Target scope with distance measuring function

Abstract

The utility model discloses a target scope with a distance measuring function, and relates to the technical field of target scopes. The technical scheme is characterized in that the device comprises a target observation assembly and a distance measurement assembly; the target observation assembly comprises an objective lens group, a first reflector, a second reflector, a zoom lens group and an eyepiece group; the distance measuring assembly comprises a laser transmitting module, a laser transmitting lens group, a laser receiving lens group and a laser receiving module; a transmission type display screen electrically connected with the laser receiving module is arranged between the zoom lens group and the eyepiece group, and a reticle is arranged between the second reflector and the zoom lens group. The objective of the utility model is to provide the target scope with the distance measuring function.

Description

Technical Field

[0001] This utility model relates to the field of target observation mirror technology, and more specifically, it relates to a target observation mirror with a distance measuring function. Background Technology

[0002] As a high-precision optical observation device, the target observation scope is widely used in shooting training and competition scenarios. Its core function is to assist in observing the distribution of bullet impact points by magnifying the target surface image, providing shooters with a basis for ballistic correction.

[0003] Existing target observation scopes typically do not have rangefinding capabilities. Therefore, in certain application scenarios, they need to be used in conjunction with a laser rangefinder. However, the external module increases the size of the device, making it inconvenient to carry and set up, and its practicality is limited, especially in complex terrain in the field.

[0004] Therefore, a new technical solution is urgently needed to solve the above-mentioned technical problems. Utility Model Content

[0005] In view of the shortcomings of the existing technology, the purpose of this utility model is to provide a target observation mirror with a range measuring function.

[0006] The above-mentioned technical objective of this utility model is achieved through the following technical solution: a target observation mirror with a range measuring function, comprising a target observation component and a range measuring component;

[0007] The target observation assembly includes an objective lens group, a first reflecting mirror, a second reflecting mirror, a zoom lens group, and an eyepiece group;

[0008] The ranging component includes a laser emitting module, a laser emitting mirror group, a laser receiving mirror group, and a laser receiving module;

[0009] A transmissive display screen electrically connected to the laser receiving module is provided between the zoom lens group and the eyepiece group, and a reticle is provided between the second reflector and the zoom lens group.

[0010] The present invention is further configured such that: the laser emitting module and the laser emitting mirror group are disposed below the objective lens group; the first reflecting mirror is located on one side of the objective lens group and is tilted toward the optical axis; the second reflecting mirror, the laser receiving mirror group and the laser receiving module are disposed on the reflected light path of the first reflecting mirror; the second reflecting mirror is tilted toward the optical axis; and the zoom lens group and the eyepiece group are located on the reflected light path of the second reflecting mirror.

[0011] The present invention is further configured to: swap the positions of the laser emitting module and the laser receiving module.

[0012] The present invention is further configured such that: the first reflector is a total reflection mirror, and the surface of the second reflector is coated with a laser anti-reflection film, which allows 905nm wavelength laser to pass through and reflect visible light in the 400-700nm wavelength band.

[0013] The present invention is further configured such that the laser receiving mirror group and the laser receiving module are disposed on one side of the first reflecting mirror.

[0014] The present invention is further configured such that: the laser emitting module and the laser emitting mirror group are disposed on the incident side of the first reflecting mirror; a beam-splitting film is coated at the center of the surface of the first reflecting mirror; the beam-splitting film allows 905nm laser to pass through, and the remaining area reflects visible light in the 400-700nm band and laser in the 905nm band; the laser emitted by the laser emitting module passes through the beam-splitting film and is emitted from the objective lens group to the target; the second reflecting mirror, the laser receiving mirror group and the laser receiving module are disposed on the reflected light path of the first reflecting mirror; and the zoom lens group and the eyepiece group are located on the reflected light path of the second reflecting mirror.

[0015] The present invention is further configured such that the beam-splitting film region is circular and located in the central region of the first reflector.

[0016] The present invention is further configured such that: the surface of the second reflector is coated with a laser antireflection film, which allows 905nm wavelength laser to pass through and reflects visible light in the 400-700nm wavelength band.

[0017] The present invention is further configured to: swap the positions of the laser emitting module and the laser receiving module.

[0018] This invention offers the following advantages: After the laser emitting module emits a laser beam, the beam passes through the laser emitting mirror group and is reflected into the laser light receiving mirror group, where it is ultimately received by the laser receiving module. Upon receiving the laser signal, the receiving module calculates the distance signal and displays it on a transmissive display screen. By integrating the target observation component and the ranging component, the device size is reduced, and its practicality is improved. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the structure of specific embodiment 1;

[0020] Figure 2 This is a schematic diagram of the structure of specific embodiment 2;

[0021] Figure 3 This is a schematic diagram of the structure of specific embodiment 3;

[0022] Figure 4 This is a schematic diagram of the structure of specific embodiment 4;

[0023] Figure 5 This is a schematic diagram of the structure of specific embodiment 5;

[0024] Figure 6 This is a schematic diagram of the structure of the first reflecting mirror in specific embodiment 5.

[0025] Figure descriptions: 1. Objective lens group; 2. First reflecting mirror; 3. Second reflecting mirror; 4. Zoom lens group; 5. Eyepiece group; 6. Laser emitting module; 7. Laser emitting mirror group; 8. Laser receiving mirror group; 9. Light receiving module; 10. Transmissive display screen; 11. Reticle; 12. Beam splitter. Detailed Implementation

[0026] The present invention will be further described in detail below with reference to the accompanying drawings.

[0027] Identical parts are indicated by the same reference numerals. It should be noted that the terms "front," "rear," "left," "right," "up," and "down" used in the following description refer to directions in the accompanying drawings, while the terms "bottom surface," "top surface," "inner," and "outer" refer to directions toward or away from the geometric center of a specific part, respectively. Specific Implementation Example 1:

[0029] like Figure 1 As shown, a target observation scope with a range-measuring function includes a target observation component and a range-measuring component;

[0030] The target observation assembly includes objective lens group 1, first reflecting mirror 2, second reflecting mirror 3, zoom lens group 4, and eyepiece group 5;

[0031] The ranging component includes a laser emitting module 6, a laser emitting mirror group 7, a laser receiving mirror group 8, and a laser receiving module 9;

[0032] A transmissive display screen 10 electrically connected to the laser receiving module 9 is provided between the zoom lens group 4 and the eyepiece group 5, and a reticle 11 is provided between the second reflector 3 and the zoom lens group 4.

[0033] After the laser emitting module 6 emits a laser beam, the beam passes through the laser emitting mirror group 7, is reflected into the laser receiving mirror group 8, and is finally received by the laser receiving module 9. Upon receiving the laser signal, the laser receiving module 9 calculates the distance signal and displays it on the transmissive display screen 10. By integrating the target observation component and the ranging component, the device size is reduced, and its practicality is improved.

[0034] The laser emitting module 6 and the laser emitting lens group 7 are located below the objective lens group 1. The first reflecting mirror 2 is located on one side of the objective lens group 1 and tilted 20-50° to the optical axis. The second reflecting mirror 3, the laser receiving lens group 8 and the laser receiving module 9 are located on the reflected light path of the first reflecting mirror 2. The second reflecting mirror 3 is tilted 10-40° to the optical axis. The zoom lens group 4 and the eyepiece group 5 are located on the reflected light path of the second reflecting mirror 3.

[0035] The first reflecting mirror 2 is a total reflection mirror, capable of reflecting both visible light and laser light. After entering through the objective lens group 1, visible light is reflected by the first reflecting mirror 2 to the second reflecting mirror 3, and then reflected by the second reflecting mirror 3 to the zoom lens group 4 and the eyepiece group 5, allowing the user to observe a magnified image.

[0036] The surface of the second reflecting mirror 3 is coated with a laser antireflection film, allowing 905nm wavelength lasers to pass through while reflecting visible light in the 400-700nm wavelength range. After being reflected by the objective lens group 1, the laser enters the second reflecting mirror 3 under the action of the first reflecting mirror 2, and directly penetrates the second reflecting mirror 3 under the action of the laser antireflection film, entering the laser receiving mirror group 8 and the laser receiving module 9, thereby calculating the distance information. Specific Implementation Example 2:

[0038] like Figure 2 As shown, unlike specific embodiment 1, the positions of laser emitting module 6 and laser receiving module 9 are swapped (laser emitting mirror group 7 and laser receiving mirror group 8 are the same type of mirror group, so there is no need to swap their positions). After the laser is emitted and passes through the second reflecting mirror 3, the first reflecting mirror 2 can reflect the laser. After the laser is emitted from the objective lens group 1, the reflected laser can enter the laser receiving module 9. Specific Implementation Example 3:

[0040] like Figure 3 As shown, unlike specific embodiment 1, the laser receiving module 9 and the laser receiving mirror group 8 are disposed on one side of the first reflecting mirror 2. The surface of the first reflecting mirror 2 is coated with a laser anti-reflection film, allowing 905nm wavelength laser to pass through and reflecting visible light in the 400-700nm wavelength range. The second reflecting mirror 3 can reflect visible light in the 400-700nm wavelength range. The laser emitted by the laser emitting module 6, after being reflected back, can pass through the eyepiece group and the first reflecting mirror 2 and enter the laser receiving module 9. Specific Implementation Example 4:

[0042] like Figure 4As shown, unlike specific embodiment 3, the positions of the laser emitting module 6 and the laser receiving lens group 8 are swapped. The surface of the first reflecting mirror 2 is coated with a laser anti-reflection film, which allows 905nm wavelength laser to pass through and reflect visible light in the 400-700nm wavelength band. The second reflecting mirror 3 is a total reflection mirror. The laser passes through the beam splitting film 12 on the second reflecting mirror 2 and is emitted from the objective lens group. The reflected laser enters the laser receiving module 9. Specific Implementation Example 5:

[0044] like Figure 5 and Figure 6 As shown, unlike specific embodiment 1, the laser emitting module 6 and the laser emitting lens group 7 are disposed on one side of the first reflecting mirror 2. The central area of ​​the surface of the first reflecting mirror 2 is coated with a beam-splitting film 12, which allows 905nm laser light to pass through, while the remaining area reflects visible light in the 400-700nm band and laser light in the 905nm band. The laser emitted by the laser emitting module 6 passes through the beam-splitting film 12 and is emitted from the objective lens group 1 to the target. The second reflecting mirror 3, the laser receiving lens group 8, and the laser receiving module 9 are disposed on the reflected light path of the first reflecting mirror 2, and the zoom lens group 4 and the eyepiece group 5 are located on the reflected light path of the second reflecting mirror 3.

[0045] The laser emitted from the laser emitting module 6 passes through the laser emitting mirror group 7, penetrates the beam splitter 12 region of the first reflecting mirror 2, and finally exits from the objective lens group 1. The reflected laser enters the target viewing lens from the objective lens group 1, is reflected by the outer region of the beam splitter 12 of the first reflecting mirror 2, passes through the second reflecting mirror 3, and enters the laser receiving mirror group 8 and the laser receiving module 9.

[0046] The beam splitter 12 is arranged in a circular shape and located in the center of the first reflector 2. This avoids the full surface coating from blocking the observation optical path, allowing the beam splitter 12 to reflect visible light and echo laser light while allowing laser light to pass through.

[0047] The surface of the second reflector 3 is coated with a laser anti-reflection film, which allows 905nm wavelength laser to pass through and reflects visible light in the 400-700nm wavelength range, ensuring that the echo laser passes through while reflecting visible light to the eyepiece group 5.

[0048] The specific embodiments are merely explanations of this utility model and are not intended to limit it. After reading this specification, those skilled in the art can make modifications to these embodiments without contributing any inventive step, but such modifications are protected by patent law as long as they fall within the scope of the claims of this utility model.

Claims

1. A target observation scope with rangefinding function, characterized in that: It includes a target observation component and a range measuring component; the target observation component includes an objective lens group (1), a first reflecting mirror (2), a second reflecting mirror (3), a zoom lens group (4), and an eyepiece group (5); The ranging component includes a laser emitting module (6), a laser emitting mirror group (7), a laser receiving mirror group (8), and a laser receiving module (9); A transmissive display screen (10) electrically connected to the laser receiving module (9) is provided between the zoom lens group (4) and the eyepiece group (5), and a reticle (11) is provided between the second reflector (3) and the zoom lens group (4).

2. The target observation scope with ranging function according to claim 1, characterized in that: The laser emitting module (6) and the laser emitting mirror group (7) are located below the objective lens group (1). The first reflecting mirror (2) is located on one side of the objective lens group (1) and tilted towards the optical axis. The second reflecting mirror (3), the laser receiving mirror group (8) and the laser receiving module (9) are located on the reflected light path of the first reflecting mirror (2). The second reflecting mirror (3) is tilted towards the optical axis. The zoom lens group (4) and the eyepiece group (5) are located on the reflected light path of the second reflecting mirror (3).

3. A target observation scope with ranging function according to claim 2, characterized in that: The first reflector (2) is a total reflection mirror, and the surface of the second reflector (3) is coated with a laser anti-reflection film, which allows 905nm wavelength laser to pass through and reflect visible light in the 400-700nm wavelength band.

4. A target observation scope with ranging function according to claim 2, characterized in that: The positions of the laser emitting module (6) and the laser receiving module (9) are swapped.

5. A target observation scope with ranging function according to claim 1, characterized in that: The laser receiving mirror group (8) and the laser receiving module (9) are disposed on one side of the first reflector (2), and the surface of the first reflector (2) is provided with a laser anti-reflection film.

6. A target observation scope with ranging function according to claim 5, characterized in that: The surface of the first reflector (2) is coated with a laser anti-reflection film, which allows 905nm wavelength laser to pass through and reflect visible light in the 400-700nm wavelength band. The second reflector (3) is a total reflection mirror.

7. A target observation scope with ranging function according to claim 5, characterized in that: The positions of the laser emitting module (6) and the laser receiving module (9) are swapped.

8. A target observation scope with ranging function according to claim 1, characterized in that: The laser emitting module (6) and the laser emitting mirror group (7) are disposed on one side of the first reflector (2). A beam splitting film (12) is coated at the center of the surface of the first reflector (2). The beam splitting film allows 905nm laser to pass through, and the remaining area reflects visible light in the 400-700nm band and laser in the 905nm band. The laser emitted by the laser emitting module (6) passes through the beam splitting film (12) and is emitted from the objective lens group (1) to the target. The second reflector (3), the laser receiving mirror group (8) and the laser receiving module (9) are disposed on the reflected light path of the first reflector (2). The zoom lens group (4) and the eyepiece group (5) are located on the reflected light path of the second reflector (3).

9. A target observation scope with ranging function according to claim 8, characterized in that: The beam splitter (12) region is circularly arranged and located in the central region of the first reflector (2).

10. A target observation scope with ranging function according to claim 8, characterized in that: The surface of the second reflector (3) is coated with a laser anti-reflection film, which allows 905nm wavelength laser to pass through and reflects visible light in the 400-700nm wavelength band.

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