Medical anti-radiation wall structure and construction method

Abstract

The invention relates to the technical field of building wall bodies, in particular to a medical anti-radiation wall body structure and a construction method.The medical anti-radiation wall body structure comprises an outer wall body, a plurality of first filling plates, a plurality of second filling plates and compensation parts; ensuring that the plurality of first filling plates are positioned on the same vertical plane and the plurality of second filling plates are positioned on a second vertical plane, and adjusting transverse gaps generated by the first filling plates and the second filling plates to be not corresponding; furthermore, the gaps of the first filling plates and the second filling plates in the vertical direction are compensated through the first compensation units, the gaps of the first filling plates and the second filling plates in the horizontal direction are compensated through the second compensation units, the gaps among the multiple first filling plates are reduced, and meanwhile the gaps among the multiple second filling plates are reduced; therefore, the anti-radiation capability of the anti-radiation wall is improved, and the probability that radiation particles penetrate through the anti-radiation wall is reduced.

Description

Technical Field

[0001] The invention relates to the technical field of building walls, and in particular to a medical radiation protection wall structure and a construction method. Background Art

[0002] In the field of medical facility construction, especially in places involving technologies such as radiotherapy and heavy ion therapy, the construction of radiation-proof walls is of vital importance. With the continuous advancement of medical technology, the performance requirements for radiation-proof walls are also increasing. At present, in terms of the construction of radiation-proof walls, the common practice is to use prefabricated blocks for construction and stagger the gaps of the prefabricated blocks. This method helps to improve the integrity and stability of the wall to a certain extent. However, it has a significant defect, that is, the gap is in the form of a straight seam. In actual application scenarios, radiation particles have strong penetrability. When a radiation source exists, radiation particles can easily pass through the straight seams of prefabricated blocks inside the wall. Once the radiation particles penetrate the wall, they will interfere with the medical equipment on the inside of the wall. Radiation interference may cause key components such as sensors and control systems of the equipment to receive erroneous signals, which in turn causes deviations in the operation of the equipment, and ultimately causes inaccurate treatment results. Summary of the invention

[0003] The invention provides a medical radiation-proof wall structure and a construction method to solve the problem that radiation particles are easily absorbed by the existing radiation-proof walls.

[0004] A medical radiation protection wall structure and construction method of the present invention adopts the following technical solutions: A medical radiation protection wall structure comprises an outer wall, a plurality of first filling plates, a plurality of second filling plates and a compensating piece.

[0005] A filling cavity is provided inside the outer wall; a plurality of first filling plates are arranged in the filling cavity, and the plurality of first filling plates are arranged in the same vertical plane; a plurality of second filling plates are arranged in the filling cavity, and the plurality of second filling plates are arranged in the same vertical plane; the number of the second filling plates is equal to the number of the first filling plates, the vertical plane where the second filling plates are located is abutted against the vertical plane where the first filling plates are located, and the transverse gaps of the plurality of second filling plates are arranged above the transverse gaps of the plurality of first filling plates; the compensation member includes a first compensation unit and a second compensation unit, the first compensation unit is used to compensate for the gaps between the plurality of first filling plates and the plurality of second filling plates in the vertical direction; the second compensation unit is used to compensate for the gaps between the plurality of first filling plates and the plurality of second filling plates in the horizontal direction.

[0006] Furthermore, the first compensation unit includes a plurality of first compensation rods, which are vertically arranged, and any two adjacent first filling plates or any two adjacent second filling plates can form a vertical first compensation groove; the first compensation rods can be inserted into the first compensation groove.

[0007] Furthermore, the second compensation unit includes a plurality of second compensation rods, which are horizontally arranged, and the diameter of the second compensation rods is smaller than the diameter of the first compensation rods. Any two adjacent first filling plates or any two adjacent second filling plates can form a horizontal second compensation groove. Each first compensation rod is provided with a plurality of horizontal through holes. The second compensation rod can be inserted into the second compensation groove, and the second compensation rod can pass through the through holes of the plurality of first compensation rods.

[0008] Furthermore, the compensation member also includes multiple first push rings, multiple second push rings and a reset member; the first compensation rod can rotate and slide in the first compensation groove; the second compensation rod can rotate and slide in the second compensation groove; multiple first push rings and multiple second push rings are fixedly arranged on the outer wall, each first push ring is coaxially arranged with a first compensation rod, and each second push ring is coaxially arranged with a second compensation rod; the first push ring is used to push the first compensation rod to move along its own axial direction when the first compensation rod rotates; the second push ring is used to push the second compensation rod to move along its own axial direction when the second compensation rod rotates; after the first compensation rod or the second compensation rod moves along its own axial direction, the reset member can drive the first compensation rod or the second compensation rod to produce a movement trend to restore to an initial state.

[0009] Furthermore, a first groove is provided at the end of the first compensation rod, and a first protrusion is provided on the first push ring, the first protrusion can enter the first groove, and when the first compensation rod rotates, the first protrusion on the first push ring can squeeze the side wall of the first groove; a second groove is provided at the end of the second compensation rod, and a second protrusion is provided on the second push ring, the second protrusion can enter the second groove, and when the second compensation rod rotates, the second protrusion on the second push ring can squeeze the side wall of the second groove.

[0010] Furthermore, the reset member includes multiple first reset springs and multiple second reset springs, each first reset spring is coaxially arranged with a first compensation rod, and each first reset spring is arranged between a first compensation rod and the outer wall; each second reset spring is coaxially arranged with a second compensation rod, and each second reset spring is arranged between a second compensation rod and the outer wall.

[0011] Furthermore, the outer peripheral walls of the first compensation rod and the second compensation rod are both configured as rough surfaces.

[0012] Furthermore, friction protrusions are provided in both the first compensation groove and the second compensation groove; when the first compensation rod moves in the first compensation groove, the friction protrusion can detach from the first compensation groove; when the second compensation rod moves in the second compensation groove, the friction protrusion can detach from the second compensation groove.

[0013] Furthermore, the rotation angles of the plurality of first compensation rods on the outer wall are the same.

[0014] A method for constructing a medical radiation protection wall, according to the above medical radiation protection wall structure, comprises the following steps: S1, pouring the outer wall and reserving a filling cavity inside the outer wall; S2, placing a plurality of first filling plates and a plurality of second filling plates into the filling cavity; S3, using a compensating member to compensate for gaps between the plurality of first filling plates and gaps between the plurality of second filling plates.

[0015] The beneficial effects of the present invention are as follows: a medical radiation proof wall structure and a construction method of the present invention, wherein the medical radiation proof wall structure comprises an outer wall, a plurality of first filling plates, a plurality of second filling plates and a compensation part. When manufacturing the radiation proof wall, the outer wall is first cast, a filling cavity is reserved during the casting of the outer wall, and a plurality of first filling plates and a plurality of second filling plates are placed into the filling cavity. By adjusting the placed first filling plates and the second filling plates, it is ensured that the plurality of first filling plates are in the same vertical plane, the plurality of second filling plates are in the second vertical plane, and the horizontal gaps generated by the first filling plates and the second filling plates are adjusted to be mismatched; further, the gaps between the first filling plates and the second filling plates in the vertical direction are compensated by the first compensation unit, and the gaps between the first filling plates and the second filling plates in the horizontal direction are compensated by the second compensation unit, so as to reduce the gaps between the plurality of first filling plates and the gaps between the plurality of second filling plates at the same time, thereby improving the radiation proof capability of the radiation proof wall and reducing the probability of radiation particles passing through the radiation proof wall. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.

[0017] Figure 1 A schematic structural diagram of a medical radiation protection wall structure provided by an embodiment of the present invention; Figure 2 A front view of a medical radiation protection wall structure provided by an embodiment of the present invention; Figure 3 for Figure 2 Sectional view in the AA direction; Figure 4 A side view of a medical radiation protection wall structure provided by an embodiment of the present invention; Figure 5 for Figure 4 Cross-sectional view in the BB direction; Figure 6 for Figure 5 A partial enlarged view of point C in the middle; Figure 7 for Figure 5 A partial enlarged view of point D in the middle; Figure 8 A schematic structural diagram of a first filling plate in a medical radiation protection wall structure provided in an embodiment of the present invention.

[0018] In the figure: 110, outer wall; 120, first filling plate; 130, second filling plate; 140, first compensation rod; 150, second compensation rod; 160, first arc groove; 170, second arc groove; 210, first push ring; 220, second push ring; 230, first torsion section; 240, second torsion section; 250, first return spring; 260, second return spring; 270, friction protrusion. DETAILED DESCRIPTION

[0019] 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.

[0020] The serial numbers assigned to the components herein, such as "first", "second", etc., are only used to distinguish the objects described and do not have any order or technical meaning. The "connection" and "coupling" mentioned in this application, unless otherwise specified, include direct and indirect connections (couplings). In the description of the present invention, it should be understood that the orientation or position relationship indicated by the terms "upper", "lower", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise", etc. are based on the orientation or position relationship shown in the accompanying drawings, which is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation to the present invention.

[0021] In the present invention, unless otherwise clearly specified and limited, a first feature being "above" or "below" a second feature may mean that the first and second features are in direct contact, or that the first and second features are in indirect contact through an intermediate medium. Moreover, a first feature being "above", "above" or "above" a second feature may mean that the first feature is directly above or obliquely above the second feature, or simply means that the first feature is higher in level than the second feature. A first feature being "below", "below" or "below" a second feature may mean that the first feature is directly below or obliquely below the second feature, or simply means that the first feature is lower in level than the second feature.

[0022] like Figures 1 to 8 As shown, an embodiment of the present invention provides a medical radiation protection wall structure, which includes an outer wall 110, a plurality of first filling plates 120, a plurality of second filling plates 130 and a compensation piece.

[0023] The outer wall 110 has a filling cavity inside. Specifically, the outer wall 110 is made by pouring concrete. When pouring the outer wall 110, a mold is placed inside the outer wall 110 to form a filling cavity inside the outer wall 110. When the outer wall 110 is not capped, the outer wall 110 forms a groove structure with an opening facing upward.

[0024] There are multiple first filling plates 120, and the first filling plates 120 are in a rectangular block structure. The multiple first filling plates 120 are all arranged in the filling cavity. The multiple first filling plates 120 are arranged in the same vertical plane. The multiple first filling plates 120 can form a complete plane, and the complete plane formed by the multiple first filling plates 120 occupies half of the filling cavity.

[0025] There are multiple second filling plates 130, and the shape of the second filling plates 130 is the same as that of the first filling plates 120. The multiple second filling plates 130 are all arranged in the filling cavity. The multiple second filling plates 130 are arranged in the same vertical plane. The multiple second filling plates 130 can form a complete plane. The complete plane formed by the multiple second filling plates 130 occupies half of the filling cavity, so the multiple first filling plates 120 and the multiple second filling plates 130 can fill the filling cavity. The number of the second filling plates 130 is equal to the number of the first filling plates 120. The vertical plane where the second filling plates 130 are located is abutted against the vertical plane where the first filling plates 120 are located. The transverse gaps of the multiple second filling plates 130 are arranged above the transverse gaps of the multiple first filling plates 120, so as to reduce the probability of radiation ions passing through the filling cavity. Furthermore, according to the requirement of setting the first filling plate 120 and the second filling plate 130 in the filling cavity, when pouring the exterior wall 110, the template is adjusted to ensure that the first filling plate 120 and the second filling plate 130 can fill the filling cavity.

[0026] The compensating member includes a first compensating unit and a second compensating unit. The first compensating unit is used to compensate for the gaps between the first filling plates 120 and the second filling plates 130 in the vertical direction. In a specific setting, under the action of the first compensating unit, the gaps between the first filling plates 120 in the vertical direction are reduced, and at the same time, the gaps between the second filling plates 130 in the vertical direction are reduced. The second compensating unit is used to compensate for the gaps between the first filling plates 120 and the second filling plates 130 in the horizontal direction. In a specific setting, under the action of the second compensating unit, the gaps between the first filling plates 120 in the horizontal direction are reduced, and at the same time, the gaps between the second filling plates 130 in the horizontal direction are reduced. The first compensating unit and the second compensating unit indirectly reduce the gaps between the first filling plates 120 and the gaps between the second filling plates 130, thereby improving the radiation protection capability and reducing the probability of radiation particles passing through the radiation protection wall.

[0027] In a medical radiation proof wall structure of the present invention, when manufacturing the radiation proof wall, firstly, an outer wall 110 is cast, and a filling cavity is reserved during the casting of the outer wall 110, and a plurality of first filling plates 120 and a plurality of second filling plates 130 are placed into the filling cavity, and by adjusting the placed first filling plates 120 and the second filling plates 130, it is ensured that the plurality of first filling plates 120 are in the same vertical plane, and the plurality of second filling plates 130 are in the second vertical plane, and the horizontal gaps generated by the first filling plates 120 and the second filling plates 130 are adjusted to be non-corresponding; further, the gap between the first filling plates 120 and the second filling plates 130 in the vertical direction is compensated by the first compensation unit, and the gap between the first filling plates 120 and the second filling plates 130 in the horizontal direction is compensated by the second compensation unit, so as to reduce the gap between the plurality of first filling plates 120, and at the same time reduce the gap between the plurality of second filling plates 130, thereby improving the radiation proof ability of the radiation proof wall and reducing the probability of radiation particles passing through the radiation proof wall.

[0028] In one embodiment, the first compensation unit includes a plurality of first compensation rods 140 , which are vertically arranged, and any two adjacent first filling plates 120 or any two adjacent second filling plates 130 can form a vertical first compensation groove. Specifically, in the first filling plate 120, first arc grooves 160 are provided at the two vertical edges of the first filling plate 120. The opening directions of the two first arc grooves 160 on the same first filling plate 120 are opposite. When the two first filling plates 120 are at the same horizontal height and abut against each other, the two first arc grooves 160 can form a complete cylindrical groove, and the cylindrical groove is the first compensation groove. The first compensation rod 140 can be inserted into the first compensation groove. When the first compensation rod 140 is inserted into the first compensation groove, the first compensation rod 140 simultaneously contacts the side walls of the first arc grooves 160 of the two first filling plates 120. When two adjacent first filling plates 120 at the same horizontal height abut against each other, when the first compensation rod 140 is inserted into the first compensation groove, the first compensation rod 140 compensates for the vertical gap between the two adjacent first filling plates 120.

[0029] Furthermore, in the second filling plate 130, a first arc groove 160 is provided at both vertical edges of the second filling plate 130, and the opening directions of the two first arc grooves 160 on the same second filling plate 130 are opposite. When the two second filling plates 130 are at the same horizontal height and abut against each other, the two first arc grooves 160 can form a complete cylindrical groove, and the cylindrical groove is the first compensation groove. The first compensation rod 140 can be inserted into the first compensation groove. When the first compensation rod 140 is inserted into the first compensation groove, the first compensation rod 140 simultaneously contacts the side walls of the first arc groove 160 of the two second filling plates 130. When two adjacent second filling plates 130 at the same horizontal height abut against each other, when the first compensation rod 140 is inserted into the first compensation groove, the first compensation rod 140 compensates for the vertical gap between the two adjacent second filling plates 130.

[0030] Furthermore, by setting the first compensation groove at the vertical edge of the first filling plate 120 and the second filling plate 130, when the first compensation rod 140 is placed in the first compensation groove, the first compensation rod 140 can compensate for the vertical gap between two adjacent first filling plates 120 or two adjacent second filling plates 130, thereby improving the radiation protection capability of the radiation protection wall.

[0031] In one embodiment, the second compensation unit includes a plurality of second compensation rods 150, and the plurality of second compensation rods 150 are horizontally arranged, and any two adjacent first filling plates 120 or any two adjacent second filling plates 130 can form a horizontal second compensation groove; specifically, in the first filling plate 120, a second arc groove 170 is arranged at the lateral edge of the first filling plate 120, and each first filling plate 120 is provided with two second arc grooves 170, and the opening directions of the two second arc grooves 170 are opposite, and the two first filling plates 120 are mutually perpendicular in the vertical direction. When abutting, the two second arc grooves 170 can form a complete cylindrical groove, and the cylindrical groove is the second compensation groove. The second compensation rod 150 can be inserted into the second compensation groove. When the second compensation rod 150 is inserted into the second compensation groove, the second compensation rod 150 simultaneously contacts the side walls of the second arc groove 170 of the two first filling plates 120. When two adjacent first filling plates 120 abut against each other in the vertical direction, when the second compensation rod 150 is inserted into the second compensation groove, the second compensation rod 150 compensates for the horizontal gap between the two adjacent first filling plates 120.

[0032] Furthermore, in the second filling plate 130, second arc grooves 170 are provided at the two lateral edges of the second filling plate 130, and the opening directions of the two second arc grooves 170 on the same second filling plate 130 are opposite. When the two second filling plates 130 abut against each other in the vertical direction, the two second arc grooves 170 can form a complete cylindrical groove, and the cylindrical groove is a second compensation groove. The second compensation rod 150 can be inserted into the second compensation groove. When the second compensation rod 150 is inserted into the second compensation groove, the second compensation rod 150 simultaneously contacts the side walls of the second arc grooves 170 of the two second filling plates 130. When two adjacent second filling plates 130 abut against each other in the vertical direction, when the second compensation rod 150 is inserted into the second compensation groove, the second compensation rod 150 compensates for the horizontal gap between the two adjacent second filling plates 130.

[0033] Furthermore, by setting the second compensation groove at the horizontal edge of the first filling plate 120 and the second filling plate 130, when the second compensation rod 150 is placed in the second compensation groove, the second compensation rod 150 can compensate for the horizontal gap between two adjacent first filling plates 120 or two adjacent second filling plates 130, thereby improving the radiation protection capability of the radiation protection wall.

[0034] In one embodiment, the compensating member further comprises a plurality of first push rings 210, a plurality of second push rings 220 and a reset member. The plurality of first push rings 210 and the plurality of second push rings 220 are fixedly arranged on the outer wall 110, each first push ring 210 is coaxially arranged with a first compensation rod 140, and each second push ring 220 is coaxially arranged with a second compensation rod 150. The first compensation rod 140 can rotate and slide in the first compensation groove; the second compensation rod 150 can rotate and slide in the second compensation groove. The first push ring 210 is used to push the first compensation rod 140 to move along its own axis direction when the first compensation rod 140 rotates. When the first compensation rod 140 moves along its own axis direction, the first compensation rod 140 rubs against the first compensation groove, and the first compensation rod 140 or the side wall of the first compensation groove generates debris. The debris generated by the first compensation rod 140 or the side wall of the first compensation groove can compensate for the vertical gap between two adjacent first filling plates 120 or two adjacent second filling plates 130. The second push ring 220 is used to push the second compensation rod 150 to move along its own axis when the second compensation rod 150 rotates. When the second compensation rod 150 moves along its own axis, the second compensation rod 150 rubs against the second compensation groove, and the second compensation rod 150 or the side wall of the second compensation groove generates debris. The debris generated by the second compensation rod 150 or the side wall of the second compensation groove can compensate for the horizontal gap between two adjacent first filling plates 120 or two adjacent second filling plates 130. After the first compensation rod 140 or the second compensation rod 150 moves along its own axis, the reset member can drive the first compensation rod 140 or the second compensation rod 150 to generate a movement trend to restore to the initial state.

[0035] In one embodiment, a first groove is provided at the end of the first compensation rod 140, and a first protrusion is provided on the first push ring 210. The first protrusion can enter the first groove. In the initial state, the first protrusion is in the first groove. When the first compensation rod 140 rotates, the first protrusion on the first push ring 210 can squeeze the side wall of the first groove, so that the first compensation rod 140 moves along its own axis. A second groove is provided at the end of the second compensation rod 150, and a second protrusion is provided on the second push ring 220. The second protrusion can enter the second groove. In the initial state, the second protrusion is in the second groove. When the second compensation rod 150 rotates, the second protrusion on the second push ring 220 can squeeze the side wall of the second groove, so that the second compensation rod 150 moves along its own axis.

[0036] Furthermore, a first torsion section 230 is provided at one end of the first compensation rod 140, and the outer diameter of the first torsion section 230 is equal to the inner diameter of the first push ring 210. The first torsion section 230 passes through the first push ring 210. The end face of the first compensation rod 140 is provided with an inward concave arc, and the end face of the first push ring 210 in contact with the first compensation rod 140 is an outward convex arc. In the initial state, the end face of the first compensation rod 140 can fit with the first push ring 210. When the staff rotates the first compensation rod 140, the outward convex arc of the end face of the first push ring 210 squeezes the inward concave arc of the end face of the first compensation rod 140, so that the first compensation rod 140 moves in the direction of its own axis. A second torsion section 240 is provided at one end of the second compensation rod 150. The outer diameter of the second torsion section 240 is equal to the inner diameter of the second push ring 220. The second torsion section 240 runs through the second push ring 220. The end face of the second compensation rod 150 is provided with an inward concave arc. The end face of the second push ring 220 in contact with the second compensation rod 150 is an outward convex arc. In the initial state, the end face of the second compensation rod 150 can fit with the second push ring 220. When the staff rotates the second compensation rod 150, the outward convex arc of the end face of the second push ring 220 squeezes the inward concave arc of the end face of the second compensation rod 150, so that the second compensation rod 150 moves in the direction of its own axis.

[0037] In one embodiment, the reset member includes a plurality of first reset springs 250 and a plurality of second reset springs 260, each of the first reset springs 250 is coaxially arranged with a first compensation rod 140, and each of the first reset springs 250 is arranged between a first compensation rod 140 and the outer wall 110, specifically, one end of the first reset spring 250 is fixedly connected to the inner wall of the outer wall 110, and the other end of the first reset spring 250 abuts against the end of the first compensation rod 140, and when the first compensation rod 140 slides along its own axis direction, the first reset spring 250 can be deformed. Each second reset spring 260 is coaxially arranged with a second compensation rod 150, and each of the second reset springs 260 is arranged between a second compensation rod 150 and the outer wall 110, specifically, one end of the second reset spring 260 is fixedly connected to the inner wall of the outer wall 110, and the other end of the second reset spring 260 abuts against the end of the second compensation rod 150, and when the second compensation rod 150 slides along its own axis direction, the second reset spring 260 can be deformed.

[0038] In one embodiment, the outer peripheral walls of the first compensation rod 140 and the second compensation rod 150 are both set to rough surfaces. Specifically, when the first compensation rod 140 moves relative to the first compensation groove, the first compensation rod 140 or the side wall of the first compensation groove will generate debris, and when the second compensation rod 150 moves relative to the second compensation groove, the second compensation rod 150 or the side wall of the second compensation groove will generate debris.

[0039] In one embodiment, friction protrusions 270 are provided in both the first compensation groove and the second compensation groove; specifically, the friction protrusions 270 are provided in the first arc groove 160 and the second arc groove 170, and when the first compensation rod 140 moves in the first compensation groove, the friction protrusions 270 can be separated from the first arc groove 160; when the second compensation rod 150 moves in the second compensation groove, the friction protrusions 270 can be separated from the second arc groove 170. By providing the friction protrusions 270, the gaps between the multiple first filling plates 120 in the horizontal direction or the vertical direction are further reduced, and at the same time, the gaps between the multiple second filling plates 130 in the horizontal direction or the vertical direction are reduced.

[0040] In one embodiment, the rotation angles of multiple first compensation rods 140 on the outer wall 110 are the same. During the installation process, the multiple first compensation rods 140 are installed first. After the installation of the multiple first compensation rods 140 is completed, the multiple first compensation rods 140 are rotated to the same angle to ensure that the through holes on the multiple first compensation rods 140 are in a coaxial state, thereby facilitating the insertion of the second compensation rod 150 into the through holes on the multiple first compensation rods 140.

[0041] In one embodiment, the outer wall 110 is a groove-shaped structure with an opening facing upward, and a sealing cover is provided at the upper end of the outer wall 110. After multiple first filling plates 120 and multiple second filling plates 130 are placed in the filling cavity, the sealing cover is used to seal the opening at the upper end of the outer wall 110.

[0042] A medical radiation protection wall construction method, according to a medical radiation protection wall structure, specifically comprises the following steps: S1, pouring the outer wall 110, and reserving a filling cavity inside the outer wall 110; specifically, when pouring the outer wall 110, a mold is placed inside the outer wall 110, so that a filling cavity is formed inside the outer wall 110.

[0043] S2, putting a plurality of first filling plates 120 and a plurality of second filling plates 130 into the filling cavity. The plurality of first filling plates 120 and the plurality of second filling plates 130 can fill the filling cavity and reduce the gap in the filling cavity.

[0044] S3, use compensation parts to compensate for the gaps between the multiple first filling plates 120 and the gaps between the multiple second filling plates 130. The compensation parts can position the multiple first filling plates 120 and the multiple second filling plates 130, improve the stability between the multiple first filling plates 120 and the multiple second filling plates 130, and at the same time, reduce the gaps between the multiple first filling plates 120 and the gaps between the multiple second filling plates 130.

[0045] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A medical radiation protection wall structure, characterized in that: include: An outer wall body, wherein the outer wall body has a filling cavity therein; A plurality of first filling plates, the plurality of first filling plates are arranged in the filling cavity, and the plurality of first filling plates are arranged in the same vertical plane; A plurality of second filling plates, the plurality of second filling plates are arranged in the filling cavity, and the plurality of second filling plates are arranged in the same vertical plane; the number of the second filling plates is equal to the number of the first filling plates, the vertical planes where the second filling plates are located are in contact with the vertical planes where the first filling plates are located, and the transverse gaps of the plurality of second filling plates are arranged above the transverse gaps of the plurality of first filling plates; A compensating member, the compensating member comprising a first compensating unit and a second compensating unit, the first compensating unit being used to compensate for gaps between the plurality of first filling plates and the plurality of second filling plates in a vertical direction; The second compensation unit is used to compensate for gaps between the plurality of first filling plates and the plurality of second filling plates in a horizontal direction.

2. The medical radiation protection wall structure according to claim 1, characterized in that: The first compensation unit includes a plurality of first compensation rods, which are vertically arranged. Any two adjacent first filling plates or any two adjacent second filling plates can form a vertical first compensation groove; the first compensation rods can be inserted into the first compensation groove.

3. The medical radiation protection wall structure according to claim 2, characterized in that: The second compensation unit includes a plurality of second compensation rods, which are horizontally arranged, and the diameter of the second compensation rods is smaller than the diameter of the first compensation rods. Any two adjacent first filling plates or any two adjacent second filling plates can form a horizontal second compensation groove. Each first compensation rod is provided with a plurality of horizontal through holes. The second compensation rod can be inserted into the second compensation groove, and the second compensation rod can pass through the through holes of the plurality of first compensation rods.

4. The medical radiation protection wall structure according to claim 3, characterized in that: The compensation member also includes multiple first push rings, multiple second push rings and a reset member; the first compensation rod can rotate and slide in the first compensation groove; the second compensation rod can rotate and slide in the second compensation groove; multiple first push rings and multiple second push rings are fixedly arranged on the outer wall, each first push ring is coaxially arranged with a first compensation rod, and each second push ring is coaxially arranged with a second compensation rod; the first push ring is used to push the first compensation rod to move along its own axial direction when the first compensation rod rotates; the second push ring is used to push the second compensation rod to move along its own axial direction when the second compensation rod rotates; after the first compensation rod or the second compensation rod moves along its own axial direction, the reset member can drive the first compensation rod or the second compensation rod to produce a movement trend to restore to an initial state.

5. The medical radiation protection wall structure according to claim 4, characterized in that: A first groove is provided at the end of the first compensation rod, and a first protrusion is provided on the first push ring. The first protrusion can enter the first groove. When the first compensation rod rotates, the first protrusion on the first push ring can squeeze the side wall of the first groove. A second groove is arranged at the end of the second compensation rod, and a second protrusion is arranged on the second push ring. The second protrusion can enter the second groove. When the second compensation rod rotates, the second protrusion on the second push ring can squeeze the side wall of the second groove.

6. The medical radiation protection wall structure according to claim 4, characterized in that: The reset member includes a plurality of first reset springs and a plurality of second reset springs, each first reset spring is coaxially arranged with a first compensation rod, and each first reset spring is arranged between a first compensation rod and the outer wall; each second reset spring is coaxially arranged with a second compensation rod, and each second reset spring is arranged between a second compensation rod and the outer wall.

7. The medical radiation protection wall structure according to claim 4, characterized in that: The outer peripheral walls of the first compensation rod and the second compensation rod are both configured as rough surfaces.

8. The medical radiation protection wall structure according to claim 7, characterized in that: Friction protrusions are arranged in both the first compensation groove and the second compensation groove; when the first compensation rod moves in the first compensation groove, the friction protrusion can be separated from the first compensation groove; when the second compensation rod moves in the second compensation groove, the friction protrusion can be separated from the second compensation groove.

9. The medical radiation protection wall structure according to claim 3, characterized in that: The rotation angles of the plurality of first compensation rods on the outer wall are the same.

10. A method for constructing a medical radiation protection wall, according to the medical radiation protection wall structure according to any one of claims 1 to 9, characterized in that: The following steps are involved: S1, pouring the outer wall and reserving a filling cavity inside the outer wall; S2, placing a plurality of first filling plates and a plurality of second filling plates into the filling cavity; S3, using a compensating member to compensate for gaps between the plurality of first filling plates and gaps between the plurality of second filling plates.

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