Carbon nanotube storage device

Abstract

The utility model relates to the technical field of carbon nano tubes, in particular to a carbon nano tube storage device which comprises a storage cabinet body and a condensate storage bin and further comprises an auxiliary assembly, the auxiliary assembly comprises a connecting box, a transparent window, a limiting sliding frame, a floating block and a communicating component, and the connecting box is connected with the condensate storage bin through the communicating component. The transparent window is fixedly connected with the connecting box, the limiting sliding frame is fixedly connected with the connecting box, the floating block is slidably connected with the limiting sliding frame, the communicating component is arranged on the condensate storage bin and connected with the connecting box, and an operator can be helped to rapidly judge the remaining amount of condensate in the condensate storage bin through the floating height position of the floating block; and therefore, an operator can be warned to quickly supplement the condensate when the residual amount of the condensate in the condensate storage bin is insufficient, and meanwhile, the operator can be helped to judge whether the device leaks or not.

Description

Technical Field

[0001] This utility model relates to the field of carbon nanotube technology, and in particular to a carbon nanotube storage device. Background Technology

[0002] Traditional carbon nanotubes are at a high temperature when they are discharged from the outlet immediately after production, so a device is needed to cool them down. At the same time, carbon nanotubes come into contact with air during storage and handling, which may react with certain components in the air and affect their quality.

[0003] Existing technology CN221395081U discloses a carbon nanotube storage device, including a storage cabinet body, a vacuum device at the top of the storage cabinet body, a feed inlet at one end of the storage cabinet body, a discharge outlet on one side of the storage cabinet body, a base plate at the bottom of the storage cabinet body, a pulley device at the bottom of the base plate, a condensate storage chamber at one end of the base plate, a push-pull rod at the top of the base plate, a filling port at the top of the condensate storage chamber, a drain outlet on one side of the condensate storage chamber, a control panel on the upper surface of the storage cabinet body, and a storage bin inside the storage cabinet body with a temperature control layer on the inner wall of the storage bin. This invention solves the problem that carbon nanotubes are at a high temperature when discharged from the discharge port immediately after production, and may react with certain components in the air during storage and distribution, thus affecting the quality of the carbon nanotubes.

[0004] However, during long-term use, the existing equipment's circulation system is often at risk of leakage. This leakage during the condensate circulation process leads to insufficient condensate in the condensate storage chamber. Furthermore, it is difficult for operators to observe the remaining condensate in the condensate storage chamber, which in turn affects the storage quality of carbon nanotubes. Utility Model Content

[0005] The purpose of this invention is to provide a carbon nanotube storage device, which aims to solve the problem that existing devices often have a risk of leakage in the circulation system during long-term use. This leakage during the circulation of condensate leads to insufficient condensate in the condensate storage chamber, and the operator has difficulty observing the remaining amount of condensate in the condensate storage chamber. Consequently, the insufficient condensate in the condensate storage chamber affects the storage quality of carbon nanotubes.

[0006] To achieve the above objectives, this utility model provides a carbon nanotube storage device, including a storage cabinet body and a condensate storage chamber, wherein the condensate storage chamber is disposed on the storage cabinet body and located on one side of the storage cabinet body.

[0007] It also includes auxiliary components,

[0008] The auxiliary components include a connecting box, a transparent window, a limiting slide, a float, and a connecting member. The connecting box is connected to the condensate storage chamber via the connecting member and is located on one side of the condensate storage chamber. The transparent window is fixedly connected to the connecting box and is located on one side of the connecting box. The limiting slide is fixedly connected to the connecting box and is located on one side of the connecting box. The float is slidably connected to the limiting slide and is located on the side of the limiting slide near the transparent window. The connecting member is disposed on the condensate storage chamber and connected to the connecting box.

[0009] The connecting component includes an upper connecting pipe and a lower connecting pipe. The upper connecting pipe is connected to the condensate storage chamber and the connecting box, respectively, and is located on the side of the condensate storage chamber closer to the connecting box. The lower connecting pipe is connected to the condensate storage chamber and the connecting box, respectively, and is located on the side of the condensate storage chamber closer to the connecting box.

[0010] The auxiliary component also includes a scale sticker, which is fixedly connected to the transparent window and located on one side of the transparent window.

[0011] The auxiliary component also includes a conspicuous sticker, which is fixedly connected to the float and located on one side of the float.

[0012] The auxiliary component also includes a sealing gasket, which is fixedly connected to the connecting box and the transparent window respectively, and the sealing gasket is located on the side of the connecting box closer to the transparent window.

[0013] The auxiliary component also includes a sealing plug, which is disposed on the condensate storage chamber and located on one side of the condensate storage chamber.

[0014] The auxiliary component further includes a lighting component, which includes a lighting base and a lighting lamp. The lighting base is fixedly connected to the connecting box and is located on one side of the connecting box; the lighting lamp is disposed on the lighting base and is located on one side of the lighting base.

[0015] The lighting component further includes a power supply box, which is disposed on the lighting base and located on one side of the lighting base.

[0016] The lighting component also includes a control button, which is disposed on the lighting base and located on one side of the lighting base.

[0017] The lighting component further includes a protective cover, which is fixedly connected to the lighting base and located on the side of the lighting base closer to the lighting lamp.

[0018] This invention discloses a carbon nanotube storage device. Through the connecting member, condensate in the condensate storage chamber can flow into the connecting box, ensuring the condensate level in the connecting box is level with the condensate level in the condensate storage chamber. When the operator needs to check the remaining condensate level in the condensate storage chamber, they can observe the position of the float through the transparent window. The float's floating height helps the operator quickly determine the remaining condensate level in the condensate storage chamber, alerting them to replenish the condensate when it is insufficient. It also helps the operator determine if there is a leak in the device. Attached Figure Description

[0019] 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.

[0020] Figure 1 This is a schematic diagram of the structure of the carbon nanotube storage device according to the first embodiment of this utility model.

[0021] Figure 2 This is a schematic diagram of the connection box according to the first embodiment of this utility model.

[0022] Figure 3 This is a schematic diagram of the auxiliary component of the first embodiment of the present invention.

[0023] Figure 4 This is a schematic diagram of the structure of the carbon nanotube storage device according to the second embodiment of this utility model.

[0024] Figure 5 This is a schematic diagram of the structure of the lighting component according to the second embodiment of this utility model.

[0025] In the diagram: 101-Storage cabinet body, 102-Condensate storage compartment, 103-Connecting box, 104-Transparent window, 105-Limiting slide, 106-Float block, 107-Scale sticker, 108-Highlighting sticker, 109-Sealing gasket, 110-Sealing plug, 111-Upper connecting pipe, 112-Lower connecting pipe, 201-Lighting base, 202-Lighting lamp, 203-Power supply box, 204-Control button, 205-Protective cover. Detailed Implementation

[0026] 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.

[0027] The first embodiment of this application is:

[0028] Please see Figures 1 to 3 ,in Figure 1 This is a schematic diagram of the structure of the carbon nanotube storage device according to the first embodiment of this utility model. Figure 2 This is a schematic diagram of the connection box according to the first embodiment of this utility model. Figure 3 This is a schematic diagram of the auxiliary component of the first embodiment of the present invention.

[0029] This invention provides a carbon nanotube storage device, including a storage cabinet body 101, a condensate storage chamber 102, and auxiliary components. The auxiliary components include a connecting box 103, a transparent window 104, a limiting slide 105, a float 106, a connecting member, a scale sticker 107, a conspicuous sticker 108, a sealing gasket 109, and a sealing plug 110. The connecting member includes an upper connecting pipe 111 and a lower connecting pipe 112. This solution addresses the risk of leakage in the circulation system of existing devices during prolonged use. This leakage leads to insufficient condensate in the storage chamber, affecting the storage quality of the carbon nanotubes. It is understood that this solution can be used in situations where it is necessary for operators to easily determine the remaining condensate level in the storage chamber.

[0030] In this embodiment, the condensate storage chamber 102 is disposed on the storage cabinet body. The storage liquid in the condensate storage chamber 102 is delivered to the temperature control layer by a pump, so that the temperature in the storage cabinet body is always maintained at a temperature suitable for carbon nanotube storage. The structure of the storage cabinet body and the condensate storage chamber 102 is described in detail in the prior art CN221395081U, and will not be repeated here.

[0031] The connecting box 103 is connected to the condensate storage chamber 102 via the communicating member and is located on one side of the condensate storage chamber 102. The transparent window 104 is fixedly connected to the connecting box 103 and is located on one side of the connecting box 103. The limiting slide 105 is fixedly connected to the connecting box 103 and is located on one side of the connecting box 103. The float 106 is slidably connected to the limiting slide 105 and is located on the side of the limiting slide 105 near the transparent window 104. The communicating member is disposed on the condensate storage chamber 102 and is connected to the connecting box 104 via the communicating member. A connecting box 103 is connected to the condensate storage chamber 102 via a communicating member. The communicating member allows condensate from the condensate storage chamber 102 to flow into the connecting box 103, ensuring the condensate level in the connecting box 103 is flush with the condensate level in the condensate storage chamber 102. A transparent window 104 is adhered to the connecting box 103. A limiting slide 105 is welded inside the connecting box 103. A float 106 is slidably connected to the limiting slide 105. 105 can directionally limit the movement of the float 106 within the connecting box 103. The float 106 is made of foam plastic and can float on the surface of the condensate in the connecting box 103. The connecting member is disposed on the condensate storage chamber 102 and connected to the connecting box 103. Through the connecting member, the condensate in the condensate storage chamber 102 can flow into the connecting box 103, thereby enabling the condensate in the condensate storage chamber 102 to flow into the connecting box 103 and allowing the connecting box to... The condensate level in 103 is level with the condensate level in the condensate storage chamber 102. When the operator needs to know the remaining condensate in the condensate storage chamber 102, the position of the float 106 can be observed through the transparent window 104. The floating height of the float 106 can help the operator quickly determine the remaining condensate in the condensate storage chamber 102, thereby alerting the operator to quickly replenish the condensate when the remaining condensate in the condensate storage chamber 102 is insufficient. At the same time, it can help the operator determine whether there is a leak in the device.

[0032] Secondly, the upper connecting pipe 111 is connected to the condensate storage chamber 102 and the connecting box 103 respectively, and the upper connecting pipe 111 is located on the side of the condensate storage chamber 102 near the connecting box 103; the lower connecting pipe 112 is connected to the condensate storage chamber 102 and the connecting box 103 respectively, and the lower connecting pipe 112 is located on the side of the condensate storage chamber 102 near the connecting box 103, and the upper connecting pipe 111 is welded to the condensate storage chamber 102 and the connecting box. At the upper outer side of 103, the lower connecting pipe 112 is welded to the lower outer side of the condensate storage chamber 102 and the connecting box 103. The upper connecting pipe 111 and the lower connecting pipe 112 can connect the condensate storage chamber 102 and the connecting box 103, so that the condensate in the condensate storage chamber 102 can flow into the connecting box 103, and the condensate level in the connecting box 103 is level with the condensate level in the condensate storage chamber 102.

[0033] Meanwhile, the scale sticker 107 is fixedly connected to the transparent window 104 and located on one side of the transparent window 104; the conspicuous sticker 108 is fixedly connected to the float 106 and located on one side of the float 106; the scale sticker 107 is adhered to the transparent window 104; the scale sticker 107 has scale values; the values ​​on the scale sticker 107 can help operators to more accurately understand the specific height of the condensate in the connection box 103.

[0034] In addition, the sealing gasket 109 is fixedly connected to the connecting box 103 and the transparent window 104 respectively. The sealing gasket 109 is located on the side of the connecting box 103 near the transparent window 104. The density pad is bonded to the connecting box 103 and the transparent window 104. The sealing gasket 109 can improve the sealing performance at the connection between the connecting box 103 and the transparent window 104.

[0035] Finally, the sealing plug 110 is disposed on the condensate storage chamber 102 and located on one side of the condensate storage chamber 102. The sealing plug 110 engages with the filling port of the condensate storage chamber 102. The sealing plug 110 can seal the filling port of the condensate storage chamber 102 when it is not in use, preventing external impurities from entering the condensate storage chamber 102 through the filling port.

[0036] When using the carbon nanotube storage device of this embodiment, the condensate in the condensate storage chamber 102 can flow into the connecting box 103 through the connecting member, so that the liquid level of the condensate in the connecting box 103 is level with the liquid level of the condensate in the condensate storage chamber 102. When the operator needs to know the remaining amount of condensate in the condensate storage chamber 102, the position of the float 106 can be observed through the transparent window 104. The floating height of the float 106 can help the operator quickly judge the remaining amount of condensate in the condensate storage chamber 102, thereby alerting the operator to quickly replenish the condensate when the remaining amount in the condensate storage chamber 102 is insufficient. At the same time, it can help the operator judge whether there is a leak in the device.

[0037] The second embodiment of this application is as follows:

[0038] Based on the first embodiment, please refer to Figure 4 and Figure 5 , Figure 4 This is a schematic diagram of the structure of the carbon nanotube storage device according to the second embodiment of this utility model. Figure 5 This is a schematic diagram of the structure of the lighting component according to the second embodiment of this utility model.

[0039] This utility model provides a carbon nanotube storage device, which also includes an illumination component. The illumination component includes an illumination base 201, an illumination lamp 202, a power supply box 203, a control button 204, and a protective cover 205.

[0040] The lighting base 201 is fixedly connected to the connecting box 103 and is located on one side of the connecting box 103. The lighting lamp 202 is disposed on the lighting base 201 and is located on one side of the lighting base 201. The lighting base 201 is bolted to the connecting box 103. The lighting base 201 has a control circuit. The lighting lamp 202 is disposed on the lighting base 201. The lighting lamp 202 can be controlled to illuminate the lighting base 202 by connecting the circuit in the lighting base 201. The illumination direction of the lighting lamp 202 is towards the transparent window 104. The illumination of the lighting lamp 202 makes it easy for the operator to read the remaining value of the condensate in the connecting box 103 through the transparent window 104 when the light source is insufficient.

[0041] Secondly, the power supply box 203 is disposed on the lighting base 201 and located on one side of the lighting base 201. The power supply box 203 is bolted to the lighting base 201. A power supply can be installed inside the power supply box 203, and the power supply installed inside the power supply box 203 can provide corresponding electrical energy to the circuit inside the lighting base 201.

[0042] Meanwhile, the control button 204 is disposed on the lighting base 201 and located on one side of the lighting base 201. The control button 204 is disposed on the lighting base 201 and can control the start and stop of the lighting lamp 202 on the lighting base 201.

[0043] Finally, the protective cover is fixedly connected to the lighting base 201 and is located on the side of the lighting base 201 close to the lighting lamp 202. The protective cover is adhered to the lighting base 201 and is made of transparent plastic material. The protective cover can shield and protect the fragile lighting lamp 202.

[0044] When using a carbon nanotube storage device according to this embodiment, the illumination of the lamp 202 allows the operator to easily read the remaining amount of condensate in the connection box 103 through the transparent window 104 when the light source is insufficient.

[0045] 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. A carbon nanotube storage device, comprising a storage cabinet body and a condensate storage chamber, wherein the condensate storage chamber is disposed on the storage cabinet body and located on one side of the storage cabinet body, characterized in that, It also includes auxiliary components, The auxiliary components include a connecting box, a transparent window, a limiting slide, a float, and a connecting member. The connecting box is connected to the condensate storage chamber via the connecting member and is located on one side of the condensate storage chamber. The transparent window is fixedly connected to the connecting box and is located on one side of the connecting box. The limiting slide is fixedly connected to the connecting box and is located on one side of the connecting box. The float is slidably connected to the limiting slide and is located on the side of the limiting slide near the transparent window. The connecting member is disposed on the condensate storage chamber and connected to the connecting box.

2. The carbon nanotube storage device as described in claim 1, characterized in that, The connecting component includes an upper connecting pipe and a lower connecting pipe. The upper connecting pipe is connected to the condensate storage chamber and the connecting box, respectively, and is located on the side of the condensate storage chamber closer to the connecting box. The lower connecting pipe is connected to the condensate storage chamber and the connecting box, respectively, and is located on the side of the condensate storage chamber closer to the connecting box.

3. The carbon nanotube storage device as described in claim 1, characterized in that, The auxiliary component also includes a scale sticker, which is fixedly connected to the transparent window and located on one side of the transparent window.

4. The carbon nanotube storage device as described in claim 1, characterized in that, The auxiliary component also includes a conspicuous sticker, which is fixedly connected to the float and located on one side of the float.

5. The carbon nanotube storage device as described in claim 1, characterized in that, The auxiliary component also includes a sealing gasket, which is fixedly connected to the connecting box and the transparent window respectively, and the sealing gasket is located on the side of the connecting box closer to the transparent window.

6. The carbon nanotube storage device as described in claim 1, characterized in that, The auxiliary component also includes a sealing plug, which is disposed on the condensate storage chamber and located on one side of the condensate storage chamber.

7. The carbon nanotube storage device as described in claim 1, characterized in that, The auxiliary component also includes a lighting component, which includes a lighting base and a lighting lamp. The lighting base is fixedly connected to the connecting box and is located on one side of the connecting box; the lighting lamp is disposed on the lighting base and is located on one side of the lighting base.

8. The carbon nanotube storage device as described in claim 7, characterized in that, The lighting component also includes a power supply box, which is disposed on the lighting base and located on one side of the lighting base.

9. The carbon nanotube storage device as described in claim 7, characterized in that, The lighting component also includes a control button, which is disposed on the lighting base and located on one side of the lighting base.

10. The carbon nanotube storage device as claimed in claim 7, characterized in that, The lighting member further comprises a protective cover fixedly connected with the lighting base and located at a side of the lighting base close to the lighting lamp.

Images