TW519613B - Structure of electrode in touch screen and flat display panel with the touch screen - Google Patents

Structure of electrode in touch screen and flat display panel with the touch screen Download PDF

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Publication number
TW519613B
TW519613B TW090116022A TW90116022A TW519613B TW 519613 B TW519613 B TW 519613B TW 090116022 A TW090116022 A TW 090116022A TW 90116022 A TW90116022 A TW 90116022A TW 519613 B TW519613 B TW 519613B
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Taiwan
Prior art keywords
electrode
insulator
touch screen
potential
potential compensation
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TW090116022A
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Chinese (zh)
Inventor
Yeong-Su Ahn
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Touch Co Ltd
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    • GPHYSICS
    • G02OPTICS
    • G02FOPTICAL DEVICES OR ARRANGEMENTS FOR THE CONTROL OF LIGHT BY MODIFICATION OF THE OPTICAL PROPERTIES OF THE MEDIA OF THE ELEMENTS INVOLVED THEREIN; NON-LINEAR OPTICS; FREQUENCY-CHANGING OF LIGHT; OPTICAL LOGIC ELEMENTS; OPTICAL ANALOGUE/DIGITAL CONVERTERS
    • G02F1/00Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics
    • G02F1/01Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics for the control of the intensity, phase, polarisation or colour 
    • G02F1/13Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics for the control of the intensity, phase, polarisation or colour  based on liquid crystals, e.g. single liquid crystal display cells
    • G02F1/133Constructional arrangements; Operation of liquid crystal cells; Circuit arrangements
    • G02F1/1333Constructional arrangements; Manufacturing methods
    • G02F1/13338Input devices, e.g. touch panels
    • GPHYSICS
    • G02OPTICS
    • G02FOPTICAL DEVICES OR ARRANGEMENTS FOR THE CONTROL OF LIGHT BY MODIFICATION OF THE OPTICAL PROPERTIES OF THE MEDIA OF THE ELEMENTS INVOLVED THEREIN; NON-LINEAR OPTICS; FREQUENCY-CHANGING OF LIGHT; OPTICAL LOGIC ELEMENTS; OPTICAL ANALOGUE/DIGITAL CONVERTERS
    • G02F1/00Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics
    • G02F1/01Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics for the control of the intensity, phase, polarisation or colour 
    • G02F1/13Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics for the control of the intensity, phase, polarisation or colour  based on liquid crystals, e.g. single liquid crystal display cells
    • G02F1/133Constructional arrangements; Operation of liquid crystal cells; Circuit arrangements
    • G02F1/1333Constructional arrangements; Manufacturing methods
    • G02F1/1343Electrodes
    • G02F1/13439Electrodes characterised by their electrical, optical, physical properties; materials therefor; method of making
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00Input arrangements for transferring data to be processed into a form capable of being handled by the computer; Output arrangements for transferring data from processing unit to output unit, e.g. interface arrangements
    • G06F3/01Input arrangements or combined input and output arrangements for interaction between user and computer
    • G06F3/03Arrangements for converting the position or the displacement of a member into a coded form
    • G06F3/041Digitisers, e.g. for touch screens or touch pads, characterised by the transducing means

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  • Physics & Mathematics (AREA)
  • Nonlinear Science (AREA)
  • Engineering & Computer Science (AREA)
  • General Physics & Mathematics (AREA)
  • Mathematical Physics (AREA)
  • Chemical & Material Sciences (AREA)
  • Crystallography & Structural Chemistry (AREA)
  • Optics & Photonics (AREA)
  • General Engineering & Computer Science (AREA)
  • Theoretical Computer Science (AREA)
  • Human Computer Interaction (AREA)
  • Position Input By Displaying (AREA)

Abstract

The present invention relates to a resistive touch panel, and more specifically, to structure of electrodes in the touch panel capable of compensating the distortion of a potential compensating electrode and a transparent electrode, which varies the value of contact resistance between them. The structure of electrode in a resistive touch panel comprises insulators which are formed on a transparent electrode in a film forming region of the potential compensating electrodes to insulate the potential compensating electrodes and the transparent electrode from each other, and in which contact resistance with respect to a signal-supplying portion can vary according to locations thereof by making area of the insulators larger at the signal-supplying portion and smaller as they become farther from the signal-supplying portion; linear potential compensating electrodes made of low resistive metal within and along regions of the insulators formed on the transparent electrode; and a contact resistance variable layer in which the contact resistance of all regions where the potential compensating electrodes and the insulators are contacted with each other can vary according to locations thereof. In addition, the interface is placed between the insulators and the potential compensating electrodes, and the contact resistance is adjusted according to the shape of the interface. The flat panel display with the touch panel added thereto in which the electrode structure can be employed has the laminated structure in which the margin region of LCD includes the compensation electrode region of the touch panel. Therefore, the reliability, applicability, the degree of freedom of design, mass productivity and the like are improved.

Description

519613 A7 B7 濟 部 智 •慧 員 工 消 費 印 五、發明說明(丨) 【本發明之領域】 本發明係與電阻式觸控螢幕有關,特別地,觸控螢幕 裡的電極結構能夠補償位於電位補償電極和透明電極之間 的扭曲’其係藉由改變在它們之間的接觸電阻値。 【本發明之背景】 通常,觸控螢幕有電阻式類型、電容式類型、超音波 波浪式類型、光學感應類型、電磁類型和其他相似的類 型〇 電阻式觸控螢幕係已經與一液晶顯示器(LCD)結合在 了起且廣泛地當作輸入裝置而使用在電子筆記本、個人數 力理(PDA)、可攜式的個人電腦等,當與其他類型的觸 控勞幕做比較,它的設計在薄、緊凑、輕及低電力消耗等 地方是非常有利的,電阻式觸控螢幕有矩陣及類比二種偵 2万法。薄膜基底、玫璃基底、及塑膠基底能被當作透明 電極使用。上面的和比較低的電極藉由結合這些基底而構 成。類比價測方法再-次依照電位補償電極的配線被分類 為4線式、5線式、及8線式等類型。 4線電阻式觸控螢幕的透明電極係分別地在第一基底 上形成上面的電極及在第二基底形成比較低的電極。作為 電氣隔離的點狀空間分隔裝置係在第一和第二基底之間被 =分佈在使用二個基底的x/y坐標上,其係被計 ^且㈣連結器送到軟的外部驅動。在4線電阻式觸控勞 ==緣體在第一和第二的基底之間被處理且放置在 其中。在處理^^成之後,X-軸方向的雷… 本紙張尺度_巾關家辟(CNS)A4祕⑽ (請先閱讀背面之注意事項再填寫本頁) i-----------------519613 A7 B7 Jibu Zhihui Smart Staff Consumption V. Description of the Invention (丨) [Field of the Invention] The present invention relates to a resistive touch screen. In particular, the electrode structure in the touch screen can compensate for potential compensation. The twist between the electrode and the transparent electrode is by changing the contact resistance between them. [Background of the invention] In general, touch screens are of resistive type, capacitive type, ultrasonic wave type, optical sensing type, electromagnetic type and other similar types. Resistive touch screens have been combined with a liquid crystal display ( LCD) is integrated and widely used as an input device in electronic notebooks, personal digital assistants (PDAs), portable personal computers, etc. When compared with other types of touch screens, its design It is very advantageous in places such as thin, compact, light and low power consumption. The resistive touch screen has matrix and analog two detection methods. Film substrates, rose glass substrates, and plastic substrates can be used as transparent electrodes. The upper and lower electrodes are constructed by combining these substrates. The class comparison method is classified into 4-wire type, 5-wire type, and 8-wire type according to the wiring of the potential compensation electrode. The transparent electrode of the 4-wire resistive touch screen is an upper electrode formed on a first substrate and a lower electrode formed on a second substrate, respectively. The point-like space divider, which is electrically isolated, is distributed between the first and second substrates on the x / y coordinates using the two substrates, which are counted and the connector is sent to a soft external drive. In 4-wire resistive touch labor, the edge body is processed and placed between the first and second substrates. After processing ^^, the thunder in the X-axis direction ... This paper scale_Secretary of Guanjiapi (CNS) A4 (Please read the precautions on the back before filling this page) i -------- ---------

-------^--------- (請先閱讀背面之>i意事項再填寫本頁) 經 濟 部 智 慧 財 產 局 員 工 消 費 合 作 社 印 製 519613 A7 ___ B7 五、發明說明(么) 電極以低電阻金屬在X-軸方向製成,其係被安排在第二基 底的透明傳導薄膜兩邊的二個電線之間,所以一以高電阻 金屬製的活躍區域在其中形成,和使用絕緣材料做成的點 狀空間分隔裝置在二個基底之間被形成以為電氣隔離,其 係在由X-軸電位補償電極間的區域所定義的活躍區域中被 形成。另一方面,在處理絕緣體形成之後,y_軸方向的電 位補償電極以低電阻金屬在y-軸方向製成,其係被安排在 第一基底的透明傳導薄膜兩邊的二個電線之間,所以一以 同電阻金屬製的活躍區域在其中形成。 在操作時,為了要偵測X-軸値,當電位被施加到第— 個基底的時候,其被分佈在透明傳導薄膜整個平面上。在 此時,當使用者在觸控勞幕(或勞幕)上用手指或鋼筆施加 壓力時,上面的和比較低的基底(第一和第二基底)彼此接 觸到,和第二基底反相的電位在此點被感應產生,x_轴値 藉被感應的信號而予以計算出來。當比較低的和上面的基 屁彼此接觸的時候,電位也被施加到第二的基底,所以它 被分佈在透明傳導薄膜整個平面上。在手指或鋼筆施加壓 力之點的y-軸電位係感應到第一個基底上。軸値値亦藉 由感應的信號而予以計算。因此,x/y坐標値能在顯示器二 被顯。. 第1圖是習知4線電阻式觸控螢幕的電極結構圖。因為 電極的線性水平與信號的扭曲有關,所以電極的線性水平 是電極品質控制中的重要項目。從電極2〇在基底1〇上安排 的結構硯點,為了要提供一均勻電位場垂直於信號施加的 I方向,如第丨圖所示,那些低電阻金屬製的電位補償電極 本紙張尺度適用中國國豕標準(CNS)A4規格(210 X 297含爱) 519613 B7 五、發明說明(3 ) (請先閱讀背面之注咅?事項再填寫本頁) 40a、40b係與信號施加方向成垂直,其被安裝在高電阻金 屬製的透明電極30上且彼此平行。為了要檢查由上面和比 較低基底10製成薄片的觸控螢幕是否適當地操作,那些兩 極被藉由測量線性水平方法予以檢查。檢驗方法藉由執^ 施加操=電壓於電極20上,然後測量觸控勞幕透明電極⑼ 上的眞實的分佈電位與估計的分佈電位之間的差値。如果 測量値同樣地超過或者達不到那些被預定的標準,位置訊 息的錯誤將被產生。如此它能被視為信號發生扭曲。結 果,電極2 0的線性水平測量係等效於檢查觸控螢幕是否為 很好的或次等 經濟部智慧財產局員工消費合作社印制衣 第2圖係顯示一以X _軸方向位置為例的基底丨〇上電極 的線性量測方法。如果X-軸電位補償電極的左邊和右邊的 端點分別地對連接電源供應和地,垂直於信號施加方向的 均勻電位場在透明的電極3 0上被形成。在此時,如果任何 經由被鋼筆接觸的點,在上面基底1〇上的接觸點之電位, 其係藉著在上面基底1 0和那比較低基底1 〇的透明電極3 〇之 間的接觸電阻而被傳送到比較低的基底1 〇。然後,跨在電 阻RD上以為量測的電壓則被測量,所以感應到比較低基底 1 0的電位能被偵測,而電阻RD被連接在比較低電極1 〇上 的電位補償電極40a、40b的一個端點和地之間。除此之 外,RD>>RC的情況應該被滿足,所以幾乎所有在上面基 底1 0上的接觸點,其電位能在RD的兩個端點上被感應產 生,第2圖測量方法所量的電位被畫在第3圖的一個曲線 圖。線性錯誤被顯示成百分比,其係藉由使用第3圖的理想 本纸張尺度適用中國國家標準(CNTS)A4規格(210 X 297公釐) 519613 經濟部智慧財產局員工消費合作社印製 A7 B7 五、發明說明(斗) 値和測量値所計算出的差値。其値係由下列各,公式計 算: 、货------- ^ --------- (Please read > i on the back before filling out this page) Printed by the Consumer Cooperatives of the Intellectual Property Bureau of the Ministry of Economic Affairs 519613 A7 ___ B7 V. Invention Explanation (What) The electrode is made of low-resistance metal in the X-axis direction, and it is arranged between two wires on both sides of the transparent conductive film of the second substrate, so an active area made of high-resistance metal is formed therein. A dot-shaped space separating device made of an insulating material is formed between the two bases for electrical isolation, and is formed in an active area defined by an area between the X-axis potential compensation electrodes. On the other hand, after the formation of the processing insulator, the potential compensation electrode in the y-axis direction is made of a low-resistance metal in the y-axis direction, which is arranged between two wires on both sides of the transparent conductive film of the first substrate. Therefore, an active region made of the same resistance metal is formed therein. In operation, in order to detect the X-axis chirp, when a potential is applied to the first substrate, it is distributed over the entire surface of the transparent conductive film. At this time, when the user applies pressure with a finger or a pen on the touch curtain (or curtain), the upper and lower substrates (the first and second substrates) are in contact with each other, and the second substrate is opposite to the second substrate. The potential of the phase is induced at this point, and the x_axis 値 is calculated from the induced signal. When the lower and upper base farts are in contact with each other, the potential is also applied to the second substrate, so it is distributed over the entire surface of the transparent conductive film. The y-axis potential at the point where a finger or pen exerts pressure is sensed on the first substrate. The shaft axis is also calculated from the sensed signal. Therefore, the x / y coordinates 値 can be displayed on the second display. Figure 1 shows the electrode structure of a conventional 4-wire resistive touch screen. Because the linearity of the electrode is related to the distortion of the signal, the linearity of the electrode is an important item in electrode quality control. In order to provide a uniform potential field perpendicular to the I direction of the signal application, as shown in the figure, those low-resistance metal potential compensation electrodes are suitable for this paper. China National Standard (CNS) A4 specification (210 X 297 with love) 519613 B7 V. Description of invention (3) (Please read the note on the back? Matters before filling out this page) 40a, 40b are perpendicular to the signal application direction It is mounted on transparent electrodes 30 made of high-resistance metal and parallel to each other. In order to check whether the touch screen made of the upper and lower substrates 10 is properly operated, those electrodes are checked by measuring the linear level method. The test method is to apply an operation voltage to the electrode 20, and then measure the difference between the solid distributed potential on the transparent electrode 触控 of the touch screen and the estimated distributed potential. If the measurement volume also exceeds or fails to those predetermined standards, position information errors will be generated. In this way it can be seen as a distortion of the signal. As a result, the linear level measurement of electrode 20 is equivalent to checking whether the touch screen is good or inferior. The clothing produced by the Consumers ’Cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs. Linear measurement method of the electrode on the substrate. If the left and right end points of the X-axis potential compensation electrode are respectively connected to the power supply and the ground, a uniform potential field perpendicular to the signal application direction is formed on the transparent electrode 30. At this time, if the potential of the contact point on the upper substrate 10 passes through the point touched by the pen, it is caused by the contact between the upper substrate 10 and the transparent electrode 3 〇 of the lower substrate 10. The resistance is transferred to a relatively low substrate 10. Then, the voltage across the resistor RD, which was thought to be measured, is measured, so the potential sensed to the lower substrate 10 can be detected, and the resistor RD is connected to the potential compensation electrodes 40a, 40b on the lower electrode 10. Between an end point and ground. In addition, the conditions of RD > RC should be satisfied, so the potential of almost all contact points on the upper substrate 10 can be induced at the two ends of RD. The measured potentials are plotted in a graph in Figure 3. The linear error is displayed as a percentage, which is printed by using the ideal paper size in Figure 3 to apply the Chinese National Standard (CNTS) A4 specification (210 X 297 mm) 519613 Printed by the Consumers ’Cooperative of Intellectual Property Bureau of the Ministry of Economic Affairs A7 B7 5. Description of the invention (Battle) 値 and measured 値 calculated rates. Its system is calculated by the following formulas:

Vdiff = Vmeas_VN, A Vχ = Vχ 1 - VXN > 在一情況下,在第2圖的點X3的電位値應該和那在第3 圖中的V3値相等,但是在點X3的測量電位値,其係位在 第3圖中被感應的量測値曲線上,從γ 1到γΝ的每點在理想 値和測量値之間的差値係以VDIFF表示。這樣,在某一點 上的線性誤差被計算成此點的誤差VDIFF以及νχ 1和VX2 電壓差之相對値。此種計算方法也適用於厂軸方向。 當手指或鋼筆的位置資訊在螢幕上被顯示的時候,由 於電極線性水平所引起的錯誤將會使位置資訊是不正確 的。西此,錯誤能當作在良好和次等產品之間的差別標 準。即使產品有小型化、超薄化和穩定驅動能力需被設 计’·包極線性係較其他因素更重要的,因為它直接地與位 置資訊的錯誤有關。 因此,產品的評估當做良好或次等時,藉著電極線性 的//’j虽係等效於對觸控勞幕的電氣特性的檢驗。觸控螢幕 電^特性可能是來自觸控螢幕電氣結構的評估。第4圖顯示 一藉由使用二種當作導體的金屬以形成4線電阻式電極2〇 的方法。以低電阻金屬製成的那些電位補償電極4〇a、 4〇b,其係在透明電極3〇上被形成且具有不變厚度及寬度 的條狀,而透明電極3 〇係以高電阻金屬製的且被形成具有 相同厚度的平面形狀。此結構的等效電氣模型係在第5圖中 ‘紙張尺度適用中關家標準(CNS)A4規格⑵Q χ 297 & ) ^--------^--------- (請先閱讀背面之注意事項再填寫本頁) 519613 A7 B7 五、發明說明(ί ) 舉例説明。在此,如第5圖所示,以低電阻金屬製的那些電 位補償電極40a、40b係安排串聯那些低電阻元件並被配置 成與信號施加方向垂直地,透明電極3〇被配置成用以指示 平承電阻,其係藉由安排那些電阻式元件成為矩陣型式。 除此之外,那些電位補償電極4〇a、4〇b和透明電極3〇係藉 由接觸電阻兀件RC電氣地耦合在一起。理論上,接觸電阻 意 兀件不應^存在於透明電極3〇和那些電位補償電極4〇&、 4J)b。然而’當在實際製造的觸控勞幕上的電位分佈被測 量時,接觸電阻在觸控螢幕上存在,因此,它對電位分佈 有一定的影響力。 它被考慮成係由於在那些電位補償電極術、_和透 明電極30之間的材料不同而產生的。因此,基於將使用材 料予以詳細分折以解決問題是必需的。然而,以目前的製 ^態’觸控螢幕已經基於接觸電阻存在的假設上而被設 如此,電位補償電極40a、_的問題和缺點能藉由電 極2 0的線性和等效模型的電位分佈而被了解。 當信號被施加到觸控螢幕的時候,第6圖係顯示電極 的一個等效的電路。第7圖係顯示依照那些在第6圖裡的Η = 位置之電位分侔。為了要獲得精確的位置資訊,電位 佈應該!理想電位-樣地在信號施加方向垂直地形成。 圖所示,當那些電位實際上在觸控螢幕上被測 I " Γ電,量電位之間的那些錯誤Μ“皮產 此供.田與^號施加部分的距離變成更遠的時候,那 些錯狹^變^大的(也就是,那些錯㈣增加)。 、紙張尺¥_巾關家辟 519613 經濟部智慧財產局員工消費合作社印製 A7 B7 五、發明說明(公) 除此之外’這種現象在觸控螢幕和顯示器之間的邊緣 處被加深,當觸控螢幕被加入到平面顯示器時,將不可避 免被產生的。舉例來説,當1^<::1)顯示器在設計上需要有滿 意的小型化和薄的情況之下,觸控螢幕被增加的時候,那 些電極應該被設計在例如LCD(也就是,在看的區域和玻璃 的外部圓周之間的區域)邊緣區域的狹窄區域中被形成,因 此電極的寬度變得比較小的,最後電阻値變得比較大。然 後,這造成電極的線性錯誤,及次等的觸控螢幕被產生。 換句話説,因以低的電阻金屬製成的電位補償電極的電阻 値和透明電極的電阻値並沒有很大的术同,依照那些位置 的電位分佈將會確定地在第7圖中被顯示。 為了要解決依照位置的不良的電位分佈,電位補償電 極40a、40b的電阻値應該板小,此外電極的寬度和厚度被 碉整以便減少他們的電阻値。但是,當考慮到它被當顯示 讀入裝置的事實來看,當觸控螢幕被設計的時候,沒有 限制地擴充電極的寬度和厚度以便減少電位補償電極的電 阻値,是不可能。 &明人爰因於此,本於積極發明之精神,亟思一種可 =解,上述問題之「觸控勞幕電極結構及含有上述結構之 平面顯示器」’幾經研究實驗終至完成此項新穎進步之發 【本發明之概述】 i本發明—個目的允許電位補償電極和透明電極之間的 私位扭曲’藉由調整在電位補償電極和透明電極之間的一 本紙張尺度適用中關家標準(CNS)A4規格⑵G X 29外复 --------^--------- (請先閱讀背面之注咅?事項再填寫本頁) 經濟部智慧財產局員工消費合作社印製 519613 五、發明說明(ί]) 個絕緣體區域而被補償,所名 可變化的。 所以在匕們(間的接觸電阻値是 本發明另外的一個目’當觸控螢幕被附加在狹窄區域 且沒有電位扭曲,其係藉由減少在電位補償電極和透明電 絕緣體的-個區域’尤其是#絕緣體和信號施加 接觸邵分有一段距離時。 本發明-個進-步的目的,係提供具有觸控勞幕附加 八上的平面顯示器,信號扭曲能被藉由維持觸控螢幕裡的 電位補償電極的線性而予以補償。 為了完成這些目的,依照本發明一個觀點,使用在電 Τ式觸控勞幕裡的電極結構包括X-軸方向上的X-軸電位補 ^員電極,其係用低電阻金屬製做成的且安排在基底上的透 明傳導薄膜的兩邊,如此以定義高電阻金屬製做的活躍區 域,y-軸方向上的y-軸電位補償電極,其係用低電阻金屬 製做^的^安排在另—基底上的透明傳導薄膜的兩邊,如 此以疋我咼電阻金屬製做的活躍區域,及點狀空間分隔裝 係开y成在那些x _軸電位補償電極之間的活躍區域,以使 二個基底彼此互相絕緣,包含: 在一薄膜上的區域形成電位補償電極,而絕緣體其係 f此區域的透明電極上形成,此絕緣體其係使那些電位補 作:私極和透日月私極彼此絕緣的,及有關於信號施力口部分的 接觸私阻化依照位置而改變,其係藉由在信號施加部分 附近使絕緣體的區域比較大,而遠離信號施加部時使絕緣 體的區域比較小; 本紙張尺度刺巾關冢辟(CNS)A4祕⑵G χ 2971匕爱) ------------•裝------ (請先閱讀背面之注意事項再填寫本頁) ·11111 線# 519613 經濟部智慧財產局員工消費合作社印Tfc'J私 A7 B7 五、發明說明(2 ) 以低電阻金屬製成的線性電位補償電極,其係沿著及 在絕緣體區域裡面,而絕緣體區域係在透明的電極上形成 的;以及 一可變接觸電阻層其上那些電位補償電極和那些絕緣 體彼此接觸在一起的所有區域的接觸電阻能依照位置的不 同而改變。 依照本發明另外的一個觀點,電阻式觸控螢幕裡所使 用的電極結構包括在x_軸方向的x_軸電位補償電極,其係 是用低電阻金屬製做成的且安排在基底上的透明傳導薄膜 的兩邊,如此以定義高電阻金屬製的活躍區域,在y-軸方 向的y-軸電位補償電極,其係是用低電阻金屬製做成的且 安排在另一基底上的透明傳導薄膜的兩邊,如此以定義高 私阻金屬製的活躍區域,及點狀空間分隔裝置,其係在那 些X-軸電位補償電極之間的活躍區域,用來使二個基底彼 此形成絕緣,包含: 在一薄膜上的區域形成電位補償電極,而絕緣體其係 f此區域的透明電極上形成,此絕緣體其係使那些電位補 償電極和透明電極彼此絕緣的,此絕緣體係被建構成具有 :内部界線,使得有關於信號施加部分的一接觸電阻能依 位置而改變,係藉由在信號施加部分附近使絕緣體的區 域比=大,❼it離信號施加部時使絕緣體的區域比較小; 電位補償電極係以i電阻金屬所形A的,S 一邊具有 一界線係與由在透明電極上的絕緣體所定義區域的一内部 界、’泉接觸’在另-邊的另—界線係與透明電極平行;以及口 本紙張尺度適用中國國家標準(2〗0 χ 29?ι各釐〉 -----------裝--------訂---------線 (請先閱讀背面之注意事項再填寫本頁) 519613 經濟部智慧財產局員工消費合作社印製 A7 五、發明說明(?) 接觸界面,那些絕緣體和那些電位補償電極在此當做 界面而分別地彼此接觸,及那些在絕緣體和電位補償電極 裡的所有區域的接觸電阻係依照那些位置改變。 依照進一步的觀點,一具有觸控螢幕附加其上的平面 頒示為藉由將具有上面基底和比較低基底的觸控螢幕製成 薄片狀及組合在一起,一偏光器附在觸控螢幕之下,一液 晶顯示裝置附在偏光器之下,另一個偏光器附在液晶顯示 裝置之下,其特色: (1) 觸控螢幕的一個補償電極區域被包含在lCD的一 個邊緣區域中;以及 (2) 觸控螢幕的補償電極區域,在一薄膜上的區域形 成電位補償電才亟,而絕緣體其係在此區域的透明電極上形 成,此絕緣體其係使那些電位補償電極和透明電極彼此絕 、.彖的,使得有關於信號施加部分的一接觸電阻能依照位置 而改變,係藉由在信號施加部分附近使絕緣體的區域比較 大,而遠離信號施加部時使絕緣體的區域比較小,·以低電 阻金屬製成的線性電位補償電極,其係沿著及在絕緣體區 域裡面,而絕緣體區域係在透明的電極上形成的;一可變 接觸電阻層其上那些電位補償電極和那些絕緣體彼此接觸 在一起的所有區域的接觸電阻能依照位置的不同而改變。 在此種方法,當一相關於電阻式觸控螢幕的基本結構 之電極被安排的時候,線性的或非線性的絕緣體在透明電 極上被形成,及那些電位補償電極與絕緣體的區域係安排 集中在之因此,絕緣體區域在信號施加部分被設定比 較大的’而絕緣體區域在遠離信號施加部分處被設定比較 ^纸張尺度適用中國國豕標準(CNS)A4規格(21〇 X 29T1公爱) ------------•裝------ (請先閱讀背面之注意事項再填寫本頁) 訂---------^0, 519613 A7Vdiff = Vmeas_VN, A Vχ = Vχ 1-VXN > In one case, the potential 値 at point X3 in FIG. 2 should be equal to V3 値 in FIG. 3, but the measured potential 点 at point X3, Its position is on the measured measurement curve in Figure 3, and the difference between the ideal and measurement points at each point from γ 1 to γ is represented by VDIFF. Thus, the linear error at a certain point is calculated as the error VDIFF at this point and the relative magnitude of the voltage difference between νχ 1 and VX2. This calculation method is also applicable to the direction of the plant axis. When the position information of the finger or pen is displayed on the screen, the error caused by the linearity of the electrode will make the position information incorrect. For this reason, errors can be used as a criterion for the difference between good and inferior products. Even if the product has miniaturization, ultra-thinning, and stable driving capability, it is necessary to design it. • The package linearity is more important than other factors, because it is directly related to the error of the position information. Therefore, when the evaluation of the product is regarded as good or inferior, although the electrode linearity // 'j is equivalent to the inspection of the electrical characteristics of the touch screen. The electrical characteristics of the touch screen may come from an evaluation of the electrical structure of the touch screen. FIG. 4 shows a method of forming a 4-wire resistive electrode 20 by using two kinds of metals as conductors. Those potential-compensating electrodes 40a and 40b made of a low-resistance metal are strips formed on the transparent electrode 30 and having a constant thickness and width, and the transparent electrode 30 is a high-resistance metal It is made and formed into a planar shape having the same thickness. The equivalent electrical model of this structure is shown in Figure 5 'paper size applicable to Zhongguan Standard (CNS) A4 specification ⑵Q χ 297 &) ^ -------- ^ -------- -(Please read the precautions on the back before filling out this page) 519613 A7 B7 V. Description of the Invention (ί) Examples. Here, as shown in FIG. 5, those potential-compensating electrodes 40 a and 40 b made of low-resistance metal are arranged in series with those low-resistance elements and are arranged perpendicular to the signal application direction, and the transparent electrode 30 is arranged to Indicate flat resistance, which arranges those resistive elements into a matrix type. In addition, those potential compensation electrodes 40a, 40b and the transparent electrode 30 are electrically coupled together through a contact resistance element RC. Theoretically, the contact resistance means should not exist in the transparent electrode 30 and those potential compensation electrodes 40, 4J) b. However, when the potential distribution on the touch screen actually manufactured is measured, the contact resistance exists on the touch screen, so it has a certain influence on the potential distribution. It is considered to be due to the difference in materials between those potential compensation electrodes and the transparent electrode 30. Therefore, it is necessary to resolve the problem based on a detailed breakdown of the materials used. However, the current state of the touch screen has been set based on the assumption that the contact resistance exists. The problems and disadvantages of the potential compensation electrodes 40a, _ can be determined by the linear and equivalent potential distribution of the electrode 20 And be understood. When a signal is applied to the touch screen, Figure 6 shows an equivalent circuit of the electrode. Figure 7 shows the potential divisions according to those at the Η = position in Figure 6. In order to get accurate position information, the potential cloth should! The ideal potential-sample is formed vertically in the signal application direction. As shown in the figure, when those potentials are actually measured on the touch screen I " Γ, the errors between the measurement potential and the potential M "are caused by this supply. The distance between the field and the application of the ^ number becomes farther, Those that are narrow ^ become bigger (that is, those that increase erroneously). Paper ruler ¥ _ towel Guanjiapi 519613 Printed by the Consumers ’Cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs A7 B7 V. Description of invention (public) In addition to this This phenomenon is deepened at the edge between the touch screen and the display. When the touch screen is added to a flat display, it will inevitably occur. For example, when 1 ^ < :: 1) The display needs to be satisfactorily miniaturized and thin. When the touch screen is added, those electrodes should be designed in, for example, the LCD (that is, the area between the viewing area and the outer circumference of the glass). ) Is formed in a narrow region of the edge region, so the width of the electrode becomes smaller, and finally the resistance 値 becomes larger. Then, this causes a linearity error of the electrode, and a second-class touch screen is generated. Because low The resistance 値 of the potential compensating electrode made of resistance metal and the resistance 透明 of the transparent electrode are not very similar, and the potential distribution according to those positions will be definitely shown in Fig. 7. In order to solve the defects according to the position The potential distribution of the potential compensation electrodes 40a, 40b should be small, and the width and thickness of the electrodes should be trimmed to reduce their resistance. However, when considering the fact that it is used as a display read device, When the touch screen is designed, it is impossible to extend the width and thickness of the electrode without limitation in order to reduce the resistance of the potential compensation electrode. &Amp; Mingren: Because of this, based on the spirit of active invention, I urgently want to It can be solved, the above problem "the structure of the touch screen electrode and the flat display containing the above structure" after several research experiments until the completion of this novel progress [summary of the present invention] i the present invention allows a potential compensation Distortion between the electrode and the transparent electrode 'by adjusting a paper size between the potential compensation electrode and the transparent electrode Standard (CNS) A4 size ⑵G X 29 external copy -------- ^ --------- (Please read the note on the back? Matters before filling out this page) Staff of the Intellectual Property Bureau of the Ministry of Economic Affairs Consumer Cooperative Co., Ltd. printed 519613 V. Description of Invention (ί)) Insulator areas were compensated, and their names could change. Therefore, the contact resistance between the daggers is another object of the present invention. When the touch screen is attached to a narrow area without potential distortion, it reduces the area between the potential compensation electrode and the transparent electrical insulator. Especially when there is a distance between the #insulator and the signal application contact. The purpose of the present invention is to provide a flat display with a touch screen, and signal distortion can be maintained by maintaining the touch screen. In order to accomplish these objectives, according to an aspect of the present invention, the electrode structure used in the electric touch screen includes an X-axis potential compensation electrode in the X-axis direction, It is made of low-resistance metal and arranged on both sides of a transparent conductive film. In order to define the active area made of high-resistance metal, the y-axis potential compensation electrode in the y-axis direction is used. Low-resistance metal made of ^ is arranged on the other side of the transparent conductive film on the substrate, so that the active area of the resistance metal is made of metal, and the dot-shaped space separation device is opened. The active areas between the x-axis potential compensation electrodes to insulate the two substrates from each other include: a potential compensation electrode is formed in a region on a thin film, and an insulator is formed on a transparent electrode in this region, the insulator It is to supplement those potentials: the private electrode and the transparent sun and moon are insulated from each other, and the contact privacy of the signal application port part is changed according to the position. It is to make the insulator area near the signal application part. It is relatively large, and the area of the insulator is relatively small when it is far from the signal application part; The paper standard stab scarf Guan Tzu Pi (CNS) A4 secret G χ 2971 dagger love) ------------ • equipment- ----- (Please read the precautions on the back before filling this page) · 11111 Line # 519613 Printed by Tfc'JPrivate A7 B7, Employees' Cooperatives, Intellectual Property Bureau, Ministry of Economic Affairs V. Description of Invention (2) Made of low resistance metal A linear potential compensation electrode formed along and inside the insulator region, and the insulator region is formed on the transparent electrode; and a variable contact resistance layer on which the potential compensation electrodes and those insulators are connected to each other All regions of the contact resistance can be changed in accordance with the different position. According to another aspect of the present invention, the electrode structure used in the resistive touch screen includes an x_axis potential compensation electrode in the x_axis direction, which is made of a low resistance metal and arranged on a substrate. On both sides of the transparent conductive film, in order to define the active area of high resistance metal, the y-axis potential compensation electrode in the y-axis direction is made of low resistance metal and arranged on another substrate. The two sides of the conductive film, so as to define an active area made of highly private metal, and a dot-shaped space separation device, are active areas between those X-axis potential compensation electrodes, and are used to insulate the two substrates from each other. Contains: The potential compensation electrode is formed in a region on a thin film, and the insulator is formed on the transparent electrode in this region. The insulator is to isolate those potential compensation electrodes and the transparent electrode from each other. The insulation system is constructed to have: The internal boundary allows a contact resistance of the signal application part to be changed depending on the position, by making the area ratio of the insulator near the signal application part = , ❼it makes the area of the insulator smaller when it is away from the signal application part; the potential compensation electrode is formed by i resistance metal A, S has a boundary line on one side and an internal boundary of the area defined by the insulator on the transparent electrode, ' Spring contact 'on the other-side of the other-bound line is parallel to the transparent electrode; and the size of the paper is applicable to the Chinese national standard (2 〖0 χ 29? Each Li >> ----------- install- ------- Order --------- line (please read the precautions on the back before filling this page) 519613 Printed by the Consumer Cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs A7 V. Invention Description (?) The contact interface, those insulators and those potential compensation electrodes are in contact with each other as an interface here, and the contact resistance of all regions in the insulator and the potential compensation electrode is changed according to those positions. According to a further point of view, one having a touch The plane attached to the screen is presented as a thin sheet and a combination of a touch screen with an upper base and a relatively low base. A polarizer is attached below the touch screen, and a liquid crystal display device is attached to the polarized light. Under the device Another polarizer is attached below the liquid crystal display device, which features: (1) a compensation electrode area of the touch screen is included in an edge area of the LCD; and (2) a compensation electrode area of the touch screen, in It is urgent to form a potential-compensated region on a film, and an insulator is formed on the transparent electrode in this region. This insulator isolates those potential-compensated electrodes and the transparent electrode from each other. This makes the signal application part The contact resistance of can be changed according to the position, by making the area of the insulator larger near the signal applying part, and making the area of the insulator smaller when away from the signal applying part, a linear potential compensation electrode made of low resistance metal , Which is formed along and in the insulator region, and the insulator region is formed on transparent electrodes; a variable contact resistance layer on which the potential compensation electrodes and the contact resistance of all regions where the insulators are in contact with each other can follow The location varies. In this method, when an electrode related to the basic structure of a resistive touch screen is arranged, a linear or non-linear insulator is formed on the transparent electrode, and those areas where the potential compensation electrode and the insulator are arranged are concentrated. For this reason, the insulator area is set to be relatively large in the signal application part, and the insulator area is set to be relatively far away from the signal application part. ^ The paper size applies the Chinese National Standard (CNS) A4 specification (21〇 29T1 public love). ------------ • Equipment ------ (Please read the precautions on the back before filling this page) Order --------- ^ 0, 519613 A7

小,所以接觸電阻在信號施加部分變得比較大的,在噠離 仏號施加部分變得比較小的當。因此,信號扭曲被減少, 將最佳的觸控螢幕加入到顯示單位的狹窄邊緣而沒有信號 扭曲是可能被實現的。 由於本發明構造新穎,能提供產業上利用,且確有增 進功效,故依法申請專利。 曰 為使貴審查委員能進一步瞭解本發明之結構、特徵及 其目的,茲附以圖式及較佳具體實施例之詳細說明如后·· 【圖式簡單説明】 第1圖··係-習知觸控螢幕的_電極結構示意圖。 1 一舉例説明觸控螢幕測量線性的一個方法之示 係舉例説明依照觸控勞幕電極的線 法的曲線圖。 第2圖 第3圖 第4圖 第5圖 經濟部智慧財產局員工消費合作社印 係一電極的一般結構顯示圖。 係一觸控螢幕裡電極的接觸電阻的一個等效電路 7JT 圖 〇 係一觸控螢幕裡電極的一! ^私让的個寺效電路顯示圖。 係依照藉著接觸至一觸控 分佈顯示圖。純螢幕^〈電極的-^ 係依據本發明之一觸和搖 圖。 社螢幕和-電極結構的顯7 第9圖:係依據本發明之_電極結構的顯示圖。 第6圖 第7圖第8圖It is small, so the contact resistance becomes larger in the signal application part, and becomes smaller in the application part. Therefore, signal distortion is reduced, and it is possible to add the best touch screen to the narrow edge of the display unit without signal distortion. Since the present invention has a novel structure, can provide industrial use, and does have an increasing effect, it has applied for a patent in accordance with the law. In order to enable your review committee to further understand the structure, characteristics and purpose of the present invention, the detailed description of the drawings and preferred embodiments is attached as follows. [Simplified Description of the Drawings] Figure 1 ··- Schematic diagram of the electrode structure of the conventional touch screen. 1 An example of a method for measuring the linearity of a touch screen is an example of a graph showing the line method of a touch screen electrode. Figure 2 Figure 3 Figure 4 Figure 5 The general structure of an electrode printed by the Consumer Cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs. An equivalent circuit of the contact resistance of electrodes in a touch screen 7JT Figure 〇 One of the electrodes in a touch screen! ^ Private display of a temple effect circuit. It is displayed by touching to a touch distribution. The pure screen ^ <electrode-^ is a touch and pan according to one of the present invention. The screen of the company and the electrode structure 7 FIG. 9 is a display diagram of the electrode structure according to the present invention. Figure 6 Figure 7 Figure 8

本纸張尺錢財關涵 x 297公釐)This paper ruler Qian Cai Guan Han x 297 mm)

«壯衣tr-------- (請先閲讀背面之注意事項再填寫本頁) •線0· 519613 A7 五、發明說明((I ) 第1 0圖·係依擔太 顯示圖發月之觸控螢幕裡的電極之另—個結構 第11圖:係依據本發明之第1G圖 &quot; 二® 为外一個例子一個的顯 第12圖據本發明之觸控㈣裡的電極進—步的結構 第1 3圖:係依據本發 圖。 第1 4圖·係依據本發明 明之第12圖另外—個例子的一顯示 顯示器的配置二具。有觸控螢幕附加其上的平面 【圖號説明】 經濟部智慧財產局員工消費合作社印製 10基底 2 0電極 3 0透明電極 4 0 a電位補償電極 4 0 b電位補償電極 1 〇 1 a電位補償電極 1 〇 1 b電位補償電極 102透明電極 1 0 3 h號施加部分 104a絕緣體 l〇4b絕緣體 1 05 a接觸面 1 0 5 b接觸面 105内部界線 106界線 107界線 1 08接觸面 1 10上面基底 111下面基底 1 12極化器 1 1 3液晶顯示器 1 14極化器 115可變接觸電阻層 本紙張尺度適用中國國家標準(CNS)A4規格(210 x 297哙釐) 1111---AW ^ ---I----^--------- (請先閱讀背面之注意事項再填寫本頁) 五、發明說明(p) 【較佳具體實施例之詳細説明】 通常,電阻式觸控瑩幕係由上面基底和比較低基底、 x/y-軸電位補償電極、透明傳導薄膜、點狀間隔裝置、和 被安排在那些基底之間的絕緣體所組成,所以外部的信號 傳送到面板能被-控制器和一外部系統所讀出,然後當作 I系統的-驅動信號。電阻式觸控螢幕包含比較低基底, 其有以低私阻金屬製成的軸電位補償電極被任意的間隔 且對稱性地安排’在其上面,透明傳導薄膜以當作活躍區 域而被形A,一比較高的基底,其内有以高電阻金屬製成 的y-軸電位補償電極被任意的間隔且對稱性地安排,和在 八上透月傳導薄膜以當作活躍區域而被开乂成。比較低的 基底和上面的基底彼此附著在一起。 本表明私極包含絕緣體丨〇 4 a、1 〇 4 b,沿著透明電極 102兩邊緣的一個長軸方向被形成的,使得有關於信號施 加部分的一接觸電阻能依照位置而改變,當它遠離信號施 加部分藉由減少電極的區域而達成,在一薄膜上的區域形 成電位補償電極101a、101b,而絕緣體其係在相對於此區 域的透明電極丨02上形成,此絕緣體其係使那些電位補償 私極和透明電極彼此絕緣的,電位補償電極1 0 1 a、1 〇丨b係 以低電阻金屬所形成的,其係沿著及在透明電極上的絕緣 體104a、1〇仆區域裡面,相對於絕緣體的接觸面、 1 〇 5 b係由可變接觸電阻層所組成而當絕緣體1 〇 4 a、1 0 4 b 和電位補償電極10 &amp;、101b接觸時可依位置而改變。 五、發明說明((3 ) 那些密度不同的絕緣體 的’其係在透明電極1〇2上被形成,而那些電=償= =二0二係暨置在那上面的。那些絕緣體购、1〇朴 被形成:度不規則的分体,係因在信號施加部分ι〇3的絕 緣體μ度被升起及在它反面的方向密度被降低。 $第9圖所*,密度係被調整的,在信號施加部分⑻ 處的被度2A[EA/m2]係大於遠離信號施加部分⑻處的密度 B[EA/m ],以致在電位補償電極1〇u、1(^和透明電極 1 02間的接觸電阻能依位置而變化。 當那些電位補償電極101a、1〇lb被安排在那些絕緣 體104a、lG4b上的時候,由於在調整絕緣體1()4&amp;、i⑽ 的密度’那些點狀的絕緣體是有利的。第9圖顯示密度藉由 使用點狀調整的例子。除此外,連續模型係亦可適用於相 同方法的密度調整。 如第1 0圖所示,依照本發明的另一電極包含絕緣體 104a、104b,此絕緣體係被建構成具有一内部界線,使得 有關於信號施加部分的一接觸電阻能依照位置而改變,係 藉由在遠離信號施加部時使絕緣體的區域比較小,在一薄 膜上的區域形成電位補償電極1〇la、1〇lb,而絕緣體其係 在此區域的透明電極102上形成,此絕緣體其係使那些電 位補償電極和透明電極彼此絕緣的,電位補償電極1〇1&amp;、 1 01b係以低電阻金屬所形成的,在一邊係由一界線1〇6所 定義且毗連内部界線105,在另一邊,有一界線107係與透 明電極102平行,絕緣體1〇乜、104b和電位補償電極 1 0 1 a、1 0 1 b在界線1 〇 5、1 〇 6的接觸面1 〇 8上彼此接觸, 519613 __B7 五、發明說明(丨今) 在絕緣體104a、1〇仆和電位補償電極l〇la、1〇lb内的所 有區域之可變接觸電阻値可依位置而改變。 在此,那些絕緣體l〇4a、104b係被形成具有一致密 度A[EA/m2]且平坦分佈,但是那些絕緣體所形成層的形 狀被配置成在信號施加部分丨〇 3的方向具有比較大的區 域,及相反方向具有比較少的區域。這樣,絕緣體1〇“、 i〇4b的寬度被調整。結果,寬度被界面1〇5的形狀所決 定。 &lt; 訂 在透明的電極102上的絕緣體104a、1〇4b其界面1〇5 可能疋如第1 0圖所示為一曲線或如第丨丨圖所示為一直線, 絕緣體區域變得比較大當它接近信號施加部分丨〇 3而變得 比較少§ L源離#號施加部分丨〇 3。那些電位補償電極 l〇la、l〇lb與那些絕緣體104a、1〇4b的接觸,也具有一 曲線和直線的界面l〇b相對於絕緣體1〇4a、1〇讣的界面 105 〇 1 員 工 消 費 第10圖展示電極的-個安排,包含有平坦密度的點狀 絕緣體104a、104b和曲線界面1〇5其寬度從信號施加部分 103處而改變,和電位補償電極1〇la、1〇lb的界面ι〇6 係與那些絕緣體104a、104b接觸。第&quot;圖展示電極的另 外一種安排,包含有平坦密度的點狀絕緣體1〇物、1〇朴和 有直線界面105其寬度從信號施加部分1〇3處而改變,和電 位補彳貝電極1 0 1 a、1 0 1 b的界面1 〇 6係與那歧絕緣體 丨㈣接觸。在㈣界面的情況,如第10㈣示%他們從 信號施加部分1〇3變成更遠之時,那權衡値依照那些位置 I 被、给予。相反地,在直線界面的情況,如第n圖所示,當 本紙張尺度刺巾關家辟(CNS)A4麟⑵G X 2973«Zhuang Yi tr -------- (Please read the precautions on the back before filling out this page) • Line 0 · 519613 A7 V. Description of the invention ((I) No. 10 Figure · The figure of Yitantai Another structure of the electrodes in the touch screen of the moon. Figure 11: Figure 1G according to the present invention &quot; II® is an example and the figure 12 shows the electrodes in the touch panel according to the present invention The structure of the next step Figure 13: This figure is based on the present invention. Figure 14: It is based on the 12th figure of the present invention. In addition, an example of a display display is provided. There are two touch screens attached to it. Plane [Illustration of the drawing number] Printed by the Consumer Cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs 10 substrates 2 0 electrodes 3 0 transparent electrodes 4 0 a potential compensation electrode 4 0 b potential compensation electrode 1 〇1 a potential compensation electrode 1 〇1 b potential compensation Electrode 102 Transparent electrode 1 0 3h application part 104a insulator 104b insulator 1 05 a contact surface 1 0 5 b contact surface 105 internal boundary line 106 boundary line 107 boundary line 1 08 contact surface 1 10 upper substrate 111 lower substrate 1 12 polarization 1 1 3 liquid crystal display 1 14 polarizer 115 variable contact The paper size of the paper is applicable to China National Standard (CNS) A4 (210 x 297 mm) 1111 --- AW ^ --- I ---- ^ --------- (Please read the Please fill in this page again.) 5. Description of the invention (p) [Detailed description of the preferred embodiment] Generally, the resistive touch screen is composed of an upper substrate and a lower substrate, an x / y-axis potential compensation electrode, The transparent conductive film, dot spacers, and insulators arranged between those substrates, so that external signals transmitted to the panel can be read by the -controller and an external system, and then used as the drive of the I system Signal. The resistive touch screen includes a relatively low substrate with axial potential compensation electrodes made of low-private-resistance metal arranged at arbitrary intervals and symmetrically on it. A transparent conductive film is used as an active area. Shape A, a relatively high substrate with y-axis potential compensation electrodes made of high-resistance metal arranged at arbitrary intervals and symmetrically, and a transparent conductive film on the upper part of the upper part to be used as an active area. Split into. The lower base and the upper base are on each other This indicates that the private electrode contains insulators 〇 04 a and 104 b, which are formed along one long axis direction of the two edges of the transparent electrode 102, so that a contact resistance regarding the signal application part can be determined according to the position. Change, when it is far away from the signal application part, it is achieved by reducing the area of the electrode. The potential compensation electrodes 101a, 101b are formed in a region on a thin film, and the insulator is formed on the transparent electrode relative to this region. This insulator It insulates those potential-compensating private electrodes and transparent electrodes from each other. The potential-compensating electrodes 1 0 1 a, 1 〇 丨 b are formed of a low-resistance metal, and are along and on the insulators 104a, 1 on the transparent electrode. 〇 In the servo area, with respect to the contact surface of the insulator, 1 05b is composed of a variable contact resistance layer. When the insulators 104a, 104b and the potential compensation electrodes 10 &amp; 101b are in contact, Location. V. Description of the invention ((3) Those insulators with different densities are formed on the transparent electrode 102, and those with electricity = compensation == two or two series and are placed there. Those insulators are purchased, 1 〇Pak is formed: The irregularity of the degree is caused by the fact that the insulator μ of the signal application part ι03 is raised and the density on the opposite side is reduced. $ 第 9 图 **, the density is adjusted The degree 2A [EA / m2] at the signal application portion ⑻ is greater than the density B [EA / m] at a distance from the signal application portion ⑻, so that the potential compensation electrodes 10u, 1 (^, and the transparent electrode 102) The contact resistance between them can change depending on the position. When those potential compensation electrodes 101a, 10lb are arranged on those insulators 104a, 1G4b, the density of insulators 1 () 4 &amp; Insulators are advantageous. Figure 9 shows an example of the density adjustment by using dots. In addition, a continuous model can also be used for the same method of density adjustment. As shown in Figure 10, another electrode according to the present invention Containing insulators 104a, 104b, this insulation system is constructed to There is an internal boundary line, so that a contact resistance of the signal application part can be changed according to the position. By making the area of the insulator smaller when away from the signal application part, a potential compensation electrode 10a is formed in a region on a thin film. 10lb, and the insulator is formed on the transparent electrode 102 in this area. This insulator is used to insulate those potential compensation electrodes and the transparent electrode from each other. The potential compensation electrodes 101 and 101b are made of low resistance metal. Formed on one side is defined by a boundary line 106 and is adjacent to the internal boundary line 105. On the other side, a boundary line 107 is parallel to the transparent electrode 102, the insulators 10 乜, 104b, and the potential compensation electrodes 1 0 1 a, 1 0 1 b are in contact with each other on the contact surface 1 0 8 of the boundary lines 1 0 5 and 1 0 6, 519613 __B7 V. Description of the invention (丨 present) Insulators 104a, 10 and potential compensation electrodes 10a, 10b The variable contact resistance 所有 of all the regions within can be changed depending on the position. Here, those insulators 104a, 104b are formed to have a uniform density A [EA / m2] and are distributed flat, but those insulators are formed The shape of the layer is configured to have a relatively large area in the direction of the signal application section 03 and a relatively small area in the opposite direction. In this way, the widths of the insulators 10 ″ and 104b are adjusted. As a result, the width is interfaced It is determined by the shape of 105. &lt; The interface 104 of the insulators 104a and 104b ordered on the transparent electrode 102 may be a curve as shown in FIG. 10 or as shown in FIG. In a straight line, the insulator area becomes larger as it approaches the signal application section 〇 03 and becomes less § L source away ## application section 〇 03. The contact between those potential compensation electrodes 10la and 10lb and those of the insulators 104a and 104b also has a curved and straight line interface 10b relative to the interfaces of the insulators 104a and 10b 105.01 employee consumption Fig. 10 shows an arrangement of electrodes, including flat-shaped point insulators 104a, 104b and a curved interface 105 whose width is changed from the signal application portion 103, and the potential compensation electrodes 10la, 10lb The interface ι〇6 is in contact with those insulators 104a, 104b. The figure "Another arrangement of electrodes is shown, which includes a dot-shaped insulator 10 with a flat density, 10 and a straight interface 105, the width of which is changed from the signal application portion 103, and the potential compensation electrode. The interface 1 0 1 a of 1 0 1 a and 1 0 1 b is in contact with the insulator. In the case of the interface, as shown in the 10th percentile, when they change from the signal application part 103 to a further distance, the trade-off is given and given according to those positions I. Conversely, in the case of a straight-line interface, as shown in Figure n, when the paper scale stab towel Guanjiapi (CNS) A4 Lin⑵G X 2973

I 519613 經濟部智慧財產局員工消費合作社印製 A7 B7 五、發明說明((ί) 他們從信號施加部分1 03變成更遠之時,那權衡値沒依照 那些位置被給予,亦即,在這結構中,絕緣體1 〇 4 a、1 〇 4 b 的寬度係線性地改變。 除此之外,第1 2圖和第1 3圖顯示那些具有連續模型而 非點狀的絕緣體l〇4a、104b。當那些位置在信號施加部分 103處被模型定義的界面1〇5其寬度比較大,而遠離信號施 加部分1 03處被模型定義的界面1 〇5其寬度比較少。第12 圖係一狀況,當他們從信號施加部分丨〇3變成更遠之時, 那權衡値依照那些位置被給予,第丨3圖是一狀況,當他們 從信號施加部分1 03變成更遠之時,那權衡値沒依照那些 位置被給予’那即是,在這結構中,絕緣體丨〇 4 a、丨〇 4 b的 寬度係線性地沿著界面1 〇 5改變。 根據觸控螢幕的電極結構,當它被應用在如第丨4圖所 具有觸控螢幕附加其上的平面顯示器時,一電位補償電極 區域a2係被包含在LCD的一邊緣區域a丨,在具有觸控螢幕 附加其上的平面顯示器的情況,一極化器112係放在具有 上面基底110及下面基底U1的觸控螢幕之下,一液晶顯示 器1 1 3係放在極化器丨丨2之下,另一極化器丨丨4係黏附在液 晶顯示器113之下,它們都作成薄片狀且組合在一起,觸 控螢幕的電位補償電極區域a2包含絕緣體1〇乜、i〇4b, 使得有關於信號施加部分的一接觸電阻能依照位置而改 變,係藉由在遠離信號施加部時使電極的區域比較小,在 -薄膜上的區域形成電位補償電極,而絕緣體其係在此區 j的透日月电極1 03上形成’此絕緣體其係使那些電位補償 私木〇 1 a 1 0 1 b和透明電極彼此絕緣的,以低電阻金屬製 ------------•裝 ------ (請先閱讀背面之注意事項再填寫本頁) 訂 本紙張尺度適用中國國家標準(CNS)A4規格(210 297 姆) M9613 經濟部智慧財產局員工消費合作社印製 A7 、發明說明(丨b) 成的電位補償電極丨〇 的相對於絕緣^域“其係沿著及在透明電極上 絕緣體i〇4a、1〇4b和那此,:可變接觸電阻層115’那些 接觸在一# Μ、 Ρ二電位補償電極101a、101b彼此 、所有區域,其接觸電阻能依照位置的不同而 電阻層115的絕緣體_、雜形狀可為 如弟1 0圖、第i i圖所示 的連續模型。 U狀或如弟12圖、第13圖所示 ιί &amp; _ ϋ幕巾的此種安排之電極結構,-般 在1測位置資訊的執行程序巾補償電位的扭曲値。 當信號被施加於觸㈣幕時,觸㈣幕裡的電位以理 心^和興實電位的型式被產生。為了要獲得精確的位置 資訊’電位應該在如理想電位般垂直於信號施加方向被形 成’然而,在貫際上當電位在觸控勞幕上被測量的時候, 理想和眞實的電位同時地被產生,此外,和信號施加部分 的距離恩大時,在他們之間的誤差也愈大(參照在第7圖中 的電位分佈)。 吳種現象主要地被產生,係因為在電位補償電極和透 明的電極之間的電阻不纟。當&amp;,它彳能由於另外的因素 所產生。為了要解決這個問題,電位補償電極的電阻仍然 應忒比較少。因此,在電阻變得減少的方向調整寬度和厚 度,它可能是產生電阻的另一選擇。但是,當設計觸控螢 幕時,沒有限制地增加寬度和厚度以減少電位補償電極的 電阻,實際上是不可能的。這造成對設計觸控螢幕當作輸 入裝置的非常重要的服務目標如薄、輕和痩是有相反的結 果。因為這種現象,為了要獲得LCD面板,當觸控勞幕被 本紙張尺度過用中國國家標準(CNS)A4規格(210 X 297 29釐) --------^--------- (請先閱讀背面之注意事項再填寫本頁) 經濟部智慧財產局員工消費合作社印製 519613 五、發明說明((1) 加入到或整合進入LCD之内的時候,處理電位補償電極的 電阻是比較困難。 貝際上’觸控螢幕如同輸入裝置被附加在L C D的目前 情形下,如薄片的觸控螢幕其大小係超過L C D的邊緣。上 述的事實係由於’設計能被應用於例如Lcd的邊緣狹窄區 域的觸控螢幕電極是不可能的。結果,減少電極寬度以為 了適當地將如薄片的觸控螢幕疊置在Lcd的邊緣之上因而 造成電阻的增加,所以線性錯誤被產生,及最後次等的觸 控螢幕被產生。 因此,完全考慮沒有線性錯誤及LCD邊緣的觸控螢幕 的電極設計是有限制的,其影響力直接與位置資訊的可信 度有關。 依照本發明觸控螢幕的電極設計因素總結如下:首 先’當觸控螢幕如同輸入裝置被加入到顯示裝置的時候, 適用於觸控螢幕的寬度需求,有朝著越減越少的趨勢(如同 L C D —般,l C D的邊緣正在減少)。其次,如同適用於觸 &amp;螢幕寬度需求一樣有越減越少的趨勢,次等觸控螢幕將 會被產生的可能性由於觸控螢幕的電極線性而增加的趨 勢。第三,理論上,接觸電阻不應該在透明電極和電位補 4貝電極之間被產生。然而,接觸電阻實際上存在其間,它 對電位分佈有一影響。第四的,為了要正確地偵測位置資 Λ ’電位應如同理想電位般垂直於信號施加方向上被形 成。然而,當電位在觸控螢幕上實際地被測量的時候,其 係形成曲線狀但是並不像理想的電位曲線。最後,當它與 本紙張尺度適用中國國家標準(CNSW規格(21〇 X 297忍爱) 裂---------訂--------- (請先閱讀背面之注意事項再填寫本頁) 519613 A7 _B7 五、發明說明(I? y 2號施加部分變成更遠的時候,那些位置資訊的錯誤便增 :照本發明的電極包含在一薄膜上的區域形成電位補 广〇:二?絕緣體1〇4”其係在此區域的透明電極 3上形成,此絕緣體其係使那些電位補償電極和透明雨 極彼此絕緣的,此絕緣體使得有關於信號施加部分的: 觸電阻能依照位置而改變,係藉由遠離信號施加部時使電 極域比較小。因此,接觸電阻在信號施加部分ι〇3變成比 較大而遠離信號施加部分的那些位置上 為了要補償電位如第7圖中所顯示的量;V位扭曲, 在透明電極102和那些電位補償電極1〇la、1〇ib之間的接 觸電阻l〇U、101b需要被調整。接觸電阻的這個調整係等 效於在透明電極102和那些電位補償電極ι〇ι &amp;、mb之間 的區域。因此,在第6圖中被顯示的從⑴…的電位㈣ 能被調整到如在第7圖顯示的理想電位分体。結果,電極的 線性錯誤能被除去。 為了要調整絕緣體104a、1〇4b的區域,形成那些絕 緣體104a、104b的方法,主要地分類成點狀和模型形狀, 經濟部智慧財產局員工消費合作社印製 其中係使用當遠離信號施加部分時其上區域變成比較小。 如同在第9圖中所顯示的調整那些絕緣體的方法,絕緣體密 度的改變係依照與信號施加部分的距離,在第1〇圖和第η 圖所顯示的方法,電位補償電極101a、1〇lb的界面ι〇6配 置成與曲線或直線的界面105接觸,而使得絕緣體i〇4a、 l〇4b的寬度從遠離信號施加部分變得比較狹窄的,以及在 第1 2圖和第1 3圖所顯示的方法,電位補償電極丨〇丨a、 本紙張尺度適用中國國家標準(CNS)A4規格(210 X 2972谷釐) 519613 ------—B7 ___ 五、發明說明(I]) (請先閱讀背面之注意事項再填寫本頁) 101b的界面106配置成與那曲線或直線的界面1〇5接觸, 使得絕緣體104a、104b的寬度係由連續模型所形成而非點 狀且在信號施加部分變得比較大和遠離信號施加部分變得 比較小,前述方法可選擇地被應用。如此一來,設計的自 由程度將增加。 在第8圖和第1 3圖所顯示的所有電極結構,係配置成 因在偵測位置資訊程序期間所產生如第7圖曲線圖所顯示的 電位扭曲値能被補償。 第14圖顯示依照本發明觸控螢幕當作輸入裝置時被應 用於LCD的結構例子。一薄片般疊置的觸㈣幕包含上面 基底110和下面基底lli,偏光器112係附在觸控螢幕之 下,液晶元件113附在偏光器112之下,而另一個偏光器 11 4在液晶顯示器裝置113之下,全部係薄片狀且疊置組合 在一起,觸控螢幕的補償電極區域a2可被安排在LCD的邊 緣al。在習知的情況,當因減少電位補償電極電阻而使電 位扭曲被減少的時候,補償電極區域已經超過LCd的邊 緣,然而,依照本發明的電極設計,維持大的電位補償電 經濟部智慧財產局員工消t合作社印製 極寬度和厚度不是必需的。因此,補償電極區域能被充份 地應用在LCD的邊緣。 如上所述依恥本發明其具有下面的優點,電位扭曲 能藉由調整在電阻式觸控勞幕電位補償電極和透明電極之 間的絕緣體區域和變更在其間的接觸電阻而㈣償,進__ 步地’另外#個優點,觸控螢幕能被應用於狹窄的區域 而沒有電位扭曲分佈,其係當絕緣體遠離信號施加部分 時,將電位補償電極和透明電極之間的絕緣體區域做的比 本紙張尺度適用中國國家標準(CNS)A4^i7iI^x 297¾¾ ) 519613 A7 五、發明說明( ,小。此:’更進-步的優點,具有觸控螢幕附加其上的 二面顯,其藉由維持附加於平面顯示器的觸控榮幕之 電位補償電極的線性而補償信號扭曲。 综上所陳,本發明無論就目的、手段及功效,在在 其迥異於習知技術之特徵,為觸控螢幕電極結構及各 有上述結構之平面顯示器設計上之—大突破,懇請貴ς ,委:明察,早日賜准專利,俾嘉€、社會,實感德便。、惟 思的是,上述諸多實施例僅係為了便於説明而舉⑽ 已,本發明所主張之權利範圍自應以申請專利範圍所 準’而非僅限於上述實施例。 、、、I 519613 Printed by A7 B7, Consumer Cooperatives, Intellectual Property Bureau, Ministry of Economic Affairs V. Invention Description ((ί) As they moved further from the signal application section 03, the trade-offs were not given according to those positions, that is, here In the structure, the widths of the insulators 104a and 104b change linearly. In addition, Figs. 12 and 13 show those insulators 104a, 104b which have a continuous pattern instead of dots. When those positions are defined by the model at the signal application section 103, the interface 105 has a relatively large width, while those located far away from the signal application section 103 at the interface defined by the model 10 have a relatively small width. Figure 12 shows a situation When they change further from the signal application section 〇〇3, the trade-offs are given according to those positions. Figure 3 is a situation, and when they change from the signal application section 103 to further, the trade-off 値Not given according to those positions, that is, in this structure, the width of the insulators 〇〇4 a, 丨 〇4 b linearly changes along the interface 105. According to the electrode structure of the touch screen, when it is Application as shown in Figure 4 When the touch screen is attached to a flat display, a potential compensation electrode area a2 is included in an edge area a of the LCD. In the case of a flat display with a touch screen attached to it, a polarizer 112 It is placed under a touch screen with an upper substrate 110 and a lower substrate U1. A liquid crystal display 1 1 3 is placed under a polarizer 丨 2 and another polarizer 丨 4 is attached to a liquid crystal display 113 Below, they are all made into a thin sheet and combined together. The potential compensation electrode area a2 of the touch screen contains insulators 10 and 4b, so that a contact resistance of the signal application part can be changed according to the position. By making the area of the electrode smaller when away from the signal application part, a potential-compensating electrode is formed in the area on the thin film, and the insulator is formed on the transparent solar electrode 103 in this area j. This insulator makes those Potential compensation private wood 〇1 a 1 0 1 b and transparent electrode are insulated from each other, made of low resistance metal ------------ • install ------ (Please read the note on the back first Please fill in this page for the matters) China National Standard (CNS) A4 specification (210 297 um) M9613 A7 printed by the Consumers ’Cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs and printed with the invention description (丨 b) of the potential compensation electrode And on the transparent electrodes insulators 104a, 104b and that: the variable contact resistance layer 115 'which contacts one #M, P two potential compensation electrodes 101a, 101b each other, all areas, the contact resistance can be in accordance with The difference in position and the shape of the insulator of the resistance layer 115 may be a continuous model as shown in FIG. 10 and FIG. Ii. The U-shape or electrode structure of this arrangement as shown in Figure 12 and Figure 13 is similar to the distortion of the potential of the wiper in the procedure of measuring position information. When a signal is applied to the touch screen, the potential in the touch screen is generated in the form of a sense of ^ and a substantial potential. In order to obtain accurate position information, 'the potential should be formed perpendicular to the signal application direction as the ideal potential'. However, when the potential is measured on the touch screen, the ideal and solid potentials are generated simultaneously. In addition, the larger the distance from the signal application part, the greater the error between them (refer to the potential distribution in Figure 7). This kind of phenomenon is mainly caused because the resistance between the potential compensation electrode and the transparent electrode is not large. When &amp; it cannot be generated by other factors. In order to solve this problem, the resistance of the potential compensation electrode should still be relatively small. Therefore, adjusting the width and thickness in the direction where the resistance becomes reduced may be another option for generating resistance. However, when designing a touch screen, it is practically impossible to increase the width and thickness without limitation to reduce the resistance of the potential compensation electrode. This creates very important service goals for designing touch screens as input devices, such as thin, light, and slim, with opposite results. Because of this phenomenon, in order to obtain the LCD panel, when the touch screen is used in this paper, the Chinese National Standard (CNS) A4 specification (210 X 297 29%) is used. -------- ^ ---- ----- (Please read the notes on the back before filling out this page) Printed by the Consumer Cooperatives of the Intellectual Property Bureau of the Ministry of Economic Affairs 519613 V. Invention Description ((1) When added or integrated into the LCD, the potential is processed Compensating the resistance of the electrodes is more difficult. In the current situation where the touch screen is attached to the LCD like an input device, such as a thin touch screen whose size exceeds the edge of the LCD. The above fact is due to the 'design can be It is impossible to apply a touch screen electrode such as an LCD with a narrow edge area. As a result, the electrode width is reduced in order to appropriately stack a touch screen such as a thin film over the edge of the LCD, thereby increasing the resistance, so linear Errors were generated, and the last touch screen was generated. Therefore, the electrode design of the touch screen without linear errors and the edge of the LCD is completely limited, and its influence is directly related to the location information. The electrode design factors of the touch screen according to the present invention are summarized as follows: First, when the touch screen is added to the display device as an input device, the width requirements applicable to the touch screen are reduced. Trend (like LCD, the edges of CDs are decreasing). Secondly, there is a tendency to decrease and decrease as it applies to touch &amp; screen width requirements, the possibility of inferior touch screens will be generated due to touch Screen electrodes tend to increase linearly. Third, in theory, contact resistance should not be generated between the transparent electrode and the potential compensation electrode. However, contact resistance actually exists in the meantime, and it has an effect on the potential distribution. In order to accurately detect the position, the potential Δ ′ potential should be formed perpendicular to the signal application direction as the ideal potential. However, when the potential is actually measured on the touch screen, it forms a curved shape, but Not like the ideal potential curve. Finally, when it is in accordance with the Chinese national standard (CNSW specification (21〇X 297 tolerance)) with this paper scale ---- ----- Order --------- (Please read the precautions on the back before filling out this page) 519613 A7 _B7 V. Description of the invention (when the application part of I? Y No. 2 becomes farther, those The error of the position information is increased: the electrode according to the present invention includes a region on a thin film to form a potential complement. 0: 2? Insulator 1104 "is formed on the transparent electrode 3 in this region, and the insulator is used for those The potential compensating electrode and the transparent rain electrode are insulated from each other. This insulator makes the signal application part: the contact resistance can be changed according to the position, which makes the electrode area smaller when it is far away from the signal application part. Therefore, the contact resistance is The part ι〇3 becomes relatively large and away from the signal applying part in order to compensate the potential as shown in FIG. 7; the V bit is distorted, at the transparent electrode 102 and those potential compensation electrodes 10a, 10b. The contact resistances between 10U and 101b need to be adjusted. This adjustment of the contact resistance is equivalent to the area between the transparent electrode 102 and those potential compensation electrodes ιom and mb. Therefore, the potentials ⑴ ... shown in FIG. 6 can be adjusted to the ideal potential splits as shown in FIG. As a result, the linearity error of the electrodes can be removed. In order to adjust the area of the insulators 104a and 104b, and form the methods of those insulators 104a and 104b, they are mainly classified into dots and model shapes. It is printed by the Consumer Cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs, which is used when away from the signal application part. The area above becomes smaller. As shown in Figure 9, the method of adjusting those insulators, the insulator density is changed according to the distance from the signal application part, the method shown in Figures 10 and η, potential compensation electrodes 101a, 10lb The interface ι〇6 is configured to be in contact with the curved or straight interface 105, so that the widths of the insulators 〇04a, 104b become narrower away from the signal application portion, and in FIGS. 12 and 13 The method shown, potential compensation electrode 丨 〇 丨 a. This paper size is applicable to China National Standard (CNS) A4 specification (210 X 2972 centimeters) 519613 ------— B7 ___ V. Description of the invention (I)) (Please read the precautions on the back before filling this page) The interface 106 of 101b is configured to contact the curved or straight interface 105, so that the width of the insulators 104a and 104b is formed by a continuous model rather than a point and is The signal application portion becomes larger and the distance from the signal application portion becomes smaller, and the aforementioned method can be optionally applied. As a result, the freedom of design will increase. All the electrode structures shown in Fig. 8 and Fig. 13 are configured so that the potential distortion generated during the detection position information procedure as shown in the graph of Fig. 7 cannot be compensated. Fig. 14 shows a structural example of a touch screen according to the present invention applied to an LCD as an input device. A sheet-like stacked touch screen includes an upper substrate 110 and a lower substrate 11i. A polarizer 112 is attached under the touch screen, a liquid crystal element 113 is attached under the polarizer 112, and another polarizer 114 is in a liquid crystal. Below the display device 113, all of them are sheet-like and stacked together, and the compensation electrode area a2 of the touch screen can be arranged on the edge a1 of the LCD. In the conventional case, when the potential distortion is reduced by reducing the resistance of the potential compensation electrode, the area of the compensation electrode has exceeded the edge of the LCd. However, the electrode design according to the present invention maintains a large potential compensation. Bureau staff eliminates the need for printed pole widths and thicknesses of cooperatives. Therefore, the compensation electrode area can be fully applied to the edge of the LCD. As described above, the present invention has the following advantages. The potential distortion can be compensated by adjusting the area of the insulator between the potential compensation electrode and the transparent electrode of the resistive touch screen and changing the contact resistance therebetween. _ 步 地 'Another # advantages, the touch screen can be applied to narrow areas without potential distortion distribution, which is the ratio of the insulator area between the potential compensation electrode and the transparent electrode when the insulator is away from the signal application part This paper size applies to Chinese National Standard (CNS) A4 ^ i7iI ^ x 297¾¾) 519613 A7 V. Description of the invention (, small. This: 'advanced-advanced' advantage, with a two-sided display attached to the touch screen, which The signal distortion is compensated by maintaining the linearity of the potential compensation electrode attached to the touch screen of the flat display. In summary, the present invention is different from the conventional technology in terms of its features, methods, and effects. Touch screen electrode structure and flat display design with each of the above structures — a big breakthrough, I urge you to pay for it. Commission: Mingcha, early grant of quasi-patent, social, real sense Convenience. However, it is to be noted that the above-mentioned many embodiments are merely for the convenience of explanation, and the scope of the claimed rights of the present invention should be based on the scope of patent application 'and not limited to the above-mentioned embodiments.

裝------- 猜先閱讀背面之注意事項再填寫本頁) 經濟部智慧財產局員工消費合作社印製--------- Guess read the notes on the back before filling out this page) Printed by the Consumer Cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs

丨訂----丨 Order ----

Claims (1)

519613 A8B8C8D8 六、申請專利範圍 1· 一種使用於電阻式觸控螢幕的電極結構,其中,在 χ_軸方向上的X-軸電位補償電極,係用低電忸金屬製的, 其係安排在一基底上的透明傳導薄膜兩邊以定義高電阻金 屬製的活躍區,在y-軸方向上的厂軸電位補償電極,係用 低電阻金屬製的,其係安排在另一基底上的透明傳導薄膜 兩邊以足義高電阻金屬製的活躍區,及點狀間隔裝置係形 成於X-軸電位補償電極之間的活躍的區以用將上述二個基 底彼此形成絕緣,包含: 、絶緣體其係透明電極一區域上形成,而薄膜上該區域 形成電位補償電極,此絕緣體其係使那些電位補償電極和 透明電極彼此絕緣的,及有關於信號施加部分的一接觸電 阻能依照位置而改變,㈣由在信號施加部分附近使絕緣 體的區域比較大,而遠離信號施加部時使絕緣體的區域比 較小; 以低電阻金屬製成的線性電位補償電極,其係沿著及 線 在絕緣體區域裡面,而絕緣體區域係在透明的電極上形成 的;以及 經濟部智慧財產局員工消費合作社印製 -可變接觸電阻層其上那些電位補償電極和那些絕緣 體彼此接觸在-起的所有區域的接觸電阻能依照位置的不 同而改變。 2.如申請專·園第Μ所述之使用於電阻式觸控勞 幕的電極結構,其中,.該絕緣體有意地具有不同密度係在 透明電極上形成’及該電位補償電極係薄片狀且疊置在絕 緣體上的。 519613 A8 B8 C8 D8 六、申請專利範圍 3·如申請專利範圍第丨項所述之使用於電阻式觸控螢 幕的電極結構,其中,該絕緣體被形成有密度不規則的分 ’係在信號施加部分的方向絕緣體之密度被增加及在它 反面的方向密度被逐漸地減少。 一 ·如申清專利範圍第3項所述之使用於電阻式觸控勞 幕的兒極結構,其中,在信號施加部分處的密度A[EA/m2· =大糸运離仏號施加部分處的密度B[EA/m2],以致在電位 補k %極和透明電極間的接觸電阻能依位置而變化。 5·如申請專利範圍第1項所述之使用於電阻式觸控勞 幕的電極結構’其中,位在電位補償電極上的該絕緣體被 安排具有點狀結構。 6 ·如申請專利範圍第1項所述之使用於電阻式觸控螢 幕的電極結構,其中,位在電位補償電極上的該絕緣體被 安排具有連續模型的形狀結構。 7· —種使用於電阻式觸控螢幕的電極結構,其中,在 X-軸方向上的X-軸電位補償電極,係用低電阻金屬製的, 其係安排在一基底上的透明傳導薄膜兩邊以定義高電阻金 屬製的活躍區,在y_軸方向上的”軸電位補償電極,係用 低電阻金屬製的,其係安排在另一基底上的透明傳導薄膜 兩邊以定義高電阻金屬製的活躍區,及點狀空間分隔裝置 係形成於X-軸電位補償電極之間的活躍的區以用將上述二 個基底彼此形成絕緣,包含: 系巴緣體其係透明電極一區域上形成,而薄膜上該區域 形成電位補償電極,而此絕緣體其係使那些電位補償電極 和透明電極彼此絕緣的,此絕緣體係被建構成具有一内部 本紙張尺度適用中國國家標準(CNS)A4規格(210 X 2972分g ) (請先閱讀背面之注意事項再填寫本頁) -裝·-------訂---------線| 經濟部智慧財產局員工消費合作社印^^ 六、申請專利範圍 :得有關於信號施加部分的接觸電阻能依照位置而 大二丄精:Λ信號施加部分附近使絕緣體的區域比較 :¾離信號施加部時使絕緣體的區域比較小· 電位補償電極係以低電阻金屬所形成的, 二=與由在透明電極上的絕緣體所定義區域的一内: 觸’在另-邊的另-界線係與透明電極平行.以及 1 觸界面,那些絕緣體和那些電位補償電極在此當做 裡的^別地彼此接觸,及那些在絕緣體和電位補償電極 ,尸有區域的接觸電阻係依照那些位置而改變。 ^中μ專利㈣第7項所述之使用於電阻式觸控螢 、廷極結構,其中,那些絕緣體係被形成具有一致密产 =;1 且:t分佈,且絕緣體的寬度係依據該界㈣ 狀而调正,使传絕緣體的形狀在朝信號施加部分的方向 上被形成具有較大的面積,而遠離信號施加部分的方向上 具有較少的面積。 9·如申請專利範園第7項所述之使用於電阻式觸控螢 幕的私極結構’其中,位在電位補償電極上的該絕緣體之 界面形成曲線或直線形狀,使得絕緣體的面積在信號施加 部分處變传比較大,而遠離信號施加部分處變得比較少。 、1 〇 .如申叫專利範圍第7項或第9項所述之使用於電阻 式觸控螢幕1電極結構,其中,絕緣體之界面具有曲㈣ 狀曲、、泉加權値被給與係依照位置當它遠離信號施加部分 以形成所述曲線絕緣體 11.如申請專利範圍第7項或第|項所述之使用於1 阻式觸控螢幕的電極結構,其中,絕1之界面具有直* 本紙張^用中^&quot;國家標^) 519613 六、申請專利範圍 n’加權値没依照所述位置被給與當它遠離信號施加 分時所述絕緣體的寬度可直線地改變。 12.如申請冬利園第7項所述之使甩於電阻 幕的電極結構,其中,雨户社於t 二黑 Ψ 私t補償電極與絕緣體接觸且有一 曲線或直線的界面其係相對於絕緣體的界面的。- 1 Q 一 曰士厶四,、·· -· 由組合 fe低的基 13. —具有觸控螢幕附加其上的平面顯示 及製成薄片的觸控螢幕而其包含上面的基底和 底’-偏光器被附在該觸控螢幕之下,一液晶顯示器裝冒 附在上述的偏光11之下,和另—個偏光II被附在上述的i 晶顯π器裝置下,具有以下的特色: ⑴所述觸控螢幕的一個補償電極區域被包含在LCD 的一個邊緣區域中, 線 (2) ^述的觸控螢幕的補償電極區域,在一薄膜上的 區域形成電位補償電極,而絕緣體其係在此區域 $透明電極上形成,此絕緣體其係使那些電位補 償電極和透明電極彼此絕緣的,使得有關於信號 施加邵分的一接觸電阻能依照位置而改變,係藉 由在信號施加部分附近使絕緣體的區域比較大, 而遠離信號施加部時使絕緣體的區域比較小;以 低電阻金屬製成的線性電位補償電極,其係沿著 =在絕緣體區域裡面,而絕緣體區域係在透明的 電極上形成的;一可變接觸電阻層其上那些電位 補償電極和那些絕緣體彼此接觸在一起的所有區 域的接觸電阻能依照位置的不同而改變。 本紙張尺度適用中國國豕“準(CNS)A4規格(210 X 2972於爱519613 A8B8C8D8 6. Scope of patent application 1. An electrode structure for a resistive touch screen, in which the X-axis potential compensation electrode in the χ_ axis direction is made of low-electricity metal, which is arranged in Two sides of a transparent conductive film on one substrate define an active area of high-resistance metal, and the factory-axis potential compensation electrode in the y-axis direction is made of a low-resistance metal, which is transparently arranged on the other substrate Both sides of the film are active regions made of high-resistance metal, and dot-shaped spacers are formed between the active regions of the X-axis potential compensation electrodes to insulate the two substrates from each other, including: A transparent electrode is formed on a region, and a potential compensation electrode is formed on the region of the thin film. This insulator insulates the potential compensation electrode and the transparent electrode from each other, and a contact resistance of the signal application part can be changed according to the position. The area of the insulator is made larger near the signal applying portion, and the area of the insulator is made smaller when away from the signal applying portion; A linear potential compensation electrode made of a resistive metal, which is formed along the line in the insulator area, and the insulator area is formed on the transparent electrode; and printed by the consumer cooperative of the Intellectual Property Bureau of the Ministry of Economic Affairs-variable contact resistance layer The contact resistance of all regions on which the potential compensation electrodes and those insulators come in contact with each other can be changed according to the position. 2. The electrode structure for a resistive touch screen as described in the application section M, wherein the insulator is deliberately formed on a transparent electrode with different densities, and the potential compensation electrode is sheet-like and Stacked on insulators. 519613 A8 B8 C8 D8 VI. Patent application scope 3 · The electrode structure for a resistive touch screen as described in item 丨 of the patent application scope, in which the insulator is formed with irregular density points in the signal application The density of part of the directional insulator is increased and the directional density on the opposite side is gradually decreased. 1. The child pole structure used in a resistive touch screen as described in item 3 of the patent application scope, wherein the density A [EA / m2 · = the big 糸 仏 出 仏 仏 application part The density B [EA / m2] is such that the contact resistance between the potential compensation k% electrode and the transparent electrode can change depending on the position. 5. The electrode structure for a resistive touch screen as described in item 1 of the scope of the patent application, wherein the insulator on the potential compensation electrode is arranged to have a dot structure. 6. The electrode structure for a resistive touch screen as described in item 1 of the scope of patent application, wherein the insulator on the potential compensation electrode is arranged to have a continuous pattern shape structure. 7. · An electrode structure for a resistive touch screen, wherein the X-axis potential compensation electrode in the X-axis direction is made of a low-resistance metal and is a transparent conductive film arranged on a substrate The two sides define the active area of high-resistance metal. The "axis potential compensation electrode in the y-axis direction" is made of low-resistance metal. It is arranged on both sides of a transparent conductive film on the other substrate to define the high-resistance metal. The active area and the dot-shaped space separating device are formed in the active area between the X-axis potential compensation electrodes to insulate the two substrates from each other, and include: And the potential compensation electrode is formed in this area on the film, and the insulator is used to insulate those potential compensation electrodes and the transparent electrode from each other. The insulation system is constructed to have an internal paper size applicable to China National Standard (CNS) A4 specifications. (210 X 2972 points g) (Please read the precautions on the back before filling out this page) -Packing -------- Order --------- Line | Consumer Cooperatives, Intellectual Property Bureau, Ministry of Economic Affairs Seal ^^ Scope of patent application: The contact resistance of the signal application part can be increased according to the position. Λ: Compare the area of the insulator near the signal application part: ¾ Make the area of the insulator smaller when away from the signal application part. • Potential compensation electrode It is made of low-resistance metal, two = within one of the area defined by the insulator on the transparent electrode: The other-bound line on the other side is parallel to the transparent electrode. And the 1 touch interface, those insulators and The potential-compensating electrodes are here considered to be in contact with each other separately, and the contact resistance of the insulator and the potential-compensating electrode in the corpuscle area is changed according to those positions. ^ In the patent of No. 7 is used for Resistive touch screen, polar structure, in which those insulation systems are formed with uniform density =; 1 and: t distribution, and the width of the insulator is adjusted according to the shape of the boundary, so that the shape of the insulator is The direction of the signal application portion is formed to have a larger area, and the direction away from the signal application portion is formed to have a smaller area. The private electrode structure used in the resistive touch screen according to item 7, wherein the interface of the insulator on the potential compensation electrode forms a curve or a straight line shape, so that the area of the insulator becomes larger at the signal application part. However, the distance away from the signal application part becomes relatively small. 10. The electrode structure used in the resistive touch screen 1 as described in the 7th or 9th of the patent application scope, wherein the interface of the insulator has a curved shape. The curved, spring-shaped weight is given according to the position when it is away from the signal application part to form the curved insulator. 11. It is used in 1 resistive touch screen as described in the patent application scope item 7 or item | Electrode structure, in which the interface of absolute 1 has a straight line * this paper ^ in use ^ &quot; national standard ^) 519613 6. Patent application scope n 'weighting is not given according to the position when it is away from the signal application points The width of the insulator can be changed linearly. 12. The electrode structure to be thrown on the resistive curtain as described in item 7 of the Winter Park, wherein the Utosha Yu t two black Ψ t compensation electrode is in contact with the insulator and has a curved or straight interface which is relative to For the interface of insulators. -1 Q Yi Shi Shi Si, ...-... by a combination of low-featured base 13. — Has a flat display on the touch screen and a touch screen made of thin film which contains the base and bottom -A polarizer is attached under the touch screen, a liquid crystal display is attached under the above-mentioned polarized light 11, and another polarized light II is attached under the above-mentioned i-crystal display device, which has the following characteristics : ⑴A compensation electrode region of the touch screen is included in an edge region of the LCD. The compensation electrode region of the touch screen described in line (2), a potential compensation electrode is formed on a thin film region, and the insulator It is formed on the transparent electrode in this area. This insulator insulates those potential compensation electrodes and transparent electrodes from each other, so that a contact resistance related to signal application can be changed according to position. The area of the insulator is relatively large near the part, and the area of the insulator is relatively small when away from the signal application part; the linear potential compensation electrode made of low resistance metal is Inside, the insulator region is formed on transparent electrodes; the contact resistance of all potential compensation electrodes on the variable contact resistance layer and all regions where the insulators are in contact with each other can be changed according to different positions. This paper size applies to China National Standard "CNS" A4 (210 X 2972 Yu Ai
TW090116022A 2001-05-25 2001-06-29 Structure of electrode in touch screen and flat display panel with the touch screen TW519613B (en)

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TWI386833B (en) * 2008-11-11 2013-02-21 Atlab Inc Touch panel and input device comprising the same
TWI412965B (en) * 2009-08-05 2013-10-21
TWI457801B (en) * 2012-04-11 2014-10-21 Sitronix Technology Corp The electrode structure of the touch panel

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KR100475723B1 (en) * 2001-12-26 2005-03-10 엘지.필립스 엘시디 주식회사 Touch Panel Integrated Liquid Crystal Panel and Fabricated Method Thereof
KR101030029B1 (en) * 2010-01-06 2011-04-20 삼성모바일디스플레이주식회사 Organic light emitting diode display and method for manufacturing the same

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* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI386833B (en) * 2008-11-11 2013-02-21 Atlab Inc Touch panel and input device comprising the same
TWI412965B (en) * 2009-08-05 2013-10-21
CN101776977A (en) * 2010-02-01 2010-07-14 矽创电子股份有限公司 Touch panel with impedance compensation function
TWI457801B (en) * 2012-04-11 2014-10-21 Sitronix Technology Corp The electrode structure of the touch panel

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