an embodiment of the present invention.
  • Figure 12 is a partial structural exploded view of a combined deformation toy in accordance with an embodiment of the present invention.
  • FIG. 10 is a schematic structural view of a combined deformation toy according to an embodiment of the present invention.
  • Figure 13 is a schematic structural view of a combined deformation toy according to an embodiment of the present invention.
  • FIG. 14 is a schematic structural view of a combined deformation toy in a combined state according to an embodiment of the present invention.
  • FIG. 15 is a schematic structural view of a combined deformation toy in a combined state according to an embodiment of the present invention.
  • 16 is a partial structural exploded view of a deformation assembly of a combined deformation toy according to an embodiment of the present invention
  • FIG. 17 is a schematic structural view of a trigger link of a combined deformation toy according to an embodiment of the present invention.
  • Figure 18 is a partial structural exploded view of a combined deformation toy in accordance with an embodiment of the present invention.
  • 19 is a partial structural schematic view of a combined deformation toy according to an embodiment of the present invention.
  • Figure 20 is an enlarged partial view showing a portion B of the circled in Figure 19;
  • 21 is a partial structural schematic view of a deformation assembly of a combined deformation toy according to an embodiment of the present invention.
  • Figure 22 is an enlarged partial view showing a portion C of the circled in Figure 21;
  • 23 is a partial structural exploded view of a combined deformation toy according to an embodiment of the present invention.
  • Figure 24 is a partial structural exploded view of a combined deformation toy in accordance with an embodiment of the present invention.
  • 25 is a partial structural schematic view of a deformation assembly of a combined deformation toy according to an embodiment of the present invention.
  • 26 is a partial structural schematic view of a lower limb assembly of a combined deformed toy according to an embodiment of the present invention.
  • FIG. 27 is a partial structural schematic view of a lower limb assembly of a combined anamorphic toy according to an embodiment of the present invention.
  • FIG. 28 is a partial structural schematic view of a projectile launching device of a combined deformed toy according to an embodiment of the present invention.
  • the trigger assembly 10 the modified toy car 10a, the first sensing member 110, the ceiling 120, the door 121, the ceiling hook 122, the chassis 130, the chassis hook 131,
  • Body assembly 210 Body assembly 210, channel 211, trigger switch 2111, second mating ramp 2112, second matching ramp 2112a, second inductive member 2113, body sled 212, first mating ramp 2120, sliding stop 2121, sliding drive 2122, Head connector 213, ejection device 214, pressing portion 215, mounting ring 2151, ejection limit portion 2152, ejection member 216, ejection groove 2161,
  • Limb assembly 230 hind limb assembly 231, sliding stop 2311, hind limb bump 2312, forelimb assembly 232, forelimb hook 2321, foot 233, slide rail 2331, leg 234,
  • Upper limb assembly 270 upper limb engaging portion 271, upper limb limiting member 272, first push ramp 2721, upper limb slider 273, launching device 274, trigger 275, trigger hook 2751, handcuff portion 2752, ring hole 2753, projectile 276 , the stop groove 2761, the housing 277.
  • a combination deformation toy 100 has an initial state and a combined state.
  • the combination deformation toy 100 includes a trigger assembly 10 and a deformation assembly 20.
  • the trigger assembly 10 can be deformed.
  • the trigger assembly 10 can be a anamorphic toy car 10a, and the trigger assembly 10 can be changed from the shape shown in Figure 1 to the shape shown in Figure 2.
  • the trigger assembly 10 can not only play itself as a piece of toy, but the trigger assembly 10 can be deformed into a component of the combined deformation toy 100 after being deformed, and combined with the deformation assembly 20 to form a specific shape (such as a wolf type, Toys such as Transformers, etc., play to enhance the entertainment of the combination deformation toy 100.
  • the anamorphic toy car 10a is only one example of the trigger assembly 10, and the trigger assembly 10 can also be a doll or other movable toy.
  • the deformation assembly 20 has a passage 211 therein, and the passage 211 has a trigger switch 2111 therein.
  • the deformation assembly 20 may be internally provided with a passage 211 extending in the front-rear direction (the front-rear direction as shown in FIGS. 6 and 8) to facilitate the completion of the trigger assembly 10 into the deformation assembly 20.
  • a trigger switch 2111 can be disposed inside the channel 211, and the trigger component 10 can enter the channel 211 and trigger the trigger switch 2111 to realize combined deformation of the combined deformation toy 100.
  • the trigger component 10 When the combined deformation toy 100 is in the initial state, as shown in FIG. 6 and FIG. 13 , the trigger component 10 is away from the trigger switch 2111 , that is, the trigger component 10 does not touch the trigger switch 2111 at this time; when the combined deformation toy 100 is in the combined state As shown in FIG. 9 and FIG. 14 , after the trigger assembly 10 is located in the channel 211 and the trigger switch 2111 is touched, the deformation component 20 and the trigger assembly 10 are simultaneously deformed and combined into one body. At this time, the combined deformation toy 100 can be combined and deformed, for example, The combined anamorphic toy 100 can be deformed into a wolf type (as shown in the example of FIG. 9) or a deformed type (as shown in the example in FIG. 14). Of course, the shape of the combined anamorphic toy 100 in the combined state is not limited to the wolf type and the deformed type, and may be other shapes.
  • the trigger assembly 10 by setting the trigger assembly 10, the trigger assembly 10 itself can In the case of a deformed toy having a certain shape, the trigger assembly 10 can be played in a single piece. Moreover, the trigger assembly 10 can enter the channel 211 of the deformation assembly 20 and touch the trigger switch 2111, and combine with the deformation assembly 20 to transform into a modified toy 100 of other shapes, which is simple in operation and enhances the entertainment of the toy.
  • the deformation component 20 may be provided with a sliding plate.
  • the sliding plate may be provided with a first matching inclined surface 2120
  • the trigger switch 2111 is provided with a second matching inclined surface 2112.
  • the second mating ramp 2112 cooperates with the first mating ramp 2120
  • the trigger switch 2111 moves in the first direction
  • the slider moves in the second direction
  • the first direction and the second The direction is vertical and the deforming assembly 20 is deformed.
  • the deformation of the deformation component 20 can be deformed by the cooperation of the second mating slope 2112 and the first mating slope 2120, thereby improving the flexibility and interest of the combination deformation toy 100.
  • the trigger assembly 10 is a modified toy car 10a or a doll. As shown in FIG. 1, the trigger assembly 10 is a modified toy car 10a. When the trigger assembly 10 is a modified toy car 10a, the modified toy car 10a can For a clockworker or a tram-powered vehicle, the anamorphic toy car 10a can be manually placed into the passage 211 or can be launched into the passage 211 by the launching device 274.
  • the triggering component 10 is provided with a first sensing component 110
  • the triggering switch 2111 is provided with a second sensing component 2113 .
  • the trigger switch 2111 is activated.
  • at least one of the first sensing element 110 and the second sensing element 2113 is a magnetic member. That is, the first sensing member 110 may be a magnetic member, such as a magnet; or the second sensing member 2113 may be a magnetic member; of course, the first sensing member 110 and the second sensing member 2113 may both be magnetic members.
  • the trigger assembly 10 may be a deformed toy car 10a, and is disposed at the front lower side of the deformed toy car 10a (up and down direction as shown in FIGS. 1 and 2).
  • a sensing component 110, the first sensing component 110 is a magnetic component.
  • the ceiling 120 of the modified toy car 10a is provided with a ceiling hook 122
  • the chassis 130 is provided with a chassis hook 131 adapted to the ceiling hook 122.
  • the front end of the ceiling 120 and the chassis 130 (the front-rear direction shown in FIGS. 1-5) are fixedly connected to the chassis hook 131 through the ceiling hook 122, and the rear end of the ceiling 120 and the chassis 130 pass through.
  • the pivot shaft is pivotally connected and a torsion spring (not shown) is provided at the position of the pivot shaft.
  • the lower portion of the chassis hook 131 is connected to the first sensing member 110.
  • the chassis hook 131 is rotated rearward and downward to disengage the ceiling hook 122 from the chassis hook 131.
  • the ceiling 120 is rearwardly directed in the direction indicated by the arrow F1 in FIG. 2 under the force of the torsion spring.
  • the side rotation is opened (upward and downward direction as shown in Fig. 2).
  • the combination anamorphic toy 100 can include a body assembly 210, a head assembly 220, a head connector 213, and a limb assembly 230.
  • the trigger switch 2111 is disposed on the body assembly 210, and the trigger switch 2111 may be disposed at the bottom position of the body assembly 210 (the rear lower end position as shown in FIG. 8).
  • the body assembly 210 is provided with a body slide 212. As shown in Fig. 8, the body slide 212 is disposed below the body assembly 210 (up and down direction as shown in Fig. 8).
  • the body skateboard 212 is movably coupled to the body assembly 210, and as shown in Fig. 8, the body slide 212 is slidable in the front-rear direction (for example, the front-rear direction shown in Fig. 8).
  • the body slide 212 is provided with a slide restricting portion 2121 and a slide driving portion 2122.
  • the slide restricting portion 2121 is provided with two slide driving portions 2122 at intervals in the left-right direction (the front-rear and left-right directions as shown in FIG. 11) at the front end of the body slide 212.
  • the head assembly 220 is pivotally disposed on the body assembly 210, the head assembly 220 is located above the body assembly 210 (up and down as shown in Figures 7 and 9), the head
  • the block assembly 220 is provided with a stop projection 221 and a head torsion spring (not shown) for rotating the head assembly 220.
  • the stop projection 221 is located at a middle position of the head assembly 220, and the stop projection 221
  • Two left and right sides of the head (the left-right direction as shown in FIG. 9) are disposed oppositely, and a head torsion spring (not shown) is disposed at a joint position of the head assembly 220 and the body assembly 210. .
  • the head connecting member 213 is pivotally provided on the body assembly 210, one end of the head connecting member 213 (the upper end of the head connecting member 213 as shown in FIG. 7) and the stopper projection.
  • the 221 abuts against the stop head assembly 220, and the other end of the head link 213 (the lower end of the head link 213 as shown in FIG. 7) abuts against the slide driving portion 2122.
  • the limb assembly 230 is pivotally disposed on the body assembly 210, and the limb assembly 230 is provided with a sliding stop 2311, wherein the body assembly 210, the head assembly 220, and the limb assembly 230 are defined Out channel 211.
  • the sliding stop portion 2311 and the sliding limiting portion 2121 When the combined deformation toy 100 is in the initial state, the sliding stop portion 2311 and the sliding limiting portion 2121.
  • the deformation member 20 is in the shape shown in FIG. 6; when the combined deformation toy 100 is in the combined state, the trigger is triggered.
  • the switch 2111 drives the body slide 212 to move, and the slide stop 2311 is disengaged from the slide limit portion 2121. At this time, the deformed toy combination is deformed into the shape shown in FIG.
  • a limb elastic member may be provided on the limb assembly 230 to constantly urge the limb assembly 230 to rotate.
  • the limb assembly 230 can include a hind limb assembly 231, a forelimb assembly 232, and a limb link 240.
  • the rear limb assembly 231 is pivotally coupled to the body assembly 210, and the rear limb assembly 231 is provided with a hind limb lug 2312.
  • the joint of the rear limb assembly 231 and the body assembly 210 may be provided with a torsion spring (not shown). The spring can drive the rear limb assembly 231 to open from the state shown in FIG. 7 to the extended state shown in FIG.
  • the forelimb assembly 232 is pivotally coupled to the body assembly 210, and the forelimb assembly 232 is provided with a forelimb hook 2321.
  • the junction of the forelimb assembly 232 and the body assembly 210 can also be provided with a torsion spring (not shown) in the torsion spring. Under the torsional force, the forelimb assembly 232 can be rotated from the state shown in FIG. 7 to the extended open state shown in FIG. One end of the limb link 240 abuts against the hind limb bump 2312, and the other end of the limb link 240 is engaged with the forelimb hook 2321. As shown in FIG. 7, the rear end of the limb link 240 (the front-rear direction shown in FIG.
  • the limb link 240 may be generally V-shaped, and a pivot hole is provided at a lower end of the limb link 240 (up and down direction as shown in FIG.
  • limb link 240 may be pivotally coupled to the body assembly through a pivot shaft 210, a torsion spring (not shown) may be disposed on the pivot shaft to frequently engage the front end of the limb link 240 with the forelimb hook 2321.
  • the sliding limit portion 2121 is stopped against the sliding stop portion 2311 (it is noted that the The state in which the slide restricting portion 2121 is separated from the slide stopper portion 2311 can restrict the rotation of the hind limb assembly 231 by the torsion spring.
  • the hind limb bump 2312 abuts against the rear end of the limb link 240, and the front end of the limb link 240 is engaged with the forelimb hook 2321, whereby the forelimb assembly 232 can be restricted from rotating and expanding by the torsion spring.
  • the body slide 212 is provided with a first mating ramp 2120
  • the trigger switch 2111 is provided with a second mating ramp 2112.
  • the second mating inclined surface 2112 cooperates with the first mating inclined surface 2120
  • the trigger switch 2111 moves in the first direction
  • the body sliding plate 212 moves in the second direction
  • the first direction is perpendicular to the second direction
  • the sliding stop portion 2311 is disengaged.
  • the sliding limit portion 2121 is slid.
  • both the body slide 212 and the trigger switch 2111 can be designed in an axisymmetric shape.
  • a mounting hole adapted to the shape of the trigger switch 2111 is disposed behind the body slide 212, and the trigger switch 2111 can be fitted into the mounting hole.
  • Two first mating inclined surfaces 2120 are symmetrically disposed on the left and right sides of the rear wall surface of the mounting hole (the front, rear, left and right directions as shown in FIG. 11 ), and correspondingly, two symmetrical are arranged in the left and right direction behind the trigger switch 2111 .
  • the first mating ramp 2120 When the trigger switch 2111 is not touched, the first mating ramp 2120 Fits with the second mating ramp 2112.
  • the trigger switch 2111 can be touched manually or the trigger switch 2111 can be triggered by the trigger component 10.
  • the deformation process of the combined deformation toy 100 will be described by taking the trigger component 10 to trigger the trigger switch 2111 as an example.
  • the triggering assembly 10 can enter the channel 211 from the opening at the front end of the channel 211 of the deforming component 20, and when the triggering component 10 enters the corresponding position in the channel 211, the triggering switch at the bottom of the first sensing component 110 and the channel 211 on the triggering component 10 2111 induction trigger.
  • the first sensing element 110 and the second sensing element 2113 are magnetic sensing elements
  • the first sensing element 110 attracts the second sensing element 2113, thereby driving the triggering switch 2111 from bottom to top (up and down direction as shown in FIG. 11).
  • the trigger switch 2111 will push the trunk slide 212 from front to back during the downward movement.
  • the sliding limit portion 2121 is disengaged from the slide stop portion 2311, and when the slide limit portion 2121 is separated from the slide stop portion 2311, as shown in FIG.
  • the hind limb assembly 231 is rotated and deployed under the action of the torsion spring.
  • the hind limb protrusion 2312 and the subsequent limb assembly 231 press the limb link 240 downward in the counterclockwise direction, thereby driving the limb link 240.
  • the pivot shaft about the lower end rotates clockwise, so that the front end of the limb link 240 is disengaged from the forelimb hook 2321, and the forelimb hook 2321 is rotated and deployed by the torsion spring.
  • the slide driving portion 2122 drives the lower end of the head link 213 to move backward. So that the head connecting member 213 is rotated counterclockwise around the central pivot axis, the upper end of the head connecting member 213 is disengaged from the stop projection 221, and the head assembly 220 is rotated counterclockwise under the action of the torsion spring. The head assembly 220 is extended forward.
  • the triggering component 10 when the first sensing component 110 and the second sensing component 2113 of the triggering component 10 are inductively touched, the triggering component 10 is also deformed correspondingly, and the ceiling hook 122 is disengaged from the chassis hook 131. Under the action of the torsion spring, the ceiling 120 Rotating from the position of the head assembly 220 extends out of the passage 211. Since the door 121 abuts against the inner wall of the passage 211, the door 121 is not deformed to the open state, and finally the combined deformation toy 100 is combined into the form of the wolf shown in FIG. It can be understood that the form of the wolf is only an illustrative example of the present invention, and the combined deformation toy 100 can also be combined and transformed into other forms such as a lion, a tiger, and the like.
  • the deformation assembly 20 can also include an ejection device 214 that is disposed on the deformation assembly 20 to drive the trigger assembly 10 to slide out of the channel 211. As shown in FIG. 10, the ejection device 214 may be disposed behind the deformation assembly 20 (in the front-rear direction as shown in FIG. 10).
  • the ejection device 214 may include a pressing portion 215 and an ejection member 216.
  • the pressing portion 215 is disposed in the deformation component 20 and a part of the outer surface of the pressing portion 215 is exposed to the deformation component 20, thereby The pressing portion 215 is pressed.
  • the ejection member 216 is disposed within the deformation assembly 20, and the ejection member 216 is disposed on the pressing portion 215, and the ejection member 216 is switchable between the locked position and the released position.
  • the ejection member 216 When the ejection member 216 is in the locked position, the ejection member 216 is engaged with the pressing member so that the movement of the defining ejection member 216 can be stopped; when the ejection member 216 is moved from the locking position to the releasing position, the ejection member 216 faces the passage 211. The inner movement is performed, and one end of the projecting member 216 abuts the trigger assembly 10 to drive the trigger assembly 10 out of the passage 211.
  • the portion of the pressing portion 215 located inside the deforming member 20 has a mounting ring 2151 which is located below the pressing portion 215 (up and down direction as shown in FIG. 12).
  • the inner peripheral wall of the mounting ring 2151 is provided with an ejection limiting portion 2152.
  • the ejection limiting portion 2152 is located on the inner peripheral wall below the mounting ring 2151, and the ejection limiting portion 2152 is formed as an inclined boss.
  • an ejection groove 2161 adapted to the ejection limiting portion 2152 is provided below the ejection member 216 (up and down direction as shown in FIG. 12).
  • a spring (not shown) may be disposed in the ejection member 216.
  • the spring When the ejection groove 2161 is engaged with the ejection limiting portion 2152, the spring is in a pressed state.
  • the pressing portion 215 When the pressing portion 215 is pressed down, the ejection limiting portion 2152 is disengaged from the ejection groove 2161, and under the elastic force of the spring, the ejection member 216 is ejected forward to eject the trigger assembly 10 out of the deformation assembly 20.
  • the deformation assembly 20 can include a base assembly 250, a trigger link 251, a lower limb assembly 260, and an upper limb assembly 270.
  • the trigger switch 2111 is disposed on the base assembly 250, and the trigger switch 2111 can be located behind the base assembly 250 (in the front-rear direction as shown in FIG. 16).
  • the trigger link 251 is pivotally disposed on the base assembly 250.
  • the trigger link 251 can be formed in a U-shaped axisymmetric structure, which triggers the link 251.
  • the left and right ends have connecting plates extending in the up and down direction (up and down direction as shown in FIG.
  • the trigger link 251 is pivotally connected to the base assembly 250 through the pivot hole,
  • a strong torsion spring (not shown) is provided at the position of the pivot hole to drive relative rotation between the trigger link 251 and the base assembly 250.
  • the trigger link 251 is adapted to be engaged with the base assembly 250, thereby facilitating the assembly and disengagement of the trigger link 251 and the base assembly 250 to facilitate the combined deformation of the combined deformation toy 100.
  • the lower limb assembly 260 is pivotable relative to the base assembly 250.
  • the connection between the lower limb assembly 260 and the base assembly 250 can be provided with a torsion spring (not shown) that often drives the base assembly 250 to rotate relative to the lower limb assembly 260.
  • the trigger link 251 is movable relative to the lower limb assembly 260. When the trigger link 251 is disengaged from the base assembly 250, the trigger assembly 10 and the lower limb assembly 260 are relatively rotatable.
  • the upper limb assembly 270 is pivotally disposed on the base assembly 250, and the attachment position of the upper limb assembly 270 and the base assembly 250 is provided with a torsion spring (not shown) to constantly drive the upper limb assembly 270 to rotate to the deployed state.
  • the upper limb assembly 270 is adapted to snap into engagement with the base assembly 250 to limit rotation of the upper limb assembly 270.
  • the base assembly 250, The upper limb assembly 270 and the lower limb assembly 260 define a passage 211 that can extend in the front-rear direction (the front-rear direction as shown in FIG. 21).
  • the trigger link 251 When the combined anamorphic toy 100 is in the initial state, the trigger link 251 is engaged with the base assembly 250, so that the relative rotation of the base assembly 250 and the lower limb assembly 260 can be restricted.
  • the upper limb assembly 270 is snapped into the base assembly 250 such that rotational deployment of the upper limb assembly 270 can be restricted. As shown in FIG. 13, it is a shape when the combined deformation component 20 is in an initial state.
  • the trigger link 251 is disengaged from the base assembly 250, and under the action of the torsion spring, the base assembly 250 is relatively rotated with respect to the lower limb assembly 260 and the trigger link 251, thereby lower limbs
  • the assembly 260 is disengaged from the base assembly 250.
  • the upper limb assembly 270 is disengaged from the base assembly 250, and the upper limb assembly 270 is rotated and deployed by the torsion spring, and the combined deformation toy 100 is deformed into a shape as shown in FIG. .
  • the base assembly 250 is provided with a base slide 252 that is movably coupled to the base assembly 250.
  • the base slide 252 is slidable relative to the base assembly 250 in the front-rear direction (the front-rear direction as shown in FIG. 16).
  • one of the base sliding plate 252 and the trigger link 251 is provided with a triggering hook 2511, and the other is provided with a triggering engaging portion 2520 adapted to be engaged with the triggering hook 2511.
  • a triggering hook 2511 is disposed on the triggering link 251, and a triggering latching portion 2520 is formed on the base sliding plate 252 to be adapted to the triggering hook 2511.
  • the triggering engaging portion 2520 can be It is formed as a step slot; of course, a trigger hook 2511 may be disposed on the base slide 252, and a trigger hook portion 2520 adapted to the trigger hook 2511 is disposed on the trigger link 251.
  • the fixed assembly between the trigger link 251 and the base assembly 250 can be quickly and efficiently realized by the snap connection between the trigger hook 2511 and the triggering engagement portion 2520, and the combined deformation toy 100 changes from the initial state to the In the assembled state, the snap-fit structure facilitates detachment deformation between the components.
  • a mounting hole adapted to the shape of the trigger switch 2111 may be disposed behind the base slider 252, and two rear sides are disposed in the left-right direction (the front-rear and left-right directions as shown in FIG. 18) behind the mounting hole.
  • the first matching slope 2521 is disposed at the rear of the trigger switch 2111 in the left-right direction (the front-rear and left-right directions as shown in FIG. 18), and is provided with two second matching slopes 2112a adapted to the first matching slopes 2521.
  • one of the trigger link 251 and the lower limb assembly 260 is provided with a limiting slot 2512, and the other is provided with a limiting protrusion 261 adapted to the limiting slot 2512. That is, a limiting slot 2512 can be disposed on the trigger link 251, and a limiting protrusion 261 adapted to the limiting slot 2512 is disposed on the lower limb assembly 260, for example, as shown in the example in FIG.
  • Two limiting slots 2512 are symmetrically disposed on the connecting plates on the left and right sides of the rod 251 (the left and right direction as shown in FIG. 23), and the lower limb assembly 260 is symmetrically disposed to be compatible with the two limiting slots 2512.
  • the limiting protrusion 261 is engaged with the limiting protrusion 261 in the limiting slot 2512 when the combined deformation toy 100 assembly is in the initial state; of course, the limited position slot 2512 may be disposed on the lower limb assembly 260.
  • the limiting rod 261 is matched with the limiting groove 2512. Thereby, the assembly and disengagement of the lower limb assembly 260 and the trigger link 251 are facilitated to facilitate the deformation of the combination toy 100.
  • the deformation assembly 20 may further include a base link 253, one end of the base link 253 (such as the lower end of the base link 253 shown in FIG. 22) and The base assembly 250 is pivotally coupled and the other end of the base link 253 (the upper end of the base link 253 as shown in FIG. 22) is pivotally coupled to the lower limb assembly 260.
  • the base link 253 can be rotated centered on the connection position of the base link 253 and the lower limb assembly 260. Thereby, relative rotation between the base assembly 250 and the lower limb assembly 260 can be achieved, and deformation of the combined deformation toy 100 can be realized.
  • the upper limb assembly 270 is provided with an upper limb engaging portion 271
  • the base link 253 is provided with a link engagement portion 2531 adapted to the upper limb engaging portion 271.
  • the upper limb engaging portion 271 and the link engagement portion 2531 are abutted to restrict relative rotation of the upper limb assembly 270.
  • the trigger switch 2111 When the trigger switch 2111 is touched, it should be noted that the trigger switch 2111 can be touched manually or the trigger switch 2111 can be triggered by the trigger assembly 10.
  • the deformation process of the combined deformation toy 100 will be described by taking the trigger component 10 to trigger the trigger switch 2111 as an example.
  • the trigger assembly 10 can enter the channel 211 from the opening at the front end of the channel 211.
  • the first sensing member 110 and the trigger switch 2111 on the trigger assembly 10 are triggered.
  • the second sensing component 2113 senses the trigger.
  • the first sensing component 110 and the second sensing component 2113 are magnetic sensing components
  • the first sensing component 110 attracts the second sensing component 2113, thereby driving the triggering switch 2111 from bottom to top (as shown in the upper and lower directions in FIG. 18).
  • the trigger switch 2111 will push the base slider 252 to move from front to back during the downward movement.
  • the trigger hook 2511 is disengaged from the trigger engaging portion 2520, as shown in FIG. 22, under the force of the torsion spring, on the left side.
  • the base link 253 (the base link 253 shown in FIG. 22) rotates in the counterclockwise direction and drives the base assembly 250 to rotate, thereby disengaging the base assembly 250 from the lower limb assembly 260.
  • the base link 253 on the right side (the base link 253 shown in FIG. 20) rotates in the clockwise direction, at the base link 253.
  • the upper limb engaging portion 271 is disengaged from the link engagement portion 2531, and the right upper limb assembly 270 is rotated to the right rear side by the torsion spring, and the upper limb assembly 270 on the left side is rotated to the left rear.
  • the expansion is performed so that the combined deformation toy 100 is deformed into a shape as shown in FIG.
  • the deformation component 20 when the deformation component 20 is combined and deformed by the triggering action of the triggering component 10, as deformed from the shape shown in FIG. 13 to the shape shown in FIG. 14, it can also be manually manipulated and deformed.
  • the combined anamorphic toy 100 is further deformed into the shape state shown in FIG.
  • the lower limb assembly 260 is a telescoping member. As shown in Figures 26 and 27, the lower limb assembly 260 has a foot portion 233 and a leg portion 234, and a portion of the leg portion 234 can be turned over to lengthen the length of the leg portion 234. Further, a slide rail 2331 is provided inside the foot portion 233 to further extend the leg. The portion 234 is elongated.
  • the upper limb assembly 270 may be provided with a launching device 274 for launching the projectile 276.
  • the launching device 274 includes a housing 277, a projectile 276, and a trigger 275.
  • the trigger 275 includes a ring hole 2753, a handcuff portion 2752 and a trigger hook 2751.
  • the projectile 276 is provided with a stop groove 2761 adapted to the trigger hook 2751.
  • the connection position of the projectile 276 and the housing 277 is also provided with a spring (not shown). When the trigger 275 is pulled, the projectile 276 fires the projectile 276 out of the housing 277 under the elasticity of the spring, thereby further enhancing the combination.
  • the entertainment of the transforming toy 100 is also provided with a spring (not shown).
  • the upper limb assembly 270 is provided with an upper limb slider 273, and the base assembly 250 is provided with an upper limb sliding slot 256 adapted to the upper limb slider 273, and the upper limb sliding slot 256 can be It extends in the front-rear direction (the front-back direction as shown in FIG. 25).
  • the deformation assembly 20 may further include an upper limb stopper 272 which may be two symmetrically disposed in the left-right direction (the left-right direction as shown in FIG. 24).
  • a portion of the upper limb limiting member 272 is located within the base assembly 250.
  • a spring (not shown) may be disposed in the base assembly 250. One end of the spring abuts the upper limb limiting member 272 located in the inner portion of the base assembly 250, and the spring is further One end abuts against the inner wall of the base assembly 250.
  • a portion of the upper limb limiting member 272 located inside the base assembly 250 is provided with a first pushing inclined surface 2721.
  • the base assembly 250 may be provided with a pushing block 254.
  • the pushing block 254 is provided with a first matching inclined surface 2721. Second, push the slope 2541. Another portion of the upper limb stop 272 is located outside of the base assembly 250 and is adapted to abut the upper limb assembly 270 such that sliding of the upper limb assembly 270 within the upper limb chute 256 can be restricted.
  • the portion of the upper limb limiting member 272 is located outside the base assembly 250 and abuts against the upper limb assembly 270 to limit the sliding of the upper limb assembly 270.
  • the push block 254 presses the portion of the upper limb stop 272 outside the base assembly 250 into the base assembly 250, thereby enabling the upper limb
  • the stop member 272 is disengaged from the upper limb assembly 270, and the upper limb assembly 270 is slidable within the upper limb chute 256.
  • the stop 272 can slide within the upper limb chute 256.
  • the base assembly 250 is provided with a push portion 255 that is pivotally coupled to the base assembly 250 and the push portion 255 is adapted to urge the push block 254 to move.
  • a pushing portion 255 is provided at the rear of the base assembly 250 (in the front-rear direction as shown in FIG. 24), and the pushing portion 255 and the base assembly 250 are relatively rotatable.
  • two pushing protrusions 2551 are disposed at intervals in the left-right direction (the front-rear and left-right directions as shown in FIG.
  • Embodiment 1 is a diagrammatic representation of Embodiment 1:
  • the combined anamorphic toy 100 has an initial state (a state as shown in FIG. 6) and a combined state (a state as shown in FIG. 9), and the combined anamorphic toy 100 includes a triggering component 10 and Deformation assembly 20.
  • the trigger component 10 is deformable.
  • the trigger assembly 10 can be a anamorphic toy car 10a, and the trigger assembly 10 can be changed from the shape shown in Figure 1 to the shape shown in Figure 2.
  • the deformation assembly 20 may be internally provided with a passage 211 extending in the front-rear direction (the front-rear direction as shown in FIGS. 6 and 8) to facilitate the trigger assembly 10 to enter the deformation assembly 20 to complete the combined deformation.
  • the triggering channel 211 can be internally provided with a trigger switch 2111.
  • the triggering component 10 can enter the inside of the deformed toy and touch the trigger switch 2111 to realize the combined deformation of the combined deformed toy 100.
  • the trigger assembly 10 When the combined deformation toy 100 is in the initial state, as shown in FIG. 6, the trigger assembly 10 is away from the trigger switch 2111, that is, the trigger assembly 10 does not touch the trigger switch 2111; when the combined deformation toy 100 is in the combined state, as shown in the figure As shown in FIG. 9, the trigger assembly 10 is located in the channel 211 and touches the trigger switch 2111. The deformation component 20 and the trigger assembly 10 are simultaneously deformed and combined into one body. At this time, the combined deformation toy 100 can be combined and deformed into a wolf type (as shown in FIG. 9). The example shows).
  • the triggering component 10 is provided with a first sensing component 110
  • the triggering switch 2111 is provided with a second sensing component 2113 .
  • the first sensing component 110 and the second sensing component 2113 are close to each other
  • the first sensing member 110 and the second sensing member 2113 are both magnetic members.
  • FIG. 1 and FIG. 2 in front of the deformed toy car 10a (see FIGS. 1 and 2).
  • the front and rear shown in the middle are provided with a first sensing member 110, and the first sensing member 110 is a magnetic member.
  • the first sensing member 110 is touched with a magnet or an iron object, the deformed toy car 10a is deformed.
  • the ceiling 120 of the modified toy car 10a is provided with a ceiling hook 122
  • the chassis 130 is provided with a chassis hook 131 adapted to the ceiling hook 122.
  • the front end of the ceiling 120 and the chassis 130 are fixedly connected to the chassis hook 131 through the ceiling hook 122.
  • the rear end of the ceiling 120 and the chassis 130 are pivotally connected by a pivot shaft (not shown). And a torsion spring (not shown) is provided at the position of the pivot shaft.
  • a torsion spring (not shown) is provided at the position of the pivot shaft.
  • the lower portion of the chassis hook 131 is connected to the first sensing member 110.
  • the chassis hook 131 is rotated rearward and downward to disengage the ceiling hook 122 from the chassis hook 131.
  • the ceiling 120 is rearwardly directed in the direction indicated by the arrow F1 in FIG. 2 under the force of the torsion spring.
  • the side rotation is opened (upward and downward direction as shown in Fig. 2).
  • two doors 121 are pivotally connected to the left and right sides of the ceiling 120 (the front-rear direction shown in FIG. 2), and the connection positions of the two doors 121 and the ceiling 120 are also set to be twisted.
  • a spring (not shown), when the ceiling 120 is turned over in the direction indicated by the arrow F1, the door 121 on the left and right sides of the ceiling 120 (the left and right direction as shown in FIG. 2) is in the direction indicated by the arrow F2.
  • the rotation is turned on, the deformed toy car 10a is finally deformed into the state shape shown in Fig. 2.
  • the combination anamorphic toy 100 can include a body assembly 210, a head assembly 220, a head connector 213, and a limb assembly 230.
  • the limb assembly 230 is pivotally disposed on the body assembly 210, wherein the body assembly 210, the head assembly 220, and the limb assembly 230 define a channel 211.
  • the trigger switch 2111 is disposed on the body assembly 210, and the trigger assembly 10 is disposed at the bottom position of the body assembly 210 (the rear lower end position as shown in FIG. 8).
  • the body assembly 210 is provided with a body slide 212. As shown in Fig. 8, the body slide 212 is disposed below the body assembly 210 (up and down direction as shown in Fig. 8).
  • the body skateboard 212 is movably coupled to the body assembly 210, and as shown in Fig. 8, the body slide 212 is slidable in the front-rear direction (for example, the front-rear direction shown in Fig. 8).
  • the body slide 212 is provided with a slide restricting portion 2121 and a slide driving portion 2122. As shown in FIG. 11, at the rear end of the body slide 212, two are disposed at intervals in the left-right direction (the front-rear and left-right directions as shown in FIG. 11).
  • the slide restricting portion 2121 is provided with two slide driving portions 2122 at intervals in the left-right direction (the front-rear and left-right directions as shown in FIG. 11) at the front end of the body slide 212.
  • the head assembly 220 is pivotally disposed on the body assembly 210, the head assembly 220 is located above the body assembly 210 (up and down as shown in Figures 7 and 9), the head
  • the component assembly 220 is provided with a stop projection 221 and a head torsion spring (not shown) for rotating the head assembly 220, and the stop projection 221 is located at the head.
  • the stopper projections 221 are oppositely disposed on the left and right sides of the head (the left and right directions as shown in FIG. 9), and the head torsion spring (not shown) is disposed at the head.
  • the connection position of the part assembly 220 to the body assembly 210 is pivotally disposed on the body assembly 210, the head assembly 220 is located above the body assembly 210 (up and down as shown in Figures 7 and 9), the head
  • the component assembly 220 is provided with a stop projection 221 and a head torsion spring (not shown) for rotating the head assembly 220, and the stop projection 221 is located at the head.
  • the head connecting member 213 is pivotally disposed on the body assembly 210, and the upper end of the head connecting member 213 abuts against the stopper projection 221 to rotate the stop head assembly 220, and the head connecting member 213 The lower end thereof is in contact with the slide driving portion 2122.
  • the limb assembly 230 is provided with a sliding stop portion 2311.
  • the sliding stop portion 2311 and the sliding limiting portion 2121 When the combined deformation toy 100 is in the initial state, the sliding stop portion 2311 and the sliding limiting portion 2121.
  • the deformation member 20 is in the shape shown in FIG.
  • the trigger switch 2111 drives the body slide 212 to move, and the slide stop portion 2311 is disengaged from the slide limit portion 2121. At this time, the deformed toy combination is deformed into the shape shown in FIG.
  • a limb elastic member (not shown) is provided on the limb assembly 230 to constantly urge the limb assembly 230 to rotate.
  • the limb assembly 230 can include a hind limb assembly 231, a forelimb assembly 232, and a limb link 240.
  • the rear limb assembly 231 is pivotally coupled to the body assembly 210, and the rear limb assembly 231 is provided with a hind limb lug 2312.
  • the joint of the rear limb assembly 231 and the body assembly 210 may be provided with a torsion spring (not shown). The spring can drive the rear limb assembly 231 to open from the state shown in FIG. 7 to the extended state shown in FIG.
  • the forelimb assembly 232 is pivotally coupled to the body assembly 210.
  • the forelimb assembly 232 is provided with a forelimb hook 2321.
  • the forelimb hook 2321 is of an L-shaped design, and the front end of the limb link 240 (front and rear direction as shown in FIG. 7). Has a curved surface.
  • the joint of the forelimb assembly 232 and the body assembly 210 can also be provided with a torsion spring (not shown). Under the torsional force of the torsion spring, the forelimb assembly 232 can be rotated from the state shown in FIG. 7 to FIG. The stretched open state shown.
  • the rear end of the limb link 240 abuts against the hind limb bump 2312, and the front end of the limb link 240 is engaged with the forelimb hook 2321.
  • the limb link 240 is generally V-shaped, and a pivot hole is provided at a lower end of the limb link 240 (up and down direction as shown in FIG. 7), and the limb link 240 can be pivotally coupled to the body assembly 210 via a pivot shaft.
  • a torsion spring (not shown) may be disposed to frequently engage the front end of the limb link 240 with the forelimb hook 2321.
  • the deformation assembly 20 further includes an ejection device 214 that is disposed on the deformation assembly 20 to drive the trigger assembly 10 to slide out of the channel 211.
  • the ejection device 214 may be disposed behind the deformation assembly 20 (in the front-rear direction as shown in FIG. 10).
  • the ejection device 214 includes a pressing portion 215 and an ejection member 216.
  • the pressing portion 215 is provided in the deformation unit 20 and the outer surface of the pressing portion 215 is exposed to the deformation unit 20, thereby facilitating the pressing of the pressing portion 215.
  • the ejection member 216 is disposed within the deformation assembly 20, and the ejection member 216 is disposed on the pressing portion 215, and the ejection member 216 is switchable between the locked position and the released position.
  • the ejection member 216 When the ejection member 216 is in the locked position, the ejection member 216 and the pressing The member is snapped so as to stop the movement of the ejecting member 216; when the ejecting member 216 is moved from the locked position to the released position, the ejecting member 216 moves toward the passage 211, and one end of the ejecting member 216 abuts the trigger assembly 10 The drive trigger assembly 10 moves out of the channel 211.
  • the portion of the pressing portion 215 located inside the deforming member 20 has a mounting ring 2151 which is located below the pressing portion 215 (up and down direction as shown in FIG. 12).
  • the inner peripheral wall of the mounting ring 2151 is provided with an ejection limiting portion 2152.
  • the ejection limiting portion 2152 is located on the inner peripheral wall below the mounting ring 2151, and the ejection limiting portion 2152 is formed as an inclined boss.
  • an ejection groove 2161 adapted to the ejection limiting portion 2152 is provided below the ejection member 216 (up and down direction as shown in FIG. 12).
  • a spring (not shown) may be disposed in the ejection member 216.
  • the spring When the ejection groove 2161 is engaged with the ejection limiting portion 2152, the spring is in a pressed state.
  • the pressing portion 215 When the pressing portion 215 is pressed down, the ejection limiting portion 2152 is disengaged from the ejection groove 2161, and under the elastic force of the spring, the ejection member 216 is ejected forward to eject the trigger assembly 10 out of the deformation assembly 20.
  • the sliding limit portion 2121 is stopped against the sliding stop portion 2311 (it is noted that the The state in which the slide restricting portion 2121 is separated from the slide stopper portion 2311 can restrict the rotation of the hind limb assembly 231 by the torsion spring.
  • the hind limb bump 2312 abuts against the rear end of the limb link 240, and the front end of the limb link 240 is engaged with the forelimb hook 2321, whereby the forelimb assembly 232 can be restricted from rotating and expanding by the torsion spring.
  • both the body slide 212 and the trigger switch 2111 can be designed in an axisymmetric shape.
  • a mounting hole adapted to the shape of the trigger switch 2111 is disposed behind the body slide 212, and the trigger switch 2111 can be fitted into the mounting hole.
  • Two first mating inclined surfaces 2120 are symmetrically disposed on the left and right sides of the rear wall surface of the mounting hole (the front, rear, left and right directions as shown in FIG. 11 ), and correspondingly, two symmetrical are arranged in the left and right direction behind the trigger switch 2111 .
  • the first mating ramp 2120 When the trigger switch 2111 is not touched, the first mating ramp 2120 is in contact with the second mating ramp 2112.
  • the trigger switch 2111 can be touched manually or the trigger switch 2111 can be triggered by the trigger component 10.
  • the deformation process of the combined deformation toy 100 will be described by taking the trigger component 10 to trigger the trigger switch 2111 as an example.
  • the triggering assembly 10 can enter the channel 211 from the opening at the front end of the channel 211 of the deforming component 20, and when the triggering component 10 enters the corresponding position in the channel 211, the triggering switch at the bottom of the first sensing component 110 and the channel 211 on the triggering component 10
  • the 2111 sensing triggers the first sensing component 110 to attract the second sensing component 2113, thereby driving the triggering switch 2111 to move from bottom to top (up and down direction as shown in FIG. 11), and the first matching slope 2120 and the second matching slope 2112 cooperate.
  • the trigger switch 2111 is moved from bottom to top (up and down direction as shown in FIG. 11).
  • the body slide 212 is pushed to move from front to back (front and rear direction as shown in Fig. 11).
  • the sliding limit portion 2121 is disengaged from the slide stop portion 2311, and when the slide limit portion 2121 is separated from the slide stop portion 2311, as shown in FIG.
  • the hind limb assembly 231 is rotated and deployed under the action of the torsion spring.
  • the hind limb protrusion 2312 and the subsequent limb assembly 231 press the limb link 240 downward in the counterclockwise direction, thereby driving the limb link 240.
  • the pivot shaft about the lower end rotates clockwise, so that the front end of the limb link 240 is disengaged from the forelimb hook 2321, and the forelimb hook 2321 is rotated and deployed by the torsion spring.
  • the slide driving portion 2122 drives the lower end of the head link 213 to move backward. So that the head connecting member 213 is rotated counterclockwise around the central pivot axis, the upper end of the head connecting member 213 is disengaged from the stop projection 221, and the head assembly 220 is rotated counterclockwise under the action of the torsion spring. The head assembly 220 is extended forward.
  • the triggering component 10 when the first sensing component 110 and the second sensing component 2113 of the triggering component 10 are inductively touched, the triggering component 10 is also deformed correspondingly, and the ceiling hook 122 is disengaged from the chassis hook 131. Under the action of the torsion spring, the ceiling 120 Rotating from the position of the head assembly 220 extends out of the passage 211. Since the door 121 abuts against the inner wall of the passage 211, the door 121 is not deformed to the open state, and finally the combined deformation toy 100 is combined into the form of the wolf shown in FIG.
  • the trigger assembly 10 itself can be a deformed toy having a certain shape, and the trigger assembly 10 can be played in a single piece.
  • the trigger assembly 10 can enter the channel 211 of the deformation assembly 20 and touch the trigger switch 2111, and combine with the deformation assembly 20 to transform into a modified toy 100 of other shapes, which is simple in operation and enhances the entertainment of the toy.
  • Embodiment 2 is a diagrammatic representation of Embodiment 1:
  • the deformation assembly 20 includes a base assembly 250, a trigger link 251, a lower limb assembly 260, and an upper limb assembly 270.
  • the trigger switch 2111 is disposed on the base assembly 250, and the trigger switch 2111 is located at the rear of the base assembly 250 (in the front-rear direction as shown in FIG. 16).
  • the trigger link 251 is pivotally disposed on the base assembly 250.
  • the trigger link 251 can be formed in a U-shaped axisymmetric structure, which triggers the link 251.
  • the left and right ends have connecting plates extending in the up and down direction (up and down direction as shown in FIG. 17), and the upper end of the connecting plate is provided with a pivot hole, and the trigger link 251 is pivotally coupled to the base assembly 250 through the pivot hole.
  • the trigger link 251 is adapted to be engaged with the base assembly 250, thereby facilitating the assembly and disengagement of the trigger link 251 and the base assembly 250 to facilitate the combined deformation of the combined deformation toy 100.
  • the lower limb assembly 260 is pivotable relative to the base assembly 250, and the junction of the lower limb assembly 260 and the base assembly 250 A torsion spring (not shown) may be provided, and the torsion spring often drives the base assembly 250 to rotate relative to the lower limb assembly 260 for stretching deformation.
  • the trigger link 251 is movable relative to the lower limb assembly 260. When the trigger link 251 is disengaged from the base assembly 250, the trigger assembly 10 and the lower limb assembly 260 are relatively rotatable.
  • the upper limb assembly 270 is pivotally disposed on the base assembly 250, and the attachment position of the upper limb assembly 270 and the base assembly 250 is provided with a torsion spring (not shown) to constantly drive the upper limb assembly 270 to rotate to the deployed state.
  • the upper limb assembly 270 is adapted to snap into engagement with the base assembly 250 to limit rotation of the upper limb assembly 270.
  • the base assembly 250, the upper limb assembly 270, and the lower limb assembly 260 define a passage 211 that can extend in the front-rear direction (the front-rear direction as shown in Fig. 21).
  • the trigger link 251 When the combined anamorphic toy 100 is in the initial state, the trigger link 251 is engaged with the base assembly 250, so that the relative rotation of the base assembly 250 and the lower limb assembly 260 can be restricted.
  • the upper limb assembly 270 is snapped into the base assembly 250 such that rotational deployment of the upper limb assembly 270 can be restricted. As shown in FIG. 13, it is a shape when the combined deformation component 20 is in an initial state.
  • the trigger link 251 is disengaged from the base assembly 250, and under the action of the torsion spring, the base assembly 250 is relatively rotated with respect to the lower limb assembly 260 and the trigger link 251, thereby lower limbs
  • the assembly 260 is disengaged from the base assembly 250.
  • the upper limb assembly 270 is disengaged from the base assembly 250, and the upper limb assembly 270 is rotated and deployed by the torsion spring, and the combined deformation toy 100 is deformed into a shape as shown in FIG. .
  • the base slide 252 is slidable relative to the base assembly 250 in the front-rear direction (the front-rear direction as shown in FIG. 16).
  • a trigger hook 2511 is disposed on the trigger link 251
  • a trigger latching portion 2520 is formed on the base slider 252 to be adapted to the trigger hook 2511.
  • the trigger latching portion 2520 can be formed as Step slot.
  • a mounting hole adapted to the shape of the trigger switch 2111 may be disposed behind the base slider 252, and two rear sides are disposed in the left-right direction (the front-rear and left-right directions as shown in FIG. 18) behind the mounting hole.
  • the first matching slope 2521 is disposed at the rear of the trigger switch 2111 in the left-right direction (the front-rear and left-right directions as shown in FIG. 18), and is provided with two second matching slopes 2112a adapted to the first matching slopes 2521.
  • two limiting slots 2512 are symmetrically disposed on the connecting plates on the left and right sides of the trigger link 251 (the horizontal direction shown in FIG. 23), and the lower limb assembly 260 is symmetrically disposed with two limit positions.
  • the limiting protrusion 261 is matched with the slot 2512.
  • the limit hole 2512 may be disposed on the lower limb assembly 260.
  • the trigger link 251 is provided with a limiting protrusion 261 adapted to the limiting slot 2512. Thereby, the assembly and disengagement of the lower limb assembly 260 and the trigger link 251 are facilitated to facilitate the deformation of the combination toy 100.
  • the deformation assembly 20 further includes a base link 253.
  • the lower end of the base link 253 (up and down direction as shown in FIG. 22) is pivotally coupled to the base assembly 250, and the base link 253
  • the upper end (up and down direction as shown in FIG. 22) is pivotally coupled to the lower limb assembly 260.
  • the base link 253 is pivoted at a position where the base link 253 is connected to the lower limb assembly 260. Thereby, relative rotation between the base assembly 250 and the lower limb assembly 260 can be achieved, and deformation of the combined deformation toy 100 can be realized.
  • the upper limb assembly 270 is provided with an upper limb engaging portion 271
  • the base link 253 is provided with a link engagement portion 2531 adapted to the upper limb engaging portion 271.
  • the upper limb engaging portion 271 and the link engagement portion 2531 are abutted to restrict relative rotation of the upper limb assembly 270.
  • the trigger switch 2111 When the trigger switch 2111 is touched, it should be noted that the trigger switch 2111 can be touched manually or the trigger switch 2111 can be triggered by the trigger assembly 10.
  • the deformation process of the combined deformation toy 100 will be described by taking the trigger component 10 to trigger the trigger switch 2111 as an example.
  • the trigger assembly 10 can enter the channel 211 from the opening at the front end of the channel 211.
  • the first sensing member 110 and the trigger switch 2111 on the trigger assembly 10 are triggered.
  • the second sensing component 2113 senses the trigger.
  • the first sensing component 110 and the second sensing component 2113 are magnetic sensing components
  • the first sensing component 110 attracts the second sensing component 2113, thereby driving the triggering switch 2111 from bottom to top (as shown in the upper and lower directions in FIG. 18).
  • the trigger switch 2111 will push the body slide base slide 252 from front to back during the downward movement.
  • the trigger hook 2511 is disengaged from the trigger engaging portion 2520, as shown in FIG. 22, under the force of the torsion spring, on the left side.
  • the base link 253 (the base link 253 shown in FIG. 22) rotates in the counterclockwise direction and drives the base assembly 250 to rotate, thereby disengaging the base assembly 250 from the lower limb assembly 260.
  • the base link 253 on the right side (the base link 253 shown in FIG. 20) rotates in the clockwise direction, at the base link 253.
  • the upper limb engaging portion 271 is disengaged from the link engagement portion 2531, and the right upper limb assembly 270 is rotated to the right rear side by the torsion spring, and the upper limb assembly 270 on the left side is rotated to the left rear.
  • the expansion is performed so that the combined deformation toy 100 is deformed into a shape as shown in FIG.
  • the deformation component 20 When the deformation component 20 is combined and deformed by the triggering action of the triggering component 10, as the shape shown in FIG.
  • the shape shown in Fig. 14 can also be deformed by manual operation to further deform the combined deformation toy 100 into the shape state shown in Fig. 15.
  • the lower limb assembly 260 is a telescoping member, and the lower limb assembly 260 has a foot portion 233 and a leg portion 234.
  • the partial leg portion 234 can be turned over to lengthen the length of the leg portion 234, and is also provided inside the foot portion 233.
  • the slide rail 2331 can further lengthen the leg portion 234.
  • the upper limb assembly 270 is provided with a launching device 274 for launching the projectile 276.
  • the launching device 274 includes a housing 277, a projectile 276, and a trigger 275.
  • the trigger 275 includes a ring hole 2753, a handcuff portion 2752 and a trigger hook 2751.
  • the projectile 276 is provided with a stop groove 2761 adapted to the trigger hook 2751.
  • the connection position of the projectile 276 and the housing 277 is also provided with a spring. When the trigger 275 is pulled, the projectile 276 fires the projectile 276 out of the housing 277 under the elasticity of the spring, thereby further enhancing the entertainment of the combined deformation toy 100.
  • the upper limb assembly 270 is provided with an upper limb slide 273.
  • the base assembly 250 is provided with an upper limb chute 256 adapted to the upper limb slide 273, and the upper limb chute 256 can be in the front-rear direction (front and rear direction as shown in FIG. 25). extend.
  • the deformation assembly 20 may further include an upper limb stopper 272 which may be two symmetrically disposed in the left-right direction (the left-right direction as shown in FIG. 24).
  • a portion of the upper limb limiting member 272 is located within the base assembly 250.
  • a spring (not shown) is disposed within the base assembly 250. One end of the spring abuts the upper limb limiting member 272 located within the base assembly 250, and the other end of the spring It abuts against the inner wall of the base assembly 250.
  • a portion of the upper limb limiting member 272 located inside the base assembly 250 is provided with a first pushing inclined surface 2721.
  • the base assembly 250 may be provided with a pushing block 254.
  • the pushing block 254 is provided with a first matching inclined surface 2721. Second, push the slope 2541. Another portion of the upper limb stop 272 is located outside of the base assembly 250 and is adapted to abut the upper limb assembly 270 such that sliding of the upper limb assembly 270 within the upper limb chute 256 can be restricted.
  • the portion of the upper limb limiting member 272 is located outside the base assembly 250 and abuts against the upper limb assembly 270 to limit the sliding of the upper limb assembly 270.
  • the push block 254 presses the portion of the upper limb stop 272 outside the base assembly 250 into the base assembly 250, thereby enabling the upper limb
  • the stop member 272 is disengaged from the upper limb assembly 270, and the upper limb assembly 270 is slidable within the upper limb chute 256.
  • the base assembly 250 is provided with a pushing portion 255, and the pushing portion 255 is pivotable.
  • the ground is coupled to the base assembly 250 and the push portion 255 can push the push block 254 to move.
  • a pushing portion 255 is provided at the rear of the base assembly 250 (in the front-rear direction as shown in FIG. 24), and the pushing portion 255 and the base assembly 250 are relatively rotatable.
  • the two pushing protrusions 2551 can push the pushing block 254 to move from the bottom to the top, with the cooperation of the first pushing slope 2721 and the second pushing slope 2541.
  • the push block 254 pushes the upper limb stop 272 to move from left to right, thereby causing the upper limb limiter 272 located outside the base assembly 250.
  • the inside of the base assembly 250 is retracted to disengage the upper limb restraint 272 from the upper limb assembly 270, so that the upper limb restraint 272 can slide within the upper limb chute 256.
  • the lower limb assembly 260 of the deformation assembly 20 can be further elongated by manual operation, and the upper limb assembly 270 is slid down to further Further deformation of the combined anamorphic toy 100 is completed, so that the shape of the combined anamorphic toy 100 is more beautiful, thereby further enhancing the entertainment of the combined anamorphic toy 100.

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Abstract

提供了一种组合变形玩具(100)。组合变形玩具(100)具有初始状态和组合状态，组合变形玩具(100)包括：触发组件(10)，触发组件(10)可变形；变形组件(20)，变形组件(20)内具有通道(211)，通道(211)内具有触发开关(2111)，其中，当组合变形玩具(100)处于初始状态时，触发组件(10)远离触发开关(2111)；当组合变形玩具(100)处于组合状态时，触发组件(10)位于通道(211)内且触动触发开关(2111)，变形组件(20)和触发组件(10)同时变形且组合为一体。触发组件(10)本身可以为具有一定造型的变形玩具，触发组件(10)可单件玩耍。而且，触发组件(10)可以进入到变形组件(20)的通道(211)内并触动触发开关(2111)，与变形组件(20)组合变形为其他造型的组合变形玩具，操作简单，而且增强了玩具的娱乐性。

Description

组合变形玩具 技术领域
本发明涉及玩具技术领域，具体而言，尤其涉及一种组合变形玩具。
背景技术
组合变形玩具因其具有多变的造型、操控性强等特点，深得人们的喜爱。相关技术中，组合变形玩具的组合变形需要手动进行组装造型，操作繁琐不便。而且，相关技术中，组合变形玩具中的部分组件只能承担整体玩具的部件作用，单独的部分部件不具有可玩性，从而大大降低了组合变形玩具的娱乐性。
发明内容
本发明旨在至少在一定程度上解决相关技术中的技术问题之一。为此，本发明提出一种组合变形玩具，所述组合变形玩具具有操作简单、娱乐性强的优点。
根据本发明的组合变形玩具，所述组合变形玩具具有初始状态和组合状态，所述组合变形玩具包括：触发组件，所述触发组件可变形；变形组件，所述变形组件内具有通道，所述通道内具有触发开关，其中，当所述组合变形玩具处于所述初始状态时，所述触发组件远离所述触发开关；当所述组合变形玩具处于所述组合状态时，所述触发组件位于所述通道内且触动所述触发开关，所述变形组件和所述触发组件同时变形且组合为一体。
根据本发明实施例的组合变形玩具，通过设置触发组件，触发组件本身可以为具有一定造型的变形玩具，触发组件可单件玩耍。而且，触发组件可以进入到变形组件的通道内并触动触发开关，与变形组件组合变形为其他造型的组合变形玩具，操作简单，而且增强了玩具的娱乐性。
在本发明的一些实施例中，所述触发组件上设有第一感应件，所述触发开关上设有第二感应件，当所述第一感应件与所述第二感应件彼此靠近时，所述触发开关被触动,所述第一感应件和所述第二感应件中的至少一个为磁性件。由此，便于第一感应件与第二感应件之间的感应触动，而且生产陈本较低。
根据本发明的一个实施例，所述变形组件上设有滑板，所述滑板上设有第一配合斜 面，所述触发开关上设有第二配合斜面，当所述触发组件位于所述通道内且触动所述触发开关时，所述第二配合斜面与所述第一配合斜面配合，所述触发开关沿第一方向移动，所述滑板沿第二方向移动，所述第一方向与所述第二方向垂直，所述组合变形玩具变形。
根据本发明的一个实施例，所述变形组件包括：躯体组件，所述触发开关设在所述躯体组件上，所述躯体组件上设有躯体滑板，所述躯体滑板与所述躯体组件可移动地连接，所述躯体滑板上设有滑动限位部和滑动驱动部；头部组件，所述头部组件可枢转地设在所述躯体组件上，所述头部组件上设有止挡凸块和常驱动所述头部组件转动的头部扭簧；头部连接件，所述头部连接件可枢转地设在所述躯体组件上，所述头部连接件的一端与所述止挡凸块相抵以止挡所述头部组件转动，所述头部连接件的另一端与所述滑动驱动部相抵；和肢体组件，所述肢体组件可枢转地设在所述躯体组件上，所述肢体组件上设有滑动止挡部，其中，所述躯体组件、所述头部组件和所述肢体组件限定出所述通道，当所述组合变形玩具处于初始状态时，所述滑动止挡部与所述滑动限位部止抵；当所组合变形玩具处于组合状态时，所述触发开关驱动所述躯体滑板移动，所述滑动止挡部脱离所述滑动限位部。由此，可以通过触动触发开关使组合变形玩具从初始状态组合变形为具有一定形态造型的组合变形玩具。
进一步地，所述肢体组件包括：后肢组件，所述后肢组件可枢转地与所述躯体组件连接，所述后肢组件上设有后肢凸块；前肢组件，所述前肢组件可枢转地与所述躯体组件连接，所述前肢组件上设有前肢卡勾；和肢体连杆，所述肢体连杆的一端与所述后肢凸块相抵，所述肢体连杆的另一端与所述前肢卡勾卡接，当所述组合变形玩具处于组合状态时，所述肢体连杆的另一端与所述前肢卡勾脱离。由此，便于组合变形玩具不同部件之间的脱离变形。
在本发明的一些实施例中，所述躯体滑板上设有第一配合斜面，所述触发开关上设有第二配合斜面，当所述触发组件位于所述通道内且触动所述触发开关时，所述第二配合斜面与所述第一配合斜面配合，所述触发开关沿第一方向移动，所述躯体滑板沿第二方向移动，所述第一方向与所述第二方向垂直，所述滑动止挡部脱离所述滑动限位部。由此，可以通过触发开关带动躯体滑板的运动，进而控制组合变形玩具的组合变形。
根据本发明的一些实施例，所述变形组件包括：底座组件，所述触发开关设在所述底座组件上；触发连杆，所述触发连杆可枢转地设在所述底座组件上，所述触发连杆适于与所述底座组件卡接；下肢组件，所述下肢组件相对于所述底座组件可枢转，所述触发连杆相对于所述下肢组件可运动；上肢组件，所述上肢组件可枢转地设在所述底座组件上，且所述上肢组件适于与所述底座组件卡接，其中，所述底座组件、所述上肢组件 和所述下肢组件限定出所述通道，当所述组合变形玩具处于初始状态时，所述触发连杆与所述底座组件卡接，所述上肢组件与所述底座组件卡接；当所述组合变形玩具从所述初始状态切换至组合状态时，所述触发连杆与所述底座组件脱离，所述上肢组件与所述底座组件卡接脱离。由此，可以通过触动触发开关使组合变形玩具从初始状态组合变形为具有一定形态造型的组合变形玩具。
进一步地，所述底座组件上设有底座滑板，所述底座滑板与所述底座组件可移动地连接，所述底座滑板上设有第一匹配斜面，所述触发开关上设有第二匹配斜面，当所述触发组件位于所述通道内且触动所述触发开关时，所述第二匹配斜面与所述第一匹配斜面配合，所述触发开关沿第一方向移动，所述底座滑板沿第二方向移动，所述第一方向与所述第二方向垂直，所述触发连杆与所述底座滑板脱离。由此，可以通过触发开关带动底座滑板的运动，进而控制组合变形玩具的组合变形。
可选地，所述底座滑板与所述触发连杆中的一个上设有触发卡勾，另一个上设有适于与所述触发卡勾卡接的触发卡接部。由此，便于底座滑板与触发连杆的组装和脱离。
在本发明的一些实施例中，所述触发连杆与所述下肢组件中的一个上设有限位槽，另一个上设有与所述限位槽相适配的限位凸块。由此，便于触发连杆与下肢组件的加工，从而可以降低生产成本。
可选地，所述下肢组件为可伸缩件。由此，可以伸长或缩短下肢组件，从而增强了组合变形玩具的娱乐性。
根据本发明的一些实施例，所述变形组件还包括：底座连杆，所述底座连杆的一端与所述底座组件可枢转地连接，所述底座连杆的另一端与所述下肢组件可枢转地连接，所述上肢组件上设有上肢卡合部，所述底座连杆上设有与所述上肢卡合部相适配的连杆卡合部。由此，可以通过上肢卡合部与连杆卡合部止挡上肢组件与底座组件发生相对转动。
在本发明的一些实施例中，所述上肢组件上设有上肢滑块，所述底座组件上设有与所述上肢滑块相适配的上肢滑槽，所述变形组件还包括上肢限位件，所述上肢限位件的一部分位于所述底座组件内，所述上肢限位件的位于所述底座组件内部的部分上设有第一推动斜面，所述上肢限位件的另一部分位于所述底座组件外且适于与所述上肢组件相抵，所述底座组件上设有推动块，所述推动块上设有与所述第一推动斜面相适配的第二推动斜面。由此，上肢组件可以通过上肢滑槽上下滑动，而且可以通过推动块控制上肢限位件以限制和解放上肢组件使上肢组件可以滑动。
可选地，所述底座组件上设有推动部，所述推动部可枢转地与所述底座组件连接， 且所述推动部适于推动所述推动块移动。由此，可以通过推动部驱动推动块的运动。
根据本发明的一些实施例，所述触发组件为变形玩具汽车或公仔，当所述触发组件为所述变形玩具汽车时，所述变形玩具汽车为发条车或电车动力车，所述变形玩具汽车可以手动放进所述通道内，也可以利用发射装置发射进所述通道内。由此，可以使触发组件本身具有较高的可玩性和娱乐性。
附图说明
本发明的上述和/或附加的方面和优点从结合下面附图对实施例的描述中将变得明显和容易理解，其中：
图1是根据本发明实施例的组合变形玩具的触发组件的结构示意图；
图2是根据本发明实施例的组合变形玩具的触发组件变形后的结构示意图；
图3是根据本发明实施例的组合变形玩具的局部结构示意图；
图4是根据本发明实施例的组合变形玩具的局部结构示意图；
图5是图4中所示的A部分的局部结构放大图；
图6是根据本发明实施例的组合变形玩具的变形组件的结构示意图；
图7是根据本发明实施例的组合变形玩具的变形组件的局部结构示意图；
图8是根据本发明实施例的组合变形玩具的变形组件的局部结构示意图；
图9是根据本发明实施例的组合变形玩具的结构示意图；
图10是根据本发明实施例的组合变形玩具的局部结构示意图；
图11是根据本发明实施例的组合变形玩具的局部结构爆炸图；
图12是根据本发明实施例的组合变形玩具的局部结构爆炸图；
图10是根据本发明实施例的组合变形玩具的结构示意图；
图13是根据本发明实施例的组合变形玩具的结构示意图；
图14是根据本发明实施例的组合变形玩具处于组合状态时的结构示意图；
图15是根据本发明实施例的组合变形玩具处于组合状态时的结构示意图；
图16是根据本发明实施例的组合变形玩具的变形组件的局部结构爆炸图；
图17是根据本发明实施例的组合变形玩具的触发连杆的结构示意图；
图18是根据本发明实施例的组合变形玩具的局部结构爆炸图；
图19是根据本发明实施例的组合变形玩具的局部结构示意图；
图20是图19中圈示的B部分的局部结构放大图；
图21是根据本发明实施例的组合变形玩具的变形组件的局部结构示意图；
图22是图21中圈示的C部分的局部结构放大图；
图23是根据本发明实施例的组合变形玩具的局部结构爆炸图；
图24是根据本发明实施例的组合变形玩具的局部结构爆炸图；
图25是根据本发明实施例的组合变形玩具的变形组件的局部结构示意图；
图26是根据本发明实施例的组合变形玩具的下肢组件的局部结构示意图；
图27是根据本发明实施例的组合变形玩具的下肢组件的局部结构示意图；
图28是根据本发明实施例的组合变形玩具的炮弹发射装置的局部结构示意图。
附图标记：
组合变形玩具100，
触发组件10，变形玩具汽车10a，第一感应件110，顶棚120，车门121，顶棚挂钩122，底盘130，底盘挂钩131，
变形组件20，
躯体组件210，通道211，触发开关2111，第二配合斜面2112，第二匹配斜面2112a，第二感应件2113，躯体滑板212，第一配合斜面2120，滑动限位部2121，滑动驱动部2122，头部连接件213，弹射装置214，按压部215，安装环2151，弹射限位部2152，弹射件216，弹射凹槽2161，
头部组件220，止挡凸块221，
肢体组件230，后肢组件231，滑动止挡部2311，后肢凸块2312，前肢组件232，前肢卡勾2321，脚部233，滑轨2331，腿部234，
肢体连杆240，
底座组件250，触发连杆251，触发卡勾2511，限位槽2512，底座滑板252，触发卡接部2520，第一匹配斜面2521，底座连杆253，连杆卡合部2531，推动块254，第二推动斜面2541，推动部255，上肢滑槽256，
下肢组件260，限位凸块261，
上肢组件270，上肢卡合部271，上肢限位件272，第一推动斜面2721，上肢滑块273，发射装置274，扳机275，扳机卡勾2751，手掰部2752，环孔2753，炮弹276，止挡凹槽2761，壳体277。
具体实施方式
下面详细描述本发明的实施例，所述实施例的示例在附图中示出，其中自始至终相同或类似的标号表示相同或类似的元件或具有相同或类似功能的元件。下面通过参考附 图描述的实施例是示例性的，仅用于解释本发明，而不能理解为对本发明的限制。
在本发明的描述中，需要理解的是，术语“中心”“长度”、“宽度”、“厚度”、“上”、“下”、“前”、“后”、“左”、“右”、“竖直”、“水平”、“顶”、“底”“内”、“外”、“顺时针”、“逆时针”等指示的方位或位置关系为基于附图所示的方位或位置关系，仅是为了便于描述本发明和简化描述，而不是指示或暗示所指的装置或元件必须具有特定的方位、以特定的方位构造和操作，因此不能理解为对本发明的限制。此外，限定有“第一”、“第二”的特征可以明示或者隐含地包括一个或者更多个该特征。在本发明的描述中，除非另有说明，“多个”的含义是两个或两个以上。
下面参考图1-图28描述根据本发明实施例的组合变形玩具100。
如图1-图28所示，根据本发明实施例的组合变形玩具100，组合变形玩具100具有初始状态和组合状态，组合变形玩具100包括：触发组件10和变形组件20。
具体而言，触发组件10可变形。例如，图1和图2所示，触发组件10可以为变形玩具汽车10a，触发组件10可以由图1所示形状变化为图2中所示的形状。由此，触发组件10不仅本身可以作为一件玩具进行单独玩耍，而且触发组件10经过变形后可以变形为组合变形玩具100的组成部分，并与变形组件20组合变形成特定造型(如狼型，变形金刚等)的玩具进行玩耍，从而增强了组合变形玩具100的娱乐性。值得注意的是，变形玩具汽车10a仅是触发组件10的一个示例说明，触发组件10还可以为公仔或其他可移动玩具。
变形组件20内具有通道211，通道211内具有触发开关2111。例如，图6和图8所示，变形组件20内部可以设置有沿前后方向(如图6和图8中所示的前后方向)延伸的通道211，以便于触发组件10进入到变形组件20完成组合变形。通道211内部可以设置有触发开关2111，触发组件10可以进入到通道211内并触动触发开关2111，实现组合变形玩具100的组合变形。
其中，当组合变形玩具100处于初始状态时，如图6和图13所示，触发组件10远离触发开关2111，即此时触发组件10未触动触发开关2111；当组合变形玩具100处于组合状态时，如图9和图14所示，触发组件10位于通道211内且触动触发开关2111后，变形组件20和触发组件10同时变形且组合为一体，此时，组合变形玩具100可以组合变形，例如，组合变形玩具100可以变形出狼型(如图9中的示例所示)或变形金刚型(如图14中的示例所示)。当然，组合变形玩具100在组合状态时的形状并不限于狼型和变形金刚型，还可以是其他形状。
根据本发明实施例的组合变形玩具100，通过设置触发组件10，触发组件10本身可 以为具有一定造型的变形玩具，触发组件10可单件玩耍。而且，触发组件10可以进入到变形组件20的通道211内并触动触发开关2111，与变形组件20组合变形为其他造型的组合变形玩具100，操作简单，而且增强了玩具的娱乐性。
根据本发明的一些实施例，所述变形组件20上可以设有滑板，滑板上可以设有第一配合斜面2120，触发开关2111上设有第二配合斜面2112。当触发组件10位于通道211内且触动触发开关2111时，第二配合斜面2112与第一配合斜面2120配合，触发开关2111沿第一方向移动，滑板沿第二方向移动，第一方向与第二方向垂直，变形组件20变形。通过第二配合斜面2112与第一配合斜面2120的配合可以使变形组件20变形，由此可以提升组合变形玩具100变形灵活度和趣味性。
根据本发明的一些实施例，触发组件10为变形玩具汽车10a或公仔，如图1所示，触发组件10为变形玩具汽车10a，当触发组件10为变形玩具汽车10a时，变形玩具汽车10a可以为发条车或电车动力车，变形玩具汽车10a可以手动放进通道211内，也可以利用发射装置274发射进通道211内。
在本发明的一些实施例中，如图1、图8和图10所示，触发组件10上设有第一感应件110，触发开关2111上设有第二感应件2113，当第一感应件110与第二感应件2113彼此靠近时，触发开关2111被触动。可选地，第一感应件110和第二感应件2113中的至少一个为磁性件。也就是说，第一感应件110可以为磁性件，如磁铁；或第二感应件2113为磁性件；当然还可以是第一感应件110和第二感应件2113均为磁性件。
需要说明的是，如图1和图2所示，触发组件10可以为变形玩具汽车10a，在变形玩具汽车10a的前下方(如图1和图2中所示的上下前后方向)设置有第一感应件110，第一感应件110为磁性件。当用磁铁或铁质物体触碰第一感应件110时，变形玩具汽车10a发生形变。如图3-图5所示，变形玩具汽车10a的顶棚120上设置有顶棚挂钩122，底盘130上设置有与顶棚挂钩122相适配的底盘挂钩131。如图1-图5所示，顶棚120与底盘130的前端(如图1-图5中所示的前后方向)通过顶棚挂钩122与底盘挂钩131固定连接，顶棚120的后端与底盘130通过枢转轴可枢转连接，且在枢转轴的位置设置有扭簧(图中未示出)。如图5所示，底盘挂钩131的下方与第一感应件110连接，当第一感应件110被触动时，例如当用铁质物体触碰第一感应件110时，第一感应件110带动底盘挂钩131向后下方转动，从而使顶棚挂钩122与底盘挂钩131脱离，此时，如图2所示，顶棚120在扭簧的作用力下沿图2中箭头F1所示的方向向后上(如图2中所示的上下前后方向)方旋转打开。
如图2所示，在顶棚120的左右(如图2中所示的左右方向)两侧可枢转地连接设 置有两个车门121，两个车门121与顶棚120的连接位置同样设置有扭簧(图中未示出)，当顶棚120沿箭头F1所示的方向翻转打开的同时，顶棚120左右两侧(如图2中所示的左右方向)的车门121沿箭头F2所示的方向旋转打开，变形玩具汽车10a最终变形为图2中所示的状态造型。
根据本发明的一个实施例，如图6-图12所示，组合变形玩具100可以包括：躯体组件210、头部组件220、头部连接件213和肢体组件230。
其中，如图8所示，触发开关2111设在躯体组件210上，触发开关2111可以设置在躯体组件210的底部位置(如图8中所示的后下端位置)。躯体组件210上设有躯体滑板212，如图8所示，躯体滑板212设置在躯体组件210的下方(如图8中所示的上下方向)。躯体滑板212与躯体组件210可移动地连接，如图8所示，躯体滑板212可以沿前后方向滑动(如图8中所示的前后方向)。躯体滑板212上设有滑动限位部2121和滑动驱动部2122，如图11所示，在躯体滑板212的后端沿左右方向(如图11中所示的前后左右方向)间隔设置有两个滑动限位部2121，在躯体滑板212的前端沿左右方向(如图11中所示的前后左右方向)间隔设置有两个滑动驱动部2122。
如图7和图9所示，头部组件220可枢转地设在躯体组件210上，头部组件220位于躯体组件210的上方(如图7和图9中所示的上下方向)，头部组件220上设有止挡凸块221和常驱动头部组件220转动的头部扭簧(图中未示出)，止挡凸块221位于头部组件220中部位置，止挡凸块221在头部的左右两侧(如图9中所示的左右方向)相对设置有为两个，头部扭簧(图中未示出)设置在头部组件220与躯体组件210的连接位置处。
如图7所示，头部连接件213可枢转地设在躯体组件210上，头部连接件213的一端(如图7中所示的头部连接件213的上端)与止挡凸块221相抵以止挡头部组件220转动，头部连接件213的另一端(如图7中所示的头部连接件213的下端)与滑动驱动部2122相抵。
如图6和图10所示，肢体组件230可枢转地设在躯体组件210上，肢体组件230上设有滑动止挡部2311，其中，躯体组件210、头部组件220和肢体组件230限定出通道211。
当组合变形玩具100处于初始状态时，滑动止挡部2311与滑动限位部2121止抵，此时，变形组件20处于图6中所示的造型；当所组合变形玩具100处于组合状态时，触发开关2111驱动躯体滑板212移动，滑动止挡部2311脱离滑动限位部2121，此时变形玩具组合变形为图9所示的造型。
可选地，肢体组件230上可以设有肢体弹性件(图中未示出)以常推动肢体组件230转动。进一步地，如图7所示，肢体组件230可以包括：后肢组件231、前肢组件232和肢体连杆240。其中，后肢组件231可枢转地与躯体组件210连接，后肢组件231上设有后肢凸块2312，后肢组件231与躯体组件210的连接处可以设置有扭簧(图中未示出)，扭簧可以驱动后肢组件231从图7所示的状态旋转打开至图9中所示的伸展状态。
前肢组件232可枢转地与躯体组件210连接，前肢组件232上设有前肢卡勾2321，前肢组件232与躯体组件210的连接处同样可以设置扭簧(图中未示出)，在扭簧的扭转作用力下，前肢组件232可以从图7中所示的状态旋转打开至图9中所示的伸展打开状态。肢体连杆240的一端与后肢凸块2312相抵，肢体连杆240的另一端与前肢卡勾2321卡接。如图7所示，可以是肢体连杆240的后端(如图7中所示的前后方向)与后肢凸块2312相抵，后肢凸块2312与肢体连杆240相抵端的端面可以为斜面，肢体连杆240的前端(如图7中所示的前后方向)具有弧形面且与前肢卡勾2321卡接，前肢卡勾2321呈L型设计。肢体连杆240整体可以呈V型，在肢体连杆240的下端(如图7中所示的上下方向)设置有枢转孔，肢体连杆240可以通过枢转轴可枢转地连接在躯体组件210上，枢转轴上可以设置有扭簧(图中未示出)，以常驱动肢体连杆240的前端与前肢卡勾2321卡接。
需要说明的是，当变形组件20处于初始状态位置时，结合图7和图10所示，滑动限位部2121与滑动止挡部2311相止抵(需要注意的是，图10中所示的为滑动限位部2121与滑动止挡部2311脱离时的状态)，从而可以限制后肢组件231在扭簧的作用下旋转展开。此时，后肢凸块2312与肢体连杆240的后端相抵，肢体连杆240的前端与前肢卡勾2321卡接，由此，可以限制前肢组件232在扭簧的作用下旋转展开。
在本发明的一些实施例中，如图11所示，躯体滑板212上设有第一配合斜面2120，触发开关2111上设有第二配合斜面2112，当触发组件10位于通道211内且触动触发开关2111时，第二配合斜面2112与第一配合斜面2120配合，触发开关2111沿第一方向移动，躯体滑板212沿第二方向移动，第一方向与第二方向垂直，滑动止挡部2311脱离滑动限位部2121。
结合图11的爆炸图所示，躯体滑板212和触发开关2111均可以为轴对称形状设计。在躯体滑板212的后方设置有与触发开关2111形状相适配的安装孔，触发开关2111可以装配至安装孔内。在安装孔后方壁面的左右两侧(如图11中所示的前后左右方向)对称设置有两个第一配合斜面2120，相应地，在触发开关2111后方沿左右方向间隔设置有两个对称的第一配合斜面2120。当触发开关2111未被触动时，第一配合斜面2120 与第二配合斜面2112贴合。
需要说明的是，可以通过手动触动触发开关2111，也可以通过触发组件10触动触发开关2111。此处，以触发组件10触动触发开关2111为例，对组合变形玩具100的变形过程进行描述。
触发组件10可以从变形组件20通道211前端的开口进入到通道211内，当触发组件10进入到通道211内的相应位置时，触发组件10上的第一感应件110与通道211底部的触发开关2111感应触发。例如，第一感应件110和第二感应件2113均为磁性感应件时，第一感应件110吸引第二感应件2113，从而驱动触发开关2111由下向上(如图11中所示的上下方向)移动，在第一配合斜面2120和第二配合斜面2112的配合作用下，触发开关2111由下向上移动的过程中会推动躯体滑板212由前向后移动。
如图10所示，当躯体滑板212由前向后移动时，滑动限位部2121与滑动止挡部2311脱离，结合图7所示，当滑动限位部2121与滑动止挡部2311脱离后，后肢组件231在扭簧的作用下旋转展开，后肢组件231在旋转展开的过程中，后肢凸块2312随后肢组件231沿逆时针方向向下压动肢体连杆240，从而驱动肢体连杆240绕下端的枢转轴沿顺时针方向转动，使肢体连杆240的前端与前肢卡勾2321脱离，前肢卡勾2321在扭簧的作用下旋转展开。
另一方面，结合图7和图10所示，当躯体滑板212由前向后(如图10中所示的前后方向)滑动时，滑动驱动部2122驱动头部连接件213的下端向后移动，从而使头部连接件213围绕中部的枢转轴沿逆时针方向转动，使头部连接件213的上端与止挡凸块221脱离，头部组件220在扭簧的作用下沿逆时针方向旋转，向前伸展出头部组件220。
需要说明的是，当触发组件10第一感应件110与第二感应件2113感应触动时，触发组件10也发生相应变形，顶棚挂钩122与底盘挂钩131脱离，在扭簧的作用下，顶棚120从头部组件220的位置旋转伸出通道211，由于车门121与通道211内壁相抵，车门121未变形至打开状态，最后组合变形玩具100组合形变为图9所示狼的形态。可以理解的是，狼的形态只是本发明的一个示例说明，组合变形玩具100还可以组合变形为狮子、老虎等其他形态。
在本发明的一些实施例中，变形组件20还可以包括弹射装置214，弹射装置214设在变形组件20上以驱动触发组件10滑出通道211。如图10所示，弹射装置214可以设置在变形组件20的后方(如图10中所示的前后方向)。
进一步地，如图12所示，弹射装置214可以包括：按压部215和弹射件216。其中，按压部215设在变形组件20内且按压部215的部分外表面露出变形组件20，由此，便 于按压按压部215。弹射件216设在变形组件20内，弹射件216穿设在按压部215上，且弹射件216在锁止位置和释放位置之间可切换。当弹射件216位于锁止位置时，弹射件216与按压件卡接，从而可以止挡限定弹射件216的移动；当弹射件216从锁止位置移动至释放位置时，弹射件216朝向通道211内移动，且弹射件216的一端与触发组件10相抵以驱动触发组件10移出通道211外。
可选地，如图12所示，按压部215的位于变形组件20内的部分具有安装环2151，安装环2151位于按压部215的下方(如图12中所示的上下方向)。安装环2151的内周壁上设有弹射限位部2152，如图12所示，弹射限位部2152位于安装环2151下方的内周壁上，弹射限位部2152形成为倾斜的凸台。相应地，弹射件216下方(如图12中所示的上下方向)设有与弹射限位部2152相适配的弹射凹槽2161。
需要说明的是，在弹射件216内可以设置有弹簧(图中未示出)，当弹射凹槽2161与弹射限位部2152卡合时，弹簧处于挤压状态。当向下按压按压部215时，弹射限位部2152与弹射凹槽2161脱离，在弹簧的弹性作用力下，弹射件216向前弹出，以将触发组件10弹出变形组件20。
根据本发明的一些实施例，如图13所示，变形组件20可以包括：底座组件250、触发连杆251、下肢组件260和上肢组件270。
其中，如图16所示，触发开关2111设在底座组件250上，触发开关2111可以位于底座组件250的后方(如图16中所示的前后方向)位置。结合图13和图16所示，触发连杆251可枢转地设在底座组件250上，如图17所示，触发连杆251可以形成为呈U型的轴对称结构，触发连杆251的左右两端具有沿上下方向(如图17中所示的上下方向)延伸的连接板，连接板的上端设置有枢转孔，触发连杆251通过枢转孔可枢转地连接到底座组件250上，在枢转孔的位置处设置有强力扭簧(图中未示出)以驱动触发连杆251与底座组件250间的相对转动。触发连杆251适于与底座组件250卡接，由此，便于触发连杆251与底座组件250的装配和脱离，以便于组合变形玩具100的组合变形。
下肢组件260相对于底座组件250可枢转，下肢组件260与底座组件250的连接处可以设置有扭簧(图中未示出)，扭簧常驱动底座组件250与下肢组件260发生相对转动，以进行伸展变形。触发连杆251相对于下肢组件260可运动，当触发连杆251与底座组件250脱离卡接时，触发组件10与下肢组件260可以相对转动。
上肢组件270可枢转地设在底座组件250上，上肢组件270与底座组件250的连接位置设置有扭簧(图中未示出)，以常驱动上肢组件270转动至展开状态。上肢组件270适于与底座组件250卡接，以限制上肢组件270的转动。如图21所示，底座组件250、 上肢组件270和下肢组件260限定出通道211，通道211可以沿前后方向(如图21中所示的前后方向)延伸。
当组合变形玩具100处于初始状态时，触发连杆251与底座组件250卡接，从而可以限制底座组件250与下肢组件260发生相对转动。上肢组件270与底座组件250卡接，从而可以限制上肢组件270发生转动展开。如图13所示，为组合变形组件20位于初始状态时的形状。当组合变形玩具100从初始状态切换至组合状态时，触发连杆251与底座组件250脱离，在扭簧的作用下，底座组件250相对于下肢组件260和触发连杆251发生相对转动，从而下肢组件260与底座组件250发生脱离变形。当下肢组件260与底座组件250发生脱离时，上肢组件270与底座组件250卡接脱离，且上肢组件270在扭簧的作用下旋转展开，组合变形玩具100变形为如图14中所示的形状。
进一步地，底座组件250上设有底座滑板252，底座滑板252与底座组件250可移动地连接。如图16所示，底座滑板252可以相对于底座组件250沿前后方向(如图16中所示的前后方向)滑动。可选地，底座滑板252与触发连杆251中的一个上设有触发卡勾2511，另一个上设有适于与触发卡勾2511卡接的触发卡接部2520。例如图18中的示例所示，在触发连杆251上设置有触发卡勾2511，在底座滑板252上设置有与触发卡勾2511相适配的触发卡接部2520，触发卡接部2520可以形成为台阶槽；当然也可以是在底座滑板252上设置有触发卡勾2511，在触发连杆251上设置有与触发卡勾2511相适配的触发卡接部2520。由此，可以通过触发卡勾2511和触发卡接部2520之间的卡接连接，快速高效地实现触发连杆251与底座组件250间的固定装配，而且在组合变形玩具100从初始状态变化至组合状态时，卡接结构便于各部件之间的脱离变形。
如图18所示，底座滑板252后方可以设置有与触发开关2111形状相适配的安装孔，在安装孔的后方沿左右方向(如图18中所示的前后左右方向)间隔设置有两个第一匹配斜面2521，触发开关2111的后方沿左右方向(如图18中所示的前后左右方向)间隔设置有两个与第一匹配斜面2521相适配的第二匹配斜面2112a。由此，可以通过第一匹配斜面2521与第二匹配斜面2112a之间的配合，利用触发开关2111驱动底座滑板252的移动。
在本发明的一些实施例中，触发连杆251与下肢组件260中的一个上设有限位槽2512，另一个上设有与限位槽2512相适配的限位凸块261。也就是说，可以在触发连杆251上设置限位槽2512，在下肢组件260上设置有与限位槽2512相适配的限位凸块261，例如图23中的示例所示，触发连杆251左右两侧(如图23中所示的左右方向)的连接板上对称设置有两个限位槽2512，下肢组件260上对称设置有与两个限位槽2512相适 配的限位凸块261，当组合变形玩具100组件处于初始状态时，限位凸块261扣合在限位槽2512内；当然也可以是在下肢组件260上设置有限位槽2512，在触发连杆251上设置有与限位槽2512相适配的限位凸块261。由此，便于下肢组件260与触发连杆251的装配和脱离，以便于组合变形玩具100的变形。
根据本发明的一些实施例，如图19-图22所示，变形组件20还可以包括底座连杆253，底座连杆253的一端(如图22中所示的底座连杆253的下端)与底座组件250可枢转地连接，底座连杆253的另一端(如图22中所示的底座连杆253的上端)与下肢组件260可枢转地连接。底座连杆253可以以底座连杆253与下肢组件260的连接位置为圆心转动，由此，可以实现底座组件250与下肢组件260之间相对转动，实现组合变形玩具100的变形。
如图19、图20和图22所示，上肢组件270上设有上肢卡合部271，底座连杆253上设有与上肢卡合部271相适配的连杆卡合部2531。当组合变形玩具100处于初始状态位置时，上肢卡合部271与连杆卡合部2531的止抵以抵限制上肢组件270发生相对转动。
当触动触发开关2111时，在此需要说明的是，可以通过手动触动触发开关2111，也可以通过触发组件10触动触发开关2111。此处，以触发组件10触动触发开关2111为例，对组合变形玩具100的变形过程进行描述。
如图19所示，触发组件10可以从通道211前端的开口进入到通道211内，当触发组件10进入到通道211内的相应位置时，触发组件10上的第一感应件110与触发开关2111的第二感应件2113感应触发。例如，第一感应件110和第二感应件2113均为磁性感应件时，第一感应件110吸引第二感应件2113，从而驱动触发开关2111由下向上(如图18中所示的上下方向)移动，在第一匹配斜面2521和第二匹配斜面2112a的配合作用下，触发开关2111由下向上移动的过程中会推动底座滑板252由前向后移动。
结合图18中的爆炸图所示，当底座滑板252由前向后移动时，触发卡勾2511与触发卡接部2520脱离，结合图22所示，在扭簧的作用力下，位于左侧的底座连杆253(如图22中所示的底座连杆253)沿逆时针方向旋转并带动底座组件250转动，从而使底座组件250与下肢组件260脱离伸展变形。结合图19和图20所示，在扭簧的作用力下，位于右侧的底座连杆253(如图20中所示的底座连杆253)沿顺时针方向旋转，在底座连杆253的旋转过程中，上肢卡合部271与连杆卡合部2531脱离卡接，在扭簧的作用下，位于右侧上肢组件270向右后方旋转展开，位于左侧的上肢组件270向左后方旋转展开，从而使组合变形玩具100变形为如图14所示的形状。
在本发明的一些实施例中，当变形组件20在触发组件10的触发作用发生组合变形后，如由图13所示的形状变形为图14所示的形状，还可以经过手动操作变形，使组合变形玩具100进一步变形为图15所示的形状状态。
可选地，下肢组件260为可伸缩件。如图26和图27所示，下肢组件260具有脚部233和腿部234，部分腿部234可以翻转从而加长腿部234长度，在脚部233内部还设置有滑轨2331，可以进一步对腿部234进行拉长。
在本发明的一些实施例中，如图13、图14、和图28所示，上肢组件270上可以设置有用于发射炮弹276的发射装置274。如图28所示，发射装置274包括壳体277、炮弹276和扳机275。其中，扳机275包括环孔2753、手掰部2752和扳机卡勾2751，炮弹276上设置有与扳机卡勾2751相适配的止挡凹槽2761。炮弹276与壳体277的连接位置还设置有弹簧(图中未示出)，当扣动扳机275时，炮弹276在弹簧的弹性作用下将炮弹276发射出壳体277，从而进一步增强了组合变形玩具100的娱乐性。
根据本发明的一些实施例，如图25所示，上肢组件270上设有上肢滑块273，底座组件250上设有与上肢滑块273相适配的上肢滑槽256，上肢滑槽256可以沿前后方向(如图25中所示的前后方向)延伸。
如图24所示，变形组件20还可以包括上肢限位件272，上肢限位件272可以为沿左右方向(如图24中所示的左右方向)间隔对称设置的两个。上肢限位件272的一部分位于底座组件250内，底座组件250内可以设置有弹簧(图中未示出)，弹簧的一端与位于底座组件250内部分的上肢限位件272相抵，弹簧的另一端与底座组件250内壁相抵。上肢限位件272的位于底座组件250内部的部分上设有第一推动斜面2721，底座组件250上可以设有推动块254，推动块254上设有与第一推动斜面2721相适配的第二推动斜面2541。上肢限位件272的另一部分位于底座组件250外且适于与上肢组件270相抵，从而可以限制上肢组件270在上肢滑槽256内的滑动。
需要说明的是，在弹簧的作用力下，上肢限位件272的部分位于底座组件250外，并与上肢组件270相抵以限制上肢组件270的滑动。当由下向上(如图24中所示的上下方向)按压推动块254时，推动块254会将上肢限位件272位于底座组件250外侧的部分挤压进底座组件250内，从而可以使上肢限位件272与上肢组件270脱离止抵，进而上肢组件270可以在上肢滑槽256内滑动。
例如，以图24爆炸图中右侧(如图24中所示的左右方向)的推动块254和上肢限位件272为例，在第一推动斜面2721与第二推动斜面2541的配合下，当由下向上(如图24中所示的上下方向)按动推动块254时，推动块254推动上肢限位件272由左向 右(如图24中所示的左右方向)移动，从而使位于底座组件250外部的上肢限位件272缩进底座组件250内部，使上肢限位件272与上肢组件270脱离止抵，从而上肢限位件272可以在上肢滑槽256内滑动。
可选地，底座组件250上设置有推动部255，推动部255可枢转地与底座组件250连接，且推动部255适于推动推动块254移动。如图24所示，在底座组件250的后方(如图24中所示的前后方向)设置有推动部255，推动部255与底座组件250之间可相对转动。在推动部255的下方的端面上，沿左右方向(如图24中所示的前后左右方向)间隔设置有两个推动凸起2551，可以理解的是，当推动部255向底座组件250下方旋转时，两个推动凸起2551可以推动推动块254由下向上移动，从而驱动上肢限位件272锁紧底座组件250内部。
下面参照图1-图28以两个具体的实施例详细描述根据本发明实施例的组合变形玩具100。值得理解的是，下述描述仅是示例性描述，而不是对本发明的具体限制。
实施例一：
如图1-图12所示，组合变形玩具100具有初始状态(如图6中所示的状态)和组合状态(如图9中所示的状态)，组合变形玩具100包括：触发组件10和变形组件20。
其中，触发组件10可变形。例如，图1和图2所示，触发组件10可以为变形玩具汽车10a，触发组件10可以由图1所示形状变化为图2中所示的形状。
图6和图8所示，变形组件20内部可以设置有沿前后方向(如图6和图8中所示的前后方向)延伸的通道211，以便于触发组件10进入到变形组件20完成组合变形。触发通道211内部可以设置有触发开关2111，触发组件10可以进入到变形玩具内部并触动触发开关2111，实现组合变形玩具100的组合变形。
其中，当组合变形玩具100处于初始状态时，如图6所示，触发组件10远离触发开关2111，即此时触发组件10未触动触发开关2111；当组合变形玩具100处于组合状态时，如图9所示，触发组件10位于通道211内且触动触发开关2111，变形组件20和触发组件10同时变形且组合为一体，此时，组合变形玩具100可以组合变形出狼型(如图9中的示例所示)。
如图1、图8和图10所示，触发组件10上设有第一感应件110，触发开关2111上设有第二感应件2113，当第一感应件110与第二感应件2113彼此靠近时，触发开关2111被触动。第一感应件110和第二感应件2113均为磁性件。
需要说明的是，如图1和图2所示，在变形玩具汽车10a的前下方(如图1和图2 中所示的前后方)设置有第一感应件110，第一感应件110为磁性件。当用磁铁或铁质物体触碰第一感应件110时，变形玩具汽车10a发生形变。如图3-图5所示，变形玩具汽车10a的顶棚120上设置有顶棚挂钩122，底盘130上设置有与顶棚挂钩122相适配的底盘挂钩131。如图1-图5所示，顶棚120与底盘130的前端通过顶棚挂钩122与底盘挂钩131固定连接，顶棚120的后端与底盘130通过枢转轴(图中未示出)可枢转连接，且在枢转轴的位置设置有扭簧(图中未示出)。如图5所示，底盘挂钩131的下方与第一感应件110连接，当第一感应件110被触动时，例如当用铁质物体触碰第一感应件110时，第一感应件110带动底盘挂钩131向后下方转动，从而使顶棚挂钩122与底盘挂钩131脱离，此时，如图2所示，顶棚120在扭簧的作用力下沿图2中箭头F1所示的方向向后上(如图2中所示的上下前后方向)方旋转打开。
如图2所示，在顶棚120的左右两侧(如图2中所示的前后方向)可枢转地连接设置有两个车门121，两个车门121与顶棚120的连接位置同样设置有扭簧(图中未示出)，当顶棚120沿箭头F1所示的方向翻转打开的同时，顶棚120左右两侧(如图2中所示的左右方向)的车门121沿箭头F2所示的方向旋转打开，变形玩具汽车10a最终变形为图2中所示的状态造型。
如图6-图12所示，组合变形玩具100可以包括：躯体组件210、头部组件220、头部连接件213和肢体组件230。
其中，如图6和图10所示，肢体组件230可枢转地设在躯体组件210上，其中，躯体组件210、头部组件220和肢体组件230限定出通道211。如图8所示，触发开关2111设在躯体组件210上，触发组件10设置在躯体组件210的底部位置(如图8中所示的后下端位置)。
躯体组件210上设有躯体滑板212，如图8所示，躯体滑板212设置在躯体组件210的下方(如图8中所示的上下方向)。躯体滑板212与躯体组件210可移动地连接，如图8所示，躯体滑板212可以沿前后方向滑动(如图8中所示的前后方向)。躯体滑板212上设有滑动限位部2121和滑动驱动部2122，如图11所示，在躯体滑板212的后端沿左右方向(如图11中所示的前后左右方向)间隔设置有两个滑动限位部2121，在躯体滑板212的前端沿左右方向(如图11中所示的前后左右方向)间隔设置有两个滑动驱动部2122。
如图7和图9所示，头部组件220可枢转地设在躯体组件210上，头部组件220位于躯体组件210的上方(如图7和图9中所示的上下方向)，头部组件220上设有止挡凸块221和常驱动头部组件220转动的头部扭簧(图中未示出)，止挡凸块221位于头 部组件220中部位置，止挡凸块221在头部的左右两侧(如图9中所示的左右方向)相对设置有为两个，头部扭簧(图中未示出)设置在头部组件220与躯体组件210的连接位置处。
如图7所示，头部连接件213可枢转地设在躯体组件210上，头部连接件213的上端与止挡凸块221相抵以止挡头部组件220转动，头部连接件213的下端与滑动驱动部2122相抵。
肢体组件230上设有滑动止挡部2311，当组合变形玩具100处于初始状态时，滑动止挡部2311与滑动限位部2121止抵，此时，变形组件20处于图6中所示的造型；当所组合变形玩具100处于组合状态时，触发开关2111驱动躯体滑板212移动，滑动止挡部2311脱离滑动限位部2121，此时变形玩具组合变形为图9所示的造型。
肢体组件230上设有肢体弹性件(图中未示出)以常推动肢体组件230转动。如图7所示，肢体组件230可以包括：后肢组件231、前肢组件232和肢体连杆240。其中，后肢组件231可枢转地与躯体组件210连接，后肢组件231上设有后肢凸块2312，后肢组件231与躯体组件210的连接处可以设置有扭簧(图中未示出)，扭簧可以驱动后肢组件231从图7所示的状态旋转打开至图9中所示的伸展状态。
前肢组件232可枢转地与躯体组件210连接，前肢组件232上设有前肢卡勾2321，前肢卡勾2321呈L型设计，肢体连杆240的前端(如图7中所示的前后方向)具有弧形面。前肢组件232与躯体组件210的连接处同样可以设置扭簧(图中未示出)，在扭簧的扭转作用力下，前肢组件232可以从图7中所示的状态旋转打开至图9中所示的伸展打开状态。肢体连杆240的后端与后肢凸块2312相抵，肢体连杆240的前端与前肢卡勾2321卡接。肢体连杆240整体呈V型，在肢体连杆240的下端(如图7中所示的上下方向)设置有枢转孔，肢体连杆240可以通过枢转轴可枢转地连接在躯体组件210上，枢转轴上可以设置有扭簧(图中未示出)，以常驱动肢体连杆240的前端与前肢卡勾2321卡接。
如图10所示，变形组件20还包括弹射装置214，弹射装置214设在变形组件20上以驱动触发组件10滑出通道211。弹射装置214可以设置在变形组件20的后方(如图10中所示的前后方向)。
如图12所示，弹射装置214包括：按压部215和弹射件216。其中，按压部215设在变形组件20内且按压部215的部分外表面露出变形组件20，由此，便于按压按压部215。弹射件216设在变形组件20内，弹射件216穿设在按压部215上，且弹射件216在锁止位置和释放位置之间可切换。当弹射件216位于锁止位置时，弹射件216与按压 件卡接，从而可以止挡限定弹射件216的移动；当弹射件216从锁止位置移动至释放位置时，弹射件216朝向通道211内移动，且弹射件216的一端与触发组件10相抵以驱动触发组件10移出通道211外。
如图12所示，按压部215的位于变形组件20内的部分具有安装环2151，安装环2151位于按压部215的下方(如图12中所示的上下方向)。安装环2151的内周壁上设有弹射限位部2152，如图12所示，弹射限位部2152位于安装环2151下方的内周壁上，弹射限位部2152形成为倾斜的凸台。相应地，弹射件216下方(如图12中所示的上下方向)设有与弹射限位部2152相适配的弹射凹槽2161。
需要说明的是，在弹射件216内可以设置有弹簧(图中未示出)，当弹射凹槽2161与弹射限位部2152卡合时，弹簧处于挤压状态。当向下按压按压部215时，弹射限位部2152与弹射凹槽2161脱离，在弹簧的弹性作用力下，弹射件216向前弹出，以将触发组件10弹出变形组件20。
需要说明的是，当变形组件20处于初始状态位置时，结合图7和图10所示，滑动限位部2121与滑动止挡部2311相止抵(需要注意的是，图10中所示的为滑动限位部2121与滑动止挡部2311脱离时的状态)，从而可以限制后肢组件231在扭簧的作用下旋转展开。此时，后肢凸块2312与肢体连杆240的后端相抵，肢体连杆240的前端与前肢卡勾2321卡接，由此，可以限制前肢组件232在扭簧的作用下旋转展开。
结合图11的爆炸图所示，躯体滑板212和触发开关2111均可以为轴对称形状设计。在躯体滑板212的后方设置有与触发开关2111形状相适配的安装孔，触发开关2111可以装配至安装孔内。在安装孔后方壁面的左右两侧(如图11中所示的前后左右方向)对称设置有两个第一配合斜面2120，相应地，在触发开关2111后方沿左右方向间隔设置有两个对称的第一配合斜面2120。当触发开关2111未被触动时，第一配合斜面2120与第二配合斜面2112贴合。
需要说明的是，可以通过手动触动触发开关2111，也可以通过触发组件10触动触发开关2111。此处，以触发组件10触动触发开关2111为例，对组合变形玩具100的变形过程进行描述。
触发组件10可以从变形组件20通道211前端的开口进入到通道211内，当触发组件10进入到通道211内的相应位置时，触发组件10上的第一感应件110与通道211底部的触发开关2111感应触发第一感应件110吸引第二感应件2113，从而驱动触发开关2111由下向上(如图11中所示的上下方向)移动，在第一配合斜面2120和第二配合斜面2112的配合作用下，触发开关2111由下向上(如图11中所示的上下方向)移动的 过程中会推动躯体滑板212由前向后(如图11中所示的前后方向)移动。
如图10所示，当躯体滑板212由前向后移动时，滑动限位部2121与滑动止挡部2311脱离，结合图7所示，当滑动限位部2121与滑动止挡部2311脱离后，后肢组件231在扭簧的作用下旋转展开，后肢组件231在旋转展开的过程中，后肢凸块2312随后肢组件231沿逆时针方向向下压动肢体连杆240，从而驱动肢体连杆240绕下端的枢转轴沿顺时针方向转动，使肢体连杆240的前端与前肢卡勾2321脱离，前肢卡勾2321在扭簧的作用下旋转展开。
另一方面，结合图7和图10所示，当躯体滑板212由前向后(如图10中所示的前后方向)滑动时，滑动驱动部2122驱动头部连接件213的下端向后移动，从而使头部连接件213围绕中部的枢转轴沿逆时针方向转动，使头部连接件213的上端与止挡凸块221脱离，头部组件220在扭簧的作用下沿逆时针方向旋转，向前伸展出头部组件220。
需要说明的是，当触发组件10第一感应件110与第二感应件2113感应触动时，触发组件10也发生相应变形，顶棚挂钩122与底盘挂钩131脱离，在扭簧的作用下，顶棚120从头部组件220的位置旋转伸出通道211，由于车门121与通道211内壁相抵，车门121未变形至打开状态，最后组合变形玩具100组合形变为图9所示狼的形态。
由此，通过设置触发组件10，触发组件10本身可以为具有一定造型的变形玩具，触发组件10可单件玩耍。而且，触发组件10可以进入到变形组件20的通道211内并触动触发开关2111，与变形组件20组合变形为其他造型的组合变形玩具100，操作简单，而且增强了玩具的娱乐性。
实施例二：
如图13-图28所示，与实施例一不同的是，在该实施例中，变形组件20包括：底座组件250、触发连杆251、下肢组件260和上肢组件270。
其中，如图16所示，触发开关2111设在底座组件250上，触发开关2111位于底座组件250的后方(如图16中所示的前后方向)位置。结合图13和图16所示，触发连杆251可枢转地设在底座组件250上，如图17所示，触发连杆251可以形成为呈U型的轴对称结构，触发连杆251的左右两端具有沿上下方向(如图17中所示的上下方向)延伸的连接板，连接板的上端设置有枢转孔，触发连杆251通过枢转孔可枢转地连接到底座组件250上。触发连杆251适于与底座组件250卡接，由此，便于触发连杆251与底座组件250的装配和脱离，以便于组合变形玩具100的组合变形。
下肢组件260相对于底座组件250可枢转，下肢组件260与底座组件250的连接处 可以设置有扭簧(图中未示出)，扭簧常驱动底座组件250与下肢组件260发生相对转动，以进行伸展变形。触发连杆251相对于下肢组件260可运动，当触发连杆251与底座组件250脱离卡接时，触发组件10与下肢组件260可以相对转动。
上肢组件270可枢转地设在底座组件250上，上肢组件270与底座组件250的连接位置设置有扭簧(图中未示出)，以常驱动上肢组件270转动至展开状态。上肢组件270适于与底座组件250卡接，以限制上肢组件270的转动。如图21所示，底座组件250、上肢组件270和下肢组件260限定出通道211，通道211可以沿前后方向(如图21中所示的前后方向)延伸。
当组合变形玩具100处于初始状态时，触发连杆251与底座组件250卡接，从而可以限制底座组件250与下肢组件260发生相对转动。上肢组件270与底座组件250卡接，从而可以限制上肢组件270发生转动展开。如图13所示，为组合变形组件20位于初始状态时的形状。当组合变形玩具100从初始状态切换至组合状态时，触发连杆251与底座组件250脱离，在扭簧的作用下，底座组件250相对于下肢组件260和触发连杆251发生相对转动，从而下肢组件260与底座组件250发生脱离变形。当下肢组件260与底座组件250发生脱离时，上肢组件270与底座组件250卡接脱离，且上肢组件270在扭簧的作用下旋转展开，组合变形玩具100变形为如图14中所示的形状。
如图16所示，底座滑板252可以相对于底座组件250沿前后方向(如图16中所示的前后方向)滑动。如图18中所示，在触发连杆251上设置有触发卡勾2511，在底座滑板252上设置有与触发卡勾2511相适配的触发卡接部2520，触发卡接部2520可以形成为台阶槽。由此，可以通过触发卡勾2511和触发卡接部2520之间的卡接连接，快速高效地实现触发连杆251与底座组件250间的固定装配，而且在组合变形玩具100从初始状态变化至组合状态时，卡接结构便于各部件之间的脱离变形。
如图18所示，底座滑板252后方可以设置有与触发开关2111形状相适配的安装孔，在安装孔的后方沿左右方向(如图18中所示的前后左右方向)间隔设置有两个第一匹配斜面2521，触发开关2111的后方沿左右方向(如图18中所示的前后左右方向)间隔设置有两个与第一匹配斜面2521相适配的第二匹配斜面2112a。由此，可以通过第一匹配斜面2521与第二匹配斜面2112a之间的配合，利用触发开关2111驱动底座滑板252的移动。
如图23所示，触发连杆251左右两侧(如图23中所示的左右方向)的连接板上对称设置有两个限位槽2512，下肢组件260上对称设置有与两个限位槽2512相适配的限位凸块261，当组合变形玩具100组件处于初始状态时，限位凸块261扣合在限位槽2512 内；当然也可以是在下肢组件260上设置有限位槽2512，在触发连杆251上设置有与限位槽2512相适配的限位凸块261。由此，便于下肢组件260与触发连杆251的装配和脱离，以便于组合变形玩具100的变形。
如图19-图22所示，变形组件20还包括底座连杆253，底座连杆253的下端(如图22中所示的上下方向)与底座组件250可枢转地连接，底座连杆253上端(如图22中所示的上下方向)与下肢组件260可枢转地连接。底座连杆253以底座连杆253的与下肢组件260的连接位置为圆心转动，由此，可以实现底座组件250与下肢组件260之间相对转动，实现组合变形玩具100的变形。
如图19、图20和图22所示，上肢组件270上设有上肢卡合部271，底座连杆253上设有与上肢卡合部271相适配的连杆卡合部2531。当组合变形玩具100处于初始状态位置时，上肢卡合部271与连杆卡合部2531的止抵以抵限制上肢组件270发生相对转动。
当触动触发开关2111时，在此需要说明的是，可以通过手动触动触发开关2111，也可以通过触发组件10触动触发开关2111。此处，以触发组件10触动触发开关2111为例，对组合变形玩具100的变形过程进行描述。
如图19所示，触发组件10可以从通道211前端的开口进入到通道211内，当触发组件10进入到通道211内的相应位置时，触发组件10上的第一感应件110与触发开关2111的第二感应件2113感应触发。例如，第一感应件110和第二感应件2113均为磁性感应件时，第一感应件110吸引第二感应件2113，从而驱动触发开关2111由下向上(如图18中所示的上下方向)移动，在第一匹配斜面2521第一配合斜面2120和第二匹配斜面2112a的配合作用下，触发开关2111由下向上移动的过程中会推动躯体滑板底座滑板252由前向后移动。
结合图18中的爆炸图所示，当底座滑板252由前向后移动时，触发卡勾2511与触发卡接部2520脱离，结合图22所示，在扭簧的作用力下，位于左侧的底座连杆253(如图22中所示的底座连杆253)沿逆时针方向旋转并带动底座组件250转动，从而使底座组件250与下肢组件260脱离伸展变形。结合图19和图20所示，在扭簧的作用力下，位于右侧的底座连杆253(如图20中所示的底座连杆253)沿顺时针方向旋转，在底座连杆253的旋转过程中，上肢卡合部271与连杆卡合部2531脱离卡接，在扭簧的作用下，位于右侧上肢组件270向右后方旋转展开，位于左侧的上肢组件270向左后方旋转展开，从而使组合变形玩具100变形为如图14所示的形状。
当变形组件20在触发组件10的触发作用发生组合变形后，如由图13所示的形状变 形为图14所示的形状，还可以经过手动操作变形，使组合变形玩具100进一步变形为图15所示的形状状态。
如图26和图27所示，下肢组件260为可伸缩件，下肢组件260具有脚部233和腿部234，部分腿部234可以翻转从而加长腿部234长度，在脚部233内部还设置有滑轨2331，可以进一步对腿部234进行拉长。
如图12、图13和图28所示，上肢组件270上设置有用于发射炮弹276的发射装置274。如图28所示，发射装置274包括壳体277、炮弹276和扳机275。其中，扳机275包括环孔2753、手掰部2752和扳机卡勾2751，炮弹276上设置有与扳机卡勾2751相适配的止挡凹槽2761。炮弹276与壳体277的连接位置还设置有弹簧，当扣动扳机275时，炮弹276在弹簧的弹性作用下将炮弹276发射出壳体277，从而进一步增强了组合变形玩具100的娱乐性。
上肢组件270上设有上肢滑块273，底座组件250上设有与上肢滑块273相适配的上肢滑槽256，上肢滑槽256可以沿前后方向(如图25中所示的前后方向)延伸。
如图24所示，变形组件20还可以包括上肢限位件272，上肢限位件272可以为沿左右方向(如图24中所示的左右方向)间隔对称设置的两个。上肢限位件272的一部分位于底座组件250内，底座组件250内设置有弹簧(图中未示出)，弹簧的一端与位于底座组件250内部分的上肢限位件272相抵，弹簧的另一端与底座组件250内壁相抵。上肢限位件272的位于底座组件250内部的部分上设有第一推动斜面2721，底座组件250上可以设有推动块254，推动块254上设有与第一推动斜面2721相适配的第二推动斜面2541。上肢限位件272的另一部分位于底座组件250外且适于与上肢组件270相抵，从而可以限制上肢组件270在上肢滑槽256内的滑动。
需要说明的是，在弹簧的作用力下，上肢限位件272的部分位于底座组件250外，并与上肢组件270相抵以限制上肢组件270的滑动。当由下向上(如图24中所示的上下方向)按压推动块254时，推动块254会将上肢限位件272位于底座组件250外侧的部分挤压进底座组件250内，从而可以使上肢限位件272与上肢组件270脱离止抵，进而上肢组件270可以在上肢滑槽256内滑动。
例如，以图24爆炸图中右侧(如图24中所示的左右方向)的推动块254和上肢限位件272为例，底座组件250上设置有推动部255，推动部255可枢转地与底座组件250连接，且推动部255可以推动推动块254移动。如图24所示，在底座组件250的后方(如图24中所示的前后方向)设置有推动部255，推动部255与底座组件250之间可相对转动。在推动部255的下方的端面上，沿左右方向(如图24中所示的左右方向)间 隔设置有两个推动凸起2551。
可以理解的是，当推动部255向底座组件250下方旋转靠近时，两个推动凸起2551可以推动推动块254由下向上移动，在第一推动斜面2721与第二推动斜面2541的配合下，当由下向上(如图24中所示的上下方向)按动推动块254时，推动块254推动上肢限位件272由左向右移动，从而使位于底座组件250外部的上肢限位件272缩进底座组件250内部，使上肢限位件272与上肢组件270脱离止抵，从而上肢限位件272可以在上肢滑槽256内滑动。
由此，结合图14和图15所示，组合变形玩具100经过触发组件10的触发组合变形后，可以进一步经过手动操作，将变形组件20的下肢组件260拉长，上肢组件270下滑，以进一步完成组合变形玩具100的进一步变形，使组合变形玩具100的外形更加美观，从而进一步增强了组合变形玩具100的娱乐性。
在本说明书的描述中，参考术语“一个实施例”、“一些实施例”、“示例”、“具体示例”、或“一些示例”等的描述意指结合该实施例或示例描述的具体特征、结构、材料或者特点包含于本发明的至少一个实施例或示例中。在本说明书中，对上述术语的示意性表述不必须针对的是相同的实施例或示例。而且，描述的具体特征、结构、材料或者特点可以在任一个或多个实施例或示例中以合适的方式结合。此外，在不相互矛盾的情况下，本领域的技术人员可以将本说明书中描述的不同实施例或示例以及不同实施例或示例的特征进行结合和组合。
尽管上面已经示出和描述了本发明的实施例，可以理解的是，上述实施例是示例性的，不能理解为对本发明的限制，本领域的普通技术人员在本发明的范围内可以对上述实施例进行变化、修改、替换和变型。

Claims (15)

  1. 一种组合变形玩具(100)，其特征在于，所述组合变形玩具(100)具有初始状态和组合状态，所述组合变形玩具(100)包括：
    触发组件(10)，所述触发组件(10)可变形；
    变形组件(20)，所述变形组件(20)内具有通道(211)，所述通道(211)内具有触发开关(2111)，
    其中，当所述组合变形玩具(100)处于所述初始状态时，所述触发组件(10)远离所述触发开关(2111)；
    当所述组合变形玩具(100)处于所述组合状态时，所述触发组件(10)位于所述通道(211)内且触动所述触发开关(2111)，所述变形组件(20)和所述触发组件(10)同时变形且组合为一体。
  2. 根据权利要求1所述的组合变形玩具(100)，其特征在于，所述触发组件(10)上设有第一感应件(110)，所述触发开关(2111)上设有第二感应件(2113)，当所述第一感应件(110)与所述第二感应件(2113)彼此靠近时，所述触发开关(2111)被触动,所述第一感应件(110)和所述第二感应件(2113)中的至少一个为磁性件。
  3. 根据权利要求1所述的组合变形玩具(100)，其特征在于，所述变形组件(20)上设有滑板，所述滑板上设有第一配合斜面(2120)，所述触发开关(2111)上设有第二配合斜面(2112)，
    当所述触发组件(10)位于所述通道(211)内且触动所述触发开关(2111)时，所述第二配合斜面(2112)与所述第一配合斜面(2120)配合，所述触发开关(2111)沿第一方向移动，所述滑板沿第二方向移动，所述第一方向与所述第二方向垂直，所述组合变形玩具(100)变形。
  4. 根据权利要求1所述的组合变形玩具(100)，其特征在于，所述变形组件(20)包括：
    躯体组件(210)，所述触发开关(2111)设在所述躯体组件(210)上，所述躯体组件(210)上设有躯体滑板(212)，所述躯体滑板(212)与所述躯体组件(210)可移动地连接，所述躯体滑板(212)上设有滑动限位部(2121)和滑动驱动部(2122)；
    头部组件(220)，所述头部组件(220)可枢转地设在所述躯体组件(210)上，所述头部组件(220)上设有止挡凸块(221)和常驱动所述头部组件(220)转动的头部扭簧；
    头部连接件(213)，所述头部连接件(213)可枢转地设在所述躯体组件(210)上，所述头部连接件(213)的一端与所述止挡凸块(221)相抵以止挡所述头部组件(220)转动，所述头部连接件(213)的另一端与所述滑动驱动部(2122)相抵；和
    肢体组件(230)，所述肢体组件(230)可枢转地设在所述躯体组件(210)上，所述肢体组件(230)上设有滑动止挡部(2311)，
    其中，所述躯体组件(210)、所述头部组件(220)和所述肢体组件(230)限定出所述通道(211)，当所述组合变形玩具(100)处于初始状态时，所述滑动止挡部(2311)与所述滑动限位部(2121)止抵；当所组合变形玩具(100)处于组合状态时，所述触发开关(2111)驱动所述躯体滑板(212)移动，所述滑动止挡部(2311)脱离所述滑动限位部(2121)。
  5. 根据权利要求4所述的组合变形玩具(100)，其特征在于，所述肢体组件(230)包括：
    后肢组件(231)，所述后肢组件(231)可枢转地与所述躯体组件(210)连接，所述后肢组件(231)上设有后肢凸块(2312)；
    前肢组件(232)，所述前肢组件(232)可枢转地与所述躯体组件(210)连接，所述前肢组件(232)上设有前肢卡勾(2321)；和
    肢体连杆(240)，所述肢体连杆(240)的一端与所述后肢凸块(2312)相抵，所述肢体连杆(240)的另一端与所述前肢卡勾(2321)卡接，当所述组合变形玩具(100)处于组合状态时，所述肢体连杆(240)的另一端与所述前肢卡勾(2321)脱离。
  6. 根据权利要求4所述的组合变形玩具(100)，其特征在于，所述躯体滑板(212)上设有第一配合斜面(2120)，所述触发开关(2111)上设有第二配合斜面(2112)，
    当所述触发组件(10)位于所述通道(211)内且触动所述触发开关(2111)时，所述第二配合斜面(2112)与所述第一配合斜面(2120)配合，所述触发开关(2111)沿第一方向移动，所述躯体滑板(212)沿第二方向移动，所述第一方向与所述第二方向垂直，所述滑动止挡部(2311)脱离所述滑动限位部(2121)。
  7. 根据权利要求1所述的组合变形玩具(100)，其特征在于，所述变形组件(20)包括：
    底座组件(250)，所述触发开关(2111)设在所述底座组件(250)上；
    触发连杆(251)，所述触发连杆(251)可枢转地设在所述底座组件(250)上，所述触发连杆(251)适于与所述底座组件(250)卡接；
    下肢组件(260)，所述下肢组件(260)相对于所述底座组件(250)可枢转，所述 触发连杆(251)相对于所述下肢组件(260)可运动；
    上肢组件(270)，所述上肢组件(270)可枢转地设在所述底座组件(250)上，且所述上肢组件(270)适于与所述底座组件(250)卡接，
    其中，所述底座组件(250)、所述上肢组件(270)和所述下肢组件(260)限定出所述通道(211)，当所述组合变形玩具(100)处于初始状态时，所述触发连杆(251)与所述底座组件(250)卡接，所述上肢组件(270)与所述底座组件(250)卡接；当所述组合变形玩具(100)从所述初始状态切换至所述组合状态时，所述触发连杆(251)与所述底座组件(250)脱离，所述上肢组件(270)与所述底座组件(250)卡接脱离。
  8. 根据权利要求7所述的组合变形玩具(100)，其特征在于，所述底座组件(250)上设有底座滑板(252)，所述底座滑板(252)与所述底座组件(250)可移动地连接，
    所述底座滑板(252)上设有第一匹配斜面(2521)，所述触发开关(2111)上设有第二匹配斜面(2112a)，
    当所述触发组件(10)位于所述通道(211)内且触动所述触发开关(2111)时，所述第二匹配斜面(2112a)与所述第一匹配斜面(2521)配合，所述触发开关(2111)沿第一方向移动，所述底座滑板(252)沿第二方向移动，所述第一方向与所述第二方向垂直，所述触发连杆(251)与所述底座滑板(252)脱离。
  9. 根据权利要求8所述的组合变形玩具(100)，其特征在于，所述底座滑板(252)与所述触发连杆(251)中的一个上设有触发卡勾(2511)，另一个上设有适于与所述触发卡勾(2511)卡接的触发卡接部(2520)。
  10. 根据权利要求7所述的组合变形玩具(100)，其特征在于，所述触发连杆(251)与所述下肢组件(260)中的一个上设有限位槽(2512)，另一个上设有与所述限位槽(2512)相适配的限位凸块(261)。
  11. 根据权利要求7所述的组合变形玩具(100)，其特征在于，所述下肢组件(260)为可伸缩件。
  12. 根据权利要求7所述的组合变形玩具(100)，其特征在于，所述变形组件(20)还包括：
    底座连杆(253)，所述底座连杆(253)的一端与所述底座组件(250)可枢转地连接，所述底座连杆(253)的另一端与所述下肢组件(260)可枢转地连接，
    所述上肢组件(270)上设有上肢卡合部(271)，所述底座连杆(253)上设有与所述上肢卡合部(271)相适配的连杆卡合部(2531)。
  13. 根据权利要求7所述的组合变形玩具(100)，其特征在于，所述上肢组件(270) 上设有上肢滑块(273)，所述底座组件(250)上设有与所述上肢滑块(273)相适配的上肢滑槽(256)，
    所述变形组件(20)还包括上肢限位件(272)，所述上肢限位件(272)的一部分位于所述底座组件(250)内，所述上肢限位件(272)的位于所述底座组件(250)内部的部分上设有第一推动斜面(2721)，所述上肢限位件(272)的另一部分位于所述底座组件(250)外且适于与所述上肢组件(270)相抵，
    所述底座组件(250)上设有推动块(254)，所述推动块(254)上设有与所述第一推动斜面(2721)相适配的第二推动斜面(2541)。
  14. 根据权利要求13所述的组合变形玩具(100)，其特征在于，所述底座组件(250)上设有推动部(255)，所述推动部(255)可枢转地与所述底座组件(250)连接，且所述推动部(255)适于推动所述推动块(254)移动。
  15. 根据权利要求1所述的组合变形玩具(100)，其特征在于，所述触发组件(10)为变形玩具汽车或公仔，当所述触发组件(10)为所述变形玩具汽车时，所述变形玩具汽车为发条车或电车动力车，所述变形玩具汽车可以手动放进所述通道(211)内，也可以利用发射装置发射进所述通道内。
PCT/CN2017/084637 2017-04-28 2017-05-17 组合变形玩具 WO2018196051A1 (zh)

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