Wound disinfecting and flushing device for medical care

Abstract

The invention provides a wound disinfecting and flushing device for medical care, which belongs to the technical field of medical care instruments, and comprises a shell, a tube body is arranged on one side of the shell, an infusion tube and a medicine delivery tube are arranged at the lower end of the tube body, a flow rate regulator is arranged on the outer side of the tube body, and a plurality of nozzles B are arranged on one side, outside the shell, of a convex plate. One side of the liquid conveying pipe penetrates through the pipe body, extends into the shell and is communicated with the spray head B. The side, located in the shell, of the convex plate is fixedly connected with a vibration motor, the pipe body and the shell are connected through a rotating assembly, an adjusting supporting module is arranged on the outer side of the lower end of the pipe body, and a CDD visual camera is arranged at the upper end of the shell. The problems that in the using process of an existing wound disinfecting and flushing device for medical care, handheld operation of medical staff is needed, the labor intensity is large, hand discomfort can be caused by long-time grabbing, then the device falls off, a wound can be injured by collision, and certain potential safety hazards exist are solved.

Description

Technical Field

[0001] This invention belongs to the field of medical and nursing device technology, and specifically relates to a wound disinfection and rinsing device for medical and nursing use. Background Technology

[0002] When medical staff treat a patient's wound, because the wound and the surrounding area are often covered with solid or gel-like materials, it is necessary to rinse the wound and the surrounding covering before changing the dressing so that the medication can be better absorbed by the wound.

[0003] Existing technology CN222723408U discloses a wound disinfection and rinsing device for medical care, including a housing and a handle rotatably connected to the housing via a rotating joint. An infusion tube and a medication infusion tube are installed side-by-side at the bottom of the handle, penetrating the interior of the handle and extending into the housing. Several nozzles A are mounted on the surface of the housing. One end of the medication infusion tube extending into the housing is connected to one of the nozzles A. A convex plate is movably connected inside the housing, with one side of the convex plate penetrating the surface of the housing. Several evenly arranged nozzles B are mounted on the exposed side of the convex plate outside the housing. Each nozzle B is connected to the end of the infusion tube located inside the housing. A vibration motor is fixed to the side of the convex plate located inside the housing. During use, this device requires manual operation by medical personnel, which is not only physically demanding but also may cause hand discomfort due to prolonged gripping, potentially leading to the device falling off and injuring the wound, posing a certain safety hazard. Summary of the Invention

[0004] This invention provides a wound disinfection and rinsing device for medical care, which aims to solve the problem that existing wound disinfection and rinsing devices for medical care require medical staff to operate them by hand, which is not only labor-intensive, but also may cause hand discomfort due to prolonged gripping, which may lead to the device falling off and potentially injuring the wound, posing certain safety hazards.

[0005] This invention provides a wound disinfection and rinsing device for medical care, comprising a housing, a tube body installed on one side of the housing, an infusion tube and a drug delivery tube installed at the lower end of the tube body, a flow rate regulator installed on the outside of the tube body, the flow rate regulator passing through the tube body and fitting against the infusion tube and drug delivery tube, a plurality of nozzles A installed on the other side of the housing, one side of the drug delivery tube passing through the tube body and extending into the housing and connecting with the nozzles A, a convex plate movably installed on the housing, a plurality of nozzles B installed on the side of the convex plate on the outside of the housing, one side of the infusion tube passing through the tube body and extending into the housing and connecting with the nozzles B, a vibration motor fixedly connected to the side of the convex plate on the inside of the housing, the tube body and the housing being connected via a rotating assembly, an adjustment support module installed on the outside of the lower end of the tube body, and a CDD vision camera installed on the upper end of the housing; The adjustment support module includes a support platform, on which an adjustment unit is mounted; The adjustment unit includes a support base A, one side of the upper part of the support base is mirror-screwed onto the support base A, a motor A is installed inside one side of the support base A, a locking platform is installed on the rotating part of the motor A, an electric telescopic rod A is mirror-screwed on the lower end of the locking platform, and a touch platform is installed on the lower end of a pair of electric telescopic rods A. The upper end of the support platform and the corresponding part of the contact platform are fitted with the suction component A. The transmission platform is installed in the internal mirror mirror of the side of the support platform A. The lower end of the transmission platform is equipped with the electric telescopic rod B. A rotating platform A is installed at the lower end of a pair of electric telescopic rods B. A movable platform is screwed to the side wall of the rotating platform A. An electric telescopic rod C is installed on one side of the bearing platform and at the corresponding position of the movable platform. Motor B is mounted on one side of bearing A, and bearing B is mounted on the rotating part of motor B. The upper end of bearing B is screwed to the connecting platform. A motor C is installed at one end of the connecting platform. A rotating platform B is installed on the rotating part of the motor C. An electric telescopic rod D is installed at the lower end of the rotating platform B. The rotating platform C is installed at the lower end of the electric telescopic rod D. A motor D is installed on the side of the rotating table C. A magnet is installed on one side of the rotating part of the motor D. A suction component B is installed on the side of the bearing seat A and at the corresponding position of the magnet. Motor E is installed on one side of the connecting platform, and bearing seat C is installed on one side of the rotating part of motor E. The upper end of bearing seat C is mirror-fixed to tension screw A.

[0006] Furthermore, the interlocking platform is screwed into the interior of the bearing seat A, the lower end of the contact platform and the upper end of the suction member A are suction-connected, and the rotating platform A and the bearing platform are movably connected.

[0007] Furthermore, the movable platform is movably installed inside the support platform, and one side of the electric telescopic rod C is engaged with one side of the movable platform.

[0008] Furthermore, the support base B and the support base A are screwed together, and the magnet and the attracting part B are attracted and connected to each other.

[0009] Furthermore, the rotating platform B is screwed inside the connecting platform.

[0010] Furthermore, the edge of the bearing seat C and the edge of the connecting platform are screwed together and connected in contact.

[0011] Furthermore, a support unit is also installed on the support platform; The carrier unit includes a housing; The lower end of the support platform is equipped with an outer shell, and an energy storage box is installed inside the outer shell. An electric telescopic rod E is mirrored on the outer wall of the outer shell. A rubber pad is installed at the lower end of the electric telescopic rod E. Multiple mounting seats are mirrored on the lower end of the outer shell, and wheel hubs are screwed into the mounting seats. An assembly table is installed at the upper end of the bearing seat C and at the corresponding position of the tensioning screw A. The tensioning screw A passes through one side of the assembly table and is connected to the screw nut. A motor F is installed at the upper end of the assembly table, and a conical platform is installed on the rotating part of the motor F. A motor G is installed on the edge of the conical platform, and a bearing seat D is installed on one side of the rotating part of the motor G. The bearing seat D is connected to the tube body.

[0012] Furthermore, the lower end of the assembly table and the upper end of the bearing seat C are in contact and connected, and the conical platform and the assembly table are screwed together.

[0013] Furthermore, the rotating assembly includes a housing fixed to the tube body and a rotating joint fixed to the outside of the housing. A motor S is installed in the housing, and the rotating part of the motor S extends out of the housing and is fixed to a gear. The tube body and the housing are connected via the rotating joint. A gear ring is fixed to the outside of the rotating joint, and the gear ring and the gear mesh with each other.

[0014] The beneficial effects of this invention are as follows: 1. When the patient's wound needs to be cleaned and medication applied, this invention moves the device to the desired location, connects the infusion tube to the cleaning solution and the medication infusion tube to the healing solution, adjusts the flow rate regulator, and the device starts working. The CDD vision camera takes a picture of the patient's wound and transmits the picture to the chip. The chip processes the picture and controls the rotation component and adjustment control module to adjust nozzle A and nozzle B to the wound. Then nozzle B and nozzle A perform cleaning and medication application respectively, eliminating the need for medical staff to hold the device, greatly improving ease of use, reducing labor intensity, and preventing the device from falling and injuring the wound, thus improving safety and efficiency.

[0015] 2. In this invention, through the installation of the adjustment unit, the electric telescopic rod C and the moving platform pull the rotating platform A to move. The rotating platform A and the electric telescopic rod B pull the transmission platform to rotate. The transmission platform pulls the platform to rotate along the support platform, and then pulls the support seat A to rotate upwards along the support platform. The motor A and the engaging platform pull the electric telescopic rod A and the contact platform to rotate and contact the upper end of the suction component A. Through the suction assembly, the contact platform and the electric telescopic rod A are stopped and engaged. The motor B pulls the support seat B to rotate. The motor C pulls the rotating platform B and the electric telescopic rod B to rotate. Rod D and rotating platform C rotate to a pair of bearing seats A, and are attracted and secured by magnets and suction components B. The electric telescopic rod D and rotating platform B pull the connecting platform to rotate upward. Multiple points of fastening are generated by the support on both sides at the lower end and the vertical support in the middle. During support, multiple triangular stops can be generated. Through the central load and multiple points of distributed support, the force can be borne by multiple points. Then, the curvature of the support is adjusted to prevent the force from being borne by only one point, ensuring the stability of the device support and preventing danger during operation. By installing the bearing unit, the device is moved to the required position. The electric telescopic rod E pulls the rubber pad to the ground. The rubber pad and wheel hub support the device to ensure the stability of the bearing constraint and prevent the device from moving due to the weak support at the lower end. The assembly table is embedded into the upper end of the bearing seat C. The assembly table and the bearing seat C are fastened by the nut and tension screw A. The motor F pulls the conical table to rotate along the assembly table, and the motor G pulls the bearing seat D to rotate along the conical table to achieve the purpose of self-adjustment of position. Therefore, through the cooperation of the adjustment unit and the load-bearing unit, and through multiple supports at the lower end, stops at both sides in the middle, and multiple triangular supports and constraints, the lower load-bearing support and connection constraint support are assisted, achieving multi-layer and multi-point auxiliary support. Furthermore, through the rotation and displacement of the upper end and the change of curvature, the stability of the device load-bearing and operation is achieved. Through the cooperation of several units, the convenience of the device during use is ensured, and it is also easy to adjust itself.

[0016] 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

[0017] 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: Figure 1 This is a schematic diagram of the connection between the tube body and the adjustment support module in an embodiment of the present invention; Figure 2 This is a schematic diagram of the shell cross-section structure according to an embodiment of the present invention; Figure 3This is a schematic diagram of the adjustment support module structure according to an embodiment of the present invention; Figure 4 This is a schematic diagram of the adjustment unit structure according to an embodiment of the present invention; Figure 5 This is a schematic diagram of the assembly structure of the electric telescopic pole D according to an embodiment of the present invention; Figure 6 This is a schematic diagram of the variable platform structure according to an embodiment of the present invention; Figure 7 This is a schematic diagram of the assembly structure of the rotating stage B according to an embodiment of the present invention; Figure 8 This is a schematic diagram of the bearing unit structure according to an embodiment of the present invention; Figure 9 This is a schematic diagram of the energy storage box assembly structure according to an embodiment of the present invention; Figure 10 This is a schematic diagram of the truncated cone structure according to an embodiment of the present invention; Reference numerals: 1. Shell; 2. Rotating assembly; 3. Tube body; 4. Infusion tube; 5. Drug infusion tube; 6. Flow rate regulator; 7. Nozzle A; 8. Convex plate; 9. Nozzle B; 10. Vibration motor; 11. CDD vision camera; 12. Support platform; 13. Adjustment unit; 131. Support base A; 132. Motor A; 133. Fitting platform; 134. Electric telescopic rod A; 135. Contact platform; 136. Suction component A; 137. Transmission platform; 138. Electric telescopic rod B; 139. Rotating platform A; 1310. Moving platform; 1311. Electric telescopic rod C; 1312. Motor B; 1313. Support base B; 1314. Connecting platform; 1315. Motor C; 1316. Rotating platform B; 1317. Electric telescopic rod D; 1318. Rotating platform C; 1319. Motor D; 1320. Magnet; 1321. Suction component B; 1322. Motor E; 1323. Support base C; 1324. Tensioner 14. Lead screw A; 141. Bearing unit; 142. Housing; 143. Energy storage box; 144. Electric telescopic rod E; 145. Rubber pad; 146. Assembly seat; 147. Wheel hub; 148. Assembly table; 149. Nut; 1410. Motor F; 1411. Conical platform; 1412. Motor G; 1413. Bearing seat D; 21. Chassis; 22. Motor S; 23. Gear; 24. Rotary joint; 25. Gear ring. Detailed Implementation

[0018] 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.

[0019] Reference Figures 1-10 This invention provides a wound disinfection and rinsing device for medical care, comprising a housing 1, a tube 3 mounted on one side of the housing 1, an infusion tube 4 and a drug delivery tube 5 mounted at the lower end of the tube 3, a flow rate regulator 6 mounted on the outside of the tube 3, the flow rate regulator 6 passing through the tube 3 and fitting with the infusion tube 4 and the drug delivery tube 5, several nozzles A7 mounted on the other side of the housing 1, one side of the drug delivery tube 5 passing through the tube 3 and extending into the housing 1 and connecting with the nozzles A7, a convex plate 8 movably mounted on the housing 1, several nozzles B9 mounted on the outside side of the convex plate 8, one side of the infusion tube 4 passing through the tube 3 and extending into the housing 1 and connecting with the nozzles B9, a vibration motor 10 fixedly connected to the inside side of the convex plate 8, the tube 3 and the housing 1 connected via a rotating assembly 2, an adjustment support module mounted on the outside of the lower end of the tube 3, and a CDD vision camera 11 mounted on the upper end of the housing 1.

[0020] It should be noted that the other end of the infusion tube 4 is connected to the cleaning fluid; the other end of the medication infusion tube 5 is connected to the healing medicine; and a chip is installed on the adjustment support module (not shown in the figure).

[0021] The CDD vision camera 11 is electrically connected to the chip. Both the CDD vision camera 11 and the chip are existing technologies and will not be described in detail here.

[0022] When it is necessary to clean and apply medication to the patient's wound, move the device to the desired location, connect the infusion tube 4 to the cleaning solution and the medication infusion tube 5 to the healing solution, adjust the flow rate regulator 6, and the device will start working. The CDD vision camera 11 will take pictures of the patient's wound and transmit the pictures to the chip. The chip will process the pictures and control the rotation component 2 and the adjustment control module to adjust the nozzles A7 and B9 to the wound. Then, nozzles B9 and A7 will clean and apply medication respectively. This eliminates the need for medical staff to hold the device, greatly improving ease of use, reducing labor intensity, and preventing the device from falling and injuring the wound, thus improving safety and efficiency.

[0023] Reference Figure 1The rotating assembly 2 includes a housing 21 fixed to the tube body 3 and a rotating joint 24 fixed to the outside of the housing 1. A motor S22 is installed in the housing 21. The rotating part of the motor S22 extends out of the housing 21 and is fixed to a gear 23. The tube body 3 and the housing 1 are connected via the rotating joint 24. A gear ring 25 is fixed to the outside of the rotating joint 24. The gear ring 25 and the gear 23 are meshed and connected to each other. The motor S22 is electrically connected to the chip.

[0024] When the tilt angle of housing 1 needs to be adjusted, the chip controls the motor S22 to rotate, the motor S22 pulls the gear 23 to rotate, the gear 23 pulls the gear ring 25 to rotate, and the gear 23 pulls the rotating joint 24 to rotate, thereby moving housing 1 to the required tilt angle, so as to clean and apply medicine to the wound.

[0025] Reference Figure 1 , Figures 3-10 The adjustment support module includes a support platform 12, on which an adjustment unit 13 is installed; The adjustment unit 13 includes a support base A131, a motor A132, a connecting platform 133, an electric telescopic rod A134, a contact platform 135, a suction component A136, a transmission platform 137, an electric telescopic rod B138, a rotating platform A139, a variable platform 1310, an electric telescopic rod C1311, a motor B1312, a support base B1313, a connecting platform 1314, a motor C1315, a rotating platform B1316, an electric telescopic rod D1317, a rotating platform C1318, a motor D1319, a magnet 1320, a suction component B1321, a motor E1322, a support base C1323, and a tensioning screw A1324. One side of the upper end of the support platform 12 is mirror-screwed onto the support seat A131. A motor A132 is installed inside one side of the support seat A131. A locking platform 133 is installed on the rotating part of the motor A132. The locking platform 133 is screwed into the interior of the support seat A131 to achieve the purpose of rotational support and stop. An electric telescopic rod A134 is mirror-screwed onto the lower end of the locking platform 133. A touch platform 135 is installed at the lower end of a pair of electric telescopic rods A134. The lower end of the touch platform 135 is magnetically connected to the upper end of the suction member A136 to ensure smooth magnetic connection. The suction member A136 is fitted into the upper end of the support platform 12 and the corresponding position of the touch platform 135. The side of the support seat A131... The transmission platform 137 is internally mirror-mounted and screwed in. An electric telescopic rod B138 is mounted on the lower end of the transmission platform 137. A rotating platform A139 is mounted on the lower end of a pair of electric telescopic rods B138. The rotating platform A139 and the support platform 12 are movably connected to each other, so that they can be stably connected when rotating and snapping. The side wall of the rotating platform A139 is screwed to the movable platform 1310. The movable platform 1310 is movably mounted inside the support platform 12, so that it can be stably restrained when changing position. An electric telescopic rod C1311 is mounted on one side of the support platform 12 and at the corresponding position of the movable platform 1310. One side of the electric telescopic rod C1311 is engaged with one side of the movable platform 1310 to ensure the transmission between them. A motor B1312 is mounted on one side of the support base A131. The rotating part of the motor B1312 is mounted on the support base B1313. The support base B1313 and the support base A131 are screwed together to achieve rotational and stable support. The upper end of the support base B1313 is screwed onto the connecting platform 1314. A motor C1315 is mounted on one end inside the connecting platform 1314. The rotating part of the motor C1315 is mounted on a rotating platform B1316. The rotating platform B1316 is screwed into the connecting platform 1314 to achieve rotation and ensure stability. To ensure stable support, an electric telescopic rod D1317 is installed at the lower end of the rotating platform B1316, and a rotating platform C1318 is installed at the lower end of the electric telescopic rod D1317. A motor D1319 is installed on the side of the rotating platform C1318, and a magnet 1320 is installed on one side of the rotating part of the motor D1319. A suction component B1321 is installed on the side of the bearing seat A131 and at the corresponding position of the magnet 1320. The magnet 1320 and the suction component B1321 are attracted and connected to each other to ensure coordinated transmission and achieve the purpose of supporting and constraining the upper end. A motor E1322 is installed on one side of the connecting table 1314, and a bearing seat C1323 is installed on one side of the rotating part of the motor E1322. The edge of the bearing seat C1323 and the edge of the connecting table 1314 are screwed together and connected to each other to ensure stable rotation support. The upper end of the bearing seat C1323 is mirror-fixed to the tension screw A1324. Motor A132, electric telescopic rod A134, suction component A136, electric telescopic rod B138, electric telescopic rod C1311, motor B1312, motor C1315, electric telescopic rod D1317, motor D1319, suction component B1321 and motor E1322 are all electrically connected to the chip. The support platform 12 is also equipped with a support unit 14; The load-bearing unit 14 includes a housing 141, an energy storage box 142, an electric telescopic rod E143, a rubber pad 144, a mounting base 145, a wheel hub 146, a mounting table 147, a nut 148, a motor F149, a conical platform 1410, a motor G1411, and a load-bearing base D1412. A housing 141 is installed at the lower end of the support platform 12. An energy storage box 142 is installed inside the housing 141. An electric telescopic rod E143 is mirror-mounted on the outer wall of the housing 141. A rubber pad 144 is installed at the lower end of the electric telescopic rod E143. Multiple mounting seats 145 are mirror-mounted at the lower end of the housing 141. A wheel hub 146 is screwed into the mounting seat 145. An assembly table 147 is installed at the upper end of the bearing seat C1323 and at the corresponding position of the tensioning screw A1324. The lower end of the assembly table 147 is in contact with the upper end of the bearing seat C1323 to achieve the purpose of constraint and engagement. The tensioning screw A1324 passes through one side of the assembly table 147 and is connected to the screw nut 148. A motor F149 is installed at the upper end of the assembly table 147. A conical platform 1410 is installed on the rotating part of the motor F149. A motor G1411 is installed on the side of the conical platform 1410. A bearing seat D1412 is installed on one side of the rotating part of the motor G1411. The bearing seat D1412 is connected to the tube body 3. The conical platform 1410 and the assembly table 147 are screwed together, so that the orientation of the shell 1 can be adjusted. To ensure smooth operation of the device, the electric telescopic rod E143, motor F149, and motor G1411 are all electrically connected to the chip.

[0026] It should also be noted that the structure of the attracting component A136 is the same as that of the attracting component B1321, both of which include a cover, an iron core and a coil. The iron core is installed inside the cover, and the coil is wound around the outside of the iron core; and the energy storage box 142 is used for the function of the entire device.

[0027] When the adjustment support module is working, it supplies power to the device through the energy storage box 142, which drives the device to move. With the cooperation of the hub 146, the mounting base 145 and the outer shell 141 move, thereby transferring the device to the corresponding position for work. The electric telescopic rod E143 pulls the rubber pad 144 to move downward along the outer shell 141, so that the lower wall of the rubber pad 144 touches the ground. The rubber pad 144 and the hub 146 support and constrain the device to ensure the stability of the device. The electric telescopic pole C1311 pulls the moving platform 1310 to move along the bearing seat A131. The moving platform 1310 pulls the rotating platform A139 to move along the bearing seat A131, so that the rotating platform A139 pulls the electric telescopic pole B138 to move. During the traction, the rotating platform A139 rotates along the moving platform 1310. The electric telescopic pole B138 pulls the transmission platform 137 to rotate along the bearing seat A131. During the rotation, the bearing seat A131 is pulled by the electric telescopic pole B138 and the transmission platform 137 to rotate along the bearing platform 12, and then pulls the bearing seat A131 to rotate upward along the bearing platform 12. At this moment, motor A132 pulls the interlocking platform 133 to rotate along the bearing seat A131, turning the electric telescopic rod A134 to vertical, so that the lower end of the contact platform 135 and the upper end of the suction member A136 touch. The suction member A136 attracts the contact platform 135, and then the contact platform 135 and the electric telescopic rod A134 are attracted and interlocked. The electric telescopic rod A134 pulls the bearing seat A131 to move upward. The electric telescopic rod A134 and the electric telescopic rod B138 perform support and stop on the bearing seat A131, achieving stable support and constraint, and ensuring the stability of the device during use. Motor B1312 pulls bearing seat B1313 to rotate along bearing seat A131, making the angle between bearing seat B1313 and bearing platform 12 ninety degrees. Motor C1315 pulls rotating platform B1316 to rotate along connecting platform 1314, rotating electric telescopic rod D1317 and rotating platform C1318 between a pair of bearing seats A131. Motor D1319 pulls magnet 1320 to rotate along rotating platform C1318, moving magnet 1... The edge of 320 contacts the edge of the suction member B1321, and the suction member B1321 attracts and secures the magnet 1320. The electric telescopic rod D1317 and the rotating table B1316 pull the connecting table 1314 to rotate and move upward along the bearing seat B1313, so as to raise the device. Through multi-layer stop support and multi-layer constraint, and through the constraint on both sides and the middle support constraint, the stability of global constraint and support is achieved. The assembly table 147 is fitted onto the upper end of the bearing seat C1323. The assembly table 147 and the bearing seat C1323 are fastened by the screw nut 148 and the tension screw A1324. The motor F149 pulls the conical table 1410 to rotate along the assembly table 147, the motor G1411 pulls the bearing seat D1412 to rotate along the conical table 1410, and the motor E1322 pulls the bearing seat C1323 to rotate along the connecting table 1314, thereby achieving the purpose of self-adjustment.

[0028] 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 wound disinfection and rinsing device for medical care, comprising a housing, a tube body installed on one side of the housing, an infusion tube and a medication infusion tube installed at the lower end of the tube body, a flow rate regulator installed on the outside of the tube body, the flow rate regulator passing through the tube body and fitting against the infusion tube and medication infusion tube, a plurality of nozzles A installed on the other side of the housing, one side of the medication infusion tube passing through the tube body and extending into the housing and connecting with the nozzles A, a convex plate movably installed on the housing, a plurality of nozzles B installed on the side of the convex plate on the outside of the housing, one side of the infusion tube passing through the tube body and extending into the housing and connecting with the nozzles B, and a vibration motor fixedly connected to the side of the convex plate inside the housing, characterized in that... The pipe body and the shell are connected via a rotating assembly, the outside of the lower end of the pipe body is provided with an adjusting support module, and the upper end of the shell is provided with a CDD visual camera. The adjusting support module comprises a bearing table, and the bearing table is provided with an adjusting unit. The adjusting unit comprises a bearing seat A, one side of the upper end of the bearing table is mirror-connected with the bearing seat A, the inside of one side of the bearing seat A is provided with a motor A, the rotating part of the motor A is provided with an embedded table, the lower end of the embedded table is mirror-connected with an electric telescopic rod A, and the lower end of a pair of electric telescopic rods A is provided with a touch table. The corresponding positions of the upper end of the bearing table and the touch table are embedded with suction pieces A, the inside of the side of the bearing seat A is mirror-connected and provided with a transmission table, and the lower end of the transmission table is provided with an electric telescopic rod B. The lower end of a pair of electric telescopic rods B is provided with a rotating table A, the side wall of the rotating table A is mirror-connected with a variable table, and the corresponding positions of one side of the bearing table and the variable table are provided with an electric telescopic rod C. One side of the bearing seat A is provided with a motor B, the rotating part of the motor B is provided with a bearing seat B, and the upper end of the bearing seat B is mirror-connected with a connecting table. One end of the inside of the connecting table is provided with a motor C, the rotating part of the motor C is provided with a rotating table B, the lower end of the rotating table B is provided with an electric telescopic rod D, and the lower end of the electric telescopic rod D is provided with a rotating table C. The side part of the rotating table C is provided with a motor D, one side of the rotating part of the motor D is provided with a magnet, and the corresponding positions of the side part of the bearing seat A and the magnet are provided with suction pieces B. One side of the connecting table is provided with a motor E, one side of the rotating part of the motor E is provided with a bearing seat C, and the upper end of the bearing seat C is mirror-connected with a tension screw A.

2. A medical care wound disinfecting and flushing device according to claim 1, characterized in that: The embedded table is mirror-connected in the inside of the bearing seat A, the lower end of the touch table and the upper end of the suction pieces A are connected in a suction manner, and the rotating table A and the bearing table are movably connected.

3. A medical care wound disinfecting and flushing device according to claim 1, characterized in that: The variable table is movably arranged in the inside of the bearing table, and one side of the electric telescopic rod C is embedded with one side of the variable table.

4. The medical care wound disinfecting and flushing device according to claim 1, characterized in that: The bearing seat B and the bearing seat A are mirror-connected, and the magnet and the suction pieces B are connected in a suction manner.

5. The medical care wound disinfecting and flushing device according to claim 1, characterized in that: The rotating table B is mirror-connected in the inside of the connecting table.

6. The medical care wound disinfecting and flushing device according to claim 1, characterized in that: The side part of the bearing seat C and the side part of the connecting table are mirror-connected and connected in a contact manner.

7. A medical care wound disinfecting and flushing device according to claim 6, characterized in that: The bearing table is further provided with a bearing unit. The bearing unit comprises a shell. The lower end of the bearing table is provided with the shell, the shell is provided with an energy storage box, the outer wall of the shell is mirror-connected and provided with an electric telescopic rod E, the lower end of the electric telescopic rod E is provided with a rubber pad, the lower end of the shell is mirror-connected and provided with a plurality of assembly seats, and the hub is mirror-connected in the assembly seat. The upper end of the bearing seat C and the corresponding position of the tension screw A are provided with an assembly table, the tension screw A penetrates one side of the assembly table and is connected with a nut, the upper end of the assembly table is provided with a motor F, and the rotating part of the motor F is provided with a conical table. The side part of the conical table is provided with a motor G, one side of the rotating part of the motor G is provided with a bearing seat D, and the bearing seat D is connected with the pipe body.

8. A medical care wound disinfecting and flushing device according to claim 7, characterized in that: The lower end of the assembly table and the upper end of the bearing seat C are connected in a contact manner, and the conical table and the assembly table are mirror-connected.

9. The medical care wound disinfecting and flushing device according to claim 1, characterized in that: The rotating assembly comprises a machine box fixed to the pipe body and a rotating joint fixed to the outside of the shell, the machine box is provided with a motor S, the rotating part of the motor S extends out of the machine box and is fixed to a gear ring, the pipe body and the shell are connected via the rotating joint, the outside of the rotating joint is fixed to a gear ring, and the gear ring and the gear ring are connected in a meshing manner.

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