A scope simulation system
Patent Information
- Application Number
- CN202522213053.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-10-20
- Publication Date
- 2026-10-30
- Estimated Expiration
- 2035-10-20
AI Technical Summary
[0002]在某些高等工科院校的教学领域中，会教授瞄准镜的使用原理和技术应用，具体教学形式包括理论讲解、实践操作及沉浸式体验，瞄准镜的实践操作是重要环节；传统实践操作方式通常依赖真实的瞄准镜设备，这不仅导致高昂的采购和维护成本，还因实装部件的频繁使用而加速损耗，同时受限于场地、时间和装备数量，难以实现大规模、高频次的实践操作；此外，现有的一些瞄准镜仿真系统往往功能单一，无法全面模拟实际瞄准镜的多种调节功能（如变倍、辅瞄转换、分划调整等），操作真实感不足，且缺乏与计算机系统的有效集成，导致实践操作及沉浸式体验效果不理想，难以满足院校的讲解教学和实践操作需求
本实用新型提供的一种瞄准镜仿真系统，通过瞄准镜仿真件与计算机以及开关电源的集成连接，能够模拟生成逼真的视觉场景并在目镜和一倍观察镜中显示，提供真实的侦查和瞄准体验；整体结构合理，连接稳定，可用于院校的讲解教学和实践操作及沉浸式体验，有效降低实装操作的成本和风险，提高实践操作频次和效能。
Smart Images
Figure CN224922325U_ABST
Abstract
Description
Technical Field
[0001] This utility model belongs to the field of simulation teaching equipment technology, specifically relating to a scope simulation system. Background Technology
[0002] In some higher engineering colleges, the principles and technical applications of scopes are taught, with teaching methods including theoretical explanations, practical operations, and immersive experiences. Practical operation of scopes is a crucial component. Traditional practical operation methods typically rely on real scope equipment, which not only leads to high procurement and maintenance costs but also accelerates wear and tear due to frequent use of the actual components. Furthermore, limitations in space, time, and equipment quantity make it difficult to achieve large-scale, high-frequency practical operations. In addition, some existing scope simulation systems often have limited functionality and cannot fully simulate the various adjustment functions of actual scopes (such as magnification, aiming reticle conversion, and reticle adjustment), resulting in insufficient realism and a lack of effective integration with computer systems. Consequently, the practical operation and immersive experience are not ideal and fail to meet the teaching and practical operation needs of colleges and universities. Utility Model Content
[0003] This invention addresses the aforementioned problems and overcomes the shortcomings of existing technologies by providing a scope simulation system.
[0004] To achieve the above objectives, the present invention adopts the following technical solution.
[0005] This utility model provides a scope simulation system, including a scope simulation component, a computer, and a switching power supply. The scope simulation component is connected to the computer and the switching power supply. The scope simulation component includes an upper scope body and a lower scope body, which are connected together. A scope socket assembly is connected to one side of the lower scope body, and an eyepiece and a 1x magnification observation scope are connected to the other side. A first display component is provided in one end of the eyepiece connected to the lower scope body, and a second display component is provided in one end of the 1x magnification observation scope connected to the lower scope body. Both the first and second display components are connected to the scope socket assembly. A data acquisition and control board is provided inside the lower scope body. An operation panel is also provided on the side of the lower scope body below the eyepiece and the 1x magnification observation scope. The operation panel is provided with operation keys, which are connected to the signal input terminal of the data acquisition and control board inside the lower scope body. The signal output terminal of the data acquisition and control board is connected to the scope socket assembly.
[0006] Furthermore, the lens socket assembly includes a first lens socket, a second lens socket, a third lens socket, a fourth lens socket, a fifth lens socket, and a sixth lens socket, which are arranged sequentially from top to bottom and connected to one side of the lower lens body.
[0007] Furthermore, the first display component includes a first display screen and a first driver board. The first display screen is connected to the first driver board. The first driver board is provided with a first power interface and a first video interface. The first power interface is connected to a fourth camera socket. The first video interface is connected to the first camera socket. The fourth camera socket is connected to a switching power supply. The first camera socket is connected to a computer.
[0008] Furthermore, the second display component includes a second display screen and a second driver board. The second display screen is connected to the second driver board. The second driver board is provided with a second power interface and a second video interface. The second power interface is connected to the fifth mirror socket, the second video interface is connected to the second mirror socket, the fifth mirror socket is connected to the switching power supply, and the second mirror socket is connected to the computer.
[0009] Furthermore, the lower scope body is also equipped with a main aiming zoom handwheel, a main aiming-auxiliary aiming switching handwheel, and an auxiliary aiming reticle handwheel. Inside the lower scope body are also installed a main aiming zoom adjustment potentiometer, a main aiming-auxiliary aiming switching adjustment potentiometer, and an auxiliary aiming reticle adjustment potentiometer. The main aiming zoom handwheel is used for manual adjustment of the main aiming zoom adjustment potentiometer, the main aiming-auxiliary aiming switching handwheel is used for manual adjustment of the main aiming-auxiliary aiming switching adjustment potentiometer, and the auxiliary aiming reticle handwheel is used for manual adjustment of the auxiliary aiming reticle adjustment potentiometer. The main aiming zoom adjustment potentiometer, the main aiming-auxiliary aiming switching adjustment potentiometer, and the auxiliary aiming reticle adjustment potentiometer are all connected to the signal input terminal of the data acquisition control board. The signal output terminal of the data acquisition control board is connected to the third scope socket. The power input port on the data acquisition control board is connected to the sixth scope socket. The third scope socket is connected to a computer, and the sixth scope socket is connected to a switching power supply.
[0010] Furthermore, the lower scope body is also equipped with an auxiliary aiming scope azimuth calibration handwheel and an auxiliary aiming scope elevation calibration handwheel.
[0011] The beneficial effects of this utility model are: This utility model provides a scope simulation system that, through the integrated connection of the scope simulation component with a computer and a switching power supply, can simulate and generate realistic visual scenes and display them in the eyepiece and the 1x magnification scope, providing a realistic reconnaissance and aiming experience. The overall structure is reasonable and the connection is stable. It can be used for teaching, practical operation and immersive experience in colleges and universities, effectively reducing the cost and risk of actual operation and increasing the frequency and efficiency of practical operation. Attached Figure Description
[0012] Figure 1 This is a schematic diagram of the overall structure of a sight simulation system according to this utility model.
[0013] Figure 2 This is one of the schematic diagrams of the aiming scope structure of the aiming scope simulation system of this utility model.
[0014] Figure 3This is the second schematic diagram of the aiming scope structure of the aiming scope simulation system of this utility model.
[0015] The markings in the diagram are as follows: 1 is the computer, 2 is the power supply, 3 is the scope simulator, 4 is the 1x observation scope, 5 is the eyepiece, 6 is the control panel, 7 is the control key, 8 is the main aiming zoom handwheel, 9 is the main aiming / auxiliary aiming switching handwheel, 10 is the auxiliary aiming scope azimuth calibration handwheel, 11 is the auxiliary aiming scope elevation calibration handwheel, 12 is the lower scope body, 13 is the upper scope body, 14 is the first scope socket, 15 is the second scope socket, 16 is the third scope socket, 17 is the fourth scope socket, 18 is the fifth scope socket, 19 is the sixth scope socket, 20 is the main aiming zoom adjustment potentiometer, 21 is the main aiming / auxiliary aiming switching adjustment potentiometer, 22 is the auxiliary aiming reticle adjustment potentiometer, 23 is the first display component, 24 is the second display component, and 25 is the data acquisition control board. Detailed Implementation
[0016] To make the technical problems solved, the technical solutions, and the beneficial effects of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.
[0017] Specifically, in combination Figures 1 to 3 As shown in the figure, the aiming scope simulation system provided in this embodiment includes an aiming scope simulation component 3, a computer 1, and a switching power supply 2. The aiming scope simulation component 3 is connected to the computer 1 and the switching power supply 2 via cables. The aiming scope simulation component 3 includes an upper scope body 13 and a lower scope body 12. The upper scope body 13 is connected to the lower scope body 12. A scope socket assembly is connected to one side of the lower scope body 12, and an eyepiece 5 and a 1x magnification observation scope 4 are connected to the other side. The eyepiece 5 is located below the 1x magnification observation scope 4. A first display component 2 is provided in one end of the eyepiece 5 connected to the lower scope body 12. 3. A second display component 24 is installed inside one end of the 1x observation scope 4 connected to the lower scope body 12. Both the first display component 23 and the second display component 24 are connected to the scope socket assembly. A data acquisition control board 25 is installed inside the lower scope body 12. An operation panel 6 is also installed on the side of the lower scope body 12 below the eyepiece 5 and the 1x observation scope 4. The operation panel 6 is equipped with operation keys 7, which are connected to the signal input terminal of the data acquisition control board 25 inside the lower scope body 12. The signal output terminal of the data acquisition control board 25 is connected to the scope socket assembly. The operation keys 7 include a reset key, a power key, and a pitch and azimuth key, which are used to simulate the working state of the aiming scope simulator 3. The data acquisition control board 25 is a control circuit board composed of a single chip. The first display component 23, the second display component 24, and the data acquisition control board 25 of the aiming scope simulator 3 are powered by the switching power supply 2.
[0018] Specifically, the lens socket assembly includes a first lens socket 14, a second lens socket 15, a third lens socket 16, a fourth lens socket 17, a fifth lens socket 18, and a sixth lens socket 19. The first lens socket 14, the second lens socket 15, the third lens socket 16, the fourth lens socket 17, the fifth lens socket 18, and the sixth lens socket 19 are arranged in order from top to bottom and connected to one side of the lower lens body 12.
[0019] Specifically, the first display component 23 includes a first display screen and a first driver board. The first display screen is connected to the first driver board. The first driver board is provided with a first power interface and a first video interface. The first power interface is connected to the fourth lens socket 17, and the first video interface is connected to the first lens socket 14. The fourth lens socket 17 is connected to the switching power supply via a cable, and the first lens socket 14 is connected to the computer 1 via a cable. The second display component 24 includes a second display screen and a second driver board. The second display screen is connected to the second driver board. The second driver board is provided with a second power interface and a second video interface. The second power interface is connected to the fifth lens socket 18, and the second video interface is connected to the second lens socket 15. The fifth lens socket 18 is connected to the switching power supply via a cable, and the second lens socket 15 is connected to the computer 1 via a cable.
[0020] Specifically, the lower scope body 12 is further provided with a main aiming zoom handwheel 8, a main aiming-auxiliary aiming conversion handwheel 9, and an auxiliary aiming reticle handwheel. The lower scope body 12 also contains a main aiming zoom adjustment potentiometer 20, a main aiming-auxiliary aiming conversion adjustment potentiometer 21, and an auxiliary aiming reticle adjustment potentiometer 22. The main aiming zoom handwheel 8 is used for manual adjustment of the main aiming zoom adjustment potentiometer 20, the main aiming-auxiliary aiming conversion handwheel 9 is used for manual adjustment of the main aiming-auxiliary aiming conversion adjustment potentiometer 21, and the auxiliary aiming reticle... The handwheel is used to manually adjust the auxiliary aiming reticle adjustment potentiometer 22; the main aiming magnification adjustment potentiometer 20, the main aiming-auxiliary aiming conversion adjustment potentiometer 2121, and the auxiliary aiming reticle adjustment potentiometer 22 are all connected to the signal input terminal of the data acquisition control board 25, the signal output terminal of the data acquisition control board 25 is connected to the third lens socket 16, the power input port on the data acquisition control board 25 is connected to the sixth lens socket 19, the third lens socket 16 is connected to the computer 1, and the sixth lens socket 19 is connected to the switching power supply 2.
[0021] Specifically, the lower scope body 12 is also provided with an auxiliary aiming scope azimuth calibration handwheel 10 and an auxiliary aiming scope elevation calibration handwheel 11.
[0022] The working principle of this utility model is explained in conjunction with its technical solution and accompanying drawings: A computer 1 simulates and generates a visual scene for teaching purposes, which is then transmitted via cable to the scope simulation component 3. This allows the visual scene to be displayed on the first display screen of the first display component 23 built into the eyepiece 5, simulating the detection and aiming at targets within the eyepiece 5, providing a realistic experience. Simultaneously, the operation panel 6, operation keys 7, main aiming magnification wheel 8, main aiming / auxiliary aiming conversion wheel 9, auxiliary aiming reticle wheel, auxiliary scope azimuth calibration wheel 10, and auxiliary scope elevation calibration wheel 11 meet the real manual operation needs of instructors and students, fully achieving the teaching and operational training effects. This utility model's scope simulation system, through the aforementioned various handwheels and operation keys 7, combined with the data acquisition control board 25, comprehensively simulates the magnification, auxiliary aiming conversion, and reticle adjustment functions of an actual scope, offering flexible operation and a strong sense of realism.
[0023] This utility model's aiming scope simulation system can be used in higher engineering colleges for instructional teaching. It can also be used in maintenance training simulation teaching systems and maintenance training simulators, effectively reducing the cost and risk of using actual components in teaching, and meeting the needs of colleges for component explanation, function introduction, and practical operation teaching. Teaching using this utility model's aiming scope simulation system is reusable without considering wear and tear, greatly increasing the frequency and effectiveness of teaching.
[0024] It is understood that the above specific description of this utility model is only used to illustrate this utility model and is not limited to the technical solutions described in the embodiments of this utility model. Those skilled in the art should understand that modifications or equivalent substitutions can still be made to this utility model to achieve the same technical effect; as long as the use needs are met, they are all within the protection scope of this utility model.
Claims
1. A scope simulation system, characterized in that: The system includes a scope simulator, a computer, and a power supply. The scope simulator is connected to both the computer and the power supply. The scope simulator includes an upper scope body and a lower scope body, which are connected together. A scope socket assembly is connected to one side of the lower scope body, and an eyepiece and a 1x magnification scope are connected to the other side. A first display component is installed in one end of the eyepiece connected to the lower scope body, and a second display component is installed in one end of the 1x magnification scope connected to the lower scope body. Both the first and second display components are connected to the scope socket assembly. A data acquisition and control board is installed inside the lower scope body. An operation panel is also installed on the side of the lower scope body below the eyepiece and the 1x magnification scope. The operation panel has operation keys, which are connected to the signal input terminal of the data acquisition and control board inside the lower scope body. The signal output terminal of the data acquisition and control board is connected to the scope socket assembly.
2. The aiming scope simulation system according to claim 1, characterized in that: The lens socket assembly includes a first lens socket, a second lens socket, a third lens socket, a fourth lens socket, a fifth lens socket, and a sixth lens socket, which are arranged sequentially from top to bottom and connected to one side of the lower lens body.
3. The aiming scope simulation system according to claim 2, characterized in that: The first display component includes a first display screen and a first driver board. The first display screen is connected to the first driver board. The first driver board is provided with a first power interface and a first video interface. The first power interface is connected to a fourth camera socket. The first video interface is connected to the first camera socket. The fourth camera socket is connected to a switching power supply. The first camera socket is connected to a computer.
4. The aiming scope simulation system according to claim 2, characterized in that: The second display component includes a second display screen and a second driver board. The second display screen is connected to the second driver board. The second driver board is provided with a second power interface and a second video interface. The second power interface is connected to a fifth mirror socket, the second video interface is connected to the second mirror socket, the fifth mirror socket is connected to a switching power supply, and the second mirror socket is connected to a computer.
5. A scope simulation system according to claim 2, characterized in that: The lower scope body is also equipped with a main aiming zoom handwheel, a main aiming-auxiliary aiming switching handwheel, and an auxiliary aiming reticle handwheel. Inside the lower scope body, there are also main aiming zoom adjustment potentiometers, main aiming-auxiliary aiming switching adjustment potentiometers, and auxiliary aiming reticle adjustment potentiometers. The main aiming zoom handwheel is used to manually adjust the main aiming zoom adjustment potentiometer, the main aiming-auxiliary aiming switching handwheel is used to manually adjust the main aiming-auxiliary aiming switching adjustment potentiometer, and the auxiliary aiming reticle handwheel is used to manually adjust the auxiliary aiming reticle adjustment potentiometer. The main aiming zoom adjustment potentiometer, the main aiming-auxiliary aiming switching adjustment potentiometer, and the auxiliary aiming reticle adjustment potentiometer are all connected to the signal input terminal of the data acquisition control board. The signal output terminal of the data acquisition control board is connected to the third scope socket. The power input port of the data acquisition control board is connected to the sixth scope socket. The third scope socket is connected to the computer, and the sixth scope socket is connected to the switching power supply.
6. The aiming scope simulation system according to claim 1, characterized in that: The lower scope body is also equipped with an auxiliary aiming scope azimuth calibration handwheel and an auxiliary aiming scope elevation calibration handwheel.