Telescope with center shaft integrated with distance measuring component, battery component and circuit component

Abstract

The utility model discloses a telescope with a distance measuring component, a battery component and a circuit component integrated on a center shaft, which relates to the technical field of double-tube distance measuring telescopes and comprises a left body and a right body which are rotatably connected to two sides of a basic shaft. The device further comprises a distance measuring module, a battery module and a circuit module. The distance measuring module is mounted at one end of the base shaft close to the telescope objective; the battery module is installed at one end, close to the telescope eyepiece, of the basic shaft and located in a cavity formed in the basic shaft. The circuit module comprises a distance measuring board and a button board, the distance measuring board and the button board are connected to the upper surface and the lower surface of any lens cone of the telescope respectively, the distance measuring board and the button board are arranged close to the basic shaft, and the distance measuring board is electrically connected with a transmitting board and a receiving board of the distance measuring module through wires. The keyboard plate is electrically connected with the positive and negative electrodes of the battery module and the distance measuring plate through wires. The distance measuring module, the battery module and the circuit module are integrated on the middle shaft of the telescope, so that the overall size of the telescope is greatly reduced, and the telescope is convenient to carry and use.

Description

TECHNICAL FIELD

[0001] The utility model relates to binocular range finder telescope technical field more specifically relates to a kind of telescope of middle shaft integrated ranging component, battery component and circuit component. BACKGROUND

[0002] Traditional ranging telescope generally adopts the structure of separate design of emission and reception. The emission system is generally externally arranged on the middle shaft of the telescope, and the receiving system is located in the lens barrel. Although this design can realize ranging function to some extent, it also has some limitations:

[0003] Firstly, due to the separate arrangement of the emission system and the receiving system, the overall volume of the telescope is large, which is not conducive to carrying and using. In some occasions requiring portability, such as outdoor hunting, tourism, etc., the traditional ranging telescope is not very convenient. Secondly, the separate design structure makes the appearance of the telescope not beautiful enough, and there may be protruding structures on the left and right lens barrels, affecting the holding feeling and use experience. In addition, the adjustment of the emission system and the receiving system is relatively complex, which requires universal adjustment, and the related adjustment mechanism is also complex, which increases the production cost and maintenance difficulty to some extent. Moreover, due to the external emission system, it is easily affected by the external environment, such as dust, rain, etc., which may adversely affect the ranging accuracy and equipment life.

[0004] In order to meet the more convenient and efficient observation experience of users, the portability and structure design of the telescope need to be continuously optimized. In the field of ranging telescope, the structure design of the ranging module needs to be optimized to make it more compact and have higher integration, reduce the influence on the overall volume and appearance of the telescope, and at the same time, the integrated layout of the battery and the circuit board is considered, so that the structure layout is more compact and reasonable, and the use is more convenient. It is necessary to innovate and improve the technology of the telescope and promote the continuous development and progress of the telescope technology.

[0005] Therefore, how to provide a telescope capable of effectively integrating ranging components, battery components and circuit components at the same time to meet the compact and reasonable structure layout and use effect is a problem that needs to be solved by those skilled in the art. UTILITY MODEL CONTENTS

[0006] Therefore, the utility model provides a telescope of middle shaft integrated ranging component, battery component and circuit component, aiming at solving the above technical problems.

[0007] In order to achieve the above purpose, the utility model adopts the following technical scheme:

[0008] A telescope of middle shaft integrated ranging component, battery component and circuit component, comprising left body and right body rotatably connected on both sides of base shaft; further comprising:

[0009] a ranging module mounted on the base shaft near one end of the telescope objective lens;

[0010] a battery module mounted on the base shaft near one end of the telescope eyepiece and located in a cavity formed inside the base shaft;

[0011] a circuit module including a ranging board and a key board, the ranging board and the key board being connected to the upper and lower surfaces of any one lens barrel of the telescope respectively, and the ranging board and the key board being arranged close to the base shaft, the ranging board being electrically connected to the transmitting plate and the receiving plate of the ranging module through wires respectively, and the key board being electrically connected to the positive and negative electrodes of the battery module and the ranging board through wires respectively.

[0012] By the above technical solution, the ranging module, the battery module and the circuit module are integrated on the middle shaft of the telescope, so that the overall volume of the telescope is greatly reduced, and the telescope is convenient to carry and use, especially suitable for occasions such as outdoor hunting and tourism that require portability, and the practicability of the telescope is improved. The convex structure that may appear on the left and right lens barrels of the traditional telescope is avoided, so that the appearance of the telescope is more simple and smooth, the holding feeling and the use experience are improved, and the market competitiveness is higher. The transmitting system and the receiving system of the ranging module are integrated together, without the need for complex universal adjustment, so that the debugging process is simplified, the production cost and the maintenance difficulty are reduced, and the production efficiency and the reliability of the telescope are improved. The key components such as the ranging module are integrated inside the middle shaft, are better protected, are not easily affected by external dust, rainwater and other environmental factors, are conducive to improving the ranging accuracy and the service life of the equipment, and ensure the stable operation of the telescope in various environments.

[0013] Preferably, in the above-mentioned telescope with the middle shaft integrated with the ranging components, the battery components and the circuit components, the exposed end of the ranging module is sealed by a ranging warehouse cover plate, the exposed surface of the ranging board is sealed by a ranging board cover plate, the exposed surface of the key board is sealed by a key cover plate, and the key cover plate has key buttons corresponding to the unpackaged keys of the key board. By sealing the corresponding components through the ranging warehouse cover plate, the ranging board cover plate and the key cover plate, and by setting the key buttons corresponding to the unpackaged keys of the key board on the key cover plate, dust, moisture and the like can be effectively prevented from entering the inside, the protection performance of the telescope is further enhanced, and the convenience and reliability of the key operation are ensured.

[0014] Preferably, in the above-mentioned telescope with integrated ranging components, battery components and circuit components, the battery module comprises a battery arranged in the base shaft cavity, and a battery cover screwed on the opening of the cavity, and the outer surface of the battery cover is rotationally connected with a battery cover rotating piece through a stainless steel shaft. The design of the battery module arranges the battery in the base shaft cavity and fixes and connects it through the screwed battery cover and the battery cover rotating piece, which not only makes full use of the space, but also ensures the stable installation and good contact of the battery, facilitates the replacement and maintenance of the battery, and improves the convenience and endurance of the telescope.

[0015] Preferably, in the above-mentioned telescope with integrated ranging components, battery components and circuit components, the inner surface of the battery cover is pressed against a negative spring through a threadedly connected battery cover locking pressure ring. This design can ensure good electrical connection between the battery and the circuit, improve the stability and reliability of power transmission, avoid equipment failure caused by poor contact, and ensure the normal operation of the telescope.

[0016] Preferably, in the above-mentioned telescope with integrated ranging components, battery components and circuit components, the base shaft is provided with a focusing plate in the gap on the outer side, a focusing hand wheel is sleeved on the outer side of the base shaft and threadedly connected with the focusing plate, an elastic shaft stop ring is sleeved on the base shaft and abuts against the focusing hand wheel to limit the axial movement of the focusing hand wheel, and a focusing hand wheel cover is connected to the end face of the focusing hand wheel. The threadedly connected focusing plate and focusing hand wheel and the elastic shaft stop ring realize stable installation and axial positioning of the focusing hand wheel, making the focusing operation smoother and more accurate, and enabling the user to more conveniently adjust the focal length of the telescope to obtain a clear observation image and improve the performance of the telescope.

[0017] Preferably, in the above-mentioned telescope with integrated ranging components, battery components and circuit components, any eyepiece of the telescope is provided with a high-transparency OLED liquid crystal, which provides the user with more observation information display functions such as ranging data, enhances the functionality and practicality of the telescope, and enables the user to more intuitively obtain the required information during observation, improving the observation experience.

[0018] Preferably, in the above-mentioned telescope with integrated ranging components, battery components and circuit components, the high-transparency OLED liquid crystal is electrically connected with the ranging plate through an FPC flat cable. This connection method is simple and reliable, the signal transmission is stable, the liquid crystal display screen can display ranging information normally, and the compact layout of the internal structure of the telescope is also facilitated, improving the overall integration.

[0019] Preferably, in the above-mentioned telescope integrating the central axis, ranging component, battery component and circuit component, the high-transmittance OLED liquid crystal is arranged on the eyepiece of the right eye side. Arranging the high-transmittance OLED liquid crystal on the eyepiece of the right eye side conforms to the use habit of most users, facilitates the user to view the display information during observation, further improves the human-computer interaction experience of the telescope, and enables the user to use the telescope more comfortably and conveniently.

[0020] Preferably, in the above-mentioned telescope integrating the central axis, ranging component, battery component and circuit component, the ranging board and the key board are respectively connected to the upper and lower surfaces of the lens barrel corresponding to the right eye of the telescope. This layout mode enables the operation components to be concentrated on one side, and the user can more conveniently perform one-hand operation during use, thereby improving the convenience and flexibility of operation, and being especially suitable for occasions requiring rapid operation.

[0021] Preferably, in the above-mentioned telescope integrating the central axis, ranging component, battery component and circuit component, the one end of the base axis away from the eyepiece is locked by a locking nut, and the locking nut limits the axial movement of the left body and the right body. The stability and reliability of the overall structure of the telescope are enhanced, the observation error or equipment damage caused by loosening of components during use is avoided, and long-term stable operation of the telescope is ensured.

[0022] According to the above technical solution, compared with the prior art, the telescope integrating the central axis, ranging component, battery component and circuit component has the following beneficial effects:

[0023] 1. Greatly improved portability: the traditional ranging telescope is designed with separate emission and receiving systems, resulting in a large size and inconvenience in carrying. The present application greatly reduces the size and weight of the telescope through integrated design, making it easier to carry, especially suitable for outdoor activities such as hunting and tourism, and meeting the user's demand for portability.

[0024] 2. Optimized appearance and holding feeling: the protruding structure on the lens barrel in the traditional design is abandoned, making the appearance of the telescope more simple and smooth, and the lines more beautiful. This not only improves the aesthetic degree of the product, but also improves the holding feeling, provides a more comfortable use experience for the user, and enhances the market appeal of the product.

[0025] 3. Simplified debugging and maintenance: the integrated design of the ranging module reduces the complexity of the debugging process, eliminating the need for tedious gimbal adjustment, reducing the debugging cost and time in the production process. At the same time, the simplified structure also makes maintenance more convenient, reduces the difficulty and cost of maintenance, improves the reliability and service life of the telescope.

[0026] 4. Enhanced protection performance: The key components are ingeniously placed inside the central shaft or sealed by the cover plate, effectively preventing the intrusion of dust, rain and other external factors, protecting the ranging module, battery and circuit components, ensuring the ranging accuracy and long-term stable operation of the equipment, and adapting to various harsh environments.

[0027] 5. Improved operation convenience: Reasonable component layout and design, such as stable installation of focusing hand wheel, setting of high-transparency OLED liquid crystal, and centralized layout of operation components, make the operation of the telescope more convenient and intuitive. Users can easily focus, view ranging data and other operations, improving observation efficiency, especially in situations requiring quick response, such as outdoor sports or observation in emergency situations.

[0028] 6. Function expansion and information display: The high-transparency OLED liquid crystal display screen is set at the eyepiece, adding information display function to the telescope, allowing users to directly obtain important data such as ranging while observing, enriching the telescope's functions and transforming it from a single observation tool into a device with more practical functions, meeting users' diverse needs in different scenarios.

[0029] 7. Enhanced structural stability: The locking nut design ensures the stability of the overall structure of the telescope, avoiding component loosening and displacement during use, ensuring observation accuracy and equipment durability, and giving users more confidence during use. BRIEF DESCRIPTION OF DRAWINGS

[0030] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings needed to be used in the embodiment or prior art description. Obviously, the drawings in the following description are only embodiments of the present application, and for those skilled in the art, other drawings can be obtained without creative labor on the basis of the provided drawings.

[0031] Figure 1 The figure is a front view of the eyepiece of the telescope provided by the present application;

[0032] Figure 2 The figure is a cross-sectional view of the telescope provided by the present application;

[0033] Figure 3 The figure is a partial enlarged view of the telescope provided by the present application; Figure 2

[0034] Figure 4 The figure is an electrical connection schematic diagram of the circuit module provided by the present application;

[0035] Figure 5 The figure is a top structure schematic diagram of the telescope provided by the present application;​

[0036] Figure 6 The drawing is a bottom structure schematic diagram of a telescope provided by the utility model;

[0037] Figure 7 The drawing is a structure schematic diagram of a high-transmittance OLED liquid crystal side of the telescope.

[0038] Wherein:

[0039] 1-left body; 2-right body; 3-battery cover; 4-battery cover rotating piece; 5-stainless steel shaft; 6-battery cover locking pressure ring; 7-negative spring; 8-battery; 9-base shaft; 10-locking nut; 11-focusing plate; 12-focusing hand wheel; 13-elastic retaining ring for shaft; 14-focusing hand wheel cover; 15-positive line; 16-negative line; 17-keyboard; 171-first solder pad; 172-second solder pad; 173-unsealed key; 18-emitting plate; 19-receiving plate; 20-ranging plate; 201-third solder pad; 202-fourth solder pad; 203-fifth solder pad; 21-key cover plate; 211-key button; 22-FPC flat cable; 23-high-transmittance OLED liquid crystal; 231-liquid crystal display area; 24-ranging plate cover plate; 25-ranging warehouse cover plate; 26-ranging module; 27-battery module; 28-circuit module. DETAILED DESCRIPTION

[0040] The technical solutions in the embodiments of the utility model will be clearly and completely described below with reference to the drawings in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, rather than all the embodiments. Based on the embodiments in the utility model, all the other embodiments obtained by those skilled in the art without creative labor fall within the protection scope of the utility model.

[0041] Referring to the drawings, Figure 1 to the drawings, Figure 4 the utility model embodiment discloses a telescope of middle shaft integrated ranging component, battery component and circuit component, including rotatingly connecting left body 1 and right body 2 on both sides of base shaft 9;Still include:

[0042] Ranging module 26, ranging module 26 is installed at one end of base shaft 9 close to telescope objective lens;

[0043] Battery module 27, battery module 27 is installed at one end of base shaft 9 close to telescope eyepiece, and is located in the cavity formed in base shaft 9 interior;

[0044] The circuit module 28 comprises the ranging board 20 and the key board 17, the ranging board 20 and the key board 17 are connected to the upper and lower surfaces of any lens barrel of the telescope respectively, and the ranging board 20 and the key board 17 are arranged close to the base shaft 9, the ranging board 20 is electrically connected to the transmitting plate 18 and the receiving plate 19 of the ranging module 26 through wires respectively, and the key board 17 is electrically connected to the positive and negative poles of the battery module 27 and the ranging board 20 through wires respectively.

[0045] Referring to the accompanying drawings Figure 1 to the accompanying drawings Figure 3 and the accompanying drawings Figure 5 to the accompanying drawings Figure 6 The exposed end of the ranging module 26 is sealed by the ranging compartment cover plate 25, the exposed surface of the ranging board 20 is sealed by the ranging board cover plate 24, and the exposed surface of the key board 17 is sealed by the key cover plate 21, and the key cover plate 21 has a key button 211 corresponding to the unpacked key 173 of the key board 17.

[0046] Referring to the accompanying drawings Figure 2 and the accompanying drawings Figure 3 The battery module 27 comprises the battery 8 arranged in the cavity of the base shaft 9 and the battery cover 3 screwed at the opening of the end of the cavity, and the outer surface of the battery cover 3 is rotationally connected to the battery cover rotating piece 4 through the stainless steel shaft 5. The battery cover 3 has the ON and OFF fonts on the upper surface, and when in use, the battery cover assembly can be rotated out by turning up the battery cover rotating piece 4 and rotating counterclockwise, and vice versa, and after being disassembled, the battery cover assembly can be fixed on the base shaft 9 by rotating the battery cover assembly clockwise.

[0047] In order to further optimize the above technical scheme, the inner surface of the battery cover 3 is pressed against the negative spring 7 through the battery cover locking compression ring 6 connected by threads.

[0048] In order to further optimize the above technical scheme, the base shaft 9 is gap-fitted with the focusing plate 11, the focusing hand wheel 12 is sleeved outside the base shaft 9 and is screw-connected with the focusing plate 11, the shaft elastic stop ring 13 sleeved on the base shaft 9 abuts against the focusing hand wheel 12 and limits the axial movement of the focusing hand wheel 12, and the focusing hand wheel cover 14 is connected to the end surface of the focusing hand wheel 12. When the focusing hand wheel 12 is rotated, the shaft elastic stop ring 13 limits the axial movement of the focusing hand wheel 12, but indirectly drives the focusing plate 11 to move axially, thereby realizing the focusing function of the objective lens part.

[0049] In this embodiment, the battery 8 is a CR2 battery, which is connected to the first pad 171 on the key plate 17 through the positive wire 15 and the negative wire 16, and the transmitting plate 18 on the ranging module 26 is also connected to the third pad 201 on the ranging plate 20 through the pad, the receiving plate 19 is connected to the fourth pad 202 on the ranging plate 20 through the pad, and the second pad 172 on the key plate 17 is connected to the fifth pad 203 on the ranging plate 20. After wiring is completed, it is sealed by the key cover plate 21 on the Figure 5

[0050] Referring to the accompanying Figure 7 Any eyepiece of the telescope is provided with a high-transmittance OLED liquid crystal 23.

[0051] The application of high-transmittance OLED liquid crystal to the eyepiece of the telescope can bring the following effects:

[0052] High transmittance: The transmittance of high-transmittance OLED liquid crystal can reach more than 90%, which means that more light can pass through the eyepiece, making the observed image brighter and clearer, with more details and higher color reproduction, and enabling better observation of distant objects or stars in the night sky.

[0053] High contrast: OLED screens have high contrast, which can better highlight the differences between targets and backgrounds when displaying images, making the observed target more prominent and easy to identify, especially when observing celestial bodies with complex backgrounds, the outline and details of the target can be seen more clearly.

[0054] Self-luminous property: OLED is a self-luminous display technology, and each pixel point can emit light independently. When applied to the eyepiece of the telescope, it can provide clear display effect without adding additional light source. Even in a relatively dark environment, it can maintain good display effect and will not cause image blur or distortion due to insufficient backlight.

[0055] Wide viewing angle: The viewing angle of OLED screens is very wide, up to about 170 degrees. This means that when using the telescope, even if the head moves slightly, the observation effect can be maintained, and important observation details will not be missed due to viewing angle problems.

[0056] Integrated information display: High-transmittance OLED liquid crystal can integrate various information display functions, such as displaying time, date, name of observation target, location, etc. on the eyepiece during observation, providing more reference data for observation, making observation more convenient and efficient.

[0057] ​Augmented reality effect: combined with augmented reality (AR) technology, high-transparency OLED liquid crystal can superimpose virtual information such as star map, constellation connection, celestial body introduction, etc. on the observed image, providing users with a more rich observation experience and helping users better understand the observation target.

[0058] Light and thin: compared with traditional LCD screens, OLED screens are lighter and thinner. When applied to telescope eyepieces, the overall weight of the telescope can be reduced, making the device more portable and convenient for users to carry outdoors for observation.

[0059] Low power consumption: OLED screens do not require a backlight, so they consume less power. This can reduce the power consumption of the device and extend the battery life for users who need to observe for a long time.

[0060] In order to further optimize the above technical scheme, the high-transparency OLED liquid crystal 23 is electrically connected to the ranging board 20 through the FPC flat cable 22. Figure 6 The high-transparency OLED liquid crystal 23 is connected to the ranging board 20 through the FPC flat cable 22, the ranging board 20 is sealed by covering the ranging board cover plate 24 on the surface, and the ranging module 26 is sealed by covering the ranging warehouse cover plate 25, so as to ensure the effectiveness and reliability of the circuit part.

[0061] FPC flat cable, full name Flexible Printed Circuit, is a kind of circuit board made by printing, etching and other processes on flexible substrate, which has high flexibility and bendability. FPC flat cable is widely used in various electronic products, especially in occasions requiring flexible connection or limited space.

[0062] In order to further optimize the above technical scheme, the high-transparency OLED liquid crystal 23 is arranged on the eyepiece of the right eye.

[0063] Figure 7 The high-transparency OLED liquid crystal 23 is placed in the schematic diagram (arranged in the right cylinder of the telescope), and the liquid crystal display area 231 is the shadow area in the lower right corner. The internal liquid crystal adopts on-axis high-transparency OLED liquid crystal (in other embodiments, high-transparency PDLC can also be used), the main purpose is to consider increasing the system transmittance, so that more details of objects can be seen in dim light, and the effect of adding high-transparency OLED on the axis is equivalent to the effect of the telescope. The effect is better than the high-transparency liquid crystal, red light, and reflective red light on the market.

[0064] In order to further optimize the above technical scheme, the ranging board 20 and the key board 17 are respectively connected to the upper and lower surfaces of the mirror barrel corresponding to the right eye of the telescope.

[0065] In order to further optimize the above technical solutions, the end of the base shaft 9 away from the eyepiece is locked by a locking nut 10, and the locking nut 10 limits the axial movement of the left body 1 and the right body 2.

[0066] The utility model effectively combines high penetration OLED liquid crystal in telescope system, inside CR2 battery is built in focusing hand wheel simultaneously, and the structure of battery cover part is renewed, it is more convenient to install, it is easier to use. Finally, the entire ranging module is arranged at the central axis position, and the entire telescope size is small (pupil distance 76mm). Due to the space compression and compact arrangement when designing, good holding feeling is ensured.

[0067] The various embodiments in the specification are described in a progressive manner, and each embodiment focuses on the difference from other embodiments, and the same or similar parts between various embodiments can be referred to each other. For the device disclosed by the embodiments, since it corresponds to the method disclosed by the embodiments, the description is relatively simple, and the related parts can be referred to the method part.

[0068] The above description of the disclosed embodiments enables those skilled in the art to implement or use the utility model. Various modifications to the embodiments will be apparent to those skilled in the art, and the general principles defined herein can be implemented in other embodiments without departing from the spirit or scope of the utility model. Therefore, the utility model will not be limited to the embodiments shown herein, but will conform to the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. A telescope integrating a central shaft, a ranging component, a battery component and a circuit component, comprising a left body (1) and a right body (2) rotatably connected on both sides of a base shaft (9); characterized in that, Also include: Distance measuring module (26) is installed in the base shaft (9) near the end of the telescope objective; Battery module (27) is installed in the base shaft (9) near the end of the telescope eyepiece, and is located in the cavity formed inside the base shaft (9); Circuit module (28) includes distance measuring board (20) and key board (17), the distance measuring board (20) and the key board (17) are connected to the upper and lower surfaces of any lens barrel of the telescope respectively, and the distance measuring board (20) and the key board (17) are arranged close to the base shaft (9), the distance measuring board (20) is electrically connected to the transmitting plate (18) and the receiving plate (19) of the distance measuring module (26) respectively through the wire, and the key board (17) is electrically connected to the positive and negative electrodes of the battery module (27) and the distance measuring board (20) respectively through the wire.

2. A telescope integrating a central shaft ranging component, a battery component and a circuit component according to claim 1, characterized in that, The exposed end of the distance measuring module (26) is sealed by the distance measuring warehouse cover plate (25), the exposed surface of the distance measuring board (20) is sealed by the distance measuring board cover plate (24), the exposed surface of the key board (17) is sealed by the key cover plate (21), and the key cover plate (21) has key buttons (211) corresponding to the unsealed keys (173) of the key board (17).

3. A telescope integrating a central shaft ranging component, a battery component and a circuit component according to claim 1, characterized in that, The battery module (27) includes a battery (8) arranged in the cavity of the base shaft (9) and a battery cover (3) screwed at the opening of the end of the cavity, and the outer surface of the battery cover (3) is rotationally connected with a battery cover rotating piece (4) through a stainless steel shaft (5).

4. A telescope incorporating a central shaft integrated ranging component, battery component and circuit component according to claim 3, wherein, The inner surface of the battery cover (3) is pressed with a negative electrode spring (7) through a battery cover locking pressure ring (6) connected by threads.

5. A telescope integrating a central shaft ranging component, a battery component and a circuit component according to claim 1, characterized in that, The focusing plate (11) is matched with the gap outside the base shaft (9), the focusing hand wheel (12) is sleeved outside the base shaft (9) and is threadedly connected with the focusing plate (11), the shaft elastic stop ring (13) sleeved on the base shaft (9) abuts against the focusing hand wheel (12) and limits the axial movement of the focusing hand wheel (12), and the focusing hand wheel cover (14) is connected to the end face of the focusing hand wheel (12).

6. A telescope integrating a central shaft ranging component, a battery component and a circuit component according to claim 1, characterized in that, Any eyepiece of the telescope is provided with high-transparency OLED liquid crystal (23).

7. A telescope incorporating a central shaft integrated ranging component, battery component and circuit component according to claim 6, characterised in that, The high-transparency OLED liquid crystal (23) is electrically connected with the distance measuring board (20) through FPC flat cable (22).

8. A telescope incorporating a central shaft integrated ranging component, battery component and circuit component as claimed in claim 6, wherein, The high-transparency OLED liquid crystal (23) is arranged on the eyepiece of the right eye side.

9. A telescope integrating a central shaft ranging component, a battery component and a circuit component according to claim 1, characterized in that, The distance measuring board (20) and the key board (17) are respectively connected to the upper and lower surfaces of the lens barrel corresponding to the right eye of the telescope.

10. A telescope incorporating a central shaft integrated ranging component, battery component and circuit component as claimed in claim 1, wherein, The end of the base shaft (9) away from the eyepiece is locked by the locking nut (10), and the locking nut (10) limits the axial movement of the left body (1) and the right body (2).

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