Radioactive protective cover for newborn intensive care unit monitoring

Abstract

The invention provides a newborn intensive care unit monitoring radiation protection cover which comprises a frame structure, the frame structure is composed of two first anti-radiation partition plates and two second anti-radiation partition plates, and connecting buffer strips are arranged at the intersections of the first anti-radiation partition plates and the second anti-radiation partition plates; wherein a suction cup assembly is arranged in the second anti-radiation partition plate, the suction cup assembly and the second anti-radiation partition plate are of a detachable structure, a cuboid structure composed of the four anti-radiation partition plates can prevent radiation from spreading around in an all-around mode, more comprehensive protection is provided for surrounding newborns, and the newborns can be prevented from being damaged. The anti-radiation protection cover effectively reduces potential hazards of radiation to other children, the suction cup assembly in one anti-radiation partition plate can enable the protection cover to be tightly attached to the baby crib, the protection stability and sealing performance are enhanced, and the anti-radiation effect is further improved.

Description

Technical Field

[0001] The present invention relates to the technical field of medical devices, and particularly to a radiation protection cover for neonatal intensive care units. Background Art

[0002] In neonatal intensive care units, radiological examinations are one of the common diagnostic methods. However, due to the large number of patients in the intensive care area, when taking an X-ray of a certain child, the generated radiation will radiate to the surrounding area, causing potential radiation hazards to other children.

[0003] Previously, the radiology department used partition screens to try to solve this problem. However, such partition screens have many defects. Firstly, they are bulky, not only occupying a relatively large amount of space, but also being inconvenient to move and place in the ward. Secondly, they can only block the radiation on one side and cannot effectively contain the spread of the rays in other directions, resulting in a significant reduction in the protection effect. Moreover, due to their unreasonable design, they are prone to collide with the ceiling-mounted towers in the neonatal intensive care unit and cannot match them well, affecting the normal operation of the ward and the use of medical equipment. Summary of the Invention

[0004] To overcome the existing problems, the embodiments of the present application provide a radiation protection cover for neonatal intensive care units, which is a cuboid structure composed of four radiation protection partitions. It can block the spread of radiation in all directions to the surrounding area, providing more comprehensive protection for the surrounding neonates, effectively reducing the potential harm of radiation to other children. The suction cup assembly inside one of the radiation protection partitions can make the protection cover closely adhere to the baby cot, enhancing the stability and sealing performance of the protection, and further improving the radiation protection effect.

[0005] The technical solution adopted by the embodiments of the present application to solve its technical problems is as follows:

[0006] A radiation protection cover for neonatal intensive care units, including a frame structure, the frame structure is composed of two first radiation protection partitions and two second radiation protection partitions. A connecting buffer belt is provided at the intersection of the first radiation protection partition and the second radiation protection partition. The connecting buffer belt is made of a soft material. When the positions of the first radiation protection partition and the second radiation protection partition change, the connecting buffer belt is used to achieve a buffering and folding effect.

[0007] Among them, a sucker assembly is provided inside the second radiation protection partition. The sucker assembly and the second radiation protection partition are of a detachable structure. The two first radiation protection partitions and the two second radiation protection partitions form a cuboid protective cover structure. The camera takes pictures from above, and the protective cover structure blocks the spread of radiation from the surroundings. Through the sucker assembly, it is closely attached to the crib to better prevent radiation. The two first radiation protection partitions and the two second radiation protection partitions are surrounded to form a protective cover structure, and then the sucker assembly is fixed to the two second radiation protection partitions. After that, the protective cover structure is placed around the child, the position is adjusted, and it is fixed to the crib through the sucker assembly to ensure that the surrounding children are effectively protected from radiation during X-ray examination.

[0008] Preferably, both the first radiation protection partition and the second radiation protection partition are of a cuboid structure. The length of the first radiation protection partition is greater than that of the second radiation protection partition. The first radiation protection partition and the second radiation protection partition can be folded into a linear structure. When this structure is not in use, the two first radiation protection partitions and the two second radiation protection partitions can be folded into a linear structure through the connecting buffer belt, which is convenient for storage.

[0009] Preferably, antibacterial coatings are provided on the surfaces of both the first radiation protection partition and the second radiation protection partition. Through the setting of the antibacterial coatings, the antibacterial effect can be better achieved, and the protective effect on infants and young children is improved. A through groove is also provided inside the second radiation protection partition, and a protective pad is embedded inside the through groove. Through the setting of the through groove, the breathing tube can penetrate the through groove to supply oxygen to the baby inside, and with the protective pad provided, the pipeline can be protected under the protection of the protective pad.

[0010] Preferably, the sucker assembly includes a sucker main body and an air extraction device. One end of the sucker main body is provided with a connecting column, and the other end of the connecting column is provided with a through pipe; among them, the air extraction device is connected to the through pipe, and a negative pressure can be formed inside the sucker main body to enhance the adsorption force.

[0011] Preferably, a through hole is provided at the intersection of the second radiation protection partition and the sucker assembly. A sealing ring is provided inside the second radiation protection partition at the through hole. When the sucker assembly is connected to the second radiation protection partition, the through pipe inside the sucker assembly penetrates the through hole, and the through pipe is connected to the sealing ring, so that the second radiation protection partition and the sucker assembly can be closely connected without loosening or deviation problems.

[0012] The advantages of the embodiments of the present application are:

[0013] 1. A cuboid structure composed of four radiation shielding partitions can block the spread of radiation in all directions, providing more comprehensive protection for the surrounding newborns, effectively reducing the potential harm of radiation to other children. Among them, the suction cup assembly inside one of the radiation shielding partitions can make the protective cover closely adhere to the baby crib, enhancing the stability and sealing of the protection, and further improving the radiation shielding effect.

[0014] 2. The design of the connecting buffer belt at the joints of the four radiation shielding partitions enables the partitions to better adapt to position changes during combination. The overall structure is more compact and flexible compared to traditional partition screens, occupying less space, facilitating flexible layout and use in the ward, and not colliding with or interfering with other equipment in the ward, improving the flexibility and adaptability of the protective cover. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] The present invention will be further described below in conjunction with the drawings and embodiments.

[0016] Figure 1 It is a schematic diagram of the overall structure on the top of the radiation protection cover for neonatal intensive care unit of the present invention;

[0017] Figure 2 It is a schematic diagram of the overall structure on the bottom of the radiation protection cover for neonatal intensive care unit of the present invention;

[0018] Figure 3 It is a schematic diagram of the overall structure when the first radiation shielding partition and the second radiation shielding partition of the radiation protection cover for neonatal intensive care unit of the present invention are unfolded;

[0019] Figure 4 It is a schematic diagram of the overall structure of the suction cup assembly in the radiation protection cover for neonatal intensive care unit of the present invention.

[0020] MAIN REFERENCE NUMERALS DESCRIPTION:

[0021] 1. First radiation shielding partition; 2. Second radiation shielding partition; 3. Connecting buffer belt; 4. Suction cup assembly; 41. Suction cup body; 42. Connecting column; 43. Through pipe; 5. Through hole; 6. Protective pad; 7. Through groove. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0022] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts belong to the scope of protection of the present invention. In addition, for the convenience of description below, the "upper", "lower", "left", "right", etc. referred to are consistent with the upper, lower, left, right, etc. of the accompanying drawings themselves. The "first", "second", etc. in the following text are for distinction in description and have no other special meanings.

[0023] The embodiment of the present application provides a radiation protection cover for neonatal intensive care unit, which solves the problems in the prior art. The cuboid structure composed of four radiation protection partitions can block the spread of radiation in all directions, providing more comprehensive protection for the surrounding newborns, effectively reducing the potential harm of radiation to other children. The suction cup assembly inside one of the radiation protection partitions can make the protection cover closely attached to the baby bed, enhancing the stability and tightness of the protection, and further improving the radiation protection effect; the design of the connection buffer belt at the connection of the four radiation protection partitions enables the partitions to better adapt to position changes during combination. The overall structure is more compact and flexible than the traditional partition screen, occupying less space, being convenient to be flexibly arranged and used in the ward, and not colliding with or interfering with other equipment in the ward, improving the flexibility and adaptability of the protection cover.

[0024] The technical solution in the embodiment of the present application to solve the above problems has the following general idea:

[0025] Embodiment 1

[0026] This embodiment gives the specific structure of the radiation protection cover for neonatal intensive care unit, as Figures 1-4 shown, including a frame structure, which is composed of two first radiation protection partitions 1 and two second radiation protection partitions 2. A connection buffer belt 3 is provided at the intersection of the first radiation protection partition 1 and the second radiation protection partition 2. The connection buffer belt 3 is made of a soft material and is used to buffer the folding effect when the positions of the first radiation protection partition 1 and the second radiation protection partition 2 change;

[0027] Among them, a sucker assembly 4 is provided inside the second radiation protection partition 2. The sucker assembly 4 and the second radiation protection partition 2 are of a detachable structure. Two first radiation protection partitions 1 and two second radiation protection partitions 2 form a cuboid protection cover structure. The camera takes pictures from above, and the protection cover structure blocks the spread of radiation from the surrounding. Through the sucker assembly 4, it is closely attached to the crib, so as to better prevent radiation. Surround the two first radiation protection partitions 1 and the two second radiation protection partitions 2 to form a protection cover structure, then fix the sucker assembly 4 and the two second radiation protection partitions 2 to each other. After that, place the protection cover structure around the patient, adjust the position, and fix it to the crib through the sucker assembly 4 to ensure that the surrounding patients are effectively protected from radiation during X-ray examination.

[0028] Both the first radiation protection partition 1 and the second radiation protection partition 2 are of cuboid structures. The length of the first radiation protection partition 1 is greater than that of the second radiation protection partition 2. The first radiation protection partition 1 and the second radiation protection partition 2 can be folded into a linear structure. When this structure is not in use, through the connecting buffer belt 3, the two first radiation protection partitions 1 and the two second radiation protection partitions 2 can be folded into a linear structure, which is convenient for storage.

[0029] Antibacterial coatings are provided on the surfaces of both the first radiation protection partition 1 and the second radiation protection partition 2. Through the setting of the antibacterial coatings, the antibacterial effect can be better achieved, and the protection effect on infants and young children is improved. A through groove 7 is also opened inside the second radiation protection partition 2, and a protective pad 6 is embedded inside the through groove 7. Through the setting of the through groove 7, the breathing tube can penetrate through the through groove 7 to supply oxygen to the baby inside, and with the protective pad 6 provided, the pipeline can be protected under the protection of the protective pad 6.

[0030] The sucker assembly 4 includes a sucker main body 41 and an air extraction device. A connecting column 42 is provided at one end of the sucker main body 41, and a through pipe 43 is provided at the other end of the connecting column 42; among them, the air extraction device is connected to the through pipe 43, which can form negative pressure inside the sucker main body 41 and enhance the adsorption force.

[0031] A through hole 5 is opened at the intersection of the second radiation protection partition 2 and the sucker assembly 4. A sealing ring is provided inside the second radiation protection partition 2 at the through hole 5. When the sucker assembly 4 is connected to the second radiation protection partition 2, the through pipe 43 inside the sucker assembly 4 penetrates through the through hole 5, and the through pipe 43 is connected to the sealing ring, so that the second radiation protection partition 2 and the sucker assembly 4 can be closely connected without loosening or deviation problems.

[0032] By adopting the above technical solutions:

[0033] In a neonatal intensive care unit, a premature baby needs to have an X-ray examination. The radiation protection cover of the present invention is used for protection.

[0034] The two first radiation shielding partitions 1 and the two second radiation shielding partitions 2 of the radiation shielding cover have a lead equivalent of 0.6 mmPb, providing stronger protection. The connecting buffer strip 3 has a width of 5 cm and can adapt to different combination angles.

[0035] The suction cup body 41 of the suction cup assembly 4 has a diameter of 8 cm and a quantity of 5, with stronger adsorption force. The thickness of the nano silver of the antibacterial coating is 0.2 mm, maintaining a good antibacterial effect.

[0036] In actual use, the two first radiation shielding partitions 1 and the two second radiation shielding partitions 2 are surrounded to form a shielding cover structure. Then, the suction cup assembly 4 is fixed to the two second radiation shielding partitions 2. After that, the shielding cover structure is placed around the child, adjusted to the right position, and fixed to the crib through the suction cup assembly 4 to ensure that surrounding children are effectively protected from radiation during X-ray examinations, enhancing the radiation protection effect. This shielding cover has performed excellently in multiple uses, providing reliable radiation protection for newborns and receiving unanimous praise from medical staff.

[0037] Embodiment 2

[0038] This embodiment provides the specific structure of the radiation shielding cover for use in the neonatal intensive care unit, as Figures 1-4 shown, including a frame structure. The frame structure is composed of two first radiation shielding partitions 1 and two second radiation shielding partitions 2. A connecting buffer strip 3 is provided at the intersection of the first radiation shielding partition 1 and the second radiation shielding partition 2. The connecting buffer strip 3 is made of a soft material and is used to buffer the folding effect when the positions of the first radiation shielding partition 1 and the second radiation shielding partition 2 change;

[0039] Among them, a suction cup assembly 4 is provided inside the second radiation shielding partition 2. The suction cup assembly 4 and the second radiation shielding partition 2 are of a detachable structure. The two first radiation shielding partitions 1 and the two second radiation shielding partitions 2 form a cuboid shielding cover structure. The camera takes pictures from above, and the shielding cover structure blocks the spread of radiation from the surrounding. It adheres closely to the crib through the suction cup assembly 4 for better radiation protection. The two first radiation shielding partitions 1 and the two second radiation shielding partitions 2 are surrounded to form a shielding cover structure. Then, the suction cup assembly 4 is fixed to the two second radiation shielding partitions 2. After that, the shielding cover structure is placed around the child, adjusted to the right position, and fixed to the crib through the suction cup assembly 4 to ensure that surrounding children are effectively protected from radiation during X-ray examinations.

[0040] The first radiation shielding partition 1 and the second radiation shielding partition 2 are both cuboid structures. The length of the first radiation shielding partition 1 is greater than that of the second radiation shielding partition 2. The first radiation shielding partition 1 and the second radiation shielding partition 2 can be folded into a straight-line structure. When this structure is not in use, by connecting the buffer belt 3, two first radiation shielding partitions 1 and two second radiation shielding partitions 2 can be folded to form a straight-line structure, which is convenient for storage.

[0041] Antibacterial coatings are provided on the surfaces of the first radiation shielding partition 1 and the second radiation shielding partition 2. Through the setting of the antibacterial coatings, the antibacterial effect can be better achieved, improving the protection for infants. A through groove 7 is also provided inside the second radiation shielding partition 2, and a protective pad 6 is embedded in the through groove 7. Through the setting of the through groove 7, the breathing tube can penetrate through the through groove 7 to supply oxygen to the baby inside, and with the protective pad 6 provided, the pipeline can be protected under the protection of the protective pad 6.

[0042] The suction cup assembly 4 includes a suction cup main body 41 and an air extraction device. One end of the suction cup main body 41 is provided with a connecting column 42, and the other end of the connecting column 42 is provided with a through pipe 43. Among them, the air extraction device is connected to the through pipe 43, which can form negative pressure inside the suction cup main body 41 to enhance the adsorption force.

[0043] A through hole 5 is provided at the intersection of the second radiation shielding partition 2 and the suction cup assembly 4. A sealing ring is provided inside the second radiation shielding partition 2 at the through hole 5. When the suction cup assembly 4 is connected to the second radiation shielding partition 2, the through pipe 43 inside the suction cup assembly 4 penetrates through the through hole 5, and the through pipe 43 is connected to the sealing ring, so that the second radiation shielding partition 2 and the suction cup assembly 4 can be tightly connected without loosening or deviation problems.

[0044] By adopting the above technical solutions:

[0045] This protective cover is applied during the X-ray examination of a very low birth weight premature infant in the neonatal intensive care unit of a professional children's hospital.

[0046] The lead equivalent of the two first radiation shielding partitions 1 and the two second radiation shielding partitions 2 is selected as 0.55 mmPb, and the width of the connecting buffer belt 3 is 3 cm. The diameter of the suction cup main body 41 is 5 cm, and the number is 3, which meets the adsorption requirements. The thickness of the antibacterial coating is 0.1 mm, which can effectively inhibit bacteria.

[0047] In actual use, two first radiation shielding partitions 1 and two second radiation shielding partitions 2 are surrounded to form a protective cover structure, and then the suction cup assembly 4 is fixed to the two second radiation shielding partitions 2. After that, the protective cover structure is placed around the child, the position is adjusted, and it is fixed to the baby bed through the suction cup assembly 4 to ensure effective protection of the surrounding children from radiation during the X-ray examination and enhance the radiation shielding effect.

[0048] Finally, it should be noted that: Obviously, the above embodiments are merely examples given to clearly illustrate the present invention, rather than limitations on the implementation manners. For those of ordinary skill in the art, other different forms of changes or modifications can be made based on the above description. It is not necessary and impossible to enumerate all the implementation manners here. And the obvious changes or modifications derived therefrom still fall within the protection scope of the present invention.

Claims

1. A radiation protection shield for neonatal intensive care unit monitoring, characterized in that, It includes a frame structure which is composed of two first radiation shielding partitions (1) and two second radiation shielding partitions (2), and a connection buffer strip (3) is provided at the intersection of the first radiation shielding partition (1) and the second radiation shielding partition (2). Among them, a sucker assembly (4) is arranged inside the second radiation shielding partition (2), and the sucker assembly (4) and the second radiation shielding partition (2) are of a detachable structure. The two first radiation shielding partitions (1) and the two second radiation shielding partitions (2) form a cuboid protective cover structure. The camera takes pictures from above, and the protective cover structure blocks the spread of radiation from the surroundings. The sucker assembly (4) is closely attached to the crib through suction, so as to better prevent radiation.

2. The radiation protection shield for neonatal intensive care unit monitoring according to claim 1, characterized in that, Both the first radiation shielding partition (1) and the second radiation shielding partition (2) are of cuboid structures, and the length of the first radiation shielding partition (1) is greater than the length of the second radiation shielding partition (2).

3. The radiation protection shield for neonatal intensive care unit monitoring according to claim 1, characterized in that, The sucker assembly (4) includes a sucker main body (41) and an air extraction device. A connecting column (42) is provided at one end of the sucker main body (41), and a through pipe (43) is provided at the other end of the connecting column (42); among them, the air extraction device is connected to the through pipe (43), which can form negative pressure inside the sucker main body (41) to enhance the adsorption force.

4. The radiation protection shield for neonatal intensive care unit monitoring according to claim 1, characterized in that, A through hole (5) is opened at the intersection of the second radiation shielding partition (2) and the sucker assembly (4).

5. The radiation protection shield for neonatal intensive care unit monitoring according to claim 1, characterized in that, The connection buffer strip (3) is made of a soft material, and when the positions of the first radiation shielding partition (1) and the second radiation shielding partition (2) change, the connection buffer strip (3) is used to achieve a buffering and folding effect.

6. The radiation protection shield for neonatal intensive care unit monitoring according to claim 1, characterized in that, The first radiation shielding partition (1) and the second radiation shielding partition (2) can be folded into a linear structure.

7. The radiation protection cover for neonatal intensive care unit monitoring according to claim 1, characterized in that, Antibacterial coatings are provided on the surfaces of both the first radiation shielding partition (1) and the second radiation shielding partition (2).

8. The radiation protection shield for neonatal intensive care unit monitoring according to claim 4, characterized in that, A sealing ring is provided inside the second radiation shielding partition (2) at the through hole (5).

9. The radiation protection cover for neonatal intensive care unit monitoring according to claim 1, characterized in that, A through groove (7) is further opened inside the second radiation shielding partition (2), and a protective pad (6) is embedded inside the through groove (7).

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