201218036 六、發明說明： 【發明所屬之技術領域】 本發明是有關於一種將至少兩個觸控訊號結合於電腦系統中的方 法，且特別是有關於一種具有至少兩個觸控板（touchpad)的滑鼠。 【先前技術】 最近發展出的多點觸控感測器（multi_touchsens〇r)提供了更廣泛 的輸入能力，其包括應用於電腦繪圖（computergraphics)的多方向性 輸入指令。相對於一鍵盤及/或傳統的二維滑鼠等標準輸入裝置來說， 直覺又易於掌握的多指互動影像多方向性輸入法（mu】tiflnger gesture-based multi-dimensional input)顯著地改善 了二維/三維作業的生 產效率。 ' 【發明内容】 本發明提供了-麵穎設計概念，將多闕控制器獅於一消 鼠本體上’以進行錄觸控财方向性的導航與控制，進而對傳統的 二維應用與三維電麟圖顧的烟者介面提供—種新的操作方式。 本發明的-實_包括了-麵|貞的滑鼠硬體設計以及—種介面 方法以射制由操作^騎定義的多,_控訊息的任意應用產生 多點觸控輸人指令。本發_另—實施刪包括卜種介面方法，以 利用夕點觸控感測n的數據封包來作為無法將—標準輸人當成多點觸 控訊息來接受的顧程式的介_令L上述實補並非用以限 定本發明。 。用來產生多指觸控輸入指令的介面程式包括了一個核心模式裝置 驅動器（kemd m〇de device driver)以及一個使用者應用層級驅動器 201218036 \ (userapplication level driver)，用以輸出特定訊息至目標應用程式。 為讓本發明的上述特徵和優點能更明顯易懂，下文特舉多個 例’並配合所附圖式，作詳細說明如下。 & 【實施方式】 一、多點觸控多方向性滑鼠與控制指令的產生 圖1繪示出一種多點觸控及多方向性滑鼠的一第—實施例。滑氣 (或躺電腦賴）可為經㈣來從事電腦王作的任何傳統形式的= 籲標裝置’其作用係藉由偵測其本身相對於其支揮表面的二維運動。實 際上’在部分實施例中，滑鼠可包括使用者手握持的一個 個或多個按鍵。滑鼠更可包括有一個滾輪。 在部分實施例中，滑鼠100具有一個深V型凹陷1〇2或是其他缺 口 ’並且V型凹陷102或缺口具有用來容納一個多點觸控感測板1〇6 的一個平坦表面104。利用設置於v型凹陷102的表面1〇4上的多點 觸控感測板106’使用者可藉由介面驅動程式來發送出其所想要達成的 多點觸控手指手勢指令。多點觸控感測板106可獨立地谓測多指觸控 藝動作其中上述的感測板此在現有的個人電腦市場上取得。在部份 範例中’感測板包括了台灣義發科技（Elantech®)的智慧型觸控式多 功能遙控器（smartpad)以及美國新思國際科技（Synaptics®)的觸控 板。 工 基於人體工學，一台多點觸控及多方向性滑鼠的工業設計可以非 常多樣。在部分實施例中，滑鼠1〇〇在其滑鼠本體丨〇8的中央區域上 具有一個深V型缺口或是凹陷1〇2。凹陷102的表面104為平坦表面， 並且在其左右兩端不具有實體的邊界。凹陷102的深度與寬度應足以 安裝一個小型的觸控板（面積至少約為30mm X 30 mm)。也就是說， 在滑鼠本體上，凹陷的工業設計能讓使用者順利地放置多個手指，並 m 4 201218036 且能順利地向右、向左、向前以及向後拖曳手指。 凹陷102可提供一種符合人體工學舒適的觸控板使用設計，而且 月&讓使用者在使用傳統的二維滑鼠操作時不會意外地觸發觸控板。值 得注意的是，多點觸控滑鼠的工業設計並不會受限於滑鼠本體的外型 與觸控板的校準。 圖2繪示出一種多點觸控及多方向性滑鼠2〇〇的一個實施例。滑 鼠200具有包含在一個深v型凹陷1〇2内的一個第一多點觸控感測板 106以及位於滑鼠本體丨〇8側面2〇4上的一第二感測板2〇2。第二感測 板202可為一個多點觸控感測板或是單點觸控感測板。 圖16及17繪示出多點觸控滑鼠16〇〇及17〇〇的其他實施例。圖 16繪示出具有兩個側延伸部16〇8的一個滑鼠本體ι6〇2，並且這兩個 側延伸部1608分別包含了一觸控板16〇4與一觸控板16〇6。其中，觸 控板1_與.1606可分別為一單點觸控板或是一多點觸控板。在一實 施例中，圖16的多點觸控滑鼠16⑻包括了兩個單點觸控板。圖17繪 不出具有兩個觸控板的—個滑鼠本體17G2,—個第—觸控板17〇6配置 於/月鼠本體17G2的-頂部上’而—個第二觸控板17()4則配置於滑鼠 本體1702的-個側延伸部16〇8上。也就是說，兩個分開的觸控板可 設置於一個滑鼠本體上的不同位置。 &如繪不於圖！、2、16與17中的多點觸控及多方向性滑鼠具有傳 维π鼠力月b，並且可經由一個通用序列匯流排（如丨丨seHg bus，USB ’以下簡稱為USB)連接器、藍芽⑽e _h)連接器或是 其他類似的連接器發送—個多關控輸人數據封包至個人電腦主機。 使用者以其手型凹陷上的主觸控板表面及/或滑鼠本體側面上 的第一感測板。這些手指觸控動作即用來產生包括有觸控點座標相關 數據的原始數據封包。這些數據封包即用來產生個人電腦作業系統令 預先疋義觸控机息（Pre-defmedtouchmessage)其中之一，在現 有技術中，諸如微軟公司Windows® 7作業系統中的WM_TOUCH或是 201218036 WM—GESTURE料常見的預先定細控訊息。也就是說感測板ι〇6 (觸控板)會產生包括有各個觸控點在觸控板上的座觸控數據 data)。這些觸控.關來產生電腦應用程式所能識別_控指令訊息 (touch command message ) 〇 在利用介面軟體演算法（interface s〇ftwarealg〇rithm)的部分實施 例中’第-感職上的難點與第二麵板上關控齡被總合起來 處心舉例來說’制者可在L她上_三根手指縣嘗試產 生一個三指觸控手勢。然而’當鶴由大魅與小指來支撕鼠本體 時，在第一感測板上使用到三根手指頭的操作方式可能會較為不舒 適。因此，在部分實關巾’介錄时結合[制板上的兩指觸 控動作與第二感測板上的單指觸控動作，以產生三指觸控訊息。另外， ^部分實施财，介錄體可結合觸控_，並且經由介面驅動程式， 結合後的手指觸鶴作對映(mapping)到最終乡關控手勢訊息能夠是 可程式控制的。 _圖3緣示出_ 2的多點觸控及多方向性滑鼠2GG的俯視圖。圖3 顯示士經由利用第一感測板1〇6上的兩指觸控動作與第二感測板202 上的f指觸控動作所結合而㈣三指觸控動作所產生的—個三指觸控 輸入才曰令。圖4繪示出圖3中所繪示的三指觸控動作的側視圖。 圖5繪示出根據部分實施例的第二感測板5〇2的另一種用法，用 =控侧好指數。於關巾n贿顺觸純)包括了兩個設 定區塊’ pp-個前半部5〇2a以及一個後半部⑽此。馳前半部5〇2a 可產生個單指觸控動作，而觸控後半部502b可產生一個兩指觸控動 作這些單私與兩指觸控動作利用一個使用者可程式介面軟體來產 生依據使用者可程式介面軟體的程式設定，使用者可經由在第一感 ^板106上的—兩指觸控動作與拖戈動作以及在第二感測板502後半 4 502b的一個單指觸控動作來產生一個四指觸控手勢。 圖6繪不出根據部分實施例的第二觸控板602(感測板)的另一種用 201218036 法’用以控制觸控手指數。如圖所示，此第二觸控板6〇2包括了四個 设疋區塊。在這樣的設定之下，在第二觸控板6〇2上所產生的「手指 觸控」的數量將會根據前下方、前上方、後下方以及後上方這四個位 ^而改變。。糊來說，在部分實關巾，驗第二馳板前下方 立代表單彳日觸控動作。同樣地，觸控前上方部位代表硫觸控動作丨 觸控後下方部位代表三指觸控動作；以及驗後上謂位代表四指觸 控動作。也就是說.，在這樣的程式設定之下，經由在第—感測板⑽ 上的-個兩指觸控動作與拖S動作，加上在第二觸控板⑼顺測板液 上方部位的-個觸控動作，使用者最多能產生一個六指觸控手勢。201218036 VI. Description of the Invention: [Technical Field] The present invention relates to a method for combining at least two touch signals into a computer system, and more particularly to having at least two touchpads Mouse. [Prior Art] A recently developed multi-touch sensor (multi_touchsens〇r) provides a wider range of input capabilities, including multi-directional input commands for computer graphics. Compared with a standard input device such as a keyboard and/or a conventional two-dimensional mouse, the intuitive and easy-to-follow multi-directional input method (mu) tiflnger gesture-based multi-dimensional input (significantly improved) Production efficiency of 2D/3D operations. [Invention] The present invention provides a concept of face-to-face design, which uses a multi-controller lion on a mouse body to perform navigation and control of the touch-oriented direction, and then to the traditional two-dimensional application and three-dimensional The smoker interface of Electric Lin Gu provides a new way of operation. The present invention includes a face-to-face | 贞 mouse hardware design and an interface method to produce a multi-touch input command for any application that is defined by the operation of the ride. The present invention has a method of deleting and including the data interface of the touch sensing n as a media program that cannot accept the standard input as a multi-touch message. The actual supplement is not intended to limit the invention. . The interface program for generating multi-finger touch input commands includes a core mode device driver (kemd device driver) and a user application level driver 201218036 (user application level driver) for outputting specific messages to the target application. Program. The above features and advantages of the present invention will become more apparent from the following description. <Embodiment] 1. Multi-Touch Multi-Directional Mouse and Control Command Generation FIG. 1 illustrates a first embodiment of a multi-touch and multi-directional mouse. Slippery (or lie computer) can be any conventional form of the singularity of the singularity of the singularity of the computer. The function is to detect the two-dimensional motion of itself relative to its surface. In fact, in some embodiments, the mouse can include one or more buttons held by the user's hand. The mouse can also include a scroll wheel. In some embodiments, the mouse 100 has a deep V-shaped recess 1 〇 2 or other notch ' and the V-shaped recess 102 or notch has a flat surface 104 for receiving a multi-touch sensing panel 1 〇 6 . The multi-touch sensor board 106' disposed on the surface 1〇4 of the v-shaped recess 102 can be used by the interface driver to send out the multi-touch finger gesture command that it wants to achieve. The multi-touch sensing board 106 can independently refer to the multi-finger touch motion in which the above-described sensing board is obtained in the existing personal computer market. In some examples, the sensor panel includes Elantech®'s smart touch-enabled multi-function remote control (smartpad) and Synaptics® touchpad. Based on ergonomics, the industrial design of a multi-touch and multi-directional mouse can be very diverse. In some embodiments, the mouse 1 has a deep V-shaped notch or depression 1〇2 in the central region of its body 丨〇8. The surface 104 of the recess 102 is a flat surface and does not have a physical boundary at its left and right ends. The depth and width of the recess 102 should be sufficient to mount a small touchpad (area at least about 30 mm X 30 mm). That is to say, on the body of the mouse, the industrial design of the recess allows the user to smoothly place a plurality of fingers, and m 4 201218036 and smoothly drag the finger to the right, left, forward and backward. The recess 102 provides an ergonomically comfortable touchpad design, and the Month & allows the user to accidentally trigger the touchpad when using a conventional two-dimensional mouse operation. It is worth noting that the industrial design of a multi-touch mouse is not limited by the appearance of the mouse body and the calibration of the touchpad. FIG. 2 illustrates an embodiment of a multi-touch and multi-directional mouse 2〇〇. The mouse 200 has a first multi-touch sensing board 106 contained in a deep v-shaped recess 1〇2 and a second sensing board 2〇2 located on the side 2〇4 of the mouse body 8 . The second sensing board 202 can be a multi-touch sensing board or a single-point sensing board. Figures 16 and 17 illustrate other embodiments of multi-touch mouse 16 and 17 turns. Figure 16 illustrates a mouse body ι 6 〇 2 having two side extensions 16 〇 8 and the two side extensions 1608 respectively include a touch pad 16 〇 4 and a touch pad 16 〇 6 . The touch panels 1_ and .1606 can be a single touch panel or a multi-touch panel, respectively. In one embodiment, the multi-touch mouse 16 (8) of Figure 16 includes two single-point trackpads. FIG. 17 illustrates a mouse body 17G2 having two touch panels, and a first touch panel 17〇6 is disposed on the top of the mouse body 17G2 and a second touch panel 17 (4) is disposed on the one side extensions 16A of the mouse body 1702. In other words, two separate touch panels can be placed at different locations on a single mouse body. & if not painted! Multi-touch and multi-directional mouse in 2, 16 and 17 have a transmission dimension π mouse force month b, and can be connected via a universal serial bus (such as 丨丨seHg bus, USB 'hereinafter referred to as USB) , Bluetooth (10) e _h) connector or other similar connector to send - a multi-control input data packet to the personal computer host. The user touches the main touchpad surface on the hand and/or the first sensing panel on the side of the mouse body. These finger touch actions are used to generate raw data packets including touch point coordinates related data. These data packets are used to create one of the pre-defed touch messages of the personal computer operating system, such as WM_TOUCH or 201218036 WM-GESTURE in Microsoft Windows® 7 operating system. Common pre-defined fine-grained messages. That is to say, the sensor board ι〇6 (touchpad) generates the touch data data including the touch points on the touch panel. These touches are used to generate the touch command message that can be recognized by the computer application. In some embodiments using the interface software algorithm (interface s〇ftwarealg〇rithm), the 'first-sense difficulty For example, the system can be combined with the second panel to control the age. For example, the maker can try to generate a three-finger touch gesture on L. However, when the crane is supported by the big charm and the little finger, the operation of using three fingers on the first sensing board may be uncomfortable. Therefore, the two-finger touch action on the board and the single-finger touch action on the second sensor board are combined to generate a three-finger touch message during the recording of the partial touch towel. In addition, ^ part of the implementation of the financial, the recording body can be combined with the touch _, and through the interface driver, the combined finger touch crane mapping to the final home control gesture message can be programmable. _ Figure 3 shows a top view of the multi-touch and multi-directional mouse 2GG of _2. FIG. 3 shows that by using the two-finger touch action on the first sensing board 1〇6 and the f-finger touch action on the second sensing board 202, the (four) three-finger touch action generates three Refers to the touch input. 4 is a side view showing the three-finger touch action illustrated in FIG. 3. Figure 5 illustrates another use of the second sensing plate 5〇2 in accordance with some embodiments, using the = control side good index. In the case of a closed towel, the two sets of blocks are included: pp-first half 5〇2a and one rear half (10). The front half 5〇2a can generate a single-finger touch action, and the touch rear half 502b can generate a two-finger touch action. These single- and two-finger touch actions are generated by using a user-programmable interface software. The programming of the programmable interface software, the user can pass the two-finger touch action and the drag action on the first sensor board 106 and a single-finger touch action on the second half of the second sensor board 502 To generate a four-finger touch gesture. FIG. 6 illustrates another use of the second touch panel 602 (sensing panel) according to some embodiments to control the touch hand index. As shown, the second touch panel 6〇2 includes four set blocks. Under such a setting, the number of "finger touches" generated on the second touch panel 6〇2 will vary according to the four positions of the front lower side, the front upper side, the lower rear side, and the upper rear side. . For the paste, in the case of a partial real towel, the lower side of the second board is used to represent the single-day touch action. Similarly, the upper part of the touch represents the sulfur touch action 丨 the lower part of the touch represents the three-finger touch action; and the upper position after the test represents the four-finger touch action. In other words, under such a program setting, via the two-finger touch action and the drag S action on the first sensing plate (10), plus the upper portion of the second touch panel (9). - A touch action, the user can generate a six-finger touch gesture.
1.將來自於多闕控板表面上的當地（丨_)座標賴控點數 映在個人電腦螢幕座標上 在-個滑鼠觸控板表面上的觸控點可利用至少兩種對映方法（ 對映模式）對映在個人電腦螢幕座標。第—種方法_來自於在一 1 多點觸控板上的手指觸控動作的絕對位置數據將絕魅標對映在整1 個人電腦螢幕11域。這財法㈣整體對映法（entirc mappir ^ethod)。第二觀映方法_來自於在—個多點難板上的手細 動作的絕餘置輯魏龜鶴映在個人義祕鋪上的一小; 分對映區域，這财法稱為部分對映法 圖7詳細地繪示出整體對映法。橫座標7Q2無 t106表面上的當地二維座標所組成。一組橫座標服與縱坐Γ7〇 電《幕714表面上_示螢幕座標所構成。感測板丨06^ 士角洛谓的絕對位置數據會被對映在顯示登幕座標上左上角落7i 的絕對位置。同樣地，左下角落、右 據會被對映在感測板1G6上各自的角落。、落的絕對位置! 在感測板Η)6上的手指觸控動作7〇6提供了魏 位置的原始數據。觸控數據被對映到顯示錄點％ = 中個別的X、Y位置。在整體對映榲 或疋在螢幕座木 、、式下，右觸控板的其他工程能> 201218036 及/或規格沒有改變的情形下，觸控板數據的解析度會與觸控板的尺寸 成正比。觸控板的尺寸越大，在顯示螢幕上的觸控指令輸入解析度也 越(¾。 圖8A與8B繪示出第二種對映方法，其中在多點感測板i 〇6 (觸控 板)上的絕對座標被對映在個人電腦螢幕座標上的一部分對映區域。如 圖所示，使用者可經由拖曳滑鼠來移動此部分對映區域，之後再利用 感測板106在此部分對映區域内產生多指觸控指令。 圖8A詳細地繪示出部分對映法。於此對映法中，經由感測板1〇6 表面上的當地X座標與當地γ座標所定義出來的中心點會被對映在顯 示螢幕座彳示上預疋£域800的中心點。如圖所示，預定區域8〇〇僅會 覆蓋住個人電腦螢幕區域的一部分。也就是說，在觸控板上左上角落 的絕對位置數據會被對映在對映區域800左上角落的絕對位置。同樣 地，感測板106左下角落、右下角落與右上角落的絕對位置會被對映 在對映區域800各自的角落。 如圖8B中所繪示，使用者可經由拖曳滑鼠本體1〇8來移動對映區 域800的位置。根據上述，在部份實施例中，個人電腦主機介面程式 會利用滑鼠游標數據來對對映區域8〇〇所要到達的位置執行編碼指 令。因此，使用者可將其滑鼠游標移動至個人電腦顯示螢幕上的所要 到達的位置，之後再經由觸控滑鼠上的多點感測板1〇6表面來開始進 行多點觸控指令。也因此，在部份實施例中，對於在顯示螢幕上進行 輸入控制而言，因為來自於觸控板的觸控數據提供了在較小對映區域 上的較高解析度輸入，所以預定部分對映模式相較於整體對映模式具 有能辨識較高精確度觸控數據的技術優點。 在部分實施例中，在不論對映法為何種的情況下，即便其感測器 面積退小於傳統的數位板，多點感測板1〇6(觸控板)經由滑鼠中的勤體 (firmware)定義為一種通用序列匯流排人性化介面裝置（USBhuman interface device, USB-HID，以下簡稱為 USB-HID)數位板（digitizer)。 201218036 款體提供了在主觸控板表©上各個手指觸控的絕對當地座標數據組， 其中主觸控板經由USB系統所定義。 2.經由具有多點觸控板的多點觸控滑鼠設計來產生多指手勢 圖9A繪示出-種多點觸控及多方向性滑鼠基本的硬體元件 (hardware component)與韌體的功能方塊圖。在部分實施例中，韌體 900 U於印刷電路板上，有系統地定義兩個獨立的uSB裝置， 邏輯裝，例如舰的USB二維概與邏輯裝置則物USB_ffiD。 邏輯裝置#ι齡滑鼠感測ϋ數據咖與滑鼠按鍵及滾輪麟9〇6，並 且將傳統的二維滑鼠數據封包經由―個觀連接器輸出至—台個人電 腦主機。邏輯裝置#2棟取來自於多點觸控感測器9〇2的數據，並且將 上述數據封包當雜由USB彡麵定義的_個USB_HID輸入裝置。 -旦滑鼠上的碰將乡简控缺義為—健位板，觸控訊號會 被諸如Windows® 7作業系鱗個人電腦作鮮、統的核心驅動程式 (kernel driver)所接收’並且會被轉換為諸如Wind〇ws作業系統中的 WMJTOUCH等觸控訊息^當滑鼠移動時，滑鼠會依據滑鼠輸入型態 將滑鼠輸人數據輸di玲體 '軟體或硬體，贿據滑鼠的移動定義滑 鼠座‘的1化。部分對映區域會因應滑鼠輸人數據而沿著滑鼠的運動 方向移動。圖9 A繪示出一種在多點觸控滑鼠中的勒體功能方塊圖。勤 體以即時的方式（㈣tlme man⑽）截取多點觸控板上觸控點的當地絕 對"^的數據封包。然後，這些座標會經由勤體對映在個人電腦螢幕 座‘上。來自於㊄體的輸出數據封包包含了手指觸控的數量與各個觸 控數據在個人電腦歸賴中的X.Y位置數據。 。。3·、^具有主多點觸控板與數位賴（以開關訊號為基準的感測 益）或疋-人觸控板（只有觸控/未觸控狀態）的多點觸控滑鼠設計來產 生多指手勢 圖9B繪示出一種多點觸控及多方向性滑鼠基本的硬體元件與物 體的功3b方塊圖’其包含了—個主多點觸控感測器9〇2以及一個次觸 201218036 控感測θ 908 (僅為單點觸控偵測或是多點觸控> 在部份實施例中， 勒體_ «統喊義立的⑽裝置，或者是邏 輯裝置#2。 、 S 10A與10B繪示出經由不同的觸控數據組所對映出的兩指觸控 動作在圖1GA巾，侧者將兩根手指麵放置於—個域測器⑽ 上，然後此觸控數據會被當作兩個觸控點1〇〇2與1〇〇4而對映在個人 電腦螢幕上。在10B中，來自於一個主感測器上的一個第一手指麵 的雛數據會被當作-個第一觸控點蘭而對映在個人電腦榮幕Μ 上，並且來自於梅指麵觸控一個次感測器的觸控狀態數據（觸控或 • 未觸控〕會用來創造出虛擬觸控點（virtualtouchpoinG祕，以當作 個人電腦螢幕上的-個第二觸控點。第一觸控點麵與第二觸控點（即 虛擬觸控點1006)之間的距離可藉由物體進行程式化。勃體利用主感 測器上第-觸控點親對當地座標數據與預定小χ，γ輯的增加或減 少數值來計算第二觸控點的絕對當地座標數據。一旦計算出虛擬觸控 點1006，此觸控點與其他觸控點的座標即會被包含在一個數據封包中 傳送至個人電齡機。個人電腦域_這些難點產生可由電腦應 用程式識別的一個觸控指令訊息。 圖11Α與11Β繪示出經由不同的觸控數據組所對映出的三指觸控 鲁動作。在圖UA中’使用者將三根手指蘭放置於一個主感測器ι〇6 上，然後來自於這三根手指的觸控動作所產生的觸控數據會被當作觸 控點1102, 1104與1106而對映在個人電腦螢幕上。 在圖11Β中來自於—個主感測器上的兩根手指蘭的兩個觸控 數據會被當作兩個觸控點1114與⑴6而對映在個人電腦螢幕上，並且 來自於使用者拇指觸控-個次感測器111〇的觸控狀態輯（觸控或是 未觸控）會用來創造出虛擬觸控點1112，以當作個人電腦勞幕上的一 個第三觸控點。這兩個實際觸控點與第三觸控點（即虛擬觸控點）之 間的距離可經由勒體進行程式化。主感測板上第—與第二觸 控點的絕對當地座標數據與預定小X，γ數據的增加或減少數值來計算 201218036 第二觸控點的絕對當地座標數據。 圖Ι2Α與12Β繪示出經由一個兩指觸控動作所產生的一個變換手 勢在圖12Α中，使用者可在主觸控板（可偵測多點觸控的感測器） 上沿著一水平或是垂直方向拖曳兩根手指1200，以產生兩指變換手勢 (兩個「實際觸控」動作），如標號12〇2與12〇4所示。在圖12Β中， 使用者可在主觸控板（可偵測多點觸控的感測器）上沿著一水平或是 垂直方向拖曳一根手指12〇6,同時以拇指12〇8觸控一個次感測器，以 產生由1210與1212所表示的一個兩指變換手勢。值得注意的是，此 兩指變換手勢是由來自於主觸控板的一個實際觸控點與來自於次觸控 • 板的一個虛擬的第二觸控點（或稱為虛擬觸控點）所組成。若主觸控 點在各個時間點的主手指執跡是在水平或是垂直方向上，則韌體會將 此手勢識別為一個變換手勢，並且會隨著主觸控點將虛擬觸控點計算 至座標中，如圓所示。利用數據與這些觸控點之間的關聯性（個人電 腦主機隨時都在識別此關聯性），第一觸控點會具有一個水平或是垂直 軌跡，並且會產生可由電腦應用程式識別的一個變換手勢觸控指令訊 息。 圖13Α與13Β繪示出經由一個兩指觸控動作所產生的一個展開 (stretch)/收縮（pinch)手勢。在圖13Α中，使用者可在主觸控板（可 鲁 制多點觸控的感測||)上展開或收縮兩根手指聽，以產生一個兩 指展開/收縮手勢’如標號1302與1304所示。在圖13Β中，使用者可 在主觸控板（可偵測多點觸控的感測器）上沿著一傾斜方向（diagonal direction)拖曳一根手指1308，同時以另一根手指或是拇指131〇在次 觸控板上進行觸控，以產生由1304與1306所表示的一個兩指展開/收 縮手勢。若主手指軌跡在一個傾斜/對角線方向上，則韌體會將此虛擬 觸控點（即手勢1306)當作一個靜止的樞紐點（piv〇tp〇int)來計算座 標。也就是說，個人電腦主機會產生一個收縮或展開手勢觸控指令訊 圖14A與14B繪示出經由兩指觸控動作所產生的一個旋轉手勢。 201218036 在圖14A中’使用者可在主觸控板（可偵測多點觸控的感測器）上拖 曳兩根手指1400，以產生一個兩指旋轉手勢，如標號14〇2與1404所 示。在圖14B中，使用者可在主觸控板（可偵測多點觸控的感測器） 上拖曳一根手指1408以劃出一個圓形軌跡，同時以另一根手指或是拇 指1410在次感測器上進行觸控，以產生由丨4〇4與14〇6所表示的一個 兩指旋轉手勢。當主手指的軌跡被韌體識別為一個圓形軌跡時，則韌 體會將此虛擬觸控點（即手勢14〇6)當作一個動態的樞紐點來計算座 標。也就是說，個人電腦主機會產生一個旋轉手勢觸控指令訊息。 4.經由具有單點觸控感測板與數位開關或是次觸控板（只有觸控/ φ 未觸控狀態）的多點觸控滑鼠設計來產生多指手勢 多點觸控手勢的產生可經由設置一個單點觸控板以及一個數位開 關（或疋觸控狀態偵測感測板）而創造出來。在部分實施例中，諸如 圖16中所揭露者，多點觸控滑鼠由兩個單點觸控偵測感測器所組成。 此實施例可被定義為以多點觸控滑鼠來實現收縮手勢（reduced gesture ) 功能。 請重新參考圖9B，其繪示出一種包含了兩個單點觸控偵測感測器 的多點觸控及多方向性滑鼠基本的硬體元件與韌體的功能方塊圖。在 部分實施例中，韌體900有系統地定義兩個獨立的USB裝置，或者是 邏輯裝置#1與邏輯裝置#2。於此實施例中，滑鼠安裝了僅能伯測單點 觸控的一個觸控板908以及僅能偵測觸控（0N)或釋放（〇FF)的一 個數位開關。作為此開關的硬體可為一個推入/推出開關（push switch)或是能偵測觸控/非觸控狀態的一個觸控感測器。 此實施例最多能產生兩個手指手勢指令。圖12B繪示出包含在主 主感測器)接墊（只有單點觸控位置的偵測）與次感測器（只有觸控/ 非觸控狀態）上的手指觸控動作的一組數據可在個人電腦螢幕上對映 出來。-人觸控數據（觸控開啟/關閉狀態）用來當作一個虛擬觸控點， 即描述於上述段落3標題中的「經由具有多點觸控板與數位開關（以 [S] 12 201218036 開關訊號為基準的感測器）的多點觸控滑鼠設計來產生多指手勢」。 這裡的兩指變換手勢相似於圖12B中所繪示的手指手勢產生範 例。這裡的兩指收縮/展開手勢的產生相似於圖13A與圖l3B中所繪 的手指手勢產生範例。這裡的兩指旋轉手勢的產生相似於圖l4B中： 繪示的手指手勢產生範例。 5.個人電腦主機上的裝置驅動程式 圖15繪示出個人電腦主機15〇〇内電腦作業系統之多點觸控界面 驅触式的械树圖，喊替程絲t理多闕控及多方向性 φ 滑鼠200的數據封包，並管理多方向性控制的指令產生。作業系統中 的-個核心模式層（kemeimodelayer)中的裝置驅動模組將會一併掏 取經由滑鼠體所定義的邏輯裝置#1與邏輯袭雅的原始數據。在部 分實施例巾，輸人裝置（例如滑鼠）與電腦之暇經由—個膽連接 器來連接。在其他實施例中則使用了諸如無線網路（wirdess)、藍芽 (BlUetwth)等其他連接錢。為了錢取聰輯封包，諸如1. The local (丨_) coordinate control points on the surface of the multi-control panel are displayed on the screen of the personal computer screen. The touch points on the surface of the mouse touchpad can be used at least two pairs. The method (the mapping mode) is mapped to the PC screen coordinates. The first method _ comes from the absolute position data of the finger touch action on the 1 multi-touch panel to map the stunning target to the entire 1 PC screen 11 field. This fiscal method (4) the overall mapping method (entirc mappir ^ethod). The second method of viewing _ comes from the small set of hand movements on the multi-point hard board. Wei turtle crane is reflected in the personal mystery shop; the sub-environment area, this financial method is called part The enantiomeric method Figure 7 details the overall entropy. The abscissa 7Q2 consists of no local two-dimensional coordinates on the surface of the t106. A set of transverse coordinate clothing and vertical sitting Γ 7〇 electric "curtain 714 surface _ display screen coordinates. The absolute position data of the sensing board 丨06^ Shijiao Luo will be reflected in the absolute position of the upper left corner 7i on the display curtain coordinates. Similarly, the lower left corner and the right side will be reflected on the respective corners of the sensing board 1G6. The absolute position of the drop! The finger touch action on the sensor board 66)6 provides the raw data of the Wei position. The touch data is mapped to the individual X, Y positions in the display record % = . The resolution of the touchpad data will be the same as that of the touchpad if the overall mapping or 疋 is in the screen, the other engineering of the right touchpad can be changed, and the specifications are not changed. The size is proportional. The larger the size of the touchpad, the more resolution of the touch command input on the display screen (3⁄4. Figures 8A and 8B illustrate the second mapping method, where the multi-point sensing board i 〇 6 (touch The absolute coordinates on the control panel are mapped to a portion of the mapping area on the PC screen coordinates. As shown, the user can move the partial mapping area by dragging the mouse, and then use the sensing board 106. A multi-finger touch command is generated in this partial engraving area. Figure 8A illustrates a partial entropy in detail, in this mapping method, via the local X coordinate on the surface of the sensing plate 1〇6 and the local γ coordinate The defined center point will be mapped to the center point of the display field on the display screen. As shown, the predetermined area 8〇〇 will only cover part of the PC screen area. The absolute position data in the upper left corner of the touch panel will be reflected in the absolute position of the upper left corner of the mapping area 800. Similarly, the absolute positions of the lower left corner, the lower right corner and the upper right corner of the sensing board 106 will be reflected in The respective corners of the engraving area 800. As shown in Fig. 8B It is shown that the user can move the position of the mapping area 800 by dragging the mouse body 1 。 8. According to the above, in some embodiments, the personal computer host interface program uses the mouse cursor data to align the mapping area 8 The coded instruction is executed at the position to be reached. Therefore, the user can move his mouse cursor to the desired position on the display screen of the personal computer, and then pass the multi-point sensing board on the touch mouse 1〇6. The surface starts to make multi-touch commands. Therefore, in some embodiments, for input control on the display screen, since the touch data from the touch panel is provided on the smaller enemies Higher resolution input, so the predetermined partial entropy mode has the technical advantage of being able to recognize higher precision touch data compared to the overall entropy mode. In some embodiments, regardless of the entropy method Even if the sensor area is smaller than the traditional digital tablet, the multi-point sensing board 1〇6 (touchpad) is defined as a universal serial bus human interface through the firmware in the mouse. Set (USB human interface device, USB-HID, hereinafter referred to as USB-HID) digitizer. The 201218036 provides an absolute local coordinate data set for each finger touch on the main touchpad table ©, where the main touch The control board is defined by the USB system. 2. Multi-finger gestures are generated through a multi-touch mouse design with a multi-touch panel. Figure 9A shows a multi-touch and multi-directional mouse basic hard. Functional block diagram of the hardware component and the firmware. In some embodiments, the firmware 900 U is on the printed circuit board, and systematically defines two independent uSB devices, logic devices, such as a ship's USB two-dimensional. The general logic device is USB_ffiD. The logic device #ι 滑 感 感 ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ ϋ The logic device #2 takes the data from the multi-touch sensor 9〇2 and uses the data packet as a USB_HID input device defined by the USB port. - Once the mouse is touched on the mouse, the lack of control is the health board, and the touch signal will be received by the kernel driver such as the Windows® 7 operating system. It is converted into touch messages such as WMJTOUCH in the Wind〇ws operating system. ^When the mouse moves, the mouse will input the data to the mouse and enter the data according to the mouse input type. The movement of the mouse defines the mouse's one. Part of the mapping area moves in the direction of the mouse's movement in response to mouse input data. FIG. 9A illustrates a block diagram of a Leot function in a multi-touch mouse. In the instant, (4) tlme man (10) intercepts the local absolute "^ data packets of the touch points on the multi-touch panel. These coordinates will then be displayed on the PC screen via the mobile. The output data packet from the five bodies contains the number of finger touches and the X.Y position data of each touch control data in the personal computer. . . 3·, ^ Multi-touch mouse design with main multi-touch panel and digital ray (sensing benefit based on switching signal) or 疋-human touch panel (only touch/untouched state) To generate a multi-finger gesture, FIG. 9B illustrates a multi-touch and multi-directional mouse basic hardware component and object work 3b block diagram 'which includes a main multi-touch sensor 9 〇 2 And a second touch 201218036 control sense θ 908 (single touch detection or multi-touch only) In some embodiments, the _ _ « 喊 义 立 (10) device, or logic device #2., S10A and 10B show that the two-finger touch action reflected by different touch data sets is in the FIG. 1GA towel, and the side puts two finger faces on the domain detector (10). The touch data is then displayed on the PC screen as two touch points, 1〇〇2 and 1〇〇4. In 10B, a first finger face from a main sensor The data of the chick will be viewed as a first touch point on the PC glory, and the touch of the sensor will come from the touch of the finger. State data (touch or • no touch) will be used to create a virtual touch point (virtualtouchpoinG secret) as a second touch point on the PC screen. The first touch point and the second touch The distance between the handles (ie, virtual touch points 1006) can be programmed by the object. The body uses the first touch point on the main sensor to match the local coordinate data with the predetermined small χ, the increase of the gamma series or The value is reduced to calculate the absolute local coordinate data of the second touch point. Once the virtual touch point 1006 is calculated, the coordinates of the touch point and other touch points are included in a data packet and transmitted to the personal computer. PC domain_ These difficulties produce a touch command message that can be recognized by the computer application. Figures 11 and 11 show the three-finger touch action performed by different touch data sets. In Figure UA 'The user places three finger blues on one main sensor ι6, and then the touch data generated by the touch actions of the three fingers is used as the touch points 1102, 1104 and 1106. On the PC screen. In Figure 11Β The two touch data from the two finger orchids on one main sensor will be reflected on the personal computer screen as two touch points 1114 and (1)6, and from the user's thumb touch- The touch state set (touch or no touch) of the secondary sensor 111〇 is used to create a virtual touch point 1112 as a third touch point on the personal computer screen. The distance between the actual touch point and the third touch point (ie, the virtual touch point) can be programmed by the zoom. The absolute local coordinate data of the first and second touch points on the main sensor board and the predetermined The increase or decrease of the small X, γ data to calculate the absolute local coordinate data of the second touch point of 201218036. Figures 2Α and 12Β illustrate a transform gesture generated by a two-finger touch action in Figure 12Α, You can drag two fingers 1200 along a horizontal or vertical direction on the main touchpad (detectable multi-touch sensor) to generate two-finger gestures (two "actual touch" actions ), as indicated by reference numerals 12〇2 and 12〇4. In Figure 12, the user can drag a finger 12〇6 along a horizontal or vertical direction on the main touchpad (detectable multi-touch sensor) while touching the thumb 12〇8 A secondary sensor is controlled to produce a two-finger transformation gesture represented by 1210 and 1212. It is worth noting that the two-finger transformation gesture is an actual touch point from the main touch panel and a virtual second touch point (or virtual touch point) from the secondary touch panel. Composed of. If the main finger of the main touch point is in the horizontal or vertical direction at each time point, the firmware recognizes the gesture as a transformation gesture, and calculates the virtual touch point to the coordinate along with the main touch point. In, as shown by the circle. Using the correlation between the data and these touch points (the PC host recognizes this association at any time), the first touch point will have a horizontal or vertical trajectory and will produce a transformation that can be recognized by the computer application. Gesture touch command message. Figures 13A and 13B illustrate a stretch/pinch gesture generated via a two-finger touch action. In FIG. 13A, the user can expand or contract two fingers on the main touchpad (a multi-touch sensing ||) to generate a two-finger expansion/contraction gesture as indicated by reference numeral 1302. Shown at 1304. In FIG. 13A, the user can drag a finger 1308 along a diagonal direction on the main touchpad (detectable multi-touch sensor) while using another finger or The thumb 131 is touched on the secondary touchpad to produce a two-finger expansion/contraction gesture represented by 1304 and 1306. If the main finger trajectory is in a tilt/diagonal direction, the firmware will treat the virtual touch point (ie, gesture 1306) as a stationary pivot point (piv〇tp〇int) to calculate the coordinates. That is, the personal computer host will generate a shrink or unfold gesture touch command. Figures 14A and 14B illustrate a rotation gesture generated by a two-finger touch action. 201218036 In Figure 14A, the user can drag two fingers 1400 on the main touchpad (detectable multi-touch sensor) to generate a two-finger rotation gesture, such as labels 14〇2 and 1404. Show. In FIG. 14B, the user can drag a finger 1408 on the main touchpad (detectable multi-touch sensor) to draw a circular trajectory while using another finger or thumb 1410. Touching is performed on the secondary sensor to produce a two-finger rotation gesture represented by 丨4〇4 and 14〇6. When the trajectory of the main finger is recognized by the firmware as a circular trajectory, the firmware will use this virtual touch point (ie, gesture 14〇6) as a dynamic pivot point to calculate the coordinates. In other words, the personal computer host will generate a rotating gesture touch command message. 4. Multi-finger gesture multi-touch gestures are generated by a multi-touch mouse design with a single touch sensor and a digital switch or a secondary touch panel (only touch / φ untouched state) The creation can be created by setting up a single touch panel and a digital switch (or a touch state detection sensor). In some embodiments, such as those disclosed in Figure 16, the multi-touch mouse is comprised of two single touch detection sensors. This embodiment can be defined as a multi-touch mouse to implement a reduced gesture function. Referring again to FIG. 9B, a functional block diagram of a multi-touch and multi-directional mouse basic hardware component and firmware including two single-touch detection sensors is illustrated. In some embodiments, firmware 900 systematically defines two separate USB devices, or logic device #1 and logic device #2. In this embodiment, the mouse is equipped with a touch panel 908 that can only detect single touch and a digital switch that can only detect touch (0N) or release (〇FF). The hardware of the switch can be a push switch or a touch sensor capable of detecting a touch/non-touch state. This embodiment can generate up to two finger gesture commands. FIG. 12B illustrates a set of finger touch actions included in the main main sensor) pads (detection only at the single touch position) and the secondary sensor (only touch/non-touch states). The data can be viewed on the PC screen. - The human touch data (touch on/off state) is used as a virtual touch point, which is described in the title of paragraph 3 above. "via a multi-touch panel with a digital switch ([S] 12 201218036 The multi-touch mouse of the switch signal-based sensor is designed to generate multi-finger gestures." The two-finger transformation gesture here is similar to the finger gesture generation example illustrated in Figure 12B. The two-finger contraction/expansion gesture here produces an example similar to the finger gesture generation example depicted in Figures 13A and 13B. The generation of the two-finger rotation gesture here is similar to that in Figure 14B: The illustrated finger gesture generation example. 5. Device driver on the personal computer host Figure 15 shows the multi-touch interface of the computer operating system of the personal computer host computer 15 drive-driven device tree diagram, shouting for the process of the wire and more control The directionality φ mouse 200 data packet, and manages the generation of multi-directional control commands. The device driver module in the core mode layer (kemeimodelayer) in the operating system will also retrieve the raw data of the logical device #1 and the logic attack defined by the mouse body. In some embodiments, the input device (e.g., a mouse) is connected to the computer via a bile connector. In other embodiments, other connection money such as wireless network (wirdess), Bluetooth (BlUetwth), and the like are used. For the money to take the package, such as
Wmdows®作業系統等電腦中的作業系統提供了 一個内建的核心模式 驅動程式1502。在作業系統中的一個使用者模式層中的裝置驅動模組 15〇4會娜滑鼠的原始數據封包，並且會執行以下兩個運算步驟：⑴ • 來自於USB驅動程式數據封包的編譯，以及⑵多點觸控及多方向 性指令的產生。 在第-步驟中’使用者層級裝置驅動程式15〇6 (咖^如以 driver)由利用-套軟體的方式編譯手指觸控動作，即定義各個手指 對於各個感測板在各個時間點上的手指觸控點的數量與當地位置。在 第—步驟巾，若制程式準備好要將多點觸控訊息當作—個標準介面 輸入串流（standard interactive —也㈣）的其中之一來接收，則介 面驅動程式將產生與電人電腦作業系統訊息相關的多點觸控訊息，亦 即根據手指赌動作與指线跡職數來輸丨默多關控訊息（也 就是偏〇讀7作業系統中的WM—TOUCH或是WM_GESTURE)。 13 201218036 若應用程式1512可接收多點觸控輸入，但是卻無法將多點觸控訊 息識別為其標準介面輸入指令’則使用者層級裝置驅動程式1506將會 啟動個辅助介面驅動程式1508 (supplemental interface driver)。輔助 介面驅動程式將會對應用程式1512輸出已轉換成可由應用程式1512 D线·另j的特疋應用輸入格式（appIicati〇n Specmc input format)的修正後 感測板數據。 " 舉例來說，若應用程式1510無法接收多點觸控輸入而只能識別定 義在作業系統中的傳統標準輸入數據（c〇nventi〇nal standar(j input data) ’諸如在舊版Windows作業系統情況下的一個滑鼠/鍵盤，則輔助 • 介面驅動程式1508會將多點觸控感測板的數據封包轉換成一組傳統標 準輸入數據，並會對應用程式1510輸出傳統標準輸入的模擬輸入訊息 (emulated inputmessage)，使得應用程式〗51〇能執行其互動指令。。 雖然本發明已以實施例揭露如上，然其並非用以限定本發明，任 何所屬技術領域中具有通常知識者，在不脫離本發明的精神和範圍 内，當可作些許的更動與润飾，因此本發明的保護範圍當視後附的申 請專利範圍所界定者為準。 201218036 【圖式簡單說明】 圖1繪示出一種具有一個觸控板的滑鼠的立體圖。 圖2繪示出一種具有兩個觸控板的多點觸控及多方向性滑鼠的立體 圖。 圖3繪示出圖2的觸控板的俯視圖’並且使用者的兩個手指位於頂 部的多點觸控板上，而使用者的—隻第三手指則位於—麵面觸控 板上。The operating system in a computer such as the Wmdows® operating system provides a built-in core mode driver 1502. The device driver module 15〇4 in the user mode layer of the operating system will encode the original data packet of the mouse, and will perform the following two operation steps: (1) • compilation from the USB driver data packet, and (2) Multi-touch and multi-directional commands are generated. In the first step, the user-level device driver 15〇6 (the driver is driven by the driver) compiles the finger touch action by using the software, that is, defines each finger for each sensing board at each time point. The number of finger touch points and the local location. In the first step, if the program is ready to receive the multi-touch message as one of the standard interface input streams (standard interactive - also (4)), the interface driver will generate the and the driver. Multi-touch messages related to computer operating system messages, that is, according to the finger gambling action and the finger line number, the MMO control message is transmitted (that is, WM-TOUCH or WM_GESTURE in the 〇7 operating system) . 13 201218036 If the application 1512 can receive multi-touch input but cannot recognize the multi-touch message as its standard interface input command, then the user-level device driver 1506 will launch an auxiliary interface driver 1508 (supplemental) Interface driver). The auxiliary interface driver will output to the application 1512 the corrected sensor data that has been converted into an appIicati〇n Specmc input format that can be applied by the application 1512 D line. " For example, if the application 1510 cannot receive multi-touch input and only recognizes the traditional standard input data defined in the operating system (c〇nventi〇nal standar(j input data)' such as in the old Windows job In the case of a mouse/keyboard in the system case, the auxiliary interface driver 1508 converts the data packet of the multi-touch sensor board into a set of conventional standard input data, and outputs the analog input of the traditional standard input to the application 1510. The information (emulated inputmessage) enables the application program to execute its interactive instructions. Although the present invention has been disclosed in the above embodiments, it is not intended to limit the present invention, and any one of ordinary skill in the art is not The scope of protection of the present invention is defined by the scope of the appended claims, and the scope of the invention is defined by the scope of the appended claims. A perspective view of a mouse with a touchpad. Figure 2 illustrates a multi-touch and multi-directional slide with two touchpads. 3 is a perspective view of the mouse. FIG. 3 is a top view of the touch panel of FIG. 2 and the user's two fingers are located on the top multi-touch panel, and the user's only third finger is located at the top surface. On the control panel.
圖4繪示出圖3的觸控板的側視圖。 圖5繪示出-種具有兩個設定區塊的—個滑鼠上的觸控板。 圖6繪不出-種具有四個設定區塊的―個滑鼠上的觸控板。 圖7繪示出一種整體對映法的示意圖。 圖8A繪示出一種部分對映法的示意圖。 圖8B ...曰示A種部分對映法的示意圖其中部分對映區域正在移 動0 圖9A’.曰不A種連結物體與具有一個多點感測板的滑鼠的示意圖。 圖9Β繪示出-種連結幢與具有一個多點感測器觸控板以及一個 苐二觸控板的滑鼠的示意圖。 圖10 :#示出將_個單點觸控板上的—個兩指觸控動作對映在個人 電腦螢幕座標的示意圓。 兩指觸控動作對映在個 圖10Β繪不出將兩個分開的觸控板上的一個 人電腦螢幕座標的示意圖。 電腦螢幕座標⑹ϋ點驗板上的—個二指觸控動觸映在個人 15 201218036 圖丨1B繪不出將兩個分開的觸控板上的一個三指觸控動作對映在個 人電腦螢幕座標的示意圊。 圖12A繪不出將一個單點觸控板上的一個兩指觸控手勢對映在個人 電腦螢幕座標的示意圖。 圖12B繪不出將兩個分開的觸控板上的一個兩指觸控手勢對映 人電腦螢幕座標的示意圖。 S示出將一個單點觸控板上的另一個兩指觸控手勢對映在個 人電腦螢幕座標的示意圖。4 is a side view of the touch panel of FIG. 3. Figure 5 illustrates a touchpad on a mouse with two set blocks. Figure 6 shows a touchpad on a mouse with four set blocks. Figure 7 depicts a schematic of an overall enantiomeric method. Figure 8A depicts a schematic of a partial enantiomeric method. Fig. 8B is a schematic view showing a partial enantiomerization method in which a part of the enantiomeric region is moving. Fig. 9A' is a schematic diagram of a kind of connecting object and a mouse having a multi-point sensing plate. Fig. 9 is a schematic view showing a connecting frame and a mouse having a multi-point sensor track pad and a second touch pad. Figure 10: # shows a two-finger touch action on a single touch panel on a schematic circle of the PC screen coordinates. The two-finger touch action is reflected in a picture. Figure 10Β shows a schematic diagram of a computer screen coordinate on two separate touchpads. Computer screen coordinates (6) — Point test panel - a two-finger touch touch on the individual 15 201218036 Figure B 1B can not draw a three-finger touch action on two separate touch panels on the PC screen coordinates The gesture. Figure 12A depicts a schematic representation of a two-finger touch gesture on a single touch panel on a personal computer screen coordinate. Figure 12B illustrates a schematic diagram of a two-finger touch gesture on two separate touch panels being mapped to a computer screen coordinate. S shows a schematic diagram of mapping another two-finger touch gesture on a single touch panel to a personal computer screen coordinate.
觸控板上㈣—個触健传對映在 ::會幕:出觸控板上的又-個兩指觸控手勢對映在個 圖1犯綠不出將兩個分開的觸控板 固人電腦螢幕座標的示意圖。 上的又一 個兩指觸控手勢對映在On the touchpad (4) - a touch-sensitive pass is reflected in:: Tabernacle: Another two-finger touch gesture on the touchpad is reflected in Figure 1. The two touchpads are separated. Schematic diagram of the solid computer screen coordinates. Another two-finger touch gesture on the screen
圖15繪示出— 圖16繪示出— 圖17繪示出一 種將硬體與倾元件連制方塊圖。 種具有兩個分開的觸控板的電腦滑鼠的另—實施例。 種具有兩個分開的觸控板的電腦滑鼠的又—實施例。 201218036 【主要元件符號說明】 100'200、1600、1700 :滑鼠 102 :凹陷 104 :平坦表面 106、202、502、602、902、1110 :感測板 108、1602、1702 :滑鼠本體 204 :側面Figure 15 is a drawing - Figure 16 is a drawing - Figure 17 is a block diagram showing the connection of a hard body and a tilting element. Another embodiment of a computer mouse with two separate touchpads. A further embodiment of a computer mouse with two separate touchpads. 201218036 [Description of main component symbols] 100'200, 1600, 1700: mouse 102: recess 104: flat surface 106, 202, 502, 602, 902, 1110: sensing plates 108, 1602, 1702: mouse body 204: side
502a :前半部 502b :後半部 702 :橫座標 704 :縱坐標 706、1202、1204 :觸控動作 710、712 :角落 714 :個人電腦螢幕 800 :預定區域 900 :韌體 904、906 :數據 908、1604、1606、1704、1706 :觸控板 1000、1008、1010、1100、1108、1200、1206、1208、1300、 1308、1310、1400、1408、1410 :手指 1002、1004、1006、1112、1114、1116 :觸控點 1210、1212、1302、1304、1306、1402、1404、1406 :手勢 [S] 17 201218036 1608 :側延伸部502a: front half 502b: rear half 702: abscissa 704: ordinates 706, 1202, 1204: touch actions 710, 712: corner 714: PC screen 800: predetermined area 900: firmware 904, 906: data 908, 1604, 1606, 1704, 1706: touchpads 1000, 1008, 1010, 1100, 1108, 1200, 1206, 1208, 1300, 1308, 1310, 1400, 1408, 1410: fingers 1002, 1004, 1006, 1112, 1114, 1116: touch points 1210, 1212, 1302, 1304, 1306, 1402, 1404, 1406: gesture [S] 17 201218036 1608: side extension
位置：X、Y #1、#2 :邏輯裝置 1500 :多點觸控界面驅動程式 1502 :核心模式驅動程式 1504 :裝置驅動模組 1506 :使用者層級介面驅動程式 1508 :輔助介面驅動程式 1510、1512 :應用程式Location: X, Y #1, #2: Logic device 1500: Multi-touch interface driver 1502: Core mode driver 1504: Device driver module 1506: User level interface driver 1508: Auxiliary interface driver 1510, 1512 : Application
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