TW202337513A - Hydrocephalus shunt pressure adjustable device - Google Patents

Abstract

A hydrocephalus drainage adjustment device, which includes: a body device, including a seat body, the seat body has an accommodating chamber; a valve body device, which is arranged in the accommodating chamber, and the valve body device includes a regulating The adjusting piece has an upper adjusting support and a lower resisting space, the sphere is arranged at the socket and groove connection hole, and the elastic element is arranged at the In the resisting space, and abutting between the adjusting member and the sphere, the magnetic abutting ring is sleeved on the adjusting support, and at least one magnetic member is arranged in the magnetic abutting ring. The magnetic abutting ring The upper part is provided with a protruding abutting ring edge, the lower edge of the abutting ring edge is provided with a ladder-shaped bottom edge, the top cover is fixed on the seat body, and the adjusting elastic element is sleeved on the outside of the resisting space of the adjusting piece , and abuts between the adjusting piece and the bottom edge of the accommodating chamber, and makes the magnetic abutting ring piece against the top cover by elastic force; a covering device includes at least one upper part which is a flexible elastic body Covering body; thereby, the flow rate can be adjusted when a large siphon effect occurs in the ventricle drainage tube and the abdominal cavity drainage tube, avoiding excessive drainage, and actively having the convenience and safety of adjustment and control.

Description

Hydrocephalus shunt pressure adjustable device

The present invention relates to a hydrocephalus shunt pressure device, and in particular to an adjustable hydrocephalus shunt pressure device, which has the convenience and safety of adjustment and control.

According to the human body, under normal and healthy conditions, the ventricles of the brain produce a certain amount of cerebrospinal fluid (CSF) every day, and can automatically absorb and eliminate the cerebrospinal fluid produced by the ventricles to avoid accumulation in the ventricles. However, when a person's brain is damaged due to disease, impact, injury, etc., the human brain cannot completely discharge the water produced, resulting in hydrocephalus; or the circulation pathway of cerebrospinal fluid is blocked, and the cerebrospinal fluid becomes blocked. The absorption and secretion of fluid cannot reach a balance, resulting in excess cerebrospinal fluid not being absorbed by the body and accumulating in the ventricles, which can also cause hydrocephalus.

At present, in order to solve the phenomenon of hydrocephalus, the medical community usually uses ventriculoperitoneal shunt surgery. A hydrocephalus drainage device (one-way water storage valve) is placed between the skull and scalp of the patient with hydrocephalus, and is used in conjunction with the ventricular drainage tube and abdominal cavity. Drainage tubes connect the ventricles and abdominal cavity respectively, shunting the cerebrospinal fluid accumulated in the ventricles to the abdominal cavity for drainage. This medical treatment can achieve better improvement results for patients.

However, when a patient equipped with this hydrocephalus drainage device is lying, sitting or standing, negative pressures with different siphon effects will be generated in the ventricular drainage tube and abdominal drainage tube, especially when the patient moves from a lying position. When switching to a sitting or standing position, a greater siphon effect will occur in the ventricular drainage tube and abdominal drainage tube. Since the hydrocephalus drainage device does not have the function of being adjusted at any time, excessive drainage may occur, which may cause The dangers of control.

The related hydrocephalus drainage device (one-way water storage valve) technology is known in the patent case No. M460631, which provides a structural improvement of the ventricular water storage valve, which includes a seat with a receiving area, and two sides of the seat. There are input pipes and output pipes connected to the accommodation area respectively; an upper cover is movably combined with the base and connected to the accommodation area and the input pipe respectively, and the upper cover is equipped with at least two magnetic bodies; and a cover is provided in the accommodation area. The valve body is connected to the upper cover. With this, the base can be placed between the skull and scalp of a patient with hydrocephalus, and the input tube is connected to the lateral ventricle with the catheter, and the output tube is connected to the abdominal cavity with the catheter to eliminate hydrocephalus, and when used The upper cover can be rotated to adjust the valve body to achieve appropriate flow control in accordance with the pressure in the brain, achieving the effects of being adjustable, not requiring replacement, and having high stability.

The above-mentioned conventional ventricular water storage valve (M460631) technology has the disadvantage that although the upper cover can be rotated to adjust the valve body to control the flow rate, directly rotating the upper cover can easily cause displacement of the seat body and the connected pipes; and it does not have the disadvantage of It can automatically adjust according to the siphon phenomenon at any time to avoid excessive drainage.

Another example is the patent case No. M485699, which provides an anti-siphon device for hydrocephalus drainage tubes, including: a ventricular drainage tube, an abdominal drainage tube, a one-way control valve and an anti-siphon device; wherein the anti-siphon device is provided with a A guide tube is provided between the one-way control valve and the abdominal drainage tube. The guide tube is provided with an inflow tube. The inflow tube is connected to an annular tube. The annular tube is connected to the two central tubes. , the two middle passage pipes are connected with the first outlet pipe; and the guide pipe is provided with an upper covering body and a lower covering body, and the upper and lower covering bodies just cover the surface of the guide pipe and compress it Use compression to slow down the flow rate of cerebrospinal fluid above and below the annular tube. In this way, the flow rate is slowed down through the compression of the upper and lower coverings, which prevents the hydrocephalus from being drained when the patient sits or stands up. A large siphon effect is produced in the tube to avoid excessive suction of hydrocephalus.

The aforementioned anti-siphon device (M485699) technology of the conventional hydrocephalus drainage tube, plus the device (24) used to adjust the intracranial pressure from outside the skull, is located on the abdominal drainage tube (22) and the one-way control Between the valve (23), that is, the anti-siphon device (24) is independently provided in combination with the one-way control valve (23), and the two are integrally formed, so that the conventional technology will simultaneously form an imaginary creation.

For this reason, in view of the shortcomings in the use of the existing hydrocephalus drainage device (one-way water storage valve) and the fact that the structural design is not ideal, the inventor of the present case started to develop a solution, hoping to develop a solution. A medical product that has the ability to shunt and adjust different intracranial pressures, and which takes into account both safety and simplicity of composition, is a hydrocephalus shunt adjustable device that serves the society and promotes the development of this industry. It was conceived after a long period of time. The emergence of the invention.

An object of the present invention is to provide a hydrocephalus shunt pressure-adjustable device that can effectively and safely adjust the ventricular drainage tube and the abdominal drainage tube when shunting in the body, to avoid excessive drainage, or obstruction without drainage, and It has the convenience and safety of adjustment and control.

An object of the present invention is to provide a hydrocephalus shunt pressure-adjustable device that can be designed on an existing hydrocephalus drainage device to increase the adjustable function of unstable drainage conditions without adding equipment and simplifying the overall structure. Medical facilities that have excellent economic benefits in use and convenience in medical use.

The technical means adopted by the present invention to achieve the above object include: a base device, which includes a base having a receiving chamber, and the base is provided with a bottom groove at the bottom edge of the receiving chamber. , the bottom edge of the bottom groove is provided with a through-hole socket connection hole; a valve body device is located in the accommodation chamber. The valve body device includes an adjustment member, a ball, an elastic element, a magnetic ring member, and an adjustment elastic member. The adjusting member has an upper adjusting support and a lower resisting space. The ball is disposed at the slot connection hole. The elastic element is disposed in the resisting space and resists the adjusting member and the resisting space. Between the spheres, the magnetic butt ring is sleeved on the adjusting support. There is at least one magnetic piece inside the magnetic butt ring. There is a protruding butt ring edge above the magnetic butt ring. The lower edge of the edge is provided with a ladder-like bottom edge. The top cover is fixed to the base and penetrated by the adjustment support. The adjustment elastic element is sleeved on the outside of the resistance space of the adjustment member and pushes against the top. Between the adjusting member and the bottom edge of the accommodation chamber, the magnetic ring member is elastically pressed against the top cover; a covering device includes at least one upper covering body that is a flexible elastic body, the The upper covering body is arranged on the base body and is supported by the adjusting support body.

In this embodiment, the central part of the magnetic backing ring has a backing through hole for the adjustment support to pass through, and the magnetic backing ring is provided with corresponding two sides around the backing through hole. At least one groove for disposing the magnetic component.

In this embodiment, the ladder-shaped bottom edge is formed by a plurality of stepped convex ring edges connected one by one with different thicknesses/heights, so that the ladder-shaped bottom edge is gradually raised or lowered.

In this embodiment, the bottom socket is connected to a plurality of buffer grooves, the socket connection hole is downwardly connected to a ventricular catheter, and one side of the base body is connected to an abdominal catheter.

In this embodiment, the adjusting support body is in the shape of a cylinder, and a convex ring body is provided at the bottom edge of the adjusting support body. A convex ring body extends below the adjusting support body to form the resistance space. Against the pipe string.

In this embodiment, the base body is provided with an internal thread on the top edge of the accommodation chamber, and the top cover is provided with external threads on its periphery for screwing into the internal thread.

In this embodiment, the upper covering body includes an integrally formed upper body and an annular ring body located on the periphery of the upper covering body. There is an operating space inside the upper covering body, and the upper covering body corresponds to the The inner surface of the adjusting support body is provided with an operating abutment surface, which provides mutual abutment with the adjusting support body. The circumferential ring body is provided with an upper tube receiving groove on a surface relative to the abdominal cavity catheter.

In this embodiment, the covering device further includes a lower covering body that is sleeved on the bottom of the base body. The upper covering body and the lower covering body are flexible elastomers made of biomedical silicone.

In this embodiment, the lower covering body includes an integrally formed lower covering body and a peripheral ring body located at the periphery of the lower covering body. The lower covering body has a covering space inside, and the lower covering body is located in the lower covering body. The bottom of the covering space is provided with a perforation, and the peripheral ring body is provided with a lower pipe connection groove on a surface opposite to the abdominal cavity guide pipe.

In this embodiment, the upper ring body and the lower ring body are fixed, and the upper tube connecting groove and the lower tube connecting groove cover the abdominal catheter.

In this embodiment, the ventricular catheter is connected to a ventricular drainage tube, and the abdominal catheter is connected to an abdominal drainage tube.

In this embodiment, the sphere is made of ruby or other biomedical materials.

In this embodiment, a central part of the top cover is provided with a shaft through hole for the adjustment support to pass through, and at least one operating slot is provided on the corresponding two sides of the shaft through hole.

In order to enable your review committee to have a better understanding of the technical features and effects achieved by the present invention, we would like to provide you with a diagram of the preferred embodiment and a detailed description, as follows:

Please refer to Figures 1, 2 and 3 to illustrate the structural embodiment of the adjustable hydrocephalus shunt pressure device of the present invention. The adjustable hydrocephalus shunt pressure device 1 disclosed in this embodiment includes a base 10 and a valve device. 20 and covering device 30; wherein, the base device 10 includes a base 11, which can be made of titanium metal. The base 11 has a receiving chamber 110, and the base 11 is in the receiving chamber. The top edge of the chamber 110 (the direction is in the direction shown in the figure, the same below) is provided with an internal thread 111, and the base 11 is at the bottom edge of the chamber 110 (the direction is in the direction shown in the diagram, the same below). An arc-shaped bottom groove 12 and a plurality of buffer grooves 122 are provided. The top edge of the bottom groove 12 is connected to the buffer groove 122. The bottom edge of the bottom groove 12 is also provided with a socket connection hole penetrating the base body 11. 121. A ventricular conduit 14 is provided downward from the bottom edge of the base device 10. The ventricular conduit 14 is connected to the socket connection hole 121, so that the accommodation chamber 110 and the ventricular conduit 14 form a passage, and the ventricle The guide tube 14 can be integrally formed with the seat 11 or connected by screws. An abdominal guide tube 13 is provided on one side of the ring wall of the seat 11. The seat 11 is opposite to the ring wall of the abdominal guide tube 13. A wall connection hole 131 is provided. The wall connection hole 131 is located below the top edge of the seat 11 to avoid overflow. The wall connection hole 131 is connected to the abdominal cavity catheter 13 so that the accommodation chamber 110 and the abdominal cavity catheter are connected. The pipe 13 forms a passage, and the abdominal cavity pipe 13 can be integrally formed with the seat 11 or connected by screws.

The valve body device 20 is located in the accommodation chamber 110. The valve body device 20 includes an adjustment member 21, a ball 22, an elastic member 23, a magnetic ring member 25, an adjustment elastic member 24 and a top cover 26. The adjusting member 21 has an adjusting support body 211. The adjusting support body 211 can be in the shape of a cylinder. A convex ring body 212 is provided at the bottom edge of the adjusting support body 211. The adjusting member 21/adjusting support body 211 is located on the convex ring. A resisting column 213 extends below the body 212, and a resisting space 214 is provided in the resisting column 213; the sphere 22 can be made of ruby or other biomedical materials, and the sphere 22 is located in the bottom groove 12 At the socket connection hole 121 , the elastic element 23 is disposed in the resistance space 214 , and the elastic element 23 abuts between the resistance space 214 (adjusting member 21 ) and the ball 22 . The adjusting elastic element 24 is sleeved on the outer ring portion of the resisting column 213, and the adjusting elastic element 24 abuts between the convex ring body 212 and the bottom edge of the accommodation chamber 110. The adjusting elastic element 24 It is used to provide elastic adjustment force for the operation of the adjusting member 21 . The magnetic ring member 25 is pivotally mounted on the adjusting support 211 (adjusting member 21 ), so that the magnetic ring member 25 is located above the adjusting member 21 . Please refer to Figure 2A as well. The central part of 25 has a ring-butting through hole 250 that is used for the adjustment support 211 to pass through. The magnetic ring-butting member 25 includes a ring base 253 and an upper edge protrusion of the ring base 253. A protruding butt ring edge 254 contacts the convex ring body 212 with the ring base body 253. The magnetic backing ring member 25/ring base body 253 is provided with two sides respectively below the ring and the ring through hole 250. Corresponding to at least one groove 251, each groove 251 is provided with a magnetic component 252, that is, the magnetic abutment ring component 25 is provided with magnetic components 252 on both sides, and the lower edge of the abutment ring edge 254 is provided with The ladder-shaped bottom edge 255 is composed of a plurality of stepped convex ring edges connected one by one with different thicknesses/heights, so that the main area of the ladder-shaped bottom edge 255 (stepped convex ring edge) gradually rises. The top cover 26 has an external thread 260 on its periphery, and the external thread 260 is screwed to the internal thread 111 of the base body 11. A shaft through hole 261 is provided in the center of the top cover 26, and the shaft is Corresponding two sides of the through hole 261 are respectively provided with at least one operation slot 262. The operation slot 262 can be a perforation or a groove (this embodiment is provided with a perforation) to provide an external fixture for fixing the top cover 26 The shaft through hole 261 is used for the adjustment support 211 (adjusting member 21) to pass through and set, and the magnetic ring member 25 is pushed upward by the adjusting elastic member 24 (convex ring body 212) to resist the The top cover 26.

The covering device 30 includes an upper covering body 31 and a lower covering body 32. The upper covering body 31 and the lower covering body 32 are flexible elastomers made of biomedical silicone. The upper covering body 31 includes an integrally formed The upper body 311 and the circumferential body 312 located on the periphery of the upper body 311 have an operating space 310 inside the upper body 311. The upper body 311 corresponds to the inner surface of the adjusting member 21 (adjusting support body 211). An operation surface 313 is provided. The operation surface 313 provides mutual resistance against the adjustment support 211 . The operation space 310 provides an interactive operation space between the adjustment support 211 and the operation resistance surface 313 . , the upper ring body 312 is provided with an upper tube receiving groove 314 on one side of the abdominal cavity catheter tube 13; the lower covering body 32 includes an integrally formed lower covering body 321 and a peripheral ring located on the periphery of the lower covering body 321 The body 322 has a covering space 320 inside the lower covering body 321. The lower covering body 321 is provided with a through hole 323 at the bottom of the covering space 320. The covering space 320 and the bottom edge of the base body 11 have mutual matching combinations. In such a configuration, the peripheral ring body 322 is provided with a lower pipe connecting groove 324 on one surface of the abdominal cavity catheter 13 .

When the embodiments of the hydrocephalus shunt pressure-adjustable device of the present invention are combined, the ventricular conduit 14 of the base body 11 passes through the perforation 323 of the lower covering body 32, so that the lower covering body 32 covers the bottom of the base body 11. After the valve body device 20 is sequentially assembled and installed in the accommodation chamber 110, the upper cover body 31 is assembled to the lower cover body 32, so that the upper ring body 312 and the lower ring body 322 are connected to each other. Consolidation (such as heat melting or gluing) makes the upper covering body 31 cover the top edge of the base body 11 and be pushed up by the adjusting support body 211 (adjusting member 21).

At this time, the adjusting support body 211 (adjusting member 21) is affected by the elastic force of the elastic element 23, and is balanced between the bottom edge of the accommodation chamber 110 of the base body 11 and the upper covering body 31 (upper covering body 311). The operating surface 313 is pressed below, and the ball 22 is pushed by the elastic element 23 to seal the socket hole 121 to form a one-way water storage valve; the magnetic ring member 25 is supported by the The elastic element 24 is adjusted to abut against the top cover 26 . In addition, the upper tube connecting groove 314 and the lower tube connecting groove 324 cover the abdominal cavity catheter 13, thereby completing the assembly of the hydrocephalus shunt pressure adjustable device 1.

As shown in Figure 4, when the hydrocephalus shunt pressure adjustable device of the present invention is installed and used, the hydrocephalus shunt pressure adjustable device 1 is installed on the patient's head 100 and can be covered by the scalp 102; the ventricular catheter 14 is connected to a ventricular drainage tube 16, which extends to the ventricular area 101 of the head 100, and the abdominal drainage tube 13 is connected to an abdominal drainage tube 15, which extends to the patient's abdominal cavity.

Please refer to Figures 5 and 6 together. When the hydrocephalus shunt pressure-adjustable device of the present invention is installed and used, the patient's hydrocephalus can flow in the direction of the valve device 20 through the ventricular drainage tube 16 and the ventricular conduit 14. , and enters the accommodation chamber 110, and cooperates with the valve device 20 to use its elastic element 23 and ball 22 as a check valve (to prevent backflow), so that the patient's hydrocephalus/cerebrospinal fluid can flow at an appropriate speed. The abdominal cavity catheter 13 and the abdominal drainage tube 15 are directed to the patient's abdominal cavity for drainage of hydrocephalus/cerebrospinal fluid.

When the patient sits or stands up, causing a greater siphon effect in the hydrocephalus drainage tube or other phenomena that result in a greater outflow from the abdominal drainage tube 13, in order to avoid excessive suction of hydrocephalus, the patient can An external magnetic tool 200 is used to adjust the valve body device 20. Since the magnetic component 252 has a magnetic component 252, the external magnetic tool 200 can magnetically attract and link the magnetic ring component 25 to rotate, so that The ladder-shaped bottom edge 255 can be selectively set to different thicknesses/heights relative to the wall connection hole 131 to produce different blocking states of the wall connection hole 131 to adjust the direction of hydrocephalus in the accommodation chamber 110 The outflow volume of the wall connection hole 131 is controlled. Since the present invention regulates the discharge flow rate of hydrocephalus/cerebrospinal fluid in the accommodating chamber 110, it performs a magnetically controlled rotation operation on the magnetic ring 25 and does not control the top cover 26. The positioning is affected, so it will not be linked to the base 11 and the abdominal cavity catheter 13 and the ventricular catheter 14, so that the convenience and safety are greatly improved.

The hydrocephalus/cerebrospinal fluid entering the accommodating chamber 110 through the valve body device 20 will exert a hydraulic thrust on the adjusting member 21, and due to the rise of the adjusting support 211, it can resist the upper covering body. 31 (overlying body 311), that is, the upper covering body 31 (overlying body 311) can make the valve body device 20 operate downward by pressing against the adjusting support 211, and can also regulate hydrocephalus/cerebrospinal fluid. The flow rate entering the accommodation chamber 110.

The hydrocephalus shunt pressure adjustable device of the present invention has the above composition, which can effectively and safely adjust the ventricular drainage tube and the abdominal drainage tube when a large siphon effect occurs, avoid excessive drainage, and actively have adjustment control At the same time, the present invention can be designed on the existing hydrocephalus drainage device to increase the adjustable function of unstable drainage status, and can streamline the overall medical facility structure without adding equipment. Excellent economic benefits in use and convenience in medical use.

The present invention has been described in more detail through the above-mentioned preferred embodiments. However, the invention is not limited to the above-exemplified embodiments. Various changes and modifications to these structures can be made within the scope of the technical ideas disclosed in the present invention. scope of the invention.

1: Hydrocephalus shunt pressure adjustable device 10: base body 11: base body 110: Accommodation chamber 111: Internal thread 12: Bottom groove 121: socket socket 122:Buffer tank 13: Abdominal catheter tube 131: Wall connection hole 14: Ventricular catheter connection 15: Abdominal drainage tube 16: Ventricular drainage tube 20: Valve body device 21:Adjusting parts 211:Adjusting support 212:convex ring body 213: against the pipe string 214: Resistance space 22:Sphere 23: Elastic element 24:Adjust elastic element 25: Magnetic ring 250: through hole of ring 251: Groove 252:Magnetic parts 253:Ring base body 254:Reach the edge of the ring 255: Ladder-shaped bottom edge 26:Top cover 260: External thread 261: Shaft through hole 262: Operation slot 30: Covering device 31: Upper covering body 310: Operation space 311: Overlying body 312: Last ring body 313: Operation against the surface 314:Top tube slot 32: Lower cover body 320: Covering space 321:Inferior covering body 322: Next week’s ring body 323:Perforation 324:Downtube slot 100:Head 101: Ventricular zone 102:Scalp 200:External magnetic tools

Figure 1 is a schematic three-dimensional view of the present invention.

Figure 2 is an exploded schematic diagram of the present invention.

Figure 2A is a schematic diagram of the lower angle of the magnetic holding ring of the present invention.

Figure 3 is a schematic cross-sectional view of the present invention.

Figure 4 is a schematic diagram of the application of the present invention.

Figure 5 is a schematic diagram 1 of the drainage adjustment according to the present invention.

Figure 6 is the second schematic diagram of drainage adjustment according to the present invention.

1: Hydrocephalus shunt pressure adjustable device

10: base body

11: base body

110: Accommodation chamber

13: Abdominal catheter tube

14: Ventricular catheter connection

15: Abdominal drainage tube

16: Ventricular drainage tube

20: Valve body device

21:Adjusting parts

211:Adjusting support

26:Top cover

30: Covering device

31: Upper covering body

32: Lower cover body

Claims (10)

A hydrocephalus shunt pressure-adjustable device, which includes: A base device includes a base, which has a receiving chamber. The base is provided with a bottom groove at the bottom edge of the holding chamber. The bottom edge of the bottom groove is provided with a through-going socket connection. hole; A valve body device is located in the accommodation chamber. The valve body device includes an adjusting member, a ball, an elastic element, a magnetic ring, an adjusting elastic element and a top cover. The adjusting member has an upper adjusting support and a lower A resistance space, the ball is provided at the socket connection hole, the elastic element is provided in the resistance space, and is pressed between the adjustment member and the ball, and the magnetic resistance ring is sleeved on the adjustment support body There is at least one magnetic element inside the magnetic ring. There is a protruding ring edge above the magnetic ring. The lower edge of the ring edge is provided with a ladder-shaped bottom edge. The top cover is fixed On the base body and penetrated by the adjusting support body, the adjusting elastic element is sleeved on the outside of the resisting space of the adjusting member and butts between the adjusting member and the bottom edge of the accommodation chamber, and The magnetic ring member is elastically pressed against the top cover; A covering device includes at least one upper covering body which is a flexible elastic body. The upper covering body is arranged on the base body and is resisted by the adjusting support body. For example, in the hydrocephalus shunt pressure adjustable device of item 1 of the patent application, the central part of the magnetic backing ring has a backing ring through hole for the adjustment support to pass through, and the magnetic backing ring is in the backing ring through hole. There are at least one corresponding groove on both sides for arranging the magnetic component. For example, in the hydrocephalus shunt pressure adjustable device of item 2 of the patent application, the ladder-shaped bottom edge is formed by a plurality of stepped convex ring edges that are connected one by one with different thicknesses/heights, so that the ladder-shaped bottom edge gradually rises. or the composition of decline. For example, in the hydrocephalus shunt pressure adjustable device of item 1 of the patent application, the bottom socket is connected with a plurality of buffer grooves, the socket socket is connected downwardly to a ventricular catheter, and one side of the base is connected to an abdominal catheter . For example, in the hydrocephalus shunt pressure adjustable device of item 1 of the patent application, the adjusting support body is in the shape of a cylinder, and a convex ring body is provided at the bottom edge of the adjusting support body, and the adjusting support body is below the convex ring body A resisting pipe column is extended to form the resisting space. For example, in the hydrocephalus shunt pressure adjustable device of item 1 of the patent application, the base body is provided with an internal thread on the top edge of the accommodation chamber, and the top cover is provided with external threads on the periphery for screwing to the Internal thread. For example, in the hydrocephalus shunt pressure adjustable device of item 6 of the patent application, the upper covering body includes an integrally formed upper covering body and an upper annular body located at the periphery of the upper covering body, and the upper covering body has an internal An operating space, the upper body is provided with an operating abutment surface corresponding to the inner surface of the adjustment support body, the operation abutment surface provides mutual abutment with the adjustment support body, and the circumferential ring body is located relative to a surface of the abdominal cavity guide tube. There is an upper pipe connection slot. For example, in the hydrocephalus shunt pressure adjustable device of item 7 of the patent application, the covering device further includes a lower covering body set on the bottom of the base body, and the upper covering body and the lower covering body are for biomedical use. Flexible elastomer made of silicone. For example, in the hydrocephalus shunt pressure adjustable device of item 8 of the patent application, the lower covering body includes an integrally formed lower covering body and a peripheral annular body located at the periphery of the lower covering body, and the lower covering body has an internal Covering the space, the lower covering body is provided with a perforation at the bottom of the covering space, and the lower peripheral ring body is provided with a lower pipe connecting groove on a surface opposite to the abdominal cavity catheter. For example, in the hydrocephalus shunt pressure adjustable device of Item 9 of the patent application, the upper ring body and the lower ring body are fixed, and the upper tube connecting groove and the lower tube connecting groove fit to cover the abdominal catheter. , the ventricular catheter is connected to a ventricular drainage tube, and the abdominal catheter is connected to an abdominal drainage tube.