201033859 六、發明說明： 【發明所屬之技術領域】 本發明係有關一種手持努署 判定感應方向以執行相對應指令之具二：===置依據 鲁 【先前技術】 隨著科技的進步，行動手持萝 作行動手财、、置對使用者而言，如何簡易操 丁動手躲置在產纽商社皆為重要的職。傳統行動手持装 置之操作方法皆利用鍵盤下達操作指令。 、、 目前市面上出現簡控㈣為基礎之行動手魏置，其將傳統 鍵盤移轉至觸控螢幕之虛擬鍵盤，將觸控功能提升為有特殊方向性 ❹=操作’甚至可利關單之手勢操控，以放大縮小晝面中物件之功 月t*，但該技術缺點為其操作介面仍須以碰觸螢幕之方式操作。 然業界使用單一 CMOS感應器接收手勢訊號，而本案改以多個 感應器取代，以求降低邏輯運算之複雜度與裝置成本之開發難度。 【發明内容】 201033859 本發明係提供一種具有非觸控介面之手持裝置，包含一殼體、 . 複數個感應器以及一處理器。該感應器以沿一第一方向或沪$方向 ，排列之排刺方式設置於紐體之絲，时以糊域 別產生感應訊號。該處理器設置於該殼體内，且電性連接該複數個 感應器，用以接收該複數個感應器分別產生之感應訊號，且用來依 據接收該複數個感鮮產生之感應喊之先_序組合執行相對應 指令。 Φ 【實施方式】 請參考第1圖至第6圖。第1圖為本發明手持裝置1〇〇第一實 施例之示意圖，第2圖為第二實施例之示意圖，第3圖為第三實施 例之示意圖，第4圖為第四實施例之示意圖，第5圖為第五實施例 之示意圖，第6圖為第六實施例之示意圖。由第！圖可知，具有非 觸控介面之手持裝置！00具有一殼體120、複數個感應器131〜134、 # 一顯示器150以及一處理器（圖上未顯示）。感應器131、133係沿一 第一方向排列的方式設置於殼體120之表面；感應器132、134係沿 一第二方向排列的方式設置於殼體120之表面，感應器ι31〜134係 用來以非觸控感應方式分別產生感應訊號，並將感應訊號傳遞至處 理器140。顯示器15〇亦設置於殼體120表面，用來顯示欲執行之 工作内容。而處理器140則設置於殼體120内，其電性連接複數個 感應器131〜134，其可接收複數個感應器131〜134所分別產生之感 應訊號’並依據接收複數個感應器131〜134產生之感應訊號之先後 5 201033859 順序組合執行相對應指令。此外由第1圖所示，手持裝置100之複 ' 數個感應器131〜134係分別設置於殼體120表面，然而本發明之感 - 應器並不限如第1圖所示以菱形狀設置於殼體120表面及顯示器 150周圍，其亦可如第2圖所示手持裝置200之複數個感應器 231〜234分別以菱形狀設置於殼體220表面，顯示器250的下方； 如第3圖所示，手持裝置300之複數個感應器331〜334分別以方形 狀設置於殼體320表面及顯示器350的周圍；如第4圖所示手持裝 ❹置400之複數個感應器431〜434分別以方形狀設置於殼體42〇表面 及顯示器450下方；第5圖所示手持裝置500之複數個感應器 531〜538分別以環繞之方式設置於殼體520表面及顯示器550的周 圍；第6圖所示手持裝置600之複數個感應器631〜638分別以環繞 之方式設置於殼體620表面及顯示器650的下方。而除上述之實施 例外，只要感應器分別設置於殼體表面，不論感應器採何種方式或 數量設置，只要可以非接觸的方式感應並產生感應訊號，使處理器 φ 得以判斷感應先後順序並執行相對應指令，均可作為實現本發明手 持裝置中的感應器。其中前述各實施例中的感應器可為光感應器、 紅外線感應器或任何能以非接觸方式隔空感應之裝置。例如光感應 器係藉由判定環境光線的強度來決定是否被觸發，當使用者手勢移 動至某一光感應器上方時，由於使用者的手阻擋了部分光線，使該 •光感應器所偵測之環境光線強度低於一閥值，因此產生感應訊號。 研參考第7圖。第7圖為本發明手持裝置1〇〇第一實施例之系 統方塊圖，其中感應器131〜134係以光感應器作說明。手持裝置1〇〇 201033859 除了具有设體120、感應器131〜134 ’以及顯示器150外，内部另具 ‘ 有一電性連接複數個感應器131〜134之處理器140。當複數個感應 - 器13丨〜丨34分別產生感應訊號時，將感應訊號傳送至處理器14〇， 處理器140於接收感應訊號後，判別複數個感應器131〜134所產生 之感應訊號之先後順序組合，並執行相對應指令。 以下為本發明手持裝置100、200、300、400、500、600非觸控 φ 介面之詳細感應方法。舉例來說，如第1圖本發明手持裝置100之 第一實施例所示，感應器131、133沿第一方向分別設置於殼體120 表面上方之第一位置以及下方之第二位置，當感應物由手持裝置 100之下方移至上方時(例如使用者以手勢在手持裝置1〇〇上以非接 觸的方式移動），第二位置之感應器133因感應物阻擋而產生感應訊 號，接著第一位置之感應$ 131因感應物阻擔而產生感應訊號。感 應器133、13〗則依序分別將感應訊號傳遞至處理器14〇。當處理器 藝140接收感應n 133、131分別產生之感應訊號時，依據接收感應器 133、131產生感應訊號之順序判別感應物移動方向為由下而上，因 此處理器M0執行相對應的指令，例如將物體移動向上，而顯示器 150則顯示物體移動向上的畫面。感應器132、134沿第二方向分別 設置於殼體120表面左側之第三位置以及右側之第四位置，當感應 •物由手持裝置勘之左側移至右側時，第三位置之感應器132因感 應物阻擔喊生感應訊號；接著第四位置之感應器134因感應物阻 擒而產生感應峨。感應器132、134驗序分職絲訊號傳遞至 處理器140。當處理器140接收感應器132、…分別產生之感應訊 201033859 號時，依據接收感應器132、134產生感應訊號之順序判別感應物移 ~ 動方向為由左而右，因此處理器140執行相對應的指令，例如將物 ' 體移動向右，而顯示器150則顯示物體移動向右的畫面。 然而本發明之感應方法可具有其他變化之實施例，如第3圖手 持裝置300第三實施例所示，感應器331、333沿第一方向分別設置 於殼體320 <面左下之第一位置以及右上之第二位f，當感應物由 參手持裝置300之左下移至右上時，第一位置之感應器331因感應物 阻播而產生感應訊號；接著第二位置之感應器333因感應物阻擒而 產生感應訊號。感應器33卜333則依序分別將感應訊號傳遞至處理 器。當處理器接收感應器33卜333分別產生之感應訊號時，依據接 收感應器331、333產生感應訊號之順序判別感應物移動方向為由左 下而右上，因此處理H執行姆應的指令，例如將物體移動向右上， 而_器350則顯示物體移動向右上的晝面。由上述可知，第2圖 馨感應裔231〜234之排列方式與第i圖之差別僅在設置位置及範圍， 其感應方式大致相仿。其他變化實施例如第5圖及第6圖所示，如 上所述感應請〜538及631〜⑽除可感應上下、左右以及斜向方 向之直線_卜’更可執行_針或逆時針之指令，此外更可利用 搭+她魏，應流程在此 • 不做賢述。 凊參考第8圖。第只固 統方塊圖。本發日特持2本發邮七實施例顿裝置之系 手持裝置中複數個感應器131〜134、231〜234、 8 201033859 33K334、431〜434、531〜538、631〜⑽除可為光感應器，如第8圖 所不’亦可使用紅外線感應器731作為感應器，其於殼體72〇表面 -的配置方式可與第-至第四實施例相同或其他任何可行的實作形 式。紅外線感應器731分別具有一發射源7311以及一接收端73^， 當發射源7311發射之訊號受到使用者的手勢阻播產生反射再由接 收端7312接收時，紅外線感應器731產生相對應之感應訊號並傳遞 至處理器’而處理器740於接收由；ϊ；同位置之紅外線感應器731分 ❿別依序產生之感應訊號，依據感應訊號之先後順序組合執行相對應 指令。 ’、 此外，若使用光感應器作為感應器的形式，於手持裝置1〇〇、 200、300、400、500、600上可另外使用一發光二極體(LED)作為光 源，使手持裝置100、200、300、400、500、600於黑暗環境中仍可 正常使用。此外，該發光二極體可不僅限制裝設於該殼體12〇、 220、320、42〇、520、620表面’亦可裝設於該光感應器13〇〜134、 231〜234、331 〜334、431〜434、531 〜538、631 〜638 内，只要可輔助 光感應器’用來提升感應器之準確度皆可為本發明所揭露之實施 例。然本發明手持裝置100、200、300、400、500、600、700之感 應器 131 〜134、231 〜234、331-334、431 〜434、531 〜538、631 〜638、 . 731係以複數個光感應器及紅外線感應器為例示，但不限於上述兩 種形式之感應器，只要具備非觸控介面之感應器皆可實現本發明手 持裝置100、200、300、400、500、600、700。此外，本發明手持 裝置100、200、300、400、500、600、700欲執行相對應指令不僅 201033859 圖面放大縮小、遠近或翻頁等功 指令’使物_手持裝置之嘛體搭配不同手 勢轉化為其他相對指令之執行如 能0 明參考第9-1圖至第9-5圖。第9]圖至第9_5圖為本發明手持 裝置_ “實關之示意圖。其转本發明錢操作之延伸應 用由第9 1圖所不，手持裝置8〇〇之複數個感應器⑶〜838係以 ❹刀，、且。又置’其中複數個感應器831〜幻4分別以菱形狀設置於殼體㈣ 表面及顯示器850的左下方；而複數個感應器奶〜⑽分別以菱形 狀設置奸:體㈣表面及顯示器咖的右下方。其感應方法除可如 上，述之單手感應外’更可以雙手感應方式搭配順逆時針方向，或 如第9-2圖及第9_3圖所示之上下方向感應，亦或者如第9_4圖及第 9-5圖所示之左右方向錢，如達到多域應之魏。 流程在此不做贅述。 、次應 藝 綜上所述，本發明係提供一種具有非觸控介面之手持裝置，不 同於習知技術利用觸控螢幕為基礎並搭配簡單手勢執行特殊方向 操作或其雜殊齡。本發明錯裝置糊義控式絲器，= 空感應之方式以達到方向指令之操控，而使用者更可利用簡單手 - 勢’依據手持裝置内建軟體搭配感應器之變化，執行其他功能如遠 近、圖面放大縮小或翻頁等功能。此外，本發明手持裝置以一行動 電話為例示，但不限於行動電話，只要具備手持裝置及電子裝置之 功能，如個人數位助理(PDA)亦可為實現本發明之手持裴置。 201033859 ' 社觸縣本發明之雛實關，紐轉％㈣鼻利範圍 •所做之均«化與修飾，皆制本發明之涵蓋_。° 【圖式簡單說明】 第1圖為本發明手持裝置第一實施例之示意圖。 ^ 第2圖為本發明手持裝置第二實施例之示意圖。 第3圖為本發明手持裝置第三實施例之示意圖。 第4圖為本發明手持裝置第四實施例之示意圖。 第5圖為本發明手持裝置第五實施例之示意圖。 第6圖為本發明手持裝置第六實施例之示意圖。 第7圖為本發明手持裝置第—實施例之系統方塊圖。 第8圖為本發明手持裝置第七實施例之系統方塊圖。 第9-1圖〜第9-5圖為本發明手持裝置第八實施例之示意圖。 ❹ 【主要元件符號說明】 120、220、 320、420、 殼體 520 、 620 、 100、200、300、 400、500、600、手持襄置 700 ' 800 720 、 820 201033859 130〜134、 231〜234、 - 331 〜334、 處理器 431 〜434、 感應器 140、740 531〜538 、 631〜638 、 731 、 831〜838 ^ 150、250、350、 發射源 450、550、650、顯示器 7311 750 ' 850 7312 接收端201033859 VI. Description of the invention: [Technical field to which the invention pertains] The present invention relates to a hand-held device for determining the direction of sensing to perform a corresponding instruction::===Setting according to Lu [Prior Art] With the advancement of technology, action Hand-held radish for action, and for the user, how to easily operate in the production of the New Zealand business is an important position. The operation method of the conventional mobile handheld device utilizes the keyboard to give an operation instruction. At present, there is a simple control (4) based on the mobile operator Wei set, which moves the traditional keyboard to the virtual keyboard of the touch screen, and enhances the touch function to have a special directionality = operation 'even profitable The gesture control is to enlarge and reduce the power month t* of the object in the face, but the technical disadvantage is that the operation interface still needs to operate by touching the screen. However, the industry uses a single CMOS sensor to receive gesture signals, and the case is replaced by multiple sensors in order to reduce the complexity of logic operations and the development of device costs. SUMMARY OF THE INVENTION The present invention provides a handheld device having a non-touch interface, including a housing, a plurality of inductors, and a processor. The sensor is arranged in the first direction or the Shanghai dollar direction, and is arranged in a row of thorns to form the wire of the button body, and the sensing signal is generated in the paste region. The processor is disposed in the housing, and is electrically connected to the plurality of sensors for receiving the sensing signals respectively generated by the plurality of sensors, and is configured to receive the sensing signals generated by the plurality of sensors The _ sequence combination executes the corresponding instruction. Φ [Embodiment] Please refer to Figure 1 to Figure 6. 1 is a schematic view of a first embodiment of a handheld device according to the present invention, FIG. 2 is a schematic view of a second embodiment, FIG. 3 is a schematic view of a third embodiment, and FIG. 4 is a schematic view of a fourth embodiment. 5 is a schematic view of a fifth embodiment, and FIG. 6 is a schematic view of a sixth embodiment. By the first! The figure shows that the handheld device has a non-touch interface! 00 has a housing 120, a plurality of sensors 131-134, a #display 150, and a processor (not shown). The sensors 131 and 133 are disposed on the surface of the casing 120 in a first direction; the inductors 132 and 134 are arranged on the surface of the casing 120 in a second direction, and the sensors are ι 31 to 134. The sensing signal is generated by the non-touch sensing method, and the sensing signal is transmitted to the processor 140. A display 15 is also disposed on the surface of the housing 120 for displaying the work to be performed. The processor 140 is disposed in the housing 120, and is electrically connected to the plurality of sensors 131-134, which can receive the sensing signals generated by the plurality of sensors 131-134, respectively, and receive the plurality of sensors 131~ The 134 generated inductive signal sequence 5 201033859 The sequential combination executes the corresponding instruction. In addition, as shown in FIG. 1, a plurality of sensors 131 to 134 of the handheld device 100 are respectively disposed on the surface of the casing 120. However, the sensor of the present invention is not limited to the shape of the diamond as shown in FIG. It is disposed on the surface of the casing 120 and around the display 150. The plurality of sensors 231 234 to 234 of the handheld device 200 as shown in FIG. 2 may be respectively disposed on the surface of the casing 220 in a diamond shape, below the display 250; As shown in the figure, a plurality of sensors 331 331 334 of the handheld device 300 are respectively disposed in a square shape on the surface of the housing 320 and around the display 350; as shown in FIG. 4, the plurality of sensors 431 434 of the handheld device 400 are shown in FIG. The plurality of sensors 531 538 538 of the handheld device 500 shown in FIG. 5 are respectively disposed on the surface of the housing 520 and around the display 550 in a square shape; The plurality of sensors 631 638 638 of the handheld device 600 shown in FIG. 6 are respectively disposed on the surface of the casing 620 and below the display 650 in a surrounding manner. Except for the above-mentioned implementation, as long as the sensors are respectively disposed on the surface of the casing, regardless of the manner or quantity of the sensors, as long as the sensing signals can be sensed and generated in a non-contact manner, the processor φ can determine the order of sensing and The execution of the corresponding instructions can be used as an inductor in the implementation of the handheld device of the present invention. The inductors in the foregoing embodiments may be light sensors, infrared sensors or any device capable of sensing in a non-contact manner. For example, the light sensor determines whether or not it is triggered by determining the intensity of the ambient light. When the user gesture moves over a certain light sensor, the light sensor is detected because the user's hand blocks part of the light. The measured ambient light intensity is below a threshold value, thus generating an inductive signal. Research refers to Figure 7. Figure 7 is a block diagram of the first embodiment of the handheld device 1 of the present invention, wherein the sensors 131-134 are illustrated by a light sensor. The handheld device 1 〇〇 201033859 has a processor 140 having a plurality of sensors 131 134 134 electrically connected to the device 120 , the sensors 131 134 134 ′ and the display 150 . When the plurality of sensors 13 丨 丨 丨 34 respectively generate the sensing signals, the sensing signals are transmitted to the processor 14 〇, and after receiving the sensing signals, the processor 140 determines the sensing signals generated by the plurality of sensors 131 134 134. Combine sequentially and execute the corresponding instructions. The following is a detailed sensing method of the non-touch φ interface of the handheld device 100, 200, 300, 400, 500, 600 of the present invention. For example, as shown in the first embodiment of the handheld device 100 of the present invention, the inductors 131 and 133 are respectively disposed in a first position above the surface of the housing 120 and a second position below the first direction in the first direction. When the sensor is moved from the lower side of the handheld device 100 to the upper side (for example, the user moves in a non-contact manner on the handheld device 1), the sensor 133 in the second position generates an inductive signal due to the sensing of the object, and then The sensing of the first position $131 generates an inductive signal due to the sensing resistance. The sensors 133, 13 then sequentially transmit the sensing signals to the processor 14A. When the processor technology 140 receives the sensing signals generated by the sensing n 133 and 131 respectively, the sensing direction of the sensing object is determined to be bottom-up according to the order in which the receiving sensors 133 and 131 generate the sensing signals, so the processor M0 executes the corresponding instruction. For example, the object is moved up, and the display 150 displays a picture in which the object moves up. The sensors 132, 134 are respectively disposed in a third position on the left side of the surface of the housing 120 and a fourth position on the right side in the second direction. When the sensing object is moved from the left side of the handheld device to the right side, the sensor 132 of the third position is disposed. The sensing signal is shunted by the inductive object; then the sensor 134 of the fourth position generates an inductive flaw due to the resistance of the inductive object. The sensors 132, 134 pass the sequencing signal to the processor 140. When the processor 140 receives the sensing signals 201033859 generated by the sensors 132, ... respectively, the sensing signals are moved from left to right according to the order in which the receiving sensors 132, 134 generate the sensing signals, so the processor 140 executes the phases. Corresponding commands, for example, move the object to the right, and display 150 displays the object moving to the right. However, the sensing method of the present invention may have other modified embodiments. As shown in the third embodiment of the handheld device 300 of FIG. 3, the inductors 331, 333 are respectively disposed in the first direction of the housing 320 < The position and the second position f on the upper right, when the sensor is moved from the left to the upper right of the handheld device 300, the sensor 331 of the first position generates an inductive signal due to the inductive object blocking; then the sensor 333 of the second position is The inductive object blocks and generates an inductive signal. The sensor 33 333 sequentially transmits the sensing signal to the processor. When the processor receives the sensing signals generated by the sensors 33 and 333 respectively, the direction of the sensing object is determined to be from the lower left to the upper right according to the order in which the receiving sensors 331, 333 generate the sensing signals, so that the processing H executes the command of the response, for example, The object moves to the upper right, and the _350 displays the movement of the object to the upper right. It can be seen from the above that the arrangement of the second figure 301 to 234 is different from the i-th picture only in the set position and range, and the sensing mode is substantially similar. For other changes, as shown in Figures 5 and 6, as described above, please apply ~538 and 631~(10) in addition to the line that can sense the up, down, left and right and oblique directions. In addition, you can use the + her Wei, the process should be here • Do not make a statement.凊 Refer to Figure 8. The first solid block diagram. In the handheld device of the present invention, the plurality of sensors 131 to 134, 231 to 234, 8 201033859, 33K334, 431 to 434, 531 to 538, and 631 to (10) are light-receiving. The sensor, as shown in FIG. 8, can also use the infrared sensor 731 as an inductor, and the surface of the housing 72 can be configured in the same manner as the first to fourth embodiments or any other feasible implementation. . The infrared sensors 731 respectively have a transmitting source 7311 and a receiving end 73^. When the signal emitted by the transmitting source 7311 is reflected by the user's gesture and reflected by the receiving end 7312, the infrared sensor 731 generates a corresponding sensing. The signal is transmitted to the processor ′, and the processor 740 receives the sensing signal generated by the infrared sensor 731 in the same position, and executes the corresponding command according to the sequence of the sensing signals. In addition, if a light sensor is used as the sensor, a light-emitting diode (LED) can be additionally used as a light source on the handheld device 1 , 200 , 300 , 400 , 500 , 600 to make the handheld device 100 , 200, 300, 400, 500, 600 can still be used normally in dark environments. In addition, the light-emitting diodes may not only be mounted on the surfaces of the housings 12, 220, 320, 42〇, 520, 620, but may also be mounted on the light sensors 13〇-134, 231~234, 331 ～334, 431~434, 531~538, 631~638, as long as the auxiliary light sensor' can be used to improve the accuracy of the sensor can be the embodiment disclosed in the present invention. However, the sensors 131 to 134, 231 to 234, 331-334, 431 to 434, 531 to 538, 631 to 638, and 731 of the handheld device 100, 200, 300, 400, 500, 600, and 700 of the present invention are plural. The light sensor and the infrared sensor are exemplified, but are not limited to the above two types of sensors, as long as the sensor having the non-touch interface can implement the handheld device 100, 200, 300, 400, 500, 600 of the present invention, 700. In addition, the handheld device 100, 200, 300, 400, 500, 600, 700 of the present invention is required to execute a corresponding instruction not only 201033859, but also zoom in, zoom in, or turn pages, etc. Conversion to other relative instructions can be performed as shown in Figures 9-1 through 9-5. 9] to 9_5 are diagrams of the handheld device of the present invention _ "the schematic diagram of the real off. The extension application of the money operation of the present invention is not shown in Fig. 91, and the plurality of sensors (3) ~ 838 of the handheld device 8 The knives are set, and the plurality of sensors 831 to phantom 4 are respectively arranged in a diamond shape on the surface of the casing (four) and the lower left of the display 850; and the plurality of sensor milks ~ (10) are respectively set in a diamond shape. Rape: Body (4) surface and the bottom right of the display coffee. The sensing method can be combined with the one-handed sensing as described above, and can be combined with the counterclockwise direction, as shown in Figures 9-2 and 9_3. The upper and lower directions are sensed, or the left and right direction money as shown in Figures 9_4 and 9-5, if the multi-domain should be reached. The flow will not be described here. The invention provides a handheld device with a non-touch interface, which is different from the prior art by using a touch screen and performing a special direction operation with a simple gesture or a different age. The wrong device of the present invention controls the wire guide, = empty Inductive way to achieve direction command The user can use the simple hand-potential function to perform other functions such as distance, zoom in and out, or page turning according to the change of the built-in software of the handheld device. In addition, the handheld device of the present invention uses a mobile phone. As an example, but not limited to a mobile phone, as long as it has the functions of a handheld device and an electronic device, such as a personal digital assistant (PDA), it can also be a hand-held device for implementing the present invention. 201033859 'Society of the invention is the reality of the invention. %% (4) Scope of the nose • The simplification and modification of the invention are all covered by the invention _. [Simplified illustration of the drawing] Fig. 1 is a schematic view showing the first embodiment of the hand-held device of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS FIG. 3 is a schematic view showing a third embodiment of a handheld device according to the present invention. FIG. 4 is a schematic view showing a fourth embodiment of the handheld device according to the present invention. Figure 6 is a schematic view of a sixth embodiment of a handheld device according to the present invention. Figure 7 is a block diagram of a system according to a first embodiment of the handheld device of the present invention. System block diagram of the seventh embodiment of the handheld device. Figures 9-1 to 9-5 are schematic views of the eighth embodiment of the handheld device of the present invention. ❹ [Description of main component symbols] 120, 220, 320, 420, shell Body 520, 620, 100, 200, 300, 400, 500, 600, handheld device 700 '800 720, 820 201033859 130~134, 231~234, -331~334, processor 431~434, sensor 140, 740 531~538, 631~638, 731, 831~838^150, 250, 350, emission source 450, 550, 650, display 7311 750 '850 7312 receiving end
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