TWM364242U - Touch pad for variety of sensing - Google Patents

Touch pad for variety of sensing Download PDF

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Publication number
TWM364242U
TWM364242U TW97222317U TW97222317U TWM364242U TW M364242 U TWM364242 U TW M364242U TW 97222317 U TW97222317 U TW 97222317U TW 97222317 U TW97222317 U TW 97222317U TW M364242 U TWM364242 U TW M364242U
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Taiwan
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conductive layer
sensing
touch panel
portions
sensing portion
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TW97222317U
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Chinese (zh)
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Jao-Ching Lin
Lin Abel Chu
Chang-Sheng Chang
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Yuan Mao Technology Co Ltd
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Priority to TW97222317U priority Critical patent/TWM364242U/en
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M364242 五、新型說明: , 【新型所屬之技術領域】 本創作係有關於一種觸控板(Touch Pad),尤指一種可 大幅簡化結構即具可兼具電阻式與電容式優點之觸控板者。 【先前技術】 隨著攜帶型與互動式電子產品不斷地推成出新,觸控板 幾乎已成為該麵電子產品之指標玉具。在市場需求的 催促下’觸控板製作品質纽能的雜,讓價格下降及產量 - 提升_控板更能廣泛地翻在各式電子產品巾。觸控板的 '應縣理雜多元,A致上可分為四種:電阻式觸控板、電 容式觸控板、音波式觸控板與光學式觸控板。也因為該等觸 控板應用原理不同,其製程、功能、使用方式與優缺點乃至 於應用層面也各具特色。 射’電阻式觸控板由於採按壓式感應,所以不限於何 種觸控媒介,手指、鉛筆、門禁卡或是戴著手套都可以使用, 加上產品價格便宜,因此主要的應用在:手機、個人數位助 理⑽)、全球衛星定位系統⑽)等消費型電子產品。反 之,電容式觸控板由於製程步驟較為繁複,控制晶片與電路 都相對的比電阻式觸控板複雜,因此多應用於:筆記型電 腦、銀行纖提款機等高單價電子產品上。而音波式盘光與 M364242 式觸控板由於其技術與製程尚未相當成熟,故多應用於大尺 寸之高單價電子產品上。 電阻式觸控板的結構大致上係由:一塊軟性導電板14 與一位於其下方的硬質導電板18所組成,同時,該兩塊平 板的中間係分佈有若干間隔器(spacer)16,使該兩塊平板在 不艾C力的情況下彼此沒有電氣接觸。其量測方法主要分為 兩種.種疋上下兩塊導電板皆可接收的四線式;另一種則 是上方導電板只有接收功能的五線式。 由於四線式的上下兩塊導電板上皆可接收,也就是說,M364242 V. New Description: , [New Technology Area] This creation is about a touch pad, especially a touch pad that can greatly simplify the structure and has both resistance and capacitance. By. [Prior Art] With the continuous development of portable and interactive electronic products, the touchpad has almost become an indicator of the electronic products of this surface. Under the urging of market demand, the quality of the touchpad production is mixed, and the price is reduced and the output is increased. The control panel can be widely used in various electronic products. The touchpad's 'Ying County's multi-dimension can be divided into four types: resistive touchpad, capacitive touchpad, sonic touchpad and optical touchpad. Because of the different application principles of these touch panels, their processes, functions, usage methods, advantages and disadvantages, and even application levels also have their own characteristics. Because of the touch-sensitive induction, the resistive touch panel is not limited to any kind of touch medium. Fingers, pencils, access cards or gloves can be used. Plus, the products are cheap, so the main applications are: mobile phones. Consumer electronic products such as personal digital assistants (10) and global satellite positioning systems (10). Conversely, due to the complicated process steps of the capacitive touch panel, the control chip and the circuit are relatively more complex than the resistive touch panel, so they are mostly used in high-priced electronic products such as notebook computers and bank fiber dispensers. The sonic disk and M364242 type touchpad are not mature enough for their technology and process, so they are used in high-priced electronic products of large size. The structure of the resistive touch panel is generally composed of a flexible conductive plate 14 and a rigid conductive plate 18 located underneath, and a plurality of spacers 16 are disposed in the middle of the two flat plates. The two plates have no electrical contact with each other without the force of C. The measurement method is mainly divided into two types: a four-wire type in which both upper and lower conductive plates can be received; the other is a five-wire type in which the upper conductive plate has only a receiving function. Because the four-wire type of upper and lower conductive plates can be received, that is,

其上下兩塊導電板邊緣上各設有一對電極,而且,一對是X — 軸對稱的電極’另—對則是Y軸對稱的電極。當χ軸對稱之 兩邊緣相對電極被施加—頓斜,料電板上各點便會產 生不同的包位’此時’另一塊導電板上的丫軸對稱電極便可 作為量測用,在上下兩塊導電板受按Μ而局部接觸時,按壓 點Α1上的電位便可經由γ軸對稱電極測出。此時,若上下 導電板上皆鑛有均勻分布的導電膜,則該按壓點Α1的電位 便3跟雜壓點Α1與邊緣兩電極之間的n直轉呈線性關 係,如此’該按壓點A1在X軸與γ軸的分量便可從上下導 電板交替量測的電位得出。 五線式偵測按壓點位置的方式與四線式的相同,不同點 在於五線式的上方導電膜15只有接收的功能,實施X、γ軸 M364242 電[差之電極171、172、173、174全在下方導電膜17上, 而上方導電膜15上只有存在量湖的電極⑸。如第3A1J 所示田於Y軸稱電極171、172上施加電壓差時(實線電 路)电極171與電極172之間會形成線性電位差,而電才亟 151便會回傳該按壓點A1的電位,其約略等於 剛/⑻獨,其找阻R1射2又大致等於—均勻分布導 電膜之面電阻乘以該按壓點與電極171、172之垂直距離, 便可由此得出該按壓點在X軸的分量;同理,當實施電路改 為第3A圖令的虛線連接時’該上方導電膜15便可以量測出 5亥按壓點A1在γ轴上的分量。 由於電阻R1、R2、R3與R4係與該按壓點μ與電極pi、 172、173、174之間的垂直距離呈線性相關,所以,計算出 的X、Y軸分量的解析度與該按壓點A1電性接觸的範圍有 關,也就是跟按壓使用物體的尖端粗細有關。因此,電阻式 觸控板較適合義於手寫嘴圖料需要較高解析度的指標 操作上’例如:GPS導航系統等小型電子產品、繪圖板或手 寫板等等。然而,難轉觸控板的方式,卻科造成上下 導電膜15、17的磨損與按壓頂板丨4的應變疲乏,故使用壽 命有限並不適合常態性或於使用頻繁之公共場合中使用;同 時’電阻式觸控板的解析度係與使用之媒介尖端粗細有關, 倘若使用之媒介尖端較粗(例如:較大手指或鈍型物質),則 不易測出按壓點之位置;此外,由於導電膜的面電阻會隨著 M3 64242 溫度而變化,電阻式觸控板計算出的距離會隨著溫度變化而 產生偏移,所以並不適用於溫度車父尚或溫度變化過大的環境 中使用。 由此可知,雖然電阻式觸控板可以操作解析度較高的動 作,不過,由於其量測距離的準確度係與導電膜的品質有很 大的關係,分布越均句的導電膜,其接收電壓與面電阻的線 性關性越好,該按壓點A1的距離也就越準確。然而,當導 電膜均勻度不夠、操作次數多有磨損、或是溫度升高時,都 會使後續的訊號處理模組計算出的距離產生偏移。同時,傳 統電阻式觸控板並不能感應多物體的接觸行為’所以在應用 上’傳統電阻式觸控板仍然有許多的限制。 因此,能彌補電阻式觸控板不足的電容式觸控板亦具有 相當的市場佔有率。如同電阻式觸控板—樣,電容式觸控板 亦可以分職測出χ、γ軸的分量,叹感應原理與實施物 體不同。兩軸電容式觸控板的大致結構如第3Β圖所示,其 操作方法係個手指或是具電性之物於面板1G表面接 觸’而該面板10下方係為複數第一軸線跡lla、llb所在之 第一轴感應層Π。當手減導體置於該面板上時,其具有的 電!·生條件將使該複數鄉_軸線跡林同水平麟上產生 不同的電容反應,同時,若將該複數條第一軸線跡以χ或γ 軸對稱方式_排序,便可以從各條的電容反應強弱計算出 趣觸點Α1在Υ或X軸上的分量。同樣地,在該第一轴感 M36(4242 I » '應層11下方再佈置一絕緣層12以及分佈有若干第二軸線跡 13a之第二軸感應層13,並將該第二軸線跡13a以Y或X軸 對稱方式陣列排序,便可以擷取出該接觸點A1在X或Y軸 上的分量。 由於電容式觸控板係感應該手指或導體上電性所造成 之電谷變化,並不需要加力按壓觸控板,因此,不會對觸控 板的薄膜電極或按壓面板產生磨損或雜疲乏,使用壽命相 _ 當的長,比之電阻式觸控板更適用於常態性或經常使用之公 共性電子產品上。 〇除此之外,傳統電阻式觸控板接收用的導電膜只能接收 2點接觸峨,故只_於單__接觸;反之,由於電 觸控板具有複數條獨立接線的第一軸線跡與第二軸線 f所以可以分辨出多點操作的接觸,讓觸控_功能更加 夕几化例如.最新流行的iph〇ne手機,使用多手指觸控 • 來進行不同手勢觸發,簡化操作手續増加使用功能。 相對於電阻式敏板肢周遭溫度與使用次數的影 響,電容式_板對溫度與使用次蚊有太大反應,卻容易 十周,電錢的干擾、人體(手指)的身體狀況、環境濕度有 =酸化巧此,電容式觸控板並不_於溫度太潮濕的環 兄使用時π著手套或使用沾滿水的手指、及裝置、配備或 使用於會產生電磁波的產品t,特別是輕射出的電磁波頻率 7 M364242 在觸控板電容反應的範圍内。 也是因為電阻式與電容式觸控板各有其優缺點,所以各 有其應用的範ϋ以及市場需求。然而,當攜帶獅產品越做 越小,使用功能部越來越多時,單單使用電阻式觸控板或電 谷式觸控板已不能滿足新式產品的需求。例如:電阻式觸控 板7〇成傳統單點觸發的指標功能,當需要使用多手指手 勢觸發功能時卻不能執行’此外,電阻式觸控板只適用於個 人非吊態使用、或使用哥命不長的產品上,也容易受到溫度 的影響而產生位置飄移現象;然而,電容式觸控板雖可執行 多手指手勢觸發的功能,但卻沒有電阻式觸控板使用筆形物 尖端操作之解析度,也容易受人體狀況、環境濕度、及周遭 電磁波強度的影響。 故一種疊合電容式觸控板A以及電阻式觸控板B的新型 板體係揭示於中華民國新型專利證號M321553中。如第1圖 所示’該專利中所述之第一觸控板A即為:面板1〇、第一幸由 感應層11、絕緣層12、第二轴感應層13以及頂板Η依序 定合而成,具有傳統電容式觸控板的功能;而該專利中所述 之第二觸控板B即為:頂板14、上方導電膜15、間隔球放 置區16、下方導電膜17以及基板18依序疊合而成,具有傳 統電阻式觸控板的功能。雖然上述之專利可以將傳統之電阻 式及電容式結合成單一之觸控板結構;但基本上,該專利僅 係直接將一傳統電容式觸控板與一傳統電阻式觸控板相互 M364242 1而成’只節省了電容式與電阻式觸控板朗使用的 緣體材f而已。雖然,使用上可同時或㈣使用電容 式二電阻式繼板的魏,卻造_控板赌解度與重量 變仔加乘,使得鱗利提㈣多I觸控板最可望_的攜帶 型電子產品㈣更厚更重,違反該項產品設計的本質。 j除此之外’電容式與電阻式/f狀結構的加乘,使得原先 ,必需斤斤計較的觸她透光率更加雪上加霜。舉例來說, 右以原先具有95%透光率的電容式觸控板來看,疊加上一具 ㈣腿絲的電阻式糖板,其透光率#場就降低為概、, 祕的透絲與市場上現行稿控螢幕透光率減太大,產 品的市場競爭性將大大的減少。 採用電谷式觸控板在上電阻式觸控板在下的疊合板 體,其在雜式_應能力也將大幅減少。由於電阻式觸控 板係根據上導電膜與下導電膜接觸時的電壓來決定按壓點 A1的位置,若該上導電膜上覆蓋的層數越來越厚,例如:該 絕緣層12加上面板1〇的厚度可能就超過lmm以上,在加上 原本的頂板14的厚度’將使得要達到電氣接觸的按壓動作 要非常的大’這將影響該電阻式觸控板的靈敏度與反應速 度’對於依賴電阻式觸控板操作之手寫與繪圖功能會出現運 行困難、斷線、不連續的情形。 直接採用電容式與電阻式疊加的觸控板在產品製程與 M364242 成本控制上也存在著不少賊。第―,使財加的方式,產 品的製造與成本並沒有因為疊合而節省還是需要電容式與 電阻式兩個觸控板的製程與成本’同時還多了將兩塊觸控板 組合的製程;第二’電容式與電阻式觸控板的連接排線上依 舊是各走各的線,並沒有因為疊合而精簡,反而成品後的排 線數目與厚度都增加了—倍;第三,由於多出—條傳輸排 線,其連接至後續訊號處理模組之走線也會需要重新設計, 排線的組破與走線的佈置都將增加產品的製程與成本。 因此,如何能提供一種兼具電阻式與電容式觸控板優 點,同時觸控板的層數、厚度以及排線數目都不致於增加, 又觸控板的靈敏度與透光性也不致於降低很多之多元感應 觸控板係為本創作人致力達成之目標。 【新型内容】 為解決上述習知技術使用上的問題,本創作提出一種多 元感應觸控板(touch pad for variety of sensing),能同時兼具電 容式與電阻式觸控板的優點,卻僅需要兩層組成結構,包 括:-上導電相及-下導電層。該上導電層又具有複數上 感應部以及與其躲連接之上接合部,射,該上感應部係 位於該上導鶴的表面置巾;而該上接合部係位於該上導電 層的表面邊緣。此外,該下導電層亦具有複數下感應部以及 M364242 電芦下接合部,其中,該下感應部係位於該下導 緣的表面邊 ”以Ιτ我層細訂感應部触上導謂之該上感 應邛Μ—疋距離相對設立。 當手轉職辦物,_鳩部與下 ^柯形成與該手指或導體距離_的電容反應,且該電 ^應可分別透過該上接合部與下接合部測得。而該上感應 稍:感應部上下重疊得部分可因物體按塵上導電層而彼 此電风導通’並·該上接合部於該上感應部或該下接合部 於該下感應部上形成之電位差,產生至少—個與該電氣導通 點距離相關之電氣訊號。 本創作另提出-種多元感應觸控板(祕_鈿v把吻 〇f_㈣,能同時兼具電容式與電阻式觸控板的優點,其 包括.-上導電層、—導路層以及—下導電層所組成。其中 該上導電層係具有複數上感應部以及與其電性連接之上接 。部’該上感應部係位於該上導電層的表面置中;而所述之 該上接合部係位於該上導電層的表面邊緣。而該導路層係具 有複數導電橋’且料電橋係設置於任兩個該上感應部間之 表面上,令該任兩個上感應部之間電氣導通。此外,該下導 電層具有表面置中之一導電膜以及與其電性連接並位於表 面邊緣之複數下接合部。且’該下導電層係贿導電膜與該 上電層之δ亥上感應部及该導電橋以一定距離相對設立。 M364242 _'部212之上彳,用以接受該手指或導體之接觸,且該絕 緣體薄片具有撓性’使該上導電層受該物體麵而產生局部 下!1曰形又’ 4令該上感應部212與該下感應部222彼此接觸 形成電氣導通。 "’电运22又可包括··—基板224位於該複數下感 應部222之下方’用以提供該下導電層受按壓時之支樓。 而該上導電層21與該下導電層22之間的空間可佈置有 若干烟隔li(Spaeer)3,⑽財域轉,供以在未受 _時隔絕該複數上感應部與該複數下感應部之電氣接 1該間隔器可為包覆於該上導電層與下導電制的微小粒 狀彈立體結構’例如:球狀、柱狀、滾筒狀、蜂巢 電容反應的觸控條件設定及該下感麟對 該微小粒何_㈣⑽_, 感應部212與該下感應部 L力排開讓該上 通。該微小粒子亦可分_===部電氣' 212與下感應部222之固定部分得以受按壓 微小粒子亦可部分峡及 彳这而⑸導通。該 供不同的按壓功能。d 111 <於該空間中,以提 本創作第—實施例中該上感應物與該上接合細 M364242 供不同的按壓功能。 本創作第二實施例中該上感應部212、該上接合部212、 該導電橋23卜該導電膜223與該下接合部221之排列方式 如第5A圖所舉例。該上感應部係為一 γ軸對稱陣列Μ%以 及複數填猶Y姆稱陣列212a之間空間的點陣列腿, 該Y軸對_列212a末端之—電性連接至位於下側邊緣之 該上接合部211a。該導電橋231係位於該兩χ轴向相鄰點陣 列212b之間’且該導電橋231具有一絕緣墊片讓以及橫 跨該絕緣墊片231b兩側之C型導路231a。其中,該絕緣墊 片231b之範圍可涵蓋該γ軸對稱陣列212&與該c型導路 231a交錯之區域,隔絕該γ轴對稱陣列弧與該c塑導路 231a之間的電氣連接。而該c型導路2加的長度可橫跨該 兩X軸向相鄰點陣列㈣之間,使該兩點陣列㈣得以透 ㈣C型導路231a電氣導通。該導電橋231可沿著χ轴向 分佈’使得該點陣·2b形成若干條χ軸對稱陣列,同時, X X軸對稱陣列的末端具有延伸部與位於該抑彳邊緣之上接 合部211b電性連接。 該導電膜與該表面四周邊緣之下接合部221之間亦有電 性連接。當f要量測魏阻反應訊號時,即於該左側下接合 部221a與該右側下接合部灿上施加一電壓差v(如第5八 扪’當該上導電層受按壓壓力下陷時,令該按壓點M附近 之該上感應部212a、212b以及該導電橋231與該導電膜223 17 M364242 電軋導通,故量測該上接合部211a、211b與該右側下接合 邛221b之間的電壓2i22c ’便可從該上感應部、導電膜之電 阻與距離的關係,計算出該按壓點A1在X轴的分量。當需 要得出。雜壓點A1在γ軸上的分量,即於該上侧下接合部 221c與该下側下接合部221d上施加一電壓差v(如第5B 圖),當該上導電廣受按歷力下陷時,令該按壓點M附近 之該上感應„卩212a、212b以及該導電橋231與該導電膜223 電氣導通’量測出該下接合部221a、221b與該下側下接合 部221d之間的電壓2i22d。 該上感應部212a、212b除了上述使用單—末端連接該 上接合部211a、211b外,亦可將兩末端皆接往該上接合部 211a、211b。同時’該上接合部的位置不限定只有下側邊緣 或是右側邊緣。此外,該上感應部的排列方式亦可換成Μ 對稱陣列排列以及分佈其間的點陣列,而該導電橋23ΐ則是 沿著Υ軸向連接使該點陣列形成γ軸對稱陣列。 當需要制職容反應訊號時,便觸上感應部Υ軸對 稱陣列212a量測其電容訊號,而對該上感應部⑽對稱陣 列⑽不作任何電性連接,以作為χ轴分量的量測數據。 同理’對該上感應部X軸對稱陣列咖量測其電容訊號, 而對該上感應部Y軸對稱陣列⑽不作任何電性連接Γ以 作為Υ軸分量的量測數據。 18 M364242 由於該電容反應訊號係以陣列方式來表現,故可作為該 連續性電阻反應訊翻定位置時的參考數據,使從該電阻^ 應訊號判讀該按壓點A1位置的程序縮短,增加本創作對按 壓觸及的反應能力’使本麟之_板在手寫魏與綠圖能 力的表現上更為突出。 综上所述,依上述實财式與辑销朗本創作之目 的與作用,且本創作未見於其他公開專利與實際應用產品 :’亦符合_專财件,爰依法提㈣請,謹請獲准專利, 是所至盼。 上述實施例細式為應用本創作構想之舉例,並不因此 侷限本創作之補細,任何依本_構想延伸翻或修飾 改變,在視離本_之等效作用下,均縣含在本創作之 權力範圍内,合予陳明。 【圖式簡單說明】 第1圖係為先前專利之多層狀結構。 第2A圖係為本創作之第一實施例兩層結構。 第2B圖係為本創作之第二實施例三層結構。 第3A圖係為先前專狀電阻式敏板運作原理。 第3B圖係為先料狀電容式驗板運作原理。A pair of electrodes are disposed on the edges of the upper and lower conductive plates, and a pair of X-axis symmetrical electrodes and a pair of Y-axis symmetrical electrodes. When the two edges of the yaw axis are oppositely applied to the opposite electrode, different points will be generated at the points on the material board. At this time, the 丫-axis symmetric electrode on the other conductive plate can be used as a measurement. When the upper and lower conductive plates are partially contacted by the click, the potential on the pressing point Α1 can be measured via the γ-axis symmetric electrode. At this time, if the upper and lower conductive plates are uniformly distributed with a conductive film, the potential of the pressing point Α1 is linear with the n-turn between the hybrid pressure point Α1 and the edge electrodes, so that the pressing point The components of A1 on the X-axis and the γ-axis can be derived from the potentials measured alternately from the upper and lower conductive plates. The five-wire type of detecting the position of the pressing point is the same as that of the four-wire type. The difference is that the five-wire upper conductive film 15 has only the receiving function, and the X and γ axes M364242 are electrically operated [the electrodes 171, 172, and 173 of the difference, 174 is entirely on the lower conductive film 17, and only the electrode (5) of the amount of lake is present on the upper conductive film 15. When a voltage difference is applied to the Y-axis weighing electrodes 171 and 172 as shown in the 3A1J, a linear potential difference is formed between the electrode 171 and the electrode 172, and the electric switch 151 returns the pressing point A1. The potential, which is approximately equal to just/(8) alone, and its resistance R1 is substantially equal to - the uniform resistance of the surface resistance of the conductive film multiplied by the vertical distance between the pressing point and the electrodes 171, 172, thereby obtaining the pressing point In the X-axis component; similarly, when the implementation circuit is changed to the dotted line connection of the 3A-th order, the upper conductive film 15 can measure the component of the 5-H press point A1 on the γ-axis. Since the resistances R1, R2, R3, and R4 are linearly related to the vertical distance between the pressing point μ and the electrodes pi, 172, 173, and 174, the calculated resolution of the X and Y-axis components and the pressing point The range of A1 electrical contact is related to the thickness of the tip of the object being pressed. Therefore, the resistive touch panel is more suitable for the handwriting of the mouthpiece, which requires a higher resolution index, such as a small electronic product such as a GPS navigation system, a drawing board or a handwriting board, and the like. However, the manner in which the touch panel is difficult to turn, the wear and tear of the upper and lower conductive films 15, 17 and the strain on the top plate 丨 4 are fatigued, so the service life is limited and is not suitable for normal use or in public places where the use is frequent; 'The resolution of the resistive touch panel is related to the thickness of the tip of the medium used. If the tip of the medium used is thick (for example, a large finger or a blunt substance), it is difficult to measure the position of the pressing point; in addition, due to the conductivity The sheet resistance of the film will change with the temperature of M3 64242. The calculated distance of the resistive touch panel will shift with temperature, so it is not suitable for use in environments where the temperature is too high or the temperature is too large. It can be seen that although the resistive touch panel can operate with a high resolution, the accuracy of the measured distance has a great relationship with the quality of the conductive film, and the more uniform the conductive film is distributed, The better the linearity of the receiving voltage and the sheet resistance, the more accurate the distance of the pressing point A1. However, when the uniformity of the conductive film is insufficient, the number of operations is excessively worn, or the temperature rises, the distance calculated by the subsequent signal processing module is shifted. At the same time, traditional resistive touch panels do not sense the contact behavior of multiple objects. So in application, traditional resistive touch panels still have many limitations. Therefore, a capacitive touch panel capable of making up for the lack of a resistive touch panel has a considerable market share. Like a resistive touch panel, a capacitive touch panel can also measure the components of the χ and γ axes separately. The principle of sigh induction is different from that of the implementation object. The general structure of the two-axis capacitive touch panel is as shown in FIG. 3, and the operation method is that a finger or an electrical object contacts the surface of the panel 1G, and the lower portion of the panel 10 is a plurality of first axis traces 11a, The first axis sensing layer where llb is located. When the hand-reduction conductor is placed on the panel, the electric power of the hand-wounding condition will cause the complex township-axis trace forest to generate different capacitance responses on the horizontal lining, and at the same time, if the plurality of first-axis traces are χ or γ Axisymmetric _ sorting, you can calculate the component of the interesting contact Α1 on the Υ or X axis from the capacitance response of each strip. Similarly, an insulating layer 12 and a second axis sensing layer 13 distributed with a plurality of second axis traces 13a are disposed under the first axis sense M36 (4242 I » ' should layer 11 and the second axis trace 13a By sorting the array in a Y- or X-axis symmetry manner, the component of the contact point A1 on the X or Y axis can be extracted. Since the capacitive touch panel senses the electric valley change caused by the electrical power of the finger or the conductor, There is no need to pressurize the touchpad, so there is no wear or fatigue on the membrane electrode or the pressing panel of the touchpad. The long life is more suitable for normality than the resistive touchpad. Commonly used in public electronic products. In addition, the conductive film for receiving traditional resistive touch panels can only receive 2 points of contact, so only _ single __ contact; otherwise, due to the electric touch board The first axis trace and the second axis f with a plurality of independent wires can distinguish the contact of the multi-point operation, and the touch_function is more complicated. For example, the latest popular iph〇ne mobile phone uses multi-finger touch. To trigger different gestures and simplify the operator増 使用 使用 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对 相对Condition, ambient humidity = acidification, capacitive touchpad is not used when the temperature is too humid ring brother π gloves or use water-filled fingers, and devices, equipment or products that will generate electromagnetic waves t, especially the light-emitting electromagnetic wave frequency 7 M364242 is within the range of the touch panel capacitance reaction. It is also because the resistive and capacitive touch panels have their own advantages and disadvantages, so each has its application and market demand. When the lion products are getting smaller and smaller, and more and more functional parts are used, the use of resistive touch panels or electric valley touch panels alone cannot meet the needs of new products. For example: resistive touch panels 7〇 The traditional single-point trigger indicator function can not be executed when the multi-finger gesture trigger function is needed. In addition, the resistive touch panel is only suitable for personal non-suspended use, or use of a life-threatening The product is also susceptible to temperature drift and position drift; however, the capacitive touch panel can perform multi-finger gesture triggering, but there is no resolution of the resistive touchpad using the tip of the pen. It is also susceptible to human body conditions, environmental humidity, and the intensity of electromagnetic waves around it. Therefore, a new type of laminated capacitive touch panel A and resistive touch panel B is disclosed in the Republic of China new patent number M321553. 1 shows that the first touch panel A described in the patent is: panel 1 〇, first fortunately by the sensing layer 11, the insulating layer 12, the second axis sensing layer 13 and the top plate 定 are sequentially combined The function of the conventional capacitive touch panel is as follows: the second touch panel B described in the patent is: the top plate 14, the upper conductive film 15, the spacer ball placement area 16, the lower conductive film 17, and the substrate 18 The sequence is superimposed and has the function of a conventional resistive touch panel. Although the above patent can combine the traditional resistive and capacitive modes into a single touchpad structure; basically, the patent only directly connects a conventional capacitive touchpad and a conventional resistive touchpad to each other. M364242 1 It has only saved the edge material f used by the capacitive and resistive touch panels. Although, the use of the same or (d) the use of capacitive two-resistance type of the Wei, but the _ control board gambling and weight change, so that the sturdy (four) multi-I touch board is the most expected to carry Type electronic products (4) are thicker and heavier, in violation of the nature of the product design. In addition to this, the combination of capacitive and resistive/f-like structures makes it necessary for the original light to be more sensitive to the light transmittance. For example, the right side of the capacitive touch panel with 95% transmittance, the superposition of a (four) leg wire of the resistive sugar plate, the light transmittance of the field is reduced to a general, secret Silk and the market's current manuscript control screen transmittance is too large, and the market competitiveness of products will be greatly reduced. With the electric valley type touch panel on the lower laminated board with the upper resistive touch panel, its ability in the hybrid mode will also be greatly reduced. Since the resistive touch panel determines the position of the pressing point A1 according to the voltage when the upper conductive film is in contact with the lower conductive film, if the number of layers covered on the upper conductive film is thicker and thicker, for example, the insulating layer 12 is added. The thickness of the panel 1 可能 may exceed 1 mm or more, and the thickness of the original top plate 14 will make the pressing action to achieve electrical contact very large 'this will affect the sensitivity and reaction speed of the resistive touch panel' Handwriting and drawing functions that rely on resistive touchpad operation can cause difficulty in operation, disconnection, and discontinuity. Directly using capacitive and resistive superimposed touchpads, there are also many thieves in the product process and M364242 cost control. The first, the way of making money, the manufacturing and cost of the product is not saved by the overlap or the process and cost of the capacitive and resistive two touchpads. At the same time, the two touchpads are combined. Process; the second 'capacitive and resistive touchpad's connection line is still the line of each, and is not simplified because of the overlap, but the number and thickness of the finished line after the finished product has increased - times; third Since there is more than one transmission cable, the connection to the subsequent signal processing module will also need to be redesigned, and the group breaking and routing of the cable will increase the process and cost of the product. Therefore, how to provide a combination of resistive and capacitive touch panels, while the number of layers, thickness and number of wires of the touch panel are not increased, and the sensitivity and light transmittance of the touch panel are not reduced. Many of the multi-sensor touch panels are the goals that the creators are committed to. [New content] In order to solve the above problems in the use of the prior art, the present invention proposes a touch pad for variety of sensing, which can simultaneously have the advantages of both capacitive and resistive touch panels, but only A two-layer structure is required, including: an upper conductive phase and a lower conductive layer. The upper conductive layer further has a plurality of upper sensing portions and a bonding portion connected thereto, and the upper sensing portion is located on a surface of the upper guiding crane; and the upper bonding portion is located at a surface edge of the upper conductive layer . In addition, the lower conductive layer also has a plurality of lower sensing portions and a M364242 electrical sub-joining joint portion, wherein the lower sensing portion is located at a surface edge of the lower guiding edge, and the thin sensing portion touches the guiding portion The upper sensing 邛Μ-疋 distance is relatively established. When the hand is transferred to the office, the _ 鸠 and the lower ke form a capacitance response with the distance of the finger or conductor _, and the electric permeable can pass through the upper joint and the lower The upper portion is slightly measured: the upper portion of the sensing portion is vertically overlapped by the object, and the electric conductive layer is electrically connected to each other by the conductive layer; and the upper engaging portion is at the upper sensing portion or the lower engaging portion. The potential difference formed on the sensing portion generates at least one electrical signal related to the distance of the electrical conduction point. The present invention also proposes a multi-inductive touch panel (secret _钿v kiss 〇f_(4), which can simultaneously have a capacitive The advantages of the resistive touch panel include: an upper conductive layer, a conductive layer, and a lower conductive layer, wherein the upper conductive layer has a plurality of upper sensing portions and is electrically connected thereto. The upper sensing portion is located on the upper conductive The surface is centered; and the upper joint is located at a surface edge of the upper conductive layer, and the conductive layer has a plurality of conductive bridges and the bridge is disposed between any two of the upper sensing portions On the surface, the two upper sensing portions are electrically connected. Further, the lower conductive layer has a conductive film disposed on the surface and a plurality of lower bonding portions electrically connected thereto and located at the edge of the surface. The layer of brittle conductive film and the upper portion of the electrification layer and the conductive bridge are opposite to each other at a certain distance. The M364242 _' portion 212 is above the contact for receiving the contact of the finger or the conductor, and the insulator sheet has The flexibility 'the upper conductive layer is subjected to the surface of the object to generate a partial lower portion; the first sensing portion 212 and the lower sensing portion 222 are in contact with each other to form an electrical conduction. "The electric motor 22 may further include The substrate 224 is located below the plurality of sensing portions 222 to provide a support when the lower conductive layer is pressed. The space between the upper conductive layer 21 and the lower conductive layer 22 may be arranged with a plurality of smoke. Separate li (Spaeer) 3, (10) financial domain transfer, for The electrical connection between the plurality of upper sensing portions and the plurality of lower sensing portions is not received by the _, and the spacer may be a microscopic granular solid structure that is coated on the upper conductive layer and the lower conductive layer, for example: spherical, column The touch condition setting of the shape, the drum shape, and the honeycomb capacitance reaction, and the lower sensation of the microparticles _(4)(10)_, the sensing portion 212 and the lower sensing portion L are force-discharged to allow the upper pass. The micro particles may also be divided into _ ===The fixed part of the electric part 212 and the lower sensing part 222 can be pressed by the fine particles or part of the gorge and the ( (5). This is for different pressing functions. d 111 < In this space, to the present In the first embodiment, the upper sensing object and the upper bonding fine M364242 provide different pressing functions. In the second embodiment of the present invention, the upper sensing portion 212, the upper bonding portion 212, the conductive bridge 23, and the conductive film 223 The arrangement of the lower joint portion 221 is as exemplified in Fig. 5A. The upper sensing portion is a point array leg of a space between the γ-axis symmetry array 以及% and the plurality of yoke arrays 212a, the Y-axis pair _ the end of the column 212a is electrically connected to the lower edge Upper joint portion 211a. The conductive bridge 231 is located between the two axially adjacent arrays 212b and the conductive bridge 231 has an insulating spacer and a C-shaped guide 231a across the two sides of the insulating spacer 231b. The insulating spacer 231b may cover the γ-axis symmetric array 212& and the region interlaced with the c-type guide 231a to isolate the electrical connection between the γ-axis symmetric array arc and the c-plastic guide 231a. The length of the c-type guide 2 can be spanned between the two X-axis adjacent dot arrays (four) so that the two-point array (four) can be electrically conducted through the (four) C-type guide 231a. The conductive bridge 231 can be distributed along the axial direction of the crucible such that the lattice 2b forms a plurality of axisymmetric arrays, and at the same time, the end of the XX axisymmetric array has an extension and the junction portion 211b located above the suppression edge is electrically connection. The conductive film is also electrically connected to the joint 221 below the peripheral edge of the surface. When f is to measure the Wei resistance signal, a voltage difference v is applied to the left lower joint portion 221a and the right lower joint portion (eg, the fifth goblet' when the upper conductive layer is depressed by the pressing pressure, The upper sensing portions 212a, 212b and the conductive bridge 231 near the pressing point M are electrically rolled and electrically connected to the conductive film 223 17 M364242, so that the upper joint portion 211a, 211b and the right lower joint jaw 221b are measured. The voltage 2i22c' can calculate the component of the pressing point A1 on the X-axis from the relationship between the resistance of the upper sensing portion and the conductive film and the distance. When it is necessary, the component of the pressure point A1 on the γ-axis is A voltage difference v is applied to the lower lower joint portion 221c and the lower lower joint portion 221d (as shown in FIG. 5B). When the upper conductive layer is depressed by the pressing force, the upper sensing is performed near the pressing point M. The electrodes 212a, 212b and the conductive bridge 231 are electrically connected to the conductive film 223 to measure the voltage 2i22d between the lower bonding portions 221a, 221b and the lower lower bonding portion 221d. The upper sensing portions 212a, 212b are apart from The above-mentioned single-end connection is used to connect the upper joint portions 211a and 211b, and the two ends may also be used. The ends are connected to the upper joint portions 211a, 211b. At the same time, the position of the upper joint portion is not limited to only the lower side edge or the right side edge. In addition, the arrangement of the upper sensing portion can also be replaced by a symmetrical array arrangement and distribution. The array of dots in between, and the conductive bridges 23ΐ are connected along the axis of the crucible to form a γ-axis symmetric array of the array of points. When the capacitance response signal is required, the sensing unit is touched and the axisymmetric array 212a is measured. The capacitance signal is not electrically connected to the symmetric array (10) of the upper sensing portion (10) as the measurement data of the χaxis component. Similarly, the X-axis symmetric array of the upper sensing portion measures the capacitance signal, and The Y-axis symmetrical array (10) of the upper sensing portion does not make any electrical connection Γ as the measurement data of the Υaxis component. 18 M364242 Since the capacitance reaction signal is expressed in an array manner, it can be used as the continuous resistance response The reference data at the position shortens the procedure for judging the position of the pressing point A1 from the resistance signal, and increases the ability of the creation to respond to the touch touches, so that the lining of the lining can be handwritten in the Wei and Green maps. The performance of the force is more prominent. In summary, according to the above-mentioned real financial style and the purpose and function of the creation of Langben, and this creation is not seen in other public patents and practical applications: 'also meets _ special wealth,爰According to the law (4) Please, please be allowed to obtain the patent, it is the expectation. The above-mentioned example is an example of the application of this creative concept, and therefore does not limit the subdivision of this creation, any extension or modification according to this concept Under the equivalent effect of this _, the county is included in the scope of this creation, and is given to Chen Ming. [Simple diagram of the diagram] Figure 1 is the multi-layer structure of the prior patent. This is a two-layer structure of the first embodiment of the creation. Fig. 2B is a three-layer structure of the second embodiment of the creation. Figure 3A shows the operation principle of the previous specification resistive sensitive plate. Figure 3B is the operating principle of the first-class capacitive test board.

第4A圖係為本創作之第—實施射_電阻反應訊號得出X 19 M3 64242 分量之運作原理。 第4B圖係為本創作》Figure 4A is the first part of the creation - the implementation of the _ resistance response signal to derive the operating principle of the X 19 M3 64242 component. 4B is a creation of this book

' 曰 下之弟一實施例中利用電阻反應訊號得出Y 分量之運作原理。 第圖係為本創作之第-實施例中利用電容反應訊號得出X 與Y分量之運作原理。 第A圖係為本創作之第二實施例中咖電阻反應訊號得出X 分量之運作原理。 $ 5B ® H本創作之第二實施射棚f喊應訊號得出Y 分量之運作原理。In the first embodiment, the operation principle of the Y component is obtained by using a resistance reaction signal. The figure is the operation principle of using the capacitance response signal to derive the X and Y components in the first embodiment of the present invention. Figure A is the operation principle of the X component of the coffee resistance reaction signal in the second embodiment of the present invention. $ 5B ® H The second implementation of this creation, the screaming of the signal, gives the working principle of the Y component.

- 第5C圖係為本創作之第二實施例中利用電容反應訊號得出X - 與γ分量之運作原理。 【主要元件符號說明】 A:電阻式觸控板 ! B:電容式觸控板 C:多元感應觸控板 10 :面板 11 :第一轴感應層 12 :絕緣層 13 :第二轴感應層 14 ·頂板 20 M3 64242 15 :上方導電膜 16 :間隔球放置區 17 :下方導電膜 18 :基板 21 :上導電層 22 ··下導電層 211 :上接合部 212 :上感應部 221 :下接合部 222 :下感應部 223 :導電膜 23 :導路層 231 :導電橋 231a : C型導路 231b :絕緣墊片 A1 :按壓點 151 :上方導電膜之電極 171、172、173、174 :下方導電膜之電極- Figure 5C is the operation of the X- and γ-components using the capacitive response signal in the second embodiment of the present invention. [Main component symbol description] A: Resistive touch panel! B: Capacitive touch panel C: Multi-inductive touch panel 10: Panel 11: First axis sensing layer 12: Insulation layer 13: Second axis sensing layer 14 Top plate 20 M3 64242 15 : Upper conductive film 16 : Space ball placement area 17 : Lower conductive film 18 : Substrate 21 : Upper conductive layer 22 · Lower conductive layer 211 : Upper joint portion 212 : Upper sensing portion 221 : Lower joint portion 222: lower sensing portion 223: conductive film 23: conductive layer 231: conductive bridge 231a: C-shaped conductive path 231b: insulating spacer A1: pressing point 151: electrodes 171, 172, 173, 174 of upper conductive film: conductive underneath Membrane electrode

Rl、R2、R3、R4 :按壓點與電極間形成之電阻 V:施加電壓差 11a、lib :第一轴線跡 13a ··第二轴線跡 M3 64242 211a、211b、2Uc、211d :上接合部 212a、212b :上感應部 221a、221b、221c、221d :下接合部 214 :絕緣薄片 224 :基板 2122a、2122b、2122c、2122d :電位量測端Rl, R2, R3, R4: resistance formed between the pressing point and the electrode V: applied voltage difference 11a, lib: first axis trace 13a · second axis trace M3 64242 211a, 211b, 2Uc, 211d: upper joint Portions 212a and 212b: upper sensing portions 221a, 221b, 221c, and 221d: lower bonding portions 214: insulating sheets 224: substrates 2122a, 2122b, 2122c, and 2122d: potential measuring end

Claims (1)

M364242 六、申請專利範圍: _ 種夕元感應觸控板(touch pad for variety of ensing) ’供以至少一個手指或導體接觸以及物體觸壓, 其係包括: 上‘電層’具有複數位於表面置中之上感應部及複數位 於表面邊緣的上接合部;以及 下導電層,具有複數位於表面置中之下感應部及複數位 於表面邊緣的下接合部,且該下導電層係以該下感應部與 該上導電層之該上感應部以一定距離相對設立; =中忒手拍或導體接近該複數上感應部上以及該複數下 感應部所敲之電容反應可分職過與其雜連接之該 上接合部與下接合部測得;同時,該上感應部與下感應部 上下重疊的部分可_賴碰此接卿成電氣導通,且 介於該上接合部與該物體_該上感應部或介於該下接 合部與該物體間的該下感應部之電位差,可產生至少— 電氣訊號。 > 個 2. 如申請專利第1項所述之多元感應觸控板,、 /、τ,孩上導 電層又包括、絕緣體薄片位於該複數上感應部非相對於 該複數下感麟之—側,舰接受該手指轉體之接觸; 且該絕緣體薄片具有撓性,使該上導電層得以a ^ ^ „ 又5亥觸壓而 產生局部下陷形變。 3. 如申請專利第1項所述之多元感應觸控板,A ,、τ,4下導 ί多正 補充 23 M364242 電層又包括:-基板位於該複數下感應部非相對於 上感應部之一侧,提供該下導電層之支撐。 4. 如申請專利第丨項所述之多元感應觸•其_,該 電層與下導電層之間可分佈複數間隔器(spacer),係具有 立體結構’供以在未受觸壓時隔_複數上感應部與該複 數下感應部之電氣接觸。 5. 如申請專利第4項所述之多元感應觸控板,其中,該複數 間隔益可於该上導電層與下導電層之間内移動。 6·如申請專利第4項所述之多减應觸控板,其中,至少三 個該複數間隔器可固定於該上導電層與該下導電層之間Γ 7. 如申明專利第1項所述之多元感綱控板,其各層所使用 之材質為可透光材質,可於觸控螢幕上使用。 8. 如申請專利第1項所述之多元感應觸控板,至少其中之_ 該上感應部可延伸其兩端至表面邊緣,並各與一該上接合 部形成電性接觸。 9.如申請專利第1項所述之多元感應觸控板’至少其中之一 该下感應部可延伸其兩端至表面邊緣,並各與一該下接合 部形成電性接觸。 10. 如申請專利第丨項所述之多元感應觸控板,其中,該上 感應部與該下感應部係至少在一區域内完全上下重疊。 11. 如申請專利第丨項所述之多元感應觸控板,其中,該複 數上感應部之分佈具有沿箸第一軸向之對稱性;以及,該 24 M364242 ^ ih φ * 複數下感應部之分佈具有沿著第二軸向之對稱性,且該第.… 一轴向與該第二轴向不平行。 12·如申請專利第η項所述之多元感應觸控板,其中,該第 一軸向係與該第二轴向垂直。 13. 如申請專利第丨項所述之多元感應觸控板,其中,該— 疋距離為忒上感應部及下感應部之面積、厚度及材質結構 以及介於該上導電層與下導電層空間之介電質之函數。 14. 一種多元感應觸控板(1;〇uch pad f〇r af sensing) ’供以至少一個手指或導體接觸以及物體觸壓, 其係包括: -上導電層’具有複數位於表面置中之上感應部及複數位 於表面邊緣的上接合部; -‘路層’具有複紐於表面置巾之導電橋,且該導電橋 係設置於任_該上感應部間之表面上,令該任兩個上^ 應部之間電氣導通;以及 下V電層’其表面置中設有一導電膜以及至少一個位於 表面邊緣之下接合部,且該下導電層係以該導電膜與該上 感應部及該導電橋以一定距離相對設立; 其中’該手指或導體接賴複數上錢部所產生之電容反 應可透過與其概連接之該上接合部爾;同時,該上感 應部及導電橋與導電膜上下重㈣科可因該觸堡而彼 此接觸形成魏導通,且介於該上接合部與該物體間的該 25 M3 64242 ' 上感應部或介於該下接合部與該物體間 , 位差’可產生至少一個電氣訊號。 15.、曾如申請專利第14項所述之多元感應觸控板,其中,該上 導電層又包括:—絕緣體薄片位於該複數上感應部非相對 〜導f膜之-側’用哺受該手指或導體之接觸,且該 、、邑緣體薄片具有撓性’使該上導電層得以受該觸壓而產生 局部下陷形變。 =申明專利第14項所述之多元感應觸控板,其中,該下 電曰又包括基板位於該導電膜非相對於該複數上感 ' 應部之—側’提供該下導電層之支撐。 、 ^申明專利第14項所述之多元感應觸控板,其中,該上 導電層與下導電層之間可分佈複數間隔器(spacer),係具 有立體結構’供以在未受觸壓時隔絕該複數上感應部與該 導電膜之電氣接觸。 .如申凊專利第17項所述之多元感應觸控板,其中,該複 1數間隔1§可_上導電層與下導電層之間内移動。 申請專利第17項所述之多元感應觸控板,其中,至少 ^固該複數間隔器可固定於該上導電層與該下導電層之 2〇·如申請專利第14項所述之多元感應觸控板,其各層所使 用之材質為可透光材質,可於觸控榮幕上使用。 21’如申請專利第14項所述之多域應觸控板,其中,該一 26 M3 64242 ih Si ia 定距離與該上導電層之撓性有關。 22. 如申請專利第14項所述之多元感應觸控板,其中,該下 導電層具有至少兩個下接合部分佈於表面之兩側邊緣,並 與該導電膜電性連接。 23. 如申請專利第14項所述之多元感應觸控板,其中,該下 導電層具有至少四個下接合部分佈於表面之四周邊緣,並 與該導電膜電性連接。 ΊΊ M3 64242 % 四、指定代表圖·· (一) 本案指定代表圖為:第(2A )圖。 (二) 本代表圖之元件符號簡單說明: 21 :上導電層 22 :下導電層 211 :上接合部 212 :上感應部 221 :下接合部 ) 222 :下感應部M364242 VI. Patent application scope: _ touch pad for variety of ensing 'With at least one finger or conductor contact and object contact, the system includes: The upper 'electric layer' has a plurality of surfaces a sensing portion and a plurality of upper portions on the edge of the surface; and a lower conductive layer having a plurality of sensing portions located below the surface and a lower portion of the surface at the edge of the surface, and the lower conductive layer is The sensing portion and the upper sensing portion of the upper conductive layer are oppositely set at a certain distance; = the middle finger or the conductor is close to the capacitive sensing portion of the plurality of sensing portions and the sensing portion of the plurality of sensing portions can be separated from the miscellaneous connection The upper joint portion and the lower joint portion are measured; at the same time, the upper and lower portions of the upper sensing portion and the lower sensing portion are electrically connected to each other, and the upper joint portion and the object are disposed on the upper joint portion and the object A potential difference between the sensing portion or the lower sensing portion between the lower bonding portion and the object generates at least an electrical signal. < 2. The multi-inductive touch panel of claim 1, wherein /, τ, the conductive layer of the child includes, and the insulator sheet is located on the plurality of sensing portions not opposite to the plural- On the side, the ship receives the contact of the finger-turning body; and the insulator sheet has flexibility, so that the upper conductive layer can be locally depressed by a contact pressure of a ^ ^ „ 5. 3. As described in claim 1 The multi-inductive touch panel, A, τ, 4 lower guides, the addition of 23 M364242 electrical layer further includes: - the substrate is located at the side of the plurality of sensing portions not opposite to the upper sensing portion, providing the lower conductive layer Support 4. As described in the patent application, the multi-sensory contact, _, a plurality of spacers may be distributed between the electric layer and the lower conductive layer, and have a three-dimensional structure for being untouched The multi-inductive touch panel of the fourth aspect of the invention, wherein the plurality of sensing touch panels are in the upper conductive layer and the lower conductive layer. Move within between. 6·If you apply for patent 4th The plurality of touch screens are reduced, wherein at least three of the plurality of spacers are fixed between the upper conductive layer and the lower conductive layer. 7. The multi-sensor control board according to claim 1 The material used in each layer is a permeable material, which can be used on a touch screen. 8. The multi-inductive touch panel according to claim 1, at least one of the upper sensing portions can extend the two End to the edge of the surface, and each of which forms an electrical contact with the upper joint portion. 9. At least one of the plurality of inductive touch panels as described in claim 1 wherein the lower sensing portion extends both ends to the surface The plurality of inductive touch panels of the present invention, wherein the upper sensing portion and the lower sensing portion are at least in one region. 11. The multi-sensor touch panel of claim 2, wherein the distribution of the plurality of sensing portions has a symmetry along a first axis of the crucible; and, the 24 M364242 ^ ih φ * plural The distribution of the lower sensing portion has a second axial direction Symmetry, and the first axis is not parallel to the second axis. The multi-inductive touch panel of claim n, wherein the first axis and the second axis 13. The multi-inductive touch panel of claim 1, wherein the distance between the upper and lower sensing portions is the area, the thickness and the material structure, and the upper conductive layer and the upper conductive layer a function of the dielectric of the lower conductive layer space. 14. A multi-sensory touch panel (1; 〇uch pad f〇r af sensing) 'providing at least one finger or conductor contact and object contact, the system comprising: - The upper conductive layer ′ has a plurality of upper portions on the surface of the sensing portion and a plurality of upper portions on the edge of the surface; the 'road layer ′ has a conductive bridge that is bonded to the surface of the surface, and the conductive bridge is disposed at any On the surface between the upper sensing portions, the two upper portions are electrically connected; and the lower V electrical layer is provided with a conductive film disposed on the surface thereof and at least one joint portion below the surface edge, and the lower portion The conductive layer is formed by the conductive film and the upper sensing portion And the conductive bridge is oppositely established at a certain distance; wherein the capacitance reaction generated by the finger or the conductor depends on the upper portion of the joint portion; and the upper sensing portion and the conductive bridge and the conductive portion The upper and lower weights of the film may be in contact with each other to form a Wei conduction, and the 25 M3 64242' upper sensing portion between the upper joint portion and the object may be between the lower joint portion and the object. The difference 'can generate at least one electrical signal. 15. The multi-inductive touch panel of claim 14, wherein the upper conductive layer further comprises: - the insulator sheet is located on the plurality of sensing portions non-relative to the side of the f-film The contact of the finger or the conductor, and the edge of the edge of the body is flexible, so that the upper conductive layer is subjected to the contact to cause partial depression deformation. The multi-inductive touch panel of claim 14, wherein the lower electrode further comprises a substrate on which the conductive film is not supported relative to the plurality of sides of the sensing portion. The multi-inductive touch panel of claim 14, wherein a plurality of spacers are disposed between the upper conductive layer and the lower conductive layer, and have a three-dimensional structure for providing untouched The electrical contact between the sensing portion and the conductive film is isolated. The multi-inductive touch panel of claim 17, wherein the plurality of intervals 1 § can move between the upper conductive layer and the lower conductive layer. The multi-inductive touch panel of claim 17 , wherein at least the plurality of spacers are fixed to the upper conductive layer and the lower conductive layer, and the multi-sensor is as described in claim 14 The touchpad is made of a light-transmissive material for each layer and can be used on the touch screen. The multi-domain touch panel of claim 14, wherein the 26 M3 64242 ih Si ia fixed distance is related to the flexibility of the upper conductive layer. The multi-inductive touch panel of claim 14, wherein the lower conductive layer has at least two lower joint portions disposed on both side edges of the surface and electrically connected to the conductive film. 23. The multi-sensor track according to claim 14, wherein the lower conductive layer has at least four lower joint portions disposed on the peripheral edges of the surface and electrically connected to the conductive film. ΊΊ M3 64242 % IV. Designated representative map (1) The representative representative of the case is: (2A). (2) A brief description of the component symbols of this representative figure: 21: upper conductive layer 22: lower conductive layer 211: upper joint portion 212: upper sensing portion 221: lower joint portion) 222: lower sensing portion
TW97222317U 2008-12-12 2008-12-12 Touch pad for variety of sensing TWM364242U (en)

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Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI408631B (en) * 2010-04-09 2013-09-11 Wintek Corp Touch display device
TWI450142B (en) * 2010-02-09 2014-08-21 Sitronix Technology Corp Touch panel with increased scanning efficiency and its scanning method
TWI550503B (en) * 2012-06-26 2016-09-21 Tokai Rika Co Ltd Operating device
TWI581161B (en) * 2012-09-18 2017-05-01 新益先創科技股份有限公司 Capacitive touch module and touch display apparatus thereof
US9696576B2 (en) 2012-09-18 2017-07-04 Touchplus Information Corp. Pen writing on one-dimensional capacitive touch sensor

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI450142B (en) * 2010-02-09 2014-08-21 Sitronix Technology Corp Touch panel with increased scanning efficiency and its scanning method
TWI408631B (en) * 2010-04-09 2013-09-11 Wintek Corp Touch display device
TWI550503B (en) * 2012-06-26 2016-09-21 Tokai Rika Co Ltd Operating device
TWI581161B (en) * 2012-09-18 2017-05-01 新益先創科技股份有限公司 Capacitive touch module and touch display apparatus thereof
US9696576B2 (en) 2012-09-18 2017-07-04 Touchplus Information Corp. Pen writing on one-dimensional capacitive touch sensor

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