Doll light-up device

Abstract

The utility model relates to a kind of doll light decoration device, to provide the edge profile of clothing block on the surface of large doll, the device installed can emit strip-shaped flow light decoration, its main in a shell body light decoration doll, relevant clothing edge profile line is provided with binding line belt, at least one by flexible net-like tubular member hollow interior is placed with the light optical weaving tube of strip-shaped electric light wire core, tube body bottom side is combined in the binding line belt, and a electromechanical control device, electrically connected to the electric light wire core, so that the doll outer surface emits line stripe decorative light, increase visual aesthetic feeling.

Description

Technical Field

[0001] This utility model relates to a doll lighting device. Background Technology

[0002] The large dolls in question are generally constructed entirely from FRP (fiberglass reinforced plastic) through a polymer coating process. The exterior is painted with various colors for aesthetic purposes, and the designs are often cartoonish or whimsical to create a relaxed, cute, and visually appealing effect. To enhance the lively appearance, the paint colors are used in contrasting areas to produce a more pronounced visual impact. The inventors of this project also filed a US patent (11473759B1) in 2021, claiming a system combining point-like light beams on the doll's surface, but this light decoration is intended to create linear light decorations within the surface area. Utility Model Content

[0003] The purpose of this utility model is to provide a doll lighting device, which is a device that can emit strip-shaped lumen light decorations on the outline of the surface of a large doll, which is intended to be a clothing area.

[0004] This utility model is implemented as follows: a doll lighting device includes: a shell-shaped doll with a connecting strip along the outline of its clothing, at least one end of which has a through hole for communicating with the interior of the shell; at least one optically woven tube consisting of a flexible mesh tube with a strip of electric light core inserted inside, the bottom side of which is connected to the connecting strip of equal length, and at least one end of which is electrically conductive and extends into the interior of the shell; and an electromechanical control device electrically connected to the electric light core.

[0005] The aforementioned photoelectric core is composed of a sequence of diodes.

[0006] The aforementioned bonding strip is an emitted light beam.

[0007] The aforementioned mesh tube is woven from plasticized yarns with refractive properties.

[0008] The electromechanical control device described above can adjust the wavelength of the electro-optic core.

[0009] The electromechanical control device described above can adjust the lumen output of the optical fiber.

[0010] The electromechanical control device described above can change the control mode of the electro-optic core in response to environmental changes, thereby changing the lighting effect.

[0011] This utility model relates to a doll lighting device, which provides a device for emitting strip-shaped lumen light decoration on the outline of the clothing area on the surface of a large doll. It utilizes an optical woven tube composed of a mesh tube pivotally mounted with an electro-optical core, which is linearly connected to the outline of the doll's clothing to be lit. The lumen beam is generated by command through an electromechanical control device to achieve the lighting effect. Attached Figure Description

[0012] Figure 1 This is a front view of the light-decorated doll of this utility model.

[0013] Figure 2 This is a three-dimensional structural diagram of the optical woven tube of this utility model.

[0014] Figure 3 This is a diagram of the interwoven structure of the mesh pipe fitting of this utility model.

[0015] Figure 4 This is a schematic diagram of the working process of the mesh pipe fitting of this utility model.

[0016] Figure 5 This is a cross-sectional structural diagram of the mesh pipe fitting of this utility model.

[0017] Figure 6 This is a schematic diagram of the cross-section of the optical woven tube fitting assembly of this utility model.

[0018] Figure 7 This is one of the schematic diagrams of the cross-section of the optical woven tube fitting assembly of this utility model.

[0019] Figure 8 This is a schematic diagram of the cross-section of the optical woven tube fitting inserted into the shell plate according to this utility model.

[0020] Figure 9 This is one of the schematic diagrams of the cross-section of the optical woven tube fitting inserted into the shell plate according to this utility model.

[0021] Symbol explanation:

[0022] Shell-like body 10 Shell plate 11 Perforation 12

[0023] Pivot sleeve 13, ridge edge 14, reflective strip 15

[0024] Combined with 16 strips of thread, 100 decorative dolls, and 160 channels.

[0025] Doll costume 20 Collar trim 21 Waist trim 22

[0026] 23 Hemline 24 Hat Flare 25 Decorative Pattern

[0027] Boot opening contour 26, mesh tubing 30, refractive yarn 31

[0028] Electro-optic core 32, optical woven tube 300, folded end 301

[0029] Braided gap 310, diode sequence 320, bonding element 40

[0030] Adhesive 41 Electromechanical control device 50 Refraction beam RF

[0031] Outgoing beam B Lumen beam L Detailed Implementation

[0032] A doll lighting device is provided for the outline of the clothing area on the surface of a large doll, which is equipped with a device that can emit strip-shaped lumen light. The doll is mainly a shell-shaped doll with a connecting strip along the clothing outline. At least one optical woven tube is hollowed out by a flexible mesh tube and has a strip of electric light core inserted inside. The bottom side of the tube is connected to the connecting strip along the same length. An electromechanical control device is also provided to electrically conduct the electric light core, so that the surface of the doll is excited to emit strip-shaped light, which enhances the visual aesthetics.

[0033] The connecting strip is further formed with a connecting groove, which is further formed by the recess of the linear strip of the standardized decorative doll.

[0034] The electro-optic cores used in the system are either a strip-shaped combination of diode sequences or a bundle of optical fibers, with one end being the light input end, located inside the assembled shell-like body.

[0035] The mesh tube used is woven from plasticized yarn with refractive function, with weaving gaps and adhesive between the optically woven tube and the bonding tape.

[0036] This utility model relates to a doll lighting device. It provides a device and its connection method for emitting strip-shaped lumen light decorations on the outlines of clothing areas such as collar edges, belt edges, hem edges, and hat edges of large dolls. The device uses an optical woven tube composed of a mesh tube pivotally fitted with an electro-optical core, which is linearly connected to the linear position of the clothing outline of the doll to be lit. The lumen beam is generated by command through an electromechanical control device to achieve the lighting effect.

[0037] For details regarding the implementation of the structure of the polishing device of this utility model and the structural operation patterns, please refer to the following illustrations:

[0038] Please participate first. Figure 1 As shown, the luminous doll 100 is a large doll displayed at festivals or celebrations, placed inside the venue environment, and used for venue purposes. It is commonly made of FRP shell, and the whole is a shell-shaped body 10. The outer surface is divided into sections with doll clothing 20. In this invention, optical woven tubes 300 are implemented on the edges of the doll clothing 20, such as the collar edge 21, waistband edge 22, hem edge 23, hat edge 24, decorative pattern 25, or boot opening edge 26. Through the electro-optic effect generated inside the optical woven tubes 300, decorative light is emitted from its surface to form a strip-shaped luminous decoration.

[0039] The wavelength of the light beam emitted by the light decoration can be modulated by an electromechanical control device 50. The electromechanical control device 50 can further sense environmental changes, such as the brightness of the environment, or the viewer can send a message to the electromechanical control device 50 by voice, electricity, or physical movement. The device can then command different wavelengths, or adjust the lumens of the flashing speed or intensity to the optical fabric tube 300 to increase the light decoration of the light decoration doll 100. If the doll's limbs are driven by a motor, the movement mode of the limbs can be controlled.

[0040] The aforementioned electromechanical control device 50 can sense external environmental information by using methods such as optical imaging and microphones to capture the information.

[0041] Please refer to the following: Figure 2 As shown, the optical woven tube 300 consists of a hollow tube inside a mesh tube 30, with a single electro-optical fiber core 32 pivotally mounted therein. One end of the electro-optical fiber core 32 is electrically conductive. The mesh tube 30 is woven from refractive plasticized yarn and, like the electro-optical fiber core 32, is flexible. The light beam generated by the electro-optical fiber core 32 passes through the inside of the mesh tube 30 to generate a lumen beam L that interferes with the mesh tube 30. The wavelength of the lumen beam L can be controlled by the aforementioned electromechanical control device 50 (see [link to documentation]). Figure 1 (As shown) and changed.

[0042] Please refer to the following: Figure 3 As shown, the mesh tube 30 is woven from refractive threads 31 in the warp and weft directions. After weaving, weft gaps 310 are formed. The internal light beams produce different light effects due to the influence of the refractive threads 31 and the weft gaps 310.

[0043] Please refer to the following: Figure 4 As shown, the mesh tube 30 is constructed from a plurality of warp and weft refractive threads 31, with weaving gaps 310 formed between them. The beam of light generated by the internal electro-optic core 32 can be directly transmitted outward through the weaving gaps 310 to emit a beam B. After passing through the refractive threads 31, the beam of light from the electro-optic core 32 will form a refracted beam RF, which will be mixed with the overall surface to produce a lumen beam L. The viewer can see that the emitted beam B passing through the weaving gaps 310 and the refracted beam RF interfered with by the refractive threads 31 form a mesh. Upon close inspection, a mesh-like distribution of light stripes can be observed, which contrasts with the emitted beam B passing through the weaving gaps 310. This contrast in lumens further enhances the visual richness. The refractive threads 31 have a refractive effect and are basically transparent.

[0044] Please refer to the following: Figure 5As shown, the mesh tube 30 is woven from warp and weft refractive threads 31, and an electric light core 32 is centrally placed inside the hollow interior. The light beam generated by the electric light core 32 is interfered with by the refractive threads 31, or opened on its surrounding surface to form a lumen beam L, which in turn constitutes the refractive threads 31 of the mesh tube 30. It is inherently flexible and can further accept plastic deformation.

[0045] Please refer to the following: Figure 6 As shown, the structure of the mesh tube 30 can be plastically deformed and pressed into a flat shape. The lower surface can be bonded to the bonding strip 16. The bonding strip 16 is designed from the surface of the shell plate 11 of the shell body 10. The bonding strip 16 can be further recessed to form a bonding channel 160. This recess is made by molding when making the shell plate 11. The model has a recess to provide space for the bonding channel 160 (not shown in the figure). If the bonding strip 16 is grooved with the bonding channel 160, it can provide the mesh tube 30 to be flattened along the line. The mesh tube 30 is plastically deformed to make the mesh tube 30 sink into the flat surface, avoiding the upper part of the mesh tube 30 from floating too much. The electro-optic core 32 forms an electro-optic effect through electric operation to emit a lumen beam L on the surface of the optical woven tube 300.

[0046] Please refer to the following: Figure 7 As shown, the shell plate 11 is designed to accommodate the joint strip 16. Further, ridges 14 can protrude from both sides of the joint strip 16 to form a recessed joint groove 160. The height of the joint groove 160 can be close to the radius of the optical weaving tube 300, or as shown... Figure 6 The optical woven tube 300 is flattened, and the same effect can be achieved by implementing the two side ridges 14. Figure 6 The combined channel 160 has an effect, and the bottom of the combined channel 160 can be equipped with a reflective strip 15. Figure 6 Similar to the combined channel 160, the reflective strip 15 can be used to reflect the incoming light beam through the optical woven tube 300 and project it onto the surface of the optical woven tube 300 to increase the lumen of the surface of the optical woven tube 300.

[0047] The optical woven tube 300 of this utility model is attached to the outer surface of the shell 10 of the light-decorated doll 100, with its front and rear ends embedded in the interior of the shell 10, and at least the end that is electrically connected is hidden inside the shell 10.

[0048] For details regarding the connection between the optical woven tube 300 and the shell plate 11, please refer to [link / reference needed]. Figure 8As shown, a through hole 12 is provided at one end of the bonding strip 16 of the shell plate 11 to allow the tube body of the optical woven tube 300 to pass outward or in the opposite direction. The conductive end of the optical woven tube 300 is inside the shell plate 11, and the tube body of the optical woven tube 300 is laid along the linear plan of the bonding strip 16.

[0049] The optical fiber core 32 is pivotally fitted inside the mesh tube 30. The lower surface of the mesh tube 30 is connected to the shell plate 11. This connection can be represented by a component snap-fit ​​or by a connection element 40. The connection element 40 is connected between the lower part of the mesh tube 30 and the upper surface of the shell plate 11 to stabilize the routing of the optical woven tube 300. The perforation 12 can be elongated to allow the optical woven tube 300 to pass through at an angle less than a right angle. The mesh tube 30 and the optical fiber core 32 of the optical woven tube 300 are inherently flexible, so they can bend outwards through the perforation 12. However, the other end of the optical woven tube 300 can also be inserted into the interior of the shell plate 11 (not shown in the figure).

[0050] Please refer to the following: Figure 9 As shown, the optical woven tube 300 is bonded to the bonding strip 16 of the shell plate 11. A pivot sleeve 13 can be fitted into the perforation 12. The pivot sleeve 13 and the shell plate 11 can be bonded together. The conductive end of the optical woven tube 300 passes through the through hole inside the pivot sleeve 13. After passing through, the mesh tube 30 and the electron beam core 32 of the optical woven tube 300 are flexible. The mesh tube 30 can be pressed at one end of the relevant pivot sleeve 13 to form a folded end 301, so that the mesh tube 30 can be turned at a large angle and flat against the upper surface of the bonding strip 16. A bonding element 40 can be filled between the mesh tube 30 and the upper surface of the bonding strip 16. The bonding element 40 can be an adhesive 41.

[0051] The optical woven tube 300 has an electro-optical core 32 formed by a sequence of diodes 320 that can be arranged in front and behind. After the main electro-optical cores 32 are arranged, they are inherently flexible.

[0052] The interior of the optical woven tube 300 is mainly composed of electro-optic cores 32 with electro-optic effects, further formed by bundles of optical fibers with forward reflective properties. These optical fibers are made of a plasticized light-guiding material and are bundled together, thus facilitating bending, such as passing through the perforation 12 and turning towards the surface of the bonding strip 16. For the use of optical fibers, a light-inlet end is required. This light-inlet end can be located inside the shell 11 and incorporate a laser light source (not shown in the figure). The wavelength of this light source is the same as... Figure 1The electromechanical control device 50 shown controls and modulates the optical fiber, which has a lateral light leakage effect and can emit lumens on the radial surface of the optical fiber. The emitted lumens also pass outward through the mesh structure of the mesh tube 30. By utilizing the light leakage effect of the optical fiber, the emitted lumens can be more uniform, and this uniformity forms a uniform light band effect.

[0053] This invention utilizes flexible optical woven tubes to connect the outline and wiring of the costume of a luminous doll. Controlled by an internal electromechanical control device, the optical woven tubes can be integrated into the collar, waistband, hem, hat flaps, decorative patterns, boot edges, or other linear decorative areas of the costume. This allows for the generation of lumen beams at these linear locations. Furthermore, the mesh-like structure of the tubes has weaving gaps, allowing the beams generated internally to be viewed up close. This reveals the mesh-like decoration of the tubes and the dotted beams emerging from the gaps, increasing visual variability. The electromechanical control device can also change the pattern of the lumen beams, further enabling interactive lighting effects. This is an innovative luminous doll device.

Claims

1. A lighting device for a doll, comprising a device for emitting strip-shaped lumen light on the outline of a large doll's surface, which is intended to represent a clothing area, characterized in that... It comprises: a shell-shaped illuminated doll with a connecting strip along the outline of its clothing, at least one end of which has a perforation to the interior of the shell; at least one optically woven tube with a strip of electric optical core inserted through its hollow interior by a flexible mesh tube, the bottom side of which is connected to the connecting strip of equal length, and at least one end of which is electrically conductive and extends into the interior of the shell; and an electromechanical control device electrically conductive to the electric optical core.

2. The doll lighting device according to claim 1, characterized in that: The connecting strip further forms a connecting channel.

3. The doll lighting device according to claim 2, characterized in that the connecting channel is formed by the recess of the linear band of the doll being regulated.

4. The doll lighting device according to claim 2, characterized in that: The channel is formed by protruding ridges on both sides of the linear band of the standardized painted doll.

5. The doll lighting device according to claim 1, characterized in that: The electron core is a sequence of diodes arranged in strips.

6. The doll lighting device according to claim 1, characterized in that: The electron core is composed of a bundle of optical fibers, with one end being the light input end, located inside the assembled shell-like body.

7. The doll lighting device according to claim 1, characterized in that the mesh tube is woven from plasticized yarn with refractive function, and has weaving gaps therebetween.

8. The doll lighting device according to claim 1, characterized in that the electromechanical control device is capable of sensing the human body's movement state and emitting sound and light or responding to the working operation mode.

9. The doll lighting device according to claim 1, characterized in that: The wavelength or luminance of the lumen beam generated by the optical woven tube is modulated by the electromechanical control device.

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