Radiation-proof cover for X-ray bone age instrument

Abstract

The utility model relates to the technical field of medical instruments, in particular to an anti-radiation cover for an X-ray bone age instrument, which comprises a cover body, an equipment groove is arranged at the top of the cover body, a detection cavity is arranged on the cover body, the detection cavity is positioned below the equipment groove, a detection port is arranged on the front side of the detection cavity, an anti-radiation curtain is mounted on the detection port, and an image plate is arranged at the bottom of the detection cavity. A ray opening is formed in the bottom of the equipment groove, a lens is installed on the ray opening, a top cover is installed on the equipment groove, the cover body is made of light anti-radiation materials, X rays are effectively blocked, operators are protected against radiation injury, work safety is ensured, and the equipment groove is designed to facilitate installation of an X-ray generator and other related equipment. External equipment is easily connected through a data port in the top cover, automatic evaluation and report generation are achieved, the working efficiency is improved, the upper cover and the lower cover are separated, the height of the detection cavity is adjusted through the air cylinder, the requirements of different patients are met, and the operation flexibility is improved.

Description

Technical Field

[0001] This utility model relates to the field of medical device technology, specifically to a radiation shield for an X-ray bone age analyzer. Background Technology

[0002] In medical diagnosis, X-ray bone age assessment is an important tool for evaluating children's growth and development. However, X-rays pose a certain degree of radiation damage to the human body, therefore, strict protective measures must be taken during operation to protect both operators and patients from radiation harm. At the same time, to ensure the normal operation of the equipment and the accuracy of imaging, the design of the radiation shield must also consider practicality and convenience.

[0003] Traditional X-ray shields are typically made of heavy lead, which effectively blocks X-rays but is heavy, inconvenient to move, and expensive. Furthermore, traditional shields often have a simple design, lacking adjustability and convenience, making it difficult to meet the needs of different patients and the diversity of medical environments.

[0004] With the continuous advancement of medical technology and the increasing demands of patients for higher quality medical services, the market demand for a lightweight, efficient, convenient, and fully functional X-ray bone age analyzer radiation shield is becoming increasingly urgent. This radiation shield not only needs to possess excellent radiation protection performance, but also needs to be designed with ease of operation, patient comfort, and equipment adaptability in mind. Utility Model Content

[0005] To solve the above-mentioned technical problems, this utility model provides a radiation shield for X-ray bone age analyzers.

[0006] To achieve the above objectives, this utility model provides the following technical solution: The radiation shield for an X-ray bone age analyzer includes a shield body. The top of the shield body has an equipment slot. The shield body has a detection chamber located below the equipment slot. A detection port is located on the front side of the detection chamber, and a radiation shielding curtain is installed on the detection port. An image plate is located at the bottom of the detection chamber. A radiation port is located at the bottom of the equipment slot, and a lens is installed on the radiation port. A top cover is installed on the equipment slot, and the top cover has several data ports. The shield body is made of lightweight radiation shielding material. Several ventilation holes are located on the side walls of the equipment slot. A power module is located at the bottom of the shield body. A power interface is located at the bottom of the equipment slot, and the power interface is electrically connected to the power module. A power connection port is located at the bottom of the shield body, and the power connection port is electrically connected to the power module.

[0007] Preferably, the cover includes an upper cover and a lower cover. The power module is located inside the lower cover, and the equipment slot and detection chamber are located inside the upper cover. The top of the lower cover is provided with a mounting slot, and the side wall of the mounting slot is provided with several air inlets. A cylinder is installed in the mounting slot, and the output end of the cylinder is connected to the upper cover. The bottom of the upper cover is provided with a telescopic slot, which is fitted onto the outside of the lower cover. A control switch is installed on the outer wall of the lower cover, and the control switch is electrically connected to the cylinder and the power module.

[0008] More preferably, the cover is provided with a transparent window, which is connected to the detection cavity and is located above the detection port.

[0009] Preferably, the bottom corner of the lower cover is equipped with casters, and the casters are equipped with wheel locks.

[0010] Preferably, an illumination ring is installed at the bottom of the ray port, and a controller is provided on the outer surface of the upper cover. The controller is electrically connected to the power module and the illumination ring.

[0011] More preferably, the detection port adopts a cylindrical structure, the radiation shielding curtain is symmetrically arranged inside the detection port, and the detection port includes a silicone layer.

[0012] Compared with the prior art, the beneficial effects of this utility model are as follows:

[0013] High-efficiency radiation protection:

[0014] The enclosure is made of lightweight radiation-proof material, which effectively blocks X-rays, protects operators from radiation damage, and ensures work safety.

[0015] Equipment integration and ease of operation:

[0016] The equipment slot design facilitates the installation of X-ray generators and other related equipment. External devices can be easily connected via the data port on the top cover, enabling automated assessment and report generation and improving work efficiency.

[0017] Optimize the testing environment and patient comfort:

[0018] The detection chamber and detection port are designed in a reasonable way, the radiation-proof curtain effectively reduces radiation leakage, and the silicone layer increases patient comfort and ensures accurate imaging position.

[0019] The ventilation holes are designed to keep the air circulating inside the enclosure, prevent heat buildup, and improve equipment stability.

[0020] The adjustable structure offers strong adaptability.

[0021] The upper and lower covers are designed to be separate, and the height of the detection chamber can be adjusted by a cylinder to meet the needs of different patients and improve operational flexibility.

[0022] The observation window enhances ease of use:

[0023] The transparent viewing window design allows doctors to observe the position of the patient's limbs, ensuring the accuracy of the imaging, while the use of high-strength transparent materials ensures safety.

[0024] Mobile devices enhance equipment flexibility:

[0025] The universal wheels at the bottom of the lower cover facilitate equipment movement, while wheel locks ensure equipment stability, adapting to various medical environments and improving operational convenience.

[0026] Lighting devices improve the operating environment:

[0027] The lighting ring provides ample illumination, ensuring doctors can clearly observe the patient's limbs and optimizing the user experience.

[0028] The design of the inspection port enhances practicality and comfort:

[0029] The cylindrical structure combined with the radiation-proof curtain effectively blocks scattered X-rays, while the silicone layer increases sealing and comfort, ensuring testing quality. Attached Figure Description

[0030] Figure 1 This is a schematic diagram of the front view of the cover structure of this utility model;

[0031] Figure 2 This is a top view of the cover structure of this utility model;

[0032] Figure 3 This is a schematic diagram of the cross-sectional structure of the upper cover of this utility model;

[0033] Figure 4 This is a top view of the lower cover structure of this utility model;

[0034] Figure 5 This is a schematic diagram of the top cover structure of this utility model;

[0035] [Attached image labels]

[0036] In the diagram: 1. Cover; 2. Lower cover; 3. Upper cover; 4. Equipment slot; 5. Top cover; 6. X-ray port; 7. Ventilation hole; 8. Lens; 9. Detection port; 10. Detection chamber; 11. Imaging panel; 12. Radiation shielding curtain; 13. Lighting ring; 14. Transparent window; 15. Power interface; 16. Cylinder; 17. Air inlet; 18. Power connection port; 19. Casters; 20. Telescopic groove; 21. Control switch; 22. Controller; 23. Data port. Detailed Implementation

[0037] The specific embodiments of this utility model will be described in further detail below with reference to the accompanying drawings and examples. The following examples are used to illustrate this utility model, but are not intended to limit its scope.

[0038] Please see Figure 1-5 The present invention relates to a radiation shield for an X-ray bone age analyzer, comprising a shield body 1, an equipment slot 4 at the top of the shield body 1, a detection chamber 10 located below the equipment slot 4, a detection port 9 at the front of the detection chamber 10, a radiation shielding curtain 12 installed on the detection port 9, an image plate 11 at the bottom of the detection chamber 10, a radiation port 6 at the bottom of the equipment slot 4, a lens 8 installed on the radiation port 6, a top cover 5 on the equipment slot 4, and several data ports 23 on the top cover 5. The shield body 1 is made of lightweight radiation shielding material. Several ventilation holes 7 are provided on the side wall of the equipment slot 4. A power module is provided at the bottom of the shield body 1. A power interface 15 is provided at the bottom of the equipment slot 4 and is electrically connected to the power module. A power connection port 18 is provided at the bottom of the shield body 1 and is electrically connected to the power module.

[0039] This radiation shield for an X-ray bone age analyzer is primarily used to protect operators from X-ray radiation while ensuring the normal operation of the equipment. The shield body 1 is made of lightweight radiation-proof material, with an equipment slot 4 at the top for mounting the X-ray generator. The bottom of the equipment slot 4 has a radiation port 6 and is equipped with a lens 8 to correct the radiation direction. The detection chamber 10 is located below the equipment slot 4, with a detection port 9 at the front for the part being measured to enter. A radiation-proof curtain 12 is installed on the detection port 9 to reduce radiation leakage. An image plate 11 is placed at the bottom of the detection chamber 10 to capture X-ray images. The power module is located at the bottom of the shield body 1 and supplies power to the entire system through a power interface 15 and a power connection port 18. The power module in this invention can be a battery-based structure.

[0040] Working principle

[0041] Install:

[0042] Connect the radiation shield to an external power source via power port 18 to ensure the power module is supplying power normally.

[0043] An X-ray generator and other related equipment are installed in the equipment slot 4. An external device (such as a monitor and image processor) is connected through the data port 23 on the top cover 5 to automatically assess the patient's bone age. The external device can be configured with a bone age assessment algorithm to assess the patient based on a standard model. Afterward, a detailed assessment report is generated through the external device, including images, assessment results, and recommendations.

[0044] operate:

[0045] The patient places the area to be photographed (such as the wrist) into the detection chamber 10 through the detection port 9.

[0046] The radiation shielding curtain 12 blocks and absorbs scattered X-rays, preventing X-rays from escaping from the detection port 9 and protecting patients and operators.

[0047] The X-ray generator emits X-rays through the X-ray port 6, which penetrate the patient's limbs, are received by the imaging panel 11, and are converted into digital signals.

[0048] Ventilation holes 7 ensure air circulation inside the enclosure 1, preventing heat buildup and improving operational stability.

[0049] Preferred technical solution

[0050] Adjustable structure

[0051] Upper cover 3 and lower cover 2: Cover 1 is divided into upper cover 3 and lower cover 2. The power module is located inside the lower cover 2, and the equipment slot 4 and the detection chamber 10 are located inside the upper cover 3.

[0052] Mounting slot: The top of the lower cover 2 is provided with a mounting slot, and several air inlets 17 are provided on the side wall.

[0053] Cylinder 16: Cylinder 16 is installed in the mounting slot, and the output end of cylinder 16 is connected to the upper cover 3.

[0054] Telescopic groove 20: The bottom of the upper cover 3 is provided with a telescopic groove 20, which is fitted onto the outside of the lower cover 2.

[0055] Control switch 21: A control switch 21 is installed on the outer wall of the lower cover 2, which is electrically connected to the cylinder 16 and the power module, and is used to control the lifting and lowering of the upper cover 3.

[0056] Working principle:

[0057] When the control switch 21 is operated, the cylinder 16 is started, pushing the upper cover 3 to move up and down along the telescopic groove 20, thereby adjusting the height of the detection chamber 10 to meet the needs of different patients. The control switch 21 can be a relay or a PLC controller 22.

[0058] Observation window

[0059] Transparent window 14: A transparent window 14 is provided on the cover 1, which is connected to the detection cavity 10 and located above the detection port 9.

[0060] Transparent material: The transparent window 14 is made of high-strength transparent plastic, such as polycarbonate, which has good light transmission and impact resistance.

[0061] Working principle:

[0062] The doctor observes the patient's limb position through the transparent window 14 to ensure accurate shooting position.

[0063] mobile devices

[0064] Casters 19: Casters 19 are installed at the bottom corners of the lower cover 2 for easy movement.

[0065] Wheel lock: The caster wheel 19 is equipped with a wheel lock to ensure the stability of the equipment during use.

[0066] Working principle:

[0067] With the 19 casters and wheel locks, doctors can easily move and secure the radiation shield, improving the convenience and flexibility of the operation.

[0068] lighting fixtures

[0069] Illumination ring 13: An illumination ring 13 is installed at the bottom of the ray port 6.

[0070] Controller 22: A controller 22 is provided on the outer surface of the upper cover 3, which is electrically connected to the power supply module and the lighting ring 13. The controller 22 can be a relay or a PLC controller 22, and the controller 22 can also be electrically connected to the X-ray generator.

[0071] Working principle:

[0072] The controller 22 controls the switch of the lighting ring 13 to provide sufficient lighting and ensure that the doctor can clearly see the position of the patient's limbs during the operation.

[0073] Detection port 9 design

[0074] Cylindrical structure: The detection port 9 adopts a cylindrical structure, which makes it convenient for the tester's wrist or other parts to enter.

[0075] Radiation shielding curtain 12: Symmetrically arranged inside the detection port 9, effectively blocking and absorbing scattered X-rays.

[0076] Silicone layer: The detection port 9 includes a silicone layer that fits snugly against the patient's wrist, blocking X-ray scattering and improving patient comfort.

[0077] This invention provides a radiation shield for an X-ray bone age analyzer. Through lightweight and efficient radiation-shielding materials and a multi-functional design, it achieves efficient and safe radiation protection. Preferred technical solutions, such as an adjustable structure, observation window, moving mechanism, and lighting device, further enhance the device's convenience and practicality, making it suitable for various medical environments.

[0078] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A radiation shield for an X-ray bone age apparatus, characterized in that, The utility model provides a kind of radiation protection device, including cover (1), the top of the cover (1) is equipped with equipment slot (4), and the cover (1) is equipped with detection cavity (10), and the detection cavity (10) is below equipment slot (4), the front side of the detection cavity (10) is equipped with detection port (9), and the detection port (9) is installed with radiation curtain (12), the bottom of the detection cavity (10) is equipped with image plate (11), the bottom of the equipment slot (4) is equipped with ray port (6), and the ray port (6) is installed with lens (8), and the equipment slot (4) is installed with top cover (5), and the top cover (5) is equipped with a plurality of data ports (23), and the cover (1) is equipped with lightweight radiation protection material, and the sidewall of the equipment slot (4) is equipped with a plurality of air holes (7), and the bottom of the cover (1) is equipped with power module, and the bottom of the equipment slot (4) is equipped with power interface (15), and the power interface (15) is electrically connected with power module, and the bottom of the cover (1) is equipped with electricity connection port (18), and the electricity connection port (18) is electrically connected with power module.

2. The radiation shield for an X-ray bone age apparatus of claim 1, wherein, The cover (1) includes upper cover (3) and lower cover (2), and the power module is located in the lower cover (2), and the equipment slot (4) and the detection cavity (10) are located in the upper cover (3), and the top of the lower cover (2) is equipped with mounting groove, and the sidewall of the mounting groove is equipped with a plurality of air inlet holes (17), and the mounting groove is installed with air cylinder (16), and the output end of the air cylinder (16) is connected with the upper cover (3), and the bottom of the upper cover (3) is equipped with telescopic groove (20), and the telescopic groove (20) is sleeved on the outside of the lower cover (2), and the outer wall of the lower cover (2) is installed with control switch (21), and the control switch (21) is electrically connected with the air cylinder (16) and the power module.

3. The radiation shield for an X-ray bone age apparatus of claim 2, wherein, The cover (1) is equipped with transparent window (14), the transparent window (14) is communicated with the detection cavity (10), and the transparent window (14) is located above the detection port (9).

4. The radiation shield for an X-ray bone age apparatus of claim 3, wherein, The bottom corner of the lower cover (2) is installed with universal wheel (19), and the universal wheel (19) is equipped with wheel lock.

5. The radiation shield for an X-ray bone age apparatus of claim 4, wherein, The bottom of the ray port (6) is installed with illuminating lamp ring (13), and the outer surface of the upper cover (3) is equipped with controller (22), and the controller (22) is electrically connected with the power module and the illuminating lamp ring (13).

6. The radiation shield for an X-ray bone age apparatus of claim 5, wherein, The detection port (9) adopts cylindrical structure, and the radiation curtain (12) is symmetrically arranged on the inner side of the detection port (9), and the detection port (9) includes silica gel layer.

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