Ultrasonic detection probe disinfection support

Abstract

The invention provides an ultrasonic detection probe disinfection support which comprises a stable base, a back plate is fixedly mounted on the stable base, a top working box is fixedly mounted at the top of the back plate, a lifting probe frame is slidably mounted on the front side of the back plate, and the lifting probe frame is located below the top working box. A containing groove matched with the B-ultrasonic probe is formed in the end, away from the back plate, of the lifting probe frame, a handle of the B-ultrasonic probe can be inserted into the containing groove, and a probe body of the B-ultrasonic probe is placed upwards. According to the ultrasonic detection probe disinfection support, through the arrangement of the stable base, the back plate, the lifting probe frame, the top working box and the pipeline splicing module, after a medical worker uses a B-ultrasonic probe, the B-ultrasonic probe can be placed on the lifting probe frame, and the lifting probe frame lifts the B-ultrasonic probe into a disinfection channel; and the disinfectant is pumped into the disinfection channel to clean and disinfect the B-ultrasonic probe, so that the labor amount of medical staff can be reduced, and the fatigue feeling of the medical staff is reduced.

Description

Technical Field

[0001] The invention relates to the technical field of ultrasonic diagnosis, and in particular to a disinfection bracket for an ultrasonic detection probe. Background Art

[0002] Ultrasonic probes are devices that transmit and receive ultrasonic waves during ultrasonic testing. The performance of the probe directly affects the characteristics of ultrasonic waves and the detection performance of ultrasonic waves. The probe used in ultrasonic testing is a transducer that uses the piezoelectric effect of materials to achieve the conversion of electrical energy and acoustic energy. The key component in the probe is the chip, which is a single crystal or polycrystalline thin film with piezoelectric effect. Its function is to convert electrical energy and acoustic energy into each other.

[0003] When performing ultrasound detection on patients, it is necessary to apply coupling agent on the ultrasound probe. Coupling agent is a medium environment applied on the skin, which helps to conduct ultrasonic waves, eliminate the air between the probe and the skin, reduce interference, and improve the inspection effect. After the inspection, use a tissue or towel to wipe off the coupling agent on the probe. However, according to research and investigation, the bacterial contamination rate of foreign medical ultrasound probes is 17.5% to 67.0%. Therefore, it is necessary to disinfect the ultrasound probe after the ultrasound detection of the patient.

[0004] Therefore, in view of this, the existing structure and defects are studied and improved, and an ultrasonic detection probe disinfection bracket is provided, in order to achieve a more practical purpose. Summary of the invention

[0005] Based on the technical problems existing in the background technology, the present invention proposes an ultrasonic detection probe disinfection bracket

[0006] The ultrasonic detection probe disinfection bracket proposed by the present invention comprises a stable base, a back plate is fixedly mounted on the stable base, a top working box is fixedly mounted on the top of the back plate, a lifting probe frame is slidably mounted on the front side of the back plate, the lifting probe frame is located below the top working box, and a placement groove adapted to a B-ultrasound probe is provided at one end of the lifting probe frame away from the back plate, a handle of the B-ultrasound probe can be inserted into the placement groove, and the probe of the B-ultrasound probe is placed upward;

[0007] A flow channel is provided in the top working box, and a sliding groove is provided on the inner wall of the flow channel. Two pipe splicing modules are slidably installed in the sliding groove. A splicing side groove is provided on the side close to each other of the two pipe splicing modules. When the two pipe splicing modules are abutted against each other, the two splicing side grooves form a disinfection channel with openings at both ends, and the disinfection channel is connected to the flow channel;

[0008] A placement opening is provided at the bottom of the pipeline splicing module, and the placement opening is communicated with the splicing side groove. When two pipeline splicing modules are placed together, the handle of the B-ultrasound probe can be placed in the two placement openings.

[0009] Preferably, a protective strip and a protective cover are fixedly connected inside the bottom of the spliced ​​side groove, and there are two protective strips. The two protective strips are respectively located on both sides of the protective cover, and the protective cover is located at the opening position of the placement port. The two protective covers on the two pipe splicing modules can be assembled into a set of protective covers arranged on the handle of the B-ultrasound probe.

[0010] Preferably, a working chamber is provided in the stable base, wherein the working chamber is filled with a disinfectant containing cleaning particles;

[0011] A delivery pipe is connected between the working chamber and the flow channel.

[0012] Preferably, the cleaning particles include foam particles and sponge particles.

[0013] Preferably, a partition is installed in the working chamber, and the partition can separate the working chamber into a cleaning particle chamber and a disinfectant chamber arranged up and down, the cleaning particle chamber is used to store cleaning particles, and the disinfectant chamber is used to store disinfectant;

[0014] A feeding structure is installed on the partition, and the feeding structure is used to transport the cleaning particles into the conveying pipe;

[0015] An opening communicating with the cleaning particle chamber is provided on the top of the stable base, and a feeding cover capable of sealing the opening on the top of the stable base is installed on the stable base.

[0016] Preferably, the feeding structure includes a feeding motor, a feeding pipe and an auger; the feeding motor is fixedly installed in the cleaning particle chamber, the feed port of the feeding pipe is connected to the cleaning particle chamber, the discharge port of the feeding pipe is connected to the conveying pipe, the auger is fixedly installed on the output shaft of the feeding motor, and the auger is located in the feeding pipe.

[0017] Preferably, the bottom end of the feeding pipe is lower than the bottom end of the conveying pipe, an inclined feeding inclined pipe is connected between the bottom end opening of the feeding pipe and the bottom end opening of the conveying pipe, and a liquid inlet is opened through the outer periphery of the conveying pipe.

[0018] Preferably, an inclined liquid inlet pipe is fixedly installed in the liquid inlet of the delivery pipe, and the inclined liquid inlet pipe is arranged obliquely upward into the delivery pipe.

[0019] Preferably, a multi-purpose fan is installed in the flow channel, and the multi-purpose fan can stir the cleaning particles in the disinfectant.

[0020] Preferably, when the disinfectant flows in the flow channel, the motor of the multi-purpose fan does not work, and the blades of the multi-purpose fan rotate along with the flow of the disinfectant;

[0021] The delivery pipe includes an upper section and a lower section, the upper section is slidably sleeved with a connecting sleeve, the connecting sleeve is slidably sleeved on the lower section and connects the upper section and the lower section, when the connecting sleeve is detached from the lower section, the upper section is not connected to the lower section, and the bottom opening of the upper section is located above the liquid level of the disinfectant, when the motor of the multi-purpose fan is working, the disinfectant does not flow in the flow channel, and the connecting sleeve is detached from the lower section.

[0022] An ultrasonic detection probe disinfection bracket proposed by the present invention has the following beneficial effects: through the provision of a stable base, a back plate, a lifting probe frame, a top working box and a pipeline splicing module, after the medical staff has used the B-ultrasound probe, the B-ultrasound probe is placed on the lifting probe frame, and the lifting probe frame lifts the B-ultrasound probe into the disinfection channel, and then the disinfectant is pumped into the disinfection channel to clean and disinfect the B-ultrasound probe. The medical staff only needs to place the B-ultrasound probe and then call the next patient, and use the time gap between patient switching to disinfect and clean the B-ultrasound probe, which can also reduce the workload of the medical staff and reduce the fatigue of the medical staff. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 This is a schematic diagram of the overall structure of an ultrasonic detection probe disinfection bracket proposed by the present invention;

[0024] Figure 2 A front cross-sectional view of a top working box in an ultrasonic detection probe disinfection support proposed by the present invention;

[0025] Figure 3 A three-dimensional cross-sectional view of a top working box in an ultrasonic detection probe disinfection support proposed by the present invention;

[0026] Figure 4 This is a structural cross-sectional view of a pipe splicing grinding block in an ultrasonic detection probe disinfection bracket proposed by the present invention;

[0027] Figure 5 This is a structural schematic diagram of a pipe splicing module in an ultrasonic detection probe disinfection bracket proposed by the present invention;

[0028] Figure 6 This is a schematic diagram of the operation of the ultrasonic detection probe disinfection bracket in Example 1 of the present invention;

[0029] Figure 7 This is a structural cross-sectional view of a stable base in an ultrasonic detection probe disinfection bracket proposed by the present invention;

[0030] Figure 8 A three-dimensional structural cross-sectional view of a stable base in an ultrasonic detection probe disinfection bracket proposed by the present invention;

[0031] Fig. 9 This is a schematic diagram of the operation of an ultrasonic detection probe disinfection bracket embodiment 2 proposed by the present invention.

[0032] In the figure: 1. Stable base; 2. Back plate; 3. Lifting probe frame; 4. Top working box; 5. Flow channel; 6. Sliding groove; 7. Pipe splicing module; 8. Splicing side groove; 9. Protective strip; 10. Protective cover; 11. Conveying pipe; 12. Feeding motor; 13. Feeding pipe; 14. Auger; 15. Feeding inclined pipe; 16. Liquid inlet inclined pipe; 17. Multi-purpose fan; 18. Connecting sleeve; 19. Feeding cover; 20. Impeller. DETAILED DESCRIPTION

[0033] Example 1

[0034] Reference Figure 1-Figure 8 The present invention proposes an ultrasonic detection probe disinfection bracket, comprising a stable base 1, a back plate 2 is fixedly installed on the stable base 1, a lifting probe frame 3 is lifted and installed on the side of the back plate 2, a placement slot is opened on the lifting probe frame 3, the handle of the B-ultrasound probe can be fixedly inserted in the placement slot, and the probe of the B-ultrasound probe is placed upward, and the lifting probe frame 3 is driven by an electric slide rail. When the B-ultrasound probe is placed in the placement slot of the lifting probe frame 3, the electric slide rail drives the lifting probe frame 3 and the B-ultrasound probe to perform synchronous lifting and lowering movements.

[0035] In actual use, after the medical staff has finished the B-type ultrasonic test on the previous patient, they clamp the handle of the B-ultrasound probe in the placement groove at the end of the lifting probe frame 3 to ensure that the B-ultrasound probe is arranged with the probe end facing upward. A top working box 4 is fixedly installed on the top of the back plate 2, and the top working box 4 is located directly above the lifting probe frame 3. A flow channel 5 is opened in the top working box 4, and a sliding groove 6 is opened on the inner wall of the flow channel 5. The sliding groove 6 is open at the bottom (the bottom opening of the sliding groove 6 is located at the bottom surface of the top working box 4), and the middle section of the flow channel 5 is in a disconnected state. Two pipeline splicing modules 7 are slidably installed in the sliding groove 6. The pipeline splicing modules 7 slide in the sliding groove 6 through existing technologies such as electric slide rails and gas rods. The two pipeline splicing modules 7 are each provided with a splicing side groove 8 on one side close to each other. When the two pipeline splicing modules 7 are abutted against each other, the two splicing side grooves 8 form a disinfection channel connected to the flow channel 5, and the bottom of the pipeline splicing module 7 is provided with a splicing side groove 8 connected to the splicing side groove 8. The two pipe splicing modules 7 are placed in the two placement ports, and the inner wall of the placement port is installed with a sealing gasket. When the two pipe splicing modules 7 are abutted against each other, the handle of the B-ultrasound probe can be placed in the two placement ports. In actual use, the B-ultrasound probe is first vertically inserted into the lifting probe frame 3, and the lifting probe frame 3 drives the B-ultrasound probe to rise, so that the B-ultrasound probe is between the two pipe splicing modules 7 when the B-ultrasound probe is raised, and then the two pipe splicing modules 7 are driven to approach each other and abut against each other, so that the probe of the B-ultrasound probe is located in the disinfection channel, and the handle of the B-ultrasound probe passes through the placement port. When the two pipe splicing modules 7 are against each other, the two splicing side grooves 8 are spliced ​​to form a disinfection channel with three openings (openings at both ends and a placement port), the disinfection channel and the middle section of the flow channel 5 overlap, the handle of the B-ultrasound probe is stuck in the placement port, and the handle of the B-ultrasound probe just blocks the placement port, ensuring that the end of the B-ultrasound probe is located in the disinfection channel, and the disinfectant will not flow out of the placement port. When the disinfectant flows in the flow channel 5, it needs to pass through the disinfection channel. The disinfectant can be alcohol, hydrogen peroxide, etc.;In actual use, the two pipe splicing modules 7 move away from or towards each other synchronously in the sliding groove 6. When the two pipe splicing modules 7 move away from each other, the middle section of the flow channel 5 is disconnected, and no disinfectant flows in the flow channel 5 at this time. When the two pipe splicing modules 7 move towards each other and abut against each other, the disinfection channel will connect the two sections of the flow channel 5, and there are sealing treatments between the two pipe splicing modules 7 and between the pipe splicing modules 7 and the inner wall of the sliding groove 6. When the two pipe splicing modules 7 abut against each other, B The handle of the ultrasound probe and the inner wall of the placement port are sealed to reduce the leakage of disinfectant from there. The pump then pumps the disinfectant into the flow channel 5 and then into the disinfection channel to clean and disinfect the B-ultrasound probe in the disinfection channel. The outlet of the flow channel 5 is connected to the waste water tank to ensure that the disinfectant will not leak from the joint when flowing through the disinfection channel, thereby achieving the disinfection of the B-ultrasound probe, reducing the spread of viruses, and reducing the workload of medical staff and fatigue of medical staff, thereby reducing misdiagnosis of illnesses caused by fatigue. ;

[0036] like Figure 3 , Figure 4 and Figure 5 As shown in the figure, a protective strip 9 and a protective cover 10 are fixedly connected to the bottom of the spliced ​​side groove 8. There are two protective strips 9. The two protective strips 9 are respectively located on both sides of the protective cover 10. The protective cover 10 is located at the opening position of the placement port. The two protective covers 10 on the two pipe splicing modules 7 can be assembled into a set of protective covers arranged on the handle of the B-ultrasound probe, so that this position is higher than the bottom inner wall of the spliced ​​side groove 8, so that the disinfectant will not overflow over the protective cover 10, forming a sealing structure to reduce the leakage of the disinfectant. The design of the protective strip 9 can increase the contact area between the bottoms of the two pipe splicing modules 7, thereby increasing its sealing. Similarly, the protective cover 10 can increase the contact area between it and the B-ultrasound handle, thereby improving the sealing and reducing the leakage of the disinfectant.

[0037] like Figure 6As shown in the figure, a working chamber is provided in the stable base 1, in which a disinfectant is contained. The disinfectant contains cleaning particles, and the cleaning particles include foam particles and sponge particles. The foam particles and the sponge particles are made of soft materials. When they come into contact with the surface of the B-ultrasound probe and generate friction, the wear on the B-ultrasound probe can be reduced. Moreover, the probe end of the B-ultrasound probe is located at an upper position in the disinfection channel. The density of the foam particles and the sponge particles is less than that of the disinfectant. The foam particles are in a floating state, which can better clean and disinfect the probe part of the B-ultrasound probe. In addition, after the sponge particles absorb the disinfectant, they are in a In a suspended or floating state, the middle and upper part of the B-ultrasound probe can be cleaned and disinfected, so that the cleaning and disinfection effect is better and the occurrence of medical coupling agent residue is reduced. A delivery pipe 11 is connected between the working cavity and the flow channel 5. When the disinfectant flows through the disinfection channel, cleaning particles can contact and rub against the surface of the B-ultrasound probe, thereby wiping and cleaning the medical coupling agent on the surface of the B-ultrasound probe, so that the cleaning effect is better, and the operation of wiping and cleaning the B-ultrasound probe by medical staff is reduced, the labor intensity of medical staff is reduced, and the work efficiency of medical staff can be improved.

[0038] In actual use, if the foam particles, sponge particles and disinfectant are mixed together, most of the foam particles and sponge particles will float. In this way, when the disinfectant is extracted, the position of the liquid inlet needs to be changed according to the change of the liquid level of the disinfectant, which causes inconvenience and affects the absorption of the foam particles and sponge particles, thereby affecting the cleaning and disinfection effect of the B-ultrasound probe. Therefore, it is improved and processed as follows:

[0039] like Figure 6 , Figure 7 and Figure 8 As shown in the figure, a partition is installed in the working chamber, and the partition can divide the working chamber into a cleaning particle chamber and a disinfectant chamber arranged up and down. The cleaning particles are contained in the cleaning particle chamber, and the disinfectant is contained in the disinfectant chamber. A feeding structure is fixedly installed in the working chamber, and the feeding structure is used to transport the cleaning particles into a conveying pipe 11; in actual use, the foam particles, sponge particles and disinfectant are separated and fed separately, and then mixed. The amount of foam particles and sponge particles can be controlled according to actual needs to achieve the best cleaning and disinfection effect. However, in actual operation, due to the liquid characteristics of the disinfectant, water will flow to a lower place. If the cleaning particle chamber is placed below the disinfectant chamber, siphoning, disinfectant reflux, etc. will occur to soak the foam particles and sponge particles, and it is not convenient to control the amount of foam particles and sponge particles. Therefore, the design designs the cleaning particle chamber above the disinfectant chamber, so that the disinfectant will not flow upstream into the cleaning particle chamber, and then the foam particles and sponge particles are transported according to needs through the feeding structure, which can achieve a better cleaning and disinfection effect.

[0040] like Figure 1 The top of the stable base 1 is provided with an opening connected to the cleaning particle chamber, and a charging cover 19 capable of sealing the top opening of the stable base 1 is installed on the stable base 1. The charging cover 19 can be designed to be transparent, so that the change of the amount of cleaning particles inside can be observed at any time, which is convenient for adding at any time.

[0041] The feeding structure includes a feeding motor 12, a feeding pipe 13 and an auger 14. The feeding motor 12 is fixedly installed in the cleaning particle chamber, the feeding pipe 13 is located in the disinfectant chamber, and the top of the feeding pipe 13 is connected to the cleaning particle chamber, and the bottom of the feeding pipe 13 is connected to the conveying pipe 11. The auger 14 is fixedly installed on the output shaft of the feeding motor 12, and the auger 14 is located in the feeding pipe 13. When the foam particles and sponge particles are fed, the feeding motor 12 works to drive the auger 14 to rotate, and the rotating auger 14 conveys the foam particles and sponge particles from the feeding pipe 13 to the conveying pipe 11 and mixes them with the disinfectant, so as to achieve a better ratio of cleaning particles and disinfectant, thereby achieving a better cleaning and disinfection effect on the B-ultrasound probe.

[0042] The bottom end of the feeding pipe 13 is lower than the bottom end of the delivery pipe 11, and an inclined feeding inclined pipe 15 is connected between the bottom opening of the feeding pipe 13 and the bottom opening of the delivery pipe 11. A liquid inlet is provided through the outer periphery of the delivery pipe 11. Since the delivery pipe 11 requires a liquid inlet to draw the disinfectant into the flow channel 5, a liquid inlet needs to be provided in a section of the delivery pipe 11 immersed in the disinfectant to draw the disinfectant in and mix it with the cleaning particles.

[0043] In actual use, if the liquid inlet is only provided on the section of the delivery pipe 11 immersed in the disinfectant, foam particles and sponge particles will enter the disinfectant chamber through the liquid inlet, affecting cleaning and disinfection. Therefore, the liquid inlet is designed as follows:

[0044] A liquid inlet inclined tube 16 is fixedly installed in the liquid inlet of the delivery tube 11. The liquid inlet inclined tube 16 is arranged to be inclined upward into the delivery tube 11, and both ends of the liquid inlet inclined tube 16 exceed the inner and outer walls of the delivery tube 11 respectively. The end of the liquid inlet inclined tube 16 located outside the delivery tube 11 is lower than the end located inside the delivery tube 11. After the foam particles and sponge particles enter the delivery tube 11, they move upward due to the buoyancy of the disinfectant and the suction of the pump. When passing through the end of the liquid inlet inclined tube 16 located in the delivery tube 11, the foam particles and sponge particles will not enter the liquid inlet inclined tube 16, and the foam particles and sponge particles cannot move downward, thereby reducing the situation where the foam particles and sponge particles enter the disinfectant chamber.

[0045] like Figure 2 and Figure 6As shown in the figure, a multi-purpose fan 17 is installed in the flow channel 5, and the multi-purpose fan can stir the cleaning particles in the disinfectant. When the disinfectant flows in the flow channel 5, the motor of the multi-purpose fan 17 does not work, and the blades of the multi-purpose fan 17 rotate with the flow of the disinfectant; when the disinfectant flows through the multi-purpose fan 17, the blades on the multi-purpose fan 17 rotate with the flow trend of the disinfectant, and the foam particles and the sponge particles are stirred by the rotating blades, so that the foam particles and the sponge particles are not completely in a floating state, and part of them sink into the disinfectant (especially the sponge particles that absorb the disinfectant). When the disinfectant mixed with cleaning particles passes through the multi-purpose fan 17, the sponge particles in the disinfectant are stirred and partially sink into the disinfectant, and the foam particles are quickly floated by the buoyancy of the disinfectant, and the floated foam particles clean the probe position of the B-ultrasound probe, and the sponge particles that sink into the water clean and disinfect the handle of the B-ultrasound probe and the connection between the probe and the handle of the B-ultrasound probe, thereby making the cleaning effect of the B-ultrasound probe better.

[0046] In actual operation, the B-ultrasound probe needs to be kept dry during use and storage to reduce the growth of bacteria due to moisture. The delivery tube 11 includes an upper section and a lower section. The upper section is slidably sleeved with a connecting sleeve 18, which is slidably sleeved on the lower section and connects the upper section and the lower section. When the connecting sleeve 18 is detached from the lower section, the upper section and the lower section are not connected, and the bottom opening of the upper section is located above the liquid level of the disinfectant. When the motor of the multi-purpose fan 17 is working, the disinfectant does not flow in the flow channel 5, and the connecting sleeve 18 is detached from the lower section. After cleaning and disinfecting the B-ultrasound probe, The connection sleeve 18 is controlled to rise so that the connection sleeve 18 is separated from the lower section. At this time, the motor of the multi-purpose fan 17 is operated to drive its blades to rotate. When the blades rotate, the air flow rate in the flow channel 5 is increased. In addition, the upper section and the lower section of the delivery pipe 11 are in a disconnected state and cannot inhale the disinfectant. The air in the disinfectant chamber is drawn into the flow channel 5 and then passes through the surface of the B-ultrasound probe, thereby increasing the flow rate of the air on the surface of the B-ultrasound probe, thereby accelerating the rapid drying of the surface of the B-ultrasound probe, thereby reducing the occurrence of water stains and the breeding of bacteria, or reducing the influence of water stains on the use of medical coupling agents.

[0047] Example 2

[0048] like Fig. 9As shown, this embodiment is different from Embodiment 1 in the way of discharging sponge particles and foam particles, the structure of the conveying pipe 11, the bottom of the cleaning particle chamber is arranged inclined, and a discharging port is opened at the bottom, and an impeller 20 is rotatably installed in the discharging port, and the impeller 20 is driven by a motor. When the impeller 20 rotates, the discharging speed and amount of the sponge particles and foam particles in the cleaning particle chamber can be controlled as the speed of the impeller 20 changes. After the sponge particles and foam particles are released, the sponge particles and foam particles will roll to the right along the inclined surface and fall to the projection position of the conveying pipe 11 on the surface of the disinfectant liquid.

[0049] At this time, the liquid inlet of the delivery pipe 11 is not immersed in the disinfectant, and the connecting sleeve 18 can be raised and lowered and slid on the delivery pipe 11, so as to be raised and lowered synchronously with the change of the disinfectant liquid level. During the lifting process, it is necessary to ensure that there is a gap between the bottom end of the connecting sleeve 18 and the liquid surface of the disinfectant, so that the sponge particles and foam particles floating on the liquid surface of the disinfectant can be conveniently sucked into the delivery pipe 11. By increasing the rotation speed of the multi-purpose fan 17, the suction force is increased to suck the disinfectant, sponge particles and foam particles into the delivery pipe 11 together, and then the disinfectant, sponge particles and foam particles are transported to the disinfection channel for disinfection. Similarly, the cleaning particles and disinfectant mixture will also be stirred when passing through the multi-purpose fan 17, or the lifting height of the connecting sleeve 18 remains unchanged, but it is necessary to ensure that the disinfectant liquid level does not change during the entire cleaning and disinfection process, so as to ensure that the disinfectant can be sucked into the delivery pipe 11.

[0050] After the B-ultrasound probe is cleaned and disinfected, the suction force at the bottom opening of the connecting sleeve 18 is reduced by changing the rotation speed of the multi-purpose fan 17 motor to ensure that the disinfectant cannot be sucked into the delivery tube 11, so that only air flows in the disinfection channel, increasing the flow rate of the air on the surface of the B-ultrasound probe, thereby increasing the drying speed of the surface of the B-ultrasound probe.

[0051] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. An ultrasonic detection probe disinfection bracket, characterized in that: The invention comprises a stable base (1), a back plate (2) is fixedly mounted on the stable base (1), a top working box (4) is fixedly mounted on the top of the back plate (2), a lifting probe frame (3) is slidably mounted on the front side of the back plate (2), the lifting probe frame (3) is located below the top working box (4), and a placement groove adapted for a B-ultrasound probe is provided at one end of the lifting probe frame (3) away from the back plate (2), the handle of the B-ultrasound probe can be inserted into the placement groove, and the probe of the B-ultrasound probe is placed upwards; A flow channel (5) is provided in the top working box (4), and a sliding groove (6) is provided on the inner wall of the flow channel (5). Two pipe splicing modules (7) are slidably mounted in the sliding groove (6). A splicing side groove (8) is provided on the side where the two pipe splicing modules (7) are close to each other. When the two pipe splicing modules (7) are pressed against each other, the two splicing side grooves (8) form a disinfection channel with two ends open, and the disinfection channel is connected to the flow channel (5); The bottom of the pipeline splicing module (7) is provided with a placement opening, and the placement opening is communicated with the splicing side groove (8). When the two pipeline splicing modules (7) are placed together, the handle of the B-ultrasound probe can be placed in the two placement openings.

2. The ultrasonic detection probe disinfection bracket according to claim 1, characterized in that: A protective strip (9) and a protective cover (10) are fixedly connected inside the bottom of the spliced ​​side groove (8), the number of the protective strips (9) is two, the two protective strips (9) are respectively located on both sides of the protective cover (10), the protective cover (10) is located at the opening position of the placement port, and the two protective covers (10) on the two pipeline splicing modules (7) can be assembled into a set of protective covers arranged on the handle of the B-ultrasound probe.

3. The ultrasonic detection probe disinfection bracket according to claim 1, characterized in that: A working chamber is provided in the stable base (1), wherein a disinfectant is contained in the working chamber, and the disinfectant contains cleaning particles; A delivery pipe (11) is connected between the working chamber and the flow channel (5).

4. The ultrasonic detection probe disinfection bracket according to claim 3, characterized in that: The cleaning particles include foam particles and sponge particles.

5. The ultrasonic detection probe disinfection bracket according to claim 4, characterized in that: A partition is installed in the working chamber, and the partition can separate the working chamber into a cleaning particle chamber and a disinfectant chamber arranged in an upper and lower manner, the cleaning particle chamber is used to store cleaning particles, and the disinfectant chamber is used to store disinfectant; A feeding structure is installed on the partition, and the feeding structure is used to transport the cleaning particles into the conveying pipe (11); The top of the stable base (1) is provided with an opening which is in communication with the cleaning particle chamber, and the stable base (1) is provided with a feeding cover (19) which is capable of sealing the top opening of the stable base (1).

6. The ultrasonic detection probe disinfection bracket according to claim 5, characterized in that: The feeding structure comprises a feeding motor (12), a feeding pipe (13) and an auger (14); the feeding motor (12) is fixedly mounted in the cleaning particle chamber, the feeding port of the feeding pipe (13) is communicated with the cleaning particle chamber, the discharge port of the feeding pipe (13) is communicated with the conveying pipe (11), the auger (14) is fixedly mounted on the output shaft of the feeding motor (12), and the auger (14) is located in the feeding pipe (13).

7. The ultrasonic detection probe disinfection bracket according to claim 6, characterized in that: The bottom end of the feeding pipe (13) is lower than the bottom end of the delivery pipe (11); an inclined feeding inclined pipe (15) is connected between the bottom opening of the feeding pipe (13) and the bottom opening of the delivery pipe (11); and a liquid inlet is provided through the outer circumference of the delivery pipe (11).

8. The ultrasonic detection probe disinfection bracket according to claim 7, characterized in that: A liquid inlet inclined pipe (16) is fixedly installed in the liquid inlet of the delivery pipe (11), and the liquid inlet inclined pipe (16) is arranged obliquely upward into the delivery pipe (11).

9. The ultrasonic detection probe disinfection bracket according to claim 8, characterized in that: A multi-purpose fan (17) is installed in the flow channel (5), and the multi-purpose fan can stir the cleaning particles in the disinfectant.

10. The ultrasonic detection probe disinfection bracket according to claim 9, characterized in that: When the disinfectant flows in the flow channel (5), the motor of the multi-purpose fan (17) does not work, and the blades of the multi-purpose fan (17) rotate along with the flow of the disinfectant; The delivery pipe (11) comprises an upper section and a lower section. The upper section is slidably sleeved with a connecting sleeve (18). The connecting sleeve (18) is slidably sleeved on the lower section and connects the upper section and the lower section. When the connecting sleeve (18) is detached from the lower section, the upper section is not connected to the lower section, and the bottom opening of the upper section is located above the liquid level of the disinfectant. When the motor of the multi-purpose fan (17) is working, the disinfectant does not flow in the flow channel (5), and the connecting sleeve (18) is detached from the lower section.

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