201034598 六、發明說明 【發明所屬之技術領域] 本發明係關於護髮裝置。 【先前技術】 作爲以往的護髮吹風機（護髮裝置），習知有具備金 屬微粒子產生部及霧氣產生部者（日本特開2008_23063 0 號公報：專利文獻1 )。 【發明內容】 [發明所欲解決之技術問題] 於該種護髮裝置’由霧氣產生部所產生的霧氣若移動 到金屬微粒子產生部時，該當金屬微粒子產生部有腐蝕之 虞。 又，霧氣產生部被作成藉由放電進行微粒化的靜電霧 Q 化機構之構成之場合，霧氣若移動到金屬微粒子產生部 時，藉由霧氣的電荷，金屬微粒子產生部的金屬微粒子之 放出性能會有降低之虞。 於揭示在上述專利文獻1之護髮吹風機’其金屬微粒 子產生部及霧氣產生部爲分別被容納於不同的殻體內。因 此，霧氣不易移動到金屬微粒子產生部。 但是，因殻體爲另外設置’故零件數目增加而重量跟 著增加或成爲製造成本增多的原因之一。 在此，本發明之目的，係在於提供一種可藉由更簡化 -5- 201034598 的構成，來抑制由霧氣產生部所產生的霧氣移動到金屬微 粒子產生部的護髮裝置。 [解決問題之技術手段] 本發明的特徵，爲提供一種具備有’·殼體、及設置於 上述殼體內的劃分區內，並產生金屬微粒子之金屬微粒子 產生部、以及設置於上述殼體內的上述劃分區內，並產生 霧氣之霧氣產生部；而上述金屬微粒子產生部，爲配置 於：在由上述霧氣產生部所產生的霧氣所通過之霧氣通過 區域之外的護髮裝置。 根據上述護髮裝置，與金屬微粒子產生部及霧氣產生 部被收納於別的殼體地配置之場合比較，爲可藉由更簡化 之構成，抑制霧氣移動到金屬微粒子產生部。 在此，以上述金屬微粒子產生部從上述霧氣產生部分 離地配置於與上述霧氣通過區域內的霧氣通過方向大致正 交之方向，較爲理想。 如此一來，可抑制從霧氣產生部放出並流動於霧氣通 過區域的霧氣移動到金屬微粒子產生部。 在此，以排出上述金屬微粒子之金屬微粒子排出口及 排出上述霧氣之霧氣排出口，爲形成於上述護髮裝置的外 殼，而上述金屬微粒子產生部爲與上述金屬微粒子排出口 相對向地設置，上述霧氣產生部爲與上述霧氣排出口相對 向地設置，較爲理想。 如此一來，會變得從霧氣產生部被放出的霧氣更快速 -6- 201034598 地被從霧氣排出口排出，更可抑制霧氣移動到金屬微粒子 產生部。又，由於使金屬微粒子產生部與上述金屬微粒子 排出口相對向地設置，故會變得金屬微粒子更快速地被從 金屬微粒子排出口排出。 又，在此，上述金屬微粒子產生部與上述霧氣產生部 之間的距離，以作得比上述霧氣產生部與上述護蓋之間的 距離還長，較爲理想。 如此一來，會變得從霧氣產生部被放出的霧氣又更快 速地被從霧氣排出口排出，更可抑制霧氣移動到金屬微粒 子產生部。 比上述殼體還低導電性之與上述殼體爲個別不同構件 的護蓋，以作爲上述外殻安裝於上述殻體，較爲理想。 如此一來，因外殼爲低導電性的個別不同構件故可抑 制外殼的帶電。其結果，可抑制金屬微粒子產生部的金屬 微粒子放出性能因帶電而引起之降低。 以更具備有抑制上述霧氣移動到上述金屬微粒子產生 部之遮蔽壁，較爲理想。 如此一來，藉由遮蔽壁，更可抑制霧氣移動到金屬微 粒子產生部。 以更具備有抑制上述霧氣移動到上述金屬微粒子產生 部之遮蔽壁’並使上述護蓋與上述遮蔽壁電性絕緣，較爲 理想。 如此一來，可抑制金屬微粒子或霧氣的電荷從護蓋朝 向遮蔽壁移動引起之遮蔽壁的帶電。因此，可抑制金屬微 201034598 粒子產生部的金屬微粒子放出性能因帶電而引起之降低。 在此，以藉由在上述護蓋與上述遮蔽壁之間形成空 隙，使上述護蓋與上述遮蔽壁電性絕緣，較爲理想。 如此一來’可藉極簡化之構成來實現護蓋與遮蔽壁的 電性絕緣。 上述遮蔽壁，以作成與將上述金屬微粒子產生部或上 述霧氣產生部安裝於上述殻體內的安裝構件一體化，較爲 理想。 如此一來，可共用安裝構件及遮蔽壁，與將此等分別 設置之場合比較，可簡化構成。 以更具備有光源、以及導引來自上述光源的光線並發 揮作爲上述遮蔽壁功能之導光構件，較爲理想。 如此一來，於設置導光構件時，藉由將導光構件作爲 遮蔽壁而有效利用，可抑制霧氣移動到金屬微粒子產生 部。 在此，除了上述導光構件，以更具備有與將上述金屬 微粒子產生部或上述霧氣產生部安裝於上述殼體內的安裝 構件一體化之其他遮蔽壁，且上述導光構件與上述其他遮 蔽壁爲並列設置，較爲理想。 如此一來，藉由遮蔽壁（導光構件）及其他遮蔽壁可 構成二重壁構造，又更可抑制霧氣移動到金屬微粒子產生 部。 【實施方式】 -8 * 201034598 以下，一面參照圖面一面說明關於本發明的實施形 態。又，於以下之各實施形態及變形例含有同樣的構成要 素。因此，於同樣的構成要素賦予共通的符號並省略重複 之說明。 (第1實施形態） 於第1圖〜第3圖，顯示有第1實施形態的護髮吹風 ^ 機（護髮裝置）1。 Ο 護髮吹風機1，具備有使用者用手握住之握把la，及 於與握把la交叉之方向與握把la結合一起的本體lb。 護髮吹風機1，於使用時其握把1 a與本體1 b爲呈現T字 狀或是L字狀（於本實施形態爲大致T字狀）的外觀。 從握把la的端部，導出有電源線2。又，握把la，被分 割成本體1 b側的基座1 c及握柄1 d。基座1 c及握柄1 d， 爲夾介連結部1 e以可轉動之方式被連結一起。握柄1 d， Q 爲可折疊至與本體lb平行之位置。 構成護髮吹風機1的外殼之殼體3，爲接合複數個分 割體而構成。於殼體3的內部形成有空洞，於該空洞內， 容納有各種電氣零件。 於本體lb的內部，形成有風洞4。風洞4，爲從一方 側（右側）的入口開口 4 a (吸入口）沿著本體1 b的長邊 方向（第2圖的左右方向）形成到出口開口 4b (吐出 口）。藉由被容納於風洞4內的風扇5的旋轉，形成有空 氣流W。亦即，空氣流W，爲夾介入口開口 4a從外部流 201034598 入風洞4內，通過風洞4內再從出口開口 4b被排出於外 部。 於殼體3的外筒3a之內部，設置有圓筒狀的內筒 6。空氣流W爲流動於內筒6的內側。於內筒6的內側， 風扇5、及驅動風扇5之馬達7、及作爲加熱機構的加熱 器8，爲以該順序從上游側配置而下。使加熱器8啓動 時，溫風會被從出口開口 4b吹出。又，於本實施形態， 加熱器8，爲將帶狀且波浪板狀的電氣抵抗體沿著內筒6 的內周捲繞地構成。但是，加熱器8的構成，並不限定於 上述之構成。 在形成於本體lb內之殻體3與內筒6之間的空洞 9，爲容納有金屬微粒子產生部10、霧氣產生部11、及對 霧氣產生部11施加電壓之第二電壓施加電路12等。又， 於握把la的基座部lc內的空洞13，容納有對金屬微粒 子產生部1 〇施加電壓之第一電壓施加電路1 4、及執行動 作模式的切換等之開關15。再者，於握把la的握柄Id 內的空洞，容納有執行電源的ΟΝ/OFF或動作模式的切換 等之另外的開關1 6。此等電氣零件，係藉由用絕緣性樹 脂等覆蓋金屬導體等之芯線所形成的引導線1 7來相互接 續。又，開關1 5、1 6，爲藉由露出於殼體3表面的開關 鈕1 8、1 9之操作，來切換內部接點的開閉狀態。 第一電壓施加電路14及第二電壓施加電路12，如第 1圖所示，以配置於握把1 a的延長線上的握把1 a或本體 1 b內的區域爲適切。如此實施的話，可以減少因使用者 -10- 201034598 在握住握把la時之作用於第一電壓施加電路14及第二電 壓施加電路12之重力所產生之旋轉力矩（的力矩臂）， 而可減少作用於使用者之手上的負荷。 又，如第1圖所示，於本實施形態，第一電壓施加電 路14及第二電壓施加電路12，爲夾住內筒6配置於相互 相反側的位置。亦即，於第一電壓施加電路1 4與第二電 壓施加電路1 2之間夾介有內筒6。如此一來，可抑制因 0 第一電壓施加電路14及第二電壓施加電路12相互干擾所 造成之電壓的降低或不安定化等之壞情況。 內筒6，爲具備有筒體6a、及支撐肋6b (於第1圖 僅圖不一處）、以及凸緣6c。支撐肋6b，爲從筒體6a朝 向直徑方向外側延伸設置，且朝周長方向隔開每預定間隔 地配置。凸緣6c，爲夾介支撐肋6b被接續於筒體6a，並 朝正交於筒體6a的軸方向之方向向外伸出。於筒體6a與 凸緣6c之間形成有空隙gi。空氣流W的一部分，會分岐 Q 並經由空隙g 1流入空洞9內，而形成分岐流Wp。又，成 爲將分岐流Wp朝向空洞9內導入的導入口之空隙gl，爲 位於風扇5的下游，且爲加熱器8的上游位置。因此，分 岐流W p，是被加熱器8加熱前之比較冷的空氣流。 又，如第3圖所示，連接於金屬微粒子產生部1〇的 引導線17a，及連接於霧氣產生部1 1的引導線17b，以不 會相互交叉並極度分離地配線爲佳。如此，可抑制流動於 引導線1 7a、1 7b的電流因相互千擾而得不到在金屬微粒 子產生部10或霧氣產生部11所預期的電壓，或是電壓變 -11 - 201034598 得不安定。於本實施形態’金屬微粒子產生部10及霧氣 產生部11，爲沿著內筒6的周長方向分離配置。又’引 導線1 7a，爲於空洞9內，沿著上述之周長方向，配線於 金屬微粒子產生部1 〇之一側（第3圖的上側）的區域。 另一方面，引導線1 7b ’爲於空洞9內’沿著上述之周長 方向，配線於另一側（第3圖的下側）的區域。 如第2圖所示’於殼體3，橢圓形的貫通孔3b ’爲形 成於空洞9的出口開口 4b側。貫通孔3b，係以由絕緣性 合成樹脂材料所製作之護蓋20蓋塞著。於護蓋20，形成 有金屬微粒子排出口 20a及霧氣排出口 20b。爲了抑制因 金屬微粒子或霧氣所引起之護蓋20的帶電，護蓋20，以 具備有比殻體3還低之低導電性爲佳。若護蓋20帶電 時，由於該電荷，會變得使帶電荷之金屬微粒子或霧氣不 易從金屬微粒子產生部1〇或霧氣產生部11放出。又，於 該部分，護蓋20爲構成護髮吹風機1的外殼。 金屬微粒子產生部1 〇，爲具備有由導電性金屬材料 所形成之放電電極l〇a及接地電極l〇b。若藉由第一電壓 施加電路1 4於放電電極1 0 a與接地電極1 〇b之間施加高 電壓使其放電（電暈放電等），則藉由該放電作用，會從 放電電極10a或接地電極10b等放出金屬微粒子（金屬分 子或金屬離子等）。 金屬微粒子產生部10，具備有箱狀之筐體10c。放電 電極1 〇a，於被固定在筐體1 〇c的基台（印刷電路配線板 等，圖示省略）處，藉由錫焊或鉚接等固定。 -12- 201034598 放電電極1 〇a，爲極細的線材。線材的寬幅（直 徑），爲10〜400[//m](較佳爲30〜300["m]，更佳爲 5〇〜200[#m])。其可採用具備有圓形、橢圓形、多角形 等之斷面形狀的各種線材。又，放電電極1 〇a，亦可形成 爲具備有尖端的針狀。 接地電極1 〇b，爲於放電電極1 0a的前端側，使與放 電電極1 0a離開地設置。接地電極1 Ob，爲正交於放電電 0 極l〇a的延伸方向之環狀的板材。 放電電極l〇a，係由過渡金屬（金、銀、銅、白金、 鋅、鈦、鍺、鈀、銥、釕、餓等）的單體、或該等的合 金、或是電鍍有過渡金屬的構件等所構成。於從金屬微粒 子產生部10被放出的金屬微粒子，含有金、銀、銅、鋅 等時，可得到由該當金屬微粒子所產生之抗菌作用。又， 於金屬微粒子’含有白金、鋅、鈦等時，可得到由該當金 屬微粒子所產生之抗氧化作用。又，白金的微粒子，以具 Ο極 高之抗氧化作用而周知。又，沒有放出金屬微粒子的部 分（接地電極1 〇b等）’可使用不鏽鋼或鎢等構成。 金屬微粒子產生部10，亦可爲使由放電作用所產生 之離子（負離子’例如n〇2_、no3-等）與含有放電電極 10a、接地電極l〇b、其他金屬材料、或金屬成分之構件 等相碰撞’而產生金屬微粒子者。亦即，亦可使接地電極 1 〇b或上述之構件，藉由含有上述之過渡金屬的材料而構 成，然後由此等材料放出金屬微粒子。 霧乘1產生部1 1，爲具備有由導電性金屬材料所形成 -13- 201034598 之放電電極lla及接地電極lib。於放電電極lla及接地 電極1 1 b之間藉由第二電壓施加電路1 2施加高電壓使之 放電（電暈放電等）。具體上，放電電極lla被形成爲針 狀。又，接地電極1 1 b，爲於放電電極1 1 a的前端側，使 與放電電極lla分離設置。接地電極lib，爲環狀的板 材。霧氣產生部1 1，具備有冷卻板1 1 C。冷卻板1 1 C，係 作爲冷卻機構發揮其功能，爲由帕耳帖元件（圖示省略） 及熱傳導性構件（金屬構件等）所構成。於藉由帕耳帖元 件被冷卻之冷卻板11c的表面，產生來自空氣中的水分之 結露水。被供給之水（亦即，結露水）藉由放電作用被微 粒化，而產生了奈米尺寸大小之非常細微的霧氣（含有負 離子之帶負電的霧氣）。於本實施形態，爲相當於具備有 帕耳帖元件之冷卻板1 1 e的水供給部。 於本實施形態，金屬微粒子產生部1 〇及霧氣產生部 11，同爲相當於離子發生部。又，霧氣產生部，亦可搭載 將水加熱使蒸氣產生之蒸氣產生機構。又，金屬微粒子產 生部，亦可搭載將金屬溶液霧化而產生金屬微粒子之金屬 溶液霧化機構。 又，於本實施形態，如第2圖所示，金屬微粒子排出 口 20a的孔徑，設成比霧氣排出口 20b的孔徑還小。亦 即，霧氣產生部1 1的維修或狀態之確認等，易於從霧氣 排出口 2 Ob進行。又，可抑制手指、道具、異物等誤從金 屬微粒子排出口 20a之進入。 再者，護髮吹風機1，具備有發光部21。發光部 -14 - 201034598 21，具備有：配置於空洞9內的LED (發光二極管）等之 光源21a、及導引光源21a的光線之由壓克力等之透光性 合成樹脂材料所形成的導光構件2 1 b。如第2圖所示，於 金屬微粒子排出口 20a與霧氣排出口 20b之間，形成有縱 長圓狀的孔20c。與導光構件21b的光源21a爲相反側的 射出端21c’係被嵌插於孔20c並露出於護蓋20之外。 因此，光源2 1 a的光，是被導光構件2 1 b導引，從射出端 0 21c射出護蓋20之外。於使用護髮吹風機1時，射出端 2 1 c爲朝向使用者的頭部。 發光部2 1，可利用作爲護髮吹風機1的動作模式的 表示手段。例如，在吹出藉由加熱器8被加熱的溫風之狀 態變爲紅色，在沒有使用加熱器8而吹出冷風之狀態變爲 綠色’在藉由金屬微粒子產生部10放出金屬微粒子之狀 態變爲黃色，在藉由霧氣產生部1 1放出霧氣之狀態變爲 青色等，可對應動作狀態來變化發光部2 1的顏色。此 Q 時’與第二電壓施加電路1 2等構裝於相同基板上之控制 電路（圖示省略），可以對應動作狀態來控制光源2 1 a的 發光。又，構裝有複數個對應於各色之光源21a，而控制 電路係控制此等複數個光源2 1 a的發光。又，亦可藉由控 制電路使光源2 1 a點滅，或控制點滅間隔，或使發光強度 變化。亦可使如此之發光形態，對應於各種動作模式來設 定。 又’亦可藉由來自發光部2 1的光線，給予人體特定 的效果。例如，作爲光源21a使用波長爲41 5[ηιη]之高亮 -15- 201034598 度LED時，可得到從光源2 1 a射出的青光所產生之殺菌 效果、或因毛孔的縮小或皮脂的分泌降低等而引起之青春 痘的預防效果等。又，作爲光源21a使用波長爲63 0 [nm] 左右之高亮度LED時，可得到從光源21a射出的紅光所 產生之促進血行、或因血管新生產生之新陳代謝的活性效 果、或促進膠原蛋白或彈性蛋白的產生效果。再者，於反 覆進行紅光的照射時，可得到改善細紋、肝斑、暗斑、毛 孔粗大等之光老化皮膚的改善效果或改善青春痘後的瘢痕 之改善效果。又，此等效果，因人而異。 再者，發光部2 1，可利用作爲照射金屬微粒子產生 部1 0或霧氣產生部1 1的照射手段。如此一來，可得到辨 識金屬微粒子產生部1 〇或霧氣產生部1 1的狀態之辨識性 提升的效果，或藉由進行掃除等之維修時的辨識性的提升 而產生之作業效率的提升效果。 如上述，於本實施形態的護髮吹風機（護髮裝置） 1，金屬微粒子產生部10及霧氣產生部11爲容納於單一 之空洞9內。由霧氣產生部11產生之霧氣若移動到金屬 微粒子產生部10時，電壓或電場因金屬微粒子產生部10 帶電而產生變化，會有金屬微粒子的產生不安定化，或金 屬微粒子產生部10因水分而腐蝕之虞。 在此，於本實施形態，如第3圖所示，金屬微粒子產 生部1 〇，係配置於用以通過由霧氣產生部11所產生之霧 氣的霧氣通過區域Ami以之外。具體上，金屬微粒子產 生部10，爲：從霧氣產生部11分離配置於在霧氣通過區 -16- 201034598 域Ami內之相對於霧氣通過方向Dp爲正交之方向 因霧氣從霧氣產生部11朝向方向Dp流動，故霧氣 移動到相對於霧氣產生部1 1在方向Dn上偏移的金 粒子產生部10。因此，金屬微粒子產生部10，不易 由霧氣產生部11所產生之霧氣的影響。 又，於本實施形態，於空洞9內，金屬微粒子產 1 〇，爲與金屬微粒子排出口 20a相對向且配置於比較 0 較接近金屬微粒子排出口 20a的位置。又，霧氣產 1 1，爲與霧氣排出口 20b相對向且配置於比較接近於 排出口 20b的位置。再者，霧氣產生部1 1與護蓋20 離D1，爲比霧氣產生部11與金屬微粒子產生部1〇 離D2還短。再者，於空洞9內，從空隙gl流入之 流Wp，係被從金屬微粒子排出口 20a及霧氣排出口 排出於外部。 因此，由金屬微粒子產生部10所產生的金屬 Q 子，比較上爲較順利地被從金屬微粒子排出口 20a排 又，由霧氣產生部1 1所產生的霧氣，比較上爲較順 被從霧氣排出口 20b排出。亦即，由金屬微粒子產 1 〇所產生的金屬微粒子，不易朝向霧氣產生部1 1流 又，由霧氣產生部11所產生的霧氣，不易朝向金屬 子產生部1 〇流動。又，分岐流Wp，雖對金屬微粒子 氣的排出有貢獻，不過即使無分岐流Wp，金屬微粒 霧氣亦可分別從排出口 2 0 a、2 0 b排出。 再者’於本實施形態，藉由在空洞9內設置遮蔽 D η。 不易 屬微 受到 生部 上爲 生部 霧氣 的距 的距 分岐 20b 微粒 出。 利地 生部 動。 微粒 及霧 子及 壁， -17- 201034598 更確實抑制霧氣移動到金屬微粒子產生部l〇 形態，導光構件2 1 b，及將金屬微粒子產生部 內筒6的安裝構件6d，係作爲遮蔽壁發揮其功 導光構件2 1 b，爲板狀，其厚度方向爲沿 周長方向配置。又，導光構件21b，爲配置於 產生部1〇與霧氣產生部11的放出端（第3圖 間。導光構件2 1 b，是作爲劃分金屬微粒子通 3圖中的金屬微粒子產生部10的左邊的區域） 氣通過區域（第3圖中的霧氣產生部11的左 Ami之遮蔽壁而發揮其功能。 安裝構件6d，爲從筒體6a沿著直徑方向 出設置。金屬微粒子產生部10，爲藉由安裝精 於內筒6。安裝構件6d，爲具備有從金屬微 10朝向金屬微粒子排出口 20a延伸之遮蔽板 6e，爲設置於安裝構件6d，故必然被近接於 產生部10地配置。因此，可藉由比較上爲較 有效抑制霧氣移動到金屬微粒子產生部1 〇。 又，於遮蔽板6e與護蓋20之間設置有； 由空隙g2，可抑制滯留於護蓋2 0之電荷經E 傳導於金屬微粒子產生部10。護蓋20的電荷 屬微粒子產生部1 〇，則會妨礙金屬微粒子的 代替空隙g2，亦可使低導電性或是絕緣性的 裝構件6d與護蓋20之間。 導光構件21b及安裝構件6d，如第3圖 。於本實施 10安裝於 能。 著內筒6的 金屬微粒子 的左端）之 過區域（第 Ame，與霧 邊的區域） 朝向外側突 Η 牛6d安裝 粒子產生部 6 e。遮蔽板 金屬微粒子 小之構成來 S隙g2 。藉 白遮蔽板6e 若傳導於金 產生。又， 構件介於安 所示，爲相 -18- 201034598 對於霧氣的通過方向Dp被平行配置並作爲二重遮蔽壁發 揮其功能。因此，更有效抑制霧氣移動到金屬微粒子產生 部1 〇。 如以上之說明，於本實施形態的護髮吹風機（護髮裝 置）1，金屬微粒子產生部1 0及霧氣產生部1 1爲容納於 殻體3內的單一劃分區（空洞9)內，且金屬微粒子產生 部1 0，係配置於由霧氣產生部1 1所產生的霧氣所通過之 霧氣通過區域Ami之外。因此，與金屬微粒子產生部及 霧氣產生部被收納於不同殻體地配置之場合比較，可藉由 更簡化之構成，抑制霧氣移動到金屬微粒子產生部1 0。 又，金屬微粒子產生部10，係從霧氣產生部11分離 配置在正交於霧氣通過區域Ami的霧氣通過方向Dp之方 向Dn。因此，更可抑制從霧氣產生部11所放出並在霧氣 通過區域Ami內流動的霧氣移動到金屬微粒子產生部 10 ° Q 又，霧氣產生部11，爲與霧氣排出口 20b相對向地 設置。因此，從霧氣產生部11被放出的霧氣，可更快速 地從霧氣排出口 20b被排出。其結果，更可抑制霧氣移動 到金屬微粒子產生部10。又，金屬微粒子產生部10，爲 與金屬微粒子排出口 20a相對向地設置。因此，金屬微粒 子，可更快速地從金屬微粒子排出口 20a排出。 又，金屬微粒子產生部10與霧氣產生部11之間的距 離D2，設成比霧氣產生部1 1與護蓋20之間的距離D1還 長。因此，會變得從霧氣產生部1 1所放出的霧氣又更快 -19- 201034598 速地從霧氣排出口 20b被排出。其結果’更可抑制霧氣移 動到金屬微粒子產生部1 0。 又’比殻體3更低導電性之作成與殼體3爲個別不同 構件的護蓋20，爲安裝於殻體3。因此，可抑制金屬微粒 子或霧氣引起之護蓋20的帶電。其結果’可抑制來自金 屬微粒子產生部10或霧氣產生部11的金屬微粒子或霧氣 的放出性能因帶電而降低。 又，作爲抑制由霧氣產生部11所產生的霧氣移動到 金屬微粒子產生部10之遮蔽壁，設置有導光構件21b及 遮蔽板6e。因此，藉由遮蔽壁更可抑制霧氣移動到金屬 微粒子產生部1 〇。 又，護蓋20與遮蔽板6e之間，係電氣絕緣。因此， 可抑制金屬微粒子或霧氣的電荷從護蓋20移動到遮蔽板 6e而使遮蔽板6e帶電。因此，可抑制金屬微粒子產生部 1 〇的金屬微粒子放出性能因帶電而降低。 又，藉由在護蓋20與遮蔽板6e之間形成空隙g2， 護蓋20與遮蔽板6e電氣絕緣。因此，可藉極簡化之構成 來實現護蓋20與遮蔽板6e的電位絕緣。 又，遮蔽板6e，爲與將金屬微粒子產生部10安裝於 殼體3內的安裝構件6d —體化。因此，可共用安裝構件 6d及遮蔽板6e，與將此等個別設置之場合比較，爲可簡 化構成。 又，導光構件2 1 b，係作爲遮蔽壁發揮其功能。因 此，於設置導光構件21b時，藉由將導光構件21b作爲遮 -20- 201034598 蔽壁有效利用，可抑制霧氣移動到金屬微粒子產生部 10° 又，作爲遮蔽壁發揮其功能之導光構件211?與遮蔽板 6e，爲並列設置。因此，遮蔽壁成爲二重壁構造’更可抑 制霧氣移動到金屬微粒子產生部1 〇。 (金屬微粒子產生部及霧氣產生部的佈局變形例） 0 第4圖〜第9圖，顯示上述第1實施形態的變形例。 各變形例，其金屬微粒子產生部1 〇及霧氣產生部1 1亦爲 容納於殼體3內的單一空間（空洞9)內。又，金屬微粒 子產生部1〇，爲設置於由霧氣產生部11所產生的霧氣通 過區域Ami之外。 在顯示於第4圖之第1變形例，霧氣產生部11，爲 沿著霧氣通過區域 Ami之霧氣通過方向（霧氣放出方 向）Dp，配置於比金屬微粒子產生部10更靠近前端處。 Q 根據如此之佈局，金屬微粒子產生部10，爲位於霧氣產 生部1 1的霧氣放出方向（Dp )的相反側。因此，更可抑 制由霧氣產生部11所產生的霧氣移動到金屬微粒子產生 部10。又，根據在本變形例之護蓋20A，金屬微粒子及 霧氣之兩方爲從共通的排出口 2 0d被排出。 在顯示於第5圖之第2變形例，係與第4圖相反，金 屬微粒子產生部1 〇，爲沿著霧氣通過區域Ami之霧氣通 過方向Dp，配置於比霧氣產生部11更靠近前端處。又， 在顯示於第6圖之第3變形例，以朝向金屬微粒子及霧氣 -21 - 201034598 共通的排出口 2 0 d的大致中心之方式’亦即，使金屬微粒 子通過區域Ame的中心線與霧氣通過區域Ami的中心線 交叉之方式，配置金屬微粒子產生部10及霧氣產生部 11。藉由此等佈局，只要金屬微粒子產生部10配置於霧 氣通過區域Ami之外，則不會產生問題。 在顯示於第7圖〜第9圖之第4〜第6變形例，金屬 微粒子產生部1 0，爲沿著霧氣通過方向Dp，配置於比霧 氣產生部11更靠近前端處。不過，於此等變形例，爲藉 由遮蔽壁22A、22A1、22A2阻止霧氣移動到金屬微粒子 產生部10。因藉由霧氣遮蔽壁22A、22A1' 22A2遮蔽， 故相對於霧氣通過區域Ami爲遮蔽壁22A、22A1、22A2 的背側區域，成爲霧氣通過區域Ami之外。如此等變形 例所示，遮蔽壁22A、22A1、22A2，可對應佈局適當變 更。亦即，亦可如第7圖所示，平板狀的遮蔽壁22A，爲 形成於金屬微粒子產生部1 〇的側面。亦可如第8圖所 示，折射板狀的遮蔽壁22A1，爲覆蓋金屬微粒子產生部 1 〇的側面及後部地設置。亦可如第9圖所示，U字或V 字狀的遮蔽壁22 A2，爲設置於金屬微粒子產生部1 0的後 方。 (第2實施形態） 第1 〇圖的斷面圖，爲顯示第2實施形態的護髮吹風 機（護髮裝置）1B。 於護髮吹風機1 B，在內筒6B的前端側設置有空隙 -22 - 201034598 g3。空洞9B與風洞4B爲夾介空隙g3連通，於空洞 內配置有霧氣產生部11。另一方面，金屬微粒子產生 10’爲配置於風洞4B。根據如此之構成，分岐流Wp， 分岐爲從護蓋2 0B的霧氣排出口 2 0b排出之分岐 Wpl，與從空隙g3流回風洞4B內之分岐流Wp2。分岐 Wpl、WP2’皆成爲含有霧氣之空氣流。 於金屬微粒子產生部1 0的空隙g 3側（第1 0圖的 側）配置有遮蔽壁22B。金屬微粒子產生部1 〇，係藉由 蔽壁22B之遮蔽而位於霧氣通過區域（分岐流Wp2) 外側’可抑制霧氣移動到金屬微粒子產生部1 〇。 因此，藉由具備有遮蔽壁22B之比較上爲較簡化的 成’可抑制金屬微粒子產生部1 0受到由霧氣產生部1 1 產生的霧氣引起之壞影響。 (第3實施形態） 第1 1圖的正面圖，爲顯示第3實施形態的護髮吹 機（護髮裝置）1 C。 於護髮吹風機1C，在內筒6(參照第1圖）的兩側 設置有金屬微粒子產生部10及霧氣產生部11。金屬微 子產生部10及霧氣產生部11，爲配置於殼體3C的外 3a內之單一的空洞9C的內部。亦即，空洞9C，爲形 於從內筒6的上側到兩側。金屬微粒子產生部1 0，爲 置於嵌入在形成於殼體3C的貫通孔3b之護蓋20C1的 後之比較上爲較接近護蓋20C 1之位置。霧氣產生部1】 9B 部 被 流 流 上 遮 的 構 所 風 粒 筒 成 配 背 -23- 201034598 爲配置於嵌入在形成於殼體3C的貫通孔3c之譲 的背後之比較接近護蓋20C2之位置。 因此，藉由使內筒6夾介於金屬微粒子產生 霧氣產生部1 1之間地配置之比較上爲較簡的化 抑制金屬微粒子產生部1 〇受到由霧氣產生部1 1 霧氣引起之壞影響。 (第4實施形態） 第12圖的斷面圖，爲顯示第4實施形態的 器（護髮裝置）1D。 吹風整髮器1 D，具備有接力棒狀的形狀。 手持握把1 f，用設置於前端部1 g之梳子2 3來 (梳髮）。於梳子2 3，設置有突出之複數根梳齒 構成外殼之殼體3D，爲接合複數個分割體 於殼體3D的內部形成有空洞，於該空洞內，容 電氣零件。 握把1 f之接近梳子23的部分，安裝有構成 出形狀的護蓋20D。在由護蓋20D及殼體3D所 一的空洞9 D內，容納有金屬微粒子產生部1 0 生部1 1。於護蓋20D，形成有朝向梳齒23a開放 2〇d。由金屬微粒子產生部10所產生的金屬微粒 氣產生部11所產生的霧氣，係被從排出口 20d 部而作用於頭髮或肌膚。又，於金屬微粒子產生 霧氣產生部11，施加有來自電路單元24之電壓 蓋 20C2 部10與 構成，可 所產生的 吹風整髮 使用者， 整理頭髮 23a。 而構成。 納有各種 外殼之膨 形成之單 及霧氣產 之排出口 子及由霧 放出於外 部10及 -24- 201034598 又，爲了抑制使用者的帶電所引起之金屬微粒子放出 的妨礙，使充電部25露出於握把If的表面。充電部 25，爲有與被放出之金屬微粒子及霧氣的極性爲相反的極 性（例如，金屬微粒子及霧氣的負離子被放出時爲正電） 之帶電。使用者，藉由握住充電部25 ’而有與上述之相 反極性的帶電。又，充電部2 5之至少最外層爲由絕緣性 材料所構成。 0 爲了抑制由霧氣產生部11所產生的霧氣移動到金屬 微粒子產生部1 0，設置有與第8圖所示之第5變形例相 同的遮蔽壁22D。 因此，藉由具備有遮蔽壁2 2D之比較簡化的構成， 可抑制金屬微粒子產生部1 0受到由霧氣產生部1 1所產生 的霧氣引起之壞影響。 (第5實施形態） 0 第1 3圖的斷面圖，爲顯示第5實施形態的吹風整髮 器（護髮裝置）1 E。 吹風整髮器1E，基本上具備有與有關上述第4實施 形態之吹風整髮器1 D相同的構成。 不過’於吹風整髮器1D，在空洞9D內設置有使空氣 流W產生的風扇5E以及使風扇5E旋轉的馬達7E。由金 屬微粒子產生部10所產生的金屬微粒子及由霧氣產生部 11所產生的霧氣，係隨著由風扇5E所產生的分岐流Wp 被排出。此點，爲與上述第4實施形態互異。 -25- 201034598 作爲送風機構的馬達7E及風扇5E，爲容納在形成於 殼體3E內的空洞內。馬達7E，爲藉由電路單元24的驅 動電路而旋轉。於殼體3E的基端（於第13圖下側），形 成有成爲空氣導入口的開口部lh。風扇5E若旋轉’則空 氣會夾介開口部1 h從外部流入於空洞9D內，而形成有 通過空洞9D內並從排出口 20d被朝向梳子23排出之空 氣流Wp。同時，亦形成從形成於梳子部23之梳齒23a的 根底之吹出孔2 3 b被排出的空氣流W。又，電力爲夾介電 源線2供給於電氣零件。 因此，與上述第4實施形態同樣地，爲藉由具備有遮 蔽壁22D之比較簡化的構成，可抑制金屬微粒子產生部 10受到由霧氣產生部11所產生的霧氣引起之壞影響。 (第6實施形態） 第14圖的側面圖，爲顯示第6實施形態的直髮器 (護髮裝置）1F。第15圖，爲沿著第14圖中之χν_χν 線剖開的斷面圖。 如第14圖所示，直髮器1F，爲具備有夾介連結部lk 可擴開成V字狀的二個臂部1 i、lj。使用者，爲使用臂部 1 i、1 j前端的夾板2 6夾住頭髮並藉由加熱器2 7加熱來整 理頭髮。 如第1 5圖所示，於形成外殼之殻體3 F的內部形成有 空洞，於該空洞內，容納有各種電氣零件。 於臂部1 i側的殻體3 F ’在兩側面（第1 5圖的左 -26- 201034598 右）安裝有朝外伸出的一對護蓋20F1、20F2。形成外殼 之一對護蓋20F1、20F2，爲設置於與夾板26鄰接的轉動 連結部lk側之部分。在由護蓋20F1、20F2及殻體3F所 形成之單一的空洞9F內，容納有金屬微粒子產生部10及 霧氣產生部11。金屬微粒子產生部10，爲容納於護蓋 、 20F1內。金屬微粒子，係從形成於護蓋20F1的金屬微粒 子排出口 20a被放出。另一方面，霧氣產生部11，爲容 0 納於護蓋20F2內。霧氣係從形成於護蓋20F2的霧氣排出 口 20b被放出。 金屬微粒子產生部10及霧氣產生部11，是配置於單 一的空洞9F內，不過是以相互分離之方式配置。霧氣產 生部1 1，是配置於比較上爲較接近於霧氣排出口 20b之 位置。而且，霧氣的排出方向，爲設定成從空洞9F的中 心朝向外側之方向。因此，金屬微粒子產生部1 〇，比較 上爲較容易配置於霧氣產生部11的霧氣通過區域Ami之 〇 外。 亦即，藉由在臂部1 i的兩側分別配置金屬微粒子產 生部1 〇及霧氣產生部1 1之比較上爲較簡化的構成，可抑 制金屬微粒子產生部1 0受到由霧氣產生部1 1所產生的霧 氣引起之壞影響。 以上，關於本發明之理想之實施形態業已說明，不過 本發明並不限定於上述實施形態，可爲各種變形。例如， 金屬微粒子產生部及霧氣產生部，於上述各實施形態及變 形例亦可相互替換配置位置。又，亦可使遮蔽板與霧氣產 -27- 201034598 生部的安裝構件一體化。又’排出口 ’以設置於與殼體爲 不同個體的護蓋上較爲理想，不過亦可設置於殼體本身。 再者，於外殼與遮蔽壁之間形成空隙’將外殼及遮蔽壁予 以電氣絕緣較爲理想’不過亦可於外殼與遮蔽壁之間使絕 緣構件介於其中予以絕緣。 【圖式簡單說明】 第1圖是有關本發明之護髮裝置的第1實施形態之護 髮吹風機的斷面圖。 第2圖是上述護髮吹風機的正面圖。 第3圖是上述護髮吹風機的金屬微粒子產生部及霧氣 產生部的放大平面圖。 第4圖是金屬微粒子產生部及霧氣產生部的放大平面 圖（第1變形例）° 第5圖是金屬微粒子產生部及霧氣產生部的放大平面 圖（第2變形例）。 第6圖是金屬微粒子產生部及霧氣產生部的放大平面 圖（第3變形例）。 第7圖是金屬微粒子產生部及霧氣產生部的放大平面 圖（第4變形例）。 第8圖是金屬微粒子產生部及霧氣產生部的放大平面 圖（第5變形例）。 第9圖是金屬微粒子產生部及霧氣產生部的放大平面 圖| (第6變形例）。 -28- 201034598 第1 〇圖是有關本發明之護髮裝置的第2實施形態之 護髮吹風機的斷面圖。 第1 1圖是有關本發明之護髮裝置的第3實施形態之 護髮吹風機的正面圖。 第1 2圖是有關本發明之護髮裝置的第4實施形態之 吹風整髮器的斷面圖。 第1 3圖是有關本發明之護髮裝置的第5實施形態之 0 吹風整髮器的斷面圖。 第1 4圖是有關本發明之護髮裝置的第6實施形態之 直髮器的側面圖。 第1 5圖是沿著第1 4圖中之XV-XV線切開的斷面 圖。 【主要元件符號說明】 1 :護髮吹風機（護髮裝置） Q 1Β:護髮吹風機（護髮裝置） 1 C :護髮吹風機（護髮裝置） 1D:吹風整髮器（護髮裝置） 1Ε:吹風整髮器（護髮裝置） 1F:直髮器（護髮裝置） 1 a :握把 1 b :本體 lc :基座 1 d :握柄. -29 - 201034598 1 e :連結部 1 f :握把 1 g :前端部 1 h :開口部 1 k :連結部 li,lj :臂部 2 :電源線 3 :殼體 3E :殼體 3 a :外筒 3 b :貫通孔 4 :風洞 4a :入口開口 4b :出口開口 5 :風扇 5 E :風扇 6 :內筒 6 a :筒體 6b :支撐肋 6c :凸緣 7 :馬達 7 E :馬達 8 :加熱器 9 :空洞 -30- 201034598 1 〇 :金屬微粒子產生部 1 0 a :放電電極 1 0 b :接地電極 1 0c :筐體 1 1 :霧氣產生部 1 1 a :放電電極 1 1 b :接地電極 1 1 c :冷卻板 1 2 :第二電壓施加回路 1 3 :空洞 1 4 :第一電壓施加回路 1 5 :開關 1 6 :開關 17 a, 1 7b :引導線 1 8 , 1 9 :開關鈕 20 :護蓋 20a:金屬微粒子排出口 20b :霧氣排出口 20c :孔 2 0 d :排出口 21 :發光部 2 1 a :光源 2 1 b :導光構件 2 1 c :射出端 -31 - 201034598 22A,22A1 ,22A2 ：霧氣遮蔽壁 2 3 :梳子 2 3 a :梳齒 26 :夾板 2 7 :加熱器 W :空氣流201034598 VI. [Technical Field] The present invention relates to a hair care device. [Prior Art] As a conventional hair care hair dryer (hair care device), There is a metal microparticle generating unit and a mist generating unit (Japanese Patent Laid-Open No. 2008_23063 No. 0: Patent Document 1). [Technical Problem to be Solved by the Invention] When the mist generated by the mist generating portion of the hair care device is moved to the metal fine particle generating portion, The metal microparticle generating portion is corroded. also, When the mist generating portion is formed as a static mist Q-forming mechanism that is atomized by discharge, When the mist moves to the metal particle generating portion, By the charge of the mist, The release property of the metal fine particles in the metal fine particle generating portion is lowered. In the hair dryer of the above-mentioned Patent Document 1, the metal microparticle generating portion and the mist generating portion are housed in separate housings. Therefore, The mist does not easily move to the metal microparticle generating portion. but, Since the number of parts is increased due to the additional arrangement of the housing, the weight is increased or the manufacturing cost is increased. here, The purpose of the present invention, It is to provide a composition that can be simplified by -5-201034598, It is possible to suppress the movement of the mist generated by the mist generating portion to the hair care device of the metal microparticle generating portion. [Technical means for solving the problem] Features of the present invention, In order to provide a housing having And a dividing zone disposed in the housing, And generating a metal microparticle generating portion of the metal microparticles, And the above-mentioned divided area disposed in the above casing, And generating a mist generating portion of the mist; The metal fine particle generating portion, For configuration in: The mist passing through the mist generated by the mist generating portion passes through the hair care device outside the region. According to the above hair care device, Compared with the case where the metal fine particle generating portion and the mist generating portion are housed in another casing, In order to make it simpler, The mist is prevented from moving to the metal fine particle generating portion. here, The metal fine particle generating portion is disposed in a direction substantially perpendicular to a direction in which the mist passes through the mist passing region, from the mist generating portion. More ideal. As a result, The mist which is discharged from the mist generating portion and flows through the mist passing region can be prevented from moving to the metal fine particle generating portion. here, a metal fine particle discharge port for discharging the metal fine particles and a mist discharge port for discharging the mist. To form the outer casing of the hair care device described above, The metal fine particle generating portion is disposed to face the metal fine particle discharge port. The mist generating unit is disposed to face the mist discharge port, More ideal. As a result, The mist that will be released from the mist generating part is faster. -6- 201034598 The ground is discharged from the mist discharge port. It is also possible to suppress the mist from moving to the metal fine particle generating portion. also, Since the metal fine particle generating portion is disposed opposite to the metal fine particle discharging port, Therefore, the metal particles are more quickly discharged from the metal particle discharge port. also, here, a distance between the metal fine particle generating portion and the mist generating portion, Therefore, the distance between the mist generating portion and the cover is longer than More ideal. As a result, The mist that will be released from the mist generating portion is quickly discharged from the mist discharge port. It is also possible to suppress the mist from moving to the metal particle generating portion. a cover having a lower electrical conductivity than the above-mentioned housing and the above-mentioned housing being a separate component, Mounted in the above casing as the outer casing, More ideal. As a result, The housing is electrically charged because the outer casing is a separate component of low electrical conductivity. the result, The metal fine particle emission performance of the metal fine particle generating portion can be suppressed from being lowered due to charging. Further, the shielding wall that moves to the metal fine particle generating portion by suppressing the mist is further provided. More ideal. As a result, By shielding the wall, It is also possible to suppress the mist from moving to the metal microparticle generating portion. Further, the shielding wall that moves to the metal fine particle generating portion by suppressing the mist is further provided, and the cover is electrically insulated from the shielding wall. More ideal. As a result, The charging of the shielding wall caused by the movement of the metal particles or the mist from the cover toward the shielding wall can be suppressed. therefore, It can suppress the decrease in the metal fine particle emission performance of the metal micro-201034598 particle generating portion due to charging. here, By forming a gap between the cover and the shielding wall, The cover is electrically insulated from the shielding wall, More ideal. In this way, the electrical insulation between the cover and the shielding wall can be achieved by a very simplified configuration. The above shielding wall, The assembly is integrated with a mounting member that mounts the metal fine particle generating portion or the mist generating portion in the casing. More ideal. As a result, The mounting member and the shielding wall can be shared. Compared with the case where these are separately set, The composition can be simplified. To have a light source, And guiding the light from the light source and performing the light guiding member functioning as the shielding wall. More ideal. As a result, When setting the light guiding member, Effectively utilizing the light guiding member as a shielding wall, It can suppress the movement of the mist to the metal fine particle generating portion. here, In addition to the above light guiding members, Further, the other shielding wall integrated with the mounting member that mounts the metal fine particle generating portion or the mist generating portion in the casing is provided. And the light guiding member is arranged in parallel with the other shielding walls. More ideal. As a result, The double wall structure can be formed by the shielding wall (light guiding member) and other shielding walls, Further, it is possible to suppress the mist from moving to the metal fine particle generating portion. [Embodiment] -8 * 201034598 Below, The embodiment of the present invention will be described with reference to the drawings. also, The following constituent elements and modifications include the same constituent elements. therefore, The same components are denoted by the same reference numerals, and the description thereof will not be repeated. (First embodiment) In Figs. 1 to 3, A hair dryer (hair care device) 1 according to the first embodiment is shown. 护 Hair care hair dryer 1, There is a grip la that the user holds with his hand, And a body lb that is combined with the grip la in a direction intersecting the grip la. Hair care hair dryer 1, At the time of use, the grip 1 a and the main body 1 b have an appearance of a T-shape or an L-shape (substantially T-shaped in the present embodiment). From the end of the grip la, The power cord 2 is exported. also, Grip la, The base 1 c and the grip 1 d on the side of the body 1 b are divided. Base 1 c and grip 1 d, The interposing portions 1 e are rotatably coupled together. Grip 1 d, Q is foldable to a position parallel to the body lb. a casing 3 constituting a casing of the hair care hair dryer 1, It is constructed by joining a plurality of dividing bodies. A cavity is formed inside the casing 3, In the hole, Contains a variety of electrical parts. Inside the body lb, A wind tunnel 4 is formed. Wind tunnel 4, The inlet opening 4a (suction port) from the one side (right side) is formed in the longitudinal direction of the main body 1b (the horizontal direction in Fig. 2) to the outlet opening 4b (discharge port). By the rotation of the fan 5 housed in the wind tunnel 4, A free air flow W is formed. that is, Air flow W, The inlet opening 4a is inserted from the outside into the wind tunnel 4, It is discharged to the outside through the outlet opening 4b through the inside of the wind tunnel 4. Inside the outer cylinder 3a of the casing 3, A cylindrical inner cylinder 6 is provided. The air flow W flows inside the inner cylinder 6. On the inner side of the inner cylinder 6, Fan 5, And a motor that drives the fan 5, And a heater 8 as a heating mechanism, It is arranged from the upstream side in this order. When the heater 8 is activated, The warm air will be blown out from the exit opening 4b. also, In this embodiment, Heater 8, A strip-shaped and corrugated electric resistance body is wound around the inner circumference of the inner cylinder 6. but, The composition of the heater 8, It is not limited to the above configuration. a cavity 9 between the casing 3 and the inner cylinder 6 formed in the body lb In order to accommodate the metal microparticle generating portion 10, The mist generating unit 11, And a second voltage applying circuit 12 or the like for applying a voltage to the mist generating portion 11. also, a cavity 13 in the base portion lc of the grip la, A first voltage applying circuit 14 that applies a voltage to the metal particle generating portion 1 容纳 is housed, And a switch 15 for switching the operation mode or the like. Furthermore, The void in the handle Id of the grip, The other switch 16 that performs switching of the power supply ΟΝ/OFF or the operation mode is accommodated. Such electrical parts, The guide wires 17 formed by covering the core wires of the metal conductor or the like with an insulating resin or the like are connected to each other. also, Switch 1 5, 1 6, a switch button 18 that is exposed on the surface of the casing 3, 1 9 operation, To switch the open and close state of the internal contacts. a first voltage applying circuit 14 and a second voltage applying circuit 12, As shown in Figure 1, The area inside the grip 1 a or the body 1 b disposed on the extension line of the grip 1 a is suitable. If so implemented, It is possible to reduce the rotational moment (the moment arm) generated by the gravity acting on the first voltage applying circuit 14 and the second voltage applying circuit 12 when the user -10- 201034598 is holding the grip la, It can reduce the load on the user's hand. also, As shown in Figure 1, In this embodiment, The first voltage applying circuit 14 and the second voltage applying circuit 12, The inner cylinders 6 are placed at positions opposite to each other. that is, An inner cylinder 6 is interposed between the first voltage applying circuit 14 and the second voltage applying circuit 12. As a result, It is possible to suppress the deterioration of the voltage caused by the mutual interference between the first voltage applying circuit 14 and the second voltage applying circuit 12 or the instability or the like. Inner cylinder 6, In order to have a cylinder 6a, And the supporting rib 6b (in the first picture, only one picture is not shown), And a flange 6c. Support rib 6b, To extend outward from the cylindrical body 6a in the radial direction, And arranged at predetermined intervals in the direction of the circumference. Flange 6c, The intervening support rib 6b is connected to the barrel 6a, And projecting outward in a direction orthogonal to the axial direction of the cylindrical body 6a. A gap gi is formed between the cylindrical body 6a and the flange 6c. Part of the air flow W, Will divide Q and flow into the cavity 9 via the gap g 1 The split flow Wp is formed. also, The gap gl of the introduction port into which the branching flow Wp is directed into the cavity 9 is formed. Located downstream of the fan 5, It is the upstream position of the heater 8. therefore, Divide W p, It is a relatively cold air stream before being heated by the heater 8. also, As shown in Figure 3, Connected to the guide wire 17a of the metal fine particle generating portion 1〇, And a guide line 17b connected to the mist generating portion 1 1 It is preferable to use wiring that does not cross each other and is extremely separated. in this way, It can suppress the flow to the guide line 17a, The current of 1 7b does not obtain the voltage expected by the metal fine particle generating portion 10 or the mist generating portion 11 due to mutual interference. Or the voltage change -11 - 201034598 is not stable. In the present embodiment, the metal fine particle generating portion 10 and the mist generating portion 11, It is disposed apart along the circumferential direction of the inner cylinder 6. And ' lead wire 1 7a, For the void 9, Along the direction of the circumference above, The wiring is in a region on one side of the metal fine particle generating portion 1 (upper side in Fig. 3). on the other hand, The guide line 17b' is in the cavity 9 along the circumferential direction described above, Wiring the area on the other side (the lower side of Figure 3). As shown in Figure 2, in the housing 3, The elliptical through hole 3b' is formed on the outlet opening 4b side of the cavity 9. Through hole 3b, It is covered by a cover 20 made of an insulating synthetic resin material. In the cover 20, A metal fine particle discharge port 20a and a mist discharge port 20b are formed. In order to suppress the charging of the cover 20 due to metal particles or mist, Cover 20, It is preferable to have a low electrical conductivity lower than that of the casing 3. If the cover 20 is energized, Due to the charge, The charged metal fine particles or the mist are less likely to be released from the metal fine particle generating portion 1 or the mist generating portion 11. also, In this part, The cover 20 is an outer casing constituting the hair care hair dryer 1. Metal particle generation unit 1 〇, The discharge electrode 10a and the ground electrode 10b formed of a conductive metal material are provided. When a high voltage is applied between the discharge electrode 10 a and the ground electrode 1 〇b by the first voltage application circuit 14 to discharge (corona discharge, etc.), By the discharge action, Metal fine particles (metal ions, metal ions, etc.) are emitted from the discharge electrode 10a, the ground electrode 10b, and the like. Metal particle generating portion 10, A box-shaped casing 10c is provided. Discharge electrode 1 〇a, On a base (printed circuit board, etc.) that is fixed to the casing 1 〇c, The illustration is omitted) It is fixed by soldering or riveting. -12- 201034598 Discharge electrode 1 〇a, It is a very thin wire. The width (diameter) of the wire, 10~400[//m] (preferably 30~300[" m], More preferably 5〇~200[#m]). It can be rounded, Oval, Various wires of a cross-sectional shape such as a polygon. also, Discharge electrode 1 〇a, It may also be formed to have a pointed needle shape. Ground electrode 1 〇b, For the front end side of the discharge electrode 10a, It is placed away from the discharge electrode 10a. Ground electrode 1 Ob, It is an annular plate which is orthogonal to the extending direction of the discharge electrode 0a. Discharge electrode l〇a, Made of transition metals (gold, silver, copper, platinum, Zinc, titanium, germanium, palladium, iridium, ruthenium, Hungry, etc.) Or such a combination, It is composed of a member plated with a transition metal or the like. The metal fine particles discharged from the metal fine particle generating portion 10, Containing gold, silver, copper, Zinc, etc. The antibacterial action produced by the metal microparticles can be obtained. also, The metal microparticles ' contain platinum, Zinc, When titanium is used, The antioxidant action produced by the metal microparticles can be obtained. also, Platinum particles, It is known for its extremely high antioxidant activity. also, The portion where the metal fine particles are not emitted (the ground electrode 1 〇b, etc.) can be formed using stainless steel or tungsten. Metal particle generating portion 10, It is also possible to cause ions generated by the discharge action (negative ions 'e.g., n〇2_, No3-etc.) and containing the discharge electrode 10a, Grounding electrode l〇b, Other metal materials, Or a member of the metal component collides with the phase to produce metal particles. that is, It is also possible to make the ground electrode 1 〇b or the above components, Constructed by a material containing the above transition metal, The material is then released from the metal particles. Fog multiplier 1 generation unit 1 It is provided with a discharge electrode 11a and a ground electrode lib which are formed of a conductive metal material -13-201034598. A high voltage is applied between the discharge electrode 11a and the ground electrode 1 1 b by the second voltage application circuit 12 to discharge it (corona discharge, etc.). Specifically, The discharge electrode 11a is formed in a needle shape. also, Ground electrode 1 1 b, For the front end side of the discharge electrode 1 1 a, It is provided separately from the discharge electrode 11a. Grounding electrode lib, It is a ring-shaped plate. Mist generation unit 1 1, It has a cooling plate 1 1 C. Cooling plate 1 1 C, As a cooling mechanism, it functions. It consists of a Peltier element (not shown) and a thermally conductive member (metal member, etc.). On the surface of the cooling plate 11c which is cooled by the Peltier element, Produces dew condensation water from the moisture in the air. Water being supplied (ie, Dew condensation water is micronized by discharge, A very fine mist of negative nanometer size (a negatively charged mist containing negative ions) is produced. In this embodiment, It is equivalent to a water supply unit having a cooling plate 1 1 e having a Peltier element. In this embodiment, Metal fine particle generating portion 1 and mist generating portion 11, The same is equivalent to the ion generating portion. also, Mist generation department, It is also possible to carry a steam generating mechanism that heats water to generate steam. also, Metal microparticle production department, A metal solution atomization mechanism that atomizes a metal solution to generate metal fine particles can also be mounted. also, In this embodiment, As shown in Figure 2, The aperture of the metal particle discharge port 20a, It is set to be smaller than the aperture of the mist discharge port 20b. That is, The maintenance or status of the mist generating unit 1 1 is confirmed, Easy to carry out from the mist discharge 2 Ob. also, Can suppress fingers, Props, Foreign matter or the like enters from the metal particle discharge port 20a. Furthermore, Hair care hair dryer 1, The light emitting unit 21 is provided. Light Department -14 - 201034598 21, Have: a light source 21a such as an LED (Light Emitting Diode) disposed in the cavity 9, And the light guiding member 2 1 b formed of the light transmitting synthetic resin material such as acryl or the light guiding the light source 21a. As shown in Figure 2, Between the metal fine particle discharge port 20a and the mist discharge port 20b, A hole 20c having a longitudinally round shape is formed. The emission end 21c' opposite to the light source 21a of the light guiding member 21b is inserted into the hole 20c and exposed outside the cover 20. therefore, Light source 2 1 a, Is guided by the light guiding member 2 1 b, The cover 20 is shot from the exit end 0 21c. When using hair care hair dryer 1, The injection end 2 1 c is the head facing the user. Light emitting unit 2 1, A means of expression as an operation mode of the hair care hair dryer 1 can be utilized. E.g, The state of the warm air blown by the heater 8 is turned red, The state in which the cold air is blown without using the heater 8 becomes green, and the state in which the metal fine particles are released by the metal fine particle generating portion 10 becomes yellow. The state in which the mist is emitted by the mist generating portion 1 1 is changed to cyan or the like. The color of the light-emitting portion 21 can be changed in accordance with the operation state. At this time Q, a control circuit (not shown) that is mounted on the same substrate as the second voltage application circuit 1 2, The light emission of the light source 2 1 a can be controlled in accordance with the action state. also, Constructing a plurality of light sources 21a corresponding to the respective colors, The control circuit controls the illumination of the plurality of light sources 2 1 a. also, The light source 2 1 a can also be turned off by the control circuit. Or control the point interval, Or change the luminous intensity. Can also make such a luminous form, It is set corresponding to various operation modes. Also, by the light from the light-emitting portion 21, Give the body a specific effect. E.g, When the light source 21a is used as a highlight -15-201034598 degree LED having a wavelength of 41 5 [ηιη], The sterilizing effect produced by the cyan light emitted from the light source 2 1 a can be obtained, Or the prevention effect of acne caused by shrinkage of pores or decreased secretion of sebum. also, When a high-brightness LED having a wavelength of about 63 0 [nm] is used as the light source 21a, The blood generated by the red light emitted from the light source 21a can be obtained, Or the metabolically active effects of angiogenesis, Or promote the production of collagen or elastin. Furthermore, When the red light is irradiated repeatedly, Can improve fine lines, Liver spot, Dark spot, The effect of improving the photoaging skin such as large pores or improving the scar after acne. also, These effects, It varies from person to person. Furthermore, Light emitting unit 2 1, An irradiation means for irradiating the metal fine particle generating portion 10 or the mist generating portion 1 1 can be used. As a result, The effect of recognizing the state of the metal fine particle generating portion 1 or the mist generating portion 1 1 can be recognized. Or the effect of improving work efficiency by improving the visibility during maintenance such as cleaning. As above, Hair care hair dryer (hair care device) 1 of the present embodiment The metal fine particle generating portion 10 and the mist generating portion 11 are housed in a single cavity 9. When the mist generated by the mist generating portion 11 moves to the metal microparticle generating portion 10, The voltage or electric field changes due to charging of the metal microparticle generating portion 10, There will be instability in the production of metal particles. Or the metal microparticle generating portion 10 is corroded by moisture. here, In this embodiment, As shown in Figure 3, Metal microparticle production section 1 〇, It is disposed outside the mist passage region Ami for passing the mist generated by the mist generating portion 11. Specifically, Metal particle generation section 10, for: The mist generating unit 11 is disposed in a direction orthogonal to the mist passage direction Dp in the mist passage region -16 - 201034598 region Ami. The mist flows from the mist generating portion 11 toward the direction Dp. Therefore, the mist moves to the gold particle generating portion 10 which is displaced in the direction Dn with respect to the mist generating portion 1 1. therefore, Metal particle generating portion 10, It is not easy to be affected by the mist generated by the mist generating portion 11. also, In this embodiment, In the void 9, Metal particles produce 1 〇, It is opposed to the metal fine particle discharge port 20a and disposed at a position where the comparison 0 is closer to the metal fine particle discharge port 20a. also, Fog production 1 1, It is opposed to the mist discharge port 20b and disposed at a position relatively close to the discharge port 20b. Furthermore, The mist generating portion 1 1 and the cover 20 are separated from D1, It is shorter than the mist generating portion 11 and the metal fine particle generating portion 1 by D2. Furthermore, In the void 9, Flow Wp flowing from the gap gl, It is discharged to the outside from the metal fine particle discharge port 20a and the mist discharge port. therefore, The metal Q produced by the metal fine particle generating portion 10, In comparison, it is smoothly discharged from the metal particle discharge port 20a. The mist generated by the mist generating portion 1 1 , In comparison, it is discharged from the mist discharge port 20b. that is, Metal particles produced by the production of metal particles, It is not easy to flow toward the mist generating unit 1 1 The mist generated by the mist generating portion 11, It is difficult to flow toward the metal generating portion 1 . also, Divide Wp, Although it contributes to the discharge of metal particulate gas, But even if there is no split flow Wp, Metal particles, mist can also be discharged from the discharge port 20 a, 2 0 b discharge. Furthermore, in this embodiment, The shadow D η is set in the cavity 9. It is not easy to be microscopically affected by the fog of the Ministry of Health. The Ministry of Health is moving. Particles and mist and walls, -17- 201034598 It is more effective to prevent the mist from moving to the metal particle generation part. Light guiding member 2 1 b, And the mounting member 6d for generating the metal microparticles into the inner tube 6, Playing the light guiding member 2 1 b as a shielding wall, For the plate shape, The thickness direction is arranged along the circumferential direction. also, Light guiding member 21b, It is disposed between the generating portion 1 and the discharge end of the mist generating portion 11 (Fig. 3). Light guiding member 2 1 b, The gas passage region (the region of the left Ami of the mist generating portion 11 in Fig. 3) functions as a partition wall on the left side of the metal fine particle generating portion 10 in the metal fine particle passage. Mounting member 6d, It is provided in the diameter direction from the cylindrical body 6a. Metal particle generating portion 10, It is refined by the inner cylinder 6 by installation. Mounting member 6d, In order to have the shielding plate 6e extending from the metal micro 10 toward the metal fine particle discharge port 20a, In order to be disposed on the mounting member 6d, Therefore, it is inevitably arranged close to the generating unit 10. therefore, It is possible to relatively effectively suppress the movement of the mist to the metal fine particle generating portion 1 〇 by comparison. also, Provided between the shielding plate 6e and the cover 20; By the gap g2, The charge remaining in the cover 20 can be suppressed from being conducted to the metal fine particle generating portion 10 via E. The electric charge of the cover 20 belongs to the microparticle generating portion 1 〇, It will prevent the metal particles from replacing the gap g2. It is also possible to connect the low-conductivity or insulating member 6d to the cover 20. Light guiding member 21b and mounting member 6d, As shown in Figure 3. Installed in this implementation 10 can be installed. The area around the left end of the metal microparticles of the inner cylinder 6 (Ame, The area with the fog side) is protruding toward the outer side. The cow 6d is mounted with the particle generating unit 6 e. Shielding plate Metal particles Small composition to S gap g2. The white shielding plate 6e is generated if it is conducted in gold. also, The component is between the ampoules, For phase -18- 201034598, the direction of the fog passing through Dp is arranged in parallel and functions as a double shielding wall. therefore, It is more effective in suppressing the movement of the mist to the metal fine particle generating portion 1 〇. As explained above, In the hair care hair dryer (hair care device) of the present embodiment, The metal fine particle generating portion 10 and the mist generating portion 1 1 are housed in a single divided region (cavity 9) in the casing 3. And the metal microparticle generating portion 10, It is disposed outside the mist passage region Ami through which the mist generated by the mist generating portion 1 1 passes. therefore, Compared with the case where the metal fine particle generating portion and the mist generating portion are housed in different casings, By simplifying the composition, The mist is prevented from moving to the metal fine particle generating portion 10. also, Metal particle generating portion 10, The mist generating portion 11 is separated from the mist generating portion 11 so as to be disposed in the direction Dp orthogonal to the mist passing direction Ami. therefore, Further, it is possible to suppress the mist emitted from the mist generating portion 11 and flowing in the mist passing region Ami from moving to the metal fine particle generating portion 10 ° Q. The mist generating portion 11, It is disposed opposite to the mist discharge port 20b. therefore, The mist emitted from the mist generating portion 11, It can be discharged from the mist discharge port 20b more quickly. the result, Further, it is possible to suppress the mist from moving to the metal fine particle generating portion 10. also, Metal particle generating portion 10, It is disposed opposite to the metal fine particle discharge port 20a. therefore, Metal particles, It can be discharged from the metal fine particle discharge port 20a more quickly. also, The distance D2 between the metal fine particle generating portion 10 and the mist generating portion 11 is It is set to be longer than the distance D1 between the mist generating portion 1 1 and the cover 20. therefore, The mist that is released from the mist generating unit 1 1 is faster. -19- 201034598 It is quickly discharged from the mist exhaust port 20b. As a result, it is possible to prevent the mist from moving to the metal fine particle generating portion 10. Further, a cover 20 which is made of a lower electrical conductivity than the casing 3 and which is a separate member from the casing 3, It is mounted to the housing 3. therefore, The charging of the cover 20 caused by metal particles or mist can be suppressed. As a result, the release performance of the metal fine particles or the mist from the metal fine particle generating portion 10 or the mist generating portion 11 can be suppressed from being lowered by charging. also, As a shielding wall for suppressing the movement of the mist generated by the mist generating portion 11 to the metal fine particle generating portion 10, A light guiding member 21b and a shielding plate 6e are provided. therefore, It is possible to suppress the movement of the mist to the metal microparticle generating portion 1 by the shielding wall. also, Between the cover 20 and the shielding plate 6e, Electrical insulation. therefore, The electric charge of the metal fine particles or the mist can be suppressed from moving from the cover 20 to the shielding plate 6e to charge the shielding plate 6e. therefore, The metal fine particle emission performance of the metal fine particle generating portion 1 〇 can be suppressed from being lowered by charging. also, By forming a gap g2 between the cover 20 and the shielding plate 6e, The cover 20 is electrically insulated from the shielding plate 6e. therefore, The potential of the cover 20 and the shield plate 6e can be insulated by an extremely simplified configuration. also, Shading plate 6e, The mounting member 6d is attached to the mounting member 6d in which the metal fine particle generating portion 10 is mounted in the casing 3. therefore, The mounting member 6d and the shielding plate 6e can be shared, Compare these occasions with individual settings, It can be simplified. also, Light guiding member 2 1 b, It functions as a shielding wall. Therefore, When the light guiding member 21b is provided, By effectively using the light guiding member 21b as a cover -20-201034598, It can suppress the movement of the mist to the metal microparticle generating portion by 10°. The light guiding member 211 that functions as a shielding wall? With the shielding plate 6e, Set for side by side. therefore, The shielding wall becomes a double-wall structure, and it is possible to suppress the mist from moving to the metal fine particle generating portion 1 . (Example of layout modification of the metal fine particle generating portion and the mist generating portion) 0 Fig. 4 to Fig. 9, A modification of the first embodiment described above is shown. Various modifications, The metal fine particle generating portion 1 and the mist generating portion 1 1 are also housed in a single space (cavity 9) in the casing 3. also, Metal particle generation unit 1〇, The mist generated by the mist generating portion 11 passes outside the region Ami. In the first modification shown in FIG. 4, The mist generating portion 11, For the fog passing through the area Ami, the direction of the fog (the direction in which the mist is emitted) Dp, It is disposed closer to the front end than the metal fine particle generating portion 10. Q According to such a layout, Metal particle generating portion 10, It is located on the opposite side of the mist discharge direction (Dp) of the mist generating portion 11. therefore, Further, it is possible to suppress the mist generated by the mist generating portion 11 from moving to the metal fine particle generating portion 10. also, According to the cover 20A of the present modification, Both the metal fine particles and the mist are discharged from the common discharge port 20d. In the second modification shown in FIG. 5, In contrast to Figure 4, Metallic particle generation unit 1 〇, In order to pass the direction Dp along the mist passing through the area Ami, It is disposed closer to the front end than the mist generating portion 11. also, In the third modification shown in FIG. 6, In the way that the metal granules and the mist - 21 - 201034598 are common outlets for the center of 20 o', that is, The manner in which the metal particles pass through the center line of the area Ame and the mist passes through the center line of the area Ami, The metal fine particle generating portion 10 and the mist generating portion 11 are disposed. By this layout, As long as the metal fine particle generating portion 10 is disposed outside the mist passing region Ami, There will be no problems. In the fourth to sixth modifications shown in FIGS. 7 to 9 , Metal microparticle generating unit 10, For the direction of Dp along the fog, It is disposed closer to the front end than the mist generating portion 11. but, In these variations, To shield the wall 22A, 22A1 22A2 prevents the mist from moving to the metal fine particle generating portion 10. Because the wall 22A is shielded by the mist, 22A1' 22A2 shade, Therefore, the shielding wall 22A is opposite to the mist passing region Ami. 22A1 The back side area of the 22A2, Become a fog outside the area Ami. As shown in this variant, Shielding wall 22A, 22A1 22A2, Appropriate changes can be made to the layout. that is, Can also be as shown in Figure 7, Flat shielding wall 22A, It is formed on the side surface of the metal fine particle generating portion 1 . It can also be as shown in Figure 8. Refraction plate-shaped shielding wall 22A1, It is provided to cover the side surface and the rear portion of the metal fine particle generating portion 1 . Can also be as shown in Figure 9, U-shaped or V-shaped shielding wall 22 A2, It is disposed behind the metal fine particle generating portion 10. (Second Embodiment) A cross-sectional view of the first drawing, In order to display the hair care hair dryer (hair care device) 1B of the second embodiment. For hair care hair dryer 1 B, A gap -22 - 201034598 g3 is provided on the front end side of the inner cylinder 6B. The cavity 9B and the wind tunnel 4B are in communication with the intervening gap g3. A mist generating portion 11 is disposed in the cavity. on the other hand, The metal fine particles are generated 10' in the wind tunnel 4B. According to this composition, Divide Wp, The tiller is the branch Wpl discharged from the mist discharge port 20b of the cover 20B. And the branching flow Wp2 flowing back into the wind tunnel 4B from the gap g3. Branch Wpl, WP2' is a stream of air containing mist. A shielding wall 22B is disposed on the side of the gap g 3 of the metal fine particle generating portion 10 (on the side of Fig. 10). Metal particle generation unit 1 〇, The mist is moved to the metal fine particle generating portion 1 by being shielded by the shielding wall 22B and located outside the mist passing region (the branching flow Wp2). therefore, The comparatively simplified formation of the shielding wall 22B suppresses the metal fine particle generating portion 10 from being adversely affected by the mist generated by the mist generating portion 1 1 . (Third Embodiment) A front view of the first one, In order to display the hair care blower (hair care device) 1 C of the third embodiment. For hair care hair dryer 1C, The metal fine particle generating portion 10 and the mist generating portion 11 are provided on both sides of the inner cylinder 6 (see Fig. 1). The metal neutron generating unit 10 and the mist generating unit 11, It is disposed inside the single cavity 9C in the outer portion 3a of the casing 3C. that is, Empty 9C, It is formed from the upper side to the both sides of the inner cylinder 6. Metal particle generation unit 10, In order to be placed in the rear of the cover 20C1 formed in the through hole 3b of the casing 3C, it is closer to the cover 20C 1 . The mist generating unit 1] The portion of the 9B portion that is covered by the flow is arranged in the back of the -23-201034598 to be placed in the back of the through hole 3c formed in the casing 3C, and is closer to the cover 20C2. position. therefore, By arranging the inner cylinder 6 between the metal fine particles and generating the mist generating portion 1 1 in comparison with each other, the metal fine particle generating portion 1 is less likely to be affected by the mist generated by the mist generating portion 1 1 . (Fourth Embodiment) A cross-sectional view of Fig. 12, In order to display the device (hair care device) 1D of the fourth embodiment. Hair dryer 1 D, It has a shape with a relay bar. Hand grip 1 f, The comb 2 3 provided at the front end portion 1 g is used for combing. On the comb 2 3, Providing a plurality of protruding comb teeth to form a housing 3D of the outer casing, A cavity is formed in the interior of the casing 3D for joining a plurality of divided bodies. In the hole, Electrical parts. The portion of the grip 1 f that is close to the comb 23, A cover 20D constituting a shape is attached. In the cavity 9 D of the cover 20D and the casing 3D, The metal fine particle generating portion 10 is accommodated in the raw portion 1 1 . In the cover 20D, It is formed to open 2〇d toward the comb teeth 23a. The mist generated by the metal fine particle generating portion 11 generated by the metal fine particle generating portion 10, It is applied to the hair or skin from the 20d part of the discharge port. also, The mist generating portion 11 is generated in the metal fine particles, A voltage cover 20C2 portion 10 from the circuit unit 24 is applied, and Can produce the hair dryer user, Finishing hair 23a. And constitute. There are a variety of shells formed by the expansion of the shell and the discharge of the mist and the mist and the outside of the 10 and -24- 201034598 In order to suppress the interference of the release of metal particles caused by the user's electrification, The charging portion 25 is exposed to the surface of the grip If. Charging section 25, In order to have polarity opposite to the polarity of the emitted metal particles and mist (for example, The metal particles and the negative ions of the mist are positively charged when they are discharged. user, By holding the charging portion 25', there is charging opposite to the above polarity. also, At least the outermost layer of the charging portion 25 is made of an insulating material. 0, in order to suppress the movement of the mist generated by the mist generating portion 11 to the metal microparticle generating portion 10, The same shielding wall 22D as that of the fifth modification shown in Fig. 8 is provided. therefore, By having a relatively simplified configuration with a shielding wall 2 2D, It is possible to suppress the bad influence of the metal fine particle generating portion 10 from the mist generated by the mist generating portion 1 1 . (Fifth Embodiment) 0 Sectional view of Fig. 3, In order to display the hair styling device (hair care device) 1 E of the fifth embodiment. Hair dryer 1E, Basically, the same configuration as that of the hair styling device 1 D of the fourth embodiment described above is provided. But in the hair dryer 1D, A fan 5E for generating an air flow W and a motor 7E for rotating the fan 5E are provided in the cavity 9D. The metal fine particles generated by the metal fine particle generating portion 10 and the mist generated by the mist generating portion 11 are The branching flow Wp generated by the fan 5E is discharged. At this point, It is different from the above-described fourth embodiment. -25- 201034598 As the air motor 7E and fan 5E, It is housed in a cavity formed in the casing 3E. Motor 7E, It is rotated by the driving circuit of the circuit unit 24. At the base end of the housing 3E (on the lower side of Fig. 13), An opening portion lh serving as an air introduction port is formed. When the fan 5E is rotated, the air will flow into the cavity 9D from the outside through the opening portion 1h. The air flow Wp which is passed through the cavity 9D and discharged from the discharge port 20d toward the comb 23 is formed. Simultaneously, An air flow W which is discharged from the blowing holes 2 3 b formed in the bottom of the comb teeth 23a of the comb portion 23 is also formed. also, The power is supplied to the electrical component for the clip dielectric line 2. therefore, In the same manner as in the fourth embodiment described above, In order to have a simplified configuration with a shielding wall 22D, The metal fine particle generating portion 10 can be suppressed from being adversely affected by the mist generated by the mist generating portion 11. (Sixth embodiment) A side view of Fig. 14, The hair straightener (hair care device) 1F of the sixth embodiment is shown. Figure 15, A cross-sectional view taken along the line χν_χν in Fig. 14. As shown in Figure 14, Hair straightener 1F, In order to have the two arm portions 1 i which can be expanded into a V shape with the intervening connection portion lk, Lj. user, To use the arm 1 i, 1 j The front splint 2 6 grips the hair and heats the heater 27 to clean the hair. As shown in Figure 15, A cavity is formed inside the casing 3 F forming the outer casing, In the hole, Contains a variety of electrical parts. The housing 3 F ' on the side of the arm 1 i is mounted on both sides (left -26 - 201034598 right of Fig. 5) with a pair of covers 20F1 extending outward. 20F2. Forming a housing one of the pair of covers 20F1 20F2, It is a portion provided on the side of the rotating joint portion lk adjacent to the clamp plate 26. In the cover 20F1 20F2 and a single cavity 9F formed by the casing 3F, The metal fine particle generating portion 10 and the mist generating portion 11 are housed. Metal particle generating portion 10, To be contained in the cover, Within 20F1. Metal particles, It is discharged from the metal fine particle discharge port 20a formed in the cover 20F1. on the other hand, The mist generating portion 11, The tolerance is 0 in the cover 20F2. The mist is discharged from the mist discharge port 20b formed in the cover 20F2. Metal fine particle generating portion 10 and mist generating portion 11, It is placed in a single hole 9F. However, they are configured in a way that is separate from each other. Fog production unit 1,1 It is disposed at a position closer to the mist discharge port 20b. and, The direction in which the mist is discharged, It is set to the direction from the center of the cavity 9F toward the outside. therefore, Metal particle generation unit 1 〇, In comparison, it is easier to arrange outside the mist passage region Ami of the mist generating portion 11. that is, The configuration in which the metal fine particle generating portion 1 and the mist generating portion 1 1 are disposed on both sides of the arm portion 1 i is a relatively simplified configuration. The metal fine particle generating portion 10 can be suppressed from being adversely affected by the mist generated by the mist generating portion 11. the above, The preferred embodiment of the present invention has been described. However, the present invention is not limited to the above embodiment. Can be a variety of deformations. E.g, a metal fine particle generating portion and a mist generating portion, In the above embodiments and modifications, the arrangement positions may be replaced with each other. also, It is also possible to integrate the shielding plate with the mounting member of the mist production section -27- 201034598. Further, the 'discharge port' is preferably provided on a cover different from the casing. However, it can also be placed in the housing itself. Furthermore, It is preferable to form a gap between the outer casing and the shielding wall to electrically insulate the outer casing and the shielding wall. However, the insulating member may be insulated between the outer casing and the shielding wall. BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a cross-sectional view showing a hair dryer according to a first embodiment of the hair care device of the present invention. Fig. 2 is a front view of the above-described hair care hair dryer. Fig. 3 is an enlarged plan view showing a metal fine particle generating portion and a mist generating portion of the hair dryer. Fig. 4 is an enlarged plan view of the metal fine particle generating portion and the mist generating portion (first modified example). Fig. 5 is an enlarged plan view showing a metal fine particle generating portion and a mist generating portion (second modified example). Fig. 6 is an enlarged plan view showing a metal fine particle generating portion and a mist generating portion (third modified example). Fig. 7 is an enlarged plan view showing a metal fine particle generating portion and a mist generating portion (fourth modified example). Fig. 8 is an enlarged plan view showing a metal fine particle generating portion and a mist generating portion (fifth modification). Fig. 9 is an enlarged plan view of the metal fine particle generating portion and the mist generating portion | (sixth modification). -28- 201034598 Fig. 1 is a cross-sectional view showing a hair care hair dryer according to a second embodiment of the hair care device of the present invention. Fig. 1 is a front elevational view showing a hair care hair dryer according to a third embodiment of the hair care device of the present invention. Fig. 2 is a cross-sectional view showing a hair styling device according to a fourth embodiment of the hair care device of the present invention. Fig. 3 is a cross-sectional view showing a hair dryer of a fifth embodiment of the hair care device of the present invention. Fig. 14 is a side view showing a hair straightener according to a sixth embodiment of the hair care device of the present invention. Fig. 15 is a cross-sectional view taken along the line XV-XV in Fig. 14. [Main component symbol description] 1 : Hair care hair dryer (hair care device) Q 1Β: Hair care hair dryer (hair care device) 1 C : Hair care hair dryer (hair care device) 1D: Hair dryer (hair care device) 1Ε: Hair dryer (hair care device) 1F: Hair straightener (hair care device) 1 a : Grip 1 b : Ontology lc : Base 1 d : Grip. -29 - 201034598 1 e : Connector 1 f : Grip 1 g : Front end 1 h : Opening 1 k : Connection part li, lj : Arm 2 : Power cord 3 : Housing 3E : Housing 3 a : Outer tube 3 b : through hole 4 : wind tunnel 4 a : inlet opening 4 b : outlet opening 5 : fan 5 E : fan 6 : inner cylinder 6 a : cylinder 6 b : support rib 6 c : flange 7 : motor 7 E : motor 8 : Heater 9 : Cavity -30- 201034598 1 〇: Metal granule generation unit 1 0 a : Discharge electrode 1 0 b : Ground electrode 1 0c : Case 1 1 : Mist generation unit 1 1 a : Discharge electrode 1 1 b : Ground electrode 1 1 c : Cooling plate 1 2 : Second voltage application circuit 1 3 : Cavity 1 4 : First voltage application circuit 1 5 : Switch 1 6 : Switch 17 a, 1 7b : Guide line 1 8 , 1 9 : Switch knob 20: cover 20a: metal fine particle discharge port 20b: mist discharge port 20c: hole 2 0 d : discharge port 21: light-emitting portion 2 1 a : light source 2 1 b : light guide member 2 1 c : injection end - 31 - 201034598 22A, 22A1 , 22A2 : fog shielding wall 2 3 : comb 2 3 a : comb teeth 26 : splint 2 7 : heater W : air flow
Wp :分岐流Wp: split flow
Wpl :分岐流Wpl: split flow
Wp2 :分岐流 g 1 :空隙 g2 :空隙 g3 :空隙Wp2 : split turbulence g 1 : void g2 : void g3 : void
Ami :霧氣通過區域Ami: fog passing area
Ame :金屬微粒子通過區域Ame: metal particle passage area
Dp :霧氣通過方向Dp: fog passing direction
Dn:正交於方向Dp之方向 -32-Dn: orthogonal to the direction of the direction Dp -32-