A highly realistic handheld telescope toy

Abstract

This utility model relates to the field of toy technology, specifically disclosing a highly realistic handheld telescope toy, comprising: an eyepiece module, which includes an eyepiece tube and an extension rod connected to the eyepiece tube, the eyepiece tube having several sliding grooves extending axially along the eyepiece tube; a zoom assembly, on which the eyepiece module is sleeved, the zoom assembly slidingly engaging with the sliding grooves; and an objective lens module, fixed to the zoom assembly. This utility model solves the problem that existing telescope toys lack realistic zoom functionality, preventing children from experiencing the actual operation of a telescope.

Description

Technical Field

[0001] This utility model relates to the field of toy technology, and in particular to a highly realistic handheld telescope toy. Background Technology

[0002] Telescopes are an important tool for observing distant objects and are widely used in scientific research, military observation, and everyday entertainment.

[0003] In the toy industry, most telescope toys currently on the market are simply plastic products, with appearances and functions far removed from real telescopes. They typically lack realistic zoom capabilities, failing to allow children to experience the actual operation of a telescope and thus failing to stimulate children's interest in science. Utility Model Content

[0004] To address the problem that existing telescope toys lack realistic zoom functionality, preventing children from experiencing the actual operation of a telescope, this invention provides a highly realistic handheld telescope toy.

[0005] To solve the above problems, the present invention adopts the following technical solution:

[0006] An embodiment of this utility model provides a highly realistic handheld telescope toy, comprising:

[0007] An eyepiece module, comprising an eyepiece tube and an extension rod connected to the eyepiece tube, wherein the eyepiece tube is provided with a plurality of sliding grooves extending along the axial direction of the eyepiece tube;

[0008] A zoom assembly, wherein the eyepiece module is sleeved on the zoom assembly, and the zoom assembly is slidably engaged with the sliding groove;

[0009] Objective lens module, which is fixed to the zoom assembly.

[0010] According to some embodiments of the present invention, the eyepiece barrel includes a plurality of guide strips spaced apart on its inner wall, the guide strips being arranged along the sliding direction of the zoom assembly, and two adjacent guide strips forming the sliding groove.

[0011] According to some embodiments of the present invention, the zoom component is provided with a plurality of protrusions that cooperate with the sliding groove, the protrusions being embedded in the sliding groove and being able to slide along the sliding groove.

[0012] According to some embodiments of the present invention, a limiting ring is provided at the connection between the eyepiece barrel and the zoom assembly.

[0013] According to some embodiments of the present invention, the zoom assembly is provided with a limiting block around its periphery that cooperates with the limiting ring.

[0014] According to some embodiments of the present invention, the zoom assembly is provided with a first fixing block for fixing the objective lens module.

[0015] According to some embodiments of the present invention, the objective lens module includes a second fixing block for cooperating with the first fixing block.

[0016] According to some embodiments of the present invention, the objective lens module further includes a mounting cover and an objective lens disposed on the mounting cover, the second fixing block is disposed inside the mounting cover, and the mounting cover can cover the first fixing block.

[0017] According to some embodiments of the present invention, the first fixing block is connected to the second fixing block by screws.

[0018] According to some embodiments of the present invention, the extension rod includes a first extension rod connected to the eyepiece barrel and a second extension rod hinged to the first extension rod.

[0019] This invention has at least the following beneficial effects: by moving the zoom component in the sliding groove inside the eyepiece tube, the zoom component can change the relative position between the eyepiece and the objective lens, thereby adjusting the focal length of the telescope and achieving a zoom effect from low to high magnification. This makes the telescope toy highly simulate a real telescope in both appearance and function, providing users with a similar experience to using a real telescope. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the structure of one embodiment of the present utility model;

[0021] Figure 2 This is a cross-sectional view of one embodiment of the present utility model;

[0022] Figure 3 This is a rear view of the objective lens module according to an embodiment of the present invention;

[0023] Figure 4 This is a schematic diagram of the structure of a zoom component according to an embodiment of the present invention;

[0024] Figure 5 This is a schematic diagram of the eyepiece module according to one embodiment of the present invention;

[0025] Figure 6 This is a schematic diagram of the structure of the second extension rod when folded according to an embodiment of the present invention;

[0026] Figure 7 This is a schematic diagram of the structure of the second extension rod when it is folded in another direction according to one embodiment of the present invention. Detailed Implementation

[0027] This invention provides the following description with reference to the accompanying drawings to aid in a comprehensive understanding of the various embodiments of the invention as defined by the claims and their equivalents. The description includes various specific details to aid understanding, but these details should be considered exemplary only. Therefore, those skilled in the art will recognize that various changes and modifications can be made to the various embodiments described herein without departing from the scope and spirit of the invention.

[0028] In the description of this utility model, the orientation descriptions, such as up, down, front, back, left, right, etc., are based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.

[0029] It should be understood that when one element (e.g., the first element) is “connected” to another element (e.g., the second element), the element may be directly connected to the other element, or there may be an intervening element (e.g., the third element) between the element and the other element.

[0030] An embodiment of this utility model provides a highly realistic handheld telescope toy, such as... Figure 1-7 As shown, it includes:

[0031] Eyepiece module 100 includes eyepiece tube 110 and extension rod 120 connected to eyepiece tube 110. The eyepiece tube 110 is provided with a plurality of sliding grooves 130 extending along the axial direction of the eyepiece tube 110.

[0032] The zoom assembly 200 and the eyepiece module 100 are sleeved on the zoom assembly 200, and the zoom assembly 200 slides in conjunction with the sliding groove 130.

[0033] Objective lens module 300, which is fixed on zoom assembly 200.

[0034] The eyepiece module 100 includes an eyepiece tube 110 and an extension rod 120. The eyepiece tube 110 is the part used for observation, while the extension rod 120 serves as a connection and support. An eyepiece is mounted on the eyepiece tube 110. Several sliding grooves 130 are provided within the eyepiece tube 110. These sliding grooves 130 cooperate with the zoom assembly 200 to achieve the telescope's zoom function. The design of the sliding grooves 130 allows the zoom assembly 200 to move smoothly within the eyepiece tube 110, thereby changing the distance between the eyepiece and the objective lens 330, achieving the purpose of adjusting the magnification. The zoom assembly 200 is sleeved onto the eyepiece module 100; this sleeved structure allows the zoom assembly 200 to slide within the eyepiece tube 110. The zoom function of the zoom assembly 200 is achieved through sliding engagement with the sliding grooves 130. By moving the zoom component 200 within the sliding groove 130, the relative position between the eyepiece and the objective lens 330 can be changed, thereby adjusting the focal length of the telescope and achieving a zoom effect from low to high magnification. The objective lens 330 is mounted on the objective lens module 300. The objective lens module 300 is fixed to the zoom component 200. This fixing method ensures the stability of the objective lens module 300's position during zooming, preventing it from loosening or shifting due to zooming operations. The objective lens module 300 is the front part of the telescope, responsible for collecting and focusing light from distant objects. In conjunction with the zoom component 200, the objective lens module 300 can magnify distant objects and present them clearly in the eyepiece. This design makes the toy telescope highly realistic in both appearance and function, providing users with a similar experience to using a real telescope. Users can easily adjust the magnification of the telescope by simply sliding the zoom component 200; the operation is simple and easy to understand, making it suitable for children.

[0035] In some embodiments, the eyepiece barrel 110 includes a plurality of guide strips 140 spaced apart on its inner wall. The guide strips 140 are arranged along the sliding direction of the zoom assembly 200, and two adjacent guide strips 140 form a sliding groove 130.

[0036] The inner wall of the eyepiece tube 110 is provided with several guide strips 140, which are arranged at intervals. This interval arrangement ensures sufficient space between the guide strips 140 to form a sliding groove 130. The guide strips 140 are oriented along the sliding direction of the zoom assembly 200. This means that the extension direction of the guide strips 140 is consistent with the movement direction of the zoom assembly 200, thus providing stable guidance and support for the zoom assembly 200. Through the sliding groove 130 formed by the guide strips 140, the zoom assembly 200 can move smoothly and accurately within the eyepiece tube 110, thereby achieving the zoom function. The design of the guide strips 140 provides better support and guidance for the zoom assembly 200, making its sliding process smoother and preventing wobbling or jamming. By precisely controlling the width and interval of the guide strips 140, a more precise sliding groove 130 size can be achieved, thereby improving the sliding accuracy of the zoom assembly 200 and making the telescope's zoom effect more stable and accurate. This design utilizes a simple guide bar 140 structure to form the sliding groove 130, which is easier to manufacture and assemble compared to complex mechanical structures, reducing production costs. The outer surface of the zoom assembly 200 needs to match the shape and size of the sliding groove 130 to ensure smooth sliding within it. The sliding portion of the zoom assembly 200 can be designed with a shape that conforms to the sliding groove 130, such as rectangular or circular, for better sliding performance. The objective lens module 300 is fixed to the zoom assembly 200, so the sliding of the zoom assembly 200 does not affect the position of the objective lens module 300. This design ensures that the objective lens module 300 remains stable during zooming, thereby guaranteeing the imaging quality of the telescope.

[0037] Furthermore, the zoom assembly 200 is provided with a number of protrusions 230 that cooperate with the sliding groove 130. The protrusions 230 are embedded in the sliding groove 130 and can slide along the sliding groove 130.

[0038] The zoom assembly 200 has several protrusions 230, the number and position of which match the number and position of the sliding grooves 130 within the eyepiece barrel 110. Each protrusion 230 corresponds to one sliding groove 130, ensuring that the zoom assembly 200 can slide smoothly within the sliding groove 130. The shape and size of the protrusions 230 are adapted to the shape and size of the sliding grooves 130. For example, if the sliding groove 130 is rectangular, the protrusions 230 should also be designed to be rectangular; if the sliding groove 130 is circular, the protrusions 230 should be circular. When the protrusions 230 slide within the sliding grooves 130, they provide precise guidance for the zoom assembly 200, enabling it to move smoothly along a predetermined direction. This matching method effectively prevents the zoom assembly 200 from shifting or jamming during sliding. The cooperation between the protrusion 230 and the sliding groove 130 ensures that the zoom assembly 200 remains on the same track during sliding, avoiding image blurring or distortion caused by unstable sliding, thereby improving zoom accuracy. This design effectively reduces the shaking and loosening of the zoom assembly 200 during sliding, making the telescope more stable during use, especially at high magnification zoom, resulting in clearer image quality.

[0039] In some embodiments, a limiting ring 150 is provided at the connection between the eyepiece barrel 110 and the zoom assembly 200.

[0040] The main function of the limiting ring 150 is to limit the sliding range of the zoom assembly 200 within the eyepiece barrel 110. By setting the limiting ring 150, excessive sliding of the zoom assembly 200 can be prevented, thereby avoiding structural damage or functional failure caused by sliding beyond the predetermined range. The limiting ring 150 can provide additional support for the zoom assembly 200, making it more stable during sliding. This design can reduce the shaking of the zoom assembly 200 during sliding, improving the imaging stability of the telescope. The limiting ring 150 can enhance the structural strength of the connection between the eyepiece barrel 110 and the zoom assembly 200, preventing loosening or damage to the connection due to external forces. The limiting ring 150 is fixed to the eyepiece barrel 110, and can be integrally formed or connected to the eyepiece barrel 110 by threads, snaps, or other fixing methods. The limiting ring 150 can effectively prevent excessive sliding of the zoom assembly 200, avoiding structural damage or functional failure caused by improper operation, thereby improving product safety.

[0041] Furthermore, the zoom assembly 200 is provided with a limiting block 210 around its periphery that cooperates with the limiting ring 150.

[0042] The main function of the limiting block 210 is to cooperate with the limiting ring 150. Through the contact between the limiting block 210 and the limiting ring 150, it ensures that the zoom assembly 200 does not exceed a predetermined range during sliding, thereby preventing structural damage or functional failure due to excessive sliding. The cooperation between the limiting block 210 and the limiting ring 150 allows the user to more intuitively feel the zoom limit position when operating the zoom assembly 200, thus improving operational accuracy and comfort. The shape and size of the limiting block 210 should be compatible with the shape and size of the limiting ring 150. The limiting block 210 can be rectangular or circular, etc. To reduce impact and wear between the limiting block 210 and the limiting ring 150, a buffer element, such as a rubber pad or spring, can be added between them. This design can improve the service life of the limiting block 210 and the limiting ring 150 while reducing noise during operation. By precisely limiting the sliding range of the zoom assembly 200, the limiting block 210 can effectively prevent structural damage or functional failure due to excessive sliding, thereby improving product safety. The combination of limit block 210 and limit ring 150 can provide users with more intuitive operation feedback, enabling users to more accurately feel the limit position of zoom when operating zoom component 200, thereby improving the comfort and accuracy of operation.

[0043] In some embodiments, the zoom assembly 200 is provided with a first fixing block 220 for fixing the objective lens module 300.

[0044] The primary function of the first fixing block 220 is to securely fix the objective lens module 300 to the zoom assembly 200. This design ensures that the objective lens module 300 will not loosen or shift during zooming, thus guaranteeing the telescope's imaging quality. By fixing the objective lens module 300 to the zoom assembly 200, the first fixing block 220 reduces the shaking of the objective lens module 300 caused by external forces or vibrations during use, further improving the telescope's stability. The first fixing block 220 is typically located at the front end of the zoom assembly 200, close to the objective lens module 300. This design ensures a tight connection between the objective lens module 300 and the zoom assembly 200 without affecting the sliding function of the zoom assembly 200. The shape and size of the first fixing block 220 match the structure of the objective lens module 300. Common shapes include circular, square, or annular. The first fixing block 220 can be connected to the objective lens module 300 via clips, screws, or other fixing methods. This design ensures that the objective lens module 300 will not loosen or shift during use.

[0045] Furthermore, the objective module 300 includes a second fixing block 310 for cooperating with the first fixing block 220.

[0046] The main function of the second fixing block 310 is to cooperate with the first fixing block 220 to achieve a secure connection between the objective lens module 300 and the zoom assembly 200. This design ensures that the objective lens module 300 will not loosen or shift during zooming, thereby guaranteeing the imaging quality of the telescope. Through the cooperation of the second fixing block 310 and the first fixing block 220, the objective lens module 300 is more stable during use, reducing shaking caused by external forces or vibrations, and further improving the stability of the telescope. The shape and size of the second fixing block 310 match those of the first fixing block 220. Common shapes include circular, square, or annular. The second fixing block 310 can be connected to the first fixing block 220 by clips, screws, or other fixing methods. This design ensures that the objective lens module 300 will not loosen or shift during use.

[0047] Furthermore, the objective module 300 also includes a mounting cover 320 and an objective lens 330 disposed on the mounting cover 320. The second fixing block 310 is disposed inside the mounting cover 320, and the mounting cover 320 can cover the first fixing block 220.

[0048] Mounting cover 320 is used to shield the first fixing block 220. The design of mounting cover 320 conceals the first fixing block 220, preventing it from being exposed. This design not only improves the product's aesthetics but also prevents accidental contact and injury to the user. The shape and size of mounting cover 320 match the structure of the objective lens module 300 and the first fixing block 220. The shape can be cylindrical or conical. Objective lens 330 is mounted on mounting cover 320, located at its front end. This design ensures that the optical performance of objective lens module 300 is not affected by mounting cover 320. The shape and size of objective lens 330 match the opening of mounting cover 320 to ensure that light can pass smoothly through objective lens 330 into the telescope's interior. The design of mounting cover 320 conceals the first fixing block 220, making the overall appearance of the telescope simpler and more aesthetically pleasing.

[0049] In some embodiments, the first fixing block 220 is connected to the second fixing block 310 by screws.

[0050] In some embodiments, the extension rod 120 includes a first extension rod 160 connected to the eyepiece barrel 110 and a second extension rod 170 hinged to the first extension rod 160.

[0051] The first extension rod 160 is connected to the eyepiece tube 110, serving as a connection and extension, providing the user with a more comfortable observation angle and a more stable grip. The second extension rod 170 is hinged to the first extension rod 160, further increasing the telescope's extension length, allowing the user to adjust the overall length of the telescope as needed. Through the hinged design, the second extension rod 170 can be angled relative to the first extension rod 160, enabling the telescope to adapt to different observation scenarios and user needs. Figure 6-7 As shown, the second extension rod 170 can be rotated to suit different needs. For example, when observing objects at a high position, the user can unfold the second extension rod 170 to increase the length of the telescope; when observing objects at a lower position, the second extension rod 170 can be folded to shorten the length of the telescope. This design allows the telescope to be folded up when not in use, greatly reducing its space occupation and making it easy to carry and store.

[0052] The terms and words used in the foregoing description and claims are not limited to their literal meaning, but are merely used by the applicant to enable a clear and consistent understanding of the present invention. Therefore, those skilled in the art should understand that the foregoing description of various embodiments of the present invention is for illustrative purposes only, and not intended to limit the present invention as defined by the appended claims and their equivalents.

Claims

1. A highly realistic handheld telescope toy, characterized in that, include: Eyepiece module (100), the eyepiece module (100) includes an eyepiece tube (110) and an extension rod (120) connected to the eyepiece tube (110), the eyepiece tube (110) is provided with a plurality of sliding grooves (130) extending along the axial direction of the eyepiece tube (110); A zoom assembly (200) is provided, wherein the eyepiece module (100) is sleeved on the zoom assembly (200), and the zoom assembly (200) is slidably engaged with the sliding groove (130); Objective lens module (300), which is fixed on the zoom assembly (200).

2. The highly realistic handheld telescope toy according to claim 1, characterized in that, The eyepiece barrel (110) includes a plurality of guide strips (140) spaced apart on its inner wall. The guide strips (140) are arranged along the sliding direction of the zoom assembly (200), and two adjacent guide strips (140) form the sliding groove (130).

3. The highly realistic handheld telescope toy according to claim 2, characterized in that, The zoom assembly (200) is provided with a plurality of protrusions (230) that cooperate with the sliding groove (130). The protrusions (230) are embedded in the sliding groove (130) and can slide along the sliding groove (130).

4. A highly realistic handheld telescope toy according to any one of claims 1 to 3, characterized in that, A limiting ring (150) is provided at the connection between the eyepiece barrel (110) and the zoom assembly (200).

5. A highly realistic handheld telescope toy according to claim 4, characterized in that, The zoom assembly (200) has a limiting block (210) around its periphery that cooperates with the limiting ring (150).

6. A highly realistic handheld telescope toy according to any one of claims 1 to 3, characterized in that, The zoom assembly (200) is provided with a first fixing block (220) for fixing the objective lens module (300).

7. A highly realistic handheld telescope toy according to claim 6, characterized in that, The objective module (300) includes a second fixing block (310) for cooperating with the first fixing block (220).

8. A highly realistic handheld telescope toy according to claim 7, characterized in that, The objective lens module (300) further includes a mounting cover (320) and an objective lens (330) disposed on the mounting cover (320). The second fixing block (310) is disposed inside the mounting cover (320), and the mounting cover (320) can cover the first fixing block (220).

9. A highly realistic handheld telescope toy according to claim 7, characterized in that, The first fixing block (220) is connected to the second fixing block (310) by screws.

10. A highly realistic handheld telescope toy according to any one of claims 1 to 3, characterized in that, The extension rod (120) includes a first extension rod (160) connected to the eyepiece barrel (110) and a second extension rod (170) hinged to the first extension rod (160).

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