Irradiation photovoltaic cable electron accelerator
By introducing an ozone collection and treatment mechanism and an auxiliary agitation mechanism into the photovoltaic cable electronic accelerator, the problem of ozone accumulation in the workroom is solved, and the safety of the working environment is significantly improved.
Patent Information
- Application Number
- CN202411558036.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-04
- Publication Date
- 2025-02-11
AI Technical Summary
Because the workplace may have poor ventilation, the ozone generated will accumulate in the treatment room, which may reach a concentration that is harmful to staff and equipment.
An irradiated photovoltaic cable electronic accelerator is designed, including an ozone collection and treatment mechanism and an auxiliary agitation mechanism. The ozone collection and treatment mechanism decomposes ozone through suction and catalytic means, while the auxiliary agitation mechanism improves the catalytic efficiency through agitation.
It effectively reduces the possibility of ozone accumulation in the workplace and reduces pollution and damage to the working environment, human body and equipment.
Smart Images
Figure CN119419007A_ABST
Abstract
Description
Technical Field
[0001] The present application relates to the field of photovoltaic cable production, and in particular to an electron accelerator for irradiating photovoltaic cables. Background Art
[0002] Photovoltaic cable electron accelerator usually refers to the electron linear accelerator used for irradiation processing. This equipment can generate high-energy electron beams, which are used in many fields such as material modification, disinfection and sterilization, and food preservation. In the production of photovoltaic cables, electron accelerators are mainly used for radiation cross-linking of polyethylene insulation materials and polyethylene foam plastics, as well as rubber vulcanization and other processes. These applications can improve the physical properties of photovoltaic cables, such as high temperature resistance and anti-aging properties.
[0003] The working principle of an electron linear accelerator is to use microwave electromagnetic fields to accelerate electrons. The electron energy is generally high, and the output power is between several kW and tens of kW. The maximum electron energy of this accelerator has exceeded hundreds of GeV, but due to restrictions on industrial radiation safety, the maximum energy of general industrial irradiation electron linear accelerators is limited to 10MeV. During the irradiation process, the high-energy electron beam or X-ray emitted by the electron accelerator will ionize oxygen molecules in the air to generate free oxygen atoms. These free oxygen atoms combine with oxygen molecules to form ozone.
[0004] When performing radiation processing on photovoltaic cables, for processing safety, the photovoltaic cables will be directly irradiated in a workshop. Generally, the operator will adjust the photovoltaic cables, then leave the workshop, and then irradiate the photovoltaic cables. Since the workshop may have poor ventilation, the ozone generated will accumulate in the treatment room and may reach a concentration that is harmful to staff and equipment. Summary of the invention
[0005] The purpose of the present application is to solve the problem raised in the above background technology that due to the poor ventilation in the workroom, the ozone generated will accumulate in the treatment room and may reach a concentration that is harmful to the staff and equipment. The present application provides an irradiated photovoltaic cable electron accelerator.
[0006] In order to achieve the above-mentioned purpose, this application specifically adopts the following technical solutions: The irradiation photovoltaic cable electron accelerator comprises a workshop, wherein an electron accelerator body is arranged on the workshop, support legs are fixed on the electron accelerator body, the support legs are fixed to the workshop, a maintenance platform is fixed on the electron accelerator body, an irradiation head is fixed in the workshop, the irradiation head is connected with the electron accelerator body, an ozone collection and processing mechanism is arranged on one side of the electron accelerator body, and an auxiliary stirring mechanism is arranged on one side of the electron accelerator body.
[0007] By adopting the above technical solution, when the photovoltaic cable is irradiated, the ozone collection and treatment mechanism is started, the ozone collection and treatment mechanism extracts and collects the ozone generated by the irradiation, and then catalyzes the decomposition of the ozone. While the ozone collection and treatment mechanism is collecting the ozone, the ozone collection and treatment mechanism drives the auxiliary stirring mechanism, and the auxiliary stirring mechanism stirs the ozone catalytic area in the ozone collection and treatment mechanism to improve the efficiency of ozone decomposition, thereby being able to treat the ozone generated by the irradiation process, reduce the accumulation of ozone in the workshop, and reduce the possibility of pollution to the working environment of the workshop and damage to human body or equipment.
[0008] Furthermore, the ozone collection and treatment mechanism includes two suction nozzles symmetrically fixed on the irradiation head, a suction pipe 1 is fixed on the two suction nozzles, a suction pipe 2 is fixed between the two suction pipes 1, the suction pipe 2 runs through the workroom and is fixedly connected to the workroom, a suction assembly is provided at one end of the suction pipe 2 away from the suction pipe 1, a catalytic assembly is provided on the workroom, two symmetrical exhaust pipes 1 are provided on the workroom, an exhaust pipe 2 is fixed between the two exhaust pipes 1, and the two exhaust pipes 1 correspond to the catalytic assemblies.
[0009] By adopting the above technical solution, the suction component is started to generate suction, and then the air and ozone around the irradiation head are allowed to enter the suction nozzle by using suction tube one and suction tube two, and then the ozone enters the suction component, and then the ozone enters the catalytic component from the suction component, and the ozone in the catalytic component is decomposed, thereby reducing the possibility of ozone accumulation in the workshop when irradiating photovoltaic cables, reducing ozone pollution to the working environment, and reducing the impact of ozone on workers.
[0010] Furthermore, the suction assembly includes a suction cabin fixed on the workroom, the suction cabin is connected to the suction pipe, a support rod is fixed in the suction cabin, a rotating shaft is rotatably connected to the support rod, a plurality of circumferentially distributed suction fan blades are fixed to the rotating shaft, a support plate is fixed to one side of the electron accelerator body, a drive motor is fixed to the support plate, a drive shaft is fixed to the output end of the drive motor, the drive shaft passes through the support plate and the suction cabin, and the end of the drive shaft away from the drive motor is fixedly connected to the rotating shaft.
[0011] By adopting the above technical solution, the driving motor drives the driving shaft, the driving shaft drives the rotating shaft to rotate on the support rod, the rotating shaft drives the suction fan blades, and the suction fan blades rotate in the suction chamber to generate suction, so that the suction nozzle can easily generate suction, allowing ozone to enter the suction pipe one and the suction pipe two from the suction nozzle, and then enter the suction chamber.
[0012] Furthermore, the catalytic assembly includes two catalytic chambers symmetrically fixed on a support plate, a plurality of catalytic baffles are fixed in the catalytic chambers, the catalytic baffles are staggered, the catalytic chambers are filled with granular aluminum-based ozone catalysts, the two catalytic chambers are fixedly connected to corresponding exhaust pipes and are interconnected, and a connecting piece is provided between the two catalytic chambers and the suction chamber.
[0013] By adopting the above technical solution, the ozone entering the suction cabin enters the catalytic cabin under the action of the connecting piece, and then the ozone reacts with the aluminum-based ozone catalyst in the catalytic cabin. The aluminum-based ozone catalyst decomposes the ozone, thereby decomposing the ozone and reducing the possibility of pollution caused by direct discharge of ozone.
[0014] Furthermore, the connecting member includes a connecting pipe 1 fixed on the suction cabin, the connecting pipe 1 is connected to the suction cabin, two connecting pipes 2 are fixed on the connecting pipe 1, the two connecting pipes 2 are fixedly connected to the corresponding catalytic cabins and are connected to each other.
[0015] By adopting the above technical solution, the ozone in the suction cabin directly enters the connecting pipe one and the two connecting pipes two under the action of the suction fan blades, and then enters the catalytic cabin from the connecting pipe two, so that the ozone can easily enter the catalytic cabin from the suction cabin to react with the aluminum-based ozone catalyst.
[0016] Furthermore, a baffle plate is fixed in the catalytic chamber, and evenly distributed air holes are provided on the baffle plate, and the baffle plate corresponds to the second connecting pipe.
[0017] By adopting the above technical solution, ozone enters the catalyst chamber through the air holes on the blocking plate, and the blocking plate blocks the granular aluminum-based ozone catalyst, thereby reducing the aluminum-based ozone catalyst from entering the connecting pipe 2.
[0018] Furthermore, the auxiliary stirring mechanism includes a plurality of stirring shafts arranged in the catalytic chamber, one end of the stirring shaft is rotatably connected to the catalytic chamber, a plurality of evenly distributed stirring rods are fixed on the stirring shaft, and a rotating assembly is arranged between the stirring shaft and the driving shaft.
[0019] By adopting the above technical solution, the driving shaft drives the rotating assembly, the rotating assembly drives several stirring shafts to rotate, the stirring shaft drives the stirring rod, and the stirring rod stirs the aluminum-based ozone catalyst in the catalytic chamber, so that the granular aluminum-based ozone catalyst can fully contact with ozone, thereby further improving the efficiency of ozone decomposition.
[0020] Furthermore, the driving assembly includes a double-track driving wheel 1 fixed on the driving shaft, a plurality of double-track driving wheels 2 are rotatably connected to the supporting plate, the stirring shaft passes through the catalytic chamber and the supporting plate, and is fixedly connected to the corresponding double-track driving wheel 2, a transmission belt is connected between the double-track driving wheel 1 and one of the double-track driving wheels 2, and a transmission belt is connected between adjacent double-track driving wheels 2.
[0021] By adopting the above technical solution, the driving shaft drives the double-track driving wheel one to rotate, the double-track driving wheel one uses the transmission belt to drive one of the double-track driving wheels two to rotate, and the double-track driving wheel two uses the transmission belt to drive the other double-track driving wheel two, thereby facilitating the synchronization of extracting ozone and stirring the aluminum-based ozone catalyst.
[0022] In summary, the present application includes at least one of the following beneficial effects: 1. In the present application, a driving motor drives a driving shaft, and the driving shaft drives a rotating shaft to rotate on a supporting rod, and the rotating shaft drives a suction fan blade, and the suction fan blade rotates in a suction chamber to generate suction, and then ozone is allowed to enter suction pipe 1 and suction pipe 2 from a suction nozzle, and then enter the suction chamber, and then enter the catalytic chamber from connecting pipe 1 and connecting pipe 2, and then the ozone reacts with the aluminum-based ozone catalyst in the catalytic chamber, and the aluminum-based ozone catalyst decomposes the ozone, and at the same time, under the obstruction and drainage of the catalytic baffle, the ozone is fully contacted with the aluminum-based ozone catalyst, and then the decomposed ozone is discharged from the exhaust pipe 1 and the exhaust pipe 2 to the outside, thereby achieving the purpose of being able to process the ozone generated by irradiation processing, reducing the accumulation of ozone in the workshop, causing pollution to the working environment of the workshop, and causing possible damage to human body or equipment.
[0023] 2. In the present application, while the driving motor drives the driving shaft to rotate, the driving shaft drives the double-track driving wheel one to rotate, the double-track driving wheel one uses a transmission belt to drive one of the double-track driving wheels two to rotate, the double-track driving wheel two uses a transmission belt to drive the other double-track driving wheel two, the double-track driving wheel two drives the stirring shaft to rotate, and the stirring shaft drives the stirring rod to stir the aluminum-based ozone catalyst in the catalytic chamber, thereby achieving the purpose of allowing the granular aluminum-based ozone catalyst to fully contact with ozone, further improving the efficiency of ozone decomposition, and reducing the possibility of ozone emissions to the outside causing pollution.
[0024] 3. In the present application, a blocking plate is fixed between the connecting pipe 2 and the catalytic chamber, and ozone passes through the air holes on the blocking plate into the catalytic chamber. The blocking plate blocks the granular aluminum-based ozone catalyst, thereby achieving the purpose of reducing the aluminum-based ozone catalyst from entering the connecting pipe 2 while not delaying the ozone from entering the catalytic chamber from the connecting pipe 2. BRIEF DESCRIPTION OF THE DRAWINGS
[0025] Figure 1It is a first three-dimensional structural schematic diagram of the irradiated photovoltaic cable electron accelerator in this application; Figure 2 It is a second three-dimensional structural schematic diagram of the irradiated photovoltaic cable electron accelerator in this application; Figure 3 It is a third three-dimensional structural schematic diagram of the irradiated photovoltaic cable electron accelerator in this application; Figure 4 This application Figure 2 The enlarged schematic diagram at A in the middle; Figure 5 This application Figure 3 Enlarged schematic diagram of point B in the middle.
[0026] Description of reference numerals: 1. Workshop; 2. Electron accelerator body; 3. Support legs; 4. Maintenance platform; 5. Irradiation head; 6. Ozone collection and treatment mechanism; 61. Suction nozzle; 62. Suction pipe one; 63. Suction pipe two; 64. Suction assembly; 641. Suction cabin; 642. Support rod; 643. Rotating shaft; 644. Suction fan blade; 645. Drive shaft; 646. Drive motor; 647. Support plate; 65. Catalytic assembly; 651. Catalytic cabin; 652. Catalytic baffle; 653. Connecting piece; 6531. Connecting pipe one; 6532. Connecting pipe two; 654. Baffle plate; 66. Discharge pipe one; 67. Discharge pipe two; 7. Auxiliary stirring mechanism; 71. Stirring shaft; 72. Stirring rod; 73. Rotating assembly; 731. Double-track driving wheel one; 732. Double-track driving wheel two; 733. Transmission belt. DETAILED DESCRIPTION
[0027] The following is combined with Figure 1 —5 further describes this application in detail.
[0028] The embodiments of the present application disclose an irradiation photovoltaic cable electron accelerator.
[0029] Reference Figure 1 , Figure 2 and Figure 3 The irradiation photovoltaic cable electron accelerator comprises a workshop 1, on which an electron accelerator body 2 is arranged, on which a supporting leg 3 is fixed, and the supporting leg 3 is fixed to the workshop 1, on which a maintenance platform 4 is fixed, an irradiation head 5 is fixed in the workshop 1, and the irradiation head 5 is connected to the electron accelerator body 2, an ozone collecting and processing mechanism 6 is arranged on one side of the electron accelerator body 2, and an auxiliary stirring mechanism 7 is arranged on one side of the electron accelerator body 2.
[0030] When the photovoltaic cable is produced, the photovoltaic cable is passed through the workshop 1. When the photovoltaic cable passes through the workshop 1, the electron accelerator body 2 accelerates the electrons, and then sprays them onto the photovoltaic cable through the irradiation head 5, so that the molecular arrangement and combination of the photovoltaic cable changes, thereby improving the quality and performance of the photovoltaic cable. When the irradiation head 5 ejects high-power electrons, the high-power electrons ionize the oxygen molecules in the air to generate free oxygen atoms, which combine with oxygen molecules to form ozone. When the photovoltaic cable is irradiated, the ozone collection and processing mechanism 6 is started, and the ozone collection and processing mechanism 6 extracts and absorbs the ozone generated by the irradiation, and then catalyzes the decomposition of the ozone. While the collecting and processing mechanism 6 is collecting ozone, the ozone collecting and processing mechanism 6 drives the auxiliary stirring mechanism 7, and the auxiliary stirring mechanism 7 stirs the ozone catalysis area in the ozone collecting and processing mechanism 6 to improve the efficiency of ozone decomposition. When the photovoltaic cable passes through the workshop 1 for irradiation processing, the ozone collecting and processing mechanism 6 is used to collect and catalytically decompose the ozone. At the same time, the ozone collecting and processing mechanism 6 drives the auxiliary stirring mechanism 7, and the auxiliary stirring mechanism 7 accelerates the decomposition of ozone, thereby processing the ozone generated by the irradiation processing, reducing the accumulation of ozone in the workshop 1, causing pollution to the working environment of the workshop 1, and the possibility of damage to human body or equipment.
[0031] Reference Figure 2 , Figure 3 and Figure 4 The ozone collection and treatment mechanism 6 includes two suction nozzles 61 symmetrically fixed on the irradiation head 5, a suction pipe 1 62 is fixed on the two suction nozzles 61, a suction pipe 2 63 is fixed between the two suction pipes 1 62, the suction pipe 2 63 runs through the workshop 1 and is fixedly connected to the workshop 1, a suction assembly 64 is arranged at one end of the suction pipe 2 63 away from the suction pipe 1 62, a catalytic assembly 65 is arranged on the workshop 1, and two symmetrical exhaust pipes 1 66 are arranged on the workshop 1, an exhaust pipe 2 67 is fixed between the two exhaust pipes 1 66, and the two exhaust pipes 1 66 correspond to the catalytic assembly 65.
[0032] When the irradiation head 5 is performing irradiation, the photovoltaic cable passes under the irradiation head 5, and ozone is generated during the irradiation process. The suction component 64 is started to generate suction, and then the suction tube 1 62 and the suction tube 2 63 are used to allow the air and ozone around the irradiation head 5 to enter the suction nozzle 61, and then the ozone enters the suction component 64, and then the ozone enters the catalytic component 65 from the suction component 64. The ozone in the catalytic component 65 is decomposed and then discharged to the outside from the exhaust pipe 1 66 and the exhaust pipe 2 67 on the catalytic component 65. By using the suction component 64 to generate suction, and then using the suction nozzle 61, the suction tube 1 62 and the suction tube 2 63 to suck the ozone into the suction component 64, and then the ozone in the suction component 64 is allowed to enter the catalytic component 65 for decomposition, thereby reducing the possibility of ozone accumulation in the workshop 1 when irradiating the photovoltaic cable, reducing the pollution of the working environment by ozone, and reducing the impact of ozone on the staff.
[0033] Reference Figure 2 , Figure 3 and Figure 4 The suction assembly 64 includes a suction cabin 641 fixed on the workroom 1, the suction cabin 641 is connected to the suction pipe 63, a support rod 642 is fixed in the suction cabin 641, a rotating shaft 643 is rotatably connected to the support rod 642, a plurality of circumferentially distributed suction blades 644 are fixed to the rotating shaft 643, a support plate 647 is fixed to one side of the electron accelerator body 2, a drive motor 646 is fixed to the support plate 647, a drive shaft 645 is fixed to the output end of the drive motor 646, the drive shaft 645 passes through the support plate 647 and the suction cabin 641, and one end of the drive shaft 645 away from the drive motor 646 is fixedly connected to the rotating shaft 643.
[0034] When it is necessary to extract ozone, directly start the driving motor 646 on the support plate 647, and let the driving motor 646 drive the driving shaft 645, and the driving shaft 645 drives the rotating shaft 643 to rotate on the support rod 642, and the rotating shaft 643 drives the suction blades 644, and the suction blades 644 rotate in the suction cabin 641 to generate suction, and then let the ozone enter the suction pipe 1 62 and the suction pipe 2 63 from the suction nozzle 61, and then enter the suction cabin 641. By allowing the driving motor 646 to drive the rotating shaft 643 to rotate, and allowing the rotating shaft 643 to drive the suction blades 644 to rotate, it is convenient for the suction nozzle 61 to generate suction, and allow ozone to enter the suction pipe 1 62 and the suction pipe 2 63 from the suction nozzle 61, and then enter the suction cabin 641.
[0035] Reference Figure 2 and Figure 3The catalytic assembly 65 includes two catalytic chambers 651 symmetrically fixed on the support plate 647. A plurality of catalytic baffles 652 are fixed in the catalytic chambers 651. The catalytic baffles 652 are staggered. The catalytic chambers 651 are filled with granular aluminum-based ozone catalysts. The two catalytic chambers 651 are fixedly connected to the corresponding exhaust pipes 66 and are interconnected. A connecting piece 653 is provided between the two catalytic chambers 651 and the suction chamber 641.
[0036] The ozone that enters the suction cabin 641 enters the catalytic cabin 651 under the action of the connecting piece, and then the ozone reacts with the aluminum-based ozone catalyst in the catalytic cabin 651. The aluminum-based ozone catalyst decomposes the ozone. At the same time, under the blocking and drainage of the catalytic baffle 652, the ozone is fully in contact with the aluminum-based ozone catalyst. Under the action of the connecting piece 653, the ozone enters the catalytic cabin 651 from the suction cabin 641, and the ozone reacts with the aluminum-based ozone catalyst in the catalytic cabin 651, thereby decomposing the ozone and reducing the possibility of pollution caused by direct discharge of ozone.
[0037] Reference Figure 2 and Figure 3 The connecting member 653 includes a connecting pipe 1 6531 fixed on the suction cabin 641, the connecting pipe 1 6531 is connected to the suction cabin 641, two connecting pipes 2 6532 are fixed on the connecting pipe 1 6531, the two connecting pipes 2 6532 are fixedly connected to the corresponding catalytic cabin 651 and are connected to each other.
[0038] The ozone in the suction cabin 641 directly enters the connecting pipe 1 6531 under the action of the suction fan blade 644, then enters the two connecting pipes 2 6532 from the connecting pipe 1 6531, and then enters the catalytic cabin 651 from the connecting pipe 2 6532. By allowing the ozone in the suction cabin 641 to enter the catalytic cabin 651 from the connecting pipe 1 6531 and the connecting pipe 2 6532, it is convenient for the ozone to enter the catalytic cabin 651 from the suction cabin 641 to react with the aluminum-based ozone catalyst.
[0039] Reference Figure 3 and Figure 5 A blocking plate 654 is fixed in the catalytic chamber 651, and the blocking plate 654 is provided with evenly distributed air holes, and the blocking plate 654 corresponds to the second connecting pipe 6532. The blocking plate 654 is fixed between the second connecting pipe 6532 and the catalytic chamber 651, and ozone enters the catalytic chamber 651 through the air holes on the blocking plate 654. The blocking plate 654 blocks the granular aluminum-based ozone catalyst. By fixing the blocking plate 654 between the second connecting pipe 6532 and the catalytic chamber 651, the aluminum-based ozone catalyst can be reduced from entering the second connecting pipe 6532, and at the same time, the ozone from the second connecting pipe 6532 to the catalytic chamber 651 is not delayed.
[0040] Reference Figure 2 , Figure 3 and Figure 5 The auxiliary stirring mechanism 7 includes a plurality of stirring shafts 71 arranged in the catalyst chamber 651, one end of the stirring shaft 71 is rotatably connected to the catalyst chamber 651, a plurality of evenly distributed stirring rods 72 are fixed on the stirring shaft 71, and a rotating assembly 73 is arranged between the stirring shaft 71 and the driving shaft 645.
[0041] When the driving motor 646 drives the driving shaft 645 and the driving shaft 645 drives the suction blades 644 on the rotating shaft 643 to rotate, the driving shaft 645 drives the rotating component 73, the rotating component 73 drives a plurality of stirring shafts 71 to rotate, the stirring shaft 71 drives the stirring rod 72, and the stirring rod 72 stirs the aluminum-based ozone catalyst in the catalytic chamber 651 to allow the granular aluminum-based ozone catalyst to fully contact with ozone. By allowing the rotating component 73 to drive the stirring shaft 71 and allowing the stirring shaft 71 to drive the stirring rod 72 to stir the aluminum-based ozone catalyst, the granular aluminum-based ozone catalyst can be fully contacted with ozone, thereby further improving the efficiency of ozone decomposition.
[0042] Reference Figure 3 and Figure 5 The driving assembly includes a double-track driving wheel 1 731 fixed on the driving shaft 645, and a plurality of double-track driving wheels 2 732 are rotatably connected to the support plate 647. The stirring shaft 71 passes through the catalytic chamber 651 and the support plate 647, and is fixedly connected to the corresponding double-track driving wheel 2 732. A transmission belt 733 is connected between the double-track driving wheel 1 731 and one of the double-track driving wheels 2 732, and a transmission belt 733 is connected between adjacent double-track driving wheels 2 732.
[0043] When the driving motor 646 drives the driving shaft 645 to rotate, the driving shaft 645 drives the double-track driving wheel 1 731 to rotate, and the double-track driving wheel 1 731 drives one of the double-track driving wheels 2 732 to rotate using the transmission belt 733, and the double-track driving wheel 2 732 drives the other double-track driving wheel 2 732 using the transmission belt 733, and the double-track driving wheel 2 732 drives the stirring shaft 71 to rotate, so that the stirring shaft 71 drives the stirring rod 72 to stir the aluminum-based ozone catalyst in the catalytic chamber 651, and the driving shaft 645 drives the suction blades 644 on the rotating shaft 643 to rotate while the driving shaft 645 drives the stirring shaft 71 to rotate using the double-track driving wheel 1 731 and the double-track driving wheel 2 732, so that the suction of ozone and the stirring of the aluminum-based ozone catalyst can be synchronized.
[0044] Working principle: When the photovoltaic cable is produced, the photovoltaic cable is passed through the workshop 1. When the photovoltaic cable passes through the workshop 1, the electron accelerator body 2 accelerates the electrons, and then the irradiation head 5 sprays them onto the photovoltaic cable. At the same time, the drive motor 646 is started, and the drive motor 646 drives the drive shaft 645, and the drive shaft 645 drives the rotating shaft 643 to rotate on the support rod 642. The rotating shaft 643 drives the suction blade 644, and the suction blade 644 rotates in the suction cabin 641 to generate suction, and then Then, the ozone is allowed to enter the suction pipe 1 62 and the suction pipe 2 63 from the suction nozzle 61, and then enter the suction cabin 641, and then enter the catalytic cabin 651 from the connecting pipe 1 6531 and the connecting pipe 2 6532, and then the ozone reacts with the aluminum-based ozone catalyst in the catalytic cabin 651, and the aluminum-based ozone catalyst decomposes the ozone. At the same time, under the blocking and drainage of the catalytic baffle 652, the ozone is allowed to fully contact with the aluminum-based ozone catalyst, and then the decomposed ozone is discharged to the outside from the exhaust pipe 1 66 and the exhaust pipe 2 67.
[0045] While the drive motor 646 drives the drive shaft 645 to rotate, the drive shaft 645 drives the double-track drive wheel 1 731 to rotate, the double-track drive wheel 1 731 uses the transmission belt 733 to drive one of the double-track drive wheels 2 732 to rotate, the double-track drive wheel 2 732 uses the transmission belt 733 to drive the other double-track drive wheel 2 732, the double-track drive wheel 2 732 drives the stirring shaft 71 to rotate, and the stirring shaft 71 drives the stirring rod 72 to stir the aluminum-based ozone catalyst in the catalyst chamber 651, so that the ozone is fully in contact with the aluminum-based ozone catalyst in the catalyst chamber 651, thereby further improving the efficiency of ozone decomposition.
Claims
1. An irradiation photovoltaic cable electron accelerator, comprising a workroom (1), characterized in that: An electron accelerator body (2) is arranged on the workroom (1), a support leg (3) is fixed on the electron accelerator body (2), the support leg (3) is fixed to the workroom (1), a maintenance platform (4) is fixed on the electron accelerator body (2), an irradiation head (5) is fixed in the workroom (1), the irradiation head (5) is connected to the electron accelerator body (2), an ozone collection and processing mechanism (6) is arranged on one side of the electron accelerator body (2), and an auxiliary stirring mechanism (7) is arranged on one side of the electron accelerator body (2).
2. The irradiated photovoltaic cable electron accelerator according to claim 1, characterized in that: The ozone collection and treatment mechanism (6) comprises two suction nozzles (61) symmetrically fixed on the irradiation head (5), a suction pipe 1 (62) being fixed on the two suction nozzles (61), a suction pipe 2 (63) being fixed between the two suction pipes 1 (62), the suction pipe 2 (63) passing through the workroom (1) and being fixedly connected to the workroom (1), a suction assembly (64) being arranged at one end of the suction pipe 2 (63) away from the suction pipe 1 (62), a catalytic assembly (65) being arranged on the workroom (1), two symmetrical discharge pipes 1 (66) being arranged on the workroom (1), a discharge pipe 2 (67) being fixed between the two discharge pipes 1 (66), and the two discharge pipes 1 (66) corresponding to the catalytic assembly (65).
3. The irradiated photovoltaic cable electron accelerator according to claim 2, characterized in that: The suction assembly (64) comprises a suction cabin (641) fixed on the workroom (1), the suction cabin (641) being connected to the suction pipe 2 (63), a support rod (642) being fixed in the suction cabin (641), a rotating shaft (643) being rotatably connected to the support rod (642), a plurality of circumferentially distributed suction blades (644) being fixed to the rotating shaft (643), a support plate (647) being fixed to one side of the electron accelerator body (2), a drive motor (646) being fixed to the support plate (647), a drive shaft (645) being fixed to the output end of the drive motor (646), the drive shaft (645) passing through the support plate (647) and the suction cabin (641), and an end of the drive shaft (645) away from the drive motor (646) being fixedly connected to the rotating shaft (643).
4. The irradiated photovoltaic cable electron accelerator according to claim 3, characterized in that: The catalytic assembly (65) comprises two catalytic chambers (651) symmetrically fixed on a support plate (647), a plurality of catalytic baffles (652) being fixed in the catalytic chambers (651), the catalytic baffles (652) being arranged in a staggered manner, the catalytic chambers (651) being filled with granular aluminum-based ozone catalysts, the two catalytic chambers (651) being fixedly connected to corresponding exhaust pipes (66) and being interconnected, and a connecting piece (653) being provided between the two catalytic chambers (651) and the suction chamber (641).
5. The irradiated photovoltaic cable electron accelerator according to claim 4, characterized in that: The connecting member (653) comprises a connecting pipe 1 (6531) fixed on the suction chamber (641); the connecting pipe 1 (6531) is connected to the suction chamber (641); two connecting pipes 2 (6532) are fixed on the connecting pipe 1 (6531); the two connecting pipes 2 (6532) are fixedly connected to the corresponding catalytic chamber (651) and are connected to each other.
6. The irradiated photovoltaic cable electron accelerator according to claim 5, characterized in that: A blocking plate (654) is fixed in the catalytic chamber (651), the blocking plate (654) being provided with evenly distributed air holes, and the blocking plate (654) corresponds to the second connecting pipe (6532).
7. The irradiated photovoltaic cable electron accelerator according to claim 4, characterized in that: The auxiliary stirring mechanism (7) comprises a plurality of stirring shafts (71) arranged in the catalytic chamber (651), one end of the stirring shaft (71) being rotatably connected to the catalytic chamber (651), a plurality of evenly distributed stirring rods (72) being fixed to the stirring shaft (71), and a rotating assembly (73) being arranged between the stirring shaft (71) and the driving shaft (645).
8. The irradiated photovoltaic cable electron accelerator according to claim 7, characterized in that: The driving assembly comprises a double-track driving wheel one (731) fixed on a driving shaft (645); a plurality of double-track driving wheels two (732) are rotatably connected to the support plate (647); the stirring shaft (71) passes through the catalytic chamber (651) and the support plate (647) and is fixedly connected to the corresponding double-track driving wheel two (732); a transmission belt (733) is connected between the double-track driving wheel one (731) and one of the double-track driving wheels two (732); and a transmission belt (733) is connected between adjacent double-track driving wheels two (732).