Rotatable linear electron accelerator device

Abstract

The utility model belongs to the technical field of accelerator application, and particularly relates to a rotatable linear electron accelerator device which comprises a stable base, a supporting rod, a rotating assembly, a scanning cover and an acceleration box body. A supporting rod is installed at the top of the stable base, a rotating assembly is installed at the top of the supporting rod, an acceleration box is installed at the top of the rotating assembly, a flashing lamp is installed on the front surface of the acceleration box, a scanning cover is installed on the front surface of the acceleration box, an electronic gun is installed in the acceleration box, and an acceleration pipeline is installed at one end of the electronic gun. One end of the acceleration pipeline is provided with a vacuum drift pipeline, and one end of the vacuum drift pipeline is connected with the scanning cover; the scanning cover is arranged at one end of the vacuum drift pipeline and used for accurately controlling the motion trail of particles, and it is ensured that the particles can be accelerated and scanned according to a preset path.

Description

Technical Field

[0001] The utility model relates to the technical field of linear accelerator applications, and specifically relates to a rotatable linear electron accelerator device. Background Art

[0002] Existing linear electron accelerator devices are usually fixed in a certain position and cannot be flexibly adjusted according to actual needs, which to a certain extent limits their application scope, especially in occasions where quick and flexible adjustment is required. Therefore, it is necessary to design a rotatable linear electron accelerator device to meet the needs in different scenarios. Content of the Utility Model

[0003] The purpose of the utility model is to provide a rotatable linear electron accelerator device to solve the problems raised in the background art.

[0004] To achieve the above purpose, the utility model provides the following technical solution: A rotatable linear electron accelerator device, including a stable base, a support rod, a rotating assembly, a scanning cover, and an acceleration box; A support rod is installed on the top of the stable base, and the support rod is connected to the stable base by bolts to ensure the stability of the support rod and prevent sliding or tilting when used on unstable ground. A rotating assembly is installed on the top of the support rod, and an acceleration box is installed on the top of the rotating assembly. The top of the rotating assembly is further fixed with an acceleration box. This design forms a stable three-point support structure among the support rod, the rotating assembly, and the acceleration box, which not only ensures the stability of the overall structure but also effectively realizes the smooth rotation and acceleration functions during the dynamic process. A flashing light is installed on the front surface of the acceleration box. The flashing light can emit a flashing light signal to indicate the working state of the acceleration box. The flashing light uses high-brightness LED lamp beads to ensure clear visibility even in harsh environments to ensure that the light signal can be accurately reflected or projected to the area that needs to be observed. A scanning cover is installed on the front surface of the acceleration box. Through the precise scanning of the scanning cover, the subtle changes on the front surface of the acceleration box can be quickly captured, providing reliable data support for subsequent intelligent processing. An electron gun is installed inside the acceleration box, and an acceleration pipe is installed at one end of the electron gun. The electron gun is exquisitely designed to generate and accelerate an electron beam, making it have high energy. The acceleration pipe is responsible for guiding the electron beam to ensure its stable and efficient passage through the acceleration box. This structure not only improves the transmission efficiency of the electron beam but also enhances the stability and reliability of the entire system. A vacuum drift pipe is installed at one end of the acceleration pipe, and one end of the vacuum drift pipe is connected to the scanning cover. At one end of the acceleration pipe, a vacuum drift pipe is carefully installed to reduce the energy loss of particles during transmission by using a vacuum environment and improve the transmission efficiency. One end of the vacuum drift pipe is configured with a scanning cover for precisely controlling the movement trajectory of particles to ensure that the particles can be accelerated and scanned along a predetermined path.

[0005] Preferably, lifting rods are fixed on both sides of the front surface of the acceleration box body, and a controller is installed at the bottom end of the front surface of the acceleration box body. The lifting rods are firmly fixed on both sides of the front surface of the acceleration box body through fixing devices. The design of the lifting rods makes the operation more convenient. As the core component of the entire acceleration box body, the controller is responsible for receiving and processing various signals, so as to achieve precise control of various functions of the acceleration box body.

[0006] Preferably, focusing coils are installed on both sides of the acceleration pipeline, and beam expanding coils are installed on both sides of the vacuum drift pipeline. The acceleration pipeline is not only surrounded by the focusing coils installed on both sides. These focusing coils can ensure that the high-energy particle beam is precisely controlled when passing through, realizing the focusing and acceleration of the particle beam. At the same time, the vacuum drift pipeline is specially designed with beam expanding coils installed on both sides respectively. These beam expanding coils can expand the particle beam, ensure the stable drift of particles in the pipeline, and maintain the required beam size and distribution.

[0007] Preferably, deflection magnets are arranged on both sides of the connection between the vacuum drift pipeline and the scanning cover, and a spirit level is arranged on the front surface of the stable base. The vacuum drift pipeline and the scanning cover are stably connected through a precise connection mechanism to ensure that the internal vacuum state of the pipeline will not be interfered by the outside world. The deflection magnets arranged on both sides of the connection can precisely control the deflection angle of the electron beam by precisely controlling the magnetic field intensity, so as to achieve high-precision measurement. A spirit level is installed on the front surface of the stable base to monitor the level of the base in real time, ensure that the whole device is placed stably, and improve the measurement accuracy.

[0008] Preferably, a power box body is installed on the rotating assembly. A lithium-ion battery pack is installed inside the power box body, a rotating motor is installed on the top of the power box body, and a rotating rod is installed on the output end of the rotating motor. The power box body is firmly installed on the rotating assembly. The lithium-ion battery pack is ingeniously configured inside the power box body to provide continuous and stable power for the whole assembly. A rotating motor is installed on the top of the power box body, and this motor can efficiently convert electrical energy into mechanical energy.

[0009] Compared with the prior art, the beneficial effects of the present utility model are as follows: An acceleration box body is installed on the top of the rotating assembly of the present utility model, and the acceleration box body is further fixed on the top of the rotating assembly. This design enables a stable three-point support structure to be formed among the support rod, the rotating assembly and the acceleration box body, which not only ensures the stability of the overall structure, but also effectively realizes the stable rotation and acceleration functions during the dynamic process. A flashing lamp is installed on the front surface of the acceleration box body. The flashing lamp can emit flashing optical signals to indicate the working state of the acceleration box body. The flashing lamp adopts high-brightness LED lamp beads to ensure clear visibility even in harsh environments, so as to ensure that the optical signals can be accurately reflected or projected to the area that needs to be observed.

[0010] The vacuum drift pipe of the present utility model is stably connected to the scanning cover through a precision connection mechanism, ensuring that the internal vacuum state of the pipe is not interfered by the outside world. Deflection magnets are arranged on both sides of the connection. By precisely controlling the magnetic field intensity, the deflection angle of the electron beam can be accurately controlled, thus achieving high-precision measurement. A level is installed on the front surface of the stable base to monitor the levelness of the base in real time, ensuring that the entire device is placed stably and improving the measurement accuracy. Brief Description of the Drawings

[0011] Figure 1 It is a schematic diagram of the overall structure of the present utility model;

[0012] Figure 2 It is a schematic diagram of the inside of the acceleration box of the present utility model;

[0013] Figure 3 It is a schematic diagram of the rotating assembly of the present utility model;

[0014] In the figure: 1, stable base; 2, level; 3, support rod; 4, rotating assembly; 41, power box; 42, lithium-ion battery pack; 43, rotating motor; 44, rotating rod; 5, controller; 6, lifting rod; 7, scanning cover; 8, acceleration box; 9, vacuum drift pipe; 10, flashing lamp; 11, electron gun; 12, acceleration pipe; 13, focusing coil; 14, beam expanding coil; 15, deflection magnet. Detailed Embodiment

[0015] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative work shall fall within the protection scope of the present utility model.

[0016] The utility model provides a rotatable linear electron accelerator device, which includes a stable base 1, a support rod 3, a rotating assembly 4, a scanning cover 7 and an acceleration box 8; a support rod 3 is installed on the top of the stable base 1, and the support rod 3 is connected to the stable base 1 by bolts to ensure the stability of the support rod 3 and prevent sliding or tilting when used on unstable ground. A rotating assembly 4 is installed on the top of the support rod 3, and an acceleration box 8 is installed on the top of the rotating assembly 4. The top of the rotating assembly 4 is further fixed with the acceleration box 8. This design forms a stable three-point support structure among the support rod 3, the rotating assembly 4 and the acceleration box 8, which not only ensures the stability of the overall structure but also effectively realizes the smooth rotation and acceleration functions during the dynamic process. A flashing lamp 10 is installed on the front surface of the acceleration box 8. The flashing lamp 10 can emit a flashing optical signal to indicate the working state of the acceleration box 8. The flashing lamp 10 uses high-brightness LED lamp beads to ensure clear visibility even in harsh environments, so as to ensure that the optical signal can be accurately reflected or projected to the area that needs to be observed. A scanning cover 7 is installed on the front surface of the acceleration box 8. Through the precise scanning of the scanning cover 7, the subtle changes on the front surface of the acceleration box 8 can be quickly captured, providing reliable data support for subsequent intelligent processing. An electron gun 11 is installed inside the acceleration box 8. One end of the electron gun 11 is installed with an acceleration pipe 12. The electron gun 11 is exquisitely designed to generate and accelerate an electron beam, making it have high energy. The acceleration pipe 12 is responsible for guiding the electron beam to ensure its stable and efficient passage through the acceleration box 8. This structure not only improves the transmission efficiency of the electron beam but also enhances the stability and reliability of the entire system. One end of the acceleration pipe 12 is installed with a vacuum drift pipe 9. One end of the vacuum drift pipe 9 is connected to the scanning cover 7. At one end of the acceleration pipe 12, a vacuum drift pipe 9 is carefully installed. The vacuum environment is used to reduce the energy loss of particles during transmission and improve the transmission efficiency. One end of the vacuum drift pipe 9 is configured with the scanning cover 7 to precisely control the movement trajectory of particles and ensure that the particles can be accelerated and scanned along the predetermined path.

[0017] Lifting rods 6 are fixed on both sides of the front surface of the acceleration box 8, and a controller 5 is installed at the bottom end of the front surface of the acceleration box 8. The lifting rods 6 are firmly fixed on both sides of the front surface of the acceleration box 8 through fixing devices. The design of the lifting rods 6 makes the operation more convenient. As the core component of the entire acceleration box 8, the controller 5 is responsible for receiving and processing various signals, thereby realizing the precise control of various functions of the acceleration box 8.

[0018] Focusing coils 13 are installed on both sides of the acceleration pipeline 12, and beam expanding coils 14 are installed on both sides of the vacuum drift pipeline 9. The acceleration pipeline 12 is not only surrounded by the focusing coils 13 installed on both sides, which can ensure that the high-energy particle beam is precisely controlled when passing through, realizing the focusing and acceleration of the particle beam. At the same time, the vacuum drift pipeline 9 is also specially designed with beam expanding coils 14 installed on both sides respectively. These beam expanding coils 14 can expand the particle beam, ensure the stable drift of particles in the pipeline, and maintain the required beam size and distribution.

[0019] Deflection magnets 15 are arranged on both sides of the connection between the vacuum drift pipeline 9 and the scanning cover 7, and a spirit level 2 is arranged on the front surface of the stable base 1. The vacuum drift pipeline 9 and the scanning cover 7 are stably connected through a precision connection mechanism to ensure that the internal vacuum state of the pipeline will not be interfered by the outside world. The deflection magnets 15 arranged on both sides of the connection can precisely control the deflection angle of the electron beam by precisely controlling the magnetic field strength, so as to achieve high-precision measurement. A spirit level 2 is installed on the front surface of the stable base 1 to monitor the levelness of the base in real time, ensure that the whole device is placed stably, and improve the measurement accuracy.

[0020] A power box body 41 is installed on the rotating assembly 4. A lithium-ion battery pack 42 is installed inside the power box body 41, and a rotating motor 43 is installed on the top of the power box body 41. A rotating rod 44 is installed on the output end of the rotating motor 43. The power box body 41 is stably installed on the rotating assembly 4. The lithium-ion battery pack 42 is ingeniously configured inside the power box body 41 to provide continuous and stable power for the whole assembly. A rotating motor 43 is installed on the top of the power box body 41, and this motor can efficiently convert electrical energy into mechanical energy.

[0021] Although the present invention has been described above with reference to the embodiments, various improvements can be made to it and components therein can be replaced with equivalents without departing from the scope of the present invention. In particular, as long as there is no structural conflict, the various features in the disclosed embodiments of the present invention can be combined with each other in any way. The reason for not exhaustively describing the situations of these combinations in this specification is only to save space and resources. Therefore, the present invention is not limited to the specific embodiments disclosed in the text, but includes all technical solutions falling within the scope of the claims.

Claims

1. A rotatable linear electron accelerator device, comprising a stable base (1), a support rod (3), a rotating assembly (4), a scanning cover (7) and an acceleration box (8); characterized in that: A support rod (3) is installed on the top of the stable base (1), a rotating assembly (4) is installed on the top of the support rod (3), an accelerating box (8) is installed on the top of the rotating assembly (4), a flashing light (10) is installed on the front surface of the accelerating box (8), a scanning cover (7) is installed on the front surface of the accelerating box (8), an electron gun (11) is installed inside the accelerating box (8), an accelerating pipe (12) is installed at one end of the electron gun (11), a vacuum drift pipe (9) is installed at one end of the accelerating pipe (12), and one end of the vacuum drift pipe (9) is connected to the scanning cover (7).

2. A rotatable linear electron accelerator device according to claim 1, characterized in that: Lifting rods (6) are fixed on both sides of the front surface of the acceleration box (8), and a controller (5) is installed at the bottom end of the front surface of the acceleration box (8).

3. A rotatable linear electron accelerator device according to claim 1, characterized in that: Focusing coils (13) are installed on both sides of the accelerating pipe (12), and beam expanding coils (14) are installed on both sides of the vacuum drift pipe (9).

4. A rotatable linear electron accelerator device according to claim 1, characterized in that: Deflection magnets (15) are arranged on both sides of the connection between the vacuum drift pipe (9) and the scanning cover (7), and a level (2) is arranged on the front surface of the stable base (1).

5. The rotatable linear electron accelerator device according to claim 1, characterized in that: The rotating assembly (4) is provided with a power box (41), a lithium-ion battery pack (42) is provided inside the power box (41), a rotating motor (43) is provided on the top of the power box (41), and a rotating rod (44) is provided on the output end of the rotating motor (43).

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