Ionization static electricity eliminator

Abstract

The invention discloses an ionized static electricity eliminator, and relates to the technical field of ionic wind, by arranging an ionic wind generating mechanism and an angle adjusting mechanism, the top of the ionic wind generating mechanism can be in running fit with an external connecting frame, and a wind cavity is formed in the ionic wind generating mechanism; air holes communicating the air cavity with the outside are formed in the two side faces, in the first direction, of the ion wind generating mechanism, an air outlet communicating with the air cavity is formed in the bottom of the ion wind generating mechanism, and the mounting end of the angle adjusting mechanism is connected with the side face where one air hole is located. The free end can be connected with the external connecting frame or the other ion wind generating mechanism, so that the ion wind generating mechanism can rotate around the external connecting frame in the second direction when the free end is close to the mounting end, the ion wind generating mechanism can be locked when the free end is far away from the mounting end, and angle adjustment can be conducted on the arranged ionization static electricity eliminator; and the movement flexibility of the ionization static electricity eliminator is ensured.

Description

Technical Field

[0001] The present invention relates to the technical field of ionic wind, and particularly relates to an ionization static eliminator. Background Art

[0002] With the development of industrial automation and electrostatic control technology, the spatial ionization static eliminator, as an electrostatic removal device, is widely used in industries such as electronic manufacturing and precision machining. The spatial ionization static eliminator can effectively neutralize static electricity by releasing balanced ions to the target surface, improving the product processing quality and reducing the risk of electrostatic interference. In the initial stage of technology development, the spatial ionization static eliminator mainly adopted a fixed air outlet structure to release ionic wind to meet the basic electrostatic removal requirements. However, with the complication of product processing technology and the continuous improvement of the requirements for electrostatic removal accuracy, the spatial ionization static eliminator has gradually evolved into a more precise and versatile device to adapt to diverse scenario needs.

[0003] The current spatial ionization static eliminator can usually generate deionized wind in a specific direction. Its air outlet generally adopts a fixed position design, and the overall angle of the device can be adjusted through the rotating seats provided at both ends. This design shows high applicability in many application scenarios, especially when the requirements for the electrostatic removal range are relatively concentrated. By adjusting the angle of the spatial ionization static eliminator through the rotating seats, the jet direction of the deionized wind can be changed, enabling the device to adapt to different operation requirements. Some spatial ionization static eliminators are also equipped with indicator lights or sensing devices for the operator to monitor the device operation status. Although the spatial ionization static eliminator in the prior art has a certain angle adjustment function, the current rotating seats can only control the overall angle change of the entire deionization static eliminator and cannot achieve independent angle adjustment of individual air outlets, affecting the efficiency and quality of electrostatic removal. Summary of the Invention

[0004] The main object of the present invention is to propose an ionization static eliminator, aiming to solve the technical problem that the spatial ionization static eliminator in the prior art has a certain angle adjustment function, but the current rotating seats can only control the overall angle change of the entire deionization static eliminator and cannot achieve independent angle adjustment of individual air outlets, affecting the efficiency and quality of electrostatic removal.

[0005] To achieve the above object, in a first aspect, an ionization static eliminator proposed by the present invention includes: Ion wind generating mechanism, the top of the ion wind generating mechanism can be rotatably fitted with an external connecting frame, an air cavity is formed inside the ion wind generating mechanism, air holes communicating the air cavity with the outside are formed on both sides of the ion wind generating mechanism along a first direction, and an air outlet communicating with the air cavity is formed at the bottom of the ion wind generating mechanism. An ion needle is installed at the air outlet, the tip of the ion needle is arranged in a direction away from the air cavity, and the ion needle is electrically connected to an external power supply through a wire; and, Angle adjustment mechanism, the angle adjustment mechanism has a free end and a mounting end distributed at intervals, the mounting end is connected to the side surface where one of the air holes is located, and the free end can be connected to the external connecting frame or another ion wind generating mechanism; When the free end approaches the mounting end, the ion wind generating mechanism can rotate around the external connecting frame along a second direction, and when the free end is away from the mounting end, the ion wind generating mechanism can be locked.

[0006] In one embodiment, the angle adjustment mechanism includes: Connecting seat, locking ends and the mounting end are respectively formed at both ends of the connecting seat, the locking end extends in a direction away from the ion wind generating mechanism and a rotation space is formed between the locking end and the mounting end. A rotation hole communicating with the rotation space is formed on the locking end, and a locking groove facing the mounting end is formed on the side surface of the locking end located in the rotation space; Locking disc, the locking disc is slidably installed in the rotation space, and locking teeth capable of meshing with the locking groove are formed on the locking disc; and, Sliding shaft, the sliding shaft slidably passes through the rotation hole and is connected to the locking disc, and one end of the sliding shaft extends out of the rotation hole to form the free end; The sliding shaft can push the locking disc to slide in the rotation space to disengage the locking teeth from the locking groove, and correspondingly drive the connecting seat to drive the ion wind generating mechanism to rotate relative to the external connecting frame along the second direction.

[0007] In one embodiment, the angle adjustment mechanism further includes a reset member, the reset member is placed in the rotation space, and the reset member is located between the locking disc and the mounting end.

[0008] In one embodiment, a receiving seat is arranged on one side of the connecting seat close to the mounting end, and one end of the reset member close to the mounting end is received in the receiving seat.

[0009] In one embodiment, a receiving groove is formed at one end of the locking disc away from the locking teeth, and one end of the reset member close to the locking disc is received in the receiving groove.

[0010] In one embodiment, the ion wind generating mechanism includes: A bellows, the top of the bellows is rotatably connected to the external connection frame, the air cavity is formed inside the bellows, the two air holes are respectively arranged on two opposite side surfaces of the bellows along the first direction, and the air outlet is formed at the bottom of the bellows; and, A nozzle, the nozzle is detachably installed at the air outlet, a wind channel communicating with the air cavity is formed on the nozzle, and the tip of the ion needle can extend into the wind channel.

[0011] In one embodiment, the ion wind generating mechanism further includes: A partition plate, the partition plate is movably installed in the air cavity to divide the inner cavity of the bellows into upper and lower non-communicating installation cavities and the air cavity, and the air cavity is located below the installation cavity; A telescopic member, the telescopic member is installed in the installation cavity, and the telescopic end of the telescopic member is connected to the partition plate; and, An air duct, the air duct is movably passed through the wind channel and extends into the air cavity, the ion needle is installed in the air duct, the top end of the air duct is hermetically connected to the partition plate, an air inlet channel is formed on the pipe wall of the air duct located in the air cavity, the outlet of the air inlet channel is arranged towards the tip of the ion needle, and a threading hole for the wire connecting the ion needle to pass through is formed at the position of the partition plate facing the inner cavity of the air duct, and the telescopic member can drive the partition plate to drive the air duct to lift and lower along the inner cavity of the bellows.

[0012] In one embodiment, there are a plurality of the air inlet channels, and the plurality of air inlet channels are spaced along the circumferential direction of the air duct.

[0013] In one embodiment, there are a plurality of the ionization static eliminators, and further includes: A mounting frame, an installation space is formed on the mounting frame, and a plurality of mounting positions spaced along the first direction are formed on one side of the mounting frame facing the installation space. The number of the ionization static eliminators is the same as that of the mounting positions and they are arranged in a one-to-one swinging manner. Among the two ionization static eliminators at the ends, one of the ion wind generating mechanisms is rotatably matched with one end of the mounting frame, and the free end of the other angle adjusting mechanism is rotatably matched with the other end of the mounting frame; and, A hose, the hose sequentially communicates with all the air holes along the length direction of the mounting frame; At least one of the ionization static eliminators can rotate relative to the remaining ionization static eliminators around the mounting bracket in a second direction so that the air outlet blows out ionized air at any angle.

[0014] In one embodiment, a rotating hinge is provided at both ends of the mounting bracket; and / or A conducting cable is further provided on one side of the mounting bracket, and the conducting wires of the ion needles of each ionization static eliminator are rotationally matched with and electrically connected to the conducting cable.

[0015] In one embodiment, the angle adjustment mechanism includes: A connecting seat, with locking ends and mounting ends formed at both ends of the connecting seat respectively. The locking ends extend away from the ion wind generating mechanism, and a rotating space is formed between the locking ends and the mounting ends. A rotating hole communicating with the rotating space is formed on the locking ends, and a locking groove facing the mounting ends is formed on the side surface of the locking ends located within the rotating space; A locking disk, slidably mounted within the rotating space, and locking teeth capable of engaging with the locking groove are formed on the locking disk; and A sliding shaft, slidably passing through the rotating hole and connected to the locking disk, and one end of the sliding shaft extends out of the rotating hole to form the free end; The sliding shaft can push the locking disk to slide within the rotating space so that the locking teeth disengage from the locking groove, and correspondingly drive the ion wind generating mechanism by the connecting seat to rotate relative to the external connecting frame in the second direction.

[0016] In one embodiment, the angle adjustment mechanism further includes a resetting member, which is placed within the rotating space and located between the locking disk and the mounting end.

[0017] In one embodiment, a receiving seat is provided on one side of the connecting seat close to the mounting end, and one end of the resetting member close to the mounting end is received within the receiving seat.

[0018] In one embodiment, a receiving groove is formed at one end of the locking disk away from the locking teeth, and one end of the resetting member close to the locking disk is received within the receiving groove.

[0019] In one embodiment, the ion wind generating mechanism includes: A wind box, the top of the wind box can be rotatably connected to the external connecting frame, a wind cavity is formed within the wind box, two wind holes are respectively provided on two opposite side surfaces of the wind box along a first direction, and an air outlet is formed at the bottom of the wind box; and The air nozzle is detachably mounted on the air outlet. An air duct communicating with the air cavity is formed on the air nozzle, and the tip of the ion needle can extend into the air duct.

[0020] In one embodiment, the ion wind generating mechanism further includes: A partition plate, which is movably mounted in the air cavity to divide the inner cavity of the air box into two non-communicating upper and lower mounting cavities and the air cavity, and the air cavity is located below the mounting cavity; A telescopic member, which is mounted in the mounting cavity, and the telescopic end of the telescopic member is connected to the partition plate; and, An air duct, which is movably passed through the air duct and extends into the air cavity. The ion needle is mounted in the air duct. The top end of the air duct is hermetically connected to the partition plate. An air inlet channel is formed on the tube wall of the air duct located in the air cavity, and the outlet of the air inlet channel is arranged towards the tip of the ion needle. A wire passing hole for connecting the ion needle is formed at the position of the partition plate facing the inner cavity of the air duct. The telescopic member can drive the partition plate to drive the air duct to lift and lower along the inner cavity of the air box.

[0021] In one embodiment, there are a plurality of the air inlet channels, and the plurality of air inlet channels are spaced circumferentially along the air duct.

[0022] Based on the same technical concept, in a second aspect, the present invention further provides an electrostatic eliminator, including: A mounting frame, on which a mounting space is formed, and a plurality of mounting positions spaced along a first direction are formed on one side of the mounting frame facing the mounting space; A plurality of ionizing electrostatic eliminators as described in the first aspect, the number of the ionizing electrostatic eliminators is the same as that of the mounting positions and they are arranged in a one-to-one swinging manner. Among the two ionizing electrostatic eliminators at the ends, one of the ion wind generating mechanisms is rotationally matched with one end of the mounting frame, and the free end of the other angle adjusting mechanism is rotationally matched with the other end of the mounting frame; and, A hose, which sequentially communicates with all the air holes along the length direction of the mounting frame; At least one of the ionizing electrostatic eliminators can rotate relative to the remaining ionizing electrostatic eliminators around the mounting frame along a second direction to make the air outlet blow out ion wind at any angle.

[0023] In one embodiment, a rotating hinge is provided at both ends of the mounting frame.

[0024] And / or, One side of the mounting bracket is also provided with a conductive cable, and the conductive wires of the ion needles of the ionization static eliminators are all rotationally matched with and electrically connected to the conductive cable.

[0025] The technical solution of the present invention is to set up an ion wind generating mechanism and an angle adjusting mechanism, so that the top of the ion wind generating mechanism can be rotationally matched with an external connecting bracket. There is a wind cavity formed inside the ion wind generating mechanism. Wind holes communicating the wind cavity with the outside are formed on both sides of the ion wind generating mechanism along the first direction, and an air outlet communicating with the wind cavity is formed at the bottom of the ion wind generating mechanism. An ion needle is installed at the air outlet, and the tip of the ion needle is arranged in a direction away from the wind cavity. The ion needle is electrically connected to an external power supply through a wire. The angle adjusting mechanism has a free end and a mounting end distributed at intervals. The mounting end is connected to the side surface where one of the wind holes is located, and the free end can be connected to the external connecting bracket or another ion wind generating mechanism. When in use, the ion wind generating mechanism can rotate around the external connecting bracket along the second direction when the free end approaches the mounting end, and the free end can lock the ion wind generating mechanism when it is far away from the mounting end. Furthermore, the present invention can adjust the angle of the ionization static eliminator provided, and when the present invention is assembled to form a static elimination device, the angle of a single ionization static eliminator can be adjusted, ensuring the movement flexibility of the ionization static eliminator, and further avoiding the defect in the prior art that only the overall angle of the static elimination device can be adjusted through the provided rotating seat and the angle of a single air outlet cannot be adjusted, improving the adaptability of the static elimination device and ensuring the static elimination efficiency and elimination quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the following drawings are only some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can be obtained based on the structures shown in these drawings.

[0027] Figure 1 It is a schematic structural diagram of an embodiment of the ionization static eliminator provided by the present invention; Figure 2 For Figure 1 a schematic structural diagram of another perspective of the ionization static eliminator exemplified in ; Figure 3 For Figure 2 a schematic structural diagram of the ion generating mechanism exemplified in ; Figure 4 For Figure 3 a schematic structural diagram of the inside of the ion generating mechanism exemplified in ; Figure 5 ForFigure 3 Schematic structural diagram of another perspective of the ion generation mechanism in the example; Figure 6 is Figure 5 Schematic enlarged structural diagram of part A in the example; Figure 7 Schematic structural diagram of the usage state of the ionization static eliminator according to the example of the present invention; Figure 8 is Figure 7 Schematic enlarged structural diagram of part B in the example.

[0028] Explanation of reference numerals in the drawings: 100, ion wind generation mechanism; 200, angle adjustment mechanism; 101, air cavity; 102, air holes; 103, air outlet; 104, ion needle; 105, free end; 106, mounting end; 201, connecting seat; 202, rotating space; 203, rotating hole; 204, locking groove; 205, locking disc; 206, locking teeth; 207, sliding shaft; 208, reset member; 209, receiving seat; 210, receiving groove; 107, air box; 108, air nozzle; 109, air duct; 110, partition board; 111, telescopic member; 112, air duct; 113, air inlet passage; 114, wire passing hole; 10, mounting bracket; 20, mounting space; 30, ionization static eliminator; 40, hose; 50, rotating hinge; 60, guiding cable; 70, insulating mounting seat; 80, conductive slip ring; 90, mounting position; 115, mounting cavity; 116, support.

[0029] The realization of the purpose, functional features and advantages of the present invention will be further described with reference to the embodiments and the accompanying drawings. Specific embodiments

[0030] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without making creative efforts belong to the scope of protection of the present invention.

[0031] It should be noted that if there are directional indications (such as up, down, left, right, front, back...) involved in the embodiments of the present invention, the directional indications are only used to explain the relative position relationship and movement conditions between components in a specific posture. If the specific posture changes, the directional indications will also change accordingly.

[0032] In addition, if the embodiments of the present invention involve descriptions such as "first", "second", etc., the descriptions of "first", "second", etc. are only for descriptive purposes and should not be construed as indicating or implying their relative importance or implicitly indicating the quantity of the indicated technical features. Thus, the features defined with "first" and "second" may explicitly or implicitly include at least one such feature. In addition, if "and / or" or "and / or" appears throughout the text, its meaning includes three parallel scenarios. Taking "A and / or B" as an example, it includes scenario A, or scenario B, or the scenario where both A and B are satisfied simultaneously. In addition, the technical solutions between various embodiments can be combined with each other, but it must be based on the ability of those of ordinary skill in the art to implement. When the combination of technical solutions results in contradictions or cannot be implemented, it should be considered that such a combination of technical solutions does not exist and is not within the scope of protection required by the present invention.

[0033] The present invention provides an ionization static eliminator.

[0034] Please refer to Figures 1 to 8 , for the sake of easy understanding, an ionization static eliminator 30 includes an ion wind generating mechanism 100 and an angle adjusting mechanism 200. The top of the ion wind generating mechanism 100 can be rotatably engaged with an external connecting frame. A wind cavity 101 is formed inside the ion wind generating mechanism 100. Wind holes 102 that communicate the wind cavity 101 with the outside are formed on both sides of the ion wind generating mechanism 100 along the first direction. An air outlet 103 that communicates with the wind cavity 101 is formed at the bottom of the ion wind generating mechanism 100. An ion needle 104 is installed at the air outlet 103, and the tip of the ion needle 104 is arranged in a direction away from the wind cavity 101. The ion needle 104 is electrically connected to an external power supply through a wire. The angle adjusting mechanism 200 has a free end 105 and a mounting end 106 that are spaced apart. The mounting end 106 is connected to the side where one of the wind holes 102 is located, and the free end 105 can be connected to the external connecting frame or another ion wind generating mechanism 100; When the free end 105 approaches the mounting end 106, the ion wind generating mechanism 100 can rotate around the external connecting frame along the second direction, and when the free end 105 moves away from the mounting end 106, the ion wind generating mechanism 100 can be locked.

[0035] Specifically, please refer to Figure 1 、 Figure 2 , in this embodiment, an ionization static eliminator 30 is provided, and the device includes an ion wind generating mechanism 100 and an angle adjusting mechanism 200.

[0036] The top of the ion wind generating mechanism 100 is designed to be rotatably engaged with an external connecting frame, so that the ion wind generating mechanism 100 can rotate within a certain range, and thus can adapt to different working angle requirements. An air cavity 101 for air flow is formed inside the ion wind generating mechanism 100. On both side surfaces of the ion wind generating mechanism 100 along the first direction, air holes 102 communicating the air cavity 101 with the outside are formed. The provided air holes 102 allow external air to enter the air cavity 101, providing the necessary air flow for the generation of ion wind.

[0037] At the bottom of the ion wind generating mechanism 100, an air outlet 103 communicating with the air cavity 101 is formed. The ion wind is released to the outside through the provided air outlet 103. An ion needle 104 is installed at the air outlet 103, and the tip of the ion needle 104 is arranged in a direction away from the air cavity 101. And the ion needle 104 is electrically connected to an external power supply through a wire, so as to ensure that the air in the air cavity 101 forms an ion wind when passing through the tip of the ion needle 104, and at the same time can ensure that the ion wind is ejected towards the target area.

[0038] The angle adjustment mechanism 200 has a free end 105 and a mounting end 106 that are spaced apart. The mounting end 106 is connected to the side surface where one of the air holes 102 is located, so that the angle adjustment mechanism 200 can directly affect the angle of the ion wind generating mechanism 100. The free end 105 can be connected to an external connecting frame or another ion wind generating mechanism 100, so that any ion wind generating mechanism 100 has at least two mounting methods, improving the adaptability of the ion wind generating mechanism 100.

[0039] More specifically, the working principle of the angle adjustment mechanism 200 is as follows: In the working mode, when the free end 105 approaches the mounting end 106, the ion wind generating mechanism 100 can rotate around the external connecting frame along the second direction, so that the ejection direction of the ion wind can be adjusted to adapt to different working requirements. When the free end 105 is away from the mounting end 106, the ion wind generating mechanism 100 can be locked, so that the ion wind generating mechanism 100 is maintained at a specific angular position. The provided locking function ensures that the ion wind generating mechanism 100 can maintain a stable ejection angle during the working process.

[0040] In this embodiment, by providing an ion wind generating mechanism 100 and an angle adjusting mechanism 200, the top of the ion wind generating mechanism 100 is rotatably engaged with an external connecting frame. A wind cavity 101 is formed inside the ion wind generating mechanism 100. Wind holes 102 that communicate the wind cavity 101 with the outside are formed on both side surfaces of the ion wind generating mechanism 100 along the first direction. An air outlet 103 that communicates with the wind cavity 101 is formed at the bottom of the ion wind generating mechanism 100. An ion needle 104 is installed at the air outlet 103, and the tip of the ion needle 104 is arranged in a direction away from the wind cavity 101. The ion needle 104 is electrically connected to an external power supply through a wire. The angle adjusting mechanism 200 has a free end 105 and a mounting end 106 that are spaced apart. The mounting end 106 is connected to the side surface where one of the wind holes 102 is located. The free end 105 can be connected to the external connecting frame or another ion wind generating mechanism 100. During use, when the free end 105 approaches the mounting end 106, the ion wind generating mechanism 100 can rotate around the external connecting frame along the second direction, and when the free end 105 is away from the mounting end 106, the ion wind generating mechanism 100 can be locked. Thus, the present invention can adjust the angle of the provided ionizing static eliminator 30. Furthermore, when the present invention is assembled to form a static elimination device, the angle of a single ionizing static eliminator 30 can be adjusted, ensuring the movement flexibility of the ionizing static eliminator 30. Moreover, it avoids the defect in the prior art that only the overall angle of the static elimination device can be adjusted through the provided rotating seat and the angle of a single air outlet cannot be adjusted, improving the adaptability of the static elimination device and ensuring the static elimination efficiency and elimination quality.

[0041] In one embodiment, the angle adjusting mechanism 200 includes a connecting seat 201, a locking disk 205, and a sliding shaft 207. The two ends of the connecting seat 201 respectively form a locking end and a mounting end 106. The locking end extends away from the ion wind generating mechanism 100, and a rotating space 202 is formed between the locking end and the mounting end 106. A rotating hole 203 that communicates with the rotating space 202 is formed on the locking end. A locking groove 204 that faces the mounting end 106 is formed on the side surface of the locking end located inside the rotating space 202. The locking disk 205 is slidably installed in the rotating space 202, and locking teeth 206 that can engage with the locking groove 204 are formed on the locking disk 205. The sliding shaft 207 slidably passes through the rotating hole 203 and is connected to the locking disk 205, and one end of the sliding shaft 207 extends out of the rotating hole 203 to form the free end 105; the sliding shaft 207 can push the locking disk 205 to slide in the rotating space 202 to disengage the locking teeth 206 from the locking groove 204, and correspondingly drive the connecting seat 201 to drive the ion wind generating mechanism 100 to rotate relative to the external connecting frame along the second direction.

[0042] Specifically, please refer to Figures 3 to 6, both ends of the connecting seat 201 respectively form a locking end and a mounting end 106. The mounting end 106 is connected to the side surface where the air hole 102 of the ion wind generating mechanism 100 is located, providing a stable mounting foundation for the entire angle adjustment mechanism 200. The locking end extends away from the ion wind generating mechanism 100, forming a rotation space 202 between the locking end and the mounting end 106. This structural layout provides the necessary movement space for subsequent angle adjustment operations.

[0043] A rotation hole 203 communicating with the rotation space 202 is formed on the locking end. The rotation hole 203 provides a channel for the movement of the sliding shaft 207. More importantly, a locking groove 204 facing the mounting end 106 is formed on the side surface of the locking end located within the rotation space 202.

[0044] The locking disk 205 is slidably mounted within the rotation space 202. Locking teeth 206 capable of engaging with the locking groove 204 are formed on the locking disk 205, so that the angle adjustment mechanism 200 can lock the ion wind generating mechanism 100 at a set angular position when needed. The slidable nature of the locking disk 205 enables the locking disk 205 to switch between the locked and unlocked states.

[0045] The sliding shaft 207 slidably passes through the rotation hole 203 and is connected to the locking disk 205, with one end extending out of the rotation hole 203 to form a free end 105. The free end 105 can be connected to an external connection frame or another ion wind generating mechanism 100, so that the operator can control the entire angle adjustment process by moving the free end 105.

[0046] In actual operation, the sliding shaft 207 can push the locking disk 205 to slide within the rotation space 202. When the sliding shaft 207 pushes the locking disk 205 to disengage the locking teeth 206 from the locking groove 204, the connecting seat 201 can drive the ion wind generating mechanism 100 to rotate relative to the external connection frame in the second direction, so that the operator can adjust the angle of the ion wind generating mechanism 100 to meet different working requirements.

[0047] More specifically, the working principle of the exemplary angle adjustment mechanism 200 is as follows: When the angle needs to be adjusted, the operator can move the free end 105 of the sliding shaft 207 to slide the locking disk 205 within the rotation space 202, so that the locking teeth 206 disengage from the locking groove 204 and the locked state is released. At this time, the connecting seat 201 can rotate freely, driving the ion wind generating mechanism 100 to change its angle relative to the external connection frame. Once the desired angle is reached, the operator can release the sliding shaft 207 to make the locking teeth 206 engage with the locking groove 204 again, thus locking the new angular position.

[0048] In one embodiment, the angle adjustment mechanism 200 further includes a reset member 208. The reset member 208 is placed within the rotation space 202, and the reset member 208 is located between the locking disk 205 and the mounting end 106.

[0049] Specifically, setting the reset member 208 enables the angle adjustment mechanism 200 to have a reset function. When the operator adjusts the angle by moving the free end 105 of the sliding shaft 207, the reset member 208 will be compressed. Once the sliding shaft 207 is released, the reset member 208 will release the stored energy and push the locking disk 205 back to its initial position.

[0050] The reset member 208 is placed within the rotation space 202, between the locking disk 205 and the mounting end 106, so that the reset member 208 can act directly on the locking disk 205. When the locking disk 205 slides within the rotation space 202, the reset member 208 will be compressed and store elastic potential energy. When the external force disappears, the reset member 208 will push the locking disk 205 back to its original position, causing the locking teeth 206 to engage with the locking slots 204 again.

[0051] In one embodiment, a receiving seat 209 is provided on the side of the connecting seat 201 close to the mounting end 106, and one end of the reset member 208 close to the mounting end 106 is received within the receiving seat 209.

[0052] Specifically, the receiving seat 209 is located on the side of the connecting seat 201 close to the mounting end 106, forming a space for receiving one end of the reset member 208. One end of the reset member 208 close to the mounting end 106 is received within this receiving seat 209 to ensure that the reset member 208 maintains the correct position and orientation during operation.

[0053] In one embodiment, a receiving groove 210 is formed at one end of the locking disk 205 away from the locking teeth 206, and one end of the reset member 208 close to the locking disk 205 is received within the receiving groove 210.

[0054] Specifically, a receiving groove 210 is provided at one end of the locking disk 205 away from the locking teeth 206. The receiving groove 210 is used to place one end of the reset member 208 close to the locking disk 205. Furthermore, the reset member 208 is always positioned at a suitable position on the locking disk 205 during operation to maintain the required elastic deformation range. When the user operates the sliding shaft 207 to adjust the angle, the reset member 208 stores elastic potential energy in the compressed state. When the external force is removed, the reset member 208 releases the energy through its connection with the locking disk 205, and then pushes the locking disk 205 to reset.

[0055] In one embodiment, the ionic wind generating mechanism 100 includes a bellows 107 and a nozzle 108. The top of the bellows 107 is rotatably connected to an external connecting frame. A wind cavity 101 is formed inside the bellows 107. Two air holes 102 are respectively arranged on two opposite side surfaces of the bellows 107 along the first direction. An air outlet 103 is formed at the bottom of the bellows 107. The nozzle 108 is detachably installed at the air outlet 103. A wind channel 109 communicating with the wind cavity 101 is formed on the nozzle 108. The tip of the ion needle 104 can extend into the wind channel 109.

[0056] Specifically, through the rotational connection between the bellows 107 and the external connecting frame, the adjustability of the ionic wind generating direction is achieved. The wind cavity 101 inside the bellows 107 and the air holes 102 on both sides form a channel for air circulation, ensuring sufficient air supply. The air outlet 103 is located at the bottom of the bellows 107, facilitating the installation and disassembly of the nozzle 108.

[0057] The wind channel 109 inside the nozzle 108 communicates with the wind cavity 101, forming a complete air circulation path. The tip of the ion needle 104 extends into the wind channel 109, ensuring the effective release of ions. At the same time, it enables the ions to fully mix with the air flow, improving the generation efficiency and coverage range of the ionic wind.

[0058] In one embodiment, the ionic wind generating mechanism 100 further includes a partition board 110, a telescopic member 111, and an air duct 112. The partition board 110 is movably installed inside the wind cavity 101 to divide the inner cavity of the bellows 107 into two non - communicating installation cavities 115 and the wind cavity 101 from top to bottom. The wind cavity 101 is located below the installation cavity 115. The telescopic member 111 is installed inside the installation cavity 115, and the telescopic end of the telescopic member 111 is connected to the partition board 110. The air duct 112 is movably inserted through the wind channel 109 and extends into the wind cavity 101. The ion needle 104 is installed inside the air duct 112. The top end of the air duct 112 is hermetically connected to the partition board 110. An air inlet channel 113 is formed on the pipe wall of the air duct 112 located in the wind cavity 101, and the outlet of the air inlet channel 113 is arranged towards the tip of the ion needle 104. A wire passing hole 114 through which the wire connecting the ion needle 104 can pass is formed at the position of the partition board 110 facing the inner cavity of the air duct 112. The telescopic member 111 can drive the partition board 110 to drive the air duct 112 to move up and down along the inner cavity of the bellows 107.

[0059] Specifically, by setting the partition board 110, the internal space of the bellows 107 is reasonably divided, realizing functional zoning. The cooperation between the telescopic member 111 and the partition board 110 enables the position of the ion needle 104 to be flexibly adjusted, thereby changing the intensity and coverage range of the ionic wind.

[0060] The wire passing hole 114 on the partition board 110 solves the problem of power supply for the ion needle 104 while ensuring the sealing of the overall structure.

[0061] In actual operation, when it is necessary to adjust the ion wind intensity, the telescopic member 111 drives the isolation plate 110 to move, driving the air duct 112 and the ion needle 104 to lift together, thereby changing the position of the ion needle 104 in the air cavity 101, thus affecting the mixing effect of ions and air flow, and realizing the function of adjusting the ion wind intensity. At the same time, the movable design of the air duct 112 facilitates cleaning and maintenance, and the operator can easily take out the air duct 112 for cleaning or replace the ion needle 104.

[0062] Of course, it can be further clarified that in this embodiment, the air duct 112 exemplified is detachably mounted on the air duct 109 through a support 116.

[0063] In one embodiment, there are multiple air inlet channels 113, and the multiple air inlet channels 113 are circumferentially and spaced apart along the air duct 112.

[0064] Specifically, by providing multiple air inlet channels 113 circumferentially on the air duct 112, uniform distribution of the air inlets is achieved, thereby improving the generation efficiency and uniformity of the ion wind.

[0065] In actual operation, when the ion wind generating mechanism 100 is working, external air enters the interior of the air duct 112 through these uniformly distributed air inlet channels 113. Since the outlets of the air inlet channels 113 are arranged facing the tip of the ion needle 104, the entering air can directly contact the ions generated by the ion needle 104. The presence of the multiple air inlet channels 113 enables the air to surround the ion needle 104 from all directions, forming a uniform air flow field. Furthermore, it can ensure that the ions generated by the ion needle 104 can be fully mixed with the air, improving the generation efficiency and coverage range of the ion wind.

[0066] In one embodiment, there are multiple ionization static eliminators 30, and further included are: A mounting frame 10, an installation space 20 is formed on the mounting frame 10, and a plurality of mounting positions 90 spaced apart along a first direction are formed on one side of the mounting frame 10 facing the installation space 20. The number of ionization static eliminators 30 is the same as that of the mounting positions 90 and they are swingably arranged one by one. Among the two ionization static eliminators 30 located at the ends, one ion wind generating mechanism 100 is rotationally matched with one end of the mounting frame 10, and the free end 105 of the other angle adjustment mechanism 200 is rotationally matched with the other end of the mounting frame 10; and, A hose 40, the hose 40 sequentially communicates with all the air holes 102 along the length direction of the mounting frame 10; At least one ionization static eliminator 30 can rotate relative to the remaining ionization static eliminators 30 around the mounting frame 10 along a second direction so that the air outlet 103 blows out ion wind at an arbitrary angle.

[0067] Specifically, please refer to Figure 7 and Figure 8 . In this embodiment, by providing a plurality of mounting positions 90 spaced along the first direction on the mounting frame 10, and making the ionization static eliminators 30 correspond to the mounting positions 90 one by one and swingably arranged, independent adjustment of each ionization static eliminator 30 is realized. The special connection mode of the two ionization static eliminators 30 at the ends (one ion wind generating mechanism 100 is rotationally matched with one end of the mounting frame 10, and the free end 105 of the other angle adjustment mechanism 200 is rotationally matched with the other end of the mounting frame 10) provides additional flexibility for the whole system, enables the whole group of ionization static eliminators 30 to be adjusted as a whole, and at the same time maintains the independent adjustment ability of individual devices.

[0068] The hose 40 sequentially communicates with all the air holes 102 along the length direction of the mounting frame 10, thereby ensuring the continuity and uniformity of the air flow. The use of the hose 40 increases the adaptability of the system, so that the ionization static eliminator 30 is not restricted by the air flow supply when adjusting the angle.

[0069] In practical applications, the operator can precisely adjust the angle of each ionization static eliminator 30 according to the static electricity distribution in different areas. For example, in areas with relatively severe static electricity accumulation, the corresponding ionization static eliminator 30 can be adjusted to the optimal angle (i.e., ensuring the best static electricity removal effect) to provide a stronger static electricity elimination effect. At the same time, the ionization static eliminators 30 in other areas can maintain the original angle or be finely adjusted to maintain the overall static electricity balance.

[0070] In one embodiment, a rotating hinge 50 is provided at both ends of the mounting frame 10.

[0071] Specifically, when it is necessary to adjust the working angle of the entire static electricity elimination device, the operator can achieve this by rotating the hinges at both ends. For example, when dealing with the static electricity problem on an inclined surface, the entire mounting frame 10 can be adjusted to be parallel to the target surface and the air outlet 103 of each ionization static eliminator 30 is oriented at an angle towards the inclined surface, ensuring that all ionization static eliminators 30 can work at the optimal angle. At the same time, since each ionization static eliminator 30 still maintains the ability of independent adjustment, the operator can further finely adjust the angle of individual ionization static eliminators 30 on the basis of the overall adjustment to cope with local static electricity accumulation problems.

[0072] In addition, the design of the rotating hinges 50 at both ends also facilitates the installation and disassembly of the device. When maintenance or component replacement is required, the entire device can be flipped by rotating the hinges 50, which is convenient for accessing the internal structure, simplifies the maintenance process, and reduces the maintenance cost.

[0073] In some preferred embodiments, a conductive cable 60 is further provided on one side of the mounting bracket 10, and the conductive wires of the ion needles 104 of each ionization static eliminator 30 are rotatably engaged with and electrically connected to the conductive cable 60.

[0074] Specifically, when the conductive cable 60 is provided on one side of the mounting bracket 10, a plurality of insulating mounting seats 70 spaced along its length can be installed on one side of the mounting bracket 10. The conductive cable 60 sequentially passes through each insulating mounting seat 70 and extends to be electrically connected to an external power supply. After the installation of the conductive cable 60 is completed, a conductive slip ring 80 is respectively installed at the position of the conductive cable 60 corresponding to each ionization static eliminator 30. The conductive slip ring 80 is rotatably engaged with and electrically connected to the conductive cable 60, so that the conductive wire of the ion needle 104 in the ionization static eliminator 30 is connected to the conductive slip ring 80, and a long extension and telescopic section is ensured for the conductive wire of the ion needle 104. When the angle of a certain ionization static eliminator 30 needs to be adjusted, the operator can directly rotate the ionization static eliminator 30 without worrying about the electrical connection problem. The rotational engagement of the conductive wire with the conductive cable 60 ensures good electrical contact at any angle. For example, when dealing with static electricity problems on irregular surfaces, the angles of each ionization static eliminator 30 can be flexibly adjusted according to the surface shape without being restricted by the electrical connection, thereby achieving a more precise static elimination effect.

[0075] It can be further explained that since all electrical connections are concentrated on the conductive cable 60, the number of exposed wires is reduced, and the risk of short circuit or electric shock is lowered. At the same time, the concentrated electrical connection points are also convenient for insulation protection and regular inspection, further improving the safety and reliability of the device.

[0076] The above description is only an exemplary embodiment of the present invention and does not limit the patent scope of the present invention. Any equivalent structural transformation made under the technical concept of the present invention by using the content of the specification and drawings of the present invention, or any direct / indirect application in other related technical fields, is included in the patent protection scope of the present invention.

Claims

1. An ionization static eliminator, characterized in that: include: An ion wind generating mechanism, wherein the top of the ion wind generating mechanism can be rotatably matched with an external connecting frame, a wind cavity is formed inside the ion wind generating mechanism, both side surfaces of the ion wind generating mechanism along a first direction are formed with wind holes connecting the wind cavity with the outside, and the bottom of the ion wind generating mechanism is formed with an air outlet connected with the wind cavity, an ion needle is installed at the air outlet, the needle tip of the ion needle is arranged in a direction away from the wind cavity, and the ion needle is electrically connected with an external power supply through a wire; and, An angle adjustment mechanism, the angle adjustment mechanism having a free end and a mounting end that are spaced apart, the mounting end being connected to the side where one of the wind holes is located, and the free end being connectable to the external connection frame or another of the ion wind generating mechanisms; The ion wind generating mechanism can rotate around the external connecting frame along the second direction when the free end is close to the mounting end, and the ion wind generating mechanism can be locked when the free end is away from the mounting end.

2. The ionization static eliminator according to claim 1, characterized in that: The angle adjustment mechanism comprises: A connecting seat, wherein two ends of the connecting seat respectively form a locking end and the mounting end, the locking end extends in a direction away from the ion wind generating mechanism and forms a rotation space between the locking end and the mounting end, a rotation hole connected to the rotation space is formed on the locking end, and a locking groove arranged toward the mounting end is formed on the side surface of the locking end located in the rotation space; a locking plate, the locking plate being slidably mounted in the rotation space and having locking teeth formed thereon that can mesh with the locking groove; and, A sliding shaft, the sliding shaft can slide through the rotating hole and is connected to the locking plate, and one end of the sliding shaft extends out of the rotating hole to form the free end; The sliding shaft can push the locking plate to slide in the rotating space until the locking tooth is disengaged from the locking groove, and correspondingly the connecting seat drives the ion wind generating mechanism to rotate relative to the external connecting frame along the second direction.

3. The ionization static eliminator according to claim 2, characterized in that: The angle adjustment mechanism further includes a reset member, which is placed in the rotation space and located between the locking disk and the mounting end.

4. The ionization static eliminator according to claim 3, characterized in that: A receiving seat is arranged on one side of the connecting seat close to the mounting end, and one end of the resetting member close to the mounting end is received in the receiving seat.

5. The ionization static eliminator according to claim 3, characterized in that: An accommodating groove is formed at one end of the locking plate away from the locking tooth, and one end of the reset member close to the locking plate is accommodated in the accommodating groove.

6. The ionization static eliminator according to claim 5, characterized in that: The ion wind generating mechanism comprises: A bellows, wherein the top of the bellows can be rotatably connected to the external connecting frame, the wind cavity is formed in the bellows, the two wind holes are respectively arranged on two side surfaces of the bellows that are arranged opposite to each other along the first direction, and the air outlet is formed at the bottom of the bellows; and The air nozzle is detachably mounted on the air outlet, and an air duct communicating with the air cavity is formed on the air nozzle, and the needle tip of the ion needle can extend into the air duct.

7. The ionization static eliminator according to claim 6, characterized in that: The ion wind generating mechanism also includes: An isolation plate, the isolation plate being movably mounted in the air cavity to separate the inner cavity of the bellows into two upper and lower mounting cavities that are not connected to each other and the air cavity, wherein the air cavity is located below the mounting cavity; a telescopic member, the telescopic member being installed in the installation cavity, and a telescopic end of the telescopic member being connected to the isolation plate; and, The air duct is movably arranged in the air passage and extends into the air cavity. The ion needle is installed in the air duct. The top end of the air duct is sealed and connected with the isolation plate. An air inlet channel is formed on the tube wall of the air duct located in the air cavity. The outlet of the air inlet channel is arranged toward the needle tip of the ion needle. A threading hole for passing the wire connected to the ion needle is formed at the position of the isolation plate facing the inner cavity of the air duct. The telescopic member can drive the isolation plate to drive the air duct to rise and fall along the inner cavity of the bellows.

8. The ionization static eliminator according to claim 7, characterized in that: There are multiple air inlet channels, and the multiple air inlet channels are distributed at intervals along the circumference of the air duct.

9. The ionization static eliminator according to any one of claims 1 to 8, characterized in that: The ionization static eliminator has a plurality of devices, and further comprises: A mounting frame, wherein a mounting space is formed on the mounting frame, and a plurality of mounting positions spaced apart along a first direction are formed on one side of the mounting frame facing the mounting space, wherein the number of the ionization static eliminators is consistent with the number of the mounting positions and they are swingably arranged one by one, wherein one of the two ionization static eliminators located at the end has the ion wind generating mechanism rotatably matched with one end of the mounting frame, and the free end of the other angle adjustment mechanism rotatably matched with the other end of the mounting frame; and, A hose, wherein the hose is connected to all the air holes in sequence along the length direction of the mounting frame; At least one of the ionization static eliminators can rotate relative to the remaining ionization static eliminators around the mounting frame along the second direction so that the air outlet blows out deionized air toward any angle.

10. The ionization static eliminator according to claim 9, characterized in that: Both ends of the mounting frame are provided with a rotating hinge; and / or, A conductive cable is also provided on one side of the mounting frame, and the conductive wires of the ion needles of each of the ionization static eliminators are rotationally matched with the conductive cable and are electrically conductive.

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