JP2007213986A - High pressure lead wire wiring structure of ion generating device - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a high pressure lead wire wiring structure of an ion generating device reduced in variation in ion generation amount. <P>SOLUTION: The ion generation device 1 is provided with a case member 2, an electrode panel 23, a panel fixing frame 3, and a voltage impression part 28. The voltage impression part 28 is formed at the printed-circuit board 10. The voltage generated at the voltage impression part 28 is impressed on the electrode panel 23 through high pressure lead wires 26, 27. Urethane resin 4 is filled between the panel fixing frame 3 and the printed-circuit board 10. A folding-back portion 3b which is folded back toward inside of the case member 2 and faces the portion 3a located at the outside is provided at the panel fixing frame 3. The high pressure lead wires 26, 27 are interposed between the folding-back portion 3b and the portion 3a located at the outside. <P>COPYRIGHT: (C)2007,JPO&INPIT

Description

  The present invention relates to a high voltage lead wire routing structure for an ion generator, and more particularly to a high voltage lead wire routing structure for connecting an output side of a high voltage transformer for supplying a predetermined voltage and an electrode for generating ions in the ion generator. is there.

  In recent years, an air conditioner such as an air purifier, an air conditioner, a humidifier, an electric fan heater, or the like has been increasingly equipped with an ion generator that generates ions for purifying air. One document that discloses this type of ion generator is Patent Document 1.

As shown in FIGS. 20 and 21, the conventional ion generator 101 includes a voltage applying unit 128 including a step-up transformer 122 that generates a predetermined high voltage, and an electrode panel 123 that generates ions. In the voltage application unit 128, a voltage necessary to generate ions by generating discharge between the electrodes constituting the electrode panel 123 is generated. As shown in FIG. 22, the voltage generated by the step-up transformer 122 of the voltage application unit 128 is applied to the electrode panel 123 via the high-voltage lead wires 126 and 127. Components for generating a high voltage such as a step-up transformer 122 are arranged on a printed circuit board 110 (see FIG. 20 or FIG. 21), and a urethane resin 104 is filled between the printed circuit board 110 and the electrode panel 123. .
JP 2004-6296 A

  However, the conventional ion generator has the following problems. In the ion generator 101, a high voltage generated between the secondary windings 122 b and 122 c of the step-up transformer 22 is applied to the electrode panel 123 of the ion generating element via the high voltage lead wires 126 and 127, and is generated between the electrode panels 123. Ions are released by the discharge. When the high-voltage lead wires 126 and 127 are attached to the electrode panel 123 by soldering, a certain length is required for the high-voltage lead wires 126 and 127 in order to improve workability.

  Therefore, when the electrode panel 123 is accommodated in the case 102 of the ion generator 101, the high-voltage lead wires 126 and 127 are slackened in the case 102 and are played. Further, the state of the slack is different for each ion generator 101 and is not constant. As a result, the flow of the urethane resin 104 filled between the printed circuit board 110 and the electrode panel 123 is also different for each ion generator 101. Differently, the finished state of the ion generator 101 varies.

  Then, when the high voltage lead wires 126 and 127 are loosely played in the case 102, the high voltage lead wires 126 and 127 overlap each other, and it is complicated to fit the electrode panel 123 into the case 102. Further, the overlapping state of the high-voltage lead wires 126 and 127 also varies, which causes the capacitance between the high-voltage lead wires 126 and 127 to vary. If the capacitance between the high-voltage lead wires 126 and 127 varies, the load capacitance of the high-voltage output varies, and as a result, the high-voltage generation voltage varies and the amount of ions generated varies.

  The present invention has been made to solve the above-described problems, and an object of the present invention is to provide a high-voltage lead wire routing structure of an ion generator in which variations in the amount of generated ions are reduced.

  The high-voltage lead wire routing structure of the ion generator according to the present invention includes a predetermined case member, an electrode panel, a voltage application unit, a high-voltage lead wire, a holding member, and a filler. The electrode panel is disposed at a predetermined position in the case member and has at least one pair of electrodes. The voltage application unit is disposed at another predetermined position on the case member, and applies a predetermined voltage between the pair of electrodes. The high-voltage lead wire electrically connects the voltage application unit and the pair of electrodes. The holding member is disposed in the case member and holds the high-voltage lead, and forms a predetermined path of the high-voltage lead from the voltage application unit to the electrode panel. The filler is filled in a region between the voltage application unit and the electrode panel.

  According to this configuration, the high-voltage lead wire that electrically connects the voltage application unit and the pair of electrodes is held by the holding member in the case member. Thereby, when filling the area | region between an electrode panel and a voltage application part with a filler, a high voltage | pressure lead wire does not inhibit the flow of a filler, and can fill a filler satisfactorily. In addition, when filling the filler, the high-voltage lead wires do not overlap each other due to the flow of the filler, or the high-voltage lead wires do not sag, and variations in the load capacity of the high-voltage output can be suppressed. Thus, variations in the amount of generated ions can be reduced.

  More specifically, a panel fixing frame that is attached to the case member and fixes the electrode panel is provided. The panel fixing frame includes a first portion to which the electrode panel is fixed as a holding member, and the first portion. A second portion that is folded back from one end of the case member toward the inside of the case member and faces the first portion, and the high-voltage lead wire is connected to the first portion of the panel fixing frame and the second portion. It is preferable to hold | maintain in the aspect pinched | interposed between 2 parts.

  In this case, the high-voltage lead wire can be easily held by sandwiching the high-voltage lead wire between the first portion and the second portion.

  Moreover, it is preferable that the folding | turning part of the 1st part and the 2nd part in the panel fixing frame contains the thin part made thinner than the thickness of the 1st part and the 2nd part.

  Thereby, when an operator assembles an ion generator, a holding member can be bent easily.

Furthermore, it is preferable that a streaky crease is formed in the thin portion.
Thereby, a holding member can be bent more easily.

  Moreover, it is preferable that the folding | turning part of the 1st part and 2nd part in a panel fixing frame is made into a hinge.

Thereby, the holding member can be bent more easily.
Furthermore, an insulating sheet having higher flexibility than the first part and the second part may be disposed at the folded portion between the first part and the second part in the panel fixing frame. .

Also in this case, the holding member can be easily bent.
The holding member may include a wound body around which the high-voltage lead wire is wound.

  In this case, the sag of the high-voltage lead wire can be easily eliminated by winding the high-voltage lead wire around the protrusion.

  As an aspect of attaching the protrusion, first, there is an aspect in which a substrate portion to which a voltage application portion is attached is provided and the wound body is attached to the substrate portion so as to protrude toward the electrode panel. In addition, a board portion to which the voltage application portion is attached and a panel fixing frame that is attached to the case member and fixes the electrode panel are attached to the panel fixing frame so that the wound body protrudes toward the substrate portion. There are some embodiments.

  Further, the holding member may include a molded body obtained by molding a groove portion into which the high-voltage lead wire is fitted.

  In this case, the sag of the high-voltage lead wire can be easily eliminated by fitting the high-voltage lead wire along the groove formed in the molded body.

  As an attachment mode of the molded body, first, there is a mode in which a substrate portion to which a voltage application unit is attached is provided, and the molded body is positioned on the substrate portion and arranged in parallel to the substrate portion. Further, there is a mode in which the molded body is positioned on the substrate portion and arranged perpendicular to the substrate portion.

Embodiment 1
The high-voltage lead wire routing structure of the ion generator according to Embodiment 1 of the present invention will be described. Here, as an embodiment for holding the high-voltage lead wire, a structure in which the high-voltage lead wire is sandwiched is taken as an example. First, as shown in FIG. 1, the ion generator 1 includes a case member 2, an electrode panel 23 that generates ions, a panel fixing frame 3 that fixes the electrode panel 23, and a voltage application unit 28 that generates a predetermined high voltage. It is configured with. The voltage application unit 28 is formed on the printed board 10 disposed on the case member 2. The printed circuit board 10 is disposed near the center in the case member 2. The fixed frame 3 is disposed so as to constitute an outer peripheral portion of the case member 2. The voltage generated by the voltage application unit 28 is applied to the electrode panel 23 via predetermined high-voltage leads 26 and 27 connected to the voltage application unit 28 and the electrode panel 23. A urethane resin 4 is filled between the panel fixing frame 3 and the printed board 10 (space).

  As shown in FIG. 2, the panel fixing frame 3 is provided with a folded portion 3 b that is folded back toward the inside of the case member 2 and faces a portion 3 a located on the outside. High-voltage lead wires 26 and 27 are sandwiched between the folded portion (portion located on the inner side) 3b and the portion 3a located on the outer side.

  Next, the circuit of the ion generator 1 will be described. In the ion generator 1, as shown in FIG. 3, when a DC voltage of, for example, 12V is applied between the input terminal (+ V) and the ground terminal (GND), the current flows through the current limiting resistor 11 and flows into the capacitor 12. Charged. The voltage charged in the capacitor 12 is divided by the resistor 15 and the resistor 16. When the reference voltage of the shunt regulator 13 is reached, the shunt regulator 13 is turned on, the transistor 14 is turned on, a voltage is applied to the gate of the thyristor 21 via the resistor 18, and the thyristor 21 is turned on. .

  At this time, the thyristor 21 is short-circuited by the loop of the capacitor 12 and the primary winding 22a of the step-up transformer 22 and the thyristor 21, and the charge charged in the capacitor 12 is discharged to generate an impulse voltage in the primary winding 22a. Let As a result, a high voltage is generated between the secondary windings 22 b and 22 c of the step-up transformer 22, and the generated high voltage is applied to the electrode panel 23 of the ion generating element via the high voltage leads 26 and 27. When a high voltage is applied to the electrode panel 23, a discharge occurs between the electrode panels 23, and ions are released.

  On the other hand, when a predetermined operating voltage for operating the relay 24 is applied to the relay terminal (RYON), the relay 24 is operated, and the secondary winding of the step-up transformer 22 is connected to the ground terminal (GND) via the 22c diode 25. , Negative ions will be released. When the relay 24 is in an open state, both positive ions and negative ions are released.

  In the above-described high-voltage lead wire routing structure in the ion generator 1, the panel fixing frame 3 that fixes the electrode panel 23 is provided with the folded portion 3b that is folded toward the inside of the case member 2 and faces the portion 3a that is located outside. Thus, the high-voltage lead wires 26 and 27 can be sandwiched between the folded portion (portion located on the inner side) 3b and the portion 3a positioned on the outer side.

  As a result, when the urethane resin 4 is filled in the space between the panel fixing frame 3 and the printed circuit board 10, the high-pressure lead wires 26 and 27 do not obstruct the flow of the urethane resin 4, and the urethane resin 4 is satisfactorily filled. can do. Further, when the urethane resin 4 is filled, the high-pressure lead wires 26 and 27 are not overlapped with each other by the flow of the urethane resin 4 or the high-pressure lead wires 26 and 27 are not slackened. The variation in the load capacity is suppressed, and the variation in the amount of generated ions can be reduced.

Embodiment 2
Here, a first example of a variation of the panel fixing frame for fixing the panel will be described. As shown in FIGS. 4 and 5, the panel fixing frame 3 has a wall thickness at the boundary between the folded portion 3b folded toward the inside of the case member 2 and the outer portion 3a. A thin portion 3c formed thinner than the thickness of the portion 3a located outside is provided. In addition, since it is the same as that of the structure shown in FIG.1 and FIG.2 about another structure, the same code | symbol is attached | subjected to the same member and the description is abbreviate | omitted.

  In the high-voltage lead wire routing structure in the ion generator 1 described above, the following effects are obtained in addition to the effect of reducing the variation in the amount of generated ions and the effect of filling the urethane resin. That is, when the worker assembles the ion generator 1 by providing the thin portion 3c at the boundary portion between the folded portion (the portion located inside) 3b sandwiching the high-voltage lead wires 26 and 27 and the portion 3a located outside. The panel fixing frame 3 can be easily bent.

Embodiment 3
Here, the 2nd example of the variation of the panel fixing frame which fixes a panel is demonstrated. As shown in FIGS. 6 and 7, the panel fixing frame 3 has a thickness at the boundary between the folded portion 3 b folded toward the inside of the case member 2 and the portion 3 a located outside, on the folded portion and the outside. In addition to setting the thickness to be smaller than the thickness of the position, a streak-like crease 3d is formed along the boundary portion. In addition, since it is the same as that of the structure shown in FIG.1 and FIG.2 about another structure, the same code | symbol is attached | subjected to the same member and the description is abbreviate | omitted.

  In the high-voltage lead wire routing structure in the ion generator 1 described above, the following effects are obtained in addition to the effect of reducing the variation in the amount of generated ions and the effect of filling the urethane resin. That is, the thickness of the boundary portion between the folded portion (the portion located on the inner side) 3b sandwiching the high-voltage lead wires 26 and 27 and the portion 3a located on the outer side is made thinner, and a streak-like shape is formed along the boundary portion. By forming the fold 3d, the panel fixing frame 3 can be more easily bent when the operator assembles the ion generator 1.

Embodiment 4
Here, the 3rd example of the variation of the panel fixing frame which fixes a panel is demonstrated. As shown in FIGS. 8 and 9, the panel fixing frame 3 is provided with a hinge 3 e at a boundary portion between the folded portion 3 b folded toward the inside of the case member 2 and the portion 3 a located outside. In addition, since it is the same as that of the structure shown in FIG.1 and FIG.2 about another structure, the same code | symbol is attached | subjected to the same member and the description is abbreviate | omitted.

  In the high-voltage lead wire routing structure in the ion generator 1 described above, the following effects are obtained in addition to the effect of reducing the variation in the amount of generated ions and the effect of filling the urethane resin. That is, when the operator assembles the ion generator 1 by providing the hinge 3e at the boundary portion between the folded portion (portion located inside) 3b sandwiching the high-voltage lead wires 26 and 27 and the portion 3a located outside. The panel fixing frame 3 can be bent very easily.

Embodiment 5
Here, the 4th example of the variation of the panel fixing frame which fixes a panel is demonstrated. As shown in FIG. 10 and FIG. 11, the panel fixing frame 3 has an insulating sheet 3 f having flexibility at the boundary portion between the folded portion 3 b folded toward the inside of the case member 2 and the portion 3 a located outside. Is provided. In addition, since it is the same as that of the structure shown in FIG.1 and FIG.2 about another structure, the same code | symbol is attached | subjected to the same member and the description is abbreviate | omitted.

  In the high-voltage lead wire routing structure in the ion generator 1 described above, the following effects are obtained in addition to the effect of reducing the variation in the amount of generated ions and the effect of filling the urethane resin. That is, by providing the insulating sheet 3f having flexibility at the boundary portion between the folded portion (inside portion) 3b sandwiching the high-voltage lead wires 26 and 27 and the outside portion 3a, the operator can generate an ion generator. When assembling 1, the panel fixing frame 3 can be easily bent.

Embodiment 6
Here, as a mode for holding the high-voltage lead wire, a structure for winding the high-voltage lead wire will be described as an example. As shown in FIGS. 12 and 13, two columnar projections 5 projecting toward the electrode panel 23 are provided on the printed circuit board 10 of the ion generator 1. Each of the high-voltage lead wires 26 and 27 is wound around the protrusion 5. In addition, since it is the same as that of the structure shown in FIG.1 and FIG.2 about another structure, the same code | symbol is attached | subjected to the same member and the description is abbreviate | omitted.

  In the above-described high-voltage lead wire routing structure in the ion generator 1, the high-voltage lead wires 26 and 27 can be wound around the protrusions 5, and slack in the high-voltage lead wires 26 and 27 can be eliminated. As a result, when the urethane resin 4 is filled in the space between the panel fixing frame 3 and the printed circuit board 10, the high-pressure lead wires 26 and 27 do not obstruct the flow of the urethane resin 4, and the urethane resin 4 is satisfactorily filled. can do. Further, when filling the urethane resin 4, the high-pressure lead wires 26 and 27 are not overlapped by the flow of the urethane resin 4, and the variation in the load capacity of the high-voltage output is suppressed, and the variation in the amount of ion generation is reduced. Can be reduced.

Embodiment 7
Here, a modified example of a structure for winding a high-voltage lead wire will be described. As shown in FIGS. 14 and 15, two columnar projections 5 projecting toward the printed circuit board 10 side are disposed on the panel fixing frame 3 of the ion generator 1. Each of the high-voltage lead wires 26 and 27 is wound around the protrusion 5. In addition, since it is the same as that of the structure shown in FIG.1 and FIG.2 about another structure, the same code | symbol is attached | subjected to the same member and the description is abbreviate | omitted.

  In the high-voltage lead wire routing structure in the ion generator 1 described above, the high-voltage lead wires 26 and 27 can be wound around the protrusion 5 to eliminate sagging of the high-voltage lead wires 26 and 27 as described above. As a result, when the urethane resin 4 is filled in the space between the panel fixing frame 3 and the printed circuit board 10, the high-pressure lead wires 26 and 27 do not obstruct the flow of the urethane resin 4, and the urethane resin 4 is satisfactorily filled. can do. Further, when filling the urethane resin 4, the high-pressure lead wires 26 and 27 are not overlapped by the flow of the urethane resin 4, and the variation in the load capacity of the high-voltage output is suppressed, and the variation in the amount of ion generation is reduced. Can be reduced.

Embodiment 8
Here, as a mode for holding the high-voltage lead wire, a structure in which the high-voltage lead wire is fitted into a predetermined groove will be described as an example. As shown in FIGS. 16 and 17, a lead molded body 6 in which a predetermined groove 6 a is formed is disposed on the printed circuit board 10 of the ion generator 1. The lead molded body 6 is disposed so as to be parallel to the printed circuit board 10. The high-voltage lead wires 26 and 27 are fitted along the groove 6 a of the lead molded body 6. In addition, since it is the same as that of the structure shown in FIG.1 and FIG.2 about another structure, the same code | symbol is attached | subjected to the same member and the description is abbreviate | omitted.

  In the above-described high-voltage lead wire routing structure in the ion generator, the high-voltage lead wires 26 and 27 can be loosened by fitting the high-voltage lead wires 26 and 27 along the grooves 6 a formed in the lead molded body 6. it can. As a result, when the urethane resin 4 is filled in the space between the panel fixing frame 3 and the printed circuit board 10, the high-pressure lead wires 26 and 27 do not obstruct the flow of the urethane resin 4, and the urethane resin 4 is satisfactorily filled. can do. Further, when filling the urethane resin 4, the high-pressure lead wires 26 and 27 are not overlapped by the flow of the urethane resin 4, and the variation in the load capacity of the high-voltage output is suppressed, and the variation in the amount of ion generation is reduced. Can be reduced.

Embodiment 9
Here, a modified example of the structure for fitting the high-voltage lead wire will be described. As shown in FIGS. 18 and 19, a lead molded body 6 in which a predetermined groove 6 a is formed is disposed on the printed circuit board 10 of the ion generator 1. The lead molded body 6 is arranged so as to stand on the printed board 10 and to be orthogonal to the printed board 10. The high-voltage lead wires 26 and 27 are fitted along the groove 6 a of the lead molded body 6. In addition, since it is the same as that of the structure shown to FIG. 1 and FIG. 2 about a structure other than this, the same code | symbol is attached | subjected to the same member and the description is abbreviate | omitted.

  In the high voltage lead wire routing structure in the ion generator described above, the high voltage lead wires 26, 27 are fitted along the grooves 6a formed in the lead molded body 6 in the same manner as described above. 27 slack can be eliminated. As a result, when the urethane resin 4 is filled in the space between the panel fixing frame 3 and the printed circuit board 10, the high-pressure lead wires 26 and 27 do not obstruct the flow of the urethane resin 4, and the urethane resin 4 is satisfactorily filled. can do. Further, when filling the urethane resin 4, the high-pressure lead wires 26 and 27 are not overlapped by the flow of the urethane resin 4, and the variation in the load capacity of the high-voltage output is suppressed, and the variation in the amount of ion generation is reduced. Can be reduced.

  The embodiment disclosed this time is merely an example, and the present invention is not limited to this. The present invention is defined by the terms of the claims, rather than the scope described above, and is intended to include any modifications within the scope and meaning equivalent to the terms of the claims.

It is a perspective view of the ion generator which shows the routing structure of the high voltage | pressure lead wire of the ion generator which concerns on Embodiment 1 of this invention. FIG. 2 is a cross-sectional view of the ion generator shown in FIG. 1 in the same embodiment. In the same embodiment, it is a figure which shows the circuit structure of an ion generator. It is a perspective view of the ion generator which shows the routing structure of the high voltage | pressure lead wire of the ion generator which concerns on Embodiment 2 of this invention. FIG. 5 is a cross-sectional view of the ion generator shown in FIG. 4 in the same embodiment. It is a perspective view of the ion generator which shows the routing structure of the high voltage | pressure lead wire of the ion generator which concerns on Embodiment 3 of this invention. FIG. 7 is a cross-sectional view of the ion generator shown in FIG. 6 in the same embodiment. It is a perspective view of the ion generator which shows the routing structure of the high voltage | pressure lead wire of the ion generator which concerns on Embodiment 4 of this invention. FIG. 9 is a cross-sectional view of the ion generator shown in FIG. 8 in the same embodiment. It is a perspective view of the ion generator which shows the routing structure of the high voltage | pressure lead wire of the ion generator which concerns on Embodiment 5 of this invention. FIG. 11 is a cross-sectional view of the ion generator shown in FIG. 10 in the same embodiment. It is a perspective view of the ion generator which shows the routing structure of the high voltage | pressure lead wire of the ion generator which concerns on Embodiment 6 of this invention. FIG. 13 is a cross-sectional view of the ion generator shown in FIG. 12 in the same embodiment. It is a perspective view of the ion generator which shows the routing structure of the high voltage | pressure lead wire of the ion generator which concerns on Embodiment 7 of this invention. FIG. 15 is a cross-sectional view of the ion generator shown in FIG. 14 in the same embodiment. It is a perspective view of the ion generator which shows the routing structure of the high voltage | pressure lead wire of the ion generator which concerns on Embodiment 8 of this invention. FIG. 17 is a cross-sectional view of the ion generator shown in FIG. 16 in the same embodiment. It is a perspective view of the ion generator which shows the drawing structure of the high voltage | pressure lead wire of the ion generator which concerns on Embodiment 9 of this invention. FIG. 19 is a cross-sectional view of the ion generator shown in FIG. 18 in the same embodiment. It is a perspective view of the ion generator which shows the routing structure of the high voltage | pressure lead wire of the conventional ion generator. It is sectional drawing of the ion generator shown in FIG. It is a figure which shows the circuit structure of the ion generator shown in FIG.

Explanation of symbols

  DESCRIPTION OF SYMBOLS 1 Ion generator, 2 Case member, 3 Panel fixing frame, 3a The part located in the outer side, 3b Folding part, 3c Thin part, 3d Fold, 3e Hinge, 3f Insulation sheet, 4 Urethane resin, 5 Projection, 6 Lead shaping Product, 6a groove, 10 printed circuit board, 11, 15, 16 resistor, 12, 17 capacitor, 13 shunt regulator, 14 transistor, 20, 25 diode, 21 thyristor, 22 transformer, 22a transformer primary winding, 22b, 22c transformer Secondary winding, 23 electrode panel, 24 relay, 26, 27 high-voltage lead wire, 28 voltage application unit.

Claims (12)

A predetermined case member;
An electrode panel disposed at a predetermined position in the case member and having at least one pair of electrodes for generating ions;
A voltage applying unit disposed at another predetermined position in the case member and applying a predetermined voltage between the pair of electrodes;
A high-voltage lead wire that electrically connects the voltage application unit and the pair of electrodes;
A holding member disposed in the case member for holding the high-voltage lead wire and forming a predetermined path of the high-voltage lead wire from the voltage application unit to the electrode panel;
A high-voltage lead wire routing structure for an ion generator, comprising a filler filled in a region between the voltage application unit and the electrode panel. A panel fixing frame that is attached to the case member and fixes the electrode panel;
The panel fixing frame as the holding member,
A first portion to which the electrode panel is fixed;
A second portion that is folded from one end of the first portion toward the inside of the case member and is positioned to face the first portion;
The high voltage lead wire routing structure for an ion generator according to claim 1, wherein the high voltage lead wire is held in a state of being sandwiched between the first portion and the second portion of the panel fixing frame.   The folded portion between the first portion and the second portion of the panel fixing frame includes a thin portion that is thinner than the thickness of the first portion and the second portion. High-voltage lead wire routing structure for ion generators.   The high-voltage lead wire routing structure of the ion generator according to claim 3, wherein a streaky crease is formed in the thin portion.   The high-voltage lead wire routing structure for an ion generator according to claim 2, wherein a folded portion between the first portion and the second portion in the panel fixing frame is a hinge.   An insulating sheet having higher flexibility than the first part and the second part is disposed at a folded part between the first part and the second part in the panel fixing frame. Item 5. A high-voltage lead wire routing structure for an ion generator according to Item 2.   The high-voltage lead wire routing structure for an ion generator according to claim 1, wherein the holding member includes a wound body around which the high-voltage lead wire is wound. A substrate part to which the voltage application part is attached;
The high-voltage lead wire routing structure for an ion generator according to claim 7, wherein the wound body is attached to the substrate portion so as to protrude toward the electrode panel. A substrate part to which the voltage application part is attached;
A panel fixing frame that is attached to the case member and fixes the electrode panel;
The high-voltage lead wire routing structure for an ion generator according to claim 7, wherein the wound body is attached to the panel fixing frame so as to protrude toward the substrate portion.   The high-voltage lead wire routing structure for an ion generator according to claim 1, wherein the holding member includes a molded body obtained by molding a groove portion into which the high-voltage lead wire is fitted. A substrate part to which the voltage application part is attached;
11. The high-voltage lead wire routing structure for an ion generator according to claim 10, wherein the molded body is disposed on and parallel to the substrate portion. A substrate part to which the voltage application part is attached;
11. The high-voltage lead wire routing structure for an ion generator according to claim 10, wherein the molded body is positioned on the substrate portion and disposed perpendicular to the substrate portion.

Images