201205019 六、發明說明： 【發明所屬之技術領域】 本發明的實施方式涉及一種冰箱。 【先前技術】 近年來，I所周知有-種具備_靜電霧化來產 (mist)的霧產生裝置的冰箱。該霧產生裳置 用的突部，且制將從該突部放㈣霧供^ =生 藏室）的結構。 辟職至（冷 此種霧產生裝置具備可裝卸的儲水部，且構成為 儲水部内的水進行霧化（例如，參照專利文獻〇。了遠 而且，在家用冰箱中，有一種具備冷卻器以及承接從 該冷卻器產生的除霜水並使其流出的排水管的冰箱（例 如參照專利文獻2)。在此種冰箱中，例如在排水管的 上方存在霧產生裝置之類的儲存被施加電壓的水的儲水部 的情況下’尤其當水從該儲水部連續掉落至排水管時，該 掉落的水與順著排水管的除霜水將會相連，從而有可能經 由這些水來對冷卻器施加電壓而導致冷卻器帶電。 因此’當除霜水滴落至排水管時，優選使水不連續地 滴落’以避免超過排水管的排水能力。而且，在有排水管 之類的承接從儲水部掉落的水的機構（接水部）的結構中， 要求接水部不要一次承接大量的水，以配合排水或放出等 的處理能力等。 [先行技術文獻] [專利文獻] 201205019 [專利文獻1]日本專利軸2⑻6_57999號公報 【發[明專Γί】獻2]日本專利特開侧删號公報 因此’本發明提供—種冰箱，在具備承接冷卻器的 :水的管以及贿被施加電壓的水的儲水部的冰箱中，二 夠防止從儲水部的錢㈣齡霜水 = 防止電壓被施加至冷卻II。 而且，本發明提供一種冰箱，可使水從儲水部不連嬙 地滴落至排水管（接水部）。 項 本貫施方式的冰箱的特徵在於包括：冷卻器；儲， 儲存用於霧化裝置的被施加電壓的水；以及管，以與所 冷卻器接觸的方式而設’且承接因所述冷㈣的除霜而產 生的除霜水’並且，在承接所述除霜水的管中設有分隔部， 該分隔部進行分隔，以避免從所述儲水部滴落的水與^自 所述冷卻器的除霜水相連。 而且，本實施方式的冰箱的特徵在於，在所述儲水部 内，設有將儲存的水予以排出的排水部，並且設有從該排 水部的表面連續到背面的通水路，構成為所述儲水部内儲 存的水利用毛細管現象通過所述通水路而不連續地滴落到 所述管内。 由此’能夠防止電壓被施加至冷卻器。 為讓本發明之上述和其他目的、特徵和優點能更明顯 易懂，下文特舉較佳實施例，並配合所附圖式，作詳細說 明如下。 6 201205019 【實施方式】 以下，參照附圖來說明多個實施方式的冰箱（冷凍冰 箱）。另外，在各實施方式中，對於實質上相同的構成部位 標注相同的符號，並省略說明。 (第1實施方式） 首先’參照圖1〜圖18 (a)、圖18 (b)來說明第1 實施方式。如圖1以及圖2所示，冰箱本體丨是在前表面 開口的縱長矩形箱狀的隔熱箱體2内，沿上下方向排列設 置多個儲藏室而構成。 具體而言，在隔熱箱體2内，從上段起依序設有冷藏 室3、蔬菜室4，在其下方，左右排列設有製冰室5和小冷 凍室6 ’在他們的下方設有冷凍室7。 在製冰室5内，設有眾所周知的自動製冰裝置8 (參 照圖1)。另外，隔熱箱體2基本上是在鋼板制的外箱2a 與合成樹脂制的内箱2b之間設置隔熱材料几而構成。 冷藏室3以及蔬菜室4均為冷藏溫度段的儲藏室，冷 藏室3與蔬菜室4之間通過塑料（plastic)製的分隔壁1〇 而上下分隔。通常，冷藏室3的維持溫度設為iO〜yC， 蔬菜室4的維持溫度設為比其稍高的rc〜6〇c。 在冷藏室3的前表面部，設有绞鏈（hinge)開閉式的 隔熱門3a’在蔬菜室4的前表面，設有抽出式的隔熱門4&。 在隔熱門4a的背面部，連結著構成儲藏容器的下部盒u。 在下部盒11的上部，設有比下部盒u小型的上部盒12。 冷藏室3内通過多個擱板13而上下分隔成多段。如圖 201205019 3所示’在冷藏室3内的最下部（分隔壁i〇的上部），在 右側設有微凍（chilled)室14，在其左側，上下設有蛋盒 15以及小物盒16 ’進而，在他們的左側設有儲水箱Π。 儲水箱17是用於儲存供給至自動製冰裝置8的製冰盒 8a的水’且可由用戶（user)裝卸地設置。 在微康室14内’可出入地設有微凍盒18。從微凍室 14的上部到設置儲水箱17的部分的上部而設有載置板7〇。 如圖9所示’在微凍室14與蛋盒].5以及小物盒16 的設置部之間設有分隔板71a，而且，在蛋盒15以及小物 盒16的设置部與儲水箱口的設置部之間也設有分隔板 71b。 載置板70構成微凍室14的頂板部，微凍室14的上部 由該載置板70所封閉。微凍室14的前表面由收納狀態的 微柬盒18的前表面壁iga所封閉。 一微凍室14的維持溫度較上部的冷藏室3以及下部纪 菜室4稍低，例如設為〇〇C〜1O。微凍室14與下方^ 菜室4經由分隔壁1〇而上下鄰接。 ’ 如圖1以及圖10所示，在微康盒18的後上部，月 而言’在自前方觀察時從财盒18的左右侧壁的後上^ 後部壁的上部，以比前表面壁18a以及左右側壁的前苟 低的方式而形成有切口部18b。 製冰室5、小冷束室6與冷束室7均為冷來溫 如-18 C左右）的舰室，蔬菜室4與製冰室5以 室6之間通過隔熱分隔壁19而上下分隔。 1 8 201205019 在裝冰至5的刖表面部，設有抽出式的隔熱門&,在 該隔熱鬥5a的背面部連結著儲冰容器2〇。在小冷凍室6 的前表面部，雖未圖示，但也設有連結著儲藏容器的抽出 式的隔熱門。在冷來室7的前表面部，也設有連結著儲 容器22的抽出式的隔熱門7a。 ^ 在冰箱本體1中’組裝有具備冷藏用冷卻器24以及冷 凍用冷卻器25這2個冷卻器的冷凍循環（eycle)，所述^ 藏用冷卻器24用於對冷藏溫度段的儲藏室即冷藏室3及蔬 菜室4與微凍室14進行冷卻，所述冷凍用冷卻器乃用^ 對冷柬;jdl度I又的儲藏至即製冰室5、小冷;東室6以及冷來 室7進行冷卻。 在冰箱本體1的下端部背面側，設有機械室26，在該 機械室26内，配設有構成冷凍循環的壓縮機27及冷凝器 等，並且配設有用於對他們進行冷卻的冷卻風扇（fan)或 除霜水蒸發m 28等。 一 在冰箱本體1的背面靠下部部分，設有安裝著控制整 體的微電腦（micro computer)等的控制裝置29。冷藏用 冷卻益24及冷；東用冷卻器25經由與這些冷卻器24、25 一同構成冷凍循環的壓縮機27等而間接地電性連接於外 箱2a。 在冰箱本體1内的所述冷凍室7的背部，設有冷凍用 冷卻器室30。在該冷凍用冷卻器室3〇内，位於下部而配 «•又有所述冷✓東用冷卻器25或除霜用加熱器（heater)(未圖 示）等，並且位於上部而配設有冷凍用送風風扇31。在冷 201205019 設有冷氣吹出口 凍用冷卻器室30的前表面的中間部 30a ’在下％部设有返回口 3〇b。 a卻動冷;東料風風扇31時，由冷康用 7 ρ所生成的冷氣進行下述的循環:從所述冷氣吹出 口 30a供給至製冰室5、小冷爽衣賴^虱人出 ^ ^ n rr 』令凍至6、冷凍室7内之後，再 從返回〇 30b返回至冷;東用冷卻器室3〇内。 通過該冷氣，製冰室5、小冷來室6以及冷束室7得 以冷卻。另外’在冷_冷卻器Μ的下料，設有承接冷 /東用冷卻H 25的除霜時的除霜水的排水管32。該排水管 32所承接的除霜水被導至冰箱外的機械室％内所設的除 霜水蒸發孤28並蒸發。 並且’在冰箱本體1内的冷藏室3以及蔬菜室4的背 部，以下述方式而配設有冷藏用冷卻器24、或用於將由該 冷藏用冷卻器24生成的冷氣供給至所述冷藏室3 (及蔬菜 室4)内的冷氣導管34、用於使冷氣循環的冷藏用送風風 扇35等。 即，在冰箱本體1中的冷藏室3的最下段的後方（微 凍室14的後方），設有構成冷氣導管34的一部分的冷藏用 冷卻器室36，在該冷藏用冷卻器室36内配設有冷藏用冷 卻器24。 冷藏用冷卻器24是以與内箱2b的一部分（此時，為 形成冷藏用冷卻器室36的部分）接觸的狀態而配設著。另 外，在内箱2b的内表面中的至少冷藏用冷卻器24所接觸 的部分及該部分的周邊（尤其是下方部分），貼附有主要用 201205019 (seal)的在呂 於對來自冷藏用冷卻器24的除霜水進行 層（未圖示）。 ^ 在冷藏用冷卻器室36的上方，設有向上方延伸的冷氣 管37 ’冷藏財卻11室36的上端部連通於冷氣供 給導官37的下端部。此時，由冷藏用冷卻器室36和冷氣 供給導管37構成冷氣導管34。 冷藏用冷卻器室36的前部壁36a向冷氣供給導管37 更前方突出。而且’在該前部壁36a的背側，設^具有隔 熱性的隔熱材料38。在冷氣供給導管37的前部，設有多 個向冷藏室3内開口的冷氣供給口 39。 在冷藏用冷卻器室36内的下部，位於冷藏用冷卻器 24的下方而設有排水管40 (相當於接水部），該排水管4〇 承接來自冷藏用冷卻器24的除霜水並排出至冰箱外。 該排水管40如圖13所示，形成為一體地具有底壁部 40a、後壁部40b、側壁部40c、前壁部40d及突出部4〇e 的谷态狀，且位於其中的底壁部4〇a的靠左的位置而設有 排水口 41，所述底壁部40a的左右方向較長，所述後壁部 40b豎立設置於該底壁部4〇a的後部，所述侧壁部4〇c豎 立設置於底壁部40a的左右兩側部，所述前壁部4〇d朝向 斜刚上方而設於底壁部4〇a的前部，所述突出部4〇e以向 前方突出的方式而設於底壁部40a的右前部。 底壁部40a朝向排水口 41而下降傾斜。排水管40的 左右的長度尺寸以及前後的縱深尺寸被設定為大於冷藏用 冷卻器24的左右的長度尺寸以及前後的縱深尺寸，以構成 201205019 為全部承接從冷藏用冷卻器24滴落的除霜水的大小。 由該排水管40所承接的除霜水也與由所述排水管32 所承接的除霜水同樣地’從排水口 41導至冰箱外的所述機 械室26内所設的除霜水蒸發皿28並蒸發。 另外，冷藏用冷卻器24也如圖12所示，具有設置成 蛇行狀的冷卻劑管24a以及多片導熱鰭片（fin)24b，冷卻劑 管24a右方的端部24c從導熱鰭片24b向侧方突出。 在排水管40的後壁部40b的前表面側，一體地設有支 撐冷卻劑管24a的支撐部4〇f。冷藏用冷卻器24中的下部 的導熱鰭片24b的後表面接觸至排水管4〇的後壁部4〇b 的前表面（參照圖5〜圖8、圖12)。 此時，冷藏用冷卻器24中的下部的導熱鰭片24b的後 表面與排水管40的後壁部40b的前表面相接觸也包括他們 經由冷藏用冷卻H 24的除霜時產生的除霜水而接觸的情 況。 在排水管40的底壁部40a的上表面，一體地設有筋狀 的分隔部8G。該分隔部8G在底㈣MQa的上表面的前後 方向的中間部沿著後壁部4Gb而向左右方向延伸，右端部 80a在突出部4Qe的後方將方向改為朝後而連結於後壁部 左端部8〇b延伸至排水口 41為止（參照圖該 为隔部80也如圖14所示，向前側傾斜。 、，所述旒菜室4的後方’位於排水管40的下方而配設 有冷藏用送風風扇35’並且設有送風導管42及吸入口 43。 其中’送風導管42以上蘭迁_轉4()的方式而連通 12 201205019 於冷藏用冷卻器室36(冷氣導管34)。吸入口 43在蔬菜室 4内開口。 在構成冷藏室3的底部（微凍室14的底部）的分隔壁 10的後部的下表面，如圖1、圖9、圖1〇所示，位於蔬菜 至4的上部而安裝有保鮮蓋（crisper cover) 72，在該保鮮 蓋72與分隔壁1〇之間，形成有遍及左右方向而延伸的通 氣路73。 如圖9所示，在分隔壁10的後部，位於微凍室丨4的 後方而設有由多個開口部構成的通氣口 74a，並且在小物 盒16的設置部的後方也設有由多個開口部構成的通氣口 74b。 這些通氣口 74a、74b使微凍室14與通氣路73之間以 及小物盒16的設置部與通氣路73之間連通。通氣路73 的左右兩侧部開放’且通氣路73連通於蔬菜室4的上部。. 而且，在分隔壁10的後部的右角落部，如圖5所示， 位於微凍室14的後方而形成有由多個開口部構成的連通 口 75。在這些連通口 75的下方，如圖9以及圖1〇所示， 設有V導管76。 該V導管76的上端部經由連通口 75而連通於微珠室 14 ’下端部經由保鮮蓋72上形成的通氣口 77 (參照圖10) 而連通於蔬菜室4的上部。 此時’微凍室14中的通氣口 74a以及連通口 75作為 成為微凍室14内的空氣的出口的空氣出口而發揮功能。而 且’這些通氣口 74a以及連通口 75配置在將微凍盒18收 13 201205019 =微;束至14内的狀態下，未被該财盒18所堵塞的位 置處。 的設置部中的通氣口 74b作為小物盒16的 吕又置相工氣出口而發揮魏，而且，配置在收納小物盒 16的狀態下未被該小物盒16堵塞的位置處。 慕 在此結構令，當驅動冷藏用送風風扇35時，主要如圖 1的空心箭頭所示’蔬菜室4内㈣氣從吸人口 43被吸入 藏用送風風扇35側，該吸人的空氣被吹出向送風導管 被吹出向送風導管42觸空氣通過冷氣導管34 室％以及冷氣供給導管⑺而好個冷氣二 ° 人出至冷藏室3内，並且如後所述，也被直接 至微凍室14内。 饭且接人出 至冷藏室3内以及财室14 (也包括小物盒16 一 f^5的設置部）内的空氣主要如圖9的箭頭⑴斤 = 口 7如、7仆流出到通氣路73，並朝向左方向 右方向流經通氣路73 ,再通過蔬菜室4的上部盒12 的左右兩外表面而供給至蔬菜室4内。 所- ^ ’微康室14内的空氣的一部分如圖⑺的箭頭C2 二备订以下循環’即’從連通口 75通過V導管76，並 最故供給至蔬菜室4内’供給至蔬菜室4内的空氣 最終被冷藏料風風扇35吸入。 用通過冷藏用冷卻器室36内的空氣經冷藏 ^卻後成為冷氣’該冷氣被供給至冷藏室3、 201205019 微凍室14以及蔬菜室4,由此使冷藏室3、微凍室14以及 蔬菜室4被冷卻至冷藏溫度段的溫度。 另外’如後所述，通過冷藏用冷卻器24後的冷氣的一 部分被直接供給至微凍室14，由此，微凍室14被維持為 比冷藏室3以及蔬菜室4低的溫度（〇。〇〜re )。 在冷氣導管34中的冷藏用冷卻器室36的前表面側， 如圖2、圖4所示，從前方觀察在右側，且位於微凍室14 的後方而可裝卸地設有霧用專用導管45。 該霧用專用導管45也如圖5〜圖8所示，由冷藏用冷 卻器室36的前部壁36a及安裝在冷藏用冷卻器室36的前 表面的導管構成構件46所形成’從而成為形成霧用專用導 管45的導管構成構件46相對於前部壁36a而可裝卸的構 成。 此時，霧用專用導管45沿著前部壁36a而形成為左右 方向較長且前後方向的縱深尺寸較小的扁平的矩形箱狀。 並且，在該霧用專用導管45内，收納有靜電霧化裝置48 的主體部，該靜電霧化裝置48構成用於產生霧的霧產生裝 置。 ’ ^靜電霧化裝置48除了作為霧產生機構以外，也作為除 菌成分產生機構、除臭成分產生機構而發揮功能。以下， 對該靜電霧化裝置48進行詳述。 靜電霧化裝置48如圖11所示，具備了具有霧放出部 5〇的霧產生單元（unit) 51以及用於對霧放出部5〇施加 負的高電壓的電源裝置（變壓器構成。 15 201205019 53。二生::二具備對霧放出部5〇供給水分的供水部 水平邱％ 有&左右方向延伸的水平部53&以及從該 觀窣卜右端部向1"方延伸的垂直部53b，且從正面 =二：=元51是在呈以狀的盒54 供:==:=== =管，冷藏用冷卻器室36的== 仃的方式，沿著前部壁36a而配置著。 保水材料55例如呈使纖維纏繞而成的魅（felt)狀， 2水性以及保水性優異，並毛崎縣來吸取後述 的儲水容器56 (相#於儲水部）_存的水（除霜水）。 ===要㈣湘杨管現絲吸取水，則 〜供水部53的水平部53a配置在霧用專用導管45内的 稍罪右，垂直部53b的下端部如圖8所示，貫穿導瞢播 輪的下部、冷藏用冷卻器室36的前部== 形成的孔而插入至冷藏用冷卻器室36内的下部的前部。 保水材料55的外周是由盒54所覆蓋。在保水材料& 中，也可使水平部53a的部分與垂直部53b的部分由不 的構件所構成。 在冷藏用冷卻器室36内的下部的前部，設有構成儲水 部的儲水容器56 (參照圖8)。該儲水容器56位於A 冷卻器24與存在于其下方的排水管4〇之間且供'水 201205019 的下方，通過將前部安裝於冷藏用冷卻器室36的前部壁 36a的下部36c，從而設置成向後方突出的懸臂狀態。 此時，安裝著儲水容器56的前部的下部36c位於前部 壁36a的下方且經由段部36b而向前部壁36a更前方凸出 (突出）。 如果將前部壁36a設為第1突出部，則下部36c將成 為向其更前方突出的第2突出部。儲水容器56在安裝於下 部36c的安裝狀態下，與冷藏用冷卻器24及形成冷藏用冷 卻器至36的後表面的内箱2b以及排水管40隔開。儲水容 器56的詳細結構將在後文進行敍述。 在儲水容器56與内箱2b之間，確保有規定距離（此 時’空間距離為2〇 mm以上，沿面距離為3〇 mm以上） 以作為電性絕緣距離。而且，儲水容器5 6也與冷藏用冷卻 器24隔開，在儲水容器56與冷藏用冷卻器％的下表面之 間，確保有規定距離（此時，空間距離為2〇mm以上，沿 面距離為30mm以上）以作為電性絕緣距離。另外，電性 、、’邑緣距離疋根據電氣用品安全法的規定而設計。 所述供水部53中的垂直部53b的下端部貫穿導管構成 構件46的下部、冷藏用冷卻器室％的前部的段部灿所 形成的孔，並從上方插入至儲水容器56内。 。。健水容器56如圖12所示，配置在承接從冷藏用冷卻 :24的尤其是冷卻劑管24a右方的端部24c滴落的除霜水 並加以儲存的位置上。 供水部53的縣材料55如上所述，毛細管現象 17 201205019 來吸取儲水容器56 部50。 内儲存的水（除霜水）並供給 至霧放出 設有霧放出部5〇。 霧放出銷（pin) 57 在供水部53中的水平部53a上，設有 霧放出部5G是由分別構成突部的多根霧放201205019 VI. Description of the Invention: TECHNICAL FIELD OF THE INVENTION Embodiments of the present invention relate to a refrigerator. [Prior Art] In recent years, I have known a refrigerator having a mist generating device that is electrostatically atomized to produce a mist. The mist generates a projection for the skirt, and a structure for discharging (four) mist from the projection to the living chamber). The cold mist generator has a detachable water storage unit and is configured to atomize water in the water storage unit (for example, refer to the patent document 〇. Far away, in a domestic refrigerator, there is a type of cooling And a refrigerator that receives a drain pipe that flows out of the chilled water generated by the cooler (for example, refer to Patent Document 2). In such a refrigerator, for example, a storage device such as a mist generating device is present above the drain pipe. In the case of a water storage portion of a voltage-applied water, in particular, when water is continuously dropped from the water storage portion to the drain pipe, the dropped water is connected to the defrosted water flowing along the drain pipe, thereby possibly via This water applies a voltage to the cooler to cause the cooler to be charged. Therefore, 'when the defrosted water drops on the drain pipe, it is preferable to make the water drip continuously 'to avoid exceeding the drainage capacity of the drain pipe. Moreover, there is a drain pipe In the structure of the mechanism (water receiving part) that receives the water dropped from the water storage part, the water receiving part is required not to receive a large amount of water at a time to match the processing capacity such as drainage or discharge. [Patent Document] Japanese Patent Publication No. 2 (8) No. : The tube of water and the refrigerator in the water storage part of the water to which the voltage is applied, the second is enough to prevent the money from the water storage part (four) age frost water = prevent the voltage from being applied to the cooling II. Moreover, the present invention provides a refrigerator, The water is dripped from the water storage portion to the drain pipe (water receiving portion). The refrigerator of the present embodiment is characterized by comprising: a cooler; storing and storing the applied voltage water for the atomizing device And the tube is provided in a manner of being in contact with the cooler, and receives the defrosting water generated by the defrosting of the cold (four) and is provided with a partition in the tube that receives the defrosting water, The partition is partitioned to prevent the water dripping from the water storage portion from being connected to the defrosted water from the cooler. Further, the refrigerator of the present embodiment is characterized in that the water storage unit is provided with Discharge the stored water to the drain, and A water passage continuous from the surface of the drain portion to the back surface is provided, and water stored in the water storage portion is configured to continuously drip into the tube through the water passage by capillary action. The above and other objects, features, and advantages of the present invention will become more apparent and understood. In the following, a refrigerator (refrigerator) of a plurality of embodiments will be described with reference to the drawings. In the respective embodiments, substantially the same components are denoted by the same reference numerals, and description thereof will be omitted. (First embodiment) First The first embodiment will be described with reference to Fig. 1 to Fig. 18 (a) and Fig. 18 (b). As shown in Fig. 1 and Fig. 2, the refrigerator body 丨 is a vertically long rectangular box-shaped heat insulation box that is open on the front surface. In the body 2, a plurality of storage chambers are arranged in the vertical direction. Specifically, in the heat insulating box 2, the refrigerating chamber 3 and the vegetable compartment 4 are sequentially provided from the upper stage, and the ice making compartment 5 and the small freezing compartment 6' are disposed below the left and right sides thereof. There is a freezer compartment 7. Inside the ice making chamber 5, a well-known automatic ice making device 8 is provided (refer to Fig. 1). Further, the heat insulating box 2 is basically constructed by providing a heat insulating material between the outer casing 2a made of a steel plate and the inner box 2b made of synthetic resin. The refrigerating compartment 3 and the vegetable compartment 4 are storage compartments of a refrigerating temperature section, and the compartments 1 and the vegetable compartments 4 are partitioned by a partition wall 1 made of plastic. Usually, the maintenance temperature of the refrigerating compartment 3 is set to iO to yC, and the maintenance temperature of the vegetable compartment 4 is set to be slightly higher than rc~6〇c. In the front surface portion of the refrigerating compartment 3, a hinge opening and closing type heat insulating door 3a' is provided on the front surface of the vegetable compartment 4, and a suction type heat insulating door 4& The lower case u constituting the storage container is connected to the back surface of the heat insulating door 4a. In the upper portion of the lower casing 11, an upper casing 12 which is smaller than the lower casing u is provided. The inside of the refrigerating compartment 3 is vertically divided into a plurality of sections by a plurality of shelves 13. As shown in Fig. 201205019 3, 'the lowermost part in the refrigerating compartment 3 (the upper part of the partition wall i〇), the chilled chamber 14 is provided on the right side, and the egg box 15 and the small box 16 are provided on the left side of the left side. 'Further, there is a water tank Π on their left side. The water storage tank 17 is for storing water supplied to the ice making box 8a of the automatic ice making device 8 and is detachably mountable by a user. A micro-freezing box 18 is provided in the micro-compartment 14 in an accessible manner. A mounting plate 7 is provided from an upper portion of the micro-freezing chamber 14 to an upper portion of a portion where the water storage tank 17 is provided. As shown in Fig. 9, a partitioning plate 71a is provided between the micro-freezing chamber 14 and the egg box].5 and the setting portion of the small-sized box 16, and the setting portion and the water tank opening of the egg box 15 and the small-sized box 16 are provided. A partition plate 71b is also provided between the installation portions. The placing plate 70 constitutes a top plate portion of the micro-freezing chamber 14, and the upper portion of the micro-freezing chamber 14 is closed by the placing plate 70. The front surface of the micro-freezing chamber 14 is closed by the front surface wall iga of the micro-ticket case 18 in the storage state. The maintenance temperature of the micro-freezing chamber 14 is slightly lower than that of the upper refrigerating compartment 3 and the lower compartment 4, and is set to, for example, 〇〇C to 1O. The micro-freezing chamber 14 and the lower cooking chamber 4 are vertically adjacent to each other via the partition wall 1〇. As shown in Fig. 1 and Fig. 10, in the rear upper portion of the micro-container box 18, the month is viewed from the front side from the upper left side wall of the financial box 18, the upper portion of the rear wall, and the front surface wall. The notch portion 18b is formed in a manner that the front side of the 18a and the left and right side walls is low. The ice making compartment 5, the small cold bundle chamber 6 and the cold bundle chamber 7 are both cold and warm, such as -18 C, and the vegetable compartment 4 and the ice making compartment 5 are separated from the chamber 6 by the heat insulating partition wall 19 Separate up and down. 1 8 201205019 A suction-type heat insulating door & is provided in the surface of the crucible to which the ice is placed to 5, and the ice storage container 2 is connected to the back surface of the heat insulating bucket 5a. In the front surface portion of the small freezer compartment 6, although not shown, a suction type heat insulating door to which a storage container is connected is also provided. A suction-type heat insulating door 7a to which the storage container 22 is connected is also provided in the front surface portion of the cold-blowing chamber 7. ^ In the refrigerator main body 1, 'the refrigeration cycle (eycle) including the two coolers of the refrigerating cooler 24 and the refrigerating cooler 25 is incorporated, and the storage cooler 24 is used for the storage compartment of the refrigerating temperature section. That is, the refrigerating compartment 3 and the vegetable compartment 4 and the micro-freezing compartment 14 are cooled, and the refrigerating cooler is cooled by the cold shower; the jdl degree I is stored to the ice making chamber 5, the small cold; the east chamber 6 and the cold The chamber 7 is cooled. A machine room 26 is disposed on the back side of the lower end portion of the refrigerator body 1, and a compressor 27, a condenser, and the like constituting a refrigeration cycle are disposed in the machine room 26, and a cooling fan for cooling them is disposed. (fan) or defrosting water evaporates m 28 and the like. A control unit 29 to which a micro computer or the like for controlling the whole body is attached is provided at a lower portion of the rear surface of the refrigerator main body 1. The refrigeration cooler 24 and the cold cooler 25 are electrically connected indirectly to the outer casing 2a via a compressor 27 or the like which constitutes a refrigeration cycle together with these coolers 24 and 25. A freezing cooler chamber 30 is provided at the back of the freezing compartment 7 in the refrigerator main body 1. In the chiller chamber 3 of the chilling chamber, the lower portion is provided with the cold damper cooler 25 or a defrosting heater (not shown), and is disposed at the upper portion. There is a blowing fan 31 for freezing. In the cold 201205019, the intermediate portion 30a' of the front surface of the cold air chiller chamber 30 is provided with a return port 3〇b at the lower portion. a is cold; when the east fan fan 31, the cold air generated by the cold air 7 ρ is subjected to the following cycle: from the cold air outlet 30a to the ice making chamber 5, a small cold clothes After the ^^ n rr 』 is frozen to 6, in the freezer compartment 7, returning from the return 〇 30b to the cold; the east is used in the cooler chamber 3 。. By the cold air, the ice making chamber 5, the small cold chamber 6 and the cold beam chamber 7 are cooled. Further, in the blanking of the cold_cooler, a drain pipe 32 for defrosting water for defrosting the cold/east cooling H 25 is provided. The defrosted water received by the drain pipe 32 is led to the defrosted water provided in the machine room% outside the refrigerator to evaporate and evaporate. Further, in the refrigerator compartment 3 and the back of the vegetable compartment 4 in the refrigerator main body 1, a refrigerating cooler 24 or a cold air generated by the refrigerating cooler 24 is supplied to the refrigerating compartment. 3 (and vegetable compartment 4), a cold air duct 34, a refrigerating air blower fan 35 for circulating cold air, and the like. In other words, in the rear of the lowermost stage of the refrigerator compartment 3 in the refrigerator main body 1 (the rear side of the micro-freezing compartment 14), a refrigerating cooler chamber 36 constituting a part of the cold air duct 34 is provided in the refrigerating cooler chamber 36. A refrigerating cooler 24 is provided. The refrigerating cooler 24 is disposed in contact with a part of the inner box 2b (in this case, a portion where the refrigerating cooler chamber 36 is formed). In addition, at least the portion of the inner surface of the inner box 2b that is in contact with the refrigerating cooler 24 and the periphery of the portion (especially the lower portion) are attached with the main use 201205019 (seal). The defrosted water of the cooler 24 is a layer (not shown). ^ Above the refrigerating cooler chamber 36, a cold air duct 37 is extended upward. The upper end portion of the refrigerating chamber 11 is connected to the lower end portion of the cool air supply guide 37. At this time, the cold air duct 34 is constituted by the refrigerating cooler chamber 36 and the cold air supply duct 37. The front wall 36a of the refrigerating cooler chamber 36 protrudes further toward the cold air supply duct 37. Further, on the back side of the front wall 36a, a heat insulating material 38 having heat insulating properties is provided. In the front portion of the cool air supply duct 37, a plurality of cold air supply ports 39 opening into the refrigerating chamber 3 are provided. In a lower portion of the refrigerating cooler chamber 36, a drain pipe 40 (corresponding to a water receiving portion) is provided below the refrigerating cooler 24, and the drain pipe 4 receives the defrosting water from the refrigerating cooler 24 and Discharge to the outside of the refrigerator. As shown in FIG. 13, the drain pipe 40 is formed in a valley shape in which the bottom wall portion 40a, the rear wall portion 40b, the side wall portion 40c, the front wall portion 40d, and the protruding portion 4〇e are integrally formed, and the bottom wall is located therein. A drain port 41 is provided at a leftward position of the portion 4A, the left wall portion 40a is long in the left-right direction, and the rear wall portion 40b is erected at a rear portion of the bottom wall portion 4a, the side The wall portion 4〇c is erected on the left and right side portions of the bottom wall portion 40a, and the front wall portion 4〇d is provided at the front portion of the bottom wall portion 4〇a toward the obliquely upward direction, the protruding portion 4〇e The front right portion of the bottom wall portion 40a is provided so as to protrude forward. The bottom wall portion 40a is inclined downward toward the drain port 41. The left and right length dimensions of the drain pipe 40 and the depth dimension of the front and rear are set to be larger than the left and right length dimensions of the refrigerating cooler 24 and the depth dimension of the front and rear to form the 201205019 defrosting for all the drip from the refrigerating cooler 24 The size of the water. The defrosted water received by the drain pipe 40 is also discharged from the drain port 41 to the defrosted water provided in the machine room 26 outside the refrigerator, similarly to the defrosted water received by the drain pipe 32. The dish 28 was evaporated. Further, as shown in FIG. 12, the refrigerating cooler 24 has a coolant tube 24a arranged in a serpentine shape and a plurality of fins 24b, and the right end portion 24c of the coolant tube 24a is from the heat transfer fin 24b. Stand out to the side. On the front surface side of the rear wall portion 40b of the drain pipe 40, a support portion 4〇f that supports the coolant pipe 24a is integrally provided. The rear surface of the lower heat transfer fin 24b of the refrigerating cooler 24 is in contact with the front surface of the rear wall portion 4b of the drain pipe 4' (see Figs. 5 to 8 and 12). At this time, the rear surface of the lower heat transfer fin 24b in the refrigerating cooler 24 is in contact with the front surface of the rear wall portion 40b of the drain pipe 40, and also includes the defrosting generated when they are defrosted by the cooling cooling H24. Water contact. A rib-shaped partition portion 8G is integrally provided on the upper surface of the bottom wall portion 40a of the drain pipe 40. The partition portion 8G extends in the left-right direction along the rear wall portion 4Gb at the intermediate portion in the front-rear direction of the upper surface of the bottom (4) MQa, and the right end portion 80a is connected rearward to the left end of the rear wall portion at the rear of the protruding portion 4Qe. The portion 8〇b extends to the drain port 41 (the partition portion 80 is also inclined as shown in FIG. 14 as shown in FIG. 14 . The rear portion of the leek chamber 4 is disposed below the drain pipe 40). The air-sending fan 35' for refrigerating is provided with a blower duct 42 and a suction port 43. The air-supply duct 42 is connected to the refrigerating cooler chamber 36 (air-cooling duct 34) by means of the passage of the air duct_42. The opening 43 is opened in the vegetable compartment 4. The lower surface of the rear part of the partition wall 10 which constitutes the bottom of the refrigerating compartment 3 (the bottom of the micro-freezing compartment 14) is located in the vegetable to the side as shown in Fig. 1, Fig. 9, Fig. 1 A crisper cover 72 is attached to the upper portion of the fourth portion, and a ventilation path 73 extending in the left-right direction is formed between the fresh-keeping cover 72 and the partition wall 1A. As shown in Fig. 9, at the partition wall 10. The rear part is located behind the micro-freezing chamber 丨4 and is provided with a plurality of openings. The vent 74a is also provided with a vent 74b composed of a plurality of openings at the rear of the installation portion of the small box 16. These vents 74a, 74b allow the micro-freeze chamber 14 and the air passage 73 and the small box 16 to be The installation portion communicates with the air passage 73. The left and right side portions of the air passage 73 are open and the air passage 73 communicates with the upper portion of the vegetable compartment 4. Further, in the right corner portion of the rear portion of the partition wall 10, as shown in Fig. 5 A communication port 75 including a plurality of openings is formed behind the micro-freezing chamber 14. A V-duct 76 is provided below the communication port 75 as shown in Figs. 9 and 1B. The upper end portion of the 76 is communicated with the lower end portion of the microbead chamber 14' via the communication port 75 via the vent hole 77 (see FIG. 10) formed on the fresh-keeping cover 72 to communicate with the upper portion of the vegetable compartment 4. At this time, the micro-freezing chamber 14 The vent 74a and the communication port 75 function as an air outlet that serves as an outlet for the air in the micro-freezing chamber 14. Further, these vents 74a and the communication port 75 are disposed in the micro-frozen box 18; 201205019 = micro; bundle In the state of 14, it is not blocked by the box 18. The vent 74b in the installation portion of the storage unit 16 serves as a gas outlet for the phase of the small box 16, and is disposed at a position that is not blocked by the small box 16 in a state in which the small box 16 is accommodated. In this configuration, when the refrigerating blower fan 35 is driven, the inside of the vegetable compartment 4 (four) gas is sucked into the side of the trapping blower fan 35 from the suction population 43 as shown by the hollow arrow in Fig. 1, and the sucking air is blown out. The air supply duct is blown out to the air supply duct 42 to pass the air through the cold air duct 34 chamber and the cold air supply duct (7), and the cold air is taken out into the refrigerating chamber 3, and is also directly sent to the micro-freezing chamber 14 as will be described later. Inside. The air in the refrigerating room 3 and the financial room 14 (including the setting part of the small box 16-f^5) is mainly as shown in the arrow of Fig. 9 (1) jin = mouth 7 as, 7 servants flow out to the airway 73, and flows through the air passage 73 toward the left and right directions, and is supplied to the vegetable compartment 4 through the left and right outer surfaces of the upper casing 12 of the vegetable compartment 4. - ^ 'A part of the air in the micro-compartment 14 is as shown in the arrow C2 of (7). The following cycle 'that' is passed from the communication port 75 through the V-duct 76 and is supplied to the vegetable compartment 4 as it is supplied to the vegetable compartment. The air in 4 is finally sucked in by the refrigerating material fan 35. The air in the cooler chamber 36 for refrigerating is refrigerated and then becomes cold air. The cold air is supplied to the refrigerating chamber 3, the 201205019 micro-freezing chamber 14 and the vegetable compartment 4, thereby causing the refrigerating chamber 3, the micro-freezing chamber 14 and The vegetable compartment 4 is cooled to the temperature of the refrigerating temperature section. Further, as will be described later, a part of the cold air after passing through the refrigerating cooler 24 is directly supplied to the micro-freezing chamber 14, whereby the micro-freezing chamber 14 is maintained at a lower temperature than the refrigerating chamber 3 and the vegetable compartment 4. 〇~re). As shown in FIG. 2 and FIG. 4, the front side of the refrigerating cooler chamber 36 in the cold air duct 34 is provided with a special duct for mist, which is located on the right side and is located behind the micro-freezing chamber 14. 45. As shown in FIGS. 5 to 8, the special duct for mist 45 is formed by the front wall 36a of the refrigerating cooler chamber 36 and the duct constituent member 46 attached to the front surface of the refrigerating cooler chamber 36. The duct constituent member 46 that forms the special duct 45 for mist is detachably attached to the front wall 36a. At this time, the special duct 45 for mist is formed along the front wall 36a in a flat rectangular box shape which is long in the left-right direction and has a small depth in the front-rear direction. Further, in the special mist duct 45, the main body portion of the electrostatic atomizing device 48 is housed, and the electrostatic atomizing device 48 constitutes a mist generating device for generating mist. In addition to the mist generating mechanism, the electrostatic atomizing device 48 functions as a sterilizing component generating mechanism and a deodorizing component generating mechanism. Hereinafter, the electrostatic atomization device 48 will be described in detail. As shown in Fig. 11, the electrostatic atomizing device 48 includes a mist generating unit 51 having a mist releasing portion 5 and a power supply device (transformer) for applying a negative high voltage to the mist releasing portion 5〇. 15 201205019 53. The second generation: the second water supply portion of the water supply unit that supplies water to the mist discharge unit, the horizontal portion 53 & and the vertical portion 53b extending from the right end portion of the view to the 1" And from the front side = two: = element 51 is in the form of the box 54 provided: ==:=== = tube, the refrigeration cooler chamber 36 == 仃, arranged along the front wall 36a The water-repellent material 55 is, for example, a felt-like shape in which a fiber is wound, and is excellent in water and water retention, and the water storage container 56 (phase #水水部)_ (Defrost water). === (4) When the Xiangyang pipe draws water, the horizontal portion 53a of the water supply unit 53 is disposed in the special duct 45 for fog, and the lower end of the vertical portion 53b is as shown in Fig. 8. It is inserted into the refrigerating cooler chamber 36 through the hole formed in the lower portion of the pilot wheel and the front portion of the refrigerating cooler chamber 36. The outer portion of the lower portion of the inner layer of the water retaining material 55 is covered by the casing 54. In the water retaining material & the portion of the horizontal portion 53a and the portion of the vertical portion 53b may be composed of non-members. A front portion of the lower portion in the cooler chamber 36 is provided with a water storage container 56 (refer to Fig. 8) constituting a water storage portion. The water storage container 56 is located between the A cooler 24 and the drain pipe 4 存在 therebelow. Further, under the water 201205019, the front portion is attached to the lower portion 36c of the front wall 36a of the refrigerating cooler chamber 36, and is provided in a cantilever state that protrudes rearward. At this time, the front of the water storage container 56 is attached. The lower portion 36c of the portion is located below the front wall 36a and protrudes (projects) forward from the front wall 36a via the segment portion 36b. If the front wall 36a is the first projection, the lower portion 36c will become The second protruding portion that protrudes further forward. The water storage container 56 is separated from the refrigerating cooler 24 and the inner box 2b and the drain pipe 40 forming the rear surface of the refrigerating cooler to 36 in a mounted state attached to the lower portion 36c. The detailed structure of the water storage container 56 will be described later. Between the water storage container 56 and the inner box 2b, a predetermined distance is ensured (the space distance is 2 mm or more, and the creeping distance is 3 mm or more) as the electrical insulation distance. Moreover, the water storage container 56 is also It is separated from the refrigerating cooler 24, and a predetermined distance is secured between the water storage container 56 and the lower surface of the refrigerating cooler % (in this case, the spatial distance is 2 mm or more, and the creeping distance is 30 mm or more). Electrical insulation distance. In addition, the electrical and "edge distance" are designed according to the provisions of the Electrical Appliances Safety Law. The lower end portion of the vertical portion 53b of the water supply portion 53 penetrates a hole formed in a lower portion of the duct constituting member 46 and a portion of the front portion of the refrigerating cooler chamber, and is inserted into the water storage container 56 from above. . . As shown in Fig. 12, the water holding container 56 is disposed at a position where it receives defrosted water dripped from the end portion 24c of the cooling cooling unit 24, particularly the coolant tube 24a, and stores it. The county material 55 of the water supply unit 53 sucks the water storage container 56 portion 50 as described above, capillary phenomenon 17 201205019. The stored water (defrosted water) is supplied to the mist to be discharged. The mist release pin (pin) 57 is provided on the horizontal portion 53a of the water supply portion 53. The mist discharge portion 5G is provided by a plurality of mists respectively constituting the projections.
因此，霧放出部50是由朝向不同的方向（上方與下方） ，出的多個霧放出銷（突部）57構成。而且，霧放出部5〇 是配置成，多個霧放出銷（突部）57將供水部53的水平 部53a失在中間而向上下相反的方向延伸。 霧放出銷57是在水平部53a的上部侧朝上地 此時為4根霧放出銷57排列成左右方向的橫一 而且’多個霧放出銷（突部）57配置成上下兩段。各 霧放出銷57是以與冷氣導管34中的冷藏用冷卻器室％ 的别部壁36a成平行的方式沿著該前部壁36a而配置著。 霧放出部50設在冷藏室3的下方後部且鄰接於蔬菜室4 的位置’且配置在微凍室14的裏部。 各霧放出銷57例如是將聚酯（polyester )纖維和作為 導電性物質的碳（carbon)纖維混合撚合而形成為銷狀（棒 狀）者’具有保水性及水的吸取特性，並且具有導電性。 各霧放出銷57承載著鉑奈米膠體（nano choroid)。鉑 奈米膠體例如可通過將霧放出銷57浸潰到含有鉑奈米膠 201205019 體的處理液巾，並職進械燒而承載。 各霧放出銷57的底端部貫穿供 保水材料55。在供水…水卩的i 54而接觸 朝左突^~^ 的水平部53&的左端部，以 μ㈣Λ式设有構成受電用電極的受電銷5 8。受電 韵58的底端部在盒54内接觸該保水材料％。又電 51的HijH52?翻專料管45内，位補產生單元 部，設有連-著固導定缘狀:::置著。在電源裝置52的右端 成的供電端二在==“)(平型)端子構 w的所述受電鎖58。電w61上連接著霧產生單元 A t 如眾所周知般，具備包含__ 4 :，產生負的：i流的尚壓變壓器的整流電路或升壓電路 電壓(~^ 由保自^源裝置52的負的高電壓從受電銷％經 .' ’ 的水分而施加至各霧放出銷57，使得各霧 放出銷57帶負電。而且，此 ^ 由地線（未圖示）等而接地。水1目本體1的外相2a經 -的中，在儲水容器 此施加來自電源裝置52的負的高電壓。 部所霧放出銷57的前端部，對該前端 (energy)°^ ⑴端相水發生分裂（雷氏分裂，Rayleigh 201205019 的霧狀而放出（靜電霧化現Therefore, the mist releasing portion 50 is composed of a plurality of mist releasing pins (protrusions) 57 that are directed in different directions (upper and lower). Further, the mist releasing portion 5 is disposed such that the plurality of mist releasing pins (protrusions) 57 extend the horizontal portion 53a of the water supply portion 53 in the middle and opposite directions. The mist release pin 57 is placed on the upper side of the horizontal portion 53a. At this time, the four mist release pins 57 are arranged in the horizontal direction in the left-right direction. The plurality of mist discharge pins (protrusions) 57 are arranged in two stages. Each of the mist discharge pins 57 is disposed along the front wall 36a so as to be parallel to the other wall 36a of the refrigerating cooler chamber in the cold air duct 34. The mist releasing portion 50 is provided at a lower rear portion of the refrigerating chamber 3 and adjacent to the position ' of the vegetable compartment 4, and is disposed in the inner portion of the micro-freezing chamber 14. Each of the mist discharge pins 57 is formed by mixing and mixing polyester fibers and carbon fibers as conductive materials into a pin shape (rod shape), and has water absorption characteristics and water absorption characteristics. Electrical conductivity. Each of the mist discharge pins 57 carries a nano choroid. The platinum nanocolloid can be carried by, for example, immersing the mist release pin 57 into a treatment liquid towel containing a platinum nanocapsule 201205019. The bottom end portion of each of the mist discharge pins 57 penetrates the water retaining material 55. In the left end portion of the horizontal portion 53 & which is the left side of the water supply, the power receiving pin 508 constituting the power receiving electrode is provided in the μ (four) Λ type. The bottom end portion of the receiving motor 58 contacts the water retaining material % in the case 54. In the HijH52? special material tube 45 of the electric 51, the position compensation generating unit is provided with a joint-fixing guide edge::: placed. The power supply terminal 2 at the right end of the power supply unit 52 is connected to the power receiving lock 58 of the terminal structure w of the == ") (flat type). The mist generating unit A t is connected to the electric power w61 as well as known to include __ 4 : , generating a negative: i-flow of the transformer circuit of the rectifier circuit or the booster circuit voltage (~^ is applied from the negative voltage of the source device 52 from the power receiving pin%. The pin 57 is such that each of the mist discharge pins 57 is negatively charged. Further, this is grounded by a ground wire (not shown) or the like. The outer phase 2a of the water body 1 is passed through, and the water storage device is applied from the power supply device. Negative high voltage of 52. The front end of the mist release pin 57 is split at the front end (energy) ° (1) end phase water (Rayleigh splitting, Rayleigh 201205019 misty release (electrostatic atomization)
fission)，並從前端部呈微細 象）〇 此處， 量而生成的 radical) 0 因而’具有強氧化作用_自由基從各霧放出銷57 與霧-同被放出，通過羥自由基的作用可進行除菌或除 臭。此時’未设置與帶負電的霧放出銷57對應的相對電極。 因此，來自霧放出銷57的放電自身變得非常平緩，不 會在放電電極與相對電極之間產生電暈（c〇r〇na)放電， 從而可使有害氣體（臭氧（ozone)、或臭氧使空氣中的氣 發生氧化而產生的氮氧化物、亞硝酸、硝酸等）的彦4典 到抑制。 此處’霧放出銷57 (霧放出部50)可稱作是放出經自 由基這一除菌成分（也是除臭成分）的除菌成分放出機構 (也是除臭成分放出機構）’靜電霧化裝置48可稱作是除菌 成分產生機構（除臭成分產生機構）。 牙' 在構成霧用專用導管45的後壁的冷藏用冷卻器室％ 的前部壁36a，設有霧用冷氣供給口 62(參照圖4、圖7)。 該霧用冷氣供給口 62是在不與霧放出部5〇中的霧放出銷 57相向的位置，此時是在霧放出部50更左側，配置於所 述電源裝置52的上方。 ' 該霧用冷氣供給口 62的後部貫穿隔熱材料％並連通 至冷氣導管34中的冷藏用冷卻器室36，且前部連通至霧 201205019 用專用導管45。 翕徂/ ^過冷氣導管34内的冷氣的—部分從該霧用冷 ΑΙ?:'^62供給至霧用專用導管45 A (參照圖7的箭頭 M i1冷氣供給口 62供給至霧用專用導管45内的 冷乳在專科管45内形成對流。 36ή6=用冷氣供給口 62的上方，位於冷藏用冷卻器室 霧用的背側而設有向上方延伸的面向冷藏室的 63的下\63 (參照圖4、® 7)。該面向冷藏室的霧用導管 吹出口 ^部在霧用專用導管45内開口而成為冷藏室用霧 37内。&’上端部連通至冷氣導管34中的冷氣供給導管 室用霧翻專用導¥45内產生的霧的一部分從冷藏 給導管^7 口 6%通過面向冷藏室的霧用導管63、冷氣供 ΐ 4 ，，並從冷氣供給口 39供給至冷藏室3内（參照 闻4圖7的箭頭B1)。 (與用專用導管45中的導管構成構件46的前表面部 方而設有不同的位置）’位於所述霧用冷氣供給口 62的上 凍室2羧^凍室用霧吹出口 65 (參照圖4、圖7)，從該微 照圖4、I欠出口 65將霧的一部分供給至微凍室14内（參 ‘、、、、圖7的箭頭B2)。 部更^^用霧吹出口 65呈向導管構成構件46的前表面 的上2 r龙出的朝前的筒狀，並且位於微凍盒18的後部壁 用霧吹出切口部18b)更上方（參照圖9)，包含從微凍室 人D 65吹出到微凍室14内的霧的空氣大多從微凍 21 201205019 盒18的後上部的切口部叫供給至微;東盒18内。 "而且’在導管構成構件46的前表面部 ，位於微凍室用 人口 65的左侧而設有蛋盒用霧吹出口 66(參照圖4)， 的科從該蛋盒用霧吹出σ 66也被供給至蛋盒15内 (參照圖4的箭頭Β3 )。 μ在霧用專用導管45的右側的下部， 如圖5所示， 設=菜室用霧吹出σ 67β該蔬菜室用霧吹出口 67連通 通口 75，霧用專用導管45内的霧的—部分通過蔬菜 j霧η人出σ 67、連通口 75、ν導管％、通氣口 77也被 供作至蔬菜室4内（參照圖1G的箭頭C2)。 此時’向S料肖導;f 45时人冷氣的制冷氣供給 口 62與蔬菜至用霧吹出口 67之間的距離li被設定為大 於霧用冷氣供給σ 62與微;東室用霧吹出口 65之間的距離 L2 ° >在霧用專用導管45的上部，位於霧放出部50的上方 而。又有微;東至用冷氣供給口 68 (參照圖4、圖6、圖8)。 東至用冷氣供給σ 68如圖6、圖8以及圖9所示，呈 二、管構成構件46的前表面部更前方突出的朝前的筒 ’並且位—於微康盒18的後部壁的上端更上方（參照圖9)。 微，室用冷氣供給口 68的後部貫穿隔熱材料38而連 ^至冷藏用冷卻11室36 ’前部貫穿制專料管45而連 通至微;東室14。 因此，冷藏科卻器室36的冷氣的—部分通過該微束 至用冷氣供給口 68而直接供給至微;東室14(參照圖6、圖 22 201205019 8的箭頭A2)，以將微凍室14維持為比冷藏室3以及蔬菜 室4低的溫度即〇-c〜1。〇。而且，隔熱材料38也兼作冷 藏用冷卻器24與霧放出部50之間的絕緣機構。 此處，也參照圖15〜圖17來說明儲水容器56的結 構。圖15表示從後部的右上方觀察儲水容器56的單體的 立體圖。 儲水容器56為矩形容器狀，且底壁部56a的前部的前 壁部56b與左右兩侧部的左側壁部56c以及右側壁部56d 的上端部的尚度被設定為相同。在前壁部56b的上部設有 安裝部81，儲水容器56經由該安裝部81而安裝於冷藏用 冷卻器室36内的前部的所述下部36c (參照圖 儲水谷器56配置於排水管4〇中的右前部的突出部 40e的上方（參照圖12)〇在底壁部56a的前部侧，設有比 其他部分低的最低部82。底壁部56a的後部側以越往後端 部越高的方式而傾斜向上（參照圖16>霧產生單元51的 供水部53中的垂直部53b的下端部從上方插入儲水容器 56的最低部82 (參照圖8)。 在底壁部56a的後端部侧的上表面，在左側以與左側 壁部56e彳目連的方式而設有左後部冑83，在右側以與右侧 壁部56d相連的方式而設有右後部壁84。左後部壁83到 達底壁部56a的左右的寬度方向的中央部附近為止。右後 部壁84的長度被設定為短于左後部壁83。 在左後部壁83❸右端部，一體地設有朝向後方而突出 的凸部83a。該凸部83a如圖16所示，從底壁部56a的表 23 201205019 面設置到背面。 而且，在右後部壁84的左端部，從底壁部56a的表面 到背面設有與凸部83a同樣的凸部84a。此處，在儲水容 器56的後部，將凸部83a與凸部84a之間設為作為比其他 部分低而易排水的部位的排水部85。 在排水部85中的底壁部56a的左側，以在與凸部83a 之間存在微小的間隙的方式而與凸部83a相向地設有筋 (rib)狀的凸部86。該凸部86也是從底壁部56a的表面設 置到背面，但上部側的高度設定為比凸部83a低。 在所述相鄰的2個凸部83a與凸部86之間，形成有寬 度較窄的通水路87。該通水路87形成為從排水部85中的 底壁部56a的表面到背面而連續的u字形。 通水路87的寬度尺寸被設定為約1 mm，以引起水的 毛細管現象。 而且’在排水部85中的底壁部56a的右側，以在與所 述凸部84a之間存在微小的間隙的方式而與凸部8如相向 地設有筋狀的凸部88。 該凸部88也是從底壁部56a的表面設置到背面，但上 部側的高度設定為比凸部84a低。在所述相鄰的2個凸部 84a與凸部88之間，形成與所述通水路87同樣形狀的通 水路87。 進而，在排水部85中，在凸部86與凸部88之間，位 於底壁部56a的後端部而安裝著通水路形成構件9〇。 該通水路形成構件90也如圖17以及圖18(&)、圖18 24 201205019 (b)所示’橫向觀察呈u字形，且在内部具有呈u字形的 通水路91，通過安裝於底壁部56a的後端部，從而形成從 排水部85中的底壁部56a的表面到背面而連續的u字形 的通水路91。 通水路91的高度（深度）被設定為約丨mm，以引起 水的毛細管現象。通水路形成構件9〇通過底壁部56a的後 端部所設的一對彈性卡合爪92而止脫。 此時，在儲水容器56中的排水部85中，在寬度方向 的左右兩舰有通树87，錢度方⑽巾央部設有通水 路91。另外，在底壁部56a中的後端部側的背面（下表面）， ^各通水路87、91的前側而朝下地突出設置有筋狀的突 如圖=诸水1 器，配置於排水管4〇的上方的狀態下， 容器56的排水部85位於排一 ^部8〇的右部紙是位於在冷藏 排水管4〇接觸的部分即導熱鰭片挪 么二二 端部=端部撕的 冷藏室t 如上職，在對 冷卻後的冷氣借助冷藏用送風二冷藏用冷卻器24 圖1中的空心箭頭所示般，的送風作用，主要如 個冷氣供給口 39供給至冷藏室d給導管37，並從多 微;東室用冷氣供給口 68直接供給至微二： 25 201205019 箭頭A2)。被供給至冷藏室3内以及微涞室μ ，7軋在有助於食品等的儲藏物的冷卻之後，如上 =圖:的箭頭C1所示’從通氣D74.a、74b流出到通 1 73 ’補向左方向以及右方向流經 ，室4的上，盒12的左右兩外表面而供給至蔬= 所干，i連乞14内的冷氣的一部分如圖10的箭頭C2 足連通口 75通過V導管76，並從通氣口 77 政菜至4内。供給至蔬菜室4⑽冷 菜 儲藏物的冷卻之後，從吸入口 43被吸入至冷== 35侧’再次由冷藏用冷卻器24進行 = 的循環。 代叩垔嗄迫樣 而且’在該冷藏室3以及蔬菜室4 冷卻器室36内的冷氣的-部分如圖7中的箭頭A二减用 從霧用冷氣餘π 62供給至霧科科f 45内=， r=L45直内的冷氣碰到導管構成構件46的;i 面，從而在霧科用導管45内形成對流而擴I 表 此時，當驅動靜電霧化裝置48時，從霧產 =個霧放出銷57放出如上所述般含有_基： 從霧放出銷57放出的霧的—部分如圖7的箭頭 示，乘著對=的冷氣從冷藏室用霧吹出口伽通 二 藏室的霧用導管63、冷氣供給導管3 向令 39供給至冷藏室3内。^ 37,並從冷氣供給口 而且，從霧放出銷57放出的霧的—部分如圖彳以及圖 26 201205019 7的箭頭B2所示，從财室用霧吹出口 Μ内的:其梅盒一 不，也從蛋盒用霧吹出口 66供給至蛋各15内。 菜室放#_的-;分從右下部的蔬 耒至用務人出口 67通過連通口 75、ν導管％、 也供給至蔬菜室4内。 、 因此’在本實施方式中，可將霧用專用導管幻内 的霧供給至冷齡3、财室14、蛋盒15以及蔬菜室* 等多個供給目標，從而可期待這些供給目標的除菌或除臭 的效果，並且也可期待蔬菜等的保濕或保鮮。 、 *另-方©’冷藏科卻ϋ24的除霜是通過在停止對〆 藏用冷卻器24供給冷卻劑的狀態下，驅動冷藏用送風風^ 35 ’從而使冷纽度段的各韻室（冷藏室3、蔬菜室*、 微束室14)的空氣通過冷氣導管34而循環來進行。 通過使冷藏溫度段的儲藏室的空氣通過冷氣導管％ 而循環，冷藏料卻11 24的溫度成為正（plus)的溫度， 由此，冷藏用冷卻器24的溫度上升而進行除霜。 在冷藏用冷卻器24的除霜時從冷藏用冷卻器24滴落 的除霜水的-部分由靜電霧化裝置48的儲水容器56承接 並儲存，剩餘的大多除霜水如前所述般在由排水管4〇承接 後，從排水口 41導至除霜水蒸發皿28並蒸發。 此處，由儲水容器56所承接並儲存的除霜水如前所 述，被霧產生單元51的保水材料55吸取並供給至霧放出 銷57，並作為霧而從該霧放出銷57放出，由此逐漸被消 27 201205019 耗，但有時會因從冷藏用冷卻器24滴落至儲水容器56的 除霜水的量而超過儲水容器56的儲水量。 此時，在本實施方式中，儲水容器56内儲存的水如下 所述般滴落至排水管40。 即，當儲水容器56内儲存的水面的後端部到達排水部 85時，儲水容器56内的水將通過排水部85中形成的通水 路87或通水路91的毛細管現象而進入通水路87、91内， 並通過通水路87、91而從排水部85的表面繞到背面，並 順著底壁部56a下表面的突部93而滴落到下方的排 40内。 此時，由於只有引起毛細管現象的水量進入各通水與 87、9^因此水不會連續地流出，而是__滴—滴地不料 續地滴落。 此時，優選在通水路87、91附近施加減小水的表面男 力的處理’或實域水性處理，或者賴祕良好，則 儲水容器56内的水因通過毛細管現象而容易 87、91内。為了使儒濕性良好，例如可利用紙（paper) 來使構件的表面粗糖化。 然而’在未於排水部85内形成本實施方式般的通水與 87、91 ’且底壁部56a的後端部為單純的傾斜的板狀或塞 直壁的情況下，當儲水容.器56内的儲水量增加時會因^ 的表面張力而蓄積_水容H 56的内容量以上，一 某個固定量’ 7jC將會-口氣流出’儲水容器％Fission), and from the front end is a microscopic image) 〇 here, the amount of generated radical) 0 thus 'has strong oxidation _ radicals from the fog release pin 57 and the fog - are released, through the role of hydroxyl radicals Can be sterilized or deodorized. At this time, the opposite electrode corresponding to the negatively-charged mist discharge pin 57 is not provided. Therefore, the discharge from the mist discharge pin 57 itself becomes very gentle, and a corona (c〇r〇na) discharge is not generated between the discharge electrode and the opposite electrode, so that a harmful gas (ozone, or ozone) can be generated. Inhibition of nitrogen oxides, nitrous acid, nitric acid, etc., which are generated by oxidation of air in the air, is suppressed. Here, the 'fog release pin 57 (the mist discharge portion 50) can be referred to as a sterilization component discharge mechanism (also a deodorization component discharge mechanism) that discharges a free radical component (also a deodorant component). The device 48 may be referred to as a sterilization component generating mechanism (deodorizing component generating mechanism). In the front wall 36a of the refrigerating cooler chamber % constituting the rear wall of the special duct for mist 45, a mist supply port 62 is provided (see Figs. 4 and 7). The mist cooling air supply port 62 is located at a position that does not face the mist discharge pin 57 in the mist discharge portion 5, and is disposed above the power supply device 52 on the left side of the mist discharge portion 50. The rear portion of the cold air supply port 62 of the mist penetrates the heat insulating material % and communicates with the refrigerating cooler chamber 36 in the cold air duct 34, and the front portion communicates with the special conduit 45 for the fog 201205019.翕徂 / ^ The part of the cold air in the supercooled air duct 34 is supplied from the mist to the special duct 45 A for fog (see the arrow M i1 in the cold air supply port 62 of Fig. 7). The cold milk in the duct 45 is convected in the specialist pipe 45. 36ή6=above the cold air supply port 62, on the back side for the fog of the refrigerating cooler chamber, and the lower side facing the refrigerating chamber 63 is provided. 63 (refer to Figs. 4 and 7) The duct outlet port for the mist facing the refrigerating compartment is opened in the special duct 45 for mist and becomes the inside of the refrigerating compartment mist 37. The upper end portion communicates with the cold duct 34. A part of the mist generated in the special air-conditioning duct of the air-conditioning duct is supplied from the refrigerating duct 7.6 through the mist duct 63 facing the refrigerating compartment, the cold air supply port 4, and is supplied from the cold air supply port 39. The inside of the refrigerator compartment 3 (refer to the arrow B1 of FIG. 7 of FIG. 7). (The position is different from the front surface part of the duct-constituting member 46 in the dedicated duct 45. In the upper freezing chamber 2, the carboxy-freezing chamber is blown out with a mist 65 (see Figs. 4 and 7), from which the micro-photograph is taken 4. I owes an outlet 65 to supply a part of the mist into the micro-freezing chamber 14 (refer to ',,,, arrow B2 of Fig. 7). The portion of the mist is blown toward the front surface of the catheter constituting member 46 by the mist blowing port 65. 2 r is a forward-looking cylindrical shape, and the rear wall of the micro-freezing box 18 is blown upward by the mist-cutting portion 18b) (refer to FIG. 9), and is blown from the micro-freezing chamber person D 65 into the micro-freezing chamber 14 The air of the mist is mostly supplied from the incision portion of the rear upper portion of the box 18 to the micro-frozen 21 201205019; " Further, in the front surface portion of the duct constituent member 46, the egg box mist blowing port 66 (see Fig. 4) is provided on the left side of the micro-freezing room population 65, and the branch is blown out of the egg box by the mist σ 66 It is also supplied into the egg box 15 (refer to arrow Β 3 in Fig. 4). In the lower part of the right side of the special duct 45 for the mist, as shown in Fig. 5, it is assumed that the kitchen chamber is blown with the mist σ 67β, and the vegetable chamber is connected to the port 75 by the mist outlet 67, and the mist in the special duct 45 for the mist is used. The vegetables σ η 67 , the communication port 75 , the ν duct %, and the vent 77 are also supplied into the vegetable compartment 4 (see an arrow C2 in FIG. 1G ). At this time, the distance to the material supply is 62. The distance li between the cooling air supply port 62 and the vegetable to the mist outlet 67 is set to be larger than the cold air supply σ 62 and the micro; The distance L2 between 65 and 65 is located above the mist discharge portion 50 in the upper portion of the special duct 45 for fog. There is also a slight; east to the cold air supply port 68 (refer to Figure 4, Figure 6, Figure 8). As shown in FIG. 6, FIG. 8 and FIG. 9, the eastward cold air supply σ 68 is a front-facing cylinder which protrudes forward from the front surface portion of the pipe constituting member 46 and is located at the rear wall of the micro-containment box 18. The upper end is above (see Figure 9). The rear portion of the room air-conditioning supply port 68 is connected to the micro-compartment 14 through the heat-insulating material 38 and connected to the front portion of the refrigerating cooling chamber 11 s. Therefore, the portion of the cold air of the refrigerator compartment 36 is directly supplied to the micro through the microbubble to the cold air supply port 68; the east chamber 14 (refer to arrow A2 of FIG. 6, FIG. 22 201205019 8) to be slightly frozen The chamber 14 is maintained at a temperature lower than that of the refrigerating chamber 3 and the vegetable compartment 4, that is, 〇-c 〜1. Hey. Further, the heat insulating material 38 also serves as an insulating mechanism between the cooler cooler 24 and the mist discharge portion 50. Here, the structure of the water storage container 56 will be described with reference also to Figs. 15 to 17 . Fig. 15 is a perspective view showing a single body of the water storage container 56 as seen from the upper right side of the rear portion. The water storage container 56 has a rectangular container shape, and the front wall portion 56b of the front portion of the bottom wall portion 56a and the upper end portions of the left and right side wall portions 56c and 56d of the right and left side portions are set to be the same. An attachment portion 81 is provided in an upper portion of the front wall portion 56b, and the water storage container 56 is attached to the lower portion 36c of the front portion in the refrigerating cooler chamber 36 via the attachment portion 81 (see the water storage tank 56 in the drainage water compartment 56). The upper portion of the protruding portion 40e of the right front portion of the tube 4 (see FIG. 12) is provided on the front side of the bottom wall portion 56a, and the lower portion 82 is provided lower than the other portions. The rear side of the bottom wall portion 56a is further The lower end portion of the water supply portion 53 of the mist generating unit 51 is inserted into the lowest portion 82 of the water storage container 56 from above (see FIG. 8). The upper surface of the rear end portion side of the wall portion 56a is provided with a left rear sill 83 on the left side so as to be connected to the left side wall portion 56e, and a right rear portion is provided on the right side so as to be connected to the right side wall portion 56d. Wall 84. The left rear wall 83 reaches the vicinity of the center portion in the width direction of the left and right wall portions 56a. The length of the right rear wall 84 is set shorter than the left rear wall 83. The left rear wall 83 is at the right end, integrally provided There is a convex portion 83a that protrudes toward the rear. The convex portion 83a is as shown in Fig. 16 from the bottom wall portion 56. The surface 23 of 2012 is set to the back surface. Further, at the left end portion of the right rear wall portion 84, a convex portion 84a similar to the convex portion 83a is provided from the surface to the back surface of the bottom wall portion 56a. Here, the water storage container 56 is provided. In the rear portion, the drain portion 83a and the convex portion 84a are provided as a drain portion 85 which is a portion which is lower than other portions and is easily drained. On the left side of the bottom wall portion 56a of the drain portion 85, and the convex portion 83a A rib-like convex portion 86 is provided to face the convex portion 83a so as to have a slight gap therebetween. The convex portion 86 is also provided from the surface of the bottom wall portion 56a to the back surface, but the height of the upper side is set to be larger than The convex portion 83a is low. A water passage 87 having a narrow width is formed between the adjacent two convex portions 83a and the convex portion 86. The water passage 87 is formed from the bottom wall portion 56a of the drain portion 85. U-shaped continuous from the front to the back. The width of the water passage 87 is set to about 1 mm to cause capillary action of water. Moreover, 'on the right side of the bottom wall portion 56a in the drain portion 85, to A rib-like convex portion 88 is provided to the convex portion 8 so as to have a slight gap between the portions 84a. The convex portion 88 is also provided from the surface of the bottom wall portion 56a to the back surface, but the height of the upper portion is set to be lower than the convex portion 84a. Between the adjacent two convex portions 84a and the convex portion 88, the same is formed. Further, in the drain portion 85, a water passage forming member 9A is attached between the convex portion 86 and the convex portion 88 at the rear end portion of the bottom wall portion 56a. As shown in FIGS. 17 and 18 (&) and FIG. 18 24 201205019 (b), the water passage forming member 90 has a U-shaped cross section and has a U-shaped water passage 91 inside, and is attached to the bottom wall portion. The rear end portion of the 56a forms a U-shaped water passage 91 continuous from the surface to the back surface of the bottom wall portion 56a of the drain portion 85. The height (depth) of the water passage 91 is set to about 丨 mm to cause a capillary phenomenon of water. The water passage forming member 9 is stopped by the pair of elastic engagement claws 92 provided at the rear end portion of the bottom wall portion 56a. At this time, in the drain portion 85 of the water storage container 56, the two ships in the width direction have a pass tree 87, and the water side 91 is provided in the central portion of the money side (10). Further, on the back surface (lower surface) of the rear end portion side of the bottom wall portion 56a, the front side of each of the water passages 87, 91 is projecting downward with a rib-like projection as shown in Fig. = waters, and is disposed in the drain pipe. In the upper state of the crucible 4, the drain portion 85 of the container 56 is located at the right portion of the row portion 8〇, and the portion of the paper that is in contact with the refrigerating drain pipe 4, that is, the heat-conducting fin is removed, and the end portion is torn. The refrigerating compartment t is the upper part, and the cooling air is cooled by the refrigerating air supply and refrigerating cooler 24 as shown by the hollow arrow in Fig. 1, and the air blowing action is mainly supplied to the refrigerating compartment d as a cold air supply port 39. The conduit 37 is supplied from the micro-small; the east chamber is directly supplied to the micro-second by the cold air supply port 68: 25 201205019 arrow A2). After being supplied into the refrigerating compartment 3 and the micro-chambers μ, 7 is rolled to contribute to the cooling of the stored matter such as food, as shown by the arrow C1 of the above-mentioned: 'flowing out from the ventilation D74.a, 74b to the passage 1 73 'Replenishment in the left direction and the right direction, on the upper side of the chamber 4, the left and right outer surfaces of the casing 12 are supplied to the vegetable = dried, and a part of the cold air in the i-connected fin 14 is as shown by the arrow C2 of the foot communication port 75 of FIG. Pass through the V-catheter 76 and from the vent 77 to the 4th. After being cooled to the vegetable compartment 4 (10), the cold storage of the vegetables is sucked from the suction port 43 to the side of the cold == 35 side, and the refrigeration cooler 24 performs the cycle of = again. For example, the portion of the cold air in the refrigerator compartment 3 and the vegetable compartment 4 cooler chamber 36 is supplied as an arrow A in FIG. 45 inside =, r = L45 straight cold air hits the pipe constituting member 46; i face, thereby forming convection in the fog duct 45 and expanding the table. At this time, when the electrostatic atomizing device 48 is driven, the fog Production = a mist release pin 57 is discharged as described above. The portion of the mist discharged from the mist release pin 57 is shown by the arrow in Fig. 7, and the cold air of the pair is used to blow the gas from the refrigerator. The mist duct 63 and the cold air supply duct 3 are supplied to the refrigerating compartment 3 in the room. ^ 37, and from the cold air supply port and the fog released from the mist release pin 57 - as shown in Figure 26 and Figure 26 201205019 7 arrow B2, from the financial office with a mist blown out of the inside: its plum box It is also supplied from the egg box to the egg 15 by the mist blowing outlet 66. The dish is placed in the vegetable room 4 from the bottom right vegetable to the user outlet 67 through the communication port 75, ν catheter%. Therefore, in the present embodiment, it is possible to supply a plurality of supply targets such as the cold age 3, the financial chamber 14, the egg box 15, and the vegetable compartment* to the mist in the magical duct of the special duct, and it is expected that these supply targets can be excluded. The effect of bacteria or deodorization, and the moisturizing or preservation of vegetables and the like can also be expected. In addition, in the state where the supply of the coolant to the storage cooler 24 is stopped, the defrosting of the cold storage section is driven by the chiller. The air in the (refrigeration chamber 3, the vegetable compartment*, and the microbeam chamber 14) is circulated by the cold air duct 34. When the air in the storage compartment of the refrigerating temperature section is circulated through the cold air duct %, the temperature of the refrigerating material 11 24 becomes a plus temperature, whereby the temperature of the refrigerating cooler 24 rises to perform defrosting. The portion of the defrosted water dripped from the refrigerating cooler 24 at the time of defrosting of the refrigerating cooler 24 is taken up and stored by the water storage container 56 of the electrostatic atomizing device 48, and most of the remaining defrosting water is as described above. After being taken up by the drain pipe 4, it is guided from the drain port 41 to the defrost water evaporating dish 28 and evaporated. Here, the defrosted water received and stored by the water storage container 56 is sucked by the water retaining material 55 of the mist generating unit 51 and supplied to the mist discharge pin 57, and is discharged as mist from the mist discharge pin 57. Therefore, the consumption of the water storage container 56 is sometimes exceeded by the amount of the defrosted water dripping from the refrigerating cooler 24 to the water storage container 56. At this time, in the present embodiment, the water stored in the water storage container 56 is dropped onto the drain pipe 40 as follows. That is, when the rear end portion of the water surface stored in the water storage container 56 reaches the drain portion 85, the water in the water storage container 56 enters the water passage through the capillary phenomenon of the water passage 87 or the water passage 91 formed in the drain portion 85. 87 and 91 are wound from the surface of the drain portion 85 to the back surface by the water passages 87 and 91, and are dropped into the lower row 40 along the projection 93 on the lower surface of the bottom wall portion 56a. At this time, since only the amount of water causing the capillary phenomenon enters each of the water and 87, 9^, the water does not continuously flow out, but the __drop-drop is dripped continuously. At this time, it is preferable to apply a treatment for reducing the surface of the water in the vicinity of the water passages 87 and 91 or a solid aqueous treatment, or to make the water in the water storage container 56 easy to pass through the capillary phenomenon 87, 91. Inside. In order to make the Confucian wetness good, for example, paper can be used to coarsely mash the surface of the member. However, when the water passages 87 and 91' of the present embodiment are not formed in the drain portion 85 and the rear end portion of the bottom wall portion 56a is a simple inclined plate shape or a straight wall, the water storage device is used. When the amount of water stored in 56 increases, it will accumulate due to the surface tension of ^. The amount of water capacity H 56 is greater than or equal to a certain fixed amount '7jC will be - the airflow out of the 'water storage container%
40之間將會瞬間以水相連。 〃 S 28 201205019 此時電源裝置52的負的高電壓經由供電端子 而施加至霧產生單元51時，供電端子61與冷藏用冷卻器 24有可能經由保水材料55内的水、儲水容器56内的水、 從儲水容器56流出的水、附著於排水管4〇的内表面的水 而電性連接’從而對冷藏用冷卻器24施加負的高電壓而導 致冷藏用冷卻器24帶電。 對於此點，在本實施方式中，如上所述，在從排水部 85排出儲水容器56内的水時，水利用毛細管現象通過通 水路87、91而不連續地滴落至排水管4〇，因此能夠確實 地防止儲水容器56與排水管40之間瞬間以水相連，從而 能夠確實地防止靜電霧化裝置48的電源裝置52的負的高 電壓被施加至冷藏用冷卻器24。 並且，此時，在排水管4〇的底壁部4〇a的上表面設有 妨狀的为隔部80，且在分隔部的右側配置著儲水容器 56的排水部85 ’因此能夠借助分隔部8〇來防止從排水部 85排出的水、與順著在排水管4〇中與冷藏用冷卻器％的 導熱鰭片24b接觸的後壁部40b的前表面的水相連。 由此，也能夠防止電源裝置5 2的負的高電壓被施加至 冷藏用冷卻H 24。此時’尤其分隔部⑽為傾斜，因而能 夠防止除霜水附著于成為該傾斜側的下侧的側面8〇d (參 照圖14)，從而能夠防止側面8〇d被水漂濕。 由此，由於可在分隔部80上形成水不會漂濕的部分， 因此該部分對於電性絕緣有效，能夠更確實地防止從排水 部85排出的水、與在排水管40中順著與冷藏用冷卻器％ 29 201205019 的導=片24b接觸的後壁部獅的前表面的水相連。 ===;:可獲得如下所述的作用效果。 水的排水这^ 7部器24的除霜而產生的除霜 施加負^ =及對從靜電霧化装置48的電源裝置52被 用以下社:f的;^進行儲存的儲水容器56的冰箱中，採 分隔^ :田排ί管4〇的底壁部4〇a的上表面設置 容器％的排水來進行分隔’以避免從儲水 霜水相連。。'各的水與來自冷藏用冷卻器24的除 地即使從儲水容器56的排水部85滴落的水連續 卻分隔部8〇來防止該水與來自冷藏用冷 加電料接W㈣止料難冷卻器 ^管40内所設的分隔部8〇的右部8 =Γ5之Γ的端部即右端部24d、與儲水容器56的排 水管^與在排 水相連。 财臧用冷部ϋ 24接觸的 此時，分隔部80從右部80c延伸設 止，因此，利用該分隔部80，在從排水^λ排水口 41為 排水:為止的左右方向較長的範圍内進行前後::右= 排水營40内的流經前部侧的水與流經後部側:水不會匯 201205019 流至排水口 41。 因而’能夠確實地防止從排水部85滴落的水與流經排 水管40的後部側的水相連。 而且，为隔部80為傾斜，因而如前所述，能夠防止除 霜水附著于成為該傾斜側的下側的側面8〇d，從而能夠防 止側面80d被水濡濕。 由此，月b夠在分隔部上形成水不會濡濕的部分，因 此月夠確實地防止從排水部85排丨的水、與在排水管 内順著與冷藏用冷卻器24的導賴片接觸的後 4〇b的前表面的水相連。 +抓用了以下結構：在承接從冷藏用冷卻器24產生的除 相水並加以儲存的儲水容器56的排水部85中，設置 f部85的表面到背面而連續的通水路87、9卜儲水容器 6内=存的水_毛崎現㈣過通树87、μ而不連 續地滴洛至排水管4〇。 点拔7騎構，在具備構成儲水部的儲水容11 56、及構 不連=水管4〇的冰箱中’能夠使水從儲水容器56 允排出的1洛至排水管4〇，所述接水部承接從該儲水容器 的水結構，從儲水容器56的排水部85排出 滴落，因此水不會連續地流出，能夠防止 W防止料相冷卻H 24施加㈣高電壓。 31 201205019 在排水部85中，左側的通水路87是由相鄰的2個凸 -M3a及凸86形成，而且，右側的通水路是由相鄰 的】=部84a及凸部88形成，因此能夠以簡單的結構來 形成U字形的通水路87。 而且，在排水部85 t，中央部的通水路91是通過安 字形的通水路形成構件90而形成，因此仍能夠以 簡早的結構來形成U字形的通水路91。 ^排水部85中’在排水部85的寬度方向的左右兩側 形2通水路87，因此即使儲水容器56是以傾斜的狀態 而女裝’也能夠使至少-個通水路87有效地發揮作用。 靜電霧化裝置48中所用的水是湘了儲水容器％内 儲存的冷藏科卻ϋ 24崎霜水，因此_自動地進行對 儲水容器56的供水，從而能夠省去使用者（用戶）進行供 水的工夫。 ^ 、本實施方式的冷;東冰箱採用了具備冷顧冷卻器Μ 和^用冷卻n 25這2個冷卻^的雙紐^ (evap〇嫩） 方’的冷德環。此處，如本實财錢的獅雙蒸發器 方式的冷_賴冷;東冰箱的冷康科料25的周邊溫 度或單紐||方式的冷;東冰箱的冷卻器的周邊溫度在除 時會因除霜加熱H的加熱而成為正的溫度，但在除霜時以 外會始終保持-20。(：以下的溫度。 ，假設在這些冷卻器的下方設置儲水容器，則即使在々 部器的除霜時儲水容ϋ承接並儲存除霜水，該儲水容器内 的水也緒冰轉錄化。因此，料想會存在難以穩定地 32 201205019 對霧放出部50進行水的供給的問題。 對於此點，在本實施方式中，在具備冷藏用冷卻器％ 和冷凍用冷卻器25這2個冷卻器的雙蒸發器方式的冷^東冰 箱中，採用了將儲水容器56設置在冷藏用冷卻器24方 的結構。 在又蒸發器方式的冷康冰箱中，冷藏用冷卻器24的周 邊^度雖然在該冷藏用冷卻器24的冷卻運轉中會成為負 (rrnmis)溫度’但仍遠高於冷凍用冷卻器25的溫度並且， 冷藏用冷卻H 24的除霜時，會借助冷顧送風風扇％的 空氣循環社歧接近冷藏室3的溫朗说附近為止。 因此°又置在冷藏用冷卻器24下方的儲水容器56内 的水難以結冰，而且，即使結冰也易融化，因而，能夠穩 定地對霧放出部5〇進行水的供給。 靜電霧化裝置48的霧放出部5G是由朝向不同的方向 突出的多個霧放出銷（突部）57所構成。借助該結構，與 霧產生用的突部的突出方向僅為單向的情況不同，可將霧 的供=方向設為多個方向，從而可加寬霧的供給範圍。 霧放出部50通過採用所述霧放出銷（突部）57將供 水4 53的水平部53a夾在中間❿向上下相反方向延伸的結 構從而也可將霧朝向上方與下方的相反方向放出可加 寬霧的供給範圍。 而且[供水部53的水平部53a以及各霧放出銷57是 二與冷氣導管34中的冷藏用冷卻器室36的前部壁3以成 平打的方式而沿著該前部壁36a而配置，由此可實現前後 33 201205019 方向的薄型化。通過將霧放出銷（突部）57配置成上下兩 段’可實現緊湊（comPact)化。 霧放出部5〇通過採用使多個所述霧放出銷（突部）57 排列成列狀而配置的結構’可增多霧的放出量’從而可進 一步加寬霧的供給範圍’而且，可實現薄型化。 採用了下述結構，即，供水部53具有彎曲部53c ’在 彎曲部53c的下方設有儲存水的儲水容器56,可將儲水容 器56中儲存的水供給至所述彎曲部53c 由此，可將儲水 容器56的水經由彎曲部53c而供給至霧放出銷57。 電源裝置52將霧放出部50夾在中間而配置於彎曲部 53c的相反側。由此’可使電源裝置52更加遠離儲水容器 56 ° 而且，通過將電源裝置52以及霧產生單元51以與冷 氣導管34中的冷藏用冷卻器室36的前部壁36a成平行的 方式而沿著該前部壁36a而配置，可實現靜電霧化裝置48 的縱深方向的薄型化。 將靜電霧化裝置48的霧放出部50中的霧放出銷（突 部）57以沿著冷氣導管34的方式而配置。由此，可抑制 靜電霧化裝置48的前後方向的縱深尺寸，從而可實現薄型 化。伴隨於此，可抑製冰箱内容積的減少。 在冷氣導管34的前部’設有向霧用專用導管45内供 給冷氣的霧用冷氣供給口 62，將靜電霧化裝置48的霧放 出部50配置於所述冷氣導管34的前方。 由此，可利用從霧用冷氣供給口 62供給至霧用專用導 34 201205019 管45内的冷卻風，來使從霧放出部50放出的霧飄散到遠 處。 霧用冷氣供給口 62與霧放出部50 (霧放出銷57)以 與相向的位置不同的方式（以不直接相向的方式）而配置 在左右偏離的位置上，因此從霧用冷氣供給口 62供給至霧 用專用導管45内的冷卻風不會直接吹到霧放出部5〇 (霧 放出銷57)。 由此，可使霧放出銷57直接受到來自霧用冷氣供給口 62的冷卻風而乾燥的現象受到抑制。 在冰箱本體1中，包括收容具有霧放出部50的靜電霧 化裝置48的霧用專用導管45，在該霧用專用導管45内， 設有使由霧放出部50所產生的霧的供給目標不同的多個 霧吹出口。 多個霧吹出口具體而έ是指冷藏室用霧吹出Q 6%、 微凍室用霧吹出口 65、蛋盒用霧吹出口 66及蔬菜室用霧 吹出口 67。 由此，可將霧用專用導管45内產生的霧供給至 3、微束室Μ、蛋盒15以及蔬菜室4這4個供給:臧^ 加寬霧的供給，從何擴大霧的效果翻。-’可 霧的供給目標中的微凍室14、蛋盒15 ^別具有微&18、蛋盒15、蔬菜盒（下部盒f ” 盒12)，可將霧良好地供給至這些盒内。 上部 此時，多個霧吹出口（冷藏霧吹出口 至用霧吹出口 65、蛋盒用霧吹屮π « a微凍 務人出口 66和蔬菜室用霧吹出 35 201205019 口^7)疋配置在以霧放出部50為中心的周圍，因此，可 將從霧放出部50放出的霧良好地供給至各霧吹出口。 λ霧產生單元51具有霧放出銷（突部）57,霧用專用導 ΐ 45的夕個霧吹出口（冷藏室用霧吹出口 63a、微凍室用 ，吹出口 65、蛋盒用霧吹出口 66和蔬菜室用霧吹出口 67) 是配置在跟與霧放出銷57相向的位置不_位置（不直接 相向的位置）上’因此’即使萬一有手指或異物從霧吹出 口插入霧用專用導管45内’也能防止他們直接接觸霧放出 銷57 ’從而可確保安全性。 而且，由於形成霧用專用導管45的導管構成構件46 為可裝卸，因此可容易地進行霧產生單元51等的保養 (maintenance) ° (第2實施方式） 圖19表示第2實施方式。該第2實施 與上述的第1實施方式不同。即， 大面 部95取似在第1實施方式二中的分隔 ΛΑ U V 、叼徘水管40中的底壁部40a 的上表面^構，分M 95是在冷藏料卻H 24的下方， 且在排水管40 t的與冷藏用冷卻器24接觸的壁即後壁部 40b的前表面’以向前方突―方式而1地設在後壁部 40b 上0 從前方觀察沿左右 該分隔部95呈朝向前下的屋筹狀， 方向延伸。 根據此種結構，在冷藏用冷卻器24的除霜時，合冷藏 用冷卻器24 #除霜水順著後壁部働㈣前表面而滴γ時， 36 201205019 表= 4;/ ®而二、該背面95b相向的後壁部4〇b的前 表面40g，I而料面95b以及前表面 因此，該分隔部95也能進行分隔，以避免從儲水容;| 56的排水部85滴落的水與來自冷藏用冷卻器24 相連，因而即使對儲水容!！ 56 7 Μ職霜水 厭「 内儲存的水施加負的高電 ’也此，止:電麗被施加至冷藏用冷卻器％，從而能 夠防止冷藏用冷卻器24帶負電。 (第3實施方式） 圖20以及圖21表示第3實施方式。該第3實施方式 上述的第2實施方式不同。即，分隔部％ 疋^#水官40的後壁部勸的前表面，位於冷藏用冷卻器 24的下方而設，以承接冷藏用冷卻器24的除霜水。 ★該分隔部％ α承接除了冷藏用冷卻器μ中的冷卻劑 ，24a右方的端部24e以外的部分的範圍的除霜水的方 式，而设定左右方向以及前後方向的大小。 ▲並且，在該分隔部96的底部壁上，設有排水口 97， 該排水口 97從上方插入排水管40的排水口 41内。此時， 排水管40的排水口 41與分隔部％的排 下垂狀態。 均形成為 ^軌種結構，從冷顧冷卻器24產生的除霜水中的 I八=劑管24&右方的端部24C以外的幾乎所有除霜水 ^ y %承接，並從排水口 97以及排水口 41排出至機 械至26的除霜水蒸發皿28。 37 201205019 π 該刀隔部96也能進行分隔，以避免從儲水容器 即蚀二水與來自冷藏用冷卻器24赚霜水相連，因而 水容器56内儲存的錢加㈣高電壓，也能夠防 =壓被施加至冷藏用冷卻器24,從而能夠防止冷藏用 冷卻器24帶負電。 (第4實施方式） 圖22表示第4實施方式。該第*實施方式在以下方面 ”上述的第1實施方式不同。即，在排水管仙的底壁部 40a上，設有位於冷藏用冷卻器24下方的第丨排水口 ι〇〇 以及位於儲水容器56下方的第2排水口 1〇1。 並且，在底壁部40a的上表面，位於冷藏用冷卻器24 的導熱鰭片24b的右端部24d與儲水容器56之間設有向上 方突出的筋狀的分隔部1〇2。 在底壁部40a上’分隔部1〇2的左側朝向第i排水口 100而下降傾斜’分隔部1〇2的右侧朝向第2排水口 1〇1 而下降傾斜。 根據此種結構，從冷朗冷卻H Μ產生的除霜水中的 除了冷卻劑管24a右方的端部24e以外的幾乎所有除霜水 在排水管40中由分隔部1〇2的左側所承接並從第1排水口 100排出至冰箱外。 從冷卻劑管24a右方的端部24c滴落的除霜水主要由 儲水容器56所承接並儲存，剩餘部分則在排水管4〇中由 分隔部102的右側所承接並從第2排水口 1〇1排出至冰箱 外。 38 201205019 仗儲水谷器56滴落的水在排走其 的右側所承接並從第2排水口 1〇1排& ^隔部102 無論是通過第1排水σ觸的水 過相* °另外， 的水均排出至機械室爾霜水ΐ=82。排水口101 因此，此時的分隔部102也能 水容器56滴落的水與來自冷 以避免讀 連，因而即使對儲水容器㈣24的除霜水相 也能夠防μ電驗絲至顿;加貞的高電^ 止冷藏用冷卻器24帶負電。 ^ 24從而月b夠防 (第5實施方式） 與上=3第表^第施5/^方rf。該第5實施方式在以下方面 獅的下部，形成有向後方（圖23在中中，後壁部 的二前= 5又有向則方突出的分隔部1〇6。 上體地 根據此種結構，在排水管 ==霜:=:=，底； 的分隔部1。6 ’因此該分隔向别方突出 儲水容器56滴落·Μ ώ 將進仃刀以避免從 連，因而即使對儲水容器冷藏用冷卻器24的除霜水相 也能夠防止高雷内儲存的水施㈣的高電壓， 止冷藏用冷卻器^負0電至冷藏用冷卻器24,從而能夠防 作為儲水部，只有能對用於霧化裝置的儲存的水施加 39 201205019 電壓，則並不限於靜電霧化裝置48的儲水容器 ST是在使用超聲波振動元件來進行霧化時所二St 只要視需要來設置即可， 儲水容器56的通水路87、91 也可不設置。 划上所述很课不貫施万式，在具備承接因 除霜而產生的除霜水的管、及儲存被施加輯的水的儲水 部的冰箱中，採用了在所述管中設置分隔部的結構，該分 隔部進行分隔，以避免⑽水部滴落的水與來自冷卻器的 除霜水相連。由此，即使從儲水部滴落的水連續地流下， 也能夠利用該分隔部來防止該水與來自冷卻器的除霜水電 性連接，從而能夠防止電壓被施加至冷卻器。 (第6實施方式） 圖24及圖25表示第6實施方式。該第6實施方式與 上述第1實施方式的不同之處在於，在冷藏用冷卻器24 的冷卻劑管24a内具備用於收集除霜水的集水部。 即’如圖24及圖25所示’上述的冷藏用冷卻器24 採用以下結構’即，使構成冷;東循環的冷卻劑管24a沿上 下方向而呈蛇行狀通過多片導熱鰭片24b，且將如此般沿 上下方向呈蛇行狀通過的冷卻劑管24a沿著前後方向而並 列設置成多列（2列），所述多片導熱鰭片24b是沿著相對 於冷氣導管34所延伸的方向（圖1中的上下方向）大致正 交的方向（冰箱本體1的左右方向）而排列。 流經冷氣導管34内的空氣通過構成冷藏用冷卻器24 201205019 的多片導熱鰭片24b間，從而經冷藏用冷卻器24冷卻。 儲水容器56配置於冷藏用冷卻器24的下方且從下方 與冷藏用冷卻器24的前側的第丨列冷卻劑管24a相向的位 置處。另外，冷凍用冷卻器25也與冷藏用冷卻器24同樣 地’採用使冷卻劑管通過多片導熱鰭片的結構。 在儲水容器56的後部側的前端部的上部，形成有設定 為比其他部分低的溢水部156a，當儲水容器56内儲存的 水溢出時，將從溢水部156a溢出。儲水容器允位於排水 & 40的上方，從溢水部15如溢出的水由排水管仙所承接。 並且，在冷卻劑管24a的一部分（冷藏用冷卻器24 的前側的帛丨列冷卻肺69) ±，絲著例如由聚丙烯 (polypropylene)等的樹脂材料構成的多個（3個）集水環 (rmg) 171 (相當於集水部）。集水環17 所貫穿的環狀的構件。 這些集水環171主要具有作為順著 霜水的控水部的魏。料，集树171 結構’例如也可由_或c環構I 丨咖衣狀的 容器％是與集水環171隔開，在儲水容器 呆有規定距離(例如空間距離為2〇 mm以上，/。面距離為3G _以上）以 如此，在冷卻劑管24a的一部分上距離。 因此可使除霜水轉于集水環171 滴落。 |攸果水％ 171集中地 因而，在為了確保電性絕緣距離而減小儲水容器56 201205019 的尺寸的結構中，可使除霜水效率良好地滴落至該儲水容 器56,從而可充分確保儲水容器56内的除霜水的儲水量， 進而可充分確保對靜電霧化裝置48的除霜水的供給量。 而且，由於儲水容器56是與集水環pi隔開，因此可 維持與施加高電壓的霧放出部50相連的儲水容器56與使 用者可觸及的外箱2a (有可能紐連接於外箱2a的冷藏 用冷卻器24)電性絕緣的狀態。 (第7實施方式） 圖26表示第7實施方式。該第7實施方式的集水部的 結構與上述第6實施方式不同。 即，集水板181 (相當於集水部）是由樹脂材料（例 如聚丙烯）構成的一塊板狀的構件，在其上部具有2個c ，部181a ^這些C環部181a分別嵌入至冷卻劑管2乜的 一部分（在冷藏用冷卻器24的下部向前後方向翻折的部 分）。 而且，集水板181在其下部具有傾斜部181ϊ^該傾斜 部181b從後部朝向前部，逐漸向下方傾斜。儲水容器％ 從下方與集水板181的傾斜部181b的最下端部相向。 另外，儲水容器56是與集水板181隔開，在儲水容器 56與集水板181之間確保有規定距離（此時，空間距離為 2〇mm以上，沿面距離為30 mm以上）以作為電性絕緣距 離。 根據具備此種集水板181的結構，不僅可從冷藏用冷 卻器24的前侧的第i列冷卻劑管24a，也可從冷藏用冷^ 42 201205019 器24的後側的第2列的冷卻劑管24a收集除霜水，並使該 除霜水從集水板181的最下端部集中地滴落。 μ 因而’在為了確保電性絕緣距離而減小儲水容器56 的尺寸的結構中，可使除霜水效率良好地滴落至該儲水容 器56,從而可充分確保儲水容器56内的除霜水的儲水量， 進而可充分確保對靜電霧化裝置48的除霜水的供給量。 (第8實施方式） 圖27表示第8實施方式。該第8實施方式的儲水部的 結構與上述第1實施方式不同。 即，取代上述儲水容器56的儲水容器191 (相當於儲 水部）是由樹脂材料（例如聚丙烯）構成。在該儲水容器 上，一體地設有支撐框部192，進而，在該支撐框部 192上’ 一體地設有集水管部193。 這些支撐框部192及集水管部193也是由樹脂材料（聚 :烯）構成。該集水管部193具有沿大致前後方向延伸的 接水槽部1咖以及沿大致上下方岐伸的祕槽部·。 ，水槽部193a是在冷卻劑管24a的一部分（在冷藏用 〉卻=24的下部向前後方向翻折的部分）的下部，從後部 月向剷部逐漸向下方傾斜的槽狀的部分。 八滴$槽部193b是從接水槽部193a相連的槽狀的部 二其刚端部（下端部）一方面逐漸變細一方面朝向 各器191。 扣另外，儲水容器191是與集水管部193隔開，在儲水 令器191與集水官部193(尤其是滴落槽部⑼㈣前端部） 43 201205019 之間’確保有規定距離（空間距離為2〇imn以上，沿面距 離為^omm以上）以作為電性絕緣距離。而且，集水管部 193疋與冷藏用冷卻器24及冷卻劑管24a隔開。 、"根據具備此種集水管部193的結構，不僅可從冷藏用 ，部器24的前側的第1列冷卻劑管24a，也可從冷藏用冷 P器24的後側的第2列冷卻劑管24a收集除霜水，並使該 除霜水從集水管部193的最下端部（滴落辦193b的前端 部）集中地滴落。 因而’在為了確保電性絕緣距離而減小儲水容器191 =尺寸的結構中，可使除霜水效率良好地滴落至該儲水容 =，從而可充分確保儲水容器191内的除霜水的儲水 里，進而可充分確保對靜電霧化裝置48的除霜水的供給 量。 ' 而且，由於採用了將集水管部193 -體地設于儲水容 器191的結構，因此能夠精度良好地確保儲水容器191與 集水管部193 (尤其是滴落槽部i93b的前端部）的電性絕 緣距離。 ' (第9實施方式） 圖28表示第8實施方式。該第8實施方式的集水部的 結構與上述第6實施方式不同。 即，集水板200 (相當於集水部）是由樹脂材料（例 如聚丙烯）構成的一塊板狀的構件，其底端部（圖28中的 右端部）固定於内箱2b，其前端部（圖28中的左端部） 成為連結部200a。 44 201205019 該連結部2GG禮人至冷卻啦24a的—部分（在冷藏 用冷卻器24的下部向前後方向翻折的部分中的後側的部 分）。 而且，在集水板200的下部，設有多段（上下兩段） 集水管板201a、2〇ib。這些集水管板2〇la、聽分別形 成為板狀，且朝向儲水容器56而向下方傾斜。 夕 下段的集水管20ib形成為長於上段的集水管板 201a。並且，下段的集水管板2〇比的前端部是與儲水容器 56隔開。 、根據具備此種集水板2〇〇及集水管板2〇la、2〇lb的構 尤其可將來自冷藏用冷卻器24的後側的第2列冷卻劑 官24a的除霜水經由集水板2〇〇及集水管板2心、加化 而收集至儲水容器56。 因而在為了確保電性絕緣距離而減小儲水容器％ 的尺寸，結構中’可使除霜水效率良好地滴落至該儲水容 器56伙而可充分確保儲水容器56内的除霜水的儲水量， 進而可充分確保對靜電霧化裝置48的除霜水的供給量。 而且，由於將集水管板2〇la、2〇lb設置為多段，因此 難以在這些集水管板201a、遍間形成水膜，從而能夠確 保冷藏用冷卻器24與儲水容器56的電性絕緣狀態。 另^卜，集水管板並不限於上下兩段，例如也可構成為 上下二&、四段衫段。^且，集水管板可形成為越往上 段越大，越往下段越小。 由此從上段的集水管板滴落的水難以與下段的集水 45 201205019 ί板ΐ的.水相連，能夠進-步避免在集水管板間形成水 、4而此夠確保冷藏用冷卻器24與儲水容器56的電性 絕緣狀態。 (第10實施方式） 圖29表示第10實施方式。該第1〇實施方式中，構成 霧產生裝置的靜鶴化裝置⑽中的赫生單元111的結 構與上述第1實施方式不同。 霧產生單7C 111具備霧放出部112以及對該霧放出部 112供給水分的供水部113。供水部113具有從正面觀察呈 圓形的圓形部ll3a、以及從該_部U3a向下方延伸的 垂直部113b’且是將由與上述保水材料:55 (參照第i實施 方式）同樣的材料構成的保水材料115收納至盒ιΐ4内而 構成。 垂直部113b的下端部貫穿導管構成構件^的下部以 及冷藏用冷卻器室36的前部的段部36b(參關8)，並從 上方插入冷藏用冷卻器室36内所設的儲水容器％内。 ，水部113中的圓形部113a以及垂直部心以與& 氣導管34中的冷藏用冷卻器室36的前部壁3如成平 方式沿著前部壁36a而配置。 霧放出部112是由分別構成突部的多根霧放出銷^ 所構成。霧放出銷57呈放射狀地設在圓形部U3a 部。 因此’霧放出部112是由朝向不同的方向突出的多個 霧放出銷57 (突部）所構成。各霧放出銷57的底端部貫 46 201205019 穿盒114而與保水材料115接觸。 各霧放出銷57也是以與冷氣導 『的前部壁36a成平行的方式沿著二 =2 突出的圓形部_的左部，設椒 出的犬出°卩U3e，在該突出部113e上，以向左突出的 狀態而設有受電銷58。兮夸雷础 出的 的供電端子61。又電銷58連接於電源裝置52側 在此^構中，儲水容器56内儲存的水由保水材料115 通過毛細f現象而吸取，並供給至各霧放出銷57。而且， 來自電源裝置52的負的高電壓從受電銷58經由保水材料 115的水分而施加至各霧放出銷57，基於此，從各霧放出 鎖57放出微細的霧。 從各霧放出銷57放出的霧是與第丨實施方式同樣地， 從多個霧吹出口（冷藏室用霧吹出口 63a、微凍室用霧吹 出口 65蛋盈用霧吹出口 66和蔬菜室用霧吹出口 67 )供 給至冷藏室3、微凍室14、蛋盒15以及蔬菜室4等多個供 給目標。 而且，由於霧放出銷57是呈放射狀配置，因此與第j 貫施方式的情況相比，具有能夠向更多的方向放出霧的優 Ψί 〇 (第Π實施方式） 圖30以及圖31表示第11實施方式。該第Η實施方 式中’儲水容器56中的排水部以及通水路的結構與第i 47 201205019 實施方式不同。 在儲水容器56中的底壁部56a的後部側，未設置第1 實施方式（參照圖15)中的左後部壁83、凸部83a、凸部 86、右後部壁84、凸部84a、凸部88、通水路形成構件9〇 以及一對彈性卡合爪92，底壁部56a的後部呈朝向斜後上 方的平板狀。 在該底壁部56a的後端部，將左側壁部56c與右侧壁 部56d之間作為排水部195。並且’在成為排水部195的 寬度方向的兩侧的底壁部56a的後端部的左右兩侧，設有 由凹狀的槽構成的通水路196。 該通水路196也呈從底壁部56a的表面到背面而連續 的U字形。通水路196的寬度尺寸以及深度尺寸被設定為 約1 mm ’以引起水的毛細管現象。 在此結構中，當儲水容器56内儲存的水流出時，該水 利用毛細管現象通過通水路196而從底壁部56&的表面繞 到背面，從下表面的突部93不連續地滴落，並由所述排水 管40承接。在此種結構中’基本上也能夠獲得與第1實施 方式同樣的作用效果。 尤其’此時，排水部195的寬度比第1實施方式的排 水部85的寬度更寬，但由於在排水部195的寬度方向的兩 侧設有通水路196,因此即使儲水容器56成為向左右方向 猶傾斜的狀態，也能夠使通水路196有效地發揮作用。 該第11實施方式的通水路196是由凹狀的槽所構成， 因此能夠以更簡單的結構來形成U字形的通水路196。 48 201205019 如上所述’根據本實施方式，通過採用下述結構，即， 在儲水部的排水部中，設有從排水部的表面射面而連續 ，通水路’儲水勒儲存的水毛細管現象通過所述通 7路而不連續地滴落至接水部’從而在具備儲水部、以及 二接從該儲水部排㈣水的排水管（接水部）的冰箱中， 此夠使水從财部不_地滴落至排水管（接水部）。 以上所述，僅是本發明的較佳實施例而已，並非對本 ，明作任何形式上的限制，賴本發明已讀佳實施例揭 如上’然而並義以限定本發明，任何熟悉本專業的技 術人員’在不脫離本發明技術方·_，當可利用上述 揭，的結構及技術内容作出些許的更動或修飾為等同變化 的等效實補’但是凡是未麟本發賴術方案的内容， 依據本發明的技術實質對以上實闕所作的任何簡單修 改、等同變化與修飾’均仍屬於本發明技術方案的範圍. 雖然本發明已以較佳實施例揭露如上，然其並非用以 限定本發明’任何熟f此技藝者，在獨縣發明之 ，範圍内’當可作些許之更動與潤飾，因此本發明之二 範圍當視後附之申請專利範圍所界定者為準。 【圖式簡單說明】 圖1是表示第！實施方式的冰箱整體的概 剖侧面圖。 餅〜观 圖2是以除去門或摘板等的狀態來表示的冰箱本體的 正面圖。 圖3是微凍室附近的概略的立體圖。 49 201205019 圖4是霧用專用導管肩邊的放大正面圖。 圖5是沿著圖4中的X卜XI線的橫剖平面圖。 圖6是沿著圖4中的Χ2*·Χ2線的縱剖侧面圖。 圖7是沿著圖4中的X3-X3線的縱剖側面圖。 圖8是沿著圖4中的Χ4-χ4線的縱剖側面圖。 圖9是冷藏室的下部（微束室）以及蔬菜室附近的縱 剖正面圖。 圖10是沿著圖9中的Χ5_Χ5線的縱剖側面圖。 圖11是靜電霧化裝窠部分的縱剖正面圖。 圖12是冷藏用冷卻器、儲水容器以及排水管部分的平 面圖。 圖13是排水管的立艚圖。 圖14是沿著圖13中的Χ6·Χ6線的放大縱剖侧面圖。 圖15是儲水容器的；體圖。 圖16是沿著圖15中的Χ7_Χ7線的縱剖側面圖。 圖17是沿著圖15中的Χ8_Χ8線的縱剖側面圖。 圖18 (a)、圖18 (b)是表示通水路形成構件的圖， 圖18 (a)是正面圖，圖18 (b)是右侧面圖。 圖19是第2實施方式的主要部分的縱剖側面圖。 圖20是第3實施方式的主要部分的縱剖正面圖。 圖21是主要部分的縱剖側面圖。 圖22是第4實施方式的相當於圖20的圖。 圖23是第5實施方式的相當於圖19的圖。 圖24是概略絲示第6實施方式的冷卻器及其周邊部 50 201205019 分的正面圖。 圖25是表示第6實施方式的冷卻器及其周邊部分的立 體圖。 圖26是第7實施方式的相當於圖8的圖。 圖27是表示第8實施方式的冷卻器及其周邊部分的立 體圖。 圖28是第9實施方式的相當於圖8的圖。 圖29是第10實施方式的相當於圖11的圖。 圖30是第11實施方式的相當於圖15的圖。 圖31是沿著圖30中的X9-X9線的放大縱剖側面圖。 【主要元件符號說明】 1 :冰箱本體 2 :隔熱箱體 2a :外箱 2b :内箱 2c、38 .隔熱材料 3 :冷藏室 3a、4a、5a、7a :隔熱門 4 :蔬菜室 5 :製冰室 6 :小冷凍室 7 :冷凍室 8:自動製冰裝置 8a :製冰盒 51 201205019 ίο :分隔壁 11 :下部盒 12 :上部盒 13 :搁板 14 :微凍室 15 :蛋盒 16 :小物盒 17 :儲水箱 18 :微凍盒 18a :前表面壁 18b :切口部 19 :隔熱分隔壁 20:儲冰容器 22 :儲藏容器 24 :冷藏用冷卻器（冷卻器） 24a :冷卻劑管 24b :導熱鰭片 24c :端部 24d:右端部（在冷卻器中與管接觸的部分的儲水部侧 的端部） 25 :冷凍用冷卻器 26 :機械室 27 :壓縮機 28 :除霜水蒸發m 52 201205019 29 :控制裝置 30 :冷卻器室 30a :冷氣吹出口 30b :返回口 31 :冷凍用送風風扇 32 :排水管 34 :冷氣導管 35 :冷藏用送風風扇 36 :冷藏用冷卻器室 36a :前部壁 36b :段部 36c :下部 37 :冷氣供給導管 39 :冷氣供給口 40 :排水管（管） 40a :底部壁 40b :後壁部 40c :側壁部 40d :前壁部 40e、113c :突出部 40f:支撐部 40g、105a :前表面 41、97 :排水口 42 :送風導管 53 201205019 43 :吸入口 45 :霧用專用導管 46 :導管構成構件 48、110 :靜電霧化裝置 50、 112 :霧放出部 51、 111 :霧產生單元 52 :電源裝置（變壓器） 53 :供水部 53a :水平部 53b、113b :垂直部 53c :彎曲部 54、 114 :盒 55、 115 :保水材料 56、 191 :儲水容器（儲水部） 56a :底壁部 56b :前壁部 56c :左侧壁部 56d :右側壁部 57 :霧放出銷 58 :受電銷 60 :導線 61 :供電端子 62 :霧用冷氣供給口 63 :面向冷藏室的霧用導管 54 201205019 63a :冷藏室用霧吹出口 65 :微凍室用霧吹出口 66 :蛋盒用霧吹出口 67 :蔬菜室用霧吹出口 68 :微凍室用冷氣供給口 69 :冷卻劑管 70 :載置板 71a、71b :分隔板 72 :保鮮蓋 73 :通氣路 74a、74b、77 :通氣口 75 :連通口 76 : V導管 80、95、96、102、103、106 :分隔部 80a .右端部 80b :左端部 80c :右部 80d :側面 81 :安裝部 82 :最低部 83 :左後部壁 83a、84a、86、88 ·•凸部 84 :右後部壁 85、195 :排水部 55 201205019 87、91、196 :通水路 90 :通水路形成構件 92 :彈性卡合爪 93 :突部 95a :表面 95b :背面 100 :第1排水口 101 :第2排水口 105 :凹部 113a :圓形部 156a :溢水部 171 :集水環（集水部） 181、200 :集水板（集水部） 181a : C環部 181b ··傾斜部 192 :支撐框部 193 :集水管部 193a :接水槽部 193b :滴落槽部 200a :連結部 201a、201b :集水管板 A卜 A2、Bl、B2、B3、Cl、C2 :箭頭 5640 will be connected by water in an instant. 〃 S 28 201205019 When the negative high voltage of the power supply device 52 is applied to the mist generating unit 51 via the power supply terminal, the power supply terminal 61 and the refrigerating cooler 24 may pass through the water in the water retaining material 55 or the inside of the water storage container 56. The water, the water flowing out from the water storage container 56, and the water adhering to the inner surface of the drain pipe 4 are electrically connected, and a negative high voltage is applied to the refrigerating cooler 24 to cause the refrigerating cooler 24 to be charged. In this regard, in the present embodiment, as described above, when the water in the water storage container 56 is discharged from the drain portion 85, the water is dripped continuously to the drain pipe 4 through the water passages 87, 91 by the capillary phenomenon. Therefore, it is possible to reliably prevent the water storage container 56 and the drain pipe 40 from being instantaneously connected to each other by water, and it is possible to reliably prevent the negative high voltage of the power source device 52 of the electrostatic atomization device 48 from being applied to the refrigerating cooler 24. Further, at this time, the partition portion 80 is provided on the upper surface of the bottom wall portion 4a of the drain pipe 4A, and the drain portion 85' of the water storage container 56 is disposed on the right side of the partition portion. The partition portion 8 prevents the water discharged from the drain portion 85 from being connected to the water on the front surface of the rear wall portion 40b that is in contact with the heat transfer fins 24b of the refrigerating cooler % in the drain pipe 4'. Thereby, it is also possible to prevent the negative high voltage of the power supply device 52 from being applied to the cooling cooling H 24 . At this time, the special partition portion (10) is inclined, so that the defrosted water can be prevented from adhering to the side surface 8〇d which is the lower side of the inclined side (refer to Fig. 14), so that the side surface 8〇d can be prevented from being wetted by water. Thereby, since the portion where the water does not wet can be formed on the partition portion 80, the portion is effective for electrical insulation, and the water discharged from the drain portion 85 can be more reliably prevented from following the drain pipe 40. The refrigerating cooler % 29 201205019 is connected to the water on the front surface of the rear wall portion of the rear wall portion of the lion. ===;: The effects as described below can be obtained. The defrosting of the water damper is applied to the defrosting device, and the power supply device 52 of the electrostatic atomizing device 48 is used to store the water storage container 56. In the refrigerator, the upper surface of the bottom wall portion 4〇a of the 排 ί ί 〇 设置 设置 设置 设置 设置 设置 设置 设置 设置 设置 设置 设置 设置 设置 设置 设置 容器 容器 容器 容器 。 。 。 。 。 。 。 。 . The water in each of the water and the refrigerating cooler 24 is continuously separated from the drain portion 85 of the water storage container 56 by the partition portion 8 to prevent the water from being connected to the cold charging material for refrigerating (4). The right portion 8 of the partition portion 8 that is provided in the refractory tube 40 is the right end portion 24d which is the end portion of the Γ5, and the drain pipe of the water storage container 56 is connected to the drain. At this time, the partition portion 80 is extended from the right portion 80c. Therefore, the partition portion 80 is long in the horizontal direction from the drain hole λ drain port 41 to the drain: Before and after the inside:: Right = The water flowing through the front side in the drainage squad 40 flows through the rear side: the water does not flow 201205019 to the drain 41. Therefore, it is possible to reliably prevent the water dripping from the drain portion 85 from being connected to the water flowing through the rear side of the drain pipe 40. Further, since the partition portion 80 is inclined, it is possible to prevent the defrost water from adhering to the lower side surface 8〇d on the inclined side as described above, and it is possible to prevent the side surface 80d from being wetted by the water. Thereby, the month b is sufficient to form a portion where the water does not get wet on the partition portion, so that it is possible to surely prevent the water discharged from the drain portion 85 from coming into contact with the guide piece of the refrigerating cooler 24 in the drain pipe. The water on the front surface of the rear 4〇b is connected. + The following structure is adopted: in the drain portion 85 of the water storage container 56 that receives the phase water and is stored from the refrigerating cooler 24, the water passages 87 and 9 are provided from the surface of the f portion 85 to the back surface. Bu water storage container 6 = stored water _ Maosaki now (four) through the tree 87, μ not continuously drip to the drain pipe 4 〇. In the refrigerator having the water storage capacity 11 56 constituting the water storage portion and the non-connecting water pipe 4 ', the water can be discharged from the water storage container 56 to the drain pipe 4〇. The water receiving portion receives the water structure from the water storage container, and discharges the water from the drain portion 85 of the water storage container 56. Therefore, the water does not continuously flow out, and it is possible to prevent the application of the material phase cooling H24 from applying the (four) high voltage. 31 201205019 In the drain portion 85, the water passage 87 on the left side is formed by two adjacent convex-M3a and convex 86, and the water passage on the right side is formed by the adjacent|vertical portion 84a and the convex portion 88. The U-shaped water passage 87 can be formed with a simple structure. Further, in the drain portion 85 t, the water passage 91 at the center portion is formed by the U-shaped water passage forming member 90. Therefore, the U-shaped water passage 91 can be formed in a simple structure. In the drain portion 85, the water passage 87 is formed in the left and right sides of the drain portion 85 in the width direction. Therefore, even if the water storage container 56 is in an inclined state, the at least one water passage 87 can be effectively exerted. effect. The water used in the electrostatic atomizing device 48 is a cold-storage water stored in the storage container of %, so that the water supply to the water storage container 56 is automatically performed, so that the user (user) can be omitted. The time for water supply. ^, The cold of this embodiment; the East refrigerator adopts a cold ring that has a cooling element 冷 and a cooling double n ^ (evap〇) side. Here, as the real money, the lion double evaporator method of cold _ Lai cold; the East refrigerator's cold Kangke material 25 peripheral temperature or single button | | way cold; East refrigerator cooler peripheral temperature in addition It will become a positive temperature due to the heating of the defrosting heating H, but will always be maintained at -20 except during defrosting. (: The following temperature. Assuming that a water storage container is provided below these coolers, even if the water storage capacity receives and stores the defrost water during the defrosting of the crotch, the water in the water storage container is transcribed into ice. Therefore, there is a problem that it is difficult to stably supply water to the mist discharge unit 50 in 201205019. In this regard, in the present embodiment, two cooling units including the refrigerating cooler % and the freezing cooler 25 are provided. In the double-evaporator type refrigerator of the double evaporator type, the water storage container 56 is installed in the refrigeration cooler 24. In the evaporator type refrigerator, the periphery of the refrigerator cooler 24 Although it is a negative (rrnmis temperature) in the cooling operation of the refrigerating cooler 24, it is still much higher than the temperature of the refrigerating cooler 25, and when the defrosting of the refrigerating cooling H 24 is performed, the cold air is supplied by the cold. The air circulation of the fan is close to the vicinity of the temperature of the refrigerating compartment 3. Therefore, the water placed in the water storage container 56 below the refrigerating cooler 24 is hard to freeze, and is easily melted even if it is frozen. Thus, able The mist discharge portion 5G is stably supplied to the mist discharge portion 5A. The mist discharge portion 5G of the electrostatic atomization device 48 is composed of a plurality of mist discharge pins (projections) 57 that protrude in different directions. In the case where the protruding direction of the projection is only one-way, the supply direction of the mist can be set to a plurality of directions, and the supply range of the mist can be widened. The mist discharge portion 50 adopts the mist discharge pin ( The protrusion 57 has a structure in which the horizontal portion 53a of the water supply 4 53 is sandwiched in the middle ❿ in the opposite direction, and the mist can be made to widen the supply direction of the widened mist in the opposite direction to the upper side and the lower side. The horizontal portion 53a and each of the mist discharge pins 57 are disposed along the front wall 36a so as to be flush with the front wall 3 of the refrigerating cooler chamber 36 in the cold air duct 34, thereby enabling front and rear 33. 201205019 The thickness is reduced in thickness. The mist release pin (protrusion) 57 is arranged in two upper and lower sections to achieve compactness. The mist discharge portion 5 is configured to release a plurality of the mist discharge pins (protrusions) 57. a knot arranged in a row 'The amount of mist can be increased, so that the supply range of the mist can be further widened'. Further, the thickness can be reduced. The water supply unit 53 has a curved portion 53c' which is stored under the curved portion 53c. The water storage container 56 can supply the water stored in the water storage container 56 to the curved portion 53c. Thereby, the water of the water storage container 56 can be supplied to the mist discharge pin 57 via the curved portion 53c. The mist discharge portion 50 is interposed therebetween and disposed on the opposite side of the curved portion 53c. Thus, the power supply device 52 can be further moved away from the water storage container 56°, and the power supply device 52 and the mist generating unit 51 can be connected to the cold air conduit 34. The front wall 36a of the refrigerating cooler chamber 36 is disposed in parallel with the front wall 36a, and the electrostatic atomization device 48 can be made thinner in the depth direction. The mist discharge pin (protrusion) 57 in the mist discharge portion 50 of the electrostatic atomizing device 48 is disposed along the cold air duct 34. Thereby, the depth dimension of the electrostatic atomization device 48 in the front-rear direction can be suppressed, and the thickness can be reduced. Along with this, the reduction in the internal volume of the refrigerator can be suppressed. In the front portion of the cold air duct 34, a cold air supply port 62 for supplying cold air into the special duct 45 for mist is provided, and the mist discharge portion 50 of the electrostatic atomizing device 48 is disposed in front of the cold air duct 34. Thereby, the cooling air supplied from the mist cold air supply port 62 to the mist guide 34 201205019 tube 45 can be used to disperse the mist discharged from the mist discharge unit 50 to a distant place. The mist cooling air supply port 62 and the mist releasing portion 50 (the mist releasing pin 57) are disposed at positions shifted to the left and right so as not to face each other in a direction different from the opposing position. Therefore, the cold air supply port 62 for fogging is provided. The cooling air supplied into the special duct 45 for fog is not directly blown to the mist discharge unit 5 (the mist discharge pin 57). Thereby, the phenomenon that the mist discharge pin 57 is directly dried by the cooling air from the mist cold air supply port 62 can be suppressed. The refrigerator main body 1 includes a special duct 45 for mist that houses the electrostatic atomizing device 48 having the mist releasing portion 50, and a supply target for the mist generated by the mist releasing portion 50 is provided in the special duct 45 for mist. Different multiple mist blowing outlets. Specifically, the plurality of mist blowing ports are referred to as a mist blowing Q 6% in the refrigerator compartment, a mist blowing outlet 65 for the freezing chamber, a mist blowing outlet 66 for the egg box, and a mist blowing outlet 67 for the vegetable compartment. Thereby, the mist generated in the special duct 45 for mist can be supplied to the four supplies of the three, the microbeam chamber, the egg box 15, and the vegetable compartment 4: 臧^ widening the supply of the mist, and the effect of expanding the mist . - 'The micro-freezing chamber 14 in the foggy supply target, the egg box 15 ^ have the micro & 18, the egg box 15, the vegetable box (the lower box f "box 12), and the mist can be supplied to these boxes well At the time of the upper part, a plurality of mist blowing outlets (refrigerated mist blowing outlets to the mist blowing outlets 65, egg boxes blowing with mist π « a micro-frozen outlet 66 and vegetable compartments with fog blowing 35 201205019 mouth ^7) Since the discharge portion 50 is around the center, the mist discharged from the mist discharge portion 50 can be favorably supplied to each of the mist blowing outlets. The λ mist generating unit 51 has a mist discharge pin (projection) 57 and a special guide for the mist 45 In the evening, the mist blowing outlet (the mist blowing outlet 63a for the refrigerating compartment, the micro-freezing chamber, the blowing outlet 65, the mist blowing outlet 66 for the egg box, and the mist blowing outlet 67 for the vegetable compartment) are disposed at a position opposite to the mist releasing pin 57. (The position that is not directly facing) is 'even' even if there is a finger or foreign matter inserted into the special duct 45 for the mist from the mist outlet, it can prevent them from directly contacting the mist discharge pin 57', thereby ensuring safety. The duct is constructed of a special duct 45 for fog Since the member 46 is detachable, the maintenance of the mist generating unit 51 and the like can be easily performed. (Second Embodiment) Fig. 19 shows a second embodiment. The second embodiment is different from the above-described first embodiment. The large surface portion 95 is similar to the upper surface of the bottom wall portion 40a of the partition ΛΑ UV and the water tube 40 in the first embodiment, and the sub-M 95 is below the refrigerating material H 24 and is drained. The wall of the tube 40 t that is in contact with the refrigerating cooler 24, that is, the front surface of the rear wall portion 40b is provided on the rear wall portion 40b in a manner of being protruded toward the front. 0 is viewed from the front along the left and right partition portions 95. According to this configuration, when the chilling cooler 24 is defrosted, the chiller cooler 24 # defrosting water drops γ along the front surface of the rear wall portion (four), 36 201205019 Table = 4; / ® and the front surface 40g of the back surface portion 95b of the back surface 95b, I and the surface 95b and the front surface, therefore, the partition portion 95 can also be separated to avoid the water storage capacity ;| The water dripping from the drain portion 85 of 56 is connected to the cooler 24 from the refrigeration, so even if Water capacity!! 56 7 Μ 霜 水 水 「 「 「 「 「 「 「 「 「 施加 施加 施加 施加 施加 施加 施加 施加 施加 施加 施加 : : : : : : : : : : : : : : : : : : : : : : : : : Third Embodiment FIG. 20 and FIG. 21 show a third embodiment. The second embodiment differs from the second embodiment described above. That is, the front surface of the rear wall portion of the partition portion 疋^#水官40 is located. The chiller chiller 24 is provided to receive the defrosting water of the refrigerating cooler 24. The partitioning portion α is a portion other than the end portion 24e of the right side 24a except for the coolant in the refrigerating cooler μ. In the range of the defrosting water, the left and right direction and the size of the front and rear directions are set. Further, a drain port 97 is provided in the bottom wall of the partition portion 96, and the drain port 97 is inserted into the drain port 41 of the drain pipe 40 from above. At this time, the drain port 41 of the drain pipe 40 and the partition portion % are in a drooping state. Each of them is formed into a rail structure, and almost all the defrosting water other than the right end portion 24C of the defrosting water generated by the cold cooler 24 is taken up from the drain port 97. And the drain port 41 is discharged to the defrosting water evaporating dish 28 of the machine to 26. 37 201205019 π The knife partition 96 can also be separated to avoid the connection between the water storage container and the chilled water from the refrigerating cooler 24, so that the money stored in the water container 56 plus (four) high voltage can also The anti-pressure is applied to the refrigerating cooler 24, so that the refrigerating cooler 24 can be prevented from being negatively charged. (Fourth embodiment) Fig. 22 shows a fourth embodiment. The first embodiment differs from the first embodiment described above in that the bottom wall portion 40a of the drain pipe is provided with a third drain port ι located below the refrigerating cooler 24 and located at the bottom. The second drain port 1〇1 below the water container 56. Further, on the upper surface of the bottom wall portion 40a, the right end portion 24d of the heat transfer fin 24b of the refrigerating cooler 24 and the water storage container 56 are provided upward. The protruding rib-shaped partition portion 1〇2. On the bottom wall portion 40a, the left side of the partition portion 1〇2 is inclined toward the i-th drain port 100. The right side of the partition portion 1〇2 faces the second drain port 1〇. According to this configuration, almost all of the defrosted water except the end portion 24e on the right side of the coolant pipe 24a in the defrosted water generated by the cold cooling H 由 is separated by the partition 1 in the drain pipe 40. The left side of 2 is taken out and discharged from the first drain port 100 to the outside of the refrigerator. The defrosted water dripped from the right end portion 24c of the coolant pipe 24a is mainly taken up and stored by the water storage container 56, and the remaining portion is drained. The tube 4 is received by the right side of the partition 102 and discharged from the second drain port 1〇1 to 38 201205019 The water dripping from the water storage 56 is taken up on the right side of the drain and is discharged from the second drain 1 〇 1 & ^ partition 102 whether it is the water over the phase through the first drain σ * ° In addition, the water is discharged to the mechanical room 霜 ΐ ΐ = 82. The drain port 101 Therefore, the partition 102 at this time can also drip the water from the water container 56 and from the cold to avoid reading, so even for the storage The defrosted water phase of the water container (4) 24 can also prevent the μ electric test wire from reaching; the high temperature of the twisted water is cooled negatively by the cooler 24 of the refrigeration. ^ 24 thus the month b is sufficient (the fifth embodiment) and the upper = 3 In the fifth embodiment, the lower part of the lion is formed to have a rearward direction (Fig. 23 in the middle, and the rear part of the rear wall is 5; Part 1〇6. According to this structure, in the drain pipe == frost:=:=, the bottom; the partition 1.6' so the partition protrudes to the other side of the water storage container 56 dripping ·Μ ώ The boring tool is prevented from being connected, so that even the defrosted water phase of the cooler 24 for storing the water storage container can prevent the high voltage of the water stored in the high mine (4), and the refrigeration is stopped. The cooler is negatively charged to the refrigerating cooler 24, so that it can be prevented as a water storage portion, and only the voltage of 2012 20121919 can be applied to the stored water for the atomizing device, and is not limited to the water storage of the electrostatic atomizing device 48. When the container ST is atomized by using an ultrasonic vibration element, the second St may be provided as needed, and the water passages 87 and 91 of the water storage container 56 may not be provided. In a refrigerator including a tube for receiving defrosting water generated by defrosting and a water storage portion for storing the applied water, a partition is provided in the tube, and the partition is partitioned to Avoid (10) the water dripping from the water is connected to the defrosting water from the cooler. Thereby, even if the water dripped from the water storage portion continuously flows down, the partition portion can be used to prevent the water from being electrically connected to the defrosted water from the cooler, thereby preventing the voltage from being applied to the cooler. (Sixth embodiment) Figs. 24 and 25 show a sixth embodiment. The sixth embodiment is different from the above-described first embodiment in that a water collecting portion for collecting defrosted water is provided in the coolant pipe 24a of the refrigerating cooler 24. That is, as shown in Fig. 24 and Fig. 25, the above-described refrigerating cooler 24 has a configuration in which the coolant tube 24a which is configured to be cold is circulated in the vertical direction and passes through the plurality of heat transfer fins 24b in a meandering manner. The coolant tubes 24a that are serpentinely passed in the up-and-down direction are arranged side by side in a plurality of rows (two columns) along the front-rear direction, and the plurality of heat-conducting fins 24b are extended along the air-cooling duct 34. The directions (the vertical direction in FIG. 1) are arranged in a direction substantially orthogonal to each other (the left-right direction of the refrigerator body 1). The air flowing through the cold air duct 34 passes between the plurality of heat radiating fins 24b constituting the refrigerating cooler 24 201205019, thereby being cooled by the refrigerating cooler 24. The water storage container 56 is disposed below the refrigerating cooler 24 and at a position facing downward from the first row coolant pipe 24a on the front side of the refrigerating cooler 24. Further, in the same manner as the refrigerating cooler 24, the refrigerating cooler 25 employs a structure in which a coolant tube is passed through a plurality of heat transfer fins. An overflow portion 156a which is set lower than the other portion is formed in the upper portion of the front end portion on the rear side of the water storage container 56, and when the water stored in the water storage container 56 overflows, it overflows from the overflow portion 156a. The water storage container is allowed to be located above the drain & 40, and the overflow water from the overflow portion 15 is taken up by the drain pipe. In addition, a part of the coolant pipe 24a (the front side of the refrigerating cooler 24 cools the lungs 69) ± a plurality of (three) water collecting materials made of, for example, a resin material such as polypropylene Ring (rmg) 171 (equivalent to the catchment). An annular member through which the water collecting ring 17 passes. These water collecting rings 171 mainly have Wei as a water control portion along the frost water. For example, the structure of the tree 171 may be separated from the water collecting ring 171 by a container of the _ or c ring structure, and the predetermined distance may be maintained in the water storage container (for example, the spatial distance is 2 mm or more. The surface distance is 3G _ or more) so that the distance is on a part of the coolant tube 24a. Therefore, the defrost water can be turned to the water collecting ring 171 to drip. The capsule water % 171 is concentrated. Therefore, in the structure in which the size of the water storage container 56 201205019 is reduced in order to secure the electrical insulation distance, the defrosting water can be efficiently dropped onto the water storage container 56, so that The amount of water stored in the defrosted water in the water storage container 56 is sufficiently ensured, and the amount of supply of the defrosted water to the electrostatic atomization device 48 can be sufficiently ensured. Further, since the water storage container 56 is spaced apart from the water collecting ring pi, the water storage container 56 connected to the mist discharging portion 50 to which the high voltage is applied can be maintained and the outer case 2a accessible to the user (possibly linked to the outside) The refrigerating cooler 24) of the tank 2a is electrically insulated. (Seventh Embodiment) Fig. 26 shows a seventh embodiment. The configuration of the water collecting portion of the seventh embodiment is different from that of the sixth embodiment. In other words, the water collecting plate 181 (corresponding to the water collecting portion) is a plate-shaped member made of a resin material (for example, polypropylene), and has two cs at the upper portion thereof, and a portion 181a. These C ring portions 181a are respectively embedded in the cooling. A part of the agent tube 2乜 (a portion folded in the front-rear direction in the lower portion of the refrigerating cooler 24). Further, the water collecting plate 181 has an inclined portion 181 at a lower portion thereof, and the inclined portion 181b is gradually inclined downward from the rear portion toward the front portion. The water storage container % faces the lowermost end portion of the inclined portion 181b of the water collecting plate 181 from below. Further, the water storage container 56 is spaced apart from the water collecting plate 181, and a predetermined distance is secured between the water storage container 56 and the water collecting plate 181 (in this case, the spatial distance is 2 mm or more, and the creeping distance is 30 mm or more). As an electrical insulation distance. According to the configuration including the water collecting plate 181, not only the i-th column coolant pipe 24a on the front side of the refrigerating cooler 24 but also the second column in the rear side of the refrigerating cold cooler 24 201205019 The coolant pipe 24a collects the defrosted water and causes the defrosted water to drip concentrated from the lowermost end portion of the water collecting plate 181. Therefore, in the structure for reducing the size of the water storage container 56 in order to secure the electrical insulation distance, the defrosting water can be efficiently dropped to the water storage container 56, so that the inside of the water storage container 56 can be sufficiently ensured. The amount of defrosting water stored in the electrostatic atomizing device 48 can be sufficiently ensured by the amount of water stored in the defrosting water. (Eighth Embodiment) Fig. 27 shows an eighth embodiment. The configuration of the water storage unit according to the eighth embodiment is different from that of the first embodiment described above. That is, the water storage container 191 (corresponding to the water storage portion) in place of the above-described water storage container 56 is made of a resin material (for example, polypropylene). The water storage container is integrally provided with a support frame portion 192, and further, a water collection tube portion 193 is integrally provided on the support frame portion 192. These support frame portions 192 and water collection tube portions 193 are also made of a resin material (polyolefin). The water collecting portion 193 has a water receiving portion 1 extending in the substantially front-rear direction and a secret groove portion extending in a substantially upper and lower direction. The water tank portion 193a is a groove-shaped portion which is inclined downward from the rear portion toward the shovel portion in the lower portion of the portion of the coolant pipe 24a (the portion which is folded in the front-rear direction in the lower portion of the refrigeration unit 24). The eight-drop groove portion 193b is a groove-shaped portion that is connected from the water-sink portion 193a. The other end portion (lower end portion) is tapered toward the respective members 191 on the one hand. In addition, the water storage container 191 is spaced apart from the water collection tube portion 193, and a predetermined distance (space) is ensured between the water storage device 191 and the water collection official portion 193 (particularly, the front end portion of the drip groove portion (9) (4)). The distance is 2〇imn or more, and the distance along the surface is ^omm or more) as the electrical insulation distance. Further, the water collection pipe portion 193 is separated from the refrigerating cooler 24 and the coolant pipe 24a. According to the configuration including the water collection tube portion 193, not only the first column coolant pipe 24a on the front side of the refrigeration unit 24, but also the second column on the rear side of the refrigeration cold P device 24 can be used. The coolant pipe 24a collects the defrosted water and causes the defrosted water to drip from the lowermost end portion of the water collection pipe portion 193 (the front end portion of the drip chamber 193b). Therefore, in the structure in which the water storage container 191 = size is reduced in order to secure the electrical insulation distance, the defrosting water can be efficiently dropped to the water storage capacity =, so that the defrosting water in the water storage container 191 can be sufficiently ensured. In the stored water, the supply amount of the defrosting water to the electrostatic atomizing device 48 can be sufficiently ensured. In addition, since the water collection tube portion 193 is configured to be disposed in the water storage container 191, the water storage container 191 and the water collection tube portion 193 (particularly, the tip end portion of the dropping groove portion i93b) can be accurately ensured. Electrical insulation distance. (Ninth Embodiment) Fig. 28 shows an eighth embodiment. The configuration of the water collecting portion of the eighth embodiment is different from that of the sixth embodiment. In other words, the water collecting plate 200 (corresponding to the water collecting portion) is a plate-shaped member made of a resin material (for example, polypropylene), and the bottom end portion (right end portion in Fig. 28) is fixed to the inner box 2b, and its front end The portion (the left end portion in Fig. 28) serves as the connecting portion 200a. 44 201205019 The portion of the joint portion 2GG to the cooling portion 24a (the portion on the rear side in the portion folded in the front-rear direction of the lower portion of the refrigerating cooler 24). Further, in the lower portion of the water collecting plate 200, a plurality of (upper and lower) water collecting plates 201a and 2〇ib are provided. These water collecting plates 2〇1a and 11b are respectively formed into a plate shape, and are inclined downward toward the water storage container 56. The water collecting pipe 20ib in the lower stage is formed to be longer than the water collecting plate 201a of the upper stage. Further, the front end portion of the water collecting plate 2 of the lower stage is spaced apart from the water storage container 56. In particular, the defrosting water of the second column coolant officer 24a from the rear side of the refrigerating cooler 24 can be set according to the configuration including the water collecting plate 2〇〇 and the water collecting plates 2〇1a and 2〇1b. The water plate 2 and the water collection plate 2 are collected and collected into the water storage container 56. Therefore, in order to secure the electrical insulation distance, the size of the water storage container % is reduced, and in the structure, the defrosting water can be efficiently dropped to the water storage container 56 to sufficiently ensure the defrosting in the water storage container 56. The amount of water stored in the water can further sufficiently ensure the supply amount of the defrosting water to the electrostatic atomizing device 48. Further, since the water collection pipes 2a, 2b are provided in a plurality of stages, it is difficult to form a water film between the water collection pipes 201a and the space, and electrical insulation between the refrigeration cooler 24 and the water storage container 56 can be ensured. status. In addition, the water collecting plate is not limited to the upper and lower sections, and may be configured as, for example, upper and lower two & four-segment shirts. ^ Also, the water collecting plate can be formed as the upper portion is larger, and the smaller the lower portion is. Therefore, the water dripping from the upper water collecting plate is difficult to collect with the lower section of the water. The water is connected to prevent further formation of water between the water collecting plates, 4 which is sufficient to ensure the electrical insulation of the refrigerating cooler 24 from the water storage container 56. (Tenth embodiment) Fig. 29 shows a tenth embodiment. In the first embodiment, the structure of the Hercules unit 111 in the static crane unit (10) constituting the mist generating device is different from that of the first embodiment. The mist generating unit 7C 111 includes a mist releasing portion 112 and a water supply portion 113 that supplies moisture to the mist discharging portion 112. The water supply unit 113 has a circular portion ll3a that is circular as viewed from the front, and a vertical portion 113b' that extends downward from the _ portion U3a, and is made of the same material as the water-retaining material: 55 (see the i-th embodiment). The water retaining material 115 is housed in the box ΐ4. The lower end portion of the vertical portion 113b penetrates the lower portion of the duct constituent member and the front portion 36b of the refrigerating cooler chamber 36 (refer to the gate 8), and is inserted into the water storage container provided in the refrigerating cooler chamber 36 from above. %Inside. The circular portion 113a and the vertical portion of the water portion 113 are disposed along the front wall 36a in a flush manner with the front wall 3 of the refrigerating cooler chamber 36 in the & air conduit 34. The mist releasing portion 112 is composed of a plurality of mist releasing pins that respectively constitute the projections. The mist release pin 57 is radially provided in the circular portion U3a. Therefore, the "fog releasing portion 112" is composed of a plurality of mist releasing pins 57 (projecting portions) that protrude in different directions. The bottom end portion of each of the mist discharge pins 57 is passed through the case 114 and is in contact with the water retaining material 115. Each of the mist discharge pins 57 is also provided in a left portion of a circular portion _ which protrudes along two = 2 so as to be parallel to the front wall 36a of the cold air guide, and a dog out 卩U3e is set at the protruding portion 113e. In the upper state, the power receiving pin 58 is provided in a state of being protruded to the left. The power supply terminal 61 based on Quarley. Further, the electric pin 58 is connected to the power supply unit 52. In this configuration, the water stored in the water storage container 56 is sucked by the water retaining material 115 by the capillary f phenomenon, and is supplied to the respective mist discharge pins 57. Then, the negative high voltage from the power supply unit 52 is applied to the respective mist discharge pins 57 from the power receiving pin 58 via the moisture of the water retaining material 115, whereby a fine mist is released from each of the mist discharge locks 57. In the same manner as in the third embodiment, the mist is discharged from the plurality of mist blowing outlets (the refrigerator compartment mist outlet 63a, the microfreezer mist outlet 65, the eggfill mist outlet 66, and the vegetable compartment mist outlet). 67) A plurality of supply targets are supplied to the refrigerating compartment 3, the micro-freezing compartment 14, the egg cartridge 15, and the vegetable compartment 4. Further, since the mist release pin 57 is arranged radially, it is preferable to release the mist in more directions than in the case of the first embodiment (the third embodiment). Figs. 30 and 31 show Eleventh embodiment. In the third embodiment, the structure of the drain portion and the water passage in the water storage container 56 is different from that of the first embodiment of the invention. The left rear wall 83, the convex portion 83a, the convex portion 86, the right rear wall 84, and the convex portion 84a in the first embodiment (see FIG. 15) are not provided on the rear side of the bottom wall portion 56a of the water storage container 56. The convex portion 88, the water passage forming member 9A, and the pair of elastic engagement claws 92, and the rear portion of the bottom wall portion 56a have a flat plate shape that is inclined rearward and upward. A drain portion 195 is defined between the left side wall portion 56c and the right side wall portion 56d at the rear end portion of the bottom wall portion 56a. Further, a water passage 196 formed of a concave groove is provided on both left and right sides of the rear end portion of the bottom wall portion 56a on both sides in the width direction of the drain portion 195. The water passage 196 is also U-shaped continuously from the surface to the back surface of the bottom wall portion 56a. The width dimension and depth dimension of the water passage 196 are set to about 1 mm' to cause capillary action of water. In this configuration, when the water stored in the water storage container 56 flows out, the water passes through the water passage 196 from the surface of the bottom wall portion 56 & to the back surface by capillary action, and is discontinuously dropped from the projection 93 of the lower surface. It falls and is taken over by the drain pipe 40. In such a configuration, substantially the same operational effects as those of the first embodiment can be obtained. In particular, the width of the drain portion 195 is wider than the width of the drain portion 85 of the first embodiment. However, since the water passage 196 is provided on both sides in the width direction of the drain portion 195, even if the water storage container 56 is oriented The water passage 196 can also function effectively in a state where the left and right directions are inclined. Since the water passage 196 of the eleventh embodiment is constituted by a concave groove, the U-shaped water passage 196 can be formed with a simpler structure. 48 201205019 As described above, according to the present embodiment, by adopting a configuration in which a water capillary portion which is continuous from the surface of the drain portion and which is stored in the water channel of the water storage portion is provided in the drain portion of the water storage portion The phenomenon is that the phenomenon is not continuously dripped into the water receiving portion by the passage 7 and is provided in a refrigerator having a water storage portion and a drain pipe (water receiving portion) that discharges water from the water storage portion (four). Let the water drip from the Ministry of Finance to the drain pipe (water receiving department). The above is only the preferred embodiment of the present invention, and is not intended to limit the scope of the present invention. The preferred embodiments of the present invention are as described above. The skilled person 'can make a slight change or modify the equivalent of the equivalent change when the structure and technical content of the above-mentioned disclosure can be used without departing from the technical scope of the present invention. Any simple modification, equivalent change and modification of the above embodiments in accordance with the technical essence of the present invention are still within the scope of the technical solution of the present invention. Although the present invention has been disclosed in the above preferred embodiments, it is not intended to limit the invention to any skilled person, and in the scope of the invention of the invention, it is possible to make some changes and retouching, and thus the present invention The scope of the second application is subject to the definition of the scope of the patent application. [Simple description of the diagram] Figure 1 shows the first! A schematic cross-sectional side view of the entire refrigerator of the embodiment. Fig. 2 is a front view of the refrigerator main body in a state in which a door or a panel is removed. Fig. 3 is a schematic perspective view of the vicinity of a micro-freezing chamber. 49 201205019 Figure 4 is an enlarged front view of the shoulder of the special duct for fog. Figure 5 is a cross-sectional plan view taken along line X and XI of Figure 4 . Fig. 6 is a longitudinal sectional side view taken along line Χ2*·Χ2 in Fig. 4; Fig. 7 is a longitudinal sectional side view taken along line X3-X3 of Fig. 4; Fig. 8 is a longitudinal sectional side view taken along line Χ4-χ4 of Fig. 4; Fig. 9 is a vertical cross-sectional front view of the lower portion (microbeam chamber) of the refrigerating compartment and the vicinity of the vegetable compartment. Fig. 10 is a longitudinal sectional side view taken along line Χ5_Χ5 of Fig. 9. Figure 11 is a longitudinal sectional front view of the electrostatically atomizing device portion. Fig. 12 is a plan view showing a refrigerating cooler, a water storage container, and a drain pipe portion. Figure 13 is a vertical view of the drain pipe. Fig. 14 is an enlarged longitudinal sectional side view taken along line Χ6·Χ6 of Fig. 13; Figure 15 is a body diagram of a water storage container. Fig. 16 is a longitudinal sectional side view taken along line Χ7_Χ7 of Fig. 15. Fig. 17 is a longitudinal sectional side view taken along line Χ8_Χ8 of Fig. 15. 18(a) and 18(b) are views showing a water passage forming member, Fig. 18(a) is a front view, and Fig. 18(b) is a right side view. Fig. 19 is a longitudinal sectional side view showing a main part of a second embodiment. Fig. 20 is a longitudinal sectional front view of a main part of a third embodiment. Fig. 21 is a longitudinal sectional side view of the main part. Fig. 22 is a view corresponding to Fig. 20 of the fourth embodiment. Fig. 23 is a view corresponding to Fig. 19 of the fifth embodiment. Fig. 24 is a front elevational view schematically showing the cooler of the sixth embodiment and its peripheral portion 50 201205019. Fig. 25 is a perspective view showing a cooler and a peripheral portion thereof according to a sixth embodiment. Fig. 26 is a view corresponding to Fig. 8 of the seventh embodiment. Fig. 27 is a perspective view showing a cooler and a peripheral portion thereof according to the eighth embodiment. Fig. 28 is a view corresponding to Fig. 8 of the ninth embodiment. Fig. 29 is a view corresponding to Fig. 11 of the tenth embodiment. Fig. 30 is a view corresponding to Fig. 15 of the eleventh embodiment. Figure 31 is an enlarged longitudinal sectional side view taken along line X9-X9 of Figure 30. [Description of main component symbols] 1 : Refrigerator body 2 : Insulation box 2a : Outer box 2b : Inner box 2c, 38 . Insulation material 3: refrigerator compartments 3a, 4a, 5a, 7a: heat insulation door 4: vegetable compartment 5: ice making compartment 6: small freezer compartment 7: freezer compartment 8: automatic ice making apparatus 8a: ice making box 51 201205019 ίο : Partition wall 11: Lower case 12: Upper case 13: Shelf 14: Micro-freezer 15: Egg box 16: Small box 17: Water tank 18: Micro-frozen box 18a: Front surface wall 18b: Notched portion 19: Thermal insulation Partition wall 20: ice storage container 22: storage container 24: refrigerating cooler (cooler) 24a: coolant tube 24b: heat-conducting fin 24c: end portion 24d: right end portion (storage of a portion in contact with the tube in the cooler) End portion on the water side) 25: Cooling cooler 26: Machine room 27: Compressor 28: Defrost water evaporation m 52 201205019 29: Control device 30: Cooler chamber 30a: Cooling air outlet 30b: Return port 31: Refrigeration blower fan 32: drain pipe 34: cold air duct 35: refrigerating blower fan 36: refrigerating cooler chamber 36a: front wall 36b: section 36c: lower section 37: cold air supply duct 39: cold air supply port 40: drainage Tube (tube) 40a: bottom wall 40b: rear wall portion 40c: side wall portion 40d: front wall portion 40e, 113c: protruding portion 40f: support portion 40 g, 105a: front surface 41, 97: drain port 42: air supply duct 53 201205019 43 : suction port 45: special duct for mist 46: duct constituent members 48, 110: electrostatic atomization devices 50, 112: mist discharge portion 51, 111: mist generating unit 52: power supply device (transformer) 53: water supply portion 53a: horizontal portion 53b, 113b: vertical portion 53c: curved portion 54, 114: cartridges 55, 115: water retaining material 56, 191: water storage container (storage 56A: bottom wall portion 56b: front wall portion 56c: left side wall portion 56d: right side wall portion 57: mist release pin 58: power receiving pin 60: wire 61: power supply terminal 62: cold air supply port 63: facing The mist duct 54 of the refrigerator compartment 201205019 63a: the mist outlet of the refrigerator compartment 65: the mist outlet of the micro-freezer 66: the mist outlet of the egg box 67: the mist outlet of the vegetable compartment 68: the cold air supply port of the micro-freezer 69: the coolant Tube 70: mounting plates 71a, 71b: partitioning plate 72: fresh-keeping cover 73: air passages 74a, 74b, 77: vent 75: communication port 76: V-ducts 80, 95, 96, 102, 103, 106: separated Department 80a. Right end portion 80b: Left end portion 80c: Right portion 80d: Side surface 81: Mounting portion 82: Lowest portion 83: Left rear wall 83a, 84a, 86, 88 • Projection 84: Right rear wall 85, 195: Drainage portion 55 201205019 87, 91, 196: water passage 90: water passage forming member 92: elastic engagement claw 93: projection 95a: surface 95b: rear surface 100: first drainage port 101: second drainage port 105: concave portion 113a: circular portion 156a : overflowing portion 171 : water collecting ring (water collecting portion) 181 , 200 : water collecting plate (water collecting portion) 181 a : C ring portion 181 b · inclined portion 192 : supporting frame portion 193 : water collecting pipe portion 193 a : water receiving groove Portion 193b: dripping groove portion 200a: connecting portion 201a, 201b: water collecting plate A A2, B1, B2, B3, Cl, C2: arrow 56