Experimental device for regulating and controlling doping of copper sulphide nano-enzyme on bacterial infectious diseases

Abstract

The utility model relates to the technical field of experimental equipment, in particular to an experimental device for regulating and controlling bacterial infectious diseases by doping copper sulphide nano enzyme, which comprises a storage frame and a disinfection component, and the disinfection component comprises a sealing cover, a heating frame, a heating plate, a threaded base, a threaded connecting seat, a collecting barrel, a rotating component and a water injection component. The sealing cover is connected with the storage frame through the rotating component, the heating frame is fixedly connected with the storage frame, the heating plate is arranged on the storage frame, the threaded base is fixedly connected with the storage frame, the threaded connecting base is connected with the threaded base, the collecting barrel is fixedly connected with the threaded connecting base, and the rotating component is arranged on the storage frame and connected with the sealing cover. The water injection component is arranged on the heating frame, waste in the collecting barrel can be sterilized and disinfected through high-pressure and high-temperature steam generated by heating a water body through the heating plate and sealing the storage frame through the sealing cover, and then the waste generated after an experiment is prevented from affecting the environment and personnel safety.

Description

Technical Field

[0001] This utility model relates to the field of experimental equipment technology, and in particular to an experimental device for doping and regulating copper sulfide nanoenzymes to treat bacterial infectious diseases. Background Technology

[0002] In experiments studying the effects of doped copper sulfide nanozymes on bacterial infectious diseases, it is necessary to design an experimental system that can precisely control the doping process, characterize the structure and performance of nanozymes, and evaluate their effects on bacterial infectious diseases. Traditional experimental equipment is used to synthesize copper sulfide nanozymes using co-precipitation, hydrothermal, or solvothermal methods, and their composition and structure are regulated by adding dopants. Finally, corresponding biological experiments are used to evaluate the therapeutic effects of doped copper sulfide nanozymes on bacterial infectious diseases. However, the amount of experimental waste generated after the experiment is large, and it is difficult for researchers to transport and dispose of the large amount of waste at the appropriate location.

[0003] The existing method involves collecting large amounts of waste in storage boxes, with movable casters installed at the bottom of the boxes to facilitate the movement of large quantities of waste to appropriate locations for processing.

[0004] However, existing experiments generate corresponding waste, and bacteria often remain on the waste, which can easily affect the surrounding environment and personnel safety. Utility Model Content

[0005] The purpose of this invention is to provide an experimental device for doping and regulating copper sulfide nanozymes to treat bacterial infectious diseases. This device aims to solve the problem that existing experiments generate waste after completion, and bacteria often remain on the waste, which can easily affect the surrounding environment and personnel safety.

[0006] To achieve the above objectives, this invention provides an experimental apparatus for doping and regulating copper sulfide nanozymes against bacterial infectious diseases, including a housing frame.

[0007] It also includes disinfection components,

[0008] The disinfection assembly includes a sealing cap, a heating frame, a heating plate, a threaded base, a threaded connector, a collection bucket, a rotating component, and a water injection component. The sealing cap is connected to the storage frame via the rotating component. The heating frame is fixedly connected to the storage frame and located on one side of the storage frame. The heating plate is disposed on the storage frame and located on the side of the storage frame closer to the heating frame. The threaded base is fixedly connected to the storage frame and located on one side of the storage frame. The threaded connector is connected to the threaded base and located on one side of the threaded base. The collection bucket is fixedly connected to the threaded connector and located on one side of the threaded connector. The rotating component is disposed on the storage frame and connected to the sealing cap. The water injection component is disposed on the heating frame.

[0009] The rotating component includes a rotating bracket, a fixed bracket, a locking bracket, and a locking bolt. The rotating bracket is fixedly connected to the storage frame and to the sealing cover, and is located on the side of the storage frame closer to the sealing cover. The fixed bracket is fixedly connected to the storage frame and is located on one side of the storage frame. The locking bracket is fixedly connected to the sealing cover and is located on one side of the sealing cover. The locking bolt is disposed on the locking bracket and connected to the fixed bracket.

[0010] The water injection component includes a water pipe and a valve. The water pipe is connected to the heating frame and is located on one side of the heating frame. The valve is installed on the water pipe and is located on one side of the water pipe.

[0011] The disinfection component includes a first sealing gasket and a second sealing gasket. The first sealing gasket is fixedly connected to the storage frame and is located on one side of the storage frame. The second sealing gasket is fixedly connected to the sealing cover and is located on the side of the sealing cover close to the first sealing gasket.

[0012] The disinfection component also includes an exhaust valve, which is disposed on the sealing cover and located on one side of the sealing cover.

[0013] This invention relates to an experimental apparatus for the doping and regulation of copper sulfide nanoenzymes against bacterial infectious diseases. After the experiment, the operator can collect the waste in the collection bucket. The collection bucket is then fixed within a storage frame by screwing on the threaded connector and threaded base. An external power source connected to the heating plate generates heat to heat the water in the heating frame, causing it to steam. This high-pressure steam, generated by the heating plate and the sealing of the storage frame, sterilizes the waste in the collection bucket, thus preventing the waste from harming the environment and personnel safety. Attached Figure Description

[0014] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the accompanying drawings used in the description of the embodiments or the prior art will be briefly introduced below.

[0015] Figure 1 This is a schematic diagram of the experimental apparatus for the doping and regulation of copper sulfide nanozymes against bacterial infectious diseases according to the first embodiment of this utility model.

[0016] Figure 2 This is a schematic diagram of the sealing cap according to the first embodiment of this utility model.

[0017] Figure 3 This is a schematic diagram of the structure of the disinfection component according to the first embodiment of the present invention.

[0018] In the diagram: 101-Storage frame, 102-Sealing cover, 103-Heating rack, 104-Heating plate, 105-Threaded base, 106-Threaded connector, 107-Collection bucket, 108-First sealing gasket, 109-Second sealing gasket, 110-Exhaust valve, 111-Rotating bracket, 112-Fixing bracket, 113-Locking bracket, 114-Locking bolt, 115-Water pipe, 116-Valve. Detailed Implementation

[0019] The embodiments of the present invention are described in detail below. Examples of the embodiments are shown in the accompanying drawings. The embodiments described below with reference to the accompanying drawings are exemplary and intended to explain the present invention, but should not be construed as limiting the present invention.

[0020] The first embodiment of this application is as follows:

[0021] Please see Figures 1 to 3 ,in Figure 1This is a schematic diagram of the experimental apparatus for the doping and regulation of copper sulfide nanozymes against bacterial infectious diseases according to the first embodiment of this utility model. Figure 2 This is a schematic diagram of the sealing cap according to the first embodiment of this utility model. Figure 3 This is a schematic diagram of the structure of the disinfection component according to the first embodiment of the present invention.

[0022] This invention provides an experimental apparatus for the doping and regulation of copper sulfide nanozymes against bacterial infectious diseases, comprising a housing frame 101 and a sterilization component. The sterilization component includes a sealing cap 102, a heating rack 103, a heating plate 104, a threaded base 105, a threaded connector 106, a collection bucket 107, a rotating component, a water injection component, a first sealing gasket 108, a second sealing gasket 109, and an exhaust valve 110. The rotating component includes a rotating bracket 111, a fixing bracket 112, a locking bracket 113, and a locking bolt 114. The water injection component includes a water pipe 115 and a valve 116. This solution addresses the problem of existing experiments generating waste that often contains bacteria, posing a risk to the environment and personnel safety. Therefore, this solution can be used when sterilization of experimental waste is required.

[0023] In this embodiment, the storage frame 101 facilitates the centralized collection, transportation, and processing of waste generated after experiments by laboratory personnel.

[0024] The sealing cap 102 is connected to the storage frame 101 via the rotating member. The heating rack 103 is fixedly connected to the storage frame 101 and located on one side of the storage frame 101. The heating plate 104 is disposed on the storage frame 101 and located on the side of the storage frame 101 near the heating rack 103. The threaded base 105 is fixedly connected to the storage frame 101 and located on one side of the storage frame 101. The threaded connecting seat 106 is connected to the threaded base 105 and located on one side of the threaded base 105. The collection bucket 107 is fixedly connected to the threaded connecting seat 106 and located on the side of the threaded connecting seat 105. On one side of 6, the rotating component is disposed on the storage frame 101 and connected to the sealing cover 102. The water injection component is disposed on the heating frame 103. The sealing cover 102 is connected to the top of the storage frame 101 via the rotating component. The heating frame 103 is welded inside the storage frame 101 and has a water storage groove. The heating plate 104 is disposed in the storage frame 101. The heating plate 104 contains an electric heating wire and its corresponding circuit. After being connected to an external power source, the heating plate 104 can generate heat and heat the water in the heating frame 103. The threaded base 105 is disposed inside the storage frame 101. The threaded base 105 has a threaded hole, and the threaded connecting seat 106 is threadedly connected to the threaded base 105. The collection bucket 107 is welded to the threaded connecting seat 106. Waste from experiments can be collected in the collection bucket 107. The collected waste is then fixed to the storage frame 101 by screwing the threaded connecting seat 106 and the threaded base 105 together. The rotating component is mounted on the storage frame 101 and connected to the sealing cover 102. The rotating component supports and locks the sealing cover 102 during rotation. The water injection component is located on the... On the heating rack 103, the water injection component allows operators to easily introduce water into the heating rack 103. After the experiment, the operator can place the waste in the collection bucket 107 for centralized collection. The collection bucket 107 is then connected and fixed within the storage frame 101 by screwing on the threaded connector 106 and the threaded base 105. The heating plate 104, connected to an external power source, generates heat to heat the water in the heating rack 103, causing it to heat up and turn into steam, forming high-pressure steam within the sealed storage frame 101.Therefore, the high-pressure, high-temperature steam generated by the heating plate 104 heating the water and the sealing cover 102 sealing the storage frame 101 can sterilize and disinfect the waste in the collection bucket 107, thereby preventing the waste generated after the experiment from affecting the environment and personnel safety.

[0025] Secondly, the rotating bracket 111 is fixedly connected to the storage frame 101 and to the sealing cover 102, and is located on the side of the storage frame 101 near the sealing cover 102; the fixing bracket 112 is fixedly connected to the storage frame 101 and is located on one side of the storage frame 101; the locking bracket 113 is fixedly connected to the sealing cover 102 and is located on one side of the sealing cover 102; the locking bolt 114 is provided on the locking bracket 113 and connected to the fixing bracket 112. There are two rotating brackets 111, and the two rotating brackets 111 are welded to the storage frame 101. The sealing cover 102 rotates... The sealing cover 102 is movably connected to the rotating bracket 111, which allows the sealing cover 102 to be flipped and connected to the storage frame 101 for support. The fixing bracket 112 is welded to the storage frame 101, and the locking bracket 113 is welded to the sealing cover 102. There are multiple locking bolts 114, which are disposed on the locking bracket 113 and the fixing bracket 112. By screwing the multiple locking bolts 114 into the locking bracket 113 and the fixing bracket 112, the sealing cover 102 is locked to prevent rotation after sealing the storage frame 101.

[0026] Meanwhile, the water pipe 115 is connected to the heating frame 103 and is located on one side of the heating frame 103; the valve 116 is provided on the water pipe 115 and is located on one side of the water pipe 115. The water pipe 115 is welded to the heating frame 103 and communicates with the inner groove of the heating frame 103. Through the water pipe 115, the operator can easily connect an external water pipe 115 to inject water into the water storage groove of the heating frame 103. The valve 116 is provided on the water pipe 115 and can control the flow of water in the water pipe 115.

[0027] In addition, the first sealing gasket 108 is fixedly connected to the storage frame 101 and located on one side of the storage frame 101; the second sealing gasket 109 is fixedly connected to the sealing cover 102 and located on the side of the sealing cover 102 close to the first sealing gasket 108. The first sealing gasket 108 is bonded to the storage frame 101, and the second sealing gasket 109 is bonded to the sealing cover 102. The first sealing gasket 108 and the second sealing gasket 109 can improve the airtightness of the sealing cover 102 when sealing the storage frame 101.

[0028] Finally, the exhaust valve 110 is disposed on the sealing cover 102 and located on one side of the sealing cover 102. When the pressure of the storage frame 101 reaches a set value, the high-pressure gas in the storage frame 101 automatically pushes open the exhaust valve 110 to release excess gas and prevent the storage frame 101 from exploding.

[0029] When using the experimental apparatus for the doped and regulated copper sulfide nanozyme against bacterial infectious diseases according to this embodiment, after the experiment, the operator can place the experimental waste in the collection bucket 107 for centralized collection. The collected waste is then connected and fixed in the storage frame 101 by screwing on the threaded connector 106 and the threaded base 105. The heating plate 104, connected to an external power source, generates heat to heat the water in the heating rack 103, causing the water in the heating rack 103 to heat up into steam. This steam forms high-pressure steam in the sealed storage frame 101. The high-pressure, high-temperature steam generated by the heating of the water by the heating plate 104 and the sealing of the storage frame 101 by the sealing cover 102 can sterilize and disinfect the waste in the collection bucket 107, thereby preventing the waste generated after the experiment from affecting the environment and personnel safety.

[0030] The above-disclosed embodiments are merely one or more preferred embodiments of this application and should not be construed as limiting the scope of this application. Those skilled in the art can understand that all or part of the processes for implementing the above embodiments and equivalent changes made in accordance with the claims of this application still fall within the scope of this application.

Claims

1. An experimental apparatus for doping and regulating copper sulfide nanozymes against bacterial infectious diseases, comprising a housing frame, characterized in that, It also includes disinfection components, The disinfection assembly includes a sealing cap, a heating frame, a heating plate, a threaded base, a threaded connector, a collection bucket, a rotating component, and a water injection component. The sealing cap is connected to the storage frame via the rotating component. The heating frame is fixedly connected to the storage frame and located on one side of the storage frame. The heating plate is disposed on the storage frame and located on the side of the storage frame closer to the heating frame. The threaded base is fixedly connected to the storage frame and located on one side of the storage frame. The threaded connector is connected to the threaded base and located on one side of the threaded base. The collection bucket is fixedly connected to the threaded connector and located on one side of the threaded connector. The rotating component is disposed on the storage frame and connected to the sealing cap. The water injection component is disposed on the heating frame.

2. The experimental apparatus for doping-controlled copper sulfide nanozymes against bacterial infectious diseases as described in claim 1, characterized in that, The rotating component includes a rotating bracket, a fixing bracket, a locking bracket, and a locking bolt. The rotating bracket is fixedly connected to the storage frame and to the sealing cover, and is located on the side of the storage frame closer to the sealing cover. The fixing bracket is fixedly connected to the storage frame and is located on one side of the storage frame. The locking bracket is fixedly connected to the sealing cover and is located on one side of the sealing cover. The locking bolt is disposed on the locking bracket and connected to the fixing bracket.

3. The experimental apparatus for doping-controlled copper sulfide nanozymes against bacterial infectious diseases as described in claim 1, characterized in that, The water injection component includes a water pipe and a valve. The water pipe is connected to the heating frame and is located on one side of the heating frame. The valve is disposed on the water pipe and is located on one side of the water pipe.

4. The experimental apparatus for doping-controlled copper sulfide nanozymes against bacterial infectious diseases as described in claim 1, characterized in that, The disinfection component includes a first sealing gasket and a second sealing gasket. The first sealing gasket is fixedly connected to the storage frame and is located on one side of the storage frame. The second sealing gasket is fixedly connected to the sealing cover and is located on the side of the sealing cover close to the first sealing gasket.

5. The experimental apparatus for doping-controlled copper sulfide nanozymes against bacterial infectious diseases as described in claim 1, characterized in that, The disinfection assembly also includes an exhaust valve, which is disposed on the sealing cover and located on one side of the sealing cover.

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