JP4983828B2 - Bar type ionizer - Google Patents

Description

  The present invention relates to a bar ionizer, and more particularly to a bar ionizer that generates ions by applying an alternating voltage.

  Conventionally, in order to prevent electrostatic breakdown in the FPD (Flat Panel Display) glass substrate or film, adhesion of dust due to static electricity, and sticking of the substrates together, when removing static electricity generated in the manufacturing process, a static eliminator, so-called ionizer Was used. The type of ionizer is a fan-type ionizer that blows air containing generated ions onto the object to be neutralized by a fan, or a so-called rod-shaped ion that generates ions from multiple locations in the longitudinal direction, and neutralizes the air containing ions. There are bar-type ionizers that spray on objects.

  Here, the configuration of the bar ionizer will be briefly described. The bar ionizer includes a high voltage control unit that generates and controls a high voltage for generating ions, an ion generation unit that generates ions by the high voltage generated by the high voltage control unit, and blows the ions to the static elimination target. And a frame for accommodating the voltage control unit and the ion generation unit. The high voltage control unit and the ion generation unit are incorporated in the frame so as to have two stages in the vertical direction, that is, the height direction. The ion generation unit includes a plurality of discharge needles provided at predetermined intervals in the longitudinal direction. A high voltage generated by the high voltage control unit is applied to the discharge needles, corona discharge is generated near the tip of the discharge needles to ionize the air, and air containing ions is blown to the static elimination object Remove. The bar-type ionizer having such a configuration is, for example, in a clean room where an FPD is manufactured, so that the horizontal direction, that is, the longitudinal direction is parallel to the ceiling in the vicinity of the ceiling at the exit of the manufacturing apparatus (downward in the vertical direction) Alternatively, final static electricity is removed from the manufactured FPD glass substrate or the like, which is attached so that ions are sprayed in the horizontal direction.

  In recent years, there are a plurality of types of bar ionizers with different lengths in the longitudinal direction, but the size of FPD glass substrates, etc., which are objects of charge removal, has increased. There is a request.

  In addition, the technique regarding the bar-type ionizer having such a configuration is disclosed in Japanese Patent Laid-Open No. 2005-243655 (Patent Document 1).

JP 2005-243655 A

  About the flame | frame with which a bar-type ionizer is equipped, high rigidity is calculated | required from a viewpoint of protection of the high voltage control part and ion generation part which are accommodated. Further, the ease of manufacturing the bar-type ionizer, that is, good assemblability when the high voltage control unit and the ion generation unit are accommodated in the frame is also required.

  Here, with respect to the conventional frame, from the viewpoint of improving assemblability, like a bar-type ionizer 101 shown in FIG. A bar-type ionizer 111 shown in FIG. 13 has a structure in which a molding frame is combined in the vertical direction as a two-part dividing system. Note that the frame provided in the bar-type ionizer disclosed in Patent Document 1 is of the type shown in FIG. 12 and 13 and FIG. 14 to be described later are cross-sectional views when the bar ionizer 101 is cut along a plane orthogonal to the longitudinal direction. From the viewpoint of easy understanding, some members are not hatched in the following cross-sectional views.

  Referring to FIG. 12, the frame 102 provided in the bar-type ionizer 101 includes a first frame constituent member 103 and a second frame constituent member 104. At the time of assembly, the above-described high voltage control unit and ion generation unit are accommodated in one or both of the frame constituent members 103 and 104 in advance. Then, the fitting portion 105 provided on the first frame constituting member 103 is fitted to the fitting portion 106 provided on the second frame constituting member 104 to assemble the frame 102. Referring to FIG. 13, the frame 112 provided in the bar-type ionizer 111 includes a first frame constituent member 113 and a second frame constituent member 114. The frame 112 is formed by combining the first frame constituent member 113 and the second frame constituent member 114 in the vertical direction and fitting the respective fitting portions 115 and 116 together. For these bar-type ionizers 101 and 111 described above, the frames 102 and 103 are easy to assemble, but it is necessary to combine the frame components divided into two. If it does so, in the case of the fitting for combining two frame structural members, the clearances 107 and 117 must be provided, As a result, the rigidity of the frames 102 and 112 will fall.

  If the rigidity of the frame is insufficient in the bar-type ionizer, the connecting portion of the high voltage wiring connected in the longitudinal direction in the ion generating portion may be fatigued due to the bending in the longitudinal direction or cause a contact failure. The connection of the high voltage wirings in the longitudinal direction in the ion generating part is structured such that the periphery of the connection portion of the high voltage wirings is solidified with a resin in consideration of insulation with peripheral members and the like. Here, when bending occurs in the longitudinal direction of the frame, a load is applied to the resin portion, and there is a possibility that a crack of the resin may occur. In addition, if the rigidity of the frame is low, a plurality of workers who support the bar-type ionizer from the lower side in the longitudinal direction are required in the installation work from the viewpoint of preventing the deflection when the bar-type ionizer is attached to the ceiling. Furthermore, a strong packaging is also required from the viewpoint of preventing deflection during transportation.

  On the other hand, the U-shaped integral frame 122 provided in the bar-type ionizer 121 as shown in FIG. 14 has higher rigidity than the frame provided in the bar-type ionizer shown in FIG. 12 and FIG. It can be configured as follows. However, there is only one opening 125 of the frame 122, and it is difficult to assemble the high voltage control unit 123 and the ion generation unit 124 in the frame 122 at the time of assembling work. Specifically, high voltage wiring must be performed after the high voltage substrate is incorporated in the frame 122, and workability is very poor. Furthermore, the assembly order, that is, the accommodation order of each member is also restricted. In particular, when the opening 125 is small or when the opening 125 is narrow, this tendency becomes more prominent.

  An object of the present invention is to provide a bar-type ionizer that can be easily assembled and can have high rigidity.

  The bar-type ionizer according to the present invention has a plurality of discharge needles provided at predetermined intervals in the longitudinal direction. The bar ionizer generates a high voltage for generating ions by the discharge needle and controls the generated high voltage, and the high voltage generated and controlled by the high voltage control unit is applied to the discharge needle to perform ionization. And an ion generating part for generating a high voltage control part and a frame for accommodating the ion generating part. The frame includes a pair of side wall portions and a partition portion that connects the pair of side wall portions so as to form first and second accommodating portions having first and second openings, respectively. The high voltage control unit is accommodated in the first accommodation unit, and the ion generation unit is accommodated in the second accommodation unit.

  According to the bar-type ionizer having such a configuration, the frame that accommodates the high-voltage control unit and the ion generation unit includes the pair of side wall portions and the partition portion, so that the section modulus can be increased and the rigidity can be increased. . Further, when the high voltage control unit and the ion generation unit are accommodated inside the frame, the high voltage control unit and the ion generation unit can be easily accommodated using the first and second openings. Therefore, such a bar-type ionizer can be easily assembled and can have high rigidity.

  Preferably, the cross-sectional shape when the frame is cut in a direction intersecting with the longitudinal direction is substantially H-shaped.

  In a more preferred embodiment, the frame material is aluminum.

  More preferably, a pair of side wall part and a partition part are integral.

  More preferably, the frame is manufactured by extrusion molding.

  According to the bar-type ionizer having such a configuration, the frame that accommodates the high-voltage control unit and the ion generation unit includes the pair of side wall portions and the partition portion, so that the section modulus can be increased and the rigidity can be increased. . Further, when the high voltage control unit and the ion generation unit are accommodated inside the frame, the high voltage control unit and the ion generation unit can be easily accommodated using the first and second openings. Therefore, such a bar-type ionizer can be easily assembled and can have high rigidity.

It is sectional drawing at the time of cut | disconnecting the bar-type ionizer which concerns on one Embodiment of this invention by the plane orthogonal to a longitudinal direction. It is sectional drawing which shows the flame | frame contained in the bar-type ionizer shown in FIG. 1 is an exploded perspective view of a bar-type ionizer according to an embodiment of the present invention. It is a side view of the bar type ionizer concerning one embodiment of this invention, and is a figure seen from the direction shown by arrow IV in FIG. FIG. 5 is a side view of a bar-type ionizer according to an embodiment of the present invention, as viewed from the direction indicated by an arrow V in FIG. 4. It is a side view of the bar type ionizer concerning one embodiment of this invention, and is a figure seen from the direction shown by arrow VI in FIG. FIG. 6 is a cross-sectional view of a portion of the bar-type ionizer shown in FIG. 5 taken along the VII-VII cross section in FIG. 5. It is an enlarged view of the part shown by VIII among the bar-type ionizers shown in FIG. It is an enlarged view of the part shown by IX among the bar-type ionizers shown in FIG. It is a perspective view which shows the end cap contained in the bar-type ionizer which concerns on one Embodiment of this invention. It is the figure which looked at the end cap shown in FIG. 10 from the longitudinal direction. It is sectional drawing of the conventional bar-type ionizer provided with the flame | frame formed combining a frame structural member in the left-right direction. It is sectional drawing of the conventional bar-type ionizer provided with the flame | frame formed combining a frame structural member in an up-down direction. It is sectional drawing of the bar-type ionizer provided with the frame of the cross-sectional U shape in the past.

  Embodiments of the present invention will be described below with reference to the drawings. First, the overall configuration of a bar-type ionizer according to an embodiment of the present invention will be described. FIG. 1 is a cross-sectional view of a bar-type ionizer according to an embodiment of the present invention when cut in a direction intersecting with the longitudinal direction, specifically, when cut with a plane orthogonal to the longitudinal direction. . FIG. 2 is a sectional view showing a frame included in the bar-type ionizer shown in FIG. FIG. 3 is an exploded perspective view of the bar-type ionizer according to one embodiment of the present invention. 4, 5 and 6 are side views of a bar-type ionizer according to an embodiment of the present invention. 4 is a view as seen from the direction indicated by the arrow IV in FIG. FIG. 5 is a view as seen from the direction indicated by the arrow V in FIG. 6 is a view as seen from the direction indicated by the arrow VI in FIG. FIG. 7 is a cross-sectional view of the bar-type ionizer according to the present invention cut along the VII-VII cross section in FIG. FIG. 8 is an enlarged view of a portion indicated by VIII in FIG. FIG. 9 is an enlarged view of a portion indicated by IX in FIG. FIG. 10 is a perspective view showing an end cap included in the bar-type ionizer shown in FIG. FIG. 11 is a view of the end cap shown in FIG. 10 as viewed from the longitudinal direction. From the viewpoint of easy understanding, etc., a part of the longitudinal direction of the bar ionizer is not shown in FIGS. 4, 6, 7 and 9.

  1 to 11, a bar ionizer 11 according to an embodiment of the present invention is rod-shaped and has a plurality of discharge needles provided at predetermined intervals in the longitudinal direction. The configuration of the discharge unit including the discharge needle will be described later.

  The bar-type ionizer 11 generates a high voltage for generating ions by a discharge needle and controls the generated high voltage, and discharges the high voltage generated and controlled by the high voltage control unit 21. An ion generation unit 31 that generates ions over the needle, and a frame 41 that houses the high voltage control unit 21 and the ion generation unit 31 are included.

  The high voltage control unit 21 includes a high voltage module 22 that generates a high voltage, a control module 23 that controls the high voltage generated by the high voltage module 22, and an input / output module 24 that serves as an input / output interface with an external power supply. And a dummy module 25 that performs only length dimension adjustment and wiring in the longitudinal direction. The high voltage module 22 includes a terminal 26 for outputting the generated high voltage to the ion generator 31. In the high voltage module 22, for example, an alternating voltage of about ± 7.5 kV is generated. The control module 23 includes a display lamp 27 composed of a plurality of LEDs (Light Emitting Diodes) indicating an operating state, a frequency changeover switch 28 for switching the frequency of the generated AC voltage, and a substrate having a control circuit for controlling a high voltage. 29. The high voltage module 22, the control module 23, the input / output module 24, and the dummy module 25 are each rod-shaped, and are housed and arranged in a frame 41 described later so as to be continuous in the longitudinal direction. A plurality of dummy modules 25 are provided according to the length in the longitudinal direction, but one high voltage module 22, control module 23, and input / output module 24 are provided for each bar-type ionizer 11. .

  The ion generation unit 31 includes a plurality of rod-shaped discharge modules 32 and a plurality of needle modules 33 attached to the discharge modules 32. In the discharge module 32, a high-voltage conducting wire 34 is arranged so as to extend in the longitudinal direction. Further, an air flow path 35 serving as an air passage is provided in the discharge module 32 so as to penetrate in the longitudinal direction. The plurality of discharge modules 32 are arranged so as to be connected in the longitudinal direction. When connected, between the adjacent discharge modules 32, the above-mentioned conducting wire 34 and the air flow path 35 are connected. Further, an O-ring 36 is provided in the discharge module 32 so as to prevent air leakage when the air flow path 35 is connected.

  The needle module 33 has a sharp pointed tip, and includes a conductive metal discharge needle 37 and a discharge needle holder 38 that supports the discharge needle 37 and protects the discharge needle 37. The discharge needle 37 is disposed so as to extend in the vertical direction. The needle module 33 is also provided with an air flow path 39 that penetrates around the discharge needle 37 so as to extend in the vertical direction. The discharge needle holder 38 is configured such that the tip of the discharge needle 37 is not exposed from the needle module 33. When the needle module 33 is attached to the discharge module 32, the discharge needle 37 and the lead wire 34 provided in the discharge module 32 come into contact with each other, and the air flow path 39 and the air flow path 35 provided in the discharge module 32 are connected. It is configured to be connected.

  The needle module 33 is provided so as to protrude from the lower side of the discharge module 32, specifically from the lower surface of the discharge module 32. One discharge module 32 is provided with a total of three needle modules 33 at predetermined intervals. In this case, specifically, in the needle modules 33 arranged at both ends, the one end side is closer to the one end portion and the other end side is farther from the other end portion so as to be asymmetric in the longitudinal direction. Provided in position. In this way, when the discharge module 32 is connected using the discharge module 17 constituted by one needle module 33, the needle module 33 can be positioned at positions close to both ends of the bar-type ionizer 11. , Efficient neutralization in the longitudinal direction can be performed. Specifically, air containing ions can be blown to both ends of the bar-type ionizer 11 in the longitudinal direction.

  The needle module 33 is detachably provided on the discharge module. Specifically, the needle module 33 is rotated by a predetermined angle to be attached to the discharge module 32 and detached from the discharge module 32. This facilitates replacement of the consumable needle module 33, cleaning and washing of the discharge needle 37, and improves the maintainability of the bar-type ionizer 11.

  In this embodiment, one needle module 33 is provided in one discharge module 32. However, the present invention is not limited to this, and one or two needle modules 33 are provided for one discharge module 32. It may be provided, or four or more needle modules 33 may be provided. Furthermore, the positions at which the plurality of needle modules 33 are provided may not be left-right asymmetric in the longitudinal direction. For example, the needle modules 33 may be provided symmetrically in the left-right direction. That is, the number and position of the needle modules 33, the interval between the plurality of needle modules 33, and the like are arbitrarily selected depending on, for example, the required characteristics of the bar ionizer 11, the air pressure, and the like.

  Here, the mechanism of ion generation in the bar-type ionizer 11 will be briefly described. The alternating high voltage generated by the high voltage module 22 is set to a predetermined frequency by the control module 23. A voltage is applied to the discharge needle 37 through the lead wire 34. Then, the air around the tip of the discharge needle 37 is electrolyzed, and positive ions and negative ions are generated. And the air containing the ion generated in the periphery of the front-end | tip part of the discharge needle 37 is blown with the air sent by the air flow paths 35 and 39 so that it may blow on the downward direction of the perpendicular direction. Here, since the voltage is alternating current, positive ions and negative ions are alternately generated in time from the discharge needle 37. The positive ions and negative ions generated alternately are layered in the longitudinal direction and are sprayed onto the static elimination object.

  The bar ionizer 11 includes a pair of end caps 12 and 13 at both ends in the longitudinal direction. The bar-type ionizer 11 includes a pair of air supply ports 15 and 16 that are attached to the end caps 12 and 13 and supply air into the bar-type ionizer 11. The first end cap 12 is attached to the bar-type ionizer 11 so as to hold the high voltage module 22 and the discharge module 32 arranged on one end side from the one end side. Similarly, the second end cap 13 is attached to the bar ionizer 11 so as to hold the input / output module 24 and the discharge module 32 arranged on the other end side from the other end side. The first end cap 12 includes a metal plate 14 provided so as to extend in the vertical direction. By this plate 14, the terminal 26 included in the high voltage module 22 and the conductive wire 34 provided in the discharge module 32 are connected. That is, when the first end cap 12 is attached, the terminal 26 and one end of the plate 14 are electrically connected, and the conductor 34 and the other end of the plate 14 are electrically connected. And the high voltage control part 21 and the ion generation part 31 will be conduct | electrically_connected. The second end cap 13 is not provided with the plate 14 and simply connects the input / output module 24 and the discharge module 32 in the vertical direction.

  The bar-type ionizer 11 is configured by connecting a plurality of the above-described discharge modules 32 in the longitudinal direction. When the bar-type ionizer 11 is assembled, the bar-type ionizer 11 is longer than the required length in the longitudinal direction of the bar-type ionizer 11. The number of discharge modules 32 connected in the direction is adjusted. That is, according to the required length of the bar-type ionizer 11 in the longitudinal direction, the frame 41 and the number of discharge modules 32 corresponding to the required length are prepared, and these are connected in the longitudinal direction. Is possible. Since only one high voltage module 22, one control module 23, and one input / output module 24 is required for each bar-type ionizer 11, the dimension in the length direction is adjusted according to the number of discharge modules 32. For the above, the dummy module 25 described above is used. That is, the dummy modules 25 are prepared according to the number of the discharge modules 32, arranged in the longitudinal direction, and the length adjustment in the high voltage control unit 21 is performed.

  Next, the structure of the frame 41 that houses the high voltage control unit 21 and the ion generation unit 31 will be described. The frame 41 includes a pair of side wall portions 42 and 43. The pair of side wall portions 42 and 43 each have a flat plate shape that is long in the longitudinal direction. The pair of side wall portions 42 and 43 are provided so as to be substantially parallel to the longitudinal direction. The pair of side wall portions 42 and 43 are provided so that the upper end portion and the lower end portion thereof are aligned in the vertical direction. Specifically, the vertical position of the upper end 51 of the side wall 42 is the same as the vertical position of the upper end 52 of the side wall 43, and the vertical position of the lower end 53 of the side wall 42 is the same. The position is the same as the position in the vertical direction of the lower end portion 54 of the side wall portion 43.

  The frame 41 forms a first housing part 47 having a first opening 45 and a pair of side wall parts 42, so as to form a second housing part 48 having a second opening 46. The partition part 44 which connects 43 is provided. That is, the frame 41 includes a partition portion 44 that connects the pair of side wall portions 42 and 43 so as to form first and second accommodating portions 47 and 48 having first and second openings 45 and 46, respectively. Prepare. The partition portion 44 is also a flat plate shape that is long in the longitudinal direction. The partition part 44 is provided so as to be orthogonal to the pair of side wall parts 42 and 43. The partition part 44 is provided so as to extend from the central part in the vertical direction of the side wall parts 42 and 43. About what is called plate | board thickness of the side wall parts 42 and 43 and the partition part 44, it is comprised substantially equally. The cross-sectional shape of the frame 41 configured by the pair of side wall portions 42 and 43 and the partition portion 44, specifically, the cross-sectional shape when the frame 41 is cut along a plane orthogonal to the longitudinal direction is a substantially H shape. Further, in the cross section shown in FIG. 2, the shape of the frame 41 in the vertical and horizontal directions is configured to be symmetric.

  Here, when the first accommodating portion 47 is set to the upper side in the vertical direction and the second accommodating portion 48 is set to the lower side in the vertical direction, the first accommodating portion 47 includes the above-described high voltage control unit 21, specifically Accommodates a high-voltage module 22, a control module 23, an input / output module 24, and a plurality of dummy modules 25. In this case, each member is accommodated on the upper side in the vertical direction using the first opening 45. On the other hand, the above-described ion generation unit 31, specifically, a plurality of discharge modules 32 is stored in the second storage unit 48. In this case, the second opening 46 is used to accommodate the lower side in the vertical direction.

  According to the bar-type ionizer 11 having such a configuration, the frame 41 that accommodates the high-voltage control unit 21 and the ion generation unit 31 includes the pair of side wall portions 42 and 43 and the partition portion 44, so that the section coefficient is increased. , Rigidity can be increased. Further, when the high voltage controller 21 and the ion generator 31 are accommodated in the first and second accommodating portions 47 and 48 inside the frame 41, the first and second openings 45 and 46 are used. And can be easily accommodated. Therefore, such a bar-type ionizer 11 can be easily assembled and can have high rigidity. In this case, since the rigidity is high, it is possible to suppress the bending at the time of attaching the bar ionizer 11 without requiring a plurality of workers when attaching the bar ionizer 11 to the ceiling. Further, the packaging can be simplified even when the bar-type ionizer 11 is transported.

  Here, the frame 41 is a reference electrode made of metal, that is, a conductor and having a reference potential that serves as a reference for discharge with respect to the discharge needle 37. Here, in order to generate ions in an alternating voltage, the frame 41 serves as a counter electrode. Specifically, the lower end portions 53 and 54 of the side wall portions 42 and 43 of the frame 41 are provided so as to be within a predetermined distance of the discharge needle 37, and the frame 41 is grounded. According to the bar-type ionizer 11 having such a configuration, since the frame 41 is used as a counter electrode, a metal plate as a counter electrode is prepared as a new member, and this is provided on the lower side of the bar-type ionizer 11, specifically, There is no need to provide screws on the discharge module 32 side. Therefore, an inexpensive configuration can be obtained. Furthermore, problems such as falling screws can be solved. Note that the frame 41 configured as described above serves as an ion balance electrode that controls the ion balance of ions to be generated even when a DC voltage is applied.

  Further, in the vertical direction, the high voltage module 22, the frame 41, the air flow path 35, the conducting wire 34, and the discharge needle 37 are arranged in this order from the upper side in the vertical direction. That is, a frame 41 is provided on the upper side in the vertical direction of the air flow path 35 that extends in the longitudinal direction and allows the air for blowing ions generated by the ion generation unit 31 to pass therethrough. On the lower side in the vertical direction, there is provided a conducting wire 34 that extends in the longitudinal direction and applies a high voltage generated by the high voltage control unit 21 to the discharge needle 37. By providing the air flow path 35 having a small relative dielectric constant between the discharge needle 37 and the conductive wire 34 and the frame 41 serving as the reference electrode, specifically, the partition portion 44 included in the frame 41, parasitics formed therebetween. A capacity | capacitance can be made small and a voltage can be supplied efficiently.

  The frame 41 is manufactured by extrusion molding. Here, the manufacturing method of the frame will be briefly described. The frame is manufactured by extruding a metal material in the longitudinal direction. According to such a manufacturing method, it can manufacture comparatively easily. In addition, about the flame | frame 41 manufactured by such extrusion molding, the difference with the flame | frame in cutting manufacture can be grasped | ascertained from the state of the flow direction of the material in the inside of the material or the surface vicinity, for example.

  The material of the frame 41 is preferably aluminum. By adopting such a material, for example, the frame 41 and, by extension, the bar-type ionizer 11 can be made highly rigid.

  In the above embodiment, the frame includes a pair of flat side walls. However, the present invention is not limited to this, and for example, the side walls may be curved, and the surface thereof is curved. Etc. may be included. Moreover, the shape need not be symmetrical in the vertical and horizontal directions. Further, the partition portion does not have to be substantially at the center of the side wall portion, and is slightly displaced in the vertical direction, and the volumes of the first and second storage portions may be greatly different. Further, the partition portion may be curved. Furthermore, a cutout, an opening hole, a recessed part, a convex part, etc. may be provided in the side wall part and the partition part as needed.

  In the above embodiment, the frame is made of metal. However, the frame is not limited to this, and may be made of resin, or may be a member in which resin and metal are combined. Moreover, it does not need to be integrally molded, and a plurality of members may be combined to have the above configuration.

  As mentioned above, although embodiment of this invention was described with reference to drawings, this invention is not limited to the thing of embodiment shown in figure. Various modifications and variations can be made to the illustrated embodiment within the same range or equivalent range as the present invention.

  The bar ionizer according to the present invention is effectively used for a long bar ionizer that is long in the longitudinal direction.

  11 bar type ionizer, 12, 13 end cap, 14 plates, 15, 16 air supply port, 21 high voltage control unit, 22 high voltage module, 23 control module, 24 input / output module, 25 dummy module, 26 terminal, 27 LED , 28 Frequency selector switch, 29 substrate, 31 ion generator, 17, 32 discharge module, 33 needle module, 34 lead wire, 35, 39 air flow path, 36 O-ring, 37 discharge needle, 38 discharge needle holder, 41 frame, 42, 43 Side wall part, 44 Partition part, 45, 46 Opening part, 47, 48 Storage part, 51, 52, 53, 54 End part.

Claims (5)

A bar-type ionizer having a plurality of discharge needles provided at predetermined intervals in the longitudinal direction,
A high voltage control unit that generates a high voltage for generating ions by the discharge needle and controls the generated high voltage;
An ion generator for generating ions by applying a high voltage generated and controlled by the high voltage controller to the discharge needle;
A frame for accommodating the high voltage control unit and the ion generation unit,
The frame includes a pair of side wall portions and a partition portion that connects the pair of side wall portions so as to form first and second accommodating portions having first and second openings, respectively.
The cross-sectional shape when the frame is cut in a direction crossing the longitudinal direction is a substantially H-shape,
The pair of side wall portions and the partition portion are integrated,
The high voltage control unit is housed in the first housing unit,
The ion generating part is a bar-type ionizer housed in the second housing part. The bar type ionizer according to claim 1, wherein the high voltage control unit and the ion generation unit are connected to each other at an end. The first opening of the frame is covered by the high voltage controller that is detachable from the frame,
The bar-type ionizer according to claim 1 or 2, wherein the second opening of the frame is covered by the ion generating part that is detachable from the frame. The bar type ionizer according to claim 1, wherein the frame is made of aluminum. The bar-type ionizer according to claim 1, wherein the frame is manufactured by extrusion molding.

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