200928936 九、發明說明： 【發明所屬之技術領域】 本發明係關於觸控面板之領域， 板上單觸點位置虚多觸·…關於一種電阻式觸控面 直興夕觸點代表之功能的感測方法。 【先前技術】 ❹ ❹ 傳4上’電子裝置之輸人係以鍵盤與 類直覺的方式為之。夕始鉬〜二』 而不此以人 f 式為之之後，觸控面板已被廣用於各類大小型電子 «言者得以手或觸控筆等物件觸擊其上之面板的方 t置進打觸點輪人，此時觸控面板下方所設之残判裝 置感測該觸野夕外班-土 1 ’猎以化成操作該觸控電子裝置的目的。以 砧輻入之感測機制分，觸控面板可分類為電阻式、電容 =、音波式、光學式及電磁式等觸控面板；以觸控面板之種類;， “又包含觸控面板及觸控板等分類。 〜近期’更有多觸點作用於觸控面板上以對之進行功能輸入之 技術的出現’以令使用者能更方便使用具觸控面板的電子裝置。 一以電阻式觸控面板而言’其上—觸點位置之感測方法將配合 第-圖之示意說明進行。在第一圖中，該電阻式觸控面板的感測 袭置1〇包含一透明基板U、一 γ透明導電層12、-間隔物層 】3、- X透明導電層14及—控難15。該透明基板u可為一 玻璃面板’ 4又與¥透明導電層14，12與該透明基板η同形形 成，並係以銦錫氧化物（ιτο)、銦辞氧化物（ιζο)及氧化銻錫氧化 物(ΑΤΟ)等材料分職成，且在其整個表面上有均㈣電阻值。 此外’ 5亥間隔物層13被夾置於該X與Υ透明導電層14，12之間， 200928936 用以令該X與γ透明導雷@ i 4〇 逐月¥電層14，12間彼此保持隔離絕緣。 在實際操作時，該X與Υ透明導電層14,12之—γ 向側分別並輪流被透過外接導線15電性搞接以—外部 = =ΥχΓ及Χ向側則皆被連接至地，藉以利用物= £源16在乂與¥透明導電層邮上形成沿又^方向上逆降 之電位梯度分佈，並有電流〗產生 遙降 1/( , 上此時χ與Υ透明導電層 ，12之-未被電性_至外部電㈣、16者之二X或 Ο ❹ 被透過-外接導線16電性搞接至該控制器15。 J° 詳而言之，現假設-咖Μ使用者作用於該電阻 1上的位置。當使用者在該觸點Ρ4Τ㈣該電㈣觸控面板上 時’觸點Ρ處的Υ透明導電層12稍微下凹而與χ透明導雪声Μ 相接觸。此時，在觸點？下方之最近於該二X及Υ向觸^ 可分別被想像為-虛擬導線列18與—虛擬導線排ΐ9, γ透輯 電層12上的虛擬導線排18具有為該觸點Ρ隔開成二等=抗 R1與R2’且X透明導電層14上之觸點ρ將虛擬導線卿上分 隔為二阻抗R3及R4。此時，χ透明導電層14上等效阻抗t 及R4被電性轉接至控制器15，且等效阻抗们及以因透過㈣ 導線16與控繼15電性_而使虛擬導線列18上阻抗為益限 大而無電流流經。由於γ透明導電層12上的電阻係均勾分佈者， 故控制器丨5藉比較二阻抗R丨及R 2即可知觸點ρ在γ透明導電 層12上的Υ軸位置。 同理’當Υ透明導電層12之二”則被電性耦接至外部電壓 源π時’控制器15得藉虛擬導線列18上之等效阻抗幻及R4 求出觸點P在X透明導電層14上的又軸位置。 然而，電阻式觸控面板並不適合被加以多觸點之功能輸入， 6 200928936 現以第二圖進行示音筇 , 心'° 。假設二輸入點 P1(xl，yi)與 P2(x2,y2) 被作用於電阻式觸控面板上， ^ π n± ,. 另有一知入點 P3(xl，y2)與 P4(x2，yl) 虚P2°及Ρ·Γ皮作用於該電阻式觸控面板上，則該二組輸入點P1 ’、2及P3與p4被减測至丨丨沾v 故該二組輸—P=二座_〜2、… 鑑於上述原因n ' 為控制器15分別。 斑多觸± Μ 以感測電阻式觸控面板上單觸點位置 與夕觸點—力能_財法確㈣提㈣必要。 【發明内容】 鑑於上逑習知技術所存在的問題，本發明之 出—種電阻式觸控面板上單觸 卩在Ά 種感測方法。 I白m利方法以提棋另一 本發明之另—目的在於 二一 代表之功处” 、出一裡窀阻式觸控面板上多觸點 ΓΐΓ 方法’藉以服電阻式觸控面板之w中 無法進行多觸點輕㈣的缺點。 奴之白知技何中 ❹ 在本發明之電阻式觸控面 電阻式觸控面板包含同形形成並依序早=3的1方法中，該 Υ透明導f層、1隔物層Α_χ透--透明基板、- 導電層在-X方向上具有乂透月導層，且該X透明 導電層在一 Υ方向上且有第 貝、、一弟二χ側，該Υ透明 透明導電膜層與該γ透明 貝h玄早觸點 導電層上使該單觸點與該第-x側間:觸，且在該x透明 X阻抗，並在與該第二x#mn 距離上有一第一 且在該γ透日轉”上 R距mx阻抗， 層上使该早觸點與該第-Y侧間之一最近距 〇 ο e Y、杀叩，若A 〜~〒电腺:層， 该X透明導電層在一 X方向上具有一第一 χ_ 該Υ透明導電層在一 Υ方向上具有一第一 ”則：側’ 該單觸點令該X透明導電膜； /、—側’ 該X透明導㈣上使:：?透明導電層相接觸… 有一第二使4早觸點與該第-x側間之-最近距離i 有弟—x阻抗，並在與該第二x側間之_ - 八側間之取近距離上有—第 一 I且在該丫透料電層上使料軸與該第— 200928936 離f有一第一 丫阻抗，並在與該第二Υ側間之-最近距離上有 一第二Υ阻抗，且該單觸點之位置具有—座標（x，y)，該感測方法 包含下列步驟：分別提供—感測電M至該X透明導電膜層的第一 X側與第二X側或該γ透明導電層的第一 ¥側與第二Y側上， 亚分別電性減該γ透明導電層的第一 γ側與第二Y側或該χ 透明導電膜層的第-X側與第二义側至地，以在整個該χ透明 導電膜層或該Y透明導電層上形成—電流；分別感_電流在該 第一及第二X阻抗與第一及第二γ阻抗上形成之電流的值，·並 根，該第一及第二又阻抗與苐一及第二γ阻抗上之電流值判定 該早觸點在該X方向上的座標值χ，並根據該第一及第二Υ阻坑 之關^定該單觸點㈣丫方向上的座標值y，以得到該單脑 之座標（x，y)。 在較佳實施例中，該單觸點之座標（x，y)與該第一及第二⑽ 抗及該第一及第二γ阻抗上之電流值的關係為：丨' x=(I2-Il)/(iui2)，及 y=(I4-I3)/(I3+I4)。 在本發明之電阻式觸控面板上多觸點代表之功能的感測方 法中’ 板包含„形成並料往场疊之 土板γ透明導^、—間隔物層及—χ透明導電膜層，且 200928936 f最近距離上有—第—y阻抗，並在與該第二γ側間之„最 有—第二υ阻抗，該感财法包含下列步驟：分別提供 壓至該X透明導電層的第—χ側與第…或該丫透 層的第-Υ側與第二丫側上，並分別電絲接該γ透明 =電層的第—Υ侧與第二¥側或該Χ透明導電層的第-X側盘 .側至地，以在整個該X透明導電膜層或該γ透明導電層 场成—電流；分別連續感測該電流在該第-及第二1阻抗盘^ 〇::==!=，-及第…抗 第-及第二X阻抗與第-==連物f型;並根據該 型判定該多觸點代表之功能。 〜上U值轉改變模 列步ΐ較3施例中，該判定該多觸點代表之功能的步驟包含下 …描述複數個電流值改變模型與相同 對應關係的查找表；並根據該第—及第二xa抗與第 阻抗上的電流值改變模型查找該複數個功能中之一者e 〇 在較佳實施例中，該多觸點為二 -同實施财，上^與以明㈣層之㈣對換。 獲得=使:,:明’多觸點代表的功能可在電阻式觸控面板上 另種選擇。卩點在電阻式觸控面板上之位置㈣定方法亦有 實施方式】 200928936 如下。 請參閱第三圖’其為―本發明之單觸點位置感測方法加諸於 上之一電阻式觸控面板的示意圖。 該電阻式觸控面板30中包含—透明基板3卜—丫透明導電 層32、一間隔物層33及一 X透明導電膜層34,且該等結構層 31,32,33,34同形形成，並依序由下往上堆疊。 ❹ Μ該X透明導電層34在-X方向上具有且—第—x#j34i與一 乐^側342, ^透明導電層32在—γ方向上具有—第一 γ 側》1與一第二¥側322。當一單觸點Ρ接觸於電阻式觸控面板. 〕〇之X相導電膜層34上時，χ透明導電膜層μ與υ透明墓 電層Μ相接觸，且在χ透明導電層使該單觸點 、1]門1之一取近距離D1上有一第一 X阻抗RL·並在與第二y 側間342之一最近距離D2上有一第二χ阻抗R2，且在',增明 導^ 32上使單觸點P與第—Y側如間之-最近距離出上 :弟:Y阻抗R3’並在與該第二γ侧322間之一最近距離以 上有=第二Y阻抗R4，且該單觸點P之位置具有-座標（X，y)。 A 一弟四圖所示為本發明之感測方法的流程圖，且第五圖所示為 第-圖相關之感測方法加諸於上之電阻式觸控面板上一單觸點 輪^的等效電路圖。本發明之感測方法將配合第二圖、第三圓 及弟四圖說明如下。在該感測方法中，首先-感測電M vsense 外部電壓源36提供’並被分別透過一外接導線35提供至該 言透明導電膜層34的第一又側341與第二又側342或該γ透明 導電層32的第一 γ側331與第二γ側322上，並分別電性轉接 “透明導電層32的第一 Υ侧331與第二Υ側322或Χ透明導電 月異層3 4 链 的弟一X側341與第二X342側至地（S401)，以在整個χ 10 200928936 透明導電膜層34與γ透明導電層32上形成—電流。接著，該單 觸點Ρ有-相關之虛擬導線列38與—相關之虛擬導線排％，且 虛擬導線列及排3 8，3 9分別具有一第一及第二χ阻抗R丨，R2與一 第一及第二Y阻抗R3，R4,該等阻抗Ri，R2，R3及R4上分別具有 ❹200928936 IX. Description of the invention: [Technical field of the invention] The present invention relates to the field of touch panels, the single-contact position of the board is virtual multi-touch ... about the function of a resistive touch surface Sensing method. [Prior Art] The input system of the electronic device is based on a keyboard and an intuitive method. After the beginning of the molybdenum ~ two", but after the human f-style, the touch panel has been widely used in various types of large and small electronic «talker can hand or stylus and other objects hit the panel on the side of t The contact wheel person is placed in the touch wheel, and the residual device set under the touch panel senses the purpose of the touch control electronic device. According to the sensing mechanism of the anvil, the touch panel can be classified into a resistive, capacitive=, acoustic, optical and electromagnetic touch panel; the type of the touch panel; Classification of touchpads, etc. ~ Recently, the emergence of a technology with multiple contacts acting on the touch panel to enable function input has made it easier for users to use electronic devices with touch panels. For the touch panel, the sensing method of the upper-contact position is performed in conjunction with the schematic description of the first figure. In the first figure, the sensing of the resistive touch panel includes a transparent substrate. U, a γ transparent conductive layer 12, a spacer layer, 3, - X transparent conductive layer 14 and - difficult to control 15. The transparent substrate u can be a glass panel '4 and ¥ transparent conductive layer 14, 12 and The transparent substrate η is formed in the same shape and is divided into materials such as indium tin oxide (ITO), indium oxide (ITO), and antimony oxide oxide (ΑΤΟ), and has a (four) resistance value on the entire surface thereof. In addition, the '5 Hz spacer layer 13 is sandwiched between the X and Υ transparent conductive layer 14 Between 12, 200928936 is used to make the X and γ transparent guides @ i 4 〇 month ¥ electric layer 14, 12 are insulated from each other. In actual operation, the X and Υ transparent conductive layers 14, 12 - The γ-to-side sides are alternately electrically connected through the external wires 15 to be externally connected to the ground, and the external side is connected to the ground, whereby the source = £ source 16 is formed on the 乂 and the transparent conductive layer. And the direction gradient on the potential gradient is reversed, and there is a current 〖produces a drop of 1/(, at this time χ and Υ transparent conductive layer, 12 - not electrical _ to external power (four), 16 of the two X Or Ο 电 is electrically connected to the controller 15 through the through-external lead 16. J° In detail, it is assumed that the user of the curry acts on the position of the resistor 1. When the user is at the contact Τ4Τ(4) On the electric (4) touch panel, the transparent conductive layer 12 at the contact 稍微 is slightly concave and is in contact with the transparent transparent snow Μ. At this time, the contact X is closest to the two X and the Υ The touch can be imagined as a virtual wire train 18 and a virtual wire row 9 , and the virtual wire row 18 on the gamma transparent layer 12 has a gap between the contacts Etc. = R1 and R2' and the contact ρ on the X transparent conductive layer 14 separates the dummy wires into two impedances R3 and R4. At this time, the equivalent impedances t and R4 on the transparent conductive layer 14 are electrically transferred. Connected to the controller 15, and the equivalent impedance and the impedance of the virtual conductor string 18 are large due to the transmission of the (four) conductors 16 and the control 15 electrical _, and no current flows through. Since the γ transparent conductive layer 12 The resistance system is evenly distributed, so the controller 丨5 can know the position of the ρ axis of the contact ρ on the γ transparent conductive layer 12 by comparing the two impedances R 丨 and R 2 . Similarly, the Υ transparent conductive layer 12 When the controller 15 is electrically coupled to the external voltage source π, the controller 15 obtains the parallel position of the contact P on the X transparent conductive layer 14 by the equivalent impedance illusion and the R4 on the virtual wire array 18. However, the resistive touch panel is not suitable for multi-contact function input. 6 200928936 Now the second picture shows the sound, heart '°. Assume that the two input points P1(xl, yi) and P2(x2, y2) are applied to the resistive touch panel, ^ π n± ,. There is another point of knowledge P3 (xl, y2) and P4 (x2, yl When the virtual P2° and the Ρ·Γ皮 act on the resistive touch panel, the two sets of input points P1 ', 2 and P3 and p4 are subtracted to 丨丨 v v, so the two sets of inputs - P = two Block _~2, ... For the above reasons n' is the controller 15 respectively. Spotted touch ± Μ to sense the position of the single contact on the resistive touch panel and the eve contact - force energy _ financial method (four) mention (four) necessary. SUMMARY OF THE INVENTION In view of the problems existing in the prior art, the one-touch sensing method of the resistive touch panel of the present invention is used. I white m method to mention another game of the invention - the purpose is to represent the work of the two-one representative, "multi-contact 出 method on the touch-sensitive touch panel" to take the resistive touch panel The disadvantage of the multi-contact light (4) cannot be performed. The slave touch-sensitive resistive touch panel of the present invention comprises a method of forming a homomorphic shape and sequentially = 3, which is transparent. a f-layer, a 1-layer layer, a transparent substrate, a conductive layer, and a conductive layer in the -X direction, and the X-transparent conductive layer has a first and second a side of the Υ Υ transparent transparent conductive film layer and the γ transparent h 玄 玄 early contact conductive layer on the single contact and the first -x side: touch, and the x transparent X impedance, and The second x#mn distance has a first distance and the distance from the mx impedance on the gamma through-turn, and the layer is closest to the first-to-Y side of the first contact 〇ο e Y, killing, If the A~~〒 electrical gland: layer, the X transparent conductive layer has a first χ in the X direction _ the transparent conductive layer has a first “one” side: The contact is such that the X transparent conductive film; /, - side 'the X transparent guide (four) on the::? transparent conductive layer contacts... There is a second to make the closest contact between the 4 early contact and the first -x side i There is a brother-x impedance, and there is a first distance between the _-eight sides between the second x-side and the first I and the material axis on the 丫-transmission layer is separated from the first - 200928936 There is a first 丫 impedance, and a second Υ impedance at a closest distance to the second Υ side, and the position of the single contact has a coordinate (x, y), the sensing method includes the following steps: Providing - sensing electric M to the first X side and the second X side of the X transparent conductive film layer or the first ¥ side and the second Y side of the γ transparent conductive layer, respectively sub-electrically reducing the γ transparent The first γ side and the second Y side of the conductive layer or the first to the second side and the second side of the 透明 transparent conductive film layer are formed on the entire χ transparent conductive film layer or the Y transparent conductive layer— Current; a value of a current formed by the first and second X impedances and the first and second gamma impedances, respectively, and the first and second impedances and first and second gamma The current value of the resistance is determined by the coordinate value χ of the early contact in the X direction, and the coordinate value y in the direction of the single contact (four) is determined according to the first and second resistance pits to obtain The coordinates of the single brain (x, y). In a preferred embodiment, the coordinates (x, y) of the single contact and the first and second (10) resist currents on the first and second gamma impedances The relationship of values is: 丨' x=(I2-Il)/(iui2), and y=(I4-I3)/(I3+I4). The function of multi-contact on the resistive touch panel of the present invention In the sensing method, the 'plate contains „forming the γ-transparent conductive layer, the spacer layer and the χ transparent conductive film layer, and the 200928936 f has the closest – y-impedance at the closest distance, and And the most —-second υ impedance between the second γ side, the sensation method comprises the steps of: respectively providing the first to the side of the X transparent conductive layer and the ... or the first layer of the permeable layer On the Υ side and the second 丫 side, and respectively connected to the γ transparent = the first side of the electric layer and the second side of the second layer or the first side of the transparent conductive layer. Side to ground, to the whole The X transparent conductive film layer or the γ transparent The electric field field is formed into a current; respectively, the current is continuously sensed in the first and second impedance plates 〇::==!=, - and the ... anti-the first and second X impedances are connected with the -== The object f type; and according to the type, the function represented by the multi-contact is determined. The upper U value is changed to the modulo column step. In the third embodiment, the step of determining the function of the multi-contact representative includes: a lookup table describing a plurality of current value change models and the same correspondence relationship; and according to the first And a second xa anti-resistance and current value change model on the first impedance to find one of the plurality of functions e. In the preferred embodiment, the multi-contact is a two-in-one implementation, and the upper and the fourth (four) layers (4) swap. Get = make :, : Ming 'Multi-touch representation of the function can be selected on the resistive touch panel. The location of the defect on the resistive touch panel (4) is also determined by the implementation method] 200928936 as follows. Please refer to the third figure, which is a schematic diagram of a single-contact position sensing method of the present invention applied to a resistive touch panel. The resistive touch panel 30 includes a transparent substrate 3, a transparent conductive layer 32, a spacer layer 33, and an X transparent conductive film layer 34, and the structural layers 31, 32, 33, 34 are formed in a same shape. And stacked in order from bottom to top. X Μ The X transparent conductive layer 34 has and in the -X direction - a -x#j34i and a music side 342, the transparent conductive layer 32 has a -first gamma side -1 and a second in the -γ direction ¥ side 322. When a single contact Ρ is in contact with the X-phase conductive film layer 34 of the resistive touch panel, the χ transparent conductive film layer μ is in contact with the υ transparent tomographic layer ,, and the transparent conductive layer is used in the χ One of the single contacts, 1] gate 1 has a first X impedance RL· at a close distance D1 and a second χ impedance R2 at a closest distance D2 to the second y side 342, and On the guide 32, the single contact P and the -Y side are as close as possible: the Y:impedance R3' and above the closest distance to the second gamma side 322 have a second Y impedance R4, and the position of the single contact P has a - coordinate (X, y). A. The fourth figure shows a flow chart of the sensing method of the present invention, and the fifth figure shows a single-contact wheel on the resistive touch panel of the first picture related sensing method. Equivalent circuit diagram. The sensing method of the present invention will be described below in conjunction with the second, third, and fourth figures. In the sensing method, the first-sensing electric M vsense external voltage source 36 is provided 'and is respectively supplied through an external lead 35 to the first side 341 and the second side 342 of the transparent conductive film layer 34 or The first γ-side 331 and the second γ-side 322 of the γ-transparent conductive layer 32 are electrically transferred respectively to the first Υ-side 331 and the second Υ-side 322 of the transparent conductive layer 32 or the transparent conductive moon layer. 3 4 chain X-side 341 and second X342 side to ground (S401) to form a current on the entire χ 10 200928936 transparent conductive film layer 34 and the γ transparent conductive layer 32. Then, the single contact has - the associated virtual wire train 38 and the associated virtual wire row %, and the virtual wire column and row 3 8, 3 9 respectively have a first and second χ impedance R 丨, R2 and a first and second Y impedance R3, R4, the impedances Ri, R2, R3 and R4 respectively have ❹
(S402)。最後’該單觸點p在該χ方向上的座標值χ被根據該第 -及第二X阻抗R1，R2與第—及第二γ阻抗R3，R4上之電流值 1^12,13及14判定，並根據該第—及第二γ阻抗R3，R4之關係判 定該單觸點P在該γ方向上的座標值y，以得到該單觸點p之座 標（x，y)(S403)。 上述中，外部電壓源35之電壓的供應係以—控制器p控制 L |于此外，四私流咸測單元40分別被提供以偵測對應之電流 值I1，I2，D及14,且該等電流感測單元4〇分別被電性連接於對 應之外部電壓源35與該控制器36之間，以判定該等弩流值 Η，Ι2，Ι3及14。該等電流感測單元40的電流感測機制為熟習該項 技術者所知悉，故在此不予贅述。 在較佳貫鉍例中，該單觸點之座標（x，y)與該第—及第二X阻 抗及該第—及第二γ阻抗上之電流值的關係為_· x=(I2-I1)/(I1+I2) (1)，及 y=(I4-I3)/(I3+I4) ⑺。 在不同實施例中，該X透明導電層34與γ透明導電層& 之位置互換。 曰 第六圖所示為本發明之多觸點代表之功能之感測方法加諸 ^上之電阻式觸控面板的示意圖，該電阻式觸控面板3〇與上述 單觸點輸入時所用面板3〇之結構相同，但此時有多觸點pip2 200928936 之輸入。第七圖為第五圖相關之感測方法加諸於上之電阻输 面板在多觸點輸入時的等效電路示意圖，其中方向叫與: 反，為多觸點P1與P2在X軸卜梦着m , 釉上移動的方向，此—多觸點ρι P2之移動可被作為視窗或圖形 ^ q办之放大或縮小的功能，以 詳盡的描述。 第八圖所示本發明之雷卩日4、 电阻式觸控面板上多觸點代表之功能 之感測方法的流程圖。 ❹ ❹ 如第八圖所示，該感測方法之進行如下所述。首先，-感測 電壓V細e分別被提供至該χ透明導電層％的第—χ側⑽ 與第二X側342或該Υ透明導带g 、乃V宅層32的第一 γ側321與第二γ 側322上’並分別電性|馬接該γ、采m ,首；β 安茨Υι^明導電層32的第一 γ側331 與第二Υ側322或該X透明邕兩恳 心月守.¾層〇4的第一 X惻34i與第二χ 側342至地，以在X透明導命恳 八 〜门净包層或γ透明導電層32上形成 —電流’且該電流在該等觸點ρι及ρ2與料χ及"^ 341，342,321及322之間形成之第—及第二X阻抗R1，R2愈第-及第二Y阻抗R3，R4上各形成—带泣 '、 取屯"丨I* 11，12，13 及 I4(S801)，事實 上在第一及弟一 X阻抗尺1汉2之間&古μ - γ <間尚有一弟二X阻抗ri2，且 第一及第二Υ阻抗R3 之pi Α女也 ，之間尚有一第三Υ阻抗R34。繼之， 分別連續感測該第一及第-υ > X㈣與第-及第二γ阻抗 R3，R4上之電流之值（S8〇2)， } 乂 &侍該弟一及弟二X阻抗R1,R2 與第一及第二Y阻抗R3TR4 !··>+、+ ’ 上之流11,12,13及14之值之一連 續改變模型。最後，根據嗲筮 低錄α亥第一及第二χ阻抗舆第一及第二γ 阻抗上的電流值連蜻^ , 迓、戈改變杈型判定該多觸點代表之功能 (S803)。此外，該等電流π ，12，13及14之決定方法為熟習該項技 術者所知悉，在此不另贅述。 12 ❹ Ο 200928936 ι ，該判定該多觸點代表之功能之步驟的執行 乐以下列方式達成··建立_描述複數個電流值改變㈣與相同個 數個功能之對應關係的查找表_31),並根據該第—及第二 阻抗與第-及第二γ阻抗上的電流值改變模型查找該複 能中之一者（S8032)。 在不同λ把例中，上述χ舆γ透明導電層34,32之位置對換。 上述中’該查找表可被建立於一 控制器（未顯句中。 …《阻式難面板相關之 △藉由使用本U，電阻式觸控面板上可被加以多觸點代表之 =说入’而電阻式觸控面板上之單觸點位置亦有新決定方法的 提供。 本發明已藉由特定實施例說明如上，熟習該項技術去可兹甴 该等實施例之原理而推衍出其它可能實施例，如此推衍出之實讲 例皆屬於本發明的精神範圍，故本發明之f際範圍當由後呀之申 请專利範圍定義之。 【圖式簡單說明】 f發明之較佳實施例的說明係透過下列圖式而為，其中·· 第一圖為一種習知電阻式觸控面板上一單觸點之位置決 方法的示意圖；及 意圖； 第二圖為第一圖所示電阻式觸控面板上多觸 點輸入時的示 第三圖為本發明 、 之一早觸點之位置決定方法加諸於上 阻式觸控面板的示意圖； 之電 13 200928936 第四圖為本發明之電阻式觸控面板上一 方法的流程圖； 置决疋 板上:ΐ:為第三圖相關之感測方法加諸於上之電阻式觸控面 早觸點輪入時的等效電路圖； ^圖為本發明之多_代表之功能之決定方法加諸於上 包阻式觸控面板的示意圖； 〇 弟七圖為第六圖相關之感測方法加諸於上之電阻式觸控面 板上多觸點輸入時的等效電路圖；及 二 …圖為本發明之電阻式觸控面板上多觸點代表之功能之 決定方法的流裎圖& 【主要元件符號說明】 10 電阻弍觸控面板 12 Υ透明導電層 14 Χ透明導電層 16 外部電壓源 18 虛擬導線排 31 透明基板 33 間搞物層 321 第~ Υ側 341 第一 X側 S401 步驟401 S403 步驟403 S802 步驟802 11 透明基板 13 間隔物層 15 外接導線 17 虛擬導線列 30 電阻式觸控面板 32 γ透明導電層 34 X透明導電膜層 322 第二Υ側 342 第二X側 S402 ’步驟402 S801 步驟801 S803 步驟 8〇3 14 200928936 S8031 步驟 803 1 S8032 步驟 8032 〇 ❹ 15(S402). Finally, the coordinate value 该 of the single contact p in the χ direction is based on the first and second X impedances R1, R2 and the first and second γ impedances R3, R4 on the current value 1^12, 13 and Determining, and determining a coordinate value y of the single contact P in the γ direction according to the relationship between the first and second γ impedances R3 and R4 to obtain a coordinate (x, y) of the single contact p (S403) ). In the above, the supply of the voltage of the external voltage source 35 is controlled by the controller p. Further, the four private flow detection units 40 are respectively provided to detect the corresponding current values I1, I2, D and 14, and The equal current sensing units 4〇 are electrically connected between the corresponding external voltage source 35 and the controller 36, respectively, to determine the turbulence values Η, Ι2, Ι3 and 14. The current sensing mechanism of the current sensing unit 40 is known to those skilled in the art and will not be described herein. In a preferred example, the relationship between the coordinates (x, y) of the single contact and the current values of the first and second X impedances and the first and second gamma impedances is _· x = (I2 -I1)/(I1+I2) (1), and y=(I4-I3)/(I3+I4) (7). In various embodiments, the X transparent conductive layer 34 is interchanged with the position of the gamma transparent conductive layer & FIG. 6 is a schematic view showing a resistive touch panel of the sensing method of the multi-contact representative function of the present invention, the resistive touch panel 3〇 and the panel used for the single contact input described above. The structure of the 3〇 is the same, but there is a multi-contact pip2 200928936 input. The seventh figure is the equivalent circuit diagram of the sensing method added in the fifth figure added to the resistive transmission panel at the multi-contact input, wherein the direction is called: inverse, for the multi-contact P1 and P2 in the X-axis Dreaming m, the direction in which the glaze moves, this - the movement of the multi-contact ρι P2 can be used as a function of zooming in or out of the window or graphic to describe in detail. Fig. 8 is a flow chart showing the sensing method of the function of the multi-contact representative on the Thunder Day 4 of the present invention. ❹ ❹ As shown in the eighth figure, the sensing method is performed as follows. First, the sensing voltage V fine e is respectively supplied to the first side ( side (10) and the second X side 342 of the χ transparent conductive layer % or the first γ side 321 of the Υ transparent conduction band g, the V home layer 32. And the first γ side 331 and the second side 322 or the X transparent 导电 of the conductive layer 32 of the β 安 Υ ^ ^ ^ ; 与The first X 恻 34i and the second 侧 side 342 to the ground of the 月 月 月 3 3 以 以 以 以 以 形成 形成 形成 形成 342 342 342 342 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 形成 且The current is formed between the contacts ρι and ρ2 and the material and the "^ 341, 342, 321 and 322 - and the second X impedance R1, R2 is formed - and the second Y impedance R3, R4 are formed - With sobbing ', 屯 屯 quot * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * The second X impedance ri2, and the first and second Υ impedance R3 pi Α also have a third Υ impedance R34. Then, continuously sensing the values of the currents of the first and the first - υ > X (four) and the first and second γ impedances R3, R4 (S8 〇 2), } 乂 & the younger brother and the second brother The X impedance R1, R2 continuously changes the model with one of the values of the flows 11, 12, 13 and 14 on the first and second Y impedances R3TR4 !··>+, + '. Finally, the function of the multi-contact representative is determined according to the current value of the first and second gamma impedances of the first and second impedances of the low-altitude alpha, and the function of the multi-contact is determined (S803). In addition, the methods of determining the currents π, 12, 13, and 14 are known to those skilled in the art and will not be further described herein. 12 ❹ Ο 200928936 ι , the execution of the step of determining the function represented by the multi-contact is achieved in the following manner: • Establishing a look-up table _31 describing a correspondence between a plurality of current value changes (4) and the same number of functions) And finding one of the complex energies according to the first and second impedances and the current value change models on the first and second gamma impedances (S8032). In the case of different λ, the positions of the above χ舆γ transparent conductive layers 34, 32 are reversed. In the above, the lookup table can be built on a controller (not shown in the sentence. ... "Resistance-type panel-related △ by using this U, the resistive touch panel can be represented by multiple contacts = say There is also a new method for determining the position of a single contact on a resistive touch panel. The present invention has been described above by way of specific embodiments, and it is well known that the technique can be derived from the principles of the embodiments. Other possible embodiments, and thus the actual examples are all within the spirit scope of the present invention, and therefore the scope of the present invention is defined by the scope of the patent application. [Simplified description of the drawings] The description of the preferred embodiment is made by the following figures, wherein the first figure is a schematic diagram of a method for determining the position of a single contact on a conventional resistive touch panel; and the intention; the second figure is the first figure. The third diagram of the multi-contact input on the resistive touch panel is a schematic diagram of the method for determining the position of the early contact, which is applied to the upper resistive touch panel; Resistive touch surface of the invention Flowchart of a method on the board; setting on the seesaw: ΐ: the equivalent circuit diagram of the sensing method associated with the third figure added to the resistive touch surface of the early contact wheel; The invention has more _ representative function determination method is added to the upper package resistive touch panel schematic diagram; the younger brother seven figure is the sixth figure related sensing method is applied to the resistive touch panel on the multi-contact The equivalent circuit diagram at the time of input; and the second diagram is a flow diagram of the method for determining the function of the multi-contact representative on the resistive touch panel of the present invention. [Main component symbol description] 10 Resistor 弍 touch panel 12 Υ Transparent conductive layer 14 Χ transparent conductive layer 16 external voltage source 18 virtual wire row 31 transparent substrate 33 between layers 321 first to side 341 first X side S401 step 401 S403 step 403 S802 step 802 11 transparent substrate 13 spacer layer 15 External Conductor 17 Virtual Wire String 30 Resistive Touch Panel 32 γ Transparent Conductive Layer 34 X Transparent Conductive Film Layer 322 Second Side 342 Second X Side S402 'Step 402 S801 Step 801 S803 Step 8〇3 14 200928936 S8031 Steps 803 1 S8032 Step 8032 〇 ❹ 15