201121848 六、發明說明： 【發明所屬之技術領域】 [0001] 本發明係有關一種空氣密封體及其製造方法，特別 是一種連續充氣式空氣密封體及其製造方法。 [0002] 【先前技術】 空氣密封體是以樹脂膜為材料，並經由熱封成為密 封狀態形成氣柱，且設有可供充氣之充氣口，當氣體經 由充氣口充入氣柱後，空氣密封體便可用於内包裝中作 〇 〇 為緩衝材料。 習知空氣密封體結構如曰本實用新案實開平第 5-95851號「流體用密封袋」專利案，係於每一氣柱分別 設置相互獨立之逆止閥，且每一逆止閥頂部的流入口與 熱封線對齊並接著在一起，當氣體充入充氣通道後，充 氣通道膨脹而打開逆止閥，使氣體可充入氣柱内。然而 ，此種結構由於各逆止閥相互獨立，使得各氣柱各自充 氣，無法同時對多個氣柱同時充氣，再者，其在製造時 相當繁瑣，必須--將各逆止閥置於氣柱内預定位置處 再進行熱封接著，一旦逆止閥置放位置或熱封模具接著 位置偏移，將無法將逆止閥固定於氣柱内，或是頂部的 流入口超出熱封模具接著之熱封線，會造成氣體充入充 氣通道後，充氣通道雖然膨脹，但逆止閥無法隨充氣通 道膨脹而開啟，造成氣體無法充入氣柱内。 另一種空氣密封體結構如中華民國發明專利第 00587049號「密封體之開關閥的安裝構造及具有開關閥 之密封體的製造裝置」，其中對空氣進入密封體之開關 099131420 採用二片内膜與一側外膜互相接著形成開關閥之通路， 表單編號A0101 第3頁/共45頁 0992055060-0 201121848 當充氣後，密封體膨脹以阻斷通路，此開關閥只描述如 何將密封體的空氣阻斷不洩出，但當空氣導入通道充入 氣體而膨脹，即使二片外膜受氣體推擠而向外拉開，開 關閥並不會隨著二片外膜作動而向外拉開，因此開關閥 之二片内膜仍貼附在一起而無法開啟空氣通路入口，若 依照其設計，空氣無法自動進入密封體内。 除此之外，在習知空氣密封體中，逆止閥頂端之入 氣口狹小，其寬度小於氣柱之寬度，因此在充氣時，必 須將充氣裝置對準入氣口，不僅充氣作業不便。過小的 入氣口結構將造成充氣效率不佳。 因此，如何設計一種密封體，使其能自動開啟入氣 口而連續充氣以節省充氣時間，並避免充氣不完全的問 題，並能有效提升充氣效率，係為本案之發明人以及從 事此相關行業之技術領域者所需面對的技術課題。 【發明内容】 [0003] 099131420 有鑑於此，本發明提出一種連續充氣式空氣密封體 ，包含：第一外膜；第二外膜與第一外膜疊合；二内 膜，介於第一外膜與第二外膜之間；複數通道接著部， 位於二内膜之一侧而接著二内膜；複數氣體通道，位於 複數通道接著部所接著之二内膜之間；隔熱件，位於二 内膜之間；複數第一熱封線，沿第一方向接著第一外膜 、第二外膜及二内膜；二第二熱封線，沿與第一方向相 交之第二方向接著，其中一第二熱封線接著第一外膜與 第二外膜，另一第二熱封線位於隔熱件處而接著第一外 膜與相鄰之内膜、第二外膜與相鄰之内膜；複數入氣口 ，為二内膜於第二熱封線處相互不接著而形成，連接於 表單編號A0101 第4頁/共45頁 0992055060-0 201121848 複數氣體通道，每一入氣口之寬度為相同於相鄰之二條 第一熱封線所間隔之寬度；及複數氣柱，位於複數第一 熱封線與複數第二熱封線所接著之第一外膜、第二外膜 及二内膜之間，二内膜向外拉開而開啟複數入氣口，使 氣體經由複數入氣口流入複數氣體通道，並充入複數氣 柱而充氣膨脹，氣體進入氣柱後壓迫二内膜之一端貼合 而封閉氣柱，二内膜之另一端分離而形成間隙。 本發明亦提出一種連續充氣式空氣密封體之製造方 法，包含下列步驟：提供第一外膜及二内膜，二内膜之 〇 間具有隔熱件；熱封接著二内膜與第一外膜而形成複數 通道接著部，並於複數通道接著部所接著之二内膜之間 形成複數氣體通道；提供第二外膜，與第一外膜疊合而 使二内膜介於第一外膜與第二外膜之間；沿第一方向以 複數第一熱封線接著第一外膜、第二外膜及二内膜；沿 與第一方向相交之第二方向以二第二熱封線接著，其中 V .. | 一第二熱封線接著第一外膜與第二外膜，秦一第二熱封 線位於隔熱件處而接著第一外膜與相鄰之内膜、第二外 €) 膜與相鄰之内膜，二内膜於第二熱封線處相互不接著而 形成複數入氣口，每一入氣口之寬度為相同於相鄰之二 條第一熱封線所間隔之寬度，並於複數第一熱封線與複 數第二熱封線所接著之第一外膜、第二外膜及二内膜之 間形成複數氣柱；及向外拉開二内膜而開啟複數入氣口 ，以氣體經由複數入氣口流入複數氣體通道，並充入複 數氣柱而充氣膨脹，氣體進入氣柱後壓迫二内膜之一端 貼合而封閉氣柱，二内膜之另一端分離而形成間隙。 有關本發明的較佳實施例及其功效，茲配合圖式說 099131420 表單編號A0101 第5頁/共45頁 0992055060-0 201121848 明如後。 【實施方式】 [0004] 099131420 請參閱第1圖、第2A圖、第2B圖、第2C®、第3圖、 第4圖及第5圖所示，為本發明連續充氣式空氣密封體的 第一實施例。 本發明的連續充氣式空氣密封體1包括：第一外膜2& 與第一外膜2b、二片内臈ia與ib、複數通道接著部5、氣 體通道2f、複數第一熱封線3、二第二熱封線“與讣、複 數氣柱6。 第一外膜2a與第二外膜2b上下疊合》 二片内臟a與lb介於第一外膜2a與第二外膜2b之間 ，且置於第一外臈2a與第二外膜2b内頂部稍低處，二片 内膜la與lb之寬度與第一外膜2a、第二外膜2b相同，長 度則短於第一外膜2a、第二外膜2b，因此二片内膜1&與 lb之二側邊位於第一外膜2a與第二外膜2b内而不對齊於 第一外膜2a與第二外膜2b之二側邊（如第2C圖所示）。 前述說明之二片内膜丨，與lb的結構僅為舉例，本發明 ‘ -* 以此為限，二片起膜之一側邊亦可對齊於第一外 膜2a與第二外膜2b頂部之側邊（如第5圖所示），並可分 別以熱封手段接著第一外膜2a與内膜ia、第二外膜訃與 内膜lb之頂部侧邊。 此外，二片内膜“與化之間於靠近頂部處塗佈與二 片内膜la與lb等長之長條狀的耐熱材料ic (如第圖所 示），意即耐熱材料lc之寬度實質上相同於二片内膜1& 與lb，以利用耐熱材料ic做為空氣可流通之通路，然本 發明除以塗佈耐熱材料1c作為隔熱件之外，亦可於土 表單編號A0101 第6頁/共45頁 ；罪 0992055060-0 201121848 頂部處放置阻擋片取代佈耐熱材料lc之用’於熱封手段 接著完成後再取出阻擋片。再者，耐熱材料lc可以預定 長度、預定寬度而間隔塗佈於二片内膜la與lb之間，其 中’預定寬度較佳地可為相同於相鄰之二條第一熱封線3 所間隔之寬度。 複數通道接著部5為以熱封手段形成者，位於接著二 片内膜la與lb之一側而接著二片内膜la與lb及第一外膜 2a，使得二片内膜la與1]；)可貼著第一外膜2a (如第3圖 所示）’在此’通道接著部5可為點狀、直線狀或曲線狀 〇 ，但本發明非以此為限，此外，複數通道接著部5位於接 著二片内膜la與lb之一側而僅接著二片内膜la與lb，使 得二片内膜la與lb不貼著第一外膳2a或第二外膜2b (如 第4圖所示）。 複數氣體通道2f位於複數通道接著部5所接著之二片 内膜la與lb之間。 複數第一熱封線3為以熱封手;段形成者’沿第一方向 接著第一外膜2a、第二外膜月内膜la與lb，在此 ® ，第一方向為第一外膜2a、第二外膜2b及二片内膜1&與 lb之長度方向》 二第二熱封線4a與4b為以熱封手段形成者，其沿第 二方向接著並位於第一外膜2a與第二外膜2b之二端，其 中’第二熱封線4a位於财熱材料ic處而接著第一外膜2a 與内膜la、第二外膜2b與内媒lb，第二熱封線4b接著第 一外膜2a與第二外膜2b。在此，第二方向與第一方向相 交，為第一外膜2a、第二外膜2b及二片内膜la與lb之寬 度方向。 099131420 表單編號A0101 第7頁/共45頁 0992055060-0 201121848 複數入氣口 2e為二片内膜la與lb於第二熱封線4a處 相互不接著而形成，且複數入氣口 2e連接於複數氣體通 道2f。在此，每一入氣口 2e之寬度為相同於相鄰之二條 第一熱封線3所間隔之寬度。 在本實施例中，由於二片内膜la與lb超出第二熱封 線4a之部分過長，將會導致超出部分下垂而遮蔽入氣口 2e，造成充氣不佳的問題，因此，二片内膜la與lb凸出 第二熱封線4a之部分以不會下垂為佳，但下垂程度不會 遮蔽入氣口 2e亦可。 複數氣柱6位於複數第一熱封線3與二第二熱封線4a 與4b所接著之第一外膜2a、第二外膜2b及二片内膜la與 lb之間。 充氣時拉開第一外膜2a與第二外膜2b，二片内膜la 與1 b隨之向外拉開而自動開啟入氣口 2 e，氣體經由入氣 口 2e流入氣體通道2f，並沿著氣體通道2f充入氣柱6，第 一外膜2a與第二外膜2b向外拉開使氣柱6充氣膨脹，氣體 進入氣柱6後壓迫二片内膜la與lb貼合在一起而封閉氣柱 6，由於第一外膜2a與第二外膜2b由平面狀態膨脹為具有 弧度之立體狀，使得二片内膜la與lb之另一端分離而形 成間隙。由於每一入氣口 2e之寬度為相同於相鄰之二條 第一熱封線3所間隔之寬度，即相同於氣柱6之寬度，因 此，氣體可以無段式方式充入氣柱6而大幅提升充氣效率 ，解決在習知空氣密封體中，因入氣口過小而必須將充 氣裝置對準入氣口且充氣效率不佳之問題。 請參閱第6圖與第7圖所示，為本發明連續充氣式空 氣密封體的第二實施例。本實施例與第一實施例的不同 099131420 表單編號A0101 第8頁/共45頁 0992055060-0 201121848 處為充氣的結構。在本實施例中，更包含：第三熱封線 4c，沿第二方向以熱封手段接著第一外膜2a與第二外膜 2b，使第一外膜2a與第二外膜2b之間在第二熱封線4a與 第三熱封線4c之間在形成充氣通道9，與複數入氣口 2e相 連通，充氣通道9内之氣體可同時經由複數入氣口 2e、複 數氣體通道2f對複數氣柱6充氣。· Ο 請參閱第8圖、第9A圖、第9B圖、第10A圖及第10B 圖所示，為本發明連續充氣式空氣密封體的第三實施例 。在本實施例中，第一熱封線3更可延伸形成強化接著部 8，位於複數第一熱封線3與第二熱封線4a於塗佈耐熱材 料lc處之相交處。在此，複數強化接著部8可突出於塗佈 耐熱材料lc處而接著第一外膜2a與内膜la、第二外膜2b 與内膜lb。 〇 充氣時第一外膜2a與第二外膜2b於第一方向上向外 拉開，由於第一外膜2a與第二外膜2b由平面狀態膨脹為 具有弧度之立體狀，因未設置複數強化接著部8處會因充 氣而膨脹，設置複數強化接著部8處不會充氣膨脹，因此 於充氣時因自然落差而於第二方向上形成緊縮，使得第 一外膜2a與第二外膜2b緊縮而於第二方向上產生位移， 以利用複數強化接著部8擠壓二片内膜la與lb，使其於第 一方向上向外拉開並自動開啟入氣口 2e (如第8B圖與第 9B圖所示），即概呈山峰狀之複數強化接著部8往山谷狀 之氣體通道2f擠壓，使氣體通道2f之二片内膜la與lb向 外拉開，使得複數入氣口 2e自然擠開，有效解決在習知 空氣密封體中，無法開啟入氣口而造成無法充氣之問題 099131420 表單編號A0101 第9頁/共45頁 0992055060-0 201121848 連續充氣式空氣密封體之製造方法，包含下列步驟 步驟101 :提供第—外膜2a及二片内膜ia與lb，二 片内膜la與lb之間具有隔熱件。 一片内膜la與lb疊合於第一外膜23上，且二片内膜 la與lb之間預先設有隔熱件，且隔熱件之寬度實質上相 同於二片内膜la與lb之寬度，或隔熱件之寬度小於二片 内膜la與lb之寬度而間隔設置於二片内膜“與化，在此 ，隔熱件可為耐熱材料卜，二片内膜1&與11}之間於靠近 頂部處塗佈與二片内膜13與15等長之長條狀的耐熱材料 lc，以利用耐熱材料1<3做為空和可流通之通路或者二 片内膜la與lb之其中一片以間隔，方式塗佈耐熱材料lc ; 此外，亦可於靠近頂部處放置阻擋片取代#耐熱材料^ 之用。 再者，二片内膜“與化置於第一外膜2a頂部稍低處 ，二片内膜la與lb之寬度與第一外膜2a相同，長度則短 於第一外膜2a，因此；片内膜13與11}之二侧邊不對齊於 第一外膜2a之二锄邊。在此態樣中，由於二片内膜^與 lb超出第二熱封線4a之部分過長，將會導致超出部分下 垂而遮蔽入氣口 2e，造成充氣不佳的問題，因此，二月 内膜la與lb凸出第二熱封線4a之部分以不會下垂為佳， 但下垂程度不會遮蔽入氣口 2e亦可。 前述說明之二片内膜la與lb的結構僅為舉例，本發 明非以此為限’二片内膜la與lb之一侧邊亦可對齊於第 一外膜2 a頂部之側邊。 步驟102 :熱封接著二片内膜13與1}3與第_外膜^ 099131420 表單編號A0101 第10頁/共45頁 0992055060-0 201121848 而形成複數通道接著部5，並於複數通道接著部5所接著 之二片内膜la與lb之間形成複數氣體通道2f。 以熱封手段接著二片内膜la與lb及第一外膜2a形成 複數通道接著部5，使得二片内膜la與lb可貼著第一外膜 2a，在此，通道接著部5可為點狀、直線狀或曲線狀，但 本發明非以此為限。 步驟103 :提供第二外膜2b，與第一外膜2a疊合而 使二片内膜la與lb介於第一外膜2a與第二外膜2b之間。 在此，第二外膜2b之長度、寬度均相同於第一外膜 〇 2a。 步驟104 :沿第一方向以複數第一熱封線3接著第一 外膜2a、第二外膜2b及二片内膜la與lb。 在此，第一方向為第一外膜2a、第二外膜2b及二片 内膜la與lb之長度方向。 步驟105 :沿與第一方向相交之第二方向以二第二熱 封線4a與4b接著，其中第二熱封線4b接著第一外膜2a與 第二外膜2b，第二熱封線4a位於塗佈耐熱材料lc處而接 © 著第一外膜2a與内膜la、第二外膜2b與内膜lb，二片内 膜la與lb於第二熱封線4a處相互不接著而形成複數入氣 口 2e，每一入氣口 2e之寬度為相同於相鄰之二條第一熱 封線3所間隔之寬度，並於複數第一熱封線3與二第二熱 封線4a與4b所接著之第一外膜2a、第二外膜2b及二片内 膜la與lb之間形成複數氣柱6。 二第二熱封線4a與4b為以熱封手段形成者，其沿第 二方向接著並位於第一外膜2a與第二外膜2b之二端。在 此，第二方向與第一方向相交，為第一外膜2a、第二外 099131420 表單編號A0101 第11頁/共45頁 0992055060-0 201121848 膜2b及二片内膜la與lb之寬度方向。 此外，第一熱封線3於其與第二熱封線4a於塗佈耐熱 材料lc處之相交處延伸形成強化接著部8，在此，複數強 化接著部8可突出於塗佈耐熱材料lc處而接著第一外膜2a 與内膜la、第二外膜2b與内膜lb。 步驟106 :氣體經由複數入氣口 2e流入複數氣體通 道2f，並充入複數氣柱6而充氣膨脹，氣體進入氣柱6後 壓迫二片内膜la與lb之一端貼合而封閉氣柱6，二片内膜 la與lb之另一端分離而形成間隙。 充氣時拉開第一外膜2a與第二外膜2b，二片内膜la 與1 b隨之向外拉開而自動開啟入氣口 2 e，氣體經由入氣 口 2e流入氣體通道2f，並沿著氣體通道充入氣柱6，第 一外膜2a與第二外膜2b向外拉開使氣柱6充氣膨脹，氣體 進入氣柱6後壓迫二片内膜la與lb貼合在一起而封閉氣柱 6，由於第一外膜2a與第二外膜2b由平面狀態膨脹為具有 弧度之立體狀，使得二片内膜la與lb之另一端分離而形 成間隙。由於每一入氣口 2e之寬度為相同於相鄰之二條 第一熱封線3所間隔之寬度，即相同於氣柱6之寬度，使 得氣體可以無段式方式充入氣柱6而大幅提升充氣效率， 解決在習知空氣密封體中，因入氣口過小而必須將充氣 裝置對準入氣口且充氣效率不佳之問題。 再者，當第一外膜2a與第二外膜2b由平面狀態膨脹 為具有弧度之立體狀時，未設置複數強化接著部8處會因 充氣而膨脹，設置複數強化接著部8處不會充氣膨脹，因 此於充氣時因自然落差而於第二方向上形成緊縮，使得 第一外膜2a與第二外膜2b緊縮而於第二方向上產生位移 099131420 表單編號A0101 第12頁/共45頁 0992055060-0 201121848 ’以利用複數強化接者部8擠壓片内膜1 s與1 b，使其於 第一方向上向外拉開並自動開啟入氣口 2e有效解決在習 知空氣密封體中，無法開啟入氣口而造成無法充氣之問 題。 Ο 再者，於步驟105之後，沿第二方向以第三熱封線 4c接著第一外膜2a與第二外膜2b，使第一外膜2a與第二 外膜2b之間在第二熱封線4a與第三熱封線4C之間在形成 充氣通道9，與複數入氣口 2e相連通’充氣通道9内之氣 體可同時經由複數入氣口 2e、象教氣體通道2f對複數氣 柱6充氣。 本發明之入氣口與氣柱同寬’因此從二片内膜之間 的任何處都可注入氣體至氣柱内，藉以提升充氣之便利 性，同時解決習用密封體因氣閥之人氣口過小而造成必 須將充氣裝置對準入氣口且充氣不完全等問題。 請參閱第11圖，本發明之氣柱形式係可依據欲包裝 ..... 1¾ r Ο 之物體之形狀而設計’本實施例徐以包裝酒瓶7為例，酒 瓶包含一瓶口 71、一瓶身73及-Hf瓦底75，接近瓶口 71之 瓶身73較窄，接近瓶底75之瓶身73較寬。本實施例之空 氣密封體1為一袋體，用以裝置酒瓶7 ’接近瓶口 Ή之瓶 身73較窄，所以包覆接近瓶口 71之瓶身73之第一氣柱6a 較大，接近瓶底75之瓶身73較寬’所以包覆接近瓶底75 之瓶身73之第二氣柱6b較小。本實施例之空氣密封體1主 要利用較大的該些第一氣柱6a及較小的該些第二氣柱6b 包覆酒瓶7之前後，如此可有效防止酒瓶7於運輸過程中 與其他酒瓶7發生碰撞。 另請參閱第12A及12B圖’承上述實施例，空氣密封 099131420 表單編號A0101 第13頁/共45頁 0992055060-0 201121848 體1只包覆酒瓶7之前後，使酒瓶7周圍仍有空隙，所以更 可以於接近瓶口 71之瓶身73主要由四個第一氣柱6a包覆 。另依據接近瓶底75之瓶身73之寬度，當接近瓶底75之 瓶身73之寬度越寬，包覆瓶身73之第二氣柱6b之數量越 多；當接近瓶底75之瓶身73之寬度越窄，包覆瓶身73之 第二氣柱6b之數量越少。如此酒瓶7之周圍都被該些第一 氣柱6a及該些第二氣柱6b包覆，如此有效更降低運輸過 程中酒瓶7與其他酒瓶7碰撞所產生之損壞率。 請一併參閱第13圖，承上述第11圖及第12A及12B圖 ，第11圖揭示利用空氣密封體1係包覆酒瓶7之前後，第 12A及12B圖揭示利用空氣密封體1係包覆酒瓶7之周圍。 第11圖及第12A及12B圖所揭示之空氣密封體1由複數個 單元相連，每一單元係包含一第一氣柱Ga及複數第二氣 柱6b，於本實施例之第二氣柱6b之數量為3個，第二氣柱 6b之數量主要依據酒瓶之瓶身寬度。第11圖之空氣密封 體1係由兩個單元相連，第12A及12B圖之空氣密封體1由 四個單元相連。第十三圖係繪出空氣密封體1之一單元， 空氣密封體1之每一單元包括第一外膜2a與第二外膜2b、 二片内膜la、lb、耐熱材料lc、複數通道接著部5a、複 數第二通道接著部5b、複數氣體通道2f、複數第一氣體 通道2g、複數第一熱封線3a、複數第四熱封線3b、二第 二熱封線4a、4b、一第一氣柱6a及複數第二氣柱6b。第 一外膜2a與第二外膜2b上下疊合，二片内膜la、lb設置 於第一外膜2a與第二外膜2b之間，二片内膜la、lb之間 於靠近頂部處塗佈長條狀的耐熱材料1 c。 複數通道接著部5a為以熱封手段形成者，複數通道 099131420 表單編號A0101 第14頁/共45頁 0992055060-0 201121848 接著部5a接著二片内膜la與lb及第一外膜2a，使得二片 内膜la與lb可貼著第一外膜2a。氣體通道2f位於複數通 道接著部5a之間，氣體從複數通道接著部5a所接著之二 片内膜la與lb之間通過。 二第一熱封線3a為以熱封手段形成者，沿第一方向 接著第一外膜2a、第二外膜2b及二片内膜la與lb，在此 ，第一方向為第一外膜2a、第二外膜2b及二片内膜la與 lb之長度方向。 Ο 二第二熱封線4a、4b為以熱封手段形成者，其沿第 二方向接著並位於第一外膜2a與第二外膜2b之二端，其 中，第二熱封線4a位於耐熱材料lc處而接著第一外膜2a 與内膜la、第二外膜2b與内膜lb，第二熱封線4b接著第 一外膜2a與第二外膜2b。在此，第二方向與第一方向相 交，為第一外膜2a、第二外膜2b及二片内膜la與lb之寬 度方向^ 〇 入氣口 2e為二片内膜la與lb於第二熱封線4a處相互 不接著而形成，且複數入氣口 2e連接於複數氣體通道2f 。在此，每一入氣口 2e之寬度為相同於相鄰之二條第一 熱封線3a所間隔之寬度。 然後要使每一單元具有一第一氣柱6a及三個第二氣 柱6b，二第四熱封線3b以熱封手段形成者，二第四熱封 線3b沿第一方向接著第一外膜2a及第二外膜2b，並位於 二第一熱封線3a之間，第一熱封線3a至第四熱封線3b之 距離與第四熱封線3b至另一第四熱封線3b之距離相等， 二第四熱封線3b之長度為酒瓶7之瓶身73由窄變寬處至瓶 099131420 底75之高度，二第四熱封線3b未與第二熱封線4b接著之 表單編號A0101 第15頁/共45頁 0992055060-0 201121848 一端分別設有一第一通道接著部5b，二第一熱封線3a對 應第四熱封線3b未與第二熱封線4b接著之位置亦設有一 第一通道接著部5b，複數第一通道接著部5b接著第一外 膜2a及第二外膜2b，複數第一通道接著部5b之間具有複 數第一氣體通道2g。由上述結構將原本一氣柱劃分成一 第一氣柱6a及三個第二氣柱6b。 充氣時拉開第一外膜2a與第二外膜2b，二片内膜la 與1 b隨之向外拉開而自動開啟入氣口 2 e，氣體經由入氣 口 2e流入複數氣體通道2f，複數氣體通道2f與第一氣柱 6a相連通，氣體沿著複數氣體通道2f充入第一氣柱6a， 複數第一氣體通道2g與複數第二氣柱6b相連通，氣體又 沿著複數第一氣體通道2g充入複數第二氣柱6b，第一外 膜2a與第二外膜2b向外拉開使第一氣枉6a及複數第二氣 柱6b充氣膨脹，氣體進入第一氣柱6a及複數第二氣柱6b 後壓迫二片内膜la與lb貼合在一起而封閉第一氣柱6a及 複數第二氣柱6b。 請參閱第14圖，承上述實施例，本實施例之空氣密 封體1為一袋體，並於袋體上設置一帶體10，方便使用者 直接提取連接為空氣密封體1之袋體之帶體10。上述帶體 10亦為一空氣密封體，請一併參閱第15圖，帶體10之空 氣密封體亦包含第一外膜2a與第二外膜2b、二片内膜la 、lb、耐熱材料lc、複數通道接著部5、氣體通道2f、複 數第一熱封線3、二第二熱封線4a、4b及一氣柱6。第一 外膜2a與第二外膜2b上下疊合，二片内膜la、lb設置於 第一外膜2a與第二外膜2b之間，二片内膜la、lb之間於 靠近頂部處塗佈長條狀的耐熱材料1 c。 099131420 表單編號A0101 第16頁/共45頁 0992055060-0 201121848 複數通道接著部5為以熱封手段形成者，複數通道接 著部5接著二片内膜la與lb及第一外膜2a，使得二片内膜 la與lb可貼著第一外膜2a。氣體通道2f位於複數通道接 著部5之間，氣體從複數通道接著部5a所接著之二片内膜 1 a與1 b之間通過。 二第一熱封線3a為以熱封手段形成者，沿第一方向 接著第一外膜2a、第二外膜2b及二片内膜la與lb，在此 ，第一方向為第一外膜2a、第二外膜2b及二片内膜la與 lb之長度方向。 Ο 二第二熱封線4a、4b為以熱封手段形成者，其沿第 二方向接著並位於第一外膜2a與第二外膜2b之二端，其 中，第二熱封線4a位於耐熱材料lc處而接著第一外膜2a 與内膜la、第二外膜2b與内膜lb，第二熱封線4b接著第 一外膜2a與第二外膜2b。在此，第二方向與第一方向相 交，為第一外膜2a、第二外膜2b及二片内膜la與lb之寬 度方向。 入氣口 2e為二片内膜la與lb於第二熱封線4a處相互 〇 不接著而形成，且入氣口 2e連接於氣體通道2f。在此， 每一入氣口 2e之寬度為相同於相鄰之二條第一熱封線3所 間隔之寬度。 復參閱第16圖，帶體10接著於袋體頂端，並利用一 第三熱封線4c固定帶體及密封第一外膜2a及第二外膜2b 之頂端，帶體之入氣口 2e不被第三熱封線4c密封，如此 第一外膜2a、第二外膜2b、第二熱封線4a及第三熱封線 4c之間形成充氣通道9，以充氣至袋體及帶體10。 雖然本發明的技術内容已經以較佳實施例揭露如上 099131420 表單編號A0101 第17頁/共45頁 0992055060-0 201121848 ，然其並非用以限定本發明，任何熟習此技藝者，在不 脫離本發明之精神所作些許之更動與潤飾，皆應涵蓋於 本發明的範疇内，因此本發明之保護範圍當視後附之申 請專利範圍所界定者為準。 【圖式簡單說明】 [0005] 第1圖為本發明第一實施例之外觀示意圖。 第2A圖為本發明第一實施例於製造時之示意圖（一）。 第2B圖為本發明第一實施例於製造時之示意圖（二）。 第2C圖為本發明第一實施例於製造時之示意圖（三）。 第3圖為本發明第一實施例之剖面示意圖（一）。 第4圖為本發明第一實施例之剖面示意圖（二）。 第5圖為本發明第一實施例另一態樣之外觀示意圖。 第6圖為本發明第二實施例之外觀示意圖。 第7圖為本發明第二實施例之剖面示意圖。 第8圖為本發明第三實施例之外觀示意圖。 第9A圖為本發明第三實施例於充氣時之示意圖（一）。 第9B圖為本發明第三實施例於充氣時之示意圖（二）。 第1 0 A圖為本發明第三實施例於充氣時另一視角之示意圖 (一）。 第1 0 B圖為本發明第三實施例於充氣時另一視角之示意圖 (二）。 第11圖為本發明第四實施例之剖面示意圖。 第12A圖為本發明第五實施例之俯視剖面示意圖。 第12B圖為本發明第五實施例之仰視剖面示意圖。 第13圖為本發明第四實施例及第五實施例之單元外觀圖 099131420 表單編號A0101 第18頁/共45頁 0992055060-0 201121848 第14圖為本發明第六實施例之剖面示意圖。 第15圖為本發明第七實施例之帶體外觀圖。 第16圖為本發明第七實施例之剖面示意圖。 【主要元件符號說明】 Ο ο 099131420 [0006] 1 空氣密封體 la/lb 内膜 lc 耐熱材料 2a 第一外膜 2b 第二外膜 2e 入氣口 2f 氣體通道 2g 第一氣體通道 3/3a 第一熱封線 3b 第四熱封線 5/5a 通道接著部 5b 第一通道接著部 4a/4b 第二熱封缚： ：.：....：.......... 4c ……’’第三熱 6 氣柱 6a 第一氣柱 6b 第二氣柱 7 酒瓶 71 瓶口 73 瓶身 75 瓶底 8 強化接著部 表單編號A0101 第19頁/共45頁 0992055060-0 201121848 9 充氣通道 10 帶體 099131420 表單編號A0101 第20頁/共45頁 0992055060-0BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an air seal body and a method of manufacturing the same, and more particularly to a continuously inflated air seal body and a method of manufacturing the same. [0002] [Previous Art] The air sealing body is made of a resin film and is formed into a gas column by heat sealing to form a gas column, and is provided with an inflation port which can be inflated, and when the gas is charged into the air column through the inflation port, the air The sealing body can be used as a cushioning material in the inner package. The conventional air-sealed body structure, such as the utility model, is disclosed in the patent application No. 5-95851, "The Sealing Bag for Fluids" patent, which is provided with independent check valves for each gas column, and the flow at the top of each check valve. The inlet is aligned with the heat seal line and then joined together. When the gas is filled into the inflation passage, the inflation passage expands to open the check valve, allowing gas to be charged into the gas column. However, since the respective check valves are independent of each other, the gas cylinders are each inflated, and it is impossible to simultaneously inflate a plurality of gas columns at the same time. Further, it is quite cumbersome in manufacturing, and it is necessary to place each check valve The heat sealing is performed at a predetermined position in the gas column. Then, once the check valve placement position or the heat sealing mold is followed by the positional deviation, the check valve cannot be fixed in the gas column, or the top inlet is beyond the heat sealing mold. Then, the heat sealing line will cause the gas to be filled into the inflation passage, and although the inflation passage expands, the check valve cannot be opened with the expansion of the inflation passage, and the gas cannot be charged into the air column. Another type of air-sealed body structure is, for example, the Republic of China Patent No. 00587049 "Installation structure of an opening and closing valve for a sealing body and a manufacturing device for a sealing body having an opening and closing valve", wherein a switch for the air entering the sealing body 099131420 uses two inner membranes and One side of the outer membrane then forms a path for the switching valve, Form No. A0101 Page 3 of 45 0992055060-0 201121848 When inflated, the sealing body expands to block the passage. This switching valve only describes how to block the air resistance of the sealing body. It does not leak, but when the air introduction passage is filled with gas and expands, even if the two outer membranes are pushed outward by the gas, the on-off valve does not pull outwards as the two outer membranes move, so The two inner membranes of the on-off valve are still attached together and cannot open the air passage inlet. According to the design, air cannot automatically enter the sealing body. In addition, in the conventional air sealing body, the inlet port of the check valve tip is narrow and its width is smaller than the width of the air column. Therefore, when inflating, the inflator must be aligned with the air inlet port, which is inconvenient for inflation work. Too small an air inlet structure will result in poor inflation efficiency. Therefore, how to design a sealing body, which can automatically open the air inlet and continuously inflate to save the inflation time, avoid the problem of incomplete inflation, and effectively improve the inflation efficiency, which is the inventor of the case and engaged in the related industries. Technical issues that the technical field needs to face. SUMMARY OF THE INVENTION [0003] In view of this, the present invention provides a continuous inflatable air sealing body, comprising: a first outer film; a second outer film and a first outer film; two inner film, between the first Between the outer membrane and the second outer membrane; a plurality of channel followers located on one side of the inner membrane followed by a second inner membrane; a plurality of gas passages located between the second inner membrane of the plurality of channels; Located between the two inner membranes; a plurality of first heat seal lines, followed by a first outer film, a second outer film, and two inner films along a first direction; and a second heat seal line along a second direction intersecting the first direction Next, one of the second heat seal lines is followed by the first outer film and the second outer film, and the other second heat seal line is located at the heat insulating member, and then the first outer film and the adjacent inner film and the second outer film are Adjacent inner membrane; a plurality of air inlets formed by the two inner membranes not adjacent to each other at the second heat seal line, connected to form number A0101, page 4 / total 45 pages 0992055060-0 201121848 plural gas passages, each into The width of the gas port is the same as the width of the adjacent two first heat seal lines; and a plurality of air columns are located between the first outer heat seal line and the first outer heat seal line, the first outer film, the second outer film and the second inner film, and the inner film is opened outward to open the plurality of air inlets. The gas flows into the plurality of gas passages through the plurality of gas inlet ports, and is filled into the plurality of gas columns to inflate and expand. After the gas enters the gas column, one end of the inner membrane is pressed to close the gas column, and the other end of the inner membrane is separated to form a gap. The invention also provides a method for manufacturing a continuous inflatable air sealing body, comprising the steps of: providing a first outer film and a second inner film; the inner film of the inner film has a heat insulating member; the heat sealing is followed by the inner film and the first outer film. Forming a plurality of channel followers, and forming a plurality of gas channels between the second inner membranes of the plurality of channels; providing a second outer film, overlapping the first outer film to make the second inner film first Between the film and the second outer film; a plurality of first heat seal lines along the first direction followed by the first outer film, the second outer film and the second inner film; and a second heat in a second direction intersecting the first direction The sealing line is followed by wherein V.. | a second heat sealing line is followed by the first outer film and the second outer film, and the second heat sealing line of Qinyi is located at the heat insulating member, and then the first outer film and the adjacent inner film a second outer () film and an adjacent inner film, the two inner films are not adjacent to each other at the second heat seal line to form a plurality of air inlets, each of the air inlets having the same width as the adjacent two first heat seals The width of the line spacing, and the first of the plurality of first heat seal lines and the plurality of second heat seal lines a plurality of gas columns are formed between the second outer membrane and the inner membrane; and the inner membrane is opened outward to open the plurality of gas inlets, and the gas flows into the plurality of gas passages through the plurality of gas inlet ports, and is filled with the plurality of gas cylinders to inflate After the gas enters the gas column, one end of the inner membrane is pressed to close the gas column, and the other end of the inner membrane is separated to form a gap. The preferred embodiment of the present invention and its effects are described in conjunction with the drawings. 099131420 Form No. A0101 Page 5 of 45 0992055060-0 201121848 As explained later. [Embodiment] [0004] 099131420 Please refer to FIG. 1, FIG. 2A, FIG. 2B, FIG. 2C®, FIG. 3, FIG. 4 and FIG. 5 for the continuous inflatable air sealing body of the present invention. First embodiment. The continuous inflatable air sealing body 1 of the present invention comprises: a first outer film 2& and a first outer film 2b, two inner 臈ia and ib, a plurality of channel end portions 5, a gas passage 2f, and a plurality of first heat seal lines 3 And the second heat sealing line “and the enthalpy, the plurality of air columns 6. The first outer film 2a and the second outer film 2b are superposed one on top of the other” two viscera a and lb are interposed between the first outer film 2a and the second outer film Between 2b, and placed at the top of the first outer ridge 2a and the second outer film 2b slightly lower, the width of the two inner membranes la and lb is the same as that of the first outer film 2a and the second outer film 2b, and the length is short. The first outer film 2a and the second outer film 2b, so that the two inner films 1& and the two sides of the lb are located in the first outer film 2a and the second outer film 2b, and are not aligned with the first outer film 2a and the second The two sides of the second outer membrane 2b (as shown in Fig. 2C). The structure of the two inner membranes 丨 and lb described above are only examples, and the invention is limited to one of the two films. The side edges may also be aligned with the sides of the tops of the first outer film 2a and the second outer film 2b (as shown in FIG. 5), and may be respectively heat-sealed by the first outer film 2a and the inner film ia, second. Adventitial ridge and top side of intima lb In addition, the two inner membranes are coated with a long strip of heat-resistant material ic (as shown in the figure) which is equal to the length of the two inner membranes la and lb near the top, which means that the heat-resistant material lc The width is substantially the same as the two inner films 1& and lb, so that the heat-resistant material ic is used as the air permeable passage. However, the present invention is divided into the heat-resistant material 1c as the heat insulating member, and may also be numbered in the soil form. A0101 Page 6 of 45; sin 0992055060-0 201121848 Place a barrier sheet at the top instead of the heat-resistant material lc for 'heat-sealing means and then remove the barrier sheet. Further, the heat resistant material lc may be applied between the two inner films la and lb at a predetermined length and a predetermined width, wherein the predetermined width may preferably be the same as the interval between the adjacent two first heat seal lines 3. The width. The plurality of channel followers 5 are formed by heat sealing means, and are located on one side of the two inner films la and lb, followed by two inner films la and lb and the first outer film 2a, so that the two inner films la and 1] ;) can be attached to the first outer film 2a (as shown in Figure 3) 'here' the channel follower 5 can be point, straight or curved, but the invention is not limited thereto, in addition, plural The channel follower 5 is located on one side of the two inner membranes la and lb and only the two inner membranes la and lb are followed, so that the two inner membranes la and lb are not attached to the first outer meal 2a or the second outer film 2b ( As shown in Figure 4). The plurality of gas passages 2f are located between the two inner membranes la and lb of the plurality of passages 5. The plurality of first heat seal lines 3 are heat sealed hands; the segment formers follow the first outer film 2a and the second outer film end films la and lb in the first direction, where the first direction is the first outer The film 2a, the second outer film 2b, and the two inner films 1& and the length direction of the lb" and the second heat seal lines 4a and 4b are formed by heat sealing means, which are followed by the second direction and located in the first outer film 2a and two ends of the second outer film 2b, wherein the 'second heat seal line 4a is located at the finernic material ic and then the first outer film 2a and the inner film la, the second outer film 2b and the inner medium lb, the second heat The sealing line 4b follows the first outer film 2a and the second outer film 2b. Here, the second direction intersects the first direction as the width direction of the first outer film 2a, the second outer film 2b, and the two inner films la and lb. 099131420 Form No. A0101 Page 7 / Total 45 Page 0992055060-0 201121848 The plurality of inlet ports 2e are formed by the two inner membranes la and lb not adjacent to each other at the second heat seal line 4a, and the plurality of inlet ports 2e are connected to the plurality of gases Channel 2f. Here, the width of each air inlet 2e is the same as the width of the interval between the adjacent two first heat seal lines 3. In this embodiment, since the portions of the two inner films la and lb beyond the second heat seal line 4a are too long, the excess portion will sag and cover the air inlet 2e, resulting in a problem of poor inflation. It is preferable that the portions of the films 1a and 1b project out of the second heat seal line 4a so as not to sag, but the degree of sag does not obscure the air inlet 2e. The plurality of gas columns 6 are located between the first outer film 2a, the second outer film 2b, and the two inner films la and lb of the plurality of first heat seal lines 3 and the second heat seal lines 4a and 4b. When inflating, the first outer film 2a and the second outer film 2b are pulled apart, and the two inner films la and 1b are pulled outward to automatically open the air inlet 2e, and the gas flows into the gas passage 2f via the air inlet 2e, and along The gas passage 2f is filled into the air column 6, and the first outer membrane 2a and the second outer membrane 2b are pulled outward to inflate the air column 6, and the gas enters the air column 6, and the two inner membranes la and lb are pressed together. On the other hand, the air column 6 is closed, and the first outer film 2a and the second outer film 2b are expanded from a planar state to a three-dimensional shape having a curvature, so that the other ends of the two inner films la and lb are separated to form a gap. Since the width of each air inlet 2e is the same as the width of the adjacent two first heat seal lines 3, that is, the width of the air column 6, the gas can be filled into the air column 6 in a stepless manner. The charging efficiency is improved, and in the conventional air sealing body, the inflating device must be aligned with the air inlet and the charging efficiency is poor because the air inlet is too small. Referring to Figures 6 and 7, a second embodiment of the continuously inflated air seal of the present invention is shown. The difference between this embodiment and the first embodiment is 099131420 Form No. A0101 Page 8 of 45 0992055060-0 201121848 The structure is inflated. In this embodiment, the method further includes: a third heat seal line 4c, wherein the first outer film 2a and the second outer film 2b are followed by heat sealing means in the second direction, so that the first outer film 2a and the second outer film 2b are Between the second heat seal line 4a and the third heat seal line 4c, an inflation passage 9 is formed to communicate with the plurality of air inlets 2e, and the gas in the inflation passage 9 can simultaneously pass through the plurality of air inlets 2e and the plurality of gas passages 2f. The plurality of gas cylinders 6 are inflated. Ο Referring to Figures 8, 9A, 9B, 10A and 10B, a third embodiment of the continuously inflated air sealing body of the present invention is shown. In the present embodiment, the first heat seal line 3 is further extendable to form a reinforcing back portion 8, which is located at the intersection of the plurality of first heat seal lines 3 and the second heat seal line 4a at the coated heat resistant material lc. Here, the plurality of reinforcing contigs 8 may protrude from the heat-resistant material lc and then the first outer film 2a and the inner film la, the second outer film 2b and the inner film lb. When the crucible is inflated, the first outer membrane 2a and the second outer membrane 2b are pulled outward in the first direction, because the first outer membrane 2a and the second outer membrane 2b are expanded from a planar state to a three-dimensional shape having a curvature, because the The plurality of reinforcing joints 8 will expand due to inflation, and the plurality of reinforcing joints 8 will not be inflated, so that the first outer membrane 2a and the second outer layer 2a are formed by the natural drop during inflation. The film 2b is contracted to be displaced in the second direction to press the two inner membranes la and lb with the plurality of reinforcing joints 8 to pull outwardly in the first direction and automatically open the air inlet 2e (eg, 8B) The figure and the Fig. 9B), that is, the mountain-like complex strengthening joint 8 is pressed toward the valley-shaped gas passage 2f, so that the two inner membranes la and lb of the gas passage 2f are pulled outward, so that the plural The air port 2e is naturally squeezed out, effectively solving the problem that the air inlet can not be opened in the conventional air sealing body and the air can not be inflated. 099131420 Form No. A0101 Page 9 / Total 45 Page 0992055060-0 201121848 Method of manufacturing continuous inflatable air sealing body , including the following steps Step 101: providing a first - 2a having a heat insulating member between the outer membrane and two endometrial ia and lb, and two endometrial la lb. An inner film la and lb are superposed on the first outer film 23, and a heat insulating member is preliminarily provided between the two inner films la and lb, and the width of the heat insulating member is substantially the same as the two inner films la and lb. The width, or the width of the heat insulating member is smaller than the width of the two inner films la and lb and is spaced apart from the two inner films. Here, the heat insulating material may be a heat resistant material, and the two inner films 1 & 11} is coated with a strip of heat-resistant material lc having the same length as the two inner membranes 13 and 15 near the top to make the air-resistant and permeable passage or the two inner membranes la using the heat-resistant material 1 < The heat-resistant material lc is applied in a manner spaced apart from one of the lbs; in addition, a barrier sheet may be placed near the top instead of the #heat-resistant material ^. Further, the two inner membranes are placed on the first outer film. The top of the 2a is slightly lower, the widths of the two inner membranes la and lb are the same as those of the first outer film 2a, and the length is shorter than the first outer film 2a. Therefore, the two sides of the inner film 13 and 11} are not aligned with the first side. An outer membrane 2a has two sides. In this aspect, since the two inner membranes and the lb are excessively long beyond the second heat seal line 4a, the excess portion will sag and cover the air inlet 2e, causing a problem of poor inflation, and therefore, within two months. It is preferable that the portions of the film 1a and 1b protrude from the second heat seal line 4a so as not to sag, but the degree of sag does not obscure the air inlet 2e. The structure of the two inner films la and lb described above is merely an example, and the present invention is not limited thereto. One side of the two inner films la and lb may also be aligned with the side of the top of the first outer film 2a. Step 102: heat sealing followed by two inner membranes 13 and 1}3 and a first outer membrane ^ 099131420 form number A0101 page 10 / total 45 pages 0992055060-0 201121848 to form a plurality of passages 5, and in the plural channel A plurality of gas channels 2f are formed between the next two inner membranes la and lb. The plurality of inner membranes la and lb and the first outer membrane 2a are formed by heat sealing means to form a plurality of channel end portions 5, so that the two inner membranes la and lb can be adhered to the first outer film 2a, wherein the channel end portion 5 can be It is dotted, linear or curved, but the invention is not limited thereto. Step 103: providing a second outer film 2b overlapping the first outer film 2a such that the two inner films la and lb are interposed between the first outer film 2a and the second outer film 2b. Here, the length and width of the second outer film 2b are the same as those of the first outer film 〇 2a. Step 104: The first outer heat seal line 3 is followed by the first outer film 2a, the second outer film 2b, and the two inner films la and lb in the first direction. Here, the first direction is the longitudinal direction of the first outer film 2a, the second outer film 2b, and the two inner films la and lb. Step 105: Following the second heat seal lines 4a and 4b in a second direction intersecting the first direction, wherein the second heat seal line 4b is followed by the first outer film 2a and the second outer film 2b, and the second heat seal line 4a is located at the coating heat-resistant material lc and is connected to the first outer film 2a and the inner film la, the second outer film 2b and the inner film lb, and the two inner films la and lb are not adjacent to each other at the second heat seal line 4a. The plurality of air inlets 2e are formed, and the width of each air inlet 2e is the same as the width of the adjacent two first heat seal lines 3, and is applied to the plurality of first heat seal lines 3 and the second heat seal lines 4a. A plurality of gas columns 6 are formed between the first outer film 2a, the second outer film 2b, and the two inner films la and lb which are followed by 4b. The second heat seal lines 4a and 4b are formed by heat sealing means, which are followed by the second direction and located at both ends of the first outer film 2a and the second outer film 2b. Here, the second direction intersects the first direction, which is the first outer film 2a and the second outer 099131420. Form No. A0101 Page 11 / Total 45 pages 0992055060-0 201121848 The width direction of the film 2b and the two inner films la and lb . Further, the first heat seal line 3 extends at a point where it intersects with the second heat seal line 4a at the heat-resistant material lc to form a reinforcing back portion 8, where the plurality of reinforcing joint portions 8 may protrude from the heat-resistant material lc The first outer membrane 2a and the inner membrane la, the second outer membrane 2b and the inner membrane lb are then placed. Step 106: The gas flows into the plurality of gas passages 2f through the plurality of gas inlets 2e, and is filled with the plurality of gas columns 6 to inflate and expand. After the gas enters the gas column 6, the gas is pressed into the inner membranes la and one end of the lb to close the gas column 6, The two inner membranes la and lb are separated from each other to form a gap. When inflating, the first outer film 2a and the second outer film 2b are pulled apart, and the two inner films la and 1b are pulled outward to automatically open the air inlet 2e, and the gas flows into the gas passage 2f via the air inlet 2e, and along The gas passage is filled into the gas column 6, and the first outer membrane 2a and the second outer membrane 2b are pulled outward to inflate the gas column 6, and the gas enters the gas column 6, and then the two inner membranes la and lb are pressed together. The gas column 6 is closed, and the first outer film 2a and the second outer film 2b are expanded from a planar state to a three-dimensional shape having a curvature, so that the other ends of the two inner films la and lb are separated to form a gap. Since the width of each air inlet 2e is the same as the width of the adjacent two first heat seal lines 3, that is, the width of the air column 6, the gas can be filled into the air column 6 in a stepless manner and greatly increased. The charging efficiency solves the problem that in the conventional air sealing body, since the air inlet is too small, the inflator must be aligned with the air inlet and the charging efficiency is not good. Further, when the first outer film 2a and the second outer film 2b are expanded from a planar state to a three-dimensional shape having a curvature, the plurality of reinforcing portions 8 are not provided to expand due to inflation, and the plurality of reinforcing portions 8 are not provided. The inflation expands, so that the first outer film 2a and the second outer film 2b are contracted due to the natural drop during inflation, so that the first outer film 2a and the second outer film 2b are contracted to generate a displacement in the second direction. 099131420 Form No. A0101 Page 12 of 45 Page 0992055060-0 201121848 'Using the plurality of reinforcing joints 8 to squeeze the inner film 1 s and 1 b, pulling it outward in the first direction and automatically opening the air inlet 2e effectively solves the problem in the conventional air sealing body In the middle, the air inlet cannot be opened and the problem of inflating cannot be caused. Further, after step 105, the first outer film 2a and the second outer film 2b are followed by the third heat seal line 4c in the second direction, so that the first outer film 2a and the second outer film 2b are in the second The heat sealing line 4a and the third heat sealing line 4C form an inflation passage 9 and communicate with the plurality of air inlets 2e. The gas in the inflation passage 9 can simultaneously pass through the plurality of air inlets 2e and the teaching gas passages 2f to the plurality of air cylinders. 6 inflatable. The air inlet of the invention has the same width as the air column. Therefore, gas can be injected into the air column from anywhere between the two inner membranes, thereby improving the convenience of inflation, and at the same time solving the problem that the conventional sealing body is too small due to the air valve. This causes problems such as having to align the inflator with the air inlet and incomplete inflation. Referring to Fig. 11, the air column form of the present invention can be designed according to the shape of the object to be packaged.. 13⁄4 r ' 'This embodiment uses the bottle 7 as an example, and the bottle contains a bottle mouth. 71. A bottle body 73 and a -Hf tile bottom 75, the bottle body 73 close to the bottle mouth 71 is narrow, and the bottle body 73 close to the bottle bottom 75 is wider. The air sealing body 1 of the embodiment is a bag body, and the bottle body 7 for installing the wine bottle 7' close to the bottle mouth is narrow, so that the first air column 6a covering the bottle body 73 close to the bottle mouth 71 is larger. The bottle body 73 near the bottom 75 is wider' so that the second air column 6b of the bottle body 73 covering the bottom 75 is smaller. The air sealing body 1 of the present embodiment mainly uses the larger first air column 6a and the smaller second air column 6b to cover the wine bottle 7 before, so that the bottle 7 can be effectively prevented from being transported during transportation. Collided with other wine bottles 7. Please also refer to Figures 12A and 12B'. In the above example, air seal 099131420 Form No. A0101 Page 13 / Total 45 Page 0992055060-0 201121848 Body 1 is only wrapped around the bottle 7 before there is still a gap around the bottle 7 Therefore, the bottle body 73 which is closer to the bottle opening 71 can be mainly covered by the four first air columns 6a. Further, according to the width of the bottle body 73 close to the bottom 75, the wider the width of the bottle body 73 close to the bottom 75, the more the second gas column 6b of the bottle body 73 is covered; when the bottle is close to the bottom 75 The narrower the width of the body 73, the smaller the number of second air columns 6b covering the bottle body 73. Thus, the circumference of the wine bottle 7 is covered by the first gas column 6a and the second gas column 6b, so that the damage rate caused by the collision of the wine bottle 7 with other wine bottles 7 during transportation is reduced. Please refer to FIG. 13 together with the above-mentioned FIG. 11 and FIGS. 12A and 12B. FIG. 11 shows that before the bottle 7 is covered with the air sealing body 1, the 12A and 12B drawings disclose the use of the air sealing body 1 system. Cover the circumference of the wine bottle 7. The air sealing body 1 disclosed in FIG. 11 and FIGS. 12A and 12B is connected by a plurality of units, each unit comprising a first gas column Ga and a plurality of second gas columns 6b, in the second gas column of the embodiment. The number of 6b is three, and the number of the second gas column 6b is mainly based on the width of the bottle. The air seal body 1 of Fig. 11 is connected by two units, and the air seal body 1 of Figs. 12A and 12B is connected by four units. The thirteenth drawing depicts a unit of the air sealing body 1. Each unit of the air sealing body 1 includes a first outer film 2a and a second outer film 2b, two inner films la, lb, a heat resistant material lc, and a plurality of channels. a second portion 5a, a plurality of second passages 5b, a plurality of gas passages 2f, a plurality of first gas passages 2g, a plurality of first heat seal lines 3a, a plurality of fourth heat seal lines 3b, two second heat seal lines 4a, 4b, A first gas column 6a and a plurality of second gas columns 6b. The first outer film 2a and the second outer film 2b are superposed one on another, the two inner films la, lb are disposed between the first outer film 2a and the second outer film 2b, and the two inner films la, lb are near the top A long strip of heat resistant material 1 c is applied. The plurality of channel followers 5a are formed by heat sealing means, the plurality of channels 099131420 Form No. A0101 Page 14 / Total 45 pages 0992055060-0 201121848 The second part 5a is followed by two inner films la and lb and the first outer film 2a, so that two The inner films la and lb may be attached to the first outer film 2a. The gas passage 2f is located between the plurality of passage portions 5a, and the gas passes between the two inner membranes la and lb which are followed by the plurality of passage portions 5a. The first heat seal line 3a is formed by a heat sealing means, and follows the first outer film 2a, the second outer film 2b, and the two inner films la and lb along the first direction. Here, the first direction is the first outer The length direction of the film 2a, the second outer film 2b, and the two inner films la and lb. The second heat seal line 4a, 4b is formed by a heat sealing means, which is located along the second direction and located at both ends of the first outer film 2a and the second outer film 2b, wherein the second heat seal line 4a is located The heat resistant material lc is followed by the first outer film 2a and the inner film 1a, the second outer film 2b and the inner film 1b, and the second heat seal line 4b is followed by the first outer film 2a and the second outer film 2b. Here, the second direction intersects the first direction, and is the width direction of the first outer film 2a, the second outer film 2b, and the two inner films la and lb. The air inlet 2e is the two inner films la and lb. The two heat seal lines 4a are formed without each other, and the plurality of gas inlets 2e are connected to the plurality of gas passages 2f. Here, the width of each air inlet 2e is the same as the width of the interval between the adjacent two first heat seal lines 3a. Then, each unit is provided with a first air column 6a and three second air columns 6b. The second and fourth heat seal lines 3b are formed by heat sealing means, and the second and fourth heat seal lines 3b are followed by the first direction in the first direction. The outer film 2a and the second outer film 2b are located between the two first heat seal lines 3a, the distance between the first heat seal line 3a to the fourth heat seal line 3b and the fourth heat seal line 3b to the other fourth heat The length of the sealing line 3b is equal, and the length of the second and fourth heat sealing lines 3b is the height of the bottle 73 of the wine bottle 7 from the narrow width to the height of the bottom of the bottle 099131420, and the second and fourth heat sealing lines 3b are not sealed with the second heat sealing. Line 4b is followed by form number A0101. Page 15/45 pages 0992055060-0 201121848 One end is respectively provided with a first passage 5b, and the first heat seal line 3a corresponds to the fourth heat seal line 3b and the second heat seal line. 4b is further provided with a first channel follower 5b, a plurality of first channel followers 5b followed by a first outer film 2a and a second outer film 2b, and a plurality of first gas channels 2g between the plurality of first channel followers 5b . According to the above structure, the original gas column is divided into a first gas column 6a and three second gas columns 6b. When inflating, the first outer film 2a and the second outer film 2b are pulled apart, and the two inner films la and 1b are pulled outward to automatically open the air inlet 2e, and the gas flows into the plurality of gas passages 2f through the air inlet 2e, plural The gas passage 2f is in communication with the first gas column 6a, the gas is charged into the first gas column 6a along the plurality of gas channels 2f, and the plurality of first gas channels 2g are in communication with the plurality of second gas columns 6b, and the gas is first along the plural first The gas passage 2g is filled into the plurality of second gas columns 6b, and the first outer membrane 2a and the second outer membrane 2b are pulled outward to inflate the first gas cylinder 6a and the plurality of second gas cylinders 6b, and the gas enters the first gas column 6a. And after the plurality of second gas columns 6b are pressed, the two inner membranes la and lb are pressed together to close the first gas column 6a and the plurality of second gas columns 6b. Referring to FIG. 14 , in the above embodiment, the air sealing body 1 of the present embodiment is a bag body, and a belt body 10 is disposed on the bag body, so that the user can directly extract the belt body connected to the air sealing body 1 . Body 10. The belt body 10 is also an air sealing body. Please refer to FIG. 15 together. The air sealing body of the belt body 10 also includes a first outer film 2a and a second outer film 2b, two inner films la, lb, and a heat resistant material. Lc, a plurality of channel followers 5, a gas channel 2f, a plurality of first heat seal lines 3, two second heat seal lines 4a, 4b, and an air column 6. The first outer film 2a and the second outer film 2b are superposed one on another, the two inner films la, lb are disposed between the first outer film 2a and the second outer film 2b, and the two inner films la, lb are near the top A long strip of heat resistant material 1 c is applied. 099131420 Form No. A0101 Page 16 / Total 45 Page 0992055060-0 201121848 The plurality of passages 5 are formed by heat sealing means, and the plurality of passages 5 are followed by two inner films la and lb and the first outer film 2a, so that two The inner films la and lb may be attached to the first outer film 2a. The gas passage 2f is located between the plurality of passage portions 5, and the gas passes between the two inner membranes 1a and 1b following the plurality of passage portions 5a. The first heat seal line 3a is formed by a heat sealing means, and follows the first outer film 2a, the second outer film 2b, and the two inner films la and lb along the first direction. Here, the first direction is the first outer The length direction of the film 2a, the second outer film 2b, and the two inner films la and lb. The second heat seal line 4a, 4b is formed by a heat sealing means, which is located along the second direction and located at both ends of the first outer film 2a and the second outer film 2b, wherein the second heat seal line 4a is located The heat resistant material lc is followed by the first outer film 2a and the inner film 1a, the second outer film 2b and the inner film 1b, and the second heat seal line 4b is followed by the first outer film 2a and the second outer film 2b. Here, the second direction intersects the first direction as the width direction of the first outer film 2a, the second outer film 2b, and the two inner films la and lb. The air inlet 2e is formed such that the two inner membranes la and lb are not adjacent to each other at the second heat seal line 4a, and the air inlet 2e is connected to the gas passage 2f. Here, the width of each air inlet 2e is the same as the width of the interval between the adjacent two first heat seal lines 3. Referring to Figure 16, the tape body 10 is then attached to the top end of the bag body, and the tape body is fixed by a third heat sealing wire 4c and the top ends of the first outer film 2a and the second outer film 2b are sealed. The air inlet 2e of the tape body is not Sealed by the third heat seal line 4c, such that the first outer film 2a, the second outer film 2b, the second heat seal line 4a and the third heat seal line 4c form an inflation passage 9 for inflating to the bag body and the belt body. 10. Although the technical content of the present invention has been disclosed in the preferred embodiment as above, 099131420, Form No. A0101, Page 17 of 45, 0992055060-0, 201121848, which is not intended to limit the present invention, and anyone skilled in the art without departing from the invention. The scope of the present invention is intended to be included in the scope of the present invention, and the scope of the present invention is defined by the scope of the appended claims. BRIEF DESCRIPTION OF THE DRAWINGS [0005] Fig. 1 is a schematic view showing the appearance of a first embodiment of the present invention. Fig. 2A is a schematic view (1) of the first embodiment of the present invention at the time of manufacture. Fig. 2B is a schematic view (2) of the first embodiment of the present invention at the time of manufacture. Fig. 2C is a schematic view (3) of the first embodiment of the present invention at the time of manufacture. Figure 3 is a cross-sectional view (1) of the first embodiment of the present invention. Figure 4 is a cross-sectional view (2) of the first embodiment of the present invention. Fig. 5 is a perspective view showing another aspect of the first embodiment of the present invention. Figure 6 is a schematic view showing the appearance of a second embodiment of the present invention. Figure 7 is a schematic cross-sectional view showing a second embodiment of the present invention. Figure 8 is a schematic view showing the appearance of a third embodiment of the present invention. Fig. 9A is a schematic view (1) of the third embodiment of the present invention when inflated. Fig. 9B is a schematic view (2) of the third embodiment of the present invention when inflated. Fig. 10A is a schematic view showing another perspective of the third embodiment of the present invention when inflated (1). Figure 10B is a schematic view of another perspective view of the third embodiment of the present invention when inflated (2). Figure 11 is a schematic cross-sectional view showing a fourth embodiment of the present invention. Figure 12A is a schematic cross-sectional view showing a fifth embodiment of the present invention. Fig. 12B is a schematic cross-sectional view showing the fifth embodiment of the present invention. Figure 13 is a perspective view of a unit according to a fourth embodiment and a fifth embodiment of the present invention. 099131420 Form No. A0101 Page 18 of 45 0992055060-0 201121848 FIG. 14 is a cross-sectional view showing a sixth embodiment of the present invention. Fig. 15 is a view showing the appearance of a belt according to a seventh embodiment of the present invention. Figure 16 is a schematic cross-sectional view showing a seventh embodiment of the present invention. [Main component symbol description] Ο ο 099131420 [0006] 1 air seal body la/lb inner film lc heat resistant material 2a first outer film 2b second outer film 2e air inlet 2f gas passage 2g first gas passage 3/3a first Heat seal line 3b Fourth heat seal line 5/5a Channel follower 5b First passage follower 4a/4b Second heat seal: :.:....:.......... 4c ... ...''Third Heat 6 Air Column 6a First Air Column 6b Second Air Column 7 Wine Bottle 71 Bottle Port 73 Bottle Body 75 Bottle Bottom 8 Reinforced Bottom Form Number A0101 Page 19 / Total 45 Page 0992055060-0 201121848 9 Inflatable channel 10 belt body 099131420 Form number A0101 Page 20 / Total 45 page 0992055060-0