A device for holding surgical instruments
By designing a device that includes a container, a mounting channel, and a guide unit, and utilizing an ethanol adjustment and motor drive system, the problem of inconvenient loading and unloading of surgical instruments is solved, achieving convenient instrument loading and efficient sterilization, and improving loading and unloading efficiency and safety.
Patent Information
- Application Number
- CN202510709309.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2025-05-29
- Publication Date
- 2026-02-10
- Estimated Expiration
- 2045-05-29
AI Technical Summary
Existing surgical instrument holding devices are not convenient for medical staff to place surgical instruments in the upper holding chamber of the device, which reduces the convenience and efficiency of surgical instrument holding.
A container device comprising a container box, a mounting channel, a guide unit, and a connecting unit was designed. The mass of the container is adjusted by ethanol, and the surgical instruments are stably placed and easily removed by the guide unit and a motor-driven turntable system. The device is combined with a drying strip and a breathable cloth to inhibit moisture growth.
It improves the convenience and efficiency of surgical instrument loading and unloading, reduces manpower consumption, enhances the sterilization and disinfection effect of the loading environment, and reduces the risk of instrument disorder and contamination.
Smart Images

Figure CN120549625B_ABST
Abstract
Description
Technical Field
[0001] This invention belongs to the field of medical device technology, and specifically relates to a container for surgical instruments. Background Technology
[0002] The operating room is a place for performing surgery and emergency treatment on patients. Surgical instruments are medical devices used in clinical surgery. There are many of them, and appropriate storage devices are needed to store and organize them.
[0003] Existing surgical instrument holding devices are not convenient for medical staff to place surgical instruments in the upper holding chamber of the device, which reduces the convenience of holding surgical instruments and makes it difficult for medical staff to retrieve surgical instruments placed in the upper holding chamber, thus reducing the loading and unloading efficiency of the device. Summary of the Invention
[0004] This invention provides a surgical instrument holding device, which aims to solve the problems of existing surgical instrument holding devices, which make it inconvenient for medical staff to place surgical instruments in the upper holding chamber of the device, reducing the convenience of surgical instrument holding, and making it difficult for medical staff to retrieve surgical instruments placed in the upper holding chamber, thus reducing the loading and unloading efficiency of the device.
[0005] This invention provides a container for surgical instruments, comprising a container box, an installation channel provided on the inner wall of the container box, an equal number of storage slots provided on both sides of the installation channel, a guide unit for sliding the storage slots provided in the installation channel, and the storage slots being of equal weight.
[0006] The lower part of the container tank is reserved for a storage chamber three, and the upper part of the storage chamber three is reserved for an opening. The storage chamber three is used to adjust the mass of the container tank by storing ethanol. The upper part of the container tank is equipped with a connecting unit that can automatically introduce or extract ethanol into the storage chamber three. The number of connecting units is equal to the number of storage tanks on one side of the installation channel.
[0007] The guiding unit includes rollers screwed into the installation channel. Several protrusions are fixed to the sidewalls of the rollers. Each roller is installed at one of the two pairs of corners of the installation channel. A pulling member is externally engaged with the roller. The pulling member is a traction member composed of several metal segments connected in series by pins. A connecting block that slides in the installation channel is fixed to the pulling member. There is resistance between the connecting block and the installation channel. Several recesses are reserved on the inner walls of the two pairs of corners of the installation channel. Guide rollers that engage with the recesses are screwed onto the connecting block. The guide rollers are fixedly installed behind the holding trough.
[0008] A turntable, driven by a motor, is inserted into the roller. A linkage channel is reserved on the inner wall of the roller, and a guide channel is reserved on the outer side of the turntable. An insert that can be inserted into the linkage channel slides in the guide channel. An elastic element is installed between the insert and the inner wall of the guide channel. The container groove in the middle of one side of the installation channel slides against the inner wall of the container. An elastic element is installed between the container groove in the middle of one side of the installation channel and the inner wall of the container.
[0009] The connecting unit includes a container box 1 installed on the upper part of the container box. The container box 1 has a reserved container chamber 2. The container chamber 2 is slidably connected to a push block that can slide to the right and left. The push block divides the container chamber 2 into a pair of receiving cavities. Each of the pair of receiving cavities is connected to the container chamber 3 at the lower part of the corresponding side of the container slot via a flow guide channel 1.
[0010] The container slot is fitted with a slidable block. A connecting rod is installed on the inner wall of the container slot. A linkage port is reserved in the connecting rod. A transmission interface is reserved on the linkage port. A linkage block is slidably connected in the linkage port. The linkage block is connected to the slidable block via the transmission interface. A drying strip is adhered to the linkage block near the inner wall of the container. The drying strip has the characteristic of returning to its original shape after deformation. A rubber bag and an elastic element three are installed between the other side of the linkage block and the inner wall of the linkage port. The rubber bag is filled with a gaseous fluid medium. The inner walls of both sides of the second container are reserved for the first container. The radius of the first container is smaller than that of the second container. A connecting rod is installed on both sides of the push block and is slidably connected to the first container. The connecting rod is dynamically sealed to the first container via a rubber sealing ring. The first container is connected to the rubber bag in the corresponding container slot via a flow guide channel two.
[0011] A drying port is reserved on the outside of the connecting bar.
[0012] A second container is installed near the container box in the container trough, and the drying strip is attached to the linkage block by hook and loop fasteners.
[0013] The drying strip includes a breathable cloth, on which an adsorption block is installed, the adsorption block having a larger pore size than the breathable cloth.
[0014] The beneficial effects of this invention are:
[0015] 1. This invention involves placing a container containing surgical instruments into a holding tank. When the container is placed in the left holding tank, a suitable amount of ethanol is drawn from the lower holding chamber of the left holding tank via a connecting unit. The connecting unit then guides the ethanol to the lower holding chamber of the right holding tank, which is at the same height, ensuring equal weight on both tanks. This enhances the stability of the holding tank for the container containing the surgical instruments. When the holding tank is moved, the guiding unit experiences uniform force, which is beneficial for maintenance. The ethanol-adjusted mass ensures that even if leakage occurs, the ethanol dissipates quickly, reducing the risk of infection. It also helps to sterilize and disinfect the surrounding environment of the surgical instruments.
[0016] 2. In this invention, a container containing surgical instruments is placed into the upper left container slot. The guide unit is rotated counterclockwise, causing the upper left container slot to move downwards to the middle, facilitating the placement of the container containing surgical instruments. The connecting unit then ensures that the upper containers on both sides are equally weighted, allowing the container containing surgical instruments to be placed into the lower right container slot. When placing a container containing surgical instruments into the lower left container slot, the guide unit is rotated clockwise, causing the lower left container slot to move upwards to the middle, facilitating the placement of the container containing surgical instruments. The connecting unit then ensures that the upper containers on both sides are equally weighted, allowing the container containing surgical instruments to be placed into the upper right container slot.
[0017] 3. In this invention, the rotating roller causes the pulling member to rotate, which in turn causes the connecting block to slide along the installation channel. The connecting block, via the guide roller, causes the container to shift position. After the container is shifted to the desired position, the roller stops rotating. Here, the resistance between the connecting block and the installation channel helps to support the container. The container can be easily lifted to smoothly place the vessel containing surgical instruments, reducing manpower consumption. When the container is shifted to the corner of the installation channel, the guide roller engages with the notch. During the stage when the container rotates to the right along the installation channel, the guide roller causes the container to rotate to the left, keeping the container upright and preventing the surgical instruments in the vessel from becoming disordered. This also helps to reduce the size of the inner chamber required for rotating the container.
[0018] 4. In this invention, a motor causes the turntable to rotate. The turntable, via inserts and a linkage, causes the roller to rotate. The roller, via a pulling member, displaces the container trough. During the displacement of the container trough, the second elastic member expands or contracts. The second elastic member exerts a reaction force on the displacement of the container trough. After the container trough is displaced to the desired position, the reaction force of the second elastic member is greater than the elastic force of the first elastic member. Here, the second elastic member hinders the displacement of the container trough, the container trough hinders the rotation of the pulling member, and the pulling member hinders the rotation of the roller. Here, the roller, via the linkage, pushes the inserts into the guide channel. The inserts push the first elastic member, and the roller does not obstruct the rotation of the turntable. The turntable, via the first elastic member and the inserts, causes the roller to rotate back without reversing the turntable, which helps maintain the stability of the container trough and reduces [the risk of contamination]. After the surgical instruments are loaded, the motor is turned off and the turntable stops rotating. The elastic element two causes the loading slot to return to its original position for future use. When the adhesive block is attached to the container holding the surgical instruments, the adhesive block moves the drying strip into the connecting rod via the linkage block. The wider the container holding the surgical instruments, the longer the drying strip becomes in the connecting rod, increasing the efficiency of the drying strip in removing moisture and inhibiting the growth of bacteria and debris. The second loading box is opened, and the drying strip is removed from the linkage block for easy replacement with a new drying strip. The second loading box is designed to isolate fluids. When the drying strip is not in use, it is placed in the second loading box to prevent the drying strip from becoming less usable. The adsorption block is placed in a breathable cloth, which improves the efficiency of removing moisture.
[0019] Other features and advantages of the invention will be set forth in the following description, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures particularly pointed out in the description and the drawings. Attached Figure Description
[0020] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:
[0021] Figure 1 The structure of the container of the present invention Figure 1 ;
[0022] Figure 2 The structure of the container of the present invention Figure 2 ;
[0023] Figure 3 This is a structural diagram of the storage chamber three of the present invention;
[0024] Figure 4 This is a structural diagram of the container box of the present invention;
[0025] Figure 5 For the present invention Figure 4 Structural diagram at point M;
[0026] Figure 6 This is a structural diagram of the insert of the present invention;
[0027] Figure 7 This is a structural diagram of the container tank of the present invention;
[0028] Figure 8 This is a structural diagram of the connecting rod of the present invention;
[0029] Figure 9 This is a structural diagram of the patch block of the present invention;
[0030] Figure 10 For the present invention Figure 3 The structure diagram at point N.
[0031] Attached reference numerals: 2. Container box; 3. Installation channel; 4. Notch; 5. Turntable; 6. Roller; 7. Insert bar; 8. Elastic component one; 9. Linkage channel; 10. Pulling component; 21. Connecting block; 22. Guide roller; 23. Container trough; 24. Elastic component two; 25. Connecting bar; 26. Adhesive block; 27. Rubber bag; 28. Elastic component three; 29. Drying strip; 210. Container box one; 31. Container chamber one; 32. Container chamber two; 33. Push block; 34. Connecting bar; 35. Container chamber three; 36. Container box two. Detailed Implementation
[0032] To make the objectives, technical solutions, and advantages of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. The same reference numerals in the drawings represent the same components. It should be noted that the described embodiments are only some, not all, of the embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the described embodiments of the present invention without creative effort are within the scope of protection of the present invention.
[0033] Reference Figures 1-10 This invention provides a surgical instrument holding device, comprising a holding box 2, an installation channel 3 installed on the inner wall of the holding box 2, an equal number of holding slots 23 installed on both sides of the installation channel 3, a guide unit installed in the installation channel 3 to allow the holding slots 23 to slide, and the holding slots 23 being of equal weight.
[0034] The lower part of the container tank 23 is reserved for the storage chamber 35, and the upper part of the storage chamber 35 is reserved for the opening. The storage chamber 35 adjusts the mass of the container tank 23 by storing ethanol. The upper part of the container box 2 is equipped with a connecting unit that can automatically introduce or extract ethanol into the storage chamber 35. The number of connecting units is equal to the number of storage tanks 23 on one side of the installation channel 3.
[0035] A container containing surgical instruments is placed into the container 23. When the container containing surgical instruments is placed in the left container 23, an appropriate amount of ethanol is drawn from the lower storage chamber 35 of the left container 23 through the connecting unit and then guided to the lower storage chamber 35 of the right container 23, which is at the same height. This makes the two containers 23 equal in weight, enhancing the stability of the container 23 in holding the container containing surgical instruments. When the container 23 is moved, the force on the guiding unit is even, which is conducive to maintenance. The weight adjusted by ethanol ensures that even if leakage occurs, the ethanol will dissipate quickly, reducing the risk of infection. It also helps to sterilize and disinfect the surrounding environment of the surgical instruments.
[0036] Place a container containing surgical instruments into the upper left container 23. Rotate the guide unit to the left, causing the upper left container 23 to move down to the middle, making it easier to place the container containing surgical instruments into the container 23. Then, through the connecting unit, make the upper containers 23 on both sides equal in weight, so that the container containing surgical instruments can be placed into the lower right container 23.
[0037] When placing a container containing surgical instruments into the lower left container 23, the guide unit is rotated clockwise. The guide unit moves the lower left container 23 upward to the middle, making it easier to place the container containing surgical instruments into the container 23. Then, the connecting unit makes the upper containers 23 on both sides equal in weight, so that the container containing surgical instruments can be placed into the upper right container 23.
[0038] The guiding unit includes a roller 6 screwed into the installation channel 3. Several protrusions are fixed to the side wall of the roller 6. Each roller 6 is installed at one of the two pairs of corners of the installation channel 3. A pulling member 10 is externally engaged with the roller 6. The pulling member 10 is a traction member composed of several metal segments connected in series by pins. A connecting block 21 is fixed to the pulling member 10 and slides in the installation channel 3. There is resistance between the connecting block 21 and the installation channel 3. Several notches 4 are reserved in the inner wall of each of the two pairs of corners of the installation channel 3. Guide rollers 22 that engage with the notches 4 are screwed onto the connecting block 21. The guide rollers 22 are fixedly installed behind the holding trough 23.
[0039] By rotating the control roller 6, the roller 6 causes the pulling member 10 to rotate, and the pulling member 10 causes the connecting block 21 to slide along the installation channel 3. The connecting block 21 causes the container 23 to change position via the guide roller 22. After the container 23 is moved to the expected position, the roller 6 stops rotating. Here, the resistance between the connecting block 21 and the installation channel 3 helps to support the container 23. The container holding the surgical instruments can be placed smoothly by gently lifting the container 23, reducing the labor cost.
[0040] When the container 23 is positioned at the corner of the installation channel 3, the guide roller 22 engages with the notch 4. During the stage when the container 23 rotates to the right along the installation channel 3, the guide roller 22 causes the container 23 to rotate to the left, keeping the container 23 from deviating and preventing the surgical instruments in the container from becoming disordered, which helps to reduce the size of the inner chamber required for the container 23 to rotate.
[0041] A rotating disk 5, which is driven by a motor, is inserted into a roller 6. A linkage channel 9 is reserved on the inner wall of the roller 6, and a guide channel is reserved on the outer side of the rotating disk 5. An insert 7 that can be inserted into the linkage channel 9 slides in the guide channel. An elastic element 8 is installed between the insert 7 and the inner wall of the guide channel. A container groove 23 in the middle of one side of the installation channel 3 slides into the inner wall of the container 2. An elastic element 24 is installed between the container groove 23 in the middle of one side of the installation channel 3 and the inner wall of the container 2.
[0042] The motor causes the turntable 5 to rotate, which in turn causes the roller 6 to rotate via the insert 7 and the linkage 9. The roller 6 causes the holding groove 23 to shift via the pulling member 10. When the holding groove 23 shifts, the elastic element 24 expands or contracts. The elastic element 24 has a reaction force on the shift of the holding groove 23. After the holding groove 23 shifts to the expected position, the reaction force of the elastic element 24 is greater than the elastic force of the first elastic element 8. Here, the elastic element 24 causes the holding groove to... The displacement of 23 is obstructed, the rotation of the pulling member 10 is obstructed by the holding tank 23, and the rotation of the roller 6 is obstructed by the pulling member 10. Here, the roller 6 pushes the insert 7 into the guide channel through the linkage channel 9. The insert 7 pushes the elastic member 18. The roller 6 does not obstruct the rotation of the turntable 5. The turntable 5, through the elastic member 18 and the insert 7, makes the roller 6 rotate back without corresponding to the turntable 5, which helps to maintain the stability of the holding tank 23 and reduces the labor cost.
[0043] After the surgical instruments are loaded, the motor is turned off, the turntable 5 does not rotate, and the elastic element 24 causes the loading slot 23 to return to its original position for future use.
[0044] The connecting unit includes a first container 210 installed on the upper part of the container 2. The first container 210 has a second container 32 reserved in it. A push block 33 that can slide to the right and left is slid in the second container 32. The push block 33 divides the second container 32 into a pair of receiving cavities. Each pair of receiving cavities is connected to the third container 35 at the lower part of the corresponding side of the container slot 23 via a flow guide channel 1.
[0045] When a vessel containing surgical instruments is placed into the left container 23, the push block 33 is slid to the right. The push block 33 causes a suction force in the left container cavity, and the ethanol in the lower container 35 of the left container 23 is drawn into the left container cavity through the guide channel. Here, the push block 33 conducts the ethanol in the right container cavity through the guide channel to the lower container 35 of the corresponding right container 23. Here, the left container 23 is reduced in weight and the right container 23 is increased in weight, so as to maintain equal weight on both sides when a vessel containing surgical instruments is placed.
[0046] The container 23 is fitted with a sliding block 26. A connecting rod 25 is installed on the inner wall of the container 23. A linkage port is reserved in the connecting rod 25, and a transmission interface is reserved on the linkage port. A linkage block is slidably connected in the linkage port. The linkage block is connected to the sliding block 26 via the transmission interface. A drying strip 29 is adhered to the part of the linkage block close to the inner wall of the container 2. The drying strip 29 has the characteristic of returning to its original shape after deformation. A rubber bag 27 and an elastic element 28 are installed between the other side of the linkage block and the inner wall of the linkage port. The rubber bag 27 is filled with a gaseous fluid medium. The inner walls of both sides of the second storage chamber 32 are reserved with storage chamber 31. The radius of storage chamber 31 is smaller than that of storage chamber 32. The push block 33 is equipped with connecting rods 34 that slide in storage chamber 31 on both sides. The connecting rods 34 achieve dynamic sealing with storage chamber 31 through rubber sealing rings to ensure the airtightness of storage chamber 31. Storage chamber 31 is connected to the rubber bag 27 in the corresponding side storage groove 23 through the flow channel 2.
[0047] When placing the container containing surgical instruments, push the adhesive block 26 to the side, then place the container containing surgical instruments in, release the adhesive block 26, and the adhesive block 26 will adhere tightly to the container containing surgical instruments via the elastic element 3 28, thereby enhancing the stability of the container containing surgical instruments.
[0048] When the adhesive block 26 is pressed against the container containing surgical instruments, the rubber bag 27 is pushed by the linkage block. The rubber bag 27 increases the fluid pressure in the container chamber 31 through the second guide channel, causing the connecting rod 34 on the corresponding side to slide. The connecting rod 34 causes the pushing block 33 to slide. The pushing block 33 keeps the two container slots 23 symmetrical. The wider the container and the more surgical instruments it contains, the heavier it will be. The wider the adhesive block 26 is, the more the rubber bag 27 is pushed, and the longer the sliding of the pushing block 33 becomes. This makes it easier for the two container slots 23 to bear the weight evenly according to the container and the surgical instruments inside. There is no need to adjust the pushing block 33 separately, which reduces the labor cost.
[0049] When the adhesive pad 26 is attached to the container holding the surgical instruments, the adhesive pad 26 moves the drying strip 29 into the connecting bar 25 via the linkage block. The wider the container holding the surgical instruments, the longer the drying strip 29 becomes within the connecting bar 25, thus increasing the efficiency of the drying strip 29 in removing moisture and helping to inhibit the growth of bacteria and other impurities caused by moisture.
[0050] A drying port is reserved on the outside of the connecting bar 25.
[0051] The installation of the drying port improves the dehumidification efficiency of the drying strip 29 and does not hinder the adhesion of the patch 26 to the container.
[0052] The container 23 is located close to the container 2, and the drying strip 29 is attached to the linkage block by hook and loop fastener.
[0053] Open container 2 36 and remove the drying strip 29 from the linkage block to facilitate the replacement of the new drying strip 29. Select container 2 36 that can isolate the fluid. When the drying strip 29 is not in use, place the drying strip 29 in container 2 36 to help prevent the drying strip 29 from becoming less usable.
[0054] The drying strip 29 includes a breathable cloth, on which an adsorption block is installed. The adsorption block is a black, porous solid carbon material, and the pore size of the adsorption block is larger than that of the breathable cloth.
[0055] The absorbent blocks are placed in a breathable cloth, which improves the efficiency of removing moisture.
[0056] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.
Claims
1. A surgical instrument holding device, comprising a holding box (2), characterized in that, The inner wall of the container (2) is provided with a mounting channel (3), and an equal number of loading slots (23) are provided on both sides of the mounting channel (3). A guide unit for sliding the loading slots (23) is provided in the mounting channel (3), and the loading slots (23) are of equal weight. The lower part of the container (23) is reserved for the storage chamber three (35), and the upper part of the storage chamber three (35) is reserved for the opening. The storage chamber three (35) adjusts the mass of the container (23) by storing ethanol. The upper part of the container (2) is equipped with a connecting unit that can automatically introduce or extract ethanol into the storage chamber three (35). The number of connecting units is equal to the number of storage chambers (23) on one side of the installation channel (3). The guiding unit includes a roller (6) screwed into the installation channel (3). Several protrusions are fixed to the side wall of the roller (6). Each roller (6) is installed at two pairs of corners of the installation channel (3). A pulling member (10) is externally engaged with the roller (6). The pulling member (10) is a traction member formed by connecting several metal segments through pins. A connecting block (21) is fixed to the pulling member (10) and slides in the installation channel (3). There is resistance between the connecting block (21) and the installation channel (3). Several notches (4) are reserved on the inner wall of the two pairs of corners of the installation channel (3). A guide roller (22) that engages with the notch (4) is screwed onto the connecting block (21). The guide roller (22) is fixedly installed behind the container (23).
2. The surgical instrument holding device according to claim 1, characterized in that, The roller (6) is inserted into the turntable (5) that is actuated by the motor. The inner wall of the roller (6) is reserved with a linkage channel (9). The outer side of the turntable (5) is reserved with a guide channel. The guide channel is slidably connected to the insert (7) that can be inserted into the linkage channel (9). An elastic element (8) is installed between the insert (7) and the inner wall of the guide channel. The container groove (23) in the middle of one side of the installation channel (3) is slidably connected to the inner wall of the container (2). An elastic element (24) is installed between the container groove (23) in the middle of one side of the installation channel (3) and the inner wall of the container (2).
3. The surgical instrument holding device according to claim 1, characterized in that, The connecting unit includes a first container (210) installed on the upper part of the container (2), a second container (32) is reserved in the first container (210), and a push block (33) that can slide to the right and left is slid in the second container (32). The push block (33) divides the second container (32) into a pair of receiving cavities. Each of the pair of receiving cavities is connected to the third container (35) at the lower part of the corresponding side of the container slot (23) via a flow channel.
4. A surgical instrument holding device according to claim 3, characterized in that, The container (23) is slidably attached to the adhesive block (26). A connecting rod (25) is installed on the inner wall of the container (23). A linkage port is reserved in the connecting rod (25). A transmission interface is reserved on the linkage port. A linkage block is slidably attached to the linkage port. The linkage block is connected to the adhesive block (26) via the transmission interface. A drying strip (29) is adhered to the part of the linkage block that is close to the inner wall of the container (2). The drying strip (29) has the characteristic of returning to its original shape after deformation. A rubber bag (27) is installed between the other side of the linkage block and the inner wall of the linkage port. The rubber bag (27) is filled with a gaseous fluid medium and the inner walls of the two sides of the second storage chamber (32) are reserved with the first storage chamber (31). The radius of the first storage chamber (31) is smaller than the radius of the second storage chamber (32). The push block (33) is equipped with connecting rods (34) that slide in the first storage chamber (31) on both sides. The connecting rods (34) achieve dynamic sealing with the first storage chamber (31) through the rubber sealing ring. The first storage chamber (31) is connected to the rubber bag (27) in the corresponding side storage groove (23) through the second guide channel.
5. A surgical instrument holding device according to claim 4, characterized in that, A drying port is reserved on the outside of the connecting bar (25).
6. A surgical instrument holding device according to claim 4, characterized in that, The container (23) is equipped with a second container (36) which is located close to the container (2). The drying strip (29) is attached to the linkage block by hook and loop fastener.
7. A surgical instrument holding device according to claim 6, characterized in that, The drying strip (29) includes a breathable cloth, on which an adsorption block is disposed, the adsorption block having a larger pore size than the breathable cloth.
Citation Information
Patent Citations
Medical instrument operation tray
CN213588503U
Special containing device for instruments needing to be isolated in operating room
CN214908130U