TWM604238U - Electrostatic electrode plate assembly and electrostatic cleaning device - Google Patents

Abstract

An electrostatic electrode plate combination includes a support frame, a high voltage group and a low voltage group. The high voltage group and the low voltage group are arranged in an internal space of the support frame and do not contact each other. The low voltage group has a plurality of electrode plates arranged at intervals along the long axis of the at least one second fixing rod of the low voltage group, fixed and electrically connected to the at least one second fixing rod. Each of the electrode plates of this creation has a core plate made of non-metallic materials and a metal layer covering the core plate. The electrode plate provided by the aforementioned electrostatic electrode plate combination has a lightweight structure, and its metal layer is resistant to strong acid or alkali corrosion, so that the industry will not corrode the electrode plates when cleaning and maintaining the electrode plates with strong acids or alkalis. . An electrostatic decontamination device is also disclosed here.

Description

Electrostatic electrode plate combination and electrostatic decontamination device

This creation is related to air filtration equipment; especially refers to an electrostatic decontamination device.

In recent years, air pollution has become more and more serious. In addition to causing environmental damage, fine particles in the air can easily affect people's physical health. In order to maintain the environment and people's physical health, the government has clearly stipulated the air emission standards of various industries with pollution sources. Therefore, various industries have successively installed air purification devices in the discharge pipes to meet the air emission standards.

Take an electrostatic decontamination device applied to a boiler discharge pipe as an example. The electrostatic decontamination device is used to filter oily smoke particles in the air. It includes an electrostatic electrode plate assembly arranged in a shell, and the air passes through the shell. An air inlet enters the shell. When the oil fume particles in the air pass through the high voltage area of the electrostatic electrode plate assembly, they form charged particles. These charged particles are adsorbed on the dust collection area of the electrostatic electrode plate assembly, and the air does not contain oil fume particles. It passes through the dust collecting area and discharges the shell from an air outlet of the shell, thereby achieving the effect of purifying the air.

In order to maintain the electrostatic dust collection effect of the electrostatic electrode plate assembly, the electrostatic electrode plate assembly needs to be cleaned and maintained regularly. The industry uses strong acid or alkali to rinse off the dirt on the surface of the electrode plate, and it is suitable for washing with strong acid or alkali. Metal material resistant to strong acid or alkali. However, the problem faced by the industry is that these metal materials that are resistant to strong acids or alkalis are heavy, which is not conducive to handling, causing the industry to exhaust their labor. Or the industry chooses lighter metal materials, such as aluminum. However, aluminum is not resistant to strong acids or alkalis. After repeated cleaning and maintenance, the aluminum electrode plates were corroded and thinned, and a gap was formed between the electrode plates and the support frame that fixed the electrode plates, which caused shaking and noise when the electrostatic electrode plates were combined. The aforementioned situation is indeed necessary to be resolved.

In view of this, the purpose of this creation is to provide an electrostatic electrode plate combination and electrostatic decontamination device. The electrode plate of the electrostatic electrode plate combination and the electrode plate of the electrostatic electrode plate combination of the electrostatic decontamination device are resistant to strong acid or alkali corrosion. The characteristic and the weight is lighter than the conventional electrode plate.

In order to achieve the above purpose, the electrostatic electrode plate assembly provided by this creation includes a support frame, a high voltage group, and a low voltage group. Wherein, the support frame has a frame, a first energized plate and a second energized plate; the frame has an internal space; the first energized plate and the second energized plate are fixed on the frame and are connected to the The frame is insulated, and the first energizing plate and the second energizing plate are not in contact with each other. The high voltage group is arranged in the internal space and has a plurality of electrode wires and at least one first fixing rod; one end of each electrode wire is fixed and electrically connected to the at least one first fixing rod, and the electrode wires are along The long axis of the at least one first fixing rod is arranged at intervals; one end of the at least one first fixing rod is fixed and electrically connected to the first energizing plate. The low voltage group is arranged in the internal space, and is arranged adjacent to the high voltage group but not in contact with the high voltage group, and has a plurality of electrode plates and at least one second fixing rod; the electrode plates are fixed and electrically connected It is sexually connected to the at least one second fixing rod and arranged at intervals along the long axis of the at least one second fixing rod; one end of the at least one second fixing rod is fixed and electrically connected to the second energizing plate. Wherein, each of the electrode plates has a core plate and a metal layer covering the core plate; each of the core plates is made of non-metal material.

Another purpose of this creation is to provide an electrostatic decontamination device for filtering fine particles in the air, which includes a housing, a power control component, an electrostatic electrode plate assembly, and a first filter and a second filter . The housing has an accommodating space inside and includes an air inlet and an air outlet, and the air inlet and the air outlet respectively communicate with the outside of the housing and the accommodating space. The power control component is fixedly connected to the casing, and includes a high voltage generator and a low voltage generator. The high voltage generator and the low voltage generator are insulated from each other. The electrostatic electrode plate assembly is disposed in the accommodating space and includes a high voltage group and a low voltage group; the high voltage group has a plurality of electrode lines electrically connected to each other, and the electrode lines are arranged at intervals along a direction, The electrode lines are electrically connected to the high voltage generator; the low voltage group is arranged adjacent to the high voltage group but not in contact with the high voltage group, and has a plurality of electrode plates, the electrode plates are spaced apart along the direction Arranged, the electrode plates are electrically connected to each other and are electrically connected to the low voltage generator; wherein each of the electrode plates has a core plate and a metal layer covering the core plate; each of the core plates is made of non-metallic material . The first filter screen and the second filter screen are arranged in the accommodating space; the first filter screen is located between the air inlet and the high voltage group of the electrostatic electrode plate combination; the second filter screen is located in the outlet Between the tuyere and the low voltage group of the electrostatic electrode plate combination.

The effect of this creation is that the core plates of the aforementioned electrode plates are made of non-metallic materials, which are lighter than the conventional electrode plates. In addition, the metal layer of each electrode plate is made of a metal material resistant to strong acid or alkali corrosion, which can withstand strong acid or alkali more than conventional electrode plates made of aluminum. Compared with the conventional technology, the electrostatic electrode plate assembly and electrostatic decontamination device with the aforementioned electrode plate reduce the labor of the industry due to weight reduction, and will not be corroded by washing with strong acid or strong alkali cleaning solution.

In order to explain the creation more clearly, the preferred embodiments are described in detail below in conjunction with the drawings. The embodiments described in this disclosure are described in specific language, and it should be understood that it is not intended to limit the scope of this disclosure.

Any changes or modifications to the described embodiments, as well as any further application of the principles described in this text, should be regarded as those with ordinary knowledge in the technical field to which this creation belongs can generally be considered. The singular forms "一", "one" and "the" used in this article also mean to include plural forms.

Please refer to FIG. 1 to FIG. 2, which is a preferred embodiment of the electrostatic electrode plate assembly 100 of this creation, which includes a support frame 10, a high voltage group 20, and a low voltage group 30.

The supporting frame 10 has a frame 12, a first energizing plate 14 and a second energizing plate 16. The frame body 12 has a first surface 121, a second surface 122, a third surface 123 and a fourth surface 124. The first surface 121 and the second surface 122 are opposite to each other, and the third surface 123 and the fourth surface 124 are opposite to each other. One side edge of the third surface 123 is connected to the first surface 121, and the other side edge is connected to the second surface 122. One side edge of the fourth surface 124 is connected to the first surface 121, and the other side edge is connected to the second surface 122. The first surface 121 has a first tuyere 121a, and the second surface 122 has a second tuyere 122a corresponding to the first tuyere 121a. The third surface 123 and the fourth surface 124 each have a plurality of through holes, and the through holes 123 a of the third surface 123 and the through holes 124 a of the fourth surface 124 are arranged correspondingly. The first surface 121, the second surface 122, the third surface 123, and the fourth surface 124 collectively surround an internal space S1. The first energizing plate 14 and the second energizing plate 16 are fixed on the outside of the frame 12 and insulated from the frame 12, and the first energizing plate 14 and the second energizing plate 16 do not contact each other. More specifically, the support frame 10 includes a plurality of insulators 18, and the insulators 18 are disposed on the third surface 123 of the support frame 10. The first energizing plate 14 and the frame body 12 are connected to each other through at least one insulator 18. In this embodiment, the first energizing plate 14 and the frame body 12 are connected to each other through two insulators 18. The second power plate 16 and the frame body 12 are also connected to each other by at least one of the insulators 18. In this embodiment, the size of the second power plate 16 is larger than the size of the first power plate 14, so the second power plate 16 The frame body 12 is connected to each other by four insulators 18 to increase the stability. More optionally, referring to FIG. 3, another first energizing plate 14 and another second energizing plate 16 are added, and they are coupled to the fourth surface 124 of the frame 12 in the aforementioned manner.

The high voltage group 20 is disposed in the internal space S1 and has a plurality of electrode wires 22 and at least one first fixing rod 24. The number of the first fixing rod 24 in this embodiment is two, however, it is not limited to this. The electrode wires 22 are arranged at intervals along the long axis of the two first fixing rods 24, and one end of each electrode wire 22 is fixed and electrically connected to one of the two first fixing rods 24, and each electrode The other end of the wire 22 is fixed and electrically connected to the other of the two first fixing rods 24. 3, one end of each of the first fixing rods 24 penetrates the through hole 123a of the third surface 123 of the frame 12, and then is fixed and electrically connected to the first energizing plate 14; each of the first fixing rods 24 The other end penetrates through the through hole 124 a of the fourth surface 124, and then is fixed and electrically connected to the other first energization plate 14. However, in other embodiments, one end of the first fixing rod is fixed and electrically connected to a first energizing plate, and the other end is fixed and insulated with the fourth surface of the frame.

The low voltage group 30 is disposed in the internal space S1 and is disposed adjacent to the high voltage group 20 but not in contact with the high voltage group 20. The low voltage group 30 has a plurality of electrode plates 32 and at least one second fixing rod 34. The number of the second fixing rod 34 in this embodiment is four, however, it is not limited to this. The electrode plates 32 are arranged at intervals along the long axis of the at least one second fixing rod 34, and the electrode plates 32 are fixed and electrically connected to the second fixing rods 34. The second fixing rods 34 are arranged parallel to each other and parallel to the two first fixing rods 24. One end of each of the second fixing rods 34 penetrates through a through hole 123a of the third surface 123 of the frame body 12, and then is fixed and electrically connected to the second power board 16; the other end penetrates through a through hole 124a of the fourth surface 124, Then, another second power board 16 is fixed and electrically connected. However, in other embodiments, one end of the second fixing rod is fixed and electrically connected to a first energizing plate, and the other end is fixed and insulated with the fourth surface of the frame.

Please refer to FIG. 4 again, which is a top view of one of the electrode plates 32 in FIG. 3. The electrode plate 32 of the low voltage group 30 has a core plate 321 and a metal layer 322 covering the core plate 321. Wherein, the core board 321 is made of a non-metallic material. The non-metallic material includes plastic and has high temperature resistance. The types of plastics include polyethylene terephthalate (PET), high-density polyethylene (HDPE), polyvinyl chloride (PVC), low-density polyethylene (LDPE), polystyrene (PS), polypropylene (PP) ), polycarbonate resin (PC), polylactic acid (PLA) or a combination thereof. The material of the metal layer 322 includes copper, chromium, stainless steel or a combination thereof, and has the characteristics of resistance to strong acid or alkali corrosion. The method for attaching the metal layer 322 to the surface of the core board 321 includes electroplating, electroless plating, attachment, chemical vapor deposition or physical vapor deposition. Electroplating refers to immersing the core plate 321 in a solution containing metal ions, and using the principle of electrochemistry, the metal ions are reduced and precipitated and deposited on the surface of the core plate 321 to form the metal layer 322. Electroless plating refers to immersing the core plate 321 in a plating solution containing metal ions, and using the metal ions to react with the surface of the core plate 321 to make the metal ions deposit on the surface of the core plate 321 to form the metal layer 321. The attaching refers to attaching the prepreg with the metal layer 322 material to the surface of the core board 321 so that the surface of the core board 321 attaches the conductive metal layer 322. Chemical vapor deposition refers to chemically reacting the gaseous reactant containing the metal layer 322 material with the surface of the core plate 321 to form the metal layer 322. Physical vapor deposition refers to the use of physical discharge technology to evaporate the target material with the metal layer 322 under vacuum conditions. The evaporated target material is deposited on the surface of the core plate 321 under the action of an electric field to form the metal layer 322 . However, the method for attaching the metal layer 322 to the core board 321 is not limited to the foregoing.

4, each of the electrode plates 32 has a first thickness D1, and each of the core plates 321 has a second thickness D2. The first thickness D1 of the electrode plate 32 is between 0.7 and 1.2 cm, and the second thickness D2 of the core plate 321 is between 0.6 and 1.1 cm. Preferably, the first thickness D1 of the electrode plate 32 is between 0.8 and 1.0 cm, and the second thickness D2 of the core plate 321 is between 0.8 and 0.9 cm. The purpose of designing the first thickness D1 and the second thickness D2 of the electrode plate 32 is that if the second thickness D2 is less than 0.6 cm, in order to maintain an appropriate distance between any two adjacent electrode plates 32, the second thickness is too thin D2 causes the operator to install too many electrode plates 32, which causes inconvenience in assembly; if the second thickness D2 is greater than 1.1 cm, it is easy to block air from passing through the gaps between the electrode plates 32, resulting in low air purification efficiency. In addition, it will increase unnecessary weight. The design of the numerical range of the first thickness D1 of the electrode plate 32 makes the specific gravity of the overall electrode plate 32 lighter than that of the conventional electrode plate made of all metal, thereby reducing the overall weight.

As shown in Figures 5-9, the aforementioned electrostatic electrode plate assembly 100 is applied to an electrostatic decontamination device 400, but the electrostatic decontamination device of the present invention can also be equipped with other types of electrostatic electrode plate combinations, not the aforementioned electrostatic decontamination device. The electrode plate combination 100 is a limitation. In FIGS. 5-9, the electrostatic decontamination device 400 further includes a housing 410, a first filter 420, a second filter 430, and a power control component 440, and uses the aforementioned electrostatic electrode plate assembly 100 as Example description.

The housing 410 has an accommodating space S2, and includes an opening 410a, an air inlet 410b, and an air outlet 410c. The air inlet 410b and the air outlet 410c are arranged opposite to each other and communicate with each other of the housing 410 The outside and the accommodating space S2. The housing 410 is made of non-metallic material, and the non-metallic material includes plastic. The types of plastics include polyethylene terephthalate (PET), high-density polyethylene (HDPE), polyvinyl chloride (PVC), low-density polyethylene (LDPE), polystyrene (PS), polypropylene (PP) ), polycarbonate resin (PC), polylactic acid (PLA) or a combination thereof. The inner wall 412 of the housing 410 has a metal film (not shown).

The electrostatic electrode plate assembly 100 is disposed in the containing space S2. The first air outlet 121a of the first surface 121 of the frame 12 corresponds to the air inlet 410b, the second air outlet 122a of the second surface 122 corresponds to the air outlet 410c, and the third surface 123 corresponds to the opening 410a.

The first filter 420 and the second filter 430 are disposed in the accommodating space S2. The first filter 420 is located between the air inlet 410b and the high voltage group 20 of the electrostatic electrode plate assembly 100, and the second filter 430 is located between the air outlet 410c and the low voltage group of the electrostatic electrode plate assembly 100 Between 30.

As shown in FIGS. 5 to 7, the power control assembly 440 has a cover 441, a high-voltage conductive member 442 and a low-voltage conductive member 443. Wherein, the cover 441 is pivoted to the housing 410, and can be operated to close the opening 410a of the housing 410 or open to expose the opening 410a to the outside. The high-voltage conductive member 442 and the low-voltage conductive member 443 are insulated from each other, and the high-voltage conductive member 442 and the low-voltage conductive member 443 are disposed on the side surface of the cover 441 corresponding to the opening 410 a and insulated from the cover 441. More specifically, the power control assembly 440 has a plurality of insulators 444, and the number of the insulators 444 in this embodiment is two. By one of the two insulators 444, the high-voltage conductive member 442 and the cover 441 are insulated from each other; by the other of the two insulators 444, the low-voltage conductive member 443 and the cover 441 are connected Insulate each other. The insulation system is used to avoid the occurrence of corona or noise when the conductive part and the cover body are short-circuited due to resistance or fusing due to voltage. The power control component 440 includes an electric control module 445. The electronic control module 445 is electrically connected to an external power supply (not shown), and has a high voltage generator 445a and a low voltage generator 445b. As shown in FIG. 8, the high voltage generator 445a and the low voltage generator The generators 445 b are insulated from each other, the high voltage generator 445 a is electrically connected to the high voltage conductive member 442, and the low voltage generator 445 b is electrically connected to the low voltage conductive member 443. In this embodiment, the electric control module 445 is disposed inside the cover 441.

8 and 9, when the housing 410 is manipulated to close the opening 410a, the high-voltage conductive member 442 will abut the first energizing plate 14, so that the high voltage generator 445a and the first energizing plate 14 Electrically connected; the low-voltage conductive member 443 will interfere with the second energized plate 16, so that the low-voltage generator 445b and the second energized plate 16 are electrically connected. The decontamination method of the electrostatic decontamination device 400 will be described in detail below. After the air enters the accommodating space S2 from the air inlet 410b of the housing 410, the air first passes through the first filter 420 for preliminary filtering, and then the air The fine particles pass through the gaps between the electrode wires 22 of the high voltage group 20, and the fine particles become charged particles after being subjected to the voltage of the high voltage group 20. The charged particles move from the high voltage group 20 to the low voltage group 30. The charged particles will be adsorbed on the surface of the electrode plates 32 of the low-voltage group 30, and the air without charged particles will pass through the gaps between the electrode plates 32, and then pass through the second filter 430. The air outlet 410c leaves the accommodating space S2 to accomplish the purpose of air purification.

In conclusion, the electrode plate 32 in the electrostatic electrode plate assembly 100 of this embodiment adopts a structural design with a core plate 321 and a metal layer 322 covering the core plate 321. The core plate 321 is made of non-metallic materials, such as various common plastics, which help reduce the weight of the electrode plate 32, thereby greatly reducing the electrostatic electrode plate assembly 100 or the electrostatic decontamination device 400 containing the electrostatic electrode plate assembly 100 weight. The metal layer 322 is made of a metal material resistant to strong acid or alkali, such as copper, chromium, stainless steel or a combination thereof. Therefore, when cleaning and maintaining the electrode plates 32, the industry does not need to worry about cleaning with strong acid or alkali. The liquid corrodes the electrode plates 32 and causes the electrode plates 32 to become thinner. In addition, the electrode plate 32 of this embodiment has a longer service life compared to the conventional electrode plate made of aluminum. In addition, the housing 410 of the electrostatic decontamination device 400 is made of non-metallic materials, such as various common plastics. The purpose of using non-metallic materials is to make it lighter than conventional shells made of metal materials, and to reduce the labor cost of cleaning, maintenance or handling of the industry, and the joints of the various components of the conventional metal shells are manually Spot welding requires a lot of manpower and time. In contrast, the housing 410 of this embodiment does not have the above-mentioned shortcomings, and only needs to be manufactured by mold opening, that is, integral molding, which helps the industry improve production efficiency.

The above descriptions are only the preferred and feasible embodiments of this creation. Any equivalent changes made in the application of this creation specification and the scope of patent application should be included in the patent scope of this creation.

[This creation] 100: Electrostatic electrode plate combination 10: Support frame 12: Frame 121: The first side 121a: First air outlet 122: second side 122a: second air outlet 123: The third side 124: The Fourth Side 123a, 124a: through hole 14: The first power-on board 16: The second power board 18: Insulator 20: High voltage group 22: Electrode wire 24: The first fixed rod 30: Low voltage group 32: Electrode plate 321: Core Board 322: Metal layer 34: second fixed rod 400: Electrostatic decontamination device 410: Shell 410a: opening 410b: Air inlet 410c: air outlet 412: Inner Wall 420: first filter 430: Second Filter 440: Power Control Components 441: Lid 442: High-voltage conductive parts 443: Low-voltage conductive parts 444: Insulator 445: Electronic Control Module 445a: high voltage generator 445b: Low voltage generator S1: Internal space S2: Housing space D1: first thickness D2: second thickness

Figure 1 is a three-dimensional view of an electrostatic electrode plate assembly created in a preferred embodiment. Figure 2 is a partial exploded view of Figure 1. Fig. 3 is a top view of Fig. 1. Fig. 4 is a partial schematic diagram of Fig. 3. Figure 5 is an exploded view of the aforementioned electrostatic electrode plate combination applied to an electrostatic decontamination device. Fig. 6 is a partial schematic diagram of Fig. 5. Figure 7 is a perspective view of the aforementioned electrostatic decontamination device. Fig. 8 is a right side view of Fig. 7. Fig. 9 is a top view of Fig. 7.

100: Electrostatic electrode plate combination

10: Support frame

12: Frame

14: The first power-on board

16: The second power board

20: High voltage group

30: Low voltage group

Claims (21)

An electrostatic electrode plate combination, including: A supporting frame has a frame, a first energized plate and a second energized plate; the frame has an internal space; the first energized plate and the second energized plate are fixed on the frame and connected to the The frame is insulated, and the first energizing plate and the second energizing plate are not in contact with each other; A high voltage group is arranged in the internal space and has a plurality of electrode wires and at least one first fixing rod; one end of each electrode wire is fixed and electrically connected to the at least one first fixing rod, and the electrode wires Arranged at intervals along the long axis of the at least one first fixing rod; one end of the at least one first fixing rod is fixed and electrically connected to the first energization plate; and A low-voltage group is arranged in the internal space, and is arranged adjacent to the high-voltage group but not in contact with the high-voltage group, and has a plurality of electrode plates and at least one second fixing rod; the electrode plates are fixed and Are electrically connected to the at least one second fixing rod and arranged at intervals along the long axis of the at least one second fixing rod; one end of the at least one second fixing rod is fixed and electrically connected to the second power plate; Wherein, each of the electrode plates has a core plate and a metal layer covering the core plate; each of the core plates is made of non-metal material. The electrostatic electrode plate assembly according to claim 1, wherein each of the electrode plates has a first thickness; the first thickness is between 0.7 and 1.2 cm. The electrostatic electrode plate assembly according to claim 1, wherein each of the core plates has a second thickness; the second thickness is between 0.6-1.1 cm. The electrostatic electrode plate combination according to claim 1, comprising a plurality of insulators; the first current-carrying plate and the frame system are connected to each other by at least one of the insulators; the second current-carrying plate and the frame system are connected to each other by at least one of the insulators Connect to each other. The electrostatic electrode plate assembly according to claim 1, wherein the at least one first fixing rod is parallel to the at least one second fixing rod. The electrostatic electrode plate combination according to claim 1, wherein the number of the first fixing rods is two; one end of each electrode wire is fixed and electrically connected to one of the two first fixing rods, and each electrode The other end of the wire is electrically connected to the other of the two first fixing rods; one end of each of the first fixing rods is electrically connected to the first energizing plate. The electrostatic electrode plate combination according to claim 1, wherein the non-metallic material includes plastic; the material of the metal layer includes copper, chromium, stainless steel or a combination thereof. The electrostatic electrode plate combination according to claim 1, wherein the method of attaching the metal layer to the surface of the core plate includes electroplating, electroless plating, attaching, chemical vapor deposition or physical vapor deposition. An electrostatic decontamination device, including: A housing, the housing has an accommodating space inside the housing, and includes an air inlet and an air outlet, the air inlet and the air outlet respectively communicate with the outside of the housing and the accommodating space; A power control component, fixedly connected to the casing, and including a high voltage generator and a low voltage generator, the high voltage generator and the low voltage generator are insulated from each other; An electrostatic electrode plate assembly is arranged in the accommodating space and includes a high voltage group and a low voltage group; the high voltage group has a plurality of electrode lines electrically connected to each other, and the electrode lines are arranged at intervals along a direction , The electrode lines are electrically connected to each other and electrically connected to the high voltage generator; the low voltage group is arranged adjacent to the high voltage group but not in contact with the high voltage group, and has a plurality of electrode plates, the electrodes The plates are arranged at intervals along the direction, and the electrode plates are electrically connected to each other and electrically connected to the low-voltage generator; wherein each of the electrode plates has a core plate and a metal layer covering the core plate; each The core board is a non-metallic material; and A first filter screen and a second filter screen are arranged in the containing space; the first filter screen is located between the air inlet and the high voltage group of the electrostatic electrode plate combination; the second filter screen is located in the Between the air outlet and the low voltage group of the electrostatic electrode plate combination. The electrostatic decontamination device according to claim 9, wherein the electrostatic electrode plate assembly includes a support frame and a plurality of insulators; the support frame has a frame, a first energized plate and a second energized plate; the The frame has an internal space, the high-voltage group and the low-voltage group are arranged in the internal space; the first energized plate and the second energized plate do not contact each other, the first energized plate and the frame system are at least An insulator is insulated and fixedly connected to each other, the second current-carrying plate and the frame system are insulated and fixedly connected to each other by at least one of the insulators; the electrode wires of the high-voltage group are electrically connected to the first current-carrying plate The high voltage generator is electrically connected; the electrode plates of the low voltage group are electrically connected to the second energizing plate to be electrically connected to the low voltage generator. The electrostatic decontamination device according to claim 10, wherein the high voltage group has at least one first fixing rod parallel to the direction; one end of each electrode wire of the high voltage group is fixed and electrically connected to the at least one A fixed rod. The electrostatic decontamination device according to claim 10, wherein the low voltage group has at least one second fixing rod fixed to the second energizing plate; the at least one second fixing rod is parallel to the direction; the low voltage group The electrode plates are fixed and electrically connected to the at least one second fixing rod. The electrostatic decontamination device according to claim 9, wherein each of the electrode plates has a first thickness; the first thickness is between 0.7 and 1.2 cm. The electrostatic decontamination device according to claim 9, wherein each of the core plates has a second thickness; the second thickness is between 0.6-1.1 cm. The electrostatic decontamination device according to claim 11, wherein the number of the first fixing rods is two; one end of each electrode wire is fixed and electrically connected to one of the two first fixing rods, and each electrode wire The other end is electrically connected to the other of the two first fixing rods; one end of each first fixing rod is electrically connected to the first energizing plate. The electrostatic decontamination device according to claim 9, wherein the non-metallic material includes plastic; the material of the metal layer includes copper, chromium, stainless steel or a combination thereof. The electrostatic decontamination device according to claim 9, wherein the method for attaching the metal layer to the surface of the core board includes electroplating, electroless plating, attaching, chemical vapor deposition or physical vapor deposition. The electrostatic decontamination device according to claim 9, wherein the shell system is made of a non-metallic material, and the inner wall of the shell has a metal film. The electrostatic decontamination device according to claim 18, wherein the non-metallic material used in the housing includes plastic. The electrostatic decontamination device according to claim 10, wherein the power control assembly has a cover, a high-voltage conductive member, and a low-voltage conductive member, and the high-voltage conductive member and the low-voltage conductive member are insulated from each other; the cover is pivoted In the casing, and operable to close or open an opening of the casing to expose the opening; the high voltage generator and the low voltage generator are arranged on the cover and insulated from the cover; The high-voltage conductive member and the low-voltage conductive member are arranged on the side surface of the cover corresponding to the opening and are insulated from the cover; the high-voltage conductive member is electrically connected to the high-voltage generator and the first energizing plate, and the low-voltage conductive The component is electrically connected to the low voltage generator and the second energized board. The electrostatic decontamination device according to claim 20, wherein the power control component has a plurality of insulators; by at least one of the insulators, the high-voltage conductive element and the cover system are insulated from each other; by the At least the other of the insulators insulates the low-voltage conductive element and the cover system from each other.

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