Omnibearing disinfection system capable of recycling liquid medicine

Abstract

The utility model provides an all-dimensional disinfection system capable of recycling liquid medicine. The all-dimensional disinfection system comprises a rack provided with a detection cavity, a transmission mechanism, a disinfection mechanism and a recycling assembly, a detection inlet is formed in one end of the detection cavity, a detection outlet is formed in one end opposite to the detection inlet, and the detection inlet is communicated with the detection outlet; the transmission mechanism is arranged in the detection cavity and is used for conveying the to-be-disinfected articles from the detection inlet to the detection outlet; the disinfection mechanism comprises an atomization assembly arranged in the detection cavity and is used for spraying liquid medicine to the to-be-disinfected articles on the transmission mechanism; the recovery assembly is arranged at the bottom of the detection cavity and used for recovering the sprayed liquid medicine. The atomization assembly is arranged in the detection cavity, and in the process that the conveying mechanism conveys the to-be-disinfected articles from the detection inlet to the detection outlet, the disinfection mechanism is started to spray disinfection liquid medicine to the to-be-disinfected articles; meanwhile, the recycling assembly is used for recycling redundant disinfection liquid medicine, and the problems that manual disinfection is not thorough, and the disinfection liquid medicine flows out to cause environmental pollution are solved.

Description

Technical Field

[0001] The utility model relates to the technical field of logistics and cold chain article disinfection, and in particular to an all-round disinfection system with recyclable liquid medicine. Background Art

[0002] In order to reduce the risk of virus transmission through imported cold chain items, the traditional method is for staff to manually disinfect imported cold chain items. However, manual disinfection is inefficient and incomplete, and staff are in direct contact with the goods during work, resulting in a high risk of infection. Wearing protective clothing for a long time will also increase fatigue intensity and the incidence of hidden safety accidents, threatening the health of cold chain workers. At the same time, the waste liquid after disinfection is easy to flow out, which can easily cause environmental pollution. Utility Model Content

[0003] The utility model is to overcome at least one defect of the above-mentioned prior art and provide an all-round disinfection system with recoverable liquid medicine, so as to solve the problems in the prior art that manual disinfection is not thorough and the waste liquid after disinfection flows out and easily causes environmental pollution.

[0004] The technical solution adopted by the utility model is: an all-round disinfection system with recoverable liquid medicine, comprising a frame provided with a detection chamber, a transmission mechanism, a disinfection mechanism and a recovery component; a detection inlet is provided at one end of the detection chamber, and a detection outlet is provided at the end of the detection chamber opposite to the detection inlet, and the detection inlet is connected to the detection outlet; the transmission mechanism is arranged in the detection chamber, and is used to transfer the objects to be disinfected from the detection inlet to the detection outlet; the disinfection mechanism comprises an atomization component arranged in the detection chamber, and the atomization component is used to spray the prepared disinfectant liquid on the objects to be disinfected on the transmission mechanism; the recovery component is arranged at the bottom of the detection chamber, and is used to recover the sprayed disinfectant liquid.

[0005] Furthermore, the disinfection mechanism includes a finished medicine box and an original medicine box, the finished medicine box is provided with a water injection port and a medicine injection port, the water injection port is connected to an external tap water, and the medicine injection port is connected to the original medicine box through a metering pump; the finished medicine box is connected to the atomization assembly through a driving pump.

[0006] Furthermore, the atomization components are provided in a plurality of groups, each group of the atomization components is arranged in the detection cavity, and each group of the atomization components corresponds to a different position of the transmission mechanism.

[0007] Further, the multiple groups of atomization components include: a first atomization component, a second atomization component, a third atomization component, a fourth atomization component, a fifth atomization component and a sixth atomization component; the first atomization component is arranged at the top of the detection cavity, the second atomization component is arranged at the bottom of the detection cavity, the third atomization component is arranged at the front side of the detection cavity, the fourth atomization component is arranged at the rear side of the detection cavity, the fifth atomization component is arranged at the left side of the detection cavity, and the sixth atomization component is arranged at the right side of the detection cavity.

[0008] Furthermore, the recovery component includes a medicine liquid recovery tray, a medicine liquid recovery box and a power pump; the medicine liquid recovery tray is arranged at the bottom of the transmission mechanism, and the medicine liquid recovery tray is provided with a drain port; the medicine liquid recovery tray is connected to the medicine liquid recovery box through the drain port, and the medicine liquid recovery box is connected to the finished medicine box through the power pump.

[0009] Furthermore, the recovery component also includes a first filter element and a second filter element, the first filter element is arranged between the connecting position of the medicine liquid recovery tray and the medicine liquid recovery box; the second filter element is arranged between the connecting position of the medicine liquid recovery box and the finished medicine box.

[0010] Furthermore, the transmission mechanism is provided with two, namely a first transmission mechanism and a second transmission mechanism; the first transmission mechanism and the second transmission mechanism are both arranged in the detection cavity, the first transmission mechanism extends to the detection entrance, and the second transmission mechanism extends to the detection exit.

[0011] Further, the first transmission mechanism includes a first conveyor belt, a driving shaft, a first roller, a first sprocket and a driving member; the second transmission mechanism includes: a second conveyor belt, a driven shaft, a second roller and a second sprocket; the first conveyor belt extends to the detection entrance and is arranged on the driving shaft and the first roller; the second conveyor belt extends to the detection exit and is arranged on the driven shaft and the second roller; a first sprocket is provided on the driving shaft, a second sprocket is provided on the driven shaft, the first sprocket is transmission-connected to the driving member, and the driving shaft is transmission-connected to the second sprocket.

[0012] Furthermore, the all-round disinfection system for recyclable liquid medicine also includes a detection mechanism; the detection mechanism includes a sensor and a control panel, the sensor is arranged in the detection cavity, and is used to detect whether an object is set on the transmission mechanism; the control panel is electrically connected to the sensor and the disinfection mechanism; when the sensor detects that an object is set on the transmission mechanism, the control panel controls the disinfection mechanism to turn on; when the sensor detects that no object is set on the transmission mechanism, the control panel controls the disinfection mechanism to turn off.

[0013] Furthermore, the all-round disinfection system for recoverable liquid medicine also includes that both the detection inlet and the detection outlet are provided with water-blocking curtains for preventing the leakage of disinfection water mist.

[0014] The utility model sets an atomizing component for spraying the prepared disinfectant liquid in the detection chamber. When the conveying mechanism conveys the object to be disinfected from the detection entrance to the detection exit, the disinfection mechanism is started to spray the disinfectant liquid on the object to be disinfected through the atomizing component, and the recycling component is used to recycle the excess disinfectant liquid during the spraying process. While changing the traditional working mode in which the staff manually disinfects the object to be disinfected, it also solves the problem of incomplete manual disinfection and environmental pollution caused by the outflow of disinfectant liquid. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the specific implementation methods of the present application or the technical solutions in the prior art, the drawings required for use in the specific implementation methods or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are some implementation methods of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0016] Figure 1 It is a structural schematic diagram of the all-round disinfection system of the recyclable liquid medicine provided by the utility model;

[0017] Figure 2 It is a schematic diagram of the disinfection mechanism of the all-round disinfection system with recoverable liquid medicine provided by the utility model;

[0018] Figure 3 It is a schematic diagram of a recovery component of an all-round disinfection system for recoverable liquid medicine provided by the utility model.

[0019] In the figure: 1. frame; 11. detection entrance; 12. detection exit; 2. transmission mechanism; 21. first transmission mechanism; 22. second transmission mechanism; 3. disinfection mechanism; 31. raw medicine box; 311. water injection port; 32. finished medicine box; 33. liquid discharge port; 34. atomization assembly; 341. first atomization assembly; 342. second atomization assembly; 343. third atomization assembly; 344. fourth atomization assembly; 345. fifth atomization assembly; 346. sixth atomization assembly; 35. driving pump; 36. metering pump; 4. recovery assembly; 41. medicine liquid recovery tray; 42. medicine liquid recovery box; 43. power pump; 44. first filter element; 45. second filter element; 5. detection mechanism; 51. liquid level sensor; 6. monitoring mechanism. DETAILED DESCRIPTION

[0020] In order to make the purpose, technical solution and advantages of the utility model clearer, the technical solution of the utility model will be described clearly and completely in conjunction with the drawings in the utility model. Obviously, the described embodiments are part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0021] In the existing logistics and cold chain item disinfection fields, manual disinfection is usually used. Manual disinfection generally has problems such as incomplete disinfection, residual disinfectant solution, and outflow of waste liquid causing environmental pollution.

[0022] To solve the above problems, Figure 1 As shown, the utility model provides an all-round disinfection system with recoverable liquid medicine, including a frame 1 provided with a detection chamber, a transmission mechanism 2, a disinfection mechanism 3 and a recovery component 4; a detection inlet 11 is provided at one end of the detection chamber, and a detection outlet 12 is provided at the end of the detection chamber opposite to the detection inlet 11, and the detection inlet 11 is communicated with the detection outlet 12; the transmission mechanism 2 is arranged in the detection chamber, and is used to transfer the objects to be disinfected from the detection inlet 11 to the detection outlet 12; the disinfection mechanism 3 includes an atomization component 34 arranged in the detection chamber, and the atomization component 34 is used to spray the prepared disinfection liquid medicine on the objects to be disinfected on the transmission mechanism 2; the recovery component 4 is arranged at the bottom of the detection chamber, and is used to recover the sprayed disinfection liquid medicine. Specifically, the recovery component 4 is arranged at the bottom of the detection chamber, away from the side of the chamber.

[0023] The utility model sets an atomizing assembly 34 for spraying the prepared disinfectant liquid in the detection chamber. When the conveying mechanism conveys the disinfected items from the detection entrance 11 to the detection exit 12, the disinfection mechanism 3 is started to spray the disinfectant liquid on the items to be disinfected through the atomizing assembly 34, and the recovery assembly 4 is used to recover the excess disinfectant liquid during the spraying process. At the same time, the atomizing assembly 34 makes the liquid spray more uniform, the spraying area larger, and the disinfection more thorough. While changing the traditional working mode of manually disinfecting the items to be disinfected by the staff, it also solves the problem of incomplete manual disinfection and environmental pollution caused by the outflow of disinfectant liquid.

[0024] It should be noted that a plurality of rotatable wheels are also provided at the bottom edge of the rack 1. Preferably, six wheels are provided, which are respectively provided at both sides and the middle position of the bottom of the rack 1, and two wheels are symmetrically provided at each position for adjusting the position of the rack 1 to facilitate the movement of the rack 1.

[0025] In the preferred embodiment of the present utility model, as Figures 1 to 3As shown, the disinfection mechanism 3 includes a finished medicine box 32 and an original medicine box 31. The finished medicine box 32 is provided with a water injection port 311 and a medicine injection port. The water injection port 311 is connected to an external water source, and the medicine injection port is connected to the original medicine box 31 through a metering pump 36; the finished medicine box 32 is connected to the atomization assembly 34 through a driving pump 35.

[0026] For ease of use, the diameter of the water injection port 311 is larger than the diameter of the medicine injection port. The water injection port 311 is provided with a solenoid valve. When water needs to be injected into the finished medicine box 32, the solenoid valve is opened, and when the injected water level reaches the specified position, the solenoid valve is closed. Preferably, a filter device is also connected between the water injection port 311 and the external tap water, and the filter device is used to filter impurities in the water. The external tap water passes through the filter device first, and then passes through the solenoid valve to reduce the impact of impurities in the water on the service life of the solenoid valve. The addition of water and raw medicine to the finished medicine box 32 are carried out simultaneously. The raw medicine box 31 adds the raw medicine to the finished medicine box 32 according to the proportion of raw medicine that needs to be added when adding water set by the system through the metering pump 36. The water injection port 311 is controlled by the solenoid valve to add water to the finished medicine box 32. When the liquid level in the finished medicine box 32 reaches the set liquid level value, the addition of water and raw medicine stops at the same time.

[0027] Preferably, the injection port is connected to a one-way valve to prevent the prepared disinfectant solution in the finished medicine box 32 from flowing back into the original medicine box 31, thereby affecting the original medicine.

[0028] In addition, the atomizing assembly 34 is connected to the medicine box 32 via a driving pump 35. The driving pump 35 is specifically a high-pressure pump, which can convert a fixed amount of water into a high-pressure water flow, so that the water flow has a strong impact force.

[0029] In a preferred embodiment of the utility model, a plurality of atomizing assemblies 34 are provided, each atomizing assemblies 34 is arranged in the detection cavity, and each atomizing assemblies 34 corresponds to a different position of the transmission mechanism 2, and is used for full coverage disinfection of each surface of the object.

[0030] Specifically, the atomizing assembly 34 in the embodiment of the utility model is provided with six groups. The atomizing assembly 34 includes an atomizing nozzle and a pipeline. The liquid medicine pressurized by the driving pump 35 is transported to the corresponding atomizing nozzle through the pipeline. The atomizing nozzle sprays the medicine on the surface of the object to disinfect the object. The size of the water droplets sprayed by the atomizing nozzle can be adjusted according to the different disinfected objects.

[0031] It should be noted that if Figure 2As shown, the plurality of groups of atomizing components 34 include: a first atomizing component 341, a second atomizing component 342, a third atomizing component 343, a fourth atomizing component 344, a fifth atomizing component 345 and a sixth atomizing component 346. The first atomizing component 341 is arranged at the top of the detection chamber to disinfect the top surface of the object; the second atomizing component 342 is arranged at the bottom of the detection chamber to disinfect the bottom surface of the object; the third atomizing component 343 is arranged at the front side of the detection chamber to disinfect the front side surface of the object; the fourth atomizing component 344 is arranged at the rear side of the detection chamber to disinfect the rear side surface of the object; the fifth atomizing component 345 is arranged at the left side of the detection chamber to disinfect the left side surface of the object; correspondingly, the sixth atomizing component 346 is arranged at the right side of the detection chamber to disinfect the right side surface of the object.

[0032] Among them, the first atomizing assembly 341 contains a first atomizing nozzle, the second atomizing assembly 342 contains a second atomizing nozzle, the third atomizing assembly 343 contains a third atomizing nozzle, the fourth atomizing assembly 344 contains a fourth atomizing nozzle, and correspondingly, the fifth atomizing assembly 345 contains a fifth atomizing nozzle, and the sixth atomizing assembly 346 contains a sixth atomizing nozzle. Consistent with the position setting of the atomizing assembly 34, the first atomizing nozzle is set at the top of the detection cavity, used to spray the liquid medicine evenly on the top of the object, and fully cover the top of the object for disinfection; the second atomizing nozzle is set at the bottom of the detection cavity, used to spray the liquid medicine evenly on the bottom of the object, and fully cover the bottom of the object for disinfection; the third atomizing nozzle is set at the front side of the detection cavity, used to spray the liquid medicine evenly on the front side of the object, and fully cover the front side of the object for disinfection, and correspondingly, the fourth atomizing nozzle is used to fully cover the back side of the object for disinfection, the fifth atomizing nozzle is used to fully cover the left side of the object for disinfection, and the sixth atomizing nozzle is used to fully cover the right side of the object for disinfection. In order to make the liquid medicine sprayed from the atomizing nozzle fully cover the articles, the atomizing nozzle can be set as a rotating nozzle. During the disinfection process, the driving pump 35 pressurizes the liquid medicine in the medicine box 32, and the pressurized liquid medicine is transported to each nozzle through a pipeline, ensuring that each nozzle is evenly atomized, the articles to be disinfected are fully covered, and no runoff is generated on the surface.

[0033] In the preferred embodiment of the present utility model, as Figure 3As shown, the recovery component 4 includes a liquid medicine recovery tray 41, a liquid medicine recovery box 42 and a power pump 43; the liquid medicine recovery tray 41 is arranged at the bottom of the transmission mechanism 2, and the liquid medicine recovery tray 41 is provided with a drainage port 33; the liquid medicine recovery tray 41 is connected to the liquid medicine recovery box 42 through the drainage port 33, and the liquid medicine recovery box 42 is connected to the finished medicine box 32 through the power pump 43. Among them, the liquid medicine recovery tray 41 is arranged at the bottom of the transmission mechanism 2, and the liquid medicine recovery tray 41 is provided with a drainage port 33. A part of the disinfectant liquid passes through the transmission mechanism 2 to guide the excess disinfectant liquid on the transmission mechanism 2 to the liquid medicine recovery tray 41, and another part of the disinfectant liquid falls into the liquid medicine recovery tray 41 through the gap in the middle of the transmission mechanism 2, and at the same time, the disinfectant liquid in the liquid medicine recovery tray 41 is discharged into the liquid medicine recovery box 42 through the drainage port 33. It not only ensures the recovery of the liquid medicine, but also ensures that the bottom of the passing objects is not soaked, reducing the rupture of the box body caused by the soaking of the bottom. At the same time, it is also ensured that the liquid medicine does not spill anywhere. Wherein, the liquid medicine recovery tray 41 is arranged on one side of the principle chamber of the transmission mechanism 2.

[0034] Preferably, a liquid level sensor 51 is also provided in the medicine recovery box 42. When the position of the medicine in the medicine recovery box 42 triggers the liquid level sensor 51, the power pump 43 starts to work, and the power pump 43 adds the recovered medicine in the medicine recovery box 42 to the finished medicine box 32; it should be noted that when the power pump 43 is started, the metering pump 36 will also be started, and the medicine will be prepared according to the system's pre-set proportion of the original medicine that needs to be added when the recovered medicine is added to the finished medicine box 32, so as to ensure that the medicine in the finished medicine box 32 meets the disinfection standard; when the liquid level in the finished medicine box 32 reaches the set liquid level value, the power pump 43 stops working, that is, stops adding the recovered medicine from the medicine recovery box 42 to the finished medicine box 32, and the metering pump 36 also stops adding medicine. It should be noted that when adding the recovered medicine and the original medicine to the finished medicine box 32, it is forbidden to add tap water to the finished medicine box 32. At this time, the entire preparation process does not require the addition of tap water. While ensuring the disinfection effect, it not only saves tap water, but also because the recovered liquid medicine has a certain disinfection effect, the content of the original medicine that needs to be added will be reduced accordingly, thus saving the original medicine.

[0035] Preferably, a concentration detection device is provided in the medicine liquid recovery box 42 to detect the concentration of the recovered medicine liquid in the medicine liquid recovery box 42. The system calculates the proportion of original medicine that needs to be added when the recovered medicine liquid is mixed with the original medicine according to the concentration of the recovered medicine liquid, so as to improve the accuracy of the disinfectant medicine in the finished medicine box 32.

[0036] Preferably, a one-way valve is provided between the connection position between the medicine liquid recovery box 42 and the finished medicine box 32 to prevent the prepared disinfectant medicine liquid in the finished medicine box 32 from flowing back into the original medicine box 31, thereby affecting the original medicine.

[0037] In the preferred embodiment of the present utility model, as Figure 3 As shown, the recovery component 4 also includes a first filter 44 and a second filter 45. The first filter 44 is disposed between the connection position of the liquid medicine recovery tray 41 and the liquid medicine recovery box 42; the second filter 45 is disposed between the connection position of the liquid medicine recovery box 42 and the finished medicine box 32. The first filter 44 is used to filter impurities carried in the liquid medicine flowing from the liquid medicine recovery tray 41 into the liquid medicine recovery box 42, so that the liquid medicine flows into the liquid medicine recovery tray 41 quickly; the second filter 45 is used to secondary filter impurities in the liquid medicine flowing from the liquid medicine recovery box 42 into the finished medicine box 32. After two-stage filtration, the impurities in the recovered liquid medicine added to the finished medicine box 32 are further reduced, and the disinfection effect of the recovered liquid medicine is guaranteed as much as possible.

[0038] In the preferred embodiment of the present utility model, as Figures 1 to 3 As shown, there are two transmission mechanisms 2, namely a first transmission mechanism 21 and a second transmission mechanism 22. The first transmission mechanism 21 and the second transmission mechanism 22 are both arranged in the detection chamber, the first transmission mechanism 21 extends to the detection entrance 11, and the second transmission mechanism 22 extends to the detection exit 12.

[0039] Specifically, the first transmission mechanism 21 and the second transmission mechanism 22 are both conveyor belts, and a double conveyor belt design is adopted. A bottom spray is installed between the two conveyor belts, so that the spraying of the bottom of the article is more convenient, and the disinfection is more comprehensive and thorough. Among them, the conveyor belt is controlled by the frequency converter in the detection mechanism 5, and the speed and direction can be adjusted according to different articles. Through adjustment, the articles can be disinfected more comprehensively. The detection chamber is provided with sensors at the detection entrance 11 and the detection exit 12, and the sensor is specifically an infrared sensor. When the first transmission mechanism 21 transports the article from the detection entrance 11 to the middle position, the disinfection mechanism 3 is turned on, and the atomization component 34 on the disinfection mechanism 3 performs full coverage disinfection on the article, and the second transmission mechanism 22 then transports the article from the middle position to the detection exit 12, and the excess liquid sprayed from the spray end of the disinfection mechanism 3 is filtered, recovered and reused through the recovery component 4.

[0040] In the preferred embodiment of the present utility model, as Figure 1As shown, the first transmission mechanism 21 includes: a first conveyor belt, a driving shaft, a first roller, a first sprocket and a driving member, and the second transmission mechanism 22 includes: a second conveyor belt, a driven shaft, a second roller and a second sprocket. Among them, the first conveyor belt extends to the detection entrance 11, is arranged on the driving shaft and the first roller, and can drive the first conveyor belt and the first roller to rotate when the driving shaft rotates; the second conveyor belt extends to the detection exit 12, is arranged on the driven shaft and the second roller, and similarly, can drive the second conveyor belt and the second roller to rotate when the driven shaft rotates. A first sprocket is arranged on the driving shaft, and a second sprocket is arranged on the driven shaft. The first sprocket is connected to the driving member in a transmission manner, and the driving shaft is connected to the second sprocket in a transmission manner.

[0041] The driving member is specifically a servo motor, which is equipped with a reducer and can adjust the speed of the first conveyor belt and the second conveyor belt. According to the type of the article, the servo motor can be adjusted accordingly so that the disinfection mechanism 3 can perform a more thorough disinfection. During the operation of the transmission mechanism 2, the rotation of the driving member drives the driving wheel to rotate, the driving wheel drives the first sprocket to rotate, the first sprocket drives the second sprocket to rotate, the rotation of the second sprocket drives the driven wheel to rotate, the rotation of the driving shaft can drive the first conveyor belt to rotate, and the first conveyor belt transports the articles from the detection entrance 11 to the middle position; the rotation of the driven shaft drives the second conveyor belt to rotate, and the second conveyor belt transports the articles to the detection exit 12 to complete the disinfection of the articles.

[0042] In a preferred embodiment of the utility model, the all-round disinfection system of the recyclable liquid medicine further includes a detection mechanism 5, which includes a sensor and a control panel. The sensor is an infrared sensor, which is arranged in the detection chamber, and is used to detect whether an object is arranged on the transmission mechanism 2 and to count the number of objects. The control panel is electrically connected to the infrared sensor and the disinfection mechanism 3. When the infrared sensor detects that an object is arranged on the transmission mechanism 2, the control panel controls the disinfection mechanism 3 to turn on, and the disinfection mechanism 3 disinfects the object; when the infrared sensor detects that no object is arranged on the transmission mechanism 2, the control panel controls the disinfection mechanism 3 to turn off, so as to reduce the waste of liquid medicine.

[0043] When the device is in automatic operation, the start and shut down of the disinfection mechanism 3 is controlled by the infrared sensors of the detection entrance 11 and the detection exit 12. When the object is transported to the detection entrance 11 by the transmission mechanism 2, the infrared sensor of the detection entrance 11 detects the object and triggers the disinfection mechanism 3. The disinfection mechanism 3 is turned on to disinfect the object. When the disinfected object is transported to the detection exit 12 by the transmission mechanism 2, the infrared sensor of the detection exit 12 detects the object and the disinfection mechanism 3 is turned off. When the next object arrives at the detection entrance 11, the disinfection mechanism 3 is started again to disinfect. The waste of liquid medicine is greatly reduced by setting infrared sensors at the detection exit 12 and the detection entrance 11. On the other hand, when the object passes through the infrared sensor, the detection mechanism 5 can count the number of objects. The statistical data is displayed on the control panel, which saves the process of manual counting, saves time and effort, and improves the accuracy of counting.

[0044] In other embodiments, an infrared sensor can also be used to detect whether there are objects to control the driving member. When the infrared sensor detects the presence of an object, the driving member starts to rotate. The rotation of the driving member drives the driving wheel to rotate, the driving wheel drives the first sprocket to rotate, the first sprocket drives the second sprocket to rotate, and the rotation of the second sprocket drives the driven wheel to rotate. The rotation of the driving shaft can drive the first conveyor belt to rotate, and the first conveyor belt transports the objects from the detection entrance 11 to the middle position; the rotation of the driven shaft drives the second conveyor belt to rotate, and the second conveyor belt transports the objects to the detection exit 12 to complete the disinfection of the objects. When the infrared sensor detects that there are no objects on the first transmission mechanism 21 and the second transmission mechanism 22, the driving member stops rotating.

[0045] Preferably, the all-round disinfection system of recyclable liquid medicine also includes a monitoring mechanism 6. The monitoring mechanism 6 is arranged on the frame 1, and is used to monitor the operation of the transmission mechanism 2, the disinfection mechanism 3 and the recovery component 4. The monitoring mechanism 6 can also be connected to the mobile communication device via Bluetooth to realize the start and stop of the remote control system. Specifically, the monitoring mechanism 6 includes a camera, a controller and a processor. The camera is used to obtain images of the transmission mechanism 2, the disinfection mechanism 3 and the recovery component 4, and the processor processes the obtained images and transmits the processed results to the user's mobile communication device via Bluetooth. The user sends instructions to the disinfection system through the processed images, and the controller receives the instructions sent by the user to control the transmission mechanism 2 to start. When the object is transported to the detection entrance 11 by the transmission mechanism 2, the infrared sensor of the detection entrance 11 detects the object, triggers the disinfection mechanism 3, and the disinfection mechanism 3 disinfects the object. The recovery component 4 recovers the excess liquid medicine generated during the disinfection process. The monitoring mechanism 6 can remotely control the object for full coverage disinfection, saving manpower.

[0046] In the preferred embodiment of the utility model, the detection inlet 11 and the detection outlet 12 are both provided with water-blocking curtains for preventing the leakage of the disinfection water mist. The water-blocking curtains are provided at both ends of the detection chamber, and after the driving pump 35 is started, the atomization effect of the disinfection mechanism 3 can be ensured, and the mist can be prevented from leaking out.

[0047] In a specific embodiment provided by the utility model, when the user uses the all-round disinfection system with recyclable liquid medicine, the water injection port 311 of the finished medicine box 32 is connected to the water source, and the solenoid valve of the water injection port 311 controls the water volume; the raw medicine box 31 is connected to the injection port of the finished medicine box 32 through the metering pump 36, and the metering pump 36 controls the proportion of raw medicine added to the finished medicine box 32. The addition of water and raw medicine to the finished medicine box 32 is carried out simultaneously. The raw medicine box 31 adds the raw medicine to the finished medicine box 32 according to the proportion of raw medicine that needs to be added when adding water set by the system through the metering pump 36. The water injection port 311 controls the addition of water to the finished medicine box 32 through the solenoid valve. When the liquid level in the finished medicine box 32 reaches the set liquid level value, the addition of water and medicine stops at the same time.

[0048] When the liquid level value of the finished medicine box 32 reaches the specified position, the disinfection mechanism 3 is ready to start. When the transmission mechanism 2 transports the object to the detection entrance 11, the infrared sensor of the detection entrance 11 detects the object and triggers the disinfection mechanism 3, and the infrared sensor of the detection entrance 11 counts at the same time. The disinfection mechanism 3 is turned on, and the first atomization component 341, the second atomization component 342, the third atomization component 343, the fourth atomization component 344, the fifth atomization component 345 and the sixth atomization component 346 start to atomize. The atomized liquid medicine is sprayed on the six surfaces of the object, namely, the top, bottom, left, right, front and back, through the pipeline by the first atomization nozzle, the second atomization nozzle, the third atomization nozzle, the fourth atomization nozzle, the fifth atomization nozzle and the sixth atomization nozzle, respectively, to disinfect the object in an all-round and full-coverage manner. When the disinfected object is transported to the detection exit 12 by the transmission mechanism 2, the infrared sensor of the detection exit 12 detects the object, and the disinfection mechanism 3 is closed. The detection chamber is a relatively sealed environment, which can ensure a more comprehensive and thorough disinfection.

[0049] During the disinfection process, the excess liquid medicine sprayed out by the atomizing assembly 34 of the disinfection mechanism 3 is recovered by the liquid medicine recovery tray 41. The bottom of the liquid medicine recovery tray 41 is provided with a drain port 33. The recovered liquid medicine is recovered into the liquid medicine recovery box 42 through the drain port 33 and the first filter element 44. When the liquid level of the liquid medicine in the liquid medicine recovery box 42 triggers the recovery liquid level sensor 51, the power pump 43 starts to start, and the recovered liquid medicine passing through the second filter element 45 is added to the finished medicine box 32 through the power pump 43. At the same time as the power pump 43 starts, the metering pump 36 also starts to start. The metering pump 36 adds the original medicine to the finished medicine box 32 according to the ratio of the original medicine to be added when the recovered liquid medicine is added to the finished medicine box 32, which is preset by the system, so as to ensure that the disinfection liquid configured by the recovered liquid medicine and the original medicine in the finished medicine box 32 meets the disinfection standard and the design requirements. It should be noted that when adding the recovered liquid medicine and the original medicine into the finished medicine box 32, the water inlet solenoid valve of the finished medicine box 32 remains closed. When the recovery component 4 completes the recovery of the liquid medicine, if the liquid level of the finished medicine box 32 does not reach the specified position, the water inlet solenoid valve is automatically opened, and the metering pump 36 is opened to add the original medicine to the finished medicine box 32. When the liquid level of the finished medicine box 32 reaches the specified position, the water inlet solenoid valve is closed and the metering pump 36 is stopped. After the above steps, the full coverage disinfection of the articles can be completed, reducing the problems and risks existing in manual disinfection, and also reducing the waste of disinfectant liquid.

[0050] The all-round disinfection system with recyclable liquid medicine proposed in the utility model can also be used for watering flowers or other fields requiring spraying, which will not be described in detail here.

[0051] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the utility model, rather than to limit it. Although the utility model has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the various embodiments of the utility model.

Claims

1. A comprehensive disinfection system with recoverable liquid medicine, characterized in that: The invention comprises a frame (1) provided with a detection chamber, a transmission mechanism (2), a disinfection mechanism (3) and a recovery component (4); a detection inlet (11) is provided at one end of the detection chamber, and a detection outlet (12) is provided at the other end of the detection chamber opposite to the detection inlet (11), and the detection inlet (11) is communicated with the detection outlet (12); the transmission mechanism (2) is arranged in the detection chamber and is used to transfer the objects to be disinfected from the detection inlet (11) to the detection outlet (12); the disinfection mechanism (3) comprises an atomization component (34) arranged in the detection chamber, and the atomization component (34) is used to spray the prepared disinfectant liquid on the objects to be disinfected on the transmission mechanism (2); The recovery component (4) is arranged at the bottom of the detection chamber and is used to recover the sprayed disinfectant liquid; the disinfection mechanism (3) comprises a finished medicine box (32) and an original medicine box (31); the finished medicine box (32) is provided with a water injection port (311) and a medicine injection port; the water injection port (311) is connected to an external tap water, and the medicine injection port is connected to the original medicine box (31) through a metering pump (36); the finished medicine box (32) is connected to the atomization component (34) through a driving pump (35); the recovery component (4) comprises a liquid medicine recovery tray (41), a liquid medicine recovery box (42) and a power pump (43); the liquid medicine recovery tray (41) is arranged at the bottom of the transmission mechanism (2), and the liquid medicine recovery tray (41) is provided with a drainage port (43); The liquid inlet (33) is connected to the liquid recovery tray (41) through the drain port (33), and the liquid recovery tank (42) is connected to the finished medicine tank (32) through the power pump (43); the recovery component (4) also includes a first filter element (44) and a second filter element (45), the first filter element (44) is arranged between the connection position of the liquid recovery tray (41) and the liquid recovery tank (42); the second filter element (45) is arranged between the connection position of the liquid recovery tank (42) and the finished medicine tank (32); the liquid recovery tank (42) is provided with a concentration detection device for detecting the concentration of the recovered liquid in the liquid recovery tank (42).

2. The all-round disinfection system for recoverable liquid medicine according to claim 1, characterized in that: The atomization components (34) are provided in a plurality of groups, each group of the atomization components (34) is arranged inside the detection chamber, and each group of the atomization components (34) corresponds to a different position of the transmission mechanism (2).

3. The all-round disinfection system for recoverable liquid medicine according to claim 2, characterized in that: The multiple groups of atomization components (34) include: a first atomization component (341), a second atomization component (342), a third atomization component (343), a fourth atomization component (344), a fifth atomization component (345) and a sixth atomization component (346); the first atomization component (341) is arranged at the top of the detection chamber, the second atomization component (342) is arranged at the bottom of the detection chamber, the third atomization component (343) is arranged at the front side of the detection chamber, the fourth atomization component (344) is arranged at the rear side of the detection chamber, the fifth atomization component (345) is arranged at the left side of the detection chamber, and the sixth atomization component (346) is arranged at the right side of the detection chamber.

4. The all-round disinfection system for recoverable liquid medicine according to claim 1, characterized in that: The transmission mechanism (2) is provided with two, namely a first transmission mechanism (21) and a second transmission mechanism (22); the first transmission mechanism (21) and the second transmission mechanism (22) are both arranged in the detection chamber, the first transmission mechanism (21) extends to the detection entrance (11), and the second transmission mechanism (22) extends to the detection exit (12).

5. The all-round disinfection system for recoverable liquid medicine according to claim 4, characterized in that: The first transmission mechanism (21) comprises: a first conveyor belt, a driving shaft, a first roller, a first sprocket and a driving member; the second transmission mechanism (22) comprises: a second conveyor belt, a driven shaft, a second roller and a second sprocket; the first conveyor belt extends to the detection entrance (11) and is arranged on the driving shaft and the first roller; the second conveyor belt extends to the detection exit (12) and is arranged on the driven shaft and the second roller; the driving shaft is provided with a first sprocket, the driven shaft is provided with a second sprocket, the first sprocket is in transmission connection with the driving member, and the driving shaft is in transmission connection with the second sprocket.

6. The all-round disinfection system for recoverable liquid medicine according to any one of claims 1 to 5, characterized in that: The invention also comprises a detection mechanism (5), wherein the detection mechanism (5) comprises a sensor and a control panel, wherein the sensor is arranged in the detection chamber and is used to detect whether an object is arranged on the transmission mechanism (2); the control panel is electrically connected to the sensor and the disinfection mechanism (3); when the sensor detects that an object is arranged on the transmission mechanism (2), the control panel controls the disinfection mechanism (3) to be turned on; when the sensor detects that no object is arranged on the transmission mechanism (2), the control panel controls the disinfection mechanism (3) to be turned off.

7. The all-round disinfection system for recoverable liquid medicine according to claim 1, characterized in that: The detection inlet and the detection outlet are both provided with a water retaining curtain for preventing the disinfection water mist from leaking out.

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