TW201830812A - Discharge device - Google Patents
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- TW201830812A TW201830812A TW106104579A TW106104579A TW201830812A TW 201830812 A TW201830812 A TW 201830812A TW 106104579 A TW106104579 A TW 106104579A TW 106104579 A TW106104579 A TW 106104579A TW 201830812 A TW201830812 A TW 201830812A
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01T—SPARK GAPS; OVERVOLTAGE ARRESTERS USING SPARK GAPS; SPARKING PLUGS; CORONA DEVICES; GENERATING IONS TO BE INTRODUCED INTO NON-ENCLOSED GASES
- H01T19/00—Devices providing for corona discharge
- H01T19/04—Devices providing for corona discharge having pointed electrodes
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01T—SPARK GAPS; OVERVOLTAGE ARRESTERS USING SPARK GAPS; SPARKING PLUGS; CORONA DEVICES; GENERATING IONS TO BE INTRODUCED INTO NON-ENCLOSED GASES
- H01T23/00—Apparatus for generating ions to be introduced into non-enclosed gases, e.g. into the atmosphere
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Abstract
Description
本發明係關於一種放電裝置。The present invention relates to a discharge device.
產生離子等放電產物之放電裝置係藉由變壓器使輸入電壓升高而施加於放電電極藉以產生高壓放電。為確認是否正常地產生高壓放電，於放電裝置出貨前，須檢查是否將規定之電壓施加於放電電極。 例如，於專利文獻1中，揭示有進行此種檢查之離子產生裝置。於該離子產生裝置中，將露出於外部之檢查端子設置於外殼，將變壓器之二次線圈之輸出端子連接於該檢查端子，從而即便於已灌封之狀態下亦可自檢查端子檢查二次線圈之輸出波形。 [先前技術文獻] [專利文獻] [專利文獻1]日本公開專利公報「特開2007-242254號(2007年9月20日公開)」A discharge device that generates a discharge product such as an ion is applied to the discharge electrode by a transformer to increase the input voltage to generate a high voltage discharge. In order to confirm whether or not the high-voltage discharge is normally generated, it is necessary to check whether a prescribed voltage is applied to the discharge electrode before the discharge device is shipped. For example, Patent Document 1 discloses an ion generating apparatus that performs such inspection. In the ion generating apparatus, the inspection terminal exposed to the outside is provided in the casing, and the output terminal of the secondary coil of the transformer is connected to the inspection terminal, so that the inspection terminal can be inspected twice even in the state of being potted. The output waveform of the coil. [Prior Art Document] [Patent Document 1] [Patent Document 1] Japanese Laid-Open Patent Publication No. 2007-242254 (published on September 20, 2007)
[發明所欲解決之問題] 然而，上述離子產生裝置係於未安裝放電電極之狀態下實施輸出檢查，故而不進行安裝有放電電極之狀態下之檢查。因此，無法發現放電電極之誤安裝或異常導通。 本發明係鑒於上述問題點而完成者，其目的在於可進行安裝有放電電極之狀態下之輸出檢查。 [解決問題之技術手段] 為解決上述問題，本發明之一態樣之放電裝置具備：感應電極；放電部，其於自身與上述感應電極之間產生放電；電路零件，其構成電壓施加電路，其中該電壓施加電路產生施加於上述感應電極與上述放電部之間的電壓；殼體，其收納上述感應電極、上述放電部及上述電路零件；以及導電性構件，其具有與上述感應電極連接之連接部及露出於上述殼體之外部之露出部；且上述電路零件於上述殼體之內部由絕緣性密封材予以密封。 [發明之效果] 根據本發明之一態樣，發揮可進行安裝有放電電極之狀態下之輸出檢查的效果。[Problem to be Solved by the Invention] However, in the above-described ion generating apparatus, the output inspection is performed in a state where the discharge electrode is not mounted, so that the inspection in the state in which the discharge electrode is mounted is not performed. Therefore, the erroneous mounting or abnormal conduction of the discharge electrode cannot be found. The present invention has been made in view of the above problems, and an object thereof is to enable an output inspection in a state in which a discharge electrode is mounted. [Means for Solving the Problems] In order to solve the above problems, a discharge device according to an aspect of the present invention includes: an induction electrode; a discharge portion that generates a discharge between itself and the induction electrode; and a circuit component that constitutes a voltage application circuit, Wherein the voltage applying circuit generates a voltage applied between the sensing electrode and the discharge portion; a case accommodating the sensing electrode, the discharge portion, and the circuit component; and a conductive member having a connection with the sensing electrode a connecting portion and an exposed portion exposed to the outside of the casing; and the circuit component is sealed inside the casing by an insulating sealing material. [Effect of the Invention] According to an aspect of the present invention, an effect of an output inspection in a state in which a discharge electrode is mounted can be exhibited.
[實施形態1] 根據圖1～圖6關於本發明之一實施形態之說明如下。 (離子產生裝置之概要) 圖1係表示本實施形態之離子產生裝置1(放電裝置)之概略構成之立體圖。圖2(a)～(c)分別係表示離子產生裝置1之概略構成之俯視圖、側視圖及前視圖。離子產生裝置1係藉由於空氣中進行放電而產生離子者。然而，本發明並不限定於離子產生裝置，而是可應用於藉由放電而自氣體產生例如電子、臭氧、自由基、活性物質等高能量狀態之粒子(放電產物)之任意放電裝置。 如圖1及圖2所示，本實施形態之離子產生裝置1具備殼體11、放電控制電路基板12(輸入基板)、升壓變壓器13、高壓電路基板14(輸出基板、基板)、放電電極15、16(放電部)、絕緣性密封材17及輸出檢查端子20。 殼體11係由絕緣性之樹脂形成為箱狀。殼體11於包含規定箱形之3條邊中之長邊及短邊之面(於圖1及圖2之例中為上表面)設置有開口部21。又，於殼體11外側之底部22之角部，設置有用以與外部電源連接之連接器23。底部22設置於與開口部21對向之位置。 於殼體11內，自底部22向開口部21依序收納有升壓變壓器13、放電控制電路基板12、及高壓電路基板14。又，於殼體11之內部，填充有絕緣性密封材17。作為絕緣性密封材17，可使用例如環氧樹脂、聚胺酯樹脂等絕緣材料。 藉由絕緣性密封材17而維持放電控制電路基板12、升壓變壓器13、及高壓電路基板14間之電絕緣性。又，藉由絕緣性密封材17而密封開口部21。藉此，即便於開口部21不設置蓋體，亦可防止灰塵等附著於放電控制電路基板12、升壓變壓器13、及高壓電路基板14。 放電控制電路基板12係細長且大致矩形之電路基板。於放電控制電路基板12配置有放電控制電路(未圖示)。 升壓變壓器13係使由上述放電控制電路所施加之交流電壓升高之變壓器。 高壓電路基板14係細長且大致矩形之電路基板。於高壓電路基板14配置有離子產生元件。該離子產生元件係如下元件：被施加藉由升壓變壓器13升高後之交流電壓，藉此產生正離子及負離子中至少一者。 上述離子產生元件具備放電電極15、16及感應電極31、32。放電電極15安裝於高壓電路基板14之一端部。感應電極31形成於放電電極15安裝位置之周圍之一部分。放電電極16安裝於高壓電路基板14之另一端部。感應電極32形成於放電電極16安裝位置之周圍之一部分。又，於高壓電路基板14，設置有用以將感應電極31、32彼此電性連接之連接電極33。 感應電極31係用以於自身與放電電極15之間形成電場之電極，另一方面，感應電極32係用以於自身與放電電極16之間形成電場之電極。放電電極15係用以於自身與感應電極31之間產生負離子之電極。另一方面，放電電極16係用以於自身與感應電極32之間產生正離子之電極。再者，感應電極31、32及連接電極33之電位與升壓變壓器13之放電電極側電位成對。 放電電極15、16係自高壓電路基板14之表面垂直地設置，且自絕緣性密封材17之表面突出。放電電極15係具備如下構件之刷狀放電電極：前端部27，其具備複數個線狀之導電體25，且形成為刷狀；及基端部29，其係供以安裝上述複數個導電體25。又，放電電極16係具備如下構件之刷狀放電電極：前端部28，其具備複數個線狀之導電體26，且形成為刷狀；及基端部30，其係供以安裝上述複數個導電體26。 再者，前端部27、28表示自基端部29、30往前之部分，具體而言，表示自束紮成刷狀之導電體25、26之前端至導電體25、26之與基端部29、30之連接端(接觸端)為止之部分。又，線狀包括絲狀、纖維狀、金屬絲狀。 放電電極15、16之前端部27、28例如係由金屬、碳纖維、導電性纖維、導電性樹脂等導電性材料所形成。前端部27、28之複數個導電體25、26之每一者之外徑為5 μm以上且30 μm以下。藉由將上述導電體25、26之外徑設定為5 μm以上，可確保上述導電體25、26之機械強度，並且可抑制上述導電體25、26之電磨耗。又，藉由將上述導電體25、26之外徑設定為30 μm以下，可形成如髮絲般彎曲之導電體25、26，從而導電體25、26易於引起擴展及搖擺。 上述導電體25、26可各自為外徑7 μm之碳纖維，或者亦可為外徑12 μm或25 μm之SUS(不鏽鋼)製之導電性纖維。 放電電極15之基端部29包含用以將放電電極15安裝於高壓電路基板14之金屬板狀之安裝部29a、及用以於上述連接端紮束前端部27之複數個導電體25之紮束部29b。同樣地，放電電極16之基端部30包含用以將放電電極16安裝於高壓電路基板14之金屬板狀之安裝部30a、及用以於上述連接端處紮束前端部28之複數個導電體26之紮束部30b。安裝部29a、30a之下端部固定於高壓電路基板14，上端部形成為自殼體11之開口部21突出之長度。紮束部29b、30b分別固定於安裝部29a、30a之上端部。 如圖1及圖2所示，放電電極15、16之一部分自殼體11之開口部21露出於外部。因此，於製造出離子產生裝置1起至將其安裝於各種電氣設備之期間，會發生例如離子產生裝置1傾倒、或作業人員之手指與離子產生裝置1之放電電極15、16接觸之情況。因此，有放電電極15、16變形或破損之虞。 因此，於本實施形態中，以空開間隔而夾著放電電極15之方式自殼體11之開口部21突設有用以保護放電電極15之保護板51、52。同樣地，以空開間隔而夾著放電電極16之方式自殼體11之開口部21突設有用以保護放電電極16之保護板53、54。 保護板51、52之上端面51a、52a位於較放電電極15之前端部27更靠上方。同樣地，保護板53、54之上端面53a、54a位於較放電電極16之前端部28更靠上方。藉此，即便於離子產生裝置1例如傾倒之情形時，亦可防止放電電極15、16與離子產生裝置1之外部之物體直接接觸。又，可防止作業人員之手指與離子產生裝置1之放電電極15、16接觸。其結果，可防止放電電極15、16變形及破損。 再者，保護板51～54較理想為與殼體11一體成形。於該情形時，可減少製造步驟，且可抑制製造成本。 於保護板51、52之中央部分別形成有開口部51b、52b。藉此，可使藉由放電電極15之放電而產生之離子沿開口部51b、52b之空氣流動方向而傳輸。同樣地，於保護板53、54之中央部分別形成有開口部53b、54b。藉此，可使藉由放電電極16之放電而產生之離子沿開口部53b、54b之空氣流動方向而傳輸。藉此，可防止上述離子滯留於放電電極15、16附近。 (電路構成) 圖3係表示離子產生裝置之電路構成之電路圖。圖4係表示離子產生裝置1之沿長度方向之剖面構造之縱剖視圖。 如圖3所示，離子產生裝置1中，於放電控制電路基板12安裝有電源輸入部121及放電控制電路122，於高壓電路基板14安裝有高壓控制電路141、放電電極15、16、及感應電極31、32。 再者，感應電極31、32可不安裝於高壓電路基板14，亦可安裝於其他基板。 電源輸入部121係將自連接器23輸入之外部電源之直流電壓輸入至放電控制電路基板12之端子等部分。該電源輸入部121與連接器23經由連接構件(未圖示)而電性連接。 放電控制電路122係如下電路：將所輸入之直流電壓轉換為特定頻率之交流電壓，並將轉換後之交流電壓施加於升壓變壓器13之一次線圈，藉此驅動升壓變壓器13。放電控制電路122經由圖4所示之導電性連接構件13a而連接於升壓變壓器13之一次線圈。 再者，亦可向連接器23輸入交流電壓。於輸入交流電壓之情形時，放電控制電路122具有限制輸入電流之電流限制電阻、整流電路、及切換電路等。 高壓控制電路141係如下電路：包含二極體，對自升壓變壓器13之一端子輸出之交流高電壓進行整流，將正電壓施加於放電電極15，將負電壓施加於放電電極16。高壓控制電路141之一端子係相對於放電電極15、16逐一而設，且連接於放電電極15、16各者。高壓控制電路141之另一輸出端子連接於感應電極31、32及輸出檢查端子20(導電性構件)，且電位與升壓變壓器13之一端子之電位成對。高壓控制電路141經由圖4所示之導電性連接構件13b而連接於升壓變壓器13之二次線圈。 升壓變壓器13及高壓控制電路141形成對感應電極31與放電電極15之間、及感應電極32與放電電極16之間分別施加電壓之電壓施加電路。又，升壓變壓器13及高壓電路基板14係構成上述電壓施加電路之電路零件。 (輸出檢查端子) 圖5係表示離子產生裝置1之底部22之構造之仰視圖。圖6係表示離子產生裝置1之沿長度方向之剖面構造之橫剖視圖。圖6表示自底部22觀察之狀態之離子產生裝置1之剖面構造。 如圖4所示，輸出檢查端子20係包含棒狀之導電材料之連接構件。輸出檢查端子20以於殼體11之上下方向上延伸之方式配置於殼體11之放電電極16附近。輸出檢查端子20之第1端部20a(連接部)突出於高壓電路基板14之形成有感應電極31、32之面，且連接於感應電極31、32。輸出檢查端子20之第2端部20b(露出部)到達殼體11之底部22附近，且下端面露出於殼體11之外部。又，於第2端部20b之外周，嵌套有圓筒狀之套筒19。於套筒19內，形成有以第2端部20b之端面為上端之凹部形狀之檢查孔19a。 如圖6所示，於放電控制電路基板12，形成有將與配置輸出檢查端子20之區域抵接之1個角部切除所成之缺口部12a(缺損部)。若要不受放電控制電路基板12妨礙地配置輸出檢查端子20，亦可於放電控制電路基板12設置上下貫通之孔，而並不限於缺口部12a。換言之，放電控制電路基板12只要具有於配置輸出檢查端子20之區域缺損之部分即可。 再者，雖然輸出檢查端子20之第2端部20b露出於殼體11之底部22，但第2端部20b露出之部位並不限定於底部22。例如，第2端部20b亦可露出於殼體11之側部。又，輸出檢查端子20與感應電極31、32連接之部位並不限定於第1端部20a。進而，輸出檢查端子20露出於殼體11之外部之部位並不限定於第2端部20b。 (輸出檢查方法) 對使用有離子產生裝置1中之輸出檢查端子20之檢查方法進行說明。 於檢查對放電電極15之輸出電壓之情形時，使電壓計之負極探針抵接於輸出檢查端子20，並且使電壓計之正極探針抵接於放電電極15之紮束部29b。於放電電極15中紮束部29b之寬度形成得較寬，故易於使正極探針抵接於該紮束部29b。另一方面，於檢查對放電電極16之輸出電壓之情形時，使電壓計之負極探針抵接於輸出檢查端子20，並且使電壓計之正極探針抵接於放電電極16之紮束部30b。紮束部30b之寬度亦形成得較寬，故易於使正極探針抵接於該紮束部30b。 再者，供探針抵接之部位並不限於紮束部29b、30b。例如，亦可於放電電極15、16之安裝部29a、30a另外設置較安裝部29a、30a之寬度更寬之寬幅部，而使探針抵接於該寬幅部。或者，亦可於放電電極15、16之紮束部29b、30b另外設置較紮束部29b、30b之寬度更寬之寬幅部，而使探針抵接於該寬幅部。 如上所述之檢查既可手動進行，亦可由檢查裝置自動進行。 於由檢查裝置進行之檢查中，若將離子產生裝置1設置於檢查治具，則檢查銷(負極探針)自檢查治具上升而插入至檢查孔19a。藉此，檢查銷與露出於離子產生裝置1之底部22之輸出檢查端子20之第2端部20b接觸。另一方面，另一檢查銷(正極探針)自特定方向移動而與放電電極15、16接觸。 若檢查結束，則檢查孔19a藉由樹脂而密封。檢查孔19a亦可藉由橡皮塞或密封件之貼附而密封。但為避免向外部放電，且防止形成空氣層，檢查孔19a較佳為以填充有樹脂之狀態而密封。 (輸出檢查端子所達成之效果) 本實施形態之離子產生裝置1具備輸出檢查端子20。 藉此，於將放電電極15、16組裝至離子產生裝置1之狀態下，可使探針抵接於輸出檢查端子20及放電電極15、16而檢查對放電電極15、16之輸出電壓。又，藉由於放電電極15、16中檢查輸出電壓，可判定出放電電極15、16相對於高壓電路基板14之焊接、及高壓控制電路141(二極體)相對於高壓電路基板14之焊接是否良好。 又，輸出檢查端子20配置於高壓電路基板14與底部22之間。因此，於放電控制電路基板12，以不與輸出檢查端子20接觸之方式形成有缺口部12a。藉此，除輸出檢查端子20之保持於高壓電路基板14之部分及固定於底部22之部分以外，輸出檢查端子20之周圍均由絕緣性密封材17覆蓋。因此，可提高輸出檢查端子20與放電控制電路基板12之間之絕緣性。 又，輸出檢查端子20之第2端部20b露出於殼體11之底部22。藉此，若與連接器23向殼體11之底部22之安裝作業等並行而進行輸出檢查端子20向底部22之安裝作業，則可使作業性提高。 如上所述，亦可使輸出檢查端子20之第2端部20b露出於殼體11之側部。然而，於該情形時，需將輸出檢查端子20彎折，彎折之加工較難。自該觀點而言，輸出檢查端子20較佳為直線狀之棒形狀。而且，若將第2端部20b配置於設置在底部22較高位置之連接器23之安裝部位，則可縮短輸出檢查端子20。藉此，可削減輸出檢查端子20之材料費。 又，放電電極15、16具有寬度較將放電電極15、16支持於高壓電路基板14之安裝部29a、30a(支持部)之厚度大之紮束部29b、30b(寬幅部)。藉此，易於使探針抵接於紮束部29b、30b，從而可容易地進行檢查。 又，如上所述，亦可將放電電極15、16形成於與高壓電路基板14不同之基板。然而，若如此構成，則須將上述與高壓電路基板14不同之基板配置於高壓電路基板14之下方。因此，若要確保配置輸出檢查端子20之區域，須於該基板亦設置與放電控制電路基板12之缺口部12a相同之缺口部。針對此，藉由將放電電極15、16及感應電極31、32安裝於單一之高壓電路基板14，可簡化用以配置輸出檢查端子20之構造。 又，藉由放電電極15、16分別具有刷狀之前端部27、28，而使得構成前端部27、28之多個導電體25、26(纖維)各自成為放電部位。藉此，即便某導電體25、26受到損壞，亦可藉由其他纖維進行放電。因此，可使離子產生裝置1之耐久性提高。 [實施形態2] 根據圖7關於本發明之另一實施形態之說明如下。再者，為方便說明，對具有與實施形態1中所說明之構件相同之功能之構件標註相同之符號，並省略其說明。 圖7係表示實施形態2之離子產生裝置1A之沿長度方向之剖面構造的縱剖視圖。 實施形態1之離子產生裝置1中之升壓變壓器13(參照圖4)係以一側面與殼體11之內側壁大致接觸之狀態而配置。與此相對地，如圖7所示，於本實施形態之離子產生裝置1A中，升壓變壓器13係配置於與殼體11之內側壁隔開之位置。又，於離子產生裝置1A中，輸出檢查端子20係配置於該殼體11之內側壁與升壓變壓器13之導電性連接構件13b側之間之空間。 藉此，輸出檢查端子20配置於與放電控制電路基板12隔開之位置，故而放電控制電路基板12不會妨礙輸出檢查端子20之配置。因此，無需如實施形態1般於放電控制電路基板12形成缺口部12a，從而可簡化基板之製作。 [實施形態3] 根據圖8及圖9針對本發明之另一實施形態之說明如下。再者，為方便說明，對具有與實施形態1及2中所說明之構件相同之功能之構件標註相同之符號，並省略其說明。 圖8係表示實施形態3之離子產生裝置1B之沿長度方向之剖面構造的縱剖視圖。圖9係表示離子產生裝置1B之沿短度方向之剖面構造之縱剖視圖。 如圖8及圖9所示，本實施形態之離子產生裝置1B具備放電電極5、6(放電部)而取代實施形態1之離子產生裝置1中之放電電極15、16。 放電電極5、6為針狀電極，具有形成為針狀之前端。又，放電電極5、6於與前端隔開之部位具有寬幅部5a、6a。寬幅部5a、6a係以突出於放電電極5、6之寬度方向(與放電電極5、6之長度方向正交之2個方向)之方式形成。寬幅部5a、6a具有較放電電極5、6之被支持於高壓電路基板14之部分(支持部)寬之寬度。 以上述方式構成之離子產生裝置1B因具備輸出檢查端子20，可獲得與實施形態1之離子產生裝置1同等之效果。又，因放電電極5、6具有寬幅部5a、6a，可使探針抵接於寬幅部5a、6a而進行檢查。藉此，可容易地進行檢查。 再者，本實施形態亦可應用於實施形態2。即，於實施形態2之離子產生裝置1A中設置放電電極5、6而取代放電電極15、16。 [總結] 本發明之態樣1之放電裝置具備：感應電極31、32；放電部(放電電極5、6、15、16)，其於自身與上述感應電極31、32之間產生放電；電路零件(升壓變壓器13及高壓電路基板14)，其構成電壓施加電路(升壓變壓器13及高壓控制電路141)，該電壓施加電路產生施加於上述感應電極31、32與上述放電部之間的電壓；殼體11，其收納上述感應電極31、32、上述放電部及上述電路零件；以及導電性構件(輸出檢查端子20)，其具有與上述感應電極31、32連接之連接部(第1端部20a)及露出於上述殼體11之外部之露出部(第2端部20b)；且上述電路零件於上述殼體11之內部由絕緣性密封材17予以密封。 根據上述構成，於將放電部組裝至放電裝置之狀態下，可使探針抵接於導電性構件之露出部及放電部而檢查對放電部之輸出電壓。又，藉由於放電部中檢查輸出電壓，可判定出放電部相對於安裝放電部之基板之焊接、及將輸出電壓輸出之電路相對於基板之焊接是否良好。 本發明之態樣2之放電裝置如上述態樣1，其中上述殼體11形成為具有開口部21、及設置於與該開口部21對向之位置之底部22的箱狀，且上述露出部於上述底部22露出。 根據上述構成，藉由與設置於殼體11之底部22之其他端子之安裝作業並行而進行導電性構件向底部22之安裝作業，可使作業性提高。 本發明之態樣3之放電裝置如上述態樣2，其進而具備輸入基板(放電控制電路基板12)，該輸入基板係自外部被輸入電壓，且配置於上述感應電極31、32與上述底部22之間；上述輸入基板於配置上述導電性構件之區域形成有缺損部(缺口部12a)，且上述導電性構件於上述殼體11之內部藉由上述絕緣性密封材17而密封。 根據上述構成，除導電性構件之保持於殼體之部分以外，導電性構件之周圍均由絕緣性密封材17覆蓋。因此，可提高導電性構件與輸入基板之間之絕緣性。 本發明之態樣4之放電裝置如上述態樣1至3中任一項，其進而具備輸出基板(高壓電路基板)，該輸出基板將電壓輸出至上述放電部，且支持上述放電部；上述放電部包含將上述放電部支持於上述輸出基板之支持部、及具有較上述支持部寬之寬度之寬幅部5a、6a(紮束部29b、30b)。 根據上述構成，易於使檢查用之探針抵接於寬幅部，從而可容易地進行檢查。 本發明之態樣5之放電裝置如上述態樣4，其中上述放電部具有刷狀之前端部。 根據上述構成，藉由放電部具有刷狀之前端部，而使得構成前端部之多個纖維各自成為放電部位。因此，可使放電裝置之耐久性提高。 本發明之態樣6之放電裝置如上述態樣4，其中上述放電部具有針狀之前端部。 本發明之態樣7之放電裝置如上述態樣4，其進而具備設置有上述感應電極31、32及上述放電部之單一基板，且上述導電性構件之上述連接部保持於上述基板。 於將放電部設置於與設置有感應電極之基板不同之基板之情形時，須將該基板配置於設置有感應電極之基板之下方，故用以配置導電性構件之構造變得複雜。針對此，藉由如上述構成般將感應電極及放電部設置於單一基板，可簡化用以配置導電性構件之構造。 [附記事項] 本發明並不限定於上述各實施形態，而是能於請求項所揭示之範圍內進行各種變更，將不同實施形態中分別揭示之技術手段適當組合而獲得之實施形態亦包含於本發明之技術範圍。進而，藉由將各實施形態中分別揭示之技術手段組合，可形成新的技術特徵。[Embodiment 1] An embodiment of the present invention will be described below with reference to Figs. 1 to 6 . (Outline of Ion Generating Apparatus) Fig. 1 is a perspective view showing a schematic configuration of an ion generating apparatus 1 (discharge apparatus) according to the present embodiment. 2(a) to 2(c) are a plan view, a side view, and a front view, respectively, showing a schematic configuration of the ion generating apparatus 1. The ion generating apparatus 1 is an ion generated by discharging in the air. However, the present invention is not limited to the ion generating apparatus, but can be applied to any discharge device that generates particles (discharge products) of a high energy state such as electrons, ozone, radicals, active materials, and the like from a gas by discharge. As shown in FIGS. 1 and 2, the ion generating apparatus 1 of the present embodiment includes a casing 11, a discharge control circuit board 12 (input substrate), a step-up transformer 13, a high voltage circuit board 14 (output substrate, substrate), and a discharge electrode. 15, 16 (discharge portion), insulating sealing member 17, and output inspection terminal 20. The casing 11 is formed in a box shape from an insulating resin. The casing 11 is provided with an opening 21 in a surface including a long side and a short side of the three sides of the predetermined box shape (the upper surface in the example of FIGS. 1 and 2). Further, a connector 23 for connecting to an external power source is provided at a corner portion of the bottom portion 22 outside the casing 11. The bottom portion 22 is provided at a position opposed to the opening portion 21. In the casing 11, the step-up transformer 13, the discharge control circuit board 12, and the high-voltage circuit board 14 are sequentially housed in the opening portion 21 from the bottom portion 22. Further, an insulating sealing member 17 is filled inside the casing 11. As the insulating sealing material 17, an insulating material such as an epoxy resin or a polyurethane resin can be used. The electrical insulation between the discharge control circuit board 12, the step-up transformer 13, and the high voltage circuit board 14 is maintained by the insulating sealing material 17. Moreover, the opening 21 is sealed by the insulating sealing material 17. Thereby, even if the lid portion is not provided in the opening portion 21, dust or the like can be prevented from adhering to the discharge control circuit board 12, the step-up transformer 13, and the high-voltage circuit board 14. The discharge control circuit board 12 is an elongated and substantially rectangular circuit board. A discharge control circuit (not shown) is disposed on the discharge control circuit board 12. The step-up transformer 13 is a transformer that raises an alternating voltage applied by the above-described discharge control circuit. The high voltage circuit board 14 is an elongated and substantially rectangular circuit board. An ion generating element is disposed on the high voltage circuit board 14. The ion generating element is an element to which an alternating voltage boosted by the step-up transformer 13 is applied, thereby generating at least one of a positive ion and a negative ion. The ion generating element includes discharge electrodes 15 and 16 and induction electrodes 31 and 32. The discharge electrode 15 is attached to one end of the high voltage circuit board 14. The sensing electrode 31 is formed at a portion around the mounting position of the discharge electrode 15. The discharge electrode 16 is attached to the other end portion of the high voltage circuit board 14. The sensing electrode 32 is formed at a portion around the mounting position of the discharge electrode 16. Further, a connection electrode 33 for electrically connecting the induction electrodes 31 and 32 to each other is provided on the high voltage circuit board 14. The sensing electrode 31 is an electrode for forming an electric field between itself and the discharge electrode 15. On the other hand, the sensing electrode 32 is an electrode for forming an electric field between itself and the discharge electrode 16. The discharge electrode 15 is an electrode for generating a negative ion between itself and the induction electrode 31. On the other hand, the discharge electrode 16 is used to generate a positive ion electrode between itself and the sensing electrode 32. Further, the potentials of the induction electrodes 31, 32 and the connection electrode 33 are paired with the discharge electrode side potential of the step-up transformer 13. The discharge electrodes 15 and 16 are vertically disposed from the surface of the high voltage circuit board 14 and protrude from the surface of the insulating sealing material 17. The discharge electrode 15 includes a brush-shaped discharge electrode having a distal end portion 27 including a plurality of linear conductors 25 and formed in a brush shape, and a base end portion 29 for mounting the plurality of electrical conductors 25. Further, the discharge electrode 16 includes a brush-shaped discharge electrode having a distal end portion 28 including a plurality of linear conductors 26 and formed in a brush shape, and a base end portion 30 for mounting the plurality of the plurality of wires Conductor 26. Further, the front end portions 27, 28 indicate portions from the base end portions 29, 30, specifically, the front ends of the conductors 25, 26 which are self-bundled into a brush shape, and the base ends of the conductors 25, 26 The portion from the connection end (contact end) of the portions 29 and 30. Further, the linear shape includes a filament shape, a fiber shape, and a wire shape. The front end portions 27 and 28 of the discharge electrodes 15 and 16 are formed of, for example, a conductive material such as metal, carbon fiber, conductive fiber, or conductive resin. Each of the plurality of conductors 25 and 26 of the distal end portions 27 and 28 has an outer diameter of 5 μm or more and 30 μm or less. By setting the outer diameters of the conductors 25 and 26 to 5 μm or more, the mechanical strength of the conductors 25 and 26 can be ensured, and the electric wear of the conductors 25 and 26 can be suppressed. Further, by setting the outer diameters of the conductors 25 and 26 to 30 μm or less, the conductors 25 and 26 which are bent like a hair strand can be formed, and the conductors 25 and 26 are liable to cause expansion and sway. Each of the conductors 25 and 26 may be a carbon fiber having an outer diameter of 7 μm or a conductive fiber made of SUS (stainless steel) having an outer diameter of 12 μm or 25 μm. The base end portion 29 of the discharge electrode 15 includes a metal plate-like mounting portion 29a for mounting the discharge electrode 15 on the high-voltage circuit board 14, and a plurality of conductors 25 for bundling the front end portion 27 at the connection end. The bundle portion 29b. Similarly, the base end portion 30 of the discharge electrode 16 includes a metal plate-like mounting portion 30a for mounting the discharge electrode 16 to the high voltage circuit substrate 14, and a plurality of conductive layers for bundling the front end portion 28 at the connection end. The bundled portion 30b of the body 26. The lower end portions of the mounting portions 29a and 30a are fixed to the high voltage circuit board 14, and the upper end portion is formed to protrude from the opening portion 21 of the casing 11. The bundled portions 29b and 30b are respectively fixed to the upper end portions of the attachment portions 29a and 30a. As shown in FIGS. 1 and 2, one of the discharge electrodes 15 and 16 is exposed to the outside from the opening 21 of the casing 11. Therefore, during the period from the manufacture of the ion generating apparatus 1 to the mounting of various electric devices, for example, the ion generating apparatus 1 may be tilted or the fingers of the worker may come into contact with the discharge electrodes 15 and 16 of the ion generating apparatus 1. Therefore, there is a flaw in the deformation or breakage of the discharge electrodes 15, 16. Therefore, in the present embodiment, the protective plates 51 and 52 for protecting the discharge electrode 15 are protruded from the opening 21 of the casing 11 so as to sandwich the discharge electrode 15 at intervals. Similarly, the protective plates 53, 54 for protecting the discharge electrode 16 are protruded from the opening portion 21 of the casing 11 so as to sandwich the discharge electrode 16 at intervals. The upper end faces 51a, 52a of the protective plates 51, 52 are located above the front end portion 27 of the discharge electrode 15. Similarly, the upper end faces 53a, 54a of the protective plates 53, 54 are located above the front end portion 28 of the discharge electrode 16. Thereby, even when the ion generating apparatus 1 is tilted, for example, the discharge electrodes 15 and 16 can be prevented from coming into direct contact with an object outside the ion generating apparatus 1. Further, it is possible to prevent the fingers of the worker from coming into contact with the discharge electrodes 15 and 16 of the ion generating apparatus 1. As a result, deformation and breakage of the discharge electrodes 15 and 16 can be prevented. Further, it is preferable that the protective plates 51 to 54 are integrally formed with the casing 11. In this case, the manufacturing steps can be reduced, and the manufacturing cost can be suppressed. Openings 51b and 52b are formed in the central portions of the protective plates 51 and 52, respectively. Thereby, ions generated by the discharge of the discharge electrode 15 can be transported in the air flow direction of the openings 51b, 52b. Similarly, openings 53b and 54b are formed in the central portions of the protective plates 53 and 54, respectively. Thereby, ions generated by the discharge of the discharge electrode 16 can be transported in the air flow direction of the openings 53b, 54b. Thereby, it is possible to prevent the ions from remaining in the vicinity of the discharge electrodes 15 and 16. (Circuit Configuration) FIG. 3 is a circuit diagram showing the circuit configuration of the ion generating apparatus. 4 is a longitudinal cross-sectional view showing a cross-sectional structure of the ion generating apparatus 1 in the longitudinal direction. As shown in FIG. 3, in the ion generating apparatus 1, a power supply input unit 121 and a discharge control circuit 122 are mounted on the discharge control circuit board 12, and a high voltage control circuit 141, discharge electrodes 15, 16 and induction are mounted on the high voltage circuit board 14. Electrodes 31, 32. Further, the sensing electrodes 31 and 32 may be mounted on the high voltage circuit board 14 or may be mounted on other boards. The power input unit 121 inputs a DC voltage of an external power source input from the connector 23 to a portion such as a terminal of the discharge control circuit board 12. The power input unit 121 and the connector 23 are electrically connected via a connection member (not shown). The discharge control circuit 122 is a circuit that converts the input DC voltage into an AC voltage of a specific frequency, and applies the converted AC voltage to the primary coil of the step-up transformer 13, thereby driving the step-up transformer 13. The discharge control circuit 122 is connected to the primary coil of the step-up transformer 13 via the conductive connecting member 13a shown in FIG. Furthermore, an AC voltage can also be input to the connector 23. When the AC voltage is input, the discharge control circuit 122 has a current limiting resistor, a rectifier circuit, a switching circuit, and the like that limit the input current. The high voltage control circuit 141 is a circuit including a diode, rectifying an alternating high voltage output from one terminal of the step-up transformer 13, applying a positive voltage to the discharge electrode 15, and applying a negative voltage to the discharge electrode 16. One of the terminals of the high voltage control circuit 141 is provided one by one with respect to the discharge electrodes 15, 16 and is connected to each of the discharge electrodes 15, 16. The other output terminal of the high voltage control circuit 141 is connected to the induction electrodes 31 and 32 and the output inspection terminal 20 (conductive member), and the potential is paired with the potential of one of the terminals of the step-up transformer 13. The high voltage control circuit 141 is connected to the secondary coil of the step-up transformer 13 via the conductive connecting member 13b shown in FIG. The step-up transformer 13 and the high voltage control circuit 141 form a voltage application circuit that applies a voltage between the induction electrode 31 and the discharge electrode 15 and between the induction electrode 32 and the discharge electrode 16. Further, the step-up transformer 13 and the high-voltage circuit board 14 constitute circuit components of the voltage application circuit. (Output Inspection Terminal) FIG. 5 is a bottom view showing the configuration of the bottom portion 22 of the ion generating apparatus 1. Fig. 6 is a transverse cross-sectional view showing a cross-sectional structure of the ion generating apparatus 1 in the longitudinal direction. Fig. 6 shows a cross-sectional structure of the ion generating apparatus 1 in a state viewed from the bottom portion 22. As shown in FIG. 4, the output inspection terminal 20 is a connecting member including a rod-shaped conductive material. The output inspection terminal 20 is disposed in the vicinity of the discharge electrode 16 of the casing 11 so as to extend upward and downward from the casing 11. The first end portion 20a (connection portion) of the output inspection terminal 20 protrudes from the surface of the high voltage circuit board 14 on which the induction electrodes 31 and 32 are formed, and is connected to the induction electrodes 31 and 32. The second end portion 20b (exposed portion) of the output inspection terminal 20 reaches the vicinity of the bottom portion 22 of the casing 11, and the lower end surface is exposed to the outside of the casing 11. Further, a cylindrical sleeve 19 is nested around the outer circumference of the second end portion 20b. In the sleeve 19, an inspection hole 19a having a concave shape in which the end surface of the second end portion 20b is the upper end is formed. As shown in FIG. 6, the discharge control circuit board 12 is formed with a notch portion 12a (defective portion) formed by cutting one corner portion that abuts against the region where the output inspection terminal 20 is placed. In order to arrange the output inspection terminal 20 without being hindered by the discharge control circuit board 12, the discharge control circuit board 12 may be provided with a hole penetrating vertically, and is not limited to the notch portion 12a. In other words, the discharge control circuit board 12 may have a portion that is defective in a region where the output inspection terminal 20 is disposed. Further, although the second end portion 20b of the output inspection terminal 20 is exposed to the bottom portion 22 of the casing 11, the portion where the second end portion 20b is exposed is not limited to the bottom portion 22. For example, the second end portion 20b may be exposed to the side portion of the casing 11. Further, the portion where the output inspection terminal 20 is connected to the induction electrodes 31 and 32 is not limited to the first end portion 20a. Further, the portion where the output inspection terminal 20 is exposed to the outside of the casing 11 is not limited to the second end portion 20b. (Output Inspection Method) An inspection method using the output inspection terminal 20 in the ion generating apparatus 1 will be described. When the output voltage to the discharge electrode 15 is checked, the negative electrode probe of the voltmeter is brought into contact with the output inspection terminal 20, and the positive electrode probe of the voltmeter is brought into contact with the bundled portion 29b of the discharge electrode 15. Since the width of the bundled portion 29b in the discharge electrode 15 is formed to be wide, it is easy to bring the positive electrode probe into contact with the bundled portion 29b. On the other hand, when the output voltage to the discharge electrode 16 is checked, the negative electrode probe of the voltmeter is brought into contact with the output inspection terminal 20, and the positive electrode probe of the voltmeter is brought into contact with the bundled portion of the discharge electrode 16. 30b. Since the width of the binding portion 30b is also formed to be wide, it is easy to bring the positive electrode probe into contact with the binding portion 30b. Further, the portion where the probe is abutted is not limited to the bundled portions 29b and 30b. For example, a wide portion having a wider width than the mounting portions 29a and 30a may be additionally provided to the mounting portions 29a and 30a of the discharge electrodes 15 and 16, and the probe may be brought into contact with the wide portion. Alternatively, a wide portion having a wider width than the bundled portions 29b and 30b may be additionally provided to the bundled portions 29b and 30b of the discharge electrodes 15 and 16, and the probe may be brought into contact with the wide portion. The inspection as described above can be performed manually or automatically by the inspection device. In the inspection by the inspection apparatus, when the ion generation apparatus 1 is installed in the inspection jig, the inspection pin (negative electrode probe) is inserted from the inspection jig and inserted into the inspection hole 19a. Thereby, the inspection pin comes into contact with the second end portion 20b of the output inspection terminal 20 exposed to the bottom portion 22 of the ion generating apparatus 1. On the other hand, another inspection pin (positive electrode probe) is moved in a specific direction to come into contact with the discharge electrodes 15, 16. When the inspection is completed, the inspection hole 19a is sealed by resin. The inspection hole 19a can also be sealed by attachment of a rubber stopper or a seal. However, in order to avoid discharge to the outside and to prevent formation of an air layer, the inspection hole 19a is preferably sealed in a state of being filled with a resin. (Effect of Outputting Inspection Terminal) The ion generator 1 of the present embodiment includes the output inspection terminal 20. Thereby, in a state in which the discharge electrodes 15 and 16 are assembled to the ion generating apparatus 1, the probe can be in contact with the output inspection terminal 20 and the discharge electrodes 15 and 16, and the output voltages to the discharge electrodes 15 and 16 can be inspected. Further, by checking the output voltages in the discharge electrodes 15 and 16, it is possible to determine whether the welding of the discharge electrodes 15 and 16 with respect to the high voltage circuit board 14 and the welding of the high voltage control circuit 141 (diode) with respect to the high voltage circuit board 14 are good. Further, the output inspection terminal 20 is disposed between the high voltage circuit board 14 and the bottom portion 22. Therefore, the discharge control circuit board 12 is formed with the notch portion 12a so as not to be in contact with the output inspection terminal 20. Thereby, the periphery of the output inspection terminal 20 is covered by the insulating sealing material 17 except for the portion of the output inspection terminal 20 held by the high voltage circuit board 14 and the portion fixed to the bottom portion 22. Therefore, the insulation between the output inspection terminal 20 and the discharge control circuit substrate 12 can be improved. Further, the second end portion 20b of the output inspection terminal 20 is exposed to the bottom portion 22 of the casing 11. As a result, the mounting work of the output inspection terminal 20 to the bottom portion 22 is performed in parallel with the mounting work of the connector 23 to the bottom portion 22 of the casing 11, and the workability can be improved. As described above, the second end portion 20b of the output inspection terminal 20 can be exposed to the side portion of the casing 11. However, in this case, the output inspection terminal 20 needs to be bent, and the bending process is difficult. From this point of view, the output inspection terminal 20 is preferably in the shape of a straight rod. Further, when the second end portion 20b is disposed at the attachment portion of the connector 23 provided at a higher position of the bottom portion 22, the output inspection terminal 20 can be shortened. Thereby, the material cost of the output inspection terminal 20 can be reduced. Further, the discharge electrodes 15 and 16 have bundle portions 29b and 30b (wide portions) having a larger thickness than the attachment portions 29a and 30a (support portions) that support the discharge electrodes 15 and 16 on the high-voltage circuit board 14. Thereby, the probe can be easily brought into contact with the binding portions 29b and 30b, and the inspection can be easily performed. Further, as described above, the discharge electrodes 15 and 16 may be formed on a substrate different from the high voltage circuit board 14. However, in such a configuration, the substrate different from the high voltage circuit board 14 described above is disposed below the high voltage circuit board 14. Therefore, in order to secure the area where the output inspection terminal 20 is disposed, the substrate must be provided with the same notch as the notch portion 12a of the discharge control circuit board 12. In view of this, by mounting the discharge electrodes 15 and 16 and the induction electrodes 31 and 32 on the single high-voltage circuit board 14, the structure for arranging the output inspection terminals 20 can be simplified. Further, each of the discharge electrodes 15 and 16 has brush-like front end portions 27 and 28, and each of the plurality of conductors 25 and 26 (fibers) constituting the distal end portions 27 and 28 serves as a discharge portion. Thereby, even if a certain electric conductor 25, 26 is damaged, it can discharge by another fiber. Therefore, the durability of the ion generating apparatus 1 can be improved. [Embodiment 2] Another embodiment of the present invention will be described below with reference to Fig. 7 . In the following description, members having the same functions as those described in the first embodiment will be denoted by the same reference numerals, and their description will be omitted. Fig. 7 is a vertical cross-sectional view showing a cross-sectional structure in the longitudinal direction of the ion generating apparatus 1A of the second embodiment. The step-up transformer 13 (see FIG. 4) in the ion generating apparatus 1 of the first embodiment is disposed in a state in which one side surface is substantially in contact with the inner side wall of the casing 11. On the other hand, as shown in FIG. 7, in the ion generating apparatus 1A of the present embodiment, the step-up transformer 13 is disposed at a position spaced apart from the inner side wall of the casing 11. Further, in the ion generating apparatus 1A, the output inspection terminal 20 is disposed in a space between the inner side wall of the casing 11 and the conductive connecting member 13b side of the step-up transformer 13. Thereby, since the output inspection terminal 20 is disposed at a position spaced apart from the discharge control circuit board 12, the discharge control circuit board 12 does not interfere with the arrangement of the output inspection terminal 20. Therefore, it is not necessary to form the notch portion 12a in the discharge control circuit board 12 as in the first embodiment, and the production of the substrate can be simplified. [Embodiment 3] Another embodiment of the present invention will be described below with reference to Figs. 8 and 9. In the following description, members having the same functions as those described in the first and second embodiments are denoted by the same reference numerals, and their description will be omitted. Fig. 8 is a vertical cross-sectional view showing a cross-sectional structure in the longitudinal direction of the ion generating apparatus 1B of the third embodiment. Fig. 9 is a vertical cross-sectional view showing a cross-sectional structure of the ion generating apparatus 1B in the short-term direction. As shown in FIGS. 8 and 9, the ion generating apparatus 1B of the present embodiment includes discharge electrodes 5 and 6 (discharge sections) instead of the discharge electrodes 15 and 16 in the ion generator 1 of the first embodiment. The discharge electrodes 5 and 6 are needle electrodes and have a needle-like front end. Further, the discharge electrodes 5 and 6 have wide portions 5a and 6a at a portion spaced apart from the front end. The wide portions 5a and 6a are formed so as to protrude in the width direction of the discharge electrodes 5 and 6 (two directions orthogonal to the longitudinal direction of the discharge electrodes 5 and 6). The wide portions 5a, 6a have a width wider than a portion (support portion) of the discharge electrodes 5, 6 supported by the high voltage circuit board 14. The ion generating apparatus 1B configured as described above can obtain the same effect as the ion generating apparatus 1 of the first embodiment by providing the output inspection terminal 20. Further, since the discharge electrodes 5 and 6 have the wide portions 5a and 6a, the probe can be inspected by abutting against the wide portions 5a and 6a. Thereby, the inspection can be easily performed. Furthermore, this embodiment can also be applied to the second embodiment. That is, in the ion generating apparatus 1A of the second embodiment, the discharge electrodes 5 and 6 are provided instead of the discharge electrodes 15 and 16. [Summary] The discharge device of the aspect 1 of the present invention includes: induction electrodes 31, 32; discharge portions (discharge electrodes 5, 6, 15, 16) which generate discharge between themselves and the above-mentioned induction electrodes 31, 32; The components (the step-up transformer 13 and the high-voltage circuit board 14) constitute a voltage application circuit (the step-up transformer 13 and the high-voltage control circuit 141), and the voltage application circuit generates a voltage application circuit between the induction electrodes 31 and 32 and the discharge portion. a casing 11 accommodating the induction electrodes 31 and 32, the discharge portion and the circuit component, and a conductive member (output inspection terminal 20) having a connection portion connected to the induction electrodes 31 and 32 (first The end portion 20a) and an exposed portion (second end portion 20b) exposed to the outside of the casing 11; and the circuit component is sealed inside the casing 11 by an insulating sealing member 17. According to the above configuration, in the state in which the discharge portion is assembled to the discharge device, the probe can be brought into contact with the exposed portion and the discharge portion of the conductive member to inspect the output voltage to the discharge portion. Further, by checking the output voltage in the discharge portion, it is possible to determine whether or not the welding of the discharge portion with respect to the substrate on which the discharge portion is mounted and the welding of the circuit for outputting the output voltage with respect to the substrate are good. According to a second aspect of the present invention, in the discharge device of the second aspect of the present invention, the housing (11) has a box shape having an opening (21) and a bottom portion 22 provided at a position opposed to the opening (21), and the exposed portion The bottom portion 22 is exposed. According to the above configuration, the mounting work of the conductive member to the bottom portion 22 is performed in parallel with the mounting work of the other terminals provided on the bottom portion 22 of the casing 11, and the workability can be improved. According to a third aspect of the present invention, in the discharge device of the third aspect of the present invention, the input substrate (the discharge control circuit board 12) is provided with a voltage input from the outside, and is disposed on the sensing electrodes 31 and 32 and the bottom portion. The input substrate has a defect portion (notch portion 12a) formed in a region where the conductive member is disposed, and the conductive member is sealed inside the case 11 by the insulating sealing member 17. According to the above configuration, the periphery of the conductive member is covered by the insulating sealing member 17 except for the portion of the conductive member held by the casing. Therefore, the insulation between the conductive member and the input substrate can be improved. A discharge device according to a fourth aspect of the present invention, further comprising the output substrate (high-voltage circuit substrate), wherein the output substrate outputs a voltage to the discharge portion and supports the discharge portion; The discharge portion includes a support portion that supports the discharge portion on the output substrate, and wide portions 5a and 6a (bundle portions 29b and 30b) having a width wider than the support portion. According to the above configuration, the probe for inspection can be easily brought into contact with the wide portion, and the inspection can be easily performed. According to a fifth aspect of the invention, in the discharge device of the aspect 5, the discharge portion has a brush-shaped front end portion. According to the above configuration, each of the plurality of fibers constituting the distal end portion serves as a discharge portion by the discharge portion having the brush-shaped front end portion. Therefore, the durability of the discharge device can be improved. According to a sixth aspect of the invention, in the discharge device of the aspect 6, the discharge portion has a needle-like front end portion. According to a seventh aspect of the present invention, in the discharge device of the seventh aspect of the present invention, the discharge device includes the single substrate on which the induction electrodes 31 and 32 and the discharge portion are provided, and the connection portion of the conductive member is held by the substrate. When the discharge portion is provided on a substrate different from the substrate on which the sensing electrode is provided, the substrate must be disposed below the substrate on which the sensing electrode is provided. Therefore, the structure for arranging the conductive member becomes complicated. In view of this, the induction electrode and the discharge portion are provided on a single substrate as in the above configuration, and the structure for arranging the conductive member can be simplified. [Additional Notes] The present invention is not limited to the above-described embodiments, and various modifications can be made within the scope of the claims, and embodiments obtained by appropriately combining the technical means disclosed in the different embodiments are also included in the embodiments. The technical scope of the present invention. Further, by combining the technical means disclosed in the respective embodiments, new technical features can be formed.
1‧‧‧離子產生裝置(放電裝置)1‧‧‧Ion generator (discharge device)
1A‧‧‧離子產生裝置(放電裝置)1A‧‧‧Ion generator (discharge device)
1B‧‧‧離子產生裝置(放電裝置)1B‧‧‧Ion generator (discharge device)
5‧‧‧放電電極(放電部)5‧‧‧Discharge electrode (discharge section)
5a‧‧‧寬幅部5a‧‧‧ Wide section
6‧‧‧放電電極(放電部)6‧‧‧Discharge electrode (discharge section)
6a‧‧‧寬幅部6a‧‧‧ Wide section
11‧‧‧殼體11‧‧‧Shell
12‧‧‧放電控制電路基板(輸入基板)12‧‧‧Discharge control circuit board (input board)
12a‧‧‧缺口部(缺損部)12a‧‧‧Gap section (Defects)
13‧‧‧升壓變壓器(電壓施加電路、電路零件)13‧‧‧Step-up transformer (voltage application circuit, circuit parts)
13a‧‧‧導電性連接構件13a‧‧‧Electrically conductive connecting members
13b‧‧‧導電性連接構件13b‧‧‧Electrically conductive connecting members
14‧‧‧高壓電路基板(輸出基板、基板、電路零件)14‧‧‧High-voltage circuit board (output board, board, circuit parts)
15‧‧‧放電電極(放電部)15‧‧‧Discharge electrode (discharge section)
16‧‧‧放電電極(放電部)16‧‧‧Discharge electrode (discharge section)
17‧‧‧絕緣性密封材17‧‧‧Insulating sealing material
19‧‧‧套筒19‧‧‧Sleeve
19a‧‧‧檢查孔19a‧‧‧Check hole
20‧‧‧輸出檢查端子(導電性構件)20‧‧‧Output inspection terminal (conductive member)
20a‧‧‧第1端部(連接部)20a‧‧‧1st end (connection)
20b‧‧‧第2端部(露出部)20b‧‧‧2nd end (exposed part)
21‧‧‧開口部21‧‧‧ openings
22‧‧‧底部22‧‧‧ bottom
23‧‧‧連接器23‧‧‧Connector
25‧‧‧導電體25‧‧‧Electric conductor
26‧‧‧導電體26‧‧‧Electrical conductor
27‧‧‧前端部27‧‧‧ front end
28‧‧‧前端部28‧‧‧ front end
29‧‧‧基端部29‧‧‧ base end
29a‧‧‧安裝部(寬幅部)29a‧‧‧Installation Department (wide section)
29b‧‧‧紮束部29b‧‧‧Bundle Department
30‧‧‧基端部30‧‧‧ base end
30a‧‧‧安裝部(寬幅部)30a‧‧‧Installation Department (wide section)
30b‧‧‧紮束部30b‧‧‧Bundle Department
31‧‧‧感應電極31‧‧‧Induction electrodes
32‧‧‧感應電極32‧‧‧Induction electrodes
33‧‧‧連接電極33‧‧‧Connecting electrode
51‧‧‧保護板51‧‧‧Protection board
51a‧‧‧上端面51a‧‧‧Upper end face
51b‧‧‧開口部51b‧‧‧ openings
52‧‧‧保護板52‧‧‧protection board
52a‧‧‧上端面52a‧‧‧Upper end face
52b‧‧‧開口部52b‧‧‧ openings
53‧‧‧保護板53‧‧‧protection board
53a‧‧‧上端面53a‧‧‧ upper end
53b‧‧‧開口部53b‧‧‧ openings
54‧‧‧保護板54‧‧‧protection board
54a‧‧‧上端面54a‧‧‧ upper end
54b‧‧‧開口部54b‧‧‧ openings
121‧‧‧電源輸入部121‧‧‧Power input section
122‧‧‧放電控制電路122‧‧‧Discharge control circuit
141‧‧‧高壓控制電路(電壓施加電路)141‧‧‧High voltage control circuit (voltage application circuit)
圖1係表示本發明之實施形態1之離子產生裝置之概略構成之立體圖。 圖2係表示上述離子產生裝置之概略構成之圖，(a)係俯視圖，(b)係側視圖，(c)係前視圖。 圖3係表示上述離子產生裝置之電路構成之電路圖。 圖4係表示上述離子產生裝置之沿長度方向之剖面構造之縱剖視圖。 圖5係表示上述離子產生裝置之底部之構造之仰視圖。 圖6係表示上述離子產生裝置之沿長度方向之剖面構造之橫剖視圖。 圖7係表示本發明之實施形態2之離子產生裝置之沿長度方向之剖面構造的縱剖視圖。 圖8係表示本發明之實施形態3之離子產生裝置之沿長度方向之剖面構造的縱剖視圖。 圖9係表示圖8之離子產生裝置之沿短度方向之剖面構造之縱剖視圖。Fig. 1 is a perspective view showing a schematic configuration of an ion generating apparatus according to a first embodiment of the present invention. Fig. 2 is a view showing a schematic configuration of the ion generating apparatus, wherein (a) is a plan view, (b) is a side view, and (c) is a front view. Fig. 3 is a circuit diagram showing the circuit configuration of the above ion generating apparatus. Fig. 4 is a vertical cross-sectional view showing a cross-sectional structure in the longitudinal direction of the ion generating apparatus. Fig. 5 is a bottom view showing the structure of the bottom of the ion generating apparatus. Fig. 6 is a transverse cross-sectional view showing a cross-sectional structure in the longitudinal direction of the ion generating apparatus. Fig. 7 is a vertical cross-sectional view showing a cross-sectional structure in the longitudinal direction of the ion generating apparatus according to the second embodiment of the present invention. Fig. 8 is a vertical cross-sectional view showing a cross-sectional structure in the longitudinal direction of the ion generating apparatus according to the third embodiment of the present invention. Fig. 9 is a vertical cross-sectional view showing a cross-sectional structure in the short direction of the ion generating apparatus of Fig. 8.
Claims (7)
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| CN (1) | CN109716604B (en) |
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| JP2002319470A (en) * | 2001-04-23 | 2002-10-31 | Sharp Corp | Ion generation control method, ion generating element, and air conditioner equipped with it |
| WO2004019462A1 (en) * | 2002-08-23 | 2004-03-04 | Daito Co., Ltd. | Ion generator |
| JP4519790B2 (en) * | 2006-03-06 | 2010-08-04 | アール・ビー・コントロールズ株式会社 | Ion generator |
| JP2008123917A (en) * | 2006-11-14 | 2008-05-29 | Sharp Corp | Ion generating device, and manufacturing method of ion generating device |
| JP4828497B2 (en) * | 2007-09-19 | 2011-11-30 | アール・ビー・コントロールズ株式会社 | Ion generator |
| JP4357589B1 (en) | 2008-12-11 | 2009-11-04 | 一雄 岡野 | Discharge electrode unit |
| JP4980383B2 (en) * | 2009-01-26 | 2012-07-18 | アール・ビー・コントロールズ株式会社 | Ion generator inspection jig |
| JP5539848B2 (en) | 2009-11-18 | 2014-07-02 | 株式会社コガネイ | Ion generator |
| JP4949507B2 (en) * | 2010-08-20 | 2012-06-13 | シャープ株式会社 | Ion generator and electrical equipment |
| JP6043944B2 (en) * | 2011-04-06 | 2016-12-14 | パナソニックＩｐマネジメント株式会社 | Active species generating unit and active species generating apparatus using the same |
| JP5988655B2 (en) * | 2012-04-04 | 2016-09-07 | アール・ビー・コントロールズ株式会社 | Ion generator and manufacturing method thereof |
| JP5972719B2 (en) * | 2012-09-05 | 2016-08-17 | シャープ株式会社 | Ion generator and ion generator provided with the same |
| WO2015151309A1 (en) * | 2014-03-31 | 2015-10-08 | シャープ株式会社 | Ion generation device and electric apparatus |
| JP6485684B2 (en) | 2014-12-02 | 2019-03-20 | Smc株式会社 | Ionizer |
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| WO2018055789A1 (en) | 2018-03-29 |
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