Animal-specific cone-beam computer reconstruction tomography system

Abstract

The present invention relates to the field of pet diagnosis and treatment technology, and discloses an animal-specific cone beam projection computer reconstruction tomography imaging system, including a main power access module, a main power cable provides a 220V, 16A power supply, a power distribution module, connected to a terminal block XT1 through a circuit breaker and a filter, the terminal block XT1 is respectively connected to a switch power supply A4, a high-voltage control box, a servo motor driver, a switch power supply A1, a switch power supply A2, a door light and door lock reserved switch and an XT3 terminal block, a switch power supply module, including a switch power supply A4, a switch power supply A1 and a switch power supply A2, a high-voltage control module, a servo motor drive module, an operating table module and a computer module. The animal-specific cone beam projection computer reconstruction tomography imaging system realizes efficient and stable operation of medical imaging equipment through multi-module collaborative control, improves work efficiency, reduces the risk of single-point failures, facilitates maintenance and replacement, and reduces maintenance costs.

Description

Technical Field

[0001] The present invention relates to the field of pet diagnosis and treatment technology, in particular to a cone beam projection computer reconstruction tomography imaging system dedicated to animals. Background Art

[0002] Pet diagnosis and treatment services are a rapidly developing industry, with strong professional and technical expertise, a wide range of services, a late start, and rapid development. The service objects, pets, have no ability to express themselves in words, and curing small animals and satisfying their owners is the ultimate goal of this industry; animal doctors should not only have certain professional veterinary basic knowledge and clinical work experience, but more importantly, use modern medical instruments and equipment to make a clear diagnosis and have evidence to rely on, so as to quickly diagnose and treat, shorten the course of the disease, and win the praise of pet owners.

[0003] The most intuitive and effective inspection method among medical devices is imaging examination, among which CT is the first choice for high-end imaging examination. However, the high cost of using and maintaining spiral CT restricts some animal hospitals that want to purchase CT but have limited funds. Therefore, there is an urgent need for an animal-specific cone-beam projection computer reconstruction tomography imaging system. Summary of the invention

[0004] The object of the present invention is to provide a cone-beam projection computerized reconstruction tomography system for animals to solve the problems raised in the above-mentioned background technology.

[0005] In order to solve the above technical problems, the present invention provides the following technical solutions: a cone beam projection computer reconstruction tomography imaging system for animals, comprising:

[0006] The main power access module is provided with 220V, 16A power by the main power cable;

[0007] The power distribution module is connected to the terminal block XT1 through the circuit breaker and the filter. The terminal block XT1 is respectively connected to the switching power supply A4, the high-voltage control box, the servo motor driver, the switching power supply A1, the switching power supply A2, the door light and door lock reserved switch and the XT3 terminal block;

[0008] The switching power supply module includes a switching power supply A4, a switching power supply A1 and a switching power supply A2. The switching power supply A4 converts 220V electricity into a voltage suitable for the flat panel detector and the control board, and supplies power to the LCD display. The switching power supply A1 supplies power to the X99 and XT2 terminal blocks of the control board. The switching power supply A2 supplies power to the scanning bed motion control board.

[0009] High-voltage control module, including high-voltage inverter box, high-voltage oil tank and high-voltage control box. The high-voltage control box supplies power to the flat-panel detector through a 220V power supply, is synchronously connected to the flat-panel detector and the control panel, and communicates with the computer through optical fiber;

[0010] Servo motor drive module: The servo motor driver is connected to the control board X102 through the terminal block XT1 and KM1 via a 220V power supply, and then the servo motor is controlled by the control board X102;

[0011] Operation table module: after the operation table is powered on, the control panel communicates with the computer, high-voltage control box, scanning bed, exposure handle, exposure pedal, optical coupler detection and light strip;

[0012] Computer module, the computer is powered by the socket connected by the XT1 terminal block and the XT3 terminal block. The computer communicates with the control board, and the control board sends commands to control the operation of each part to realize the rotation of the scanning frame, the lifting and rotation of the bed, and the exposure scanning.

[0013] The main power access module is provided with 220V, 16A power by the main power cable to provide power for the entire system. The power distribution module is connected to the terminal block XT1 through the circuit breaker and the filter. The terminal block XT1 is respectively connected to the switching power supply A4, the high-voltage control box, the servo motor driver, the switching power supply A1, the switching power supply A2, the door light and door lock reserved switch and the XT3 terminal block to achieve effective distribution and management of power. The switching power supply module includes the switching power supply A4, the switching power supply A1 and the switching power supply A2, which respectively convert 220V electricity into voltages suitable for different components. The switching power supply A4 converts 220V electricity into voltages suitable for the flat-panel detector and the control board, and powers the LCD display.

[0014] Preferably, the control panel communicates with the computer, the high-voltage control box, the scanning bed, the exposure handle, the exposure pedal, the optical coupler detection and the light strip through wired or wireless communication.

[0015] Preferably, the high voltage control box communicates with the computer via optical fiber.

[0016] Preferably, the switching power supply A4, the switching power supply A12 and the switching power supply A2 all have an overload protection function.

[0017] Preferably, the terminal blocks XT1 and XT3 both have an anti-electric shock protection function.

[0018] The switching power supply A4, the switching power supply A1 and the switching power supply A2 all have overload protection function to ensure the safe operation of the power module. The terminal blocks XT1 and XT3 all have anti-electric shock protection function to improve the safety performance of the system.

[0019] Preferably, the servo motor driver has a position feedback function, which can monitor the position of the servo motor in real time and feed back to the control board.

[0020] Preferably, the computer module includes a data processing unit and a display unit, the data processing unit is responsible for processing the image data, and the display unit is used to display the image results.

[0021] Preferably, the flat panel detector has a self-calibration function and can be automatically calibrated before each use to ensure image quality.

[0022] The servo motor driver has a position feedback function, which can monitor the position of the servo motor in real time and feed back to the control board to ensure the accuracy of movement. The computer module includes a data processing unit and a display unit. The data processing unit is responsible for processing image data, and the display unit is used to display image results.

[0023] Preferably, the control panel has a fault diagnosis function, and can monitor the working status of each module in real time and perform fault diagnosis.

[0024] Compared with the prior art, the beneficial effects achieved by the present invention are:

[0025] First, in the present invention, the main power access module provides a 220V, 16A power supply from the main power cable to provide a power source for the entire system. The power distribution module is connected to the terminal block XT1 through a circuit breaker and a filter. The terminal block XT1 is respectively connected to the switching power supply A4, the high-voltage control box, the servo motor driver, the switching power supply A1, the switching power supply A2, the door light and door lock reserved switch and the XT3 terminal block to achieve effective distribution and management of power. The switching power supply module includes the switching power supply A4, the switching power supply A1 and the switching power supply A2, which respectively convert 220V electricity into voltages suitable for different components. The switching power supply A4 converts 220V electricity into a voltage suitable for the flat-panel detector and the control board, and supplies power to the liquid crystal display. The switching power supply A1 supplies power to the control board X99 and the XT2 terminal block. The switching power supply A2 supplies power to the scanning bed motion control board. The high-voltage control module includes a high-voltage inverter box, a high-voltage oil tank and a high-voltage control box. The high-voltage control box supplies power to the flat panel detector through a 220V power supply, and is synchronously connected to the flat panel detector and the control board. It communicates with the computer through optical fiber to ensure the safety and efficient operation of the high-voltage part. Servo motor drive module: The servo motor driver is connected to the control board X102 through the terminal block XT1 and KM1 through the 220V power supply, and then the control board X102 controls the servo motor to achieve precise motion control. After the operation table in the operation table module is powered on, the control board communicates with the computer, high-voltage control box, scanning bed, exposure handle, exposure foot pedal, optical coupler detection and light strip to ensure the coordinated work of each part. The computer in the computer module is powered by the socket connected to the XT1 terminal block and the XT3 terminal block, and communicates with the control board. The control board issues commands to control the operation of each part, realizing the rotation of the scanning frame, the lifting and rotation of the bed, and the exposure scanning. The computer module includes a data processing unit and a display unit. The data processing unit is responsible for processing image data, and the display unit is used to display image results. The system realizes the efficient and stable operation of medical imaging equipment through multi-module collaborative control, improves work efficiency, reduces the risk of single point failure, facilitates maintenance and replacement, and reduces maintenance costs. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0027] Figure 2 It is a schematic diagram of the main structure of the present invention;

[0028] Figure 3 It is a schematic diagram of the circuit structure of the present invention. DETAILED DESCRIPTION

[0029] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0030] The present invention provides the following technical solutions:

[0031] See also Figure 1 , Figure 2 and Figure 3 , animal-specific cone-beam CT imaging system, including:

[0032] The main power access module is provided with 220V, 16A power by the main power cable;

[0033] The power distribution module is connected to the terminal block XT1 through the circuit breaker and the filter. The terminal block XT1 is respectively connected to the switching power supply A4, the high-voltage control box, the servo motor driver, the switching power supply A1, the switching power supply A2, the door light and door lock reserved switch and the XT3 terminal block;

[0034] The switching power supply module includes a switching power supply A4, a switching power supply A1 and a switching power supply A2. The switching power supply A4 converts 220V electricity into a voltage suitable for the flat panel detector and the control board, and supplies power to the LCD display. The switching power supply A1 supplies power to the X99 and XT2 terminal blocks of the control board. The switching power supply A2 supplies power to the scanning bed motion control board.

[0035] High-voltage control module, including high-voltage inverter box, high-voltage oil tank and high-voltage control box. The high-voltage control box supplies power to the flat-panel detector through a 220V power supply, is synchronously connected to the flat-panel detector and the control panel, and communicates with the computer through optical fiber;

[0036] Servo motor drive module: The servo motor driver is connected to the control board X102 through the terminal block XT1 and KM1 via a 220V power supply, and then the servo motor is controlled by the control board X102;

[0037] Operation table module: after the operation table is powered on, the control panel communicates with the computer, high-voltage control box, scanning bed, exposure handle, exposure pedal, optical coupler detection and light strip;

[0038] Computer module, the computer is powered by the socket connected by the XT1 terminal block and the XT3 terminal block. The computer communicates with the control board, and the control board sends commands to control the operation of each part to realize the rotation of the scanning frame, the lifting and rotation of the bed, and the exposure scanning.

[0039] Through the above technical solution, the main power access module provides 220V, 16A power supply from the main power cable to provide power source for the entire system. The power distribution module is connected to the terminal block XT1 through the circuit breaker and the filter. The terminal block XT1 is respectively connected to the switching power supply A4, the high-voltage control box, the servo motor driver, the switching power supply A1, the switching power supply A2, the door light and door lock reserved switch and the XT3 terminal block to realize the effective distribution and management of power supply. The switching power supply module includes the switching power supply A4, the switching power supply A1 and the switching power supply A2, which respectively convert 220V electricity into voltages suitable for different components. The switching power supply A4 converts 220V electricity into voltages suitable for the flat-panel detector and the control board, and supplies power to the LCD display. The switching power supply A1 supplies power to the control board X99 and the XT2 terminal block. The switching power supply A2 supplies power to the scanning bed motion control board. The high-voltage control module includes a high-voltage inverter box, a high-voltage oil tank and a high-voltage control box. The high-voltage control box supplies power to the flat panel detector through a 220V power supply, and is synchronously connected to the flat panel detector and the control board. It communicates with the computer through optical fiber to ensure the safety and efficient operation of the high-voltage part. Servo motor drive module: The servo motor driver is connected to the control board X102 through the terminal block XT1 and KM1 through the 220V power supply, and then the control board X102 controls the servo motor to achieve precise motion control. After the operation table in the operation table module is powered on, the control board communicates with the computer, high-voltage control box, scanning bed, exposure handle, exposure foot pedal, optical coupler detection and light strip to ensure the coordinated work of each part. The computer in the computer module is powered by the socket connected to the XT1 terminal block and the XT3 terminal block, and communicates with the control board. The control board issues commands to control the operation of each part, realizing the rotation of the scanning frame, the lifting and rotation of the bed, and the exposure scanning. The computer module includes a data processing unit and a display unit. The data processing unit is responsible for processing image data, and the display unit is used to display image results. The system realizes the efficient and stable operation of medical imaging equipment through multi-module collaborative control, improves work efficiency, reduces the risk of single point failure, facilitates maintenance and replacement, and reduces maintenance costs.

[0040] The control panel communicates with the computer, the high-voltage control box, the scanning bed, the exposure handle, the exposure pedal, the optical coupler detection and the light belt through wired or wireless communication.

[0041] Through the above technical solution, the control panel can communicate with the computer, high-voltage control box, scanning bed, exposure handle, exposure pedal, optical coupler detection and light strip through wired or wireless communication.

[0042] The high voltage control box communicates with the computer via optical fiber.

[0043] Through the above technical solution, the high-voltage control box communicates with the computer through optical fiber, thereby improving the stability and security of communication.

[0044] The switching power supply A4, the switching power supply A12 and the switching power supply A2 all have an overload protection function.

[0045] Through the above technical solution, the switching power supply A4, the switching power supply A1 and the switching power supply A2 all have an overload protection function to ensure the safe operation of the power module.

[0046] Terminal blocks XT1 and XT3 both have an anti-electric shock protection function.

[0047] Through the above technical solution, terminal blocks XT1 and XT3 both have anti-electric shock protection function, thereby improving the safety performance of the system.

[0048] The servo motor driver has a position feedback function, which can monitor the position of the servo motor in real time and feed it back to the control board.

[0049] Through the above technical solution, the servo motor driver has a position feedback function, which can monitor the position of the servo motor in real time and feed back to the control board to ensure the accuracy of movement.

[0050] The computer module includes a data processing unit and a display unit. The data processing unit is responsible for processing image data, and the display unit is used to display image results.

[0051] Through the above technical solution, the computer module includes a data processing unit and a display unit. The data processing unit is responsible for processing image data, and the display unit is used to display image results.

[0052] The flat panel detector has a self-calibration function and can be automatically calibrated before each use to ensure image quality.

[0053] Through the above technical solution, the flat-panel detector has a self-calibration function and can be automatically calibrated before each use to ensure image quality.

[0054] The control panel has a fault diagnosis function, which can monitor the working status of each module in real time and perform fault diagnosis.

[0055] Through the above technical solution, the control panel has a fault diagnosis function, which can monitor the working status of each module in real time and perform fault diagnosis, thereby improving the reliability and maintenance efficiency of the system.

[0056] When in use, use the main power cable to connect the system to a 220V, 16A power supply, check the power indicator to ensure that the system is powered on normally, turn on the computer and control panel, initialize the system, and check whether the connections between modules are normal, including optical fibers, cables, etc. Before each use, the system will automatically or manually start the self-calibration function of the flat-panel detector. During the calibration process, the system will adjust the parameters of the detector to ensure image quality. Fix the animal on the scanning bed to ensure that it remains still during the scanning process. Use a laser alignment unit or other positioning tools to position the animal in the scanning center. According to scanning requirements, adjust the height and angle of the scanning bed. Set the scanning parameters on the computer, including scanning range, layer thickness, exposure time, etc. Click the "Start Scan" button on the computer to start the scanning process. The system will automatically control the rotation of the scanning frame, the lifting and rotation of the bed, and the exposure scan. After the scan is completed, the computer will automatically or manually start the image reconstruction algorithm, such as the FDK algorithm. During the reconstruction process, the system will use the scanned geometric parameters and original projection data to generate a three-dimensional tomographic image.

[0057] Although the embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit thereof, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. Animal-specific cone-beam computer reconstruction tomography system, characterized in that: include: The main power access module is provided with 220V, 16A power by the main power cable; The power distribution module is connected to the terminal block XT1 through the circuit breaker and the filter. The terminal block XT1 is respectively connected to the switching power supply A4, the high-voltage control box, the servo motor driver, the switching power supply A1, the switching power supply A2, the door light and door lock reserved switch and the XT3 terminal block; The switching power supply module includes a switching power supply A4, a switching power supply A1 and a switching power supply A2. The switching power supply A4 converts 220V electricity into a voltage suitable for the flat panel detector and the control board, and supplies power to the LCD display. The switching power supply A1 supplies power to the X99 and XT2 terminal blocks of the control board. The switching power supply A2 supplies power to the scanning bed motion control board. High-voltage control module, including high-voltage inverter box, high-voltage oil tank and high-voltage control box. The high-voltage control box supplies power to the flat-panel detector through a 220V power supply, is synchronously connected to the flat-panel detector and the control panel, and communicates with the computer through optical fiber; Servo motor drive module: The servo motor driver is connected to the control board X102 through the terminal block XT1 and KM1 via a 220V power supply, and then the servo motor is controlled by the control board X102; Operation table module: after the operation table is powered on, the control panel communicates with the computer, high-voltage control box, scanning bed, exposure handle, exposure pedal, optical coupler detection and light strip; Computer module, the computer is powered by the socket connected by the XT1 terminal block and the XT3 terminal block. The computer communicates with the control board, and the control board sends commands to control the operation of each part to realize the rotation of the scanning frame, the lifting and rotation of the bed, and the exposure scanning.

2. The animal-specific cone-beam CT imaging system according to claim 1, characterized in that: The control panel communicates with the computer, the high-voltage control box, the scanning bed, the exposure handle, the exposure pedal, the optical coupling detection and the light belt through wired or wireless communication.

3. The animal-specific cone-beam CT imaging system according to claim 1, characterized in that: The high voltage control box communicates with the computer via optical fiber.

4. The animal-specific cone-beam CT imaging system according to claim 1, characterized in that: The switching power supply A4, the switching power supply A12 and the switching power supply A2 all have an overload protection function.

5. The animal-specific cone-beam CT imaging system according to claim 1, characterized in that: The terminal blocks XT1 and XT3 both have an anti-electric shock protection function.

6. The animal-specific cone-beam CT imaging system according to claim 1, characterized in that: The servo motor driver has a position feedback function, and can monitor the position of the servo motor in real time and feed back the position to the control board.

7. The animal-specific cone-beam CT imaging system according to claim 1, characterized in that: The computer module includes a data processing unit and a display unit. The data processing unit is responsible for processing image data, and the display unit is used to display image results.

8. The animal-specific cone-beam CT imaging system according to claim 1, characterized in that: The flat panel detector has a self-calibration function and can be automatically calibrated before each use to ensure image quality.

9. The animal-specific cone-beam CT imaging system according to claim 1, characterized in that: The control panel has a fault diagnosis function and can monitor the working status of each module in real time and perform fault diagnosis.

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