201211835 六、發明說明： 【發明所屬之技術領域】 本發明係關於一種輸入裝置及筆型滑鼠，特別係關於一種藉 由輸入件或筆頭所受壓力強度的不同以對應輸出控制信號的輸入 裝置及筆型滑鼠。 【先前技術】 滑鼠目前已成為電腦常見的輸入裝置，主要的種類可分成機 械式和光學式滑鼠。 光學式滑鼠主要包括感測模組 rt士^_ 、控制電路模組。感測模組每201211835 VI. Description of the Invention: [Technical Field] The present invention relates to an input device and a pen-type mouse, and more particularly to an input device for outputting a control signal by different pressure intensities of an input member or a pen tip And pen type mouse. [Prior Art] The mouse has become a common input device for computers, and the main types can be divided into mechanical and optical mice. The optical mouse mainly includes a sensing module rts ^_ and a control circuit module. Sensing module
機械式滑鼠主要包括軌跡球、二感測模組、控制電路及三按 鍵。其中，每一感測模組包括感光圓盤、發光單元及接收單元。 當機械式滑鼠移動時’獅球會滾動，進哺動每—感光圓盤。 每-發光單元所發射的光線分酿過每—感光_，每—接收單 元分別接收經過每—感顧盤的光線。控制電路接收每—接收單 =因^別接收經過每—感光圓盤的光線所產生的信號，並且依據 這些信號進行機械式滑鼠的位料算，接著將計算結果回傳至電 腦’相關技術與研究可參考顏專鄉6489948號。 組輿 鄰時 回傳至電腦， 201211835 的按鍵僅有被按壓與不被按壓所產生的功能，面對資訊科技不斷 的進步，多元化電腦軟體的開發，上述習知的機械式或光學式滑 鼠的使用功能已不敷使用。 【發明内容】 鑒於以上問題，本發明提供一種輸入裝置及筆型滑鼠，藉以 解決因按鍵僅有被按壓與不被按壓所產生的功能，而使上述習知 機械式滑鼠或光學式滑鼠存在有使用功能不足的問題。 依據本發明所揭露之輸入裝置的一實施例，其包括輸入件、 壓力感測單元及微處理^ 其中，壓力躺單元設置於輸入件， 微處理器電性連接於第—勤制單元且包括多個職值。當操 作者施予壓力強度於輸人件，壓力制單元接收操作者施予輸 件的壓力強度大小，並依據操作者施予輸人件的壓力強度大小 產生壓力信號，微處理器將壓力信號與每—預練進行比較而輸 出對應的控制信號。 在一實施财’微纽器包括第—職似第二預設值，微 處理器接收並賴壓力域為對應賴力值，並賴力值分別與 第-預設似第二預設值進行比較而產生比較結果理 觀較結繼相對的第—控制信號、第二控制信號及第三控: U。其中’第二預設值可大於第—預設值。當壓力值大於第一 預設值及第二預設值時，微處理器輸出第—控制信號，當壓力值 職餘小於第二織值時，微處㈣輸㈣二控制作 戒’請力值小於第-預設值及第二預設值時，微處理器輸出第。 201211835 三控制信號。 在一實施例中，壓力感測單元包括尺(：電路，RC電路包括第 一可變電容或卜可魏阻，其中，第—可變電容可隨著操作者 施予輸入件的壓力·大小而改變電容值，或第—可變電阻可隨 著操作者辭輸人件的壓力強度大小而改變電贿，使得壓力感 測單元所輸出的壓力錢可隨著操作者施予輸人件的壓力強度大 小而改變。 在貫施例中，壓力感測單元包括電壓輸出電路，微處理器 包括類比數位轉換n，電壓輸出電路包括第二可魏阻，壓力感 測單元_力信號傳輸至數位觀ϋ。第二可魏阻可隨著 操作者施予輸人件的壓力強度大小*改變電阻值，使得壓力感測 單元所輸出_力信號可隨著操作者施予輸人件_力強度大小 而㈣’類比數位轉換器將壓力感測單元所輸㈣壓力信號從類 比信號轉換成數位信號。 在貫知例中’壓力感測單元包括步頁率產生電路，頻率產生 電路包括可’魏感，可變電感可隨著操作者施予輸人件的壓力強 私小而改變電雜，使得壓力_單摘輸出的壓力信號可隨 著操作者施予輸入件的壓力強度大小而改變。 本發明所揭露之輸人裝置可藉由壓力感測單元所產生的廢力 信號’隨著操作者施予輸人件的壓力大小而改變，進而使微處理 器輸出不同的控制信號。這些不_控制信號傳輸至與輸入裝置 麵接的接收裝置’以使減裝置依據這些不_控雜號進行相 201211835 對應的運作。舉例而言’微處萄包括二預設值，使微處理器可 將操作者施讀人件·力大小分駐階級’以輸出相對應的控 制信號’也就是說，每-輸人件具有三個㈣功能。因此，藉由 £力感測單7L與微纽的設置，可增加每一輸人件的使用功能。 依據本發明所揭露之筆型滑鼠的—實施例，筆型滑鼠包括位 移執跡感應單元、筆頭、壓力感測單元及微處理器。其中，壓力 感測單元設置於筆頭，微處理器電性連接於壓力❹j單元及位移 執跡感應單元，且微處理器包括多個賊值。當操作者施予壓力 於筆頭’壓力_單元魏操作者辭筆_壓力強度大小，並 依據域者㈣筆頭賴力大小產生壓力信號，微處理器根據壓 力信號而輸㈣應的控輸號。也就是說，壓力_單元所產生 的壓力信號隨著操作者施予筆頭的勤強度大小而改變，進而使 微處理器輪出不同的控制錢^這料同的控制錢傳輸至與輸 入裝置_的接收裝置，以使接收裝置依據這些不同的控制信號 進行相對應的運作。 j-實施射’微處㈣包姉—預設值及第三預設值，微 接收並轉換愿力信號為對應的壓力值，並將壓力值分別盘 值及第二預設健行比較而產生比較結果，微處理驗 _號、第：繼航第三控制 =似第i第r設值可大於第—預設值。當動值大於第一 夫於笛一 < 預⑦辦’微處理器輸出第—控繼號，當屋力值 ;預&錄小於第二預設辦，微處理H輸出第二控制信 201211835 號田壓力值小於第一預設值及第二預設值時，微處理器輸出第 三控制信號。 乐 本發明所揭露之筆型滑鼠可藉域城測單元所產生的壓力 信號’隨著操作者施予__力大小而改變，進而使微處理器 輸出不同的控繼號。這些不_控制信號傳輸至與筆型滑氣轉 接的接收裝置’錢接收裝置依據這些不_執行錢進行相對 ^的運作進而取代數位β 以上關於本發日月_容朗及以下之實施方式眺明係用以 示範及解釋本發_精神及原理，並且提供本發_專利申請範 圍更進一步的解釋。 【實施方式】 請參照「第1圖」，係為依縣發明之輸人裝置—實施例的電 路方塊圖。電腦輸人裝備（未標示）制以控制游標（未標示）， 例如.鍵盤、滑鼠或數位板，在本實施例中，電腦輸人裝備為鍵 盤’但不以此為限。電腦輸入裝備包括輸入裝置勘，其中，輸入 裝置100包括輸入件102、壓力感測單元1〇4、微處理器1〇6、電 源供應器108及傳輸馳112。在本實施例巾，輸人件1G2可為但 不限於單-按鍵，也就是說，輸入件1〇2亦可為雙向按鍵，關於 輸入件102可為雙向按鍵的描述請容後描述。 壓力感測單元104設置於輸入件1〇2,微處理器i〇6電性連接 於壓力感測單元104且包括但不限於第一預設值113與第二預設 值114 ’傳輸模組112輕接微處理器。電源供應器1〇8係與遷 201211835 力感測單元1〇4、微處理器1〇6及傳輸模組112電性連接。其中， 傳輸模組112將微處理器1〇6所產生的信號傳送至與電腦輸入裝 備輕接的電腦（未標示）。 當操作者施予壓力強度於輸入件1〇2時，壓力感測單元1〇4 用以接收輸入件1〇2所受的壓力。壓力感測單元1〇4會根據輸入 件102所受的壓力強度來產生壓力信號115,之後微處理器1〇6會 將壓力信號115與第一預設值113及第二預設值114進行比較而 輸出對應的控制信號in。當傳輸模組112接收到控制信號iu 後，傳輸模組112會將控制信號ill傳送至與電腦輸入裝備耦接 的電腦，以使得電腦可依據傳輸模組112所傳送的控制信號ln 進行相對的運作。 在本實施例中，微處理器106接收並轉換壓力信號115為對 應的壓力值（未標示），並將壓力值分別與第一預設值113及第二 預设值114進行比較而產生比較結果，之後微處理器1〇6會依據 比較結果輸出相對的第一控制信號（未標示）、第二控制信號（未 標示）及第三控制信號（未標示）。 其中，第一預設值114可大於第一預設值iu，且當壓力值大 於第一預設值113及第二預設值Π4時，微處理器1〇6輸出第一 控制信號；當壓力值大於第一預設值113但小於第二預設值114 時，微處理器106輸出第二控制信號；當壓力值小於第一預設值 113及第二預設值114時，微處理器1〇6輸出第三控制信號，但本 實施例並非用以限定本發明。舉例而言，當傳輸模組112將第一 201211835 就、第二控制信號或第三控制信號傳送至電腦時，電腦依 據第一控制信號使得游標以快速度往第一方向移動，其中，第一 二向1為但不限於簡的左方。或電腦依鮮二控_號使得游 Γ♦速f往第—方向移動。或電腦依據第三控制信號使得游標 ――在目續在的位置，但本實施例並非用以限定本發明，可依 據實際需求進行調整。The mechanical mouse mainly includes a trackball, two sensing modules, a control circuit and three buttons. Each sensing module includes a photosensitive disk, a light emitting unit, and a receiving unit. When the mechanical mouse moves, the lion's ball will roll and feed each photosensitive disc. The light emitted by each of the light-emitting units is divided into light-sensing_, and each-receiving unit receives light passing through each of the receiving disks. The control circuit receives the signal generated by each-receiving order=by receiving the light passing through each photosensitive disc, and based on these signals, carries out the calculation of the position of the mechanical mouse, and then returns the calculation result to the computer's related technology. And research can refer to Yan Zhunxiang No. 6489948. When the group is back to the computer, the button of 201211835 is only the function of being pressed and not pressed. Facing the continuous advancement of information technology, the development of diversified computer software, the above-mentioned mechanical or optical sliding The function of the mouse is no longer sufficient. SUMMARY OF THE INVENTION In view of the above problems, the present invention provides an input device and a pen-type mouse, thereby solving the above-mentioned conventional mechanical mouse or optical sliding function by solving the function that the button is only pressed and not pressed. There is a problem with the lack of function of the mouse. An embodiment of the input device according to the present invention includes an input member, a pressure sensing unit, and a micro processing. The pressure lying unit is disposed on the input unit, and the microprocessor is electrically connected to the first unit and includes Multiple job values. When the operator applies the pressure intensity to the input member, the pressure unit receives the pressure intensity of the operator to apply the pressure member, and generates a pressure signal according to the magnitude of the pressure intensity applied by the operator to the input member, and the microprocessor applies the pressure signal to each - Pre-practice for comparison and output corresponding control signals. In a implementation, the micro-initiator includes a second-preset value, and the microprocessor receives and relies on the pressure domain as the corresponding Lai value, and the Lai value is respectively performed with the second preset value. The comparison results in a comparative result that is more positive than the first control signal, the second control signal, and the third control: U. Wherein the second preset value may be greater than the first preset value. When the pressure value is greater than the first preset value and the second preset value, the microprocessor outputs the first control signal. When the pressure value is less than the second weaving value, the micro (4) input (four) and the second control are used as a ring. When the value is less than the first preset value and the second preset value, the microprocessor outputs the first. 201211835 Three control signals. In one embodiment, the pressure sensing unit includes a ruler (the circuit, the RC circuit includes a first variable capacitor or a Buchholster resistor, wherein the first variable capacitor can be sized according to the pressure applied by the operator to the input member And changing the capacitance value, or the first variable resistor can change the electric bribe according to the pressure strength of the operator escaping the human part, so that the pressure money output by the pressure sensing unit can be applied with the pressure strength of the input member according to the operator. In the embodiment, the pressure sensing unit includes a voltage output circuit, the microprocessor includes an analog digital conversion n, the voltage output circuit includes a second Wei resistance, and the pressure sensing unit transmits a force signal to the digital camera. The second Wei resistance can change the resistance value according to the pressure intensity of the operator to be applied to the input member, so that the output signal of the pressure sensing unit can be given according to the magnitude of the force strength of the operator (4) The analog digital converter converts the pressure signal transmitted by the pressure sensing unit from the analog signal to the digital signal. In the example, the pressure sensing unit includes a step rate generating circuit and a frequency generating circuit package. Can be 'Wei sense, variable inductance can change the electrical complexity as the operator gives the pressure of the input part, so that the pressure signal of the pressure_single output can be the pressure intensity of the input part with the operator. However, the input device disclosed by the present invention can change the waste force signal generated by the pressure sensing unit as the pressure applied by the operator to the input member, thereby causing the microprocessor to output different control signals. These non-control signals are transmitted to the receiving device that is connected to the input device to enable the subtracting device to perform the corresponding operation of the phase 201211835 according to these non-control codes. For example, the micro-receiving includes two preset values for micro processing. The operator can read the human part and force the size of the class to output the corresponding control signal. That is to say, each of the input parts has three (four) functions. Therefore, by means of the force sensing single 7L and micro-u The setting can increase the use function of each input member. According to the pen type mouse disclosed in the present invention, the pen type mouse includes a displacement sensing unit, a pen head, a pressure sensing unit and a microprocessor. The pressure sensing unit is disposed on the writing head, the microprocessor is electrically connected to the pressure unit and the displacement sensing unit, and the microprocessor includes a plurality of thief values. When the operator applies pressure to the writing head, the pressure _ unit Wei The operator writes the _ pressure intensity, and generates a pressure signal according to the size of the domain (4). The microprocessor inputs (4) the control signal according to the pressure signal. That is, the pressure signal generated by the pressure_unit The operator changes the intensity of the pen tip, so that the microprocessor takes out different control money, and the same control money is transmitted to the receiving device with the input device, so that the receiving device according to these different controls The signal is correspondingly operated. j-implementing the 'micro' (four) package - the preset value and the third preset value, micro-receiving and converting the wish signal to the corresponding pressure value, and the pressure value is respectively discured and The two preset health comparisons produce a comparison result, and the micro-processing _ number, the first: the third control of the relay = the i-th r-th set value may be greater than the first-preset value. When the dynamic value is greater than the first husband in the flute one < pre 7 handle 'microprocessor output first - control success number, when the house value; pre & recording less than the second preset, micro processing H output second control letter When the field pressure value of 201211835 is less than the first preset value and the second preset value, the microprocessor outputs a third control signal. The pen type mouse disclosed in the present invention can be changed by the pressure signal generated by the field unit as the operator gives the magnitude of the force, thereby causing the microprocessor to output different control numbers. These non-control signals are transmitted to the receiving device of the pen-type slip-to-air transfer. The money receiving device performs the operation according to these non-executive moneys, thereby replacing the digits β and the implementation manners of the present day and the month. The present invention is used to demonstrate and explain the present invention, and to provide a further explanation of the scope of the present application. [Embodiment] Please refer to "Figure 1", which is a circuit block diagram of an input device invented by Yixian. The computer input device (not shown) is configured to control the cursor (not shown), for example, a keyboard, a mouse or a tablet. In this embodiment, the computer input device is a keyboard ‘but not limited thereto. The computer input device includes an input device, wherein the input device 100 includes an input member 102, a pressure sensing unit 104, a microprocessor 1, and a power supply 108. In the embodiment, the input member 1G2 can be, but is not limited to, a single-button, that is, the input member 1〇2 can also be a two-way button. Please refer to the description of the input member 102 as a two-way button. The pressure sensing unit 104 is disposed on the input component 1〇2, and the microprocessor i〇6 is electrically connected to the pressure sensing unit 104 and includes but is not limited to the first preset value 113 and the second preset value 114′ transmission module. 112 lightly connected to the microprocessor. The power supply 1〇8 system is electrically connected to the 201211835 force sensing unit 1〇4, the microprocessor 1〇6 and the transmission module 112. The transmission module 112 transmits the signals generated by the microprocessors 1 to 6 to a computer (not shown) that is lightly connected to the computer input device. When the operator applies the pressure intensity to the input member 1〇2, the pressure sensing unit 1〇4 receives the pressure applied to the input member 1〇2. The pressure sensing unit 1〇4 generates a pressure signal 115 according to the pressure intensity received by the input member 102, and then the microprocessor 1〇6 performs the pressure signal 115 with the first preset value 113 and the second preset value 114. The corresponding control signal in is outputted. After the transmission module 112 receives the control signal iu, the transmission module 112 transmits the control signal ill to the computer coupled to the computer input device, so that the computer can perform the relative control according to the control signal ln transmitted by the transmission module 112. Operation. In this embodiment, the microprocessor 106 receives and converts the pressure signal 115 to a corresponding pressure value (not labeled), and compares the pressure value with the first preset value 113 and the second preset value 114 to generate a comparison. As a result, the microprocessor 1〇6 then outputs a relative first control signal (not labeled), a second control signal (not labeled), and a third control signal (not labeled) according to the comparison result. The first preset value 114 may be greater than the first preset value iu, and when the pressure value is greater than the first preset value 113 and the second preset value Π4, the microprocessor 1〇6 outputs the first control signal; When the pressure value is greater than the first preset value 113 but less than the second preset value 114, the microprocessor 106 outputs a second control signal; when the pressure value is less than the first preset value 113 and the second preset value 114, the micro processing The device 1〇6 outputs a third control signal, but this embodiment is not intended to limit the present invention. For example, when the transmission module 112 transmits the first 201211835, the second control signal or the third control signal to the computer, the computer moves the cursor to the first direction according to the first control signal, wherein the first The two-way 1 is but not limited to the simple left side. Or the computer depends on the fresh control _ number to make the Γ 速 speed f move to the first direction. Or the computer makes the cursor in the position according to the third control signal, but this embodiment is not intended to limit the present invention, and can be adjusted according to actual needs.
^ 第2A圖」’係為依據本發明之壓力感測單元的第一 實施例電路結構示_。壓力感測單元1G4可包括RC電路117， RC電路in可包括第—可變電阻出。當操作者施予壓力於輸入 件1〇2時，第一可變電阻118可隨著施予輸入件102義力強度 大J而改變其電阻值’進而改變虹電路m所需要的充電時間。 舉例而s ’請參照「第2B圖」與「第％圖」，係分別為依據「第 2A圖」的壓力❹样元於操作者辭輸人件的壓力強度大與小時 7輸出的結果示意圖。從「第2B圖」與「第％圖」中可發現， i：力感測單元1〇4於操作者施予輸入件⑺2的壓力強度大或小 時，第一可變電阻m的電阻值變小或變大，進而使rc電路ιΐ7 所需要的充電時間變大或變小。 壓力感測單元104係將RC電路117所需要的充電時間曲線 (P[力L號II5)傳輸至微處理器1〇6，微處理器⑽將電 路117所需要的充電時間曲線（即壓力信號115)轉換成壓力值（即 第RC電路in所需要的充電時間》以與第一預設值⑴及第 預。又值114進行比較，進而輸出第一控制信號、第二控制信號 201211835 或第三控制信號，但本實施例並非用以限定本發明。舉例而言， RC電路117可包括第一可變電容120 (如「第2D圖」所示，「第 2D圖」係為依據本發明之壓力感測單元的第二實施例電路結構示 意圖請參照「第1圖」與「第2D圖」，第一可變電容12〇可隨 著施予輸入件102的壓力強度大小而改變其電容值，進而改變RC 電路117所需要的充電時間’微處理器106將RC電路117所需要 的充電時間與第一預設值113及第二預設值114進行比較，進而 輸出第一控制信號、第二控制信號或第三控制信號。 除了上述的壓力感測單元104的電路結構外，壓力感測單元 1〇4另可包括頻率產生電路122，頻率產生電路122可包括可變電 感124 (如第3A圖」所示，「第3A圖」係為依據本發明之壓力 感測單it的第二貫赠彳電路結構示意圖）。當操作者施予壓力於輸 入件102時’可變電感124可隨著施予輸入件1〇2的麼力強度大 小而改變其電藏’進而改變鮮產生電路122所產生的頻率。 舉例而。4參照第3B圖」與「第3C圖」，係分別為依據「第 3A圖」的壓力感測單元於操作者施予輸入件的壓力強度大與小時 所輸出的結果示意圖。從「第3B圖」與「第3C圖」中可發現， 當壓力感測單元作者辭輸轉⑽_力強度大或小 時，可變電感124的電感值可變』式 」雯小或變大，進而使頻率產生電路 122所產生的頻率變大或變小。 壓力感測單元104係將頻率產士 產生電路122所產生的頻率曲線 (即壓力信號115)傳輸至微處理 处里益106,微處理器1〇6將頻率產 201211835 生電路122所產生的鮮曲線（即壓力信號j!5 )轉換成壓力值（即 頻率產生電路122所產生的頻率），以與第—預^值113及第二預 設值114進行比較，進而輸出第一控制信號、第二控制信號或第 二控制信號，但本實施例並非用以限定本發明。 »月 > 第4A圖」，係為依據本發明之麼力感測單元的第四 實施例電路結構示意圖。勤感測單元1〇4可包括電壓電路， 電壓電路m可包括第二可魏阻128，而電壓電路m會與微處 理器1〇6巾的類比數位轉換器13〇電性連接。當操作者施予壓力 於輸入件Η)2時，第二可變電阻128可隨著施予輸入件1〇2的麼 力強度大小而改變其電阻值，進而改變電壓電路126所輸出的電 壓:舉例而言，請參照「第4Β圖」與「第4C圖」，係分別為依據 第4A圖」的麗力感測單元於操作者施予輸入件的壓力強度大與 小時所輸出的結果示意圖。從「第4B圖」與「第4C圖」中可發 現’當壓力感測單元104於操作者施予輸入件1〇2的壓力強度大 或小時’第二可變電阻128的電感值變小或敎，進而使電^電 路126所輸出的電壓變大或變小。 壓力感測單元104係將電壓電路126所輸出的電壓曲線（即 壓力城II5)傳輸至微處理器1〇6,微處理器觸將電壓電路I% 所輸出的賴轉（即壓力信號丨)經醜比數轉換器⑽處 理後轉換成壓力值（即電厪電路126所輸出的電壓），以與第一預 設值113及第二預設值114進行比較，進而輸出第—控制信號、 第二控制信號鱗三控制信號’但本實施例並_以限定本發明。 11 201211835 106所包括的預設值數量可為但不 與第二預設值114)，可依實際需求 在本實施例中，微處理器 限於二個（即第一預設值m 而進行調整。 請參照「第5圖」與「第6圖」，係分別為依據本發明之輸入 裝置另-實施例的電路方塊酿依據本㈣之輸人裝置另一實施 例應用於電腦輸人裝備的外觀結構示意圖。電腦輸人裝備％係用 以控制游標（未標示），在本實施例中，電腦輸人裝備％為滑鼠， 但不以此為限。電腦輸入裝備5〇包括輸入裝置細，其中，輸入 裝置200包括輸入件2〇2、二壓力感測單元2()4、微處理器2〇6、 電源供應器208及傳輸模組212。 在本實施例中，輸入件202可為但不限於雙向按鍵，雙向按 鍵具有按壓處202卜2022，按壓處2021、2022會各自分別於每一 壓力感測單元204相互連接。而微處理器206電性連接於每一壓 力感測單元204，並電性耦接傳輸模組212。電源供應器2〇8係與 每一壓力感測單元2〇4、微處理器206及傳輸模組212電性連接。 其中，傳輸模組212將微處理器206所產生的信號傳送至與電腦 輸入裝備50耦接的電腦（未標示）。在本實施例中，微處理器2〇6 所包括的預設值數量可為但不限於四個（即第一預設值218、第二 預設值219、第三預設值220與第四預設值221)，可依實際需求 而進行調整。 當操作者施予壓力強度於按壓處2021時，與按壓處2021相 互連接的壓力感測單元204用以接收按壓處2021所受的壓力，然 12 201211835 後再根據按壓處2021所受的壓力強度來產生壓力信號215，之後 微處理器206將壓力信號215分別與第一預設值218及第二預設 值219進行比較而輸出對應的控制信號211。當傳輸模組212接收 到控制信號211後，傳輸模組212會將控制信號211傳送至與電 腦輸入裝備50耦接的電腦’以使得電腦可依據傳輸模組212所傳 送的控制信號211進行相對的運作。 在本實施例中，微處理器206接收並轉換壓力信號215為對 鲁應的壓力值（未標示）’並將壓力值分別與第一預設值218及第二 預設值219進行比較而產生比較結果，微處理器2〇6依據比較結 果輸出相對的第-控制信號（未標示）、第二控制信號（未標示） 及第二控制信號（未標示）。 其中，第一預設值219可大於第一預設值218，且當壓力值大 於第-預设值218及第二預設值219時，微處理器2()6輸出第一 控制4„號„壓力值大於第一預設值218但小於第二預設值別 時，微處理H 206輸出第二控制信號，當壓力值小於第一預設值 218及第二預設值219時，微處理器施輸出第三控制信號，但本 實施例並非用以限定本發明。 舉幻而σ田傳輸模組212將第一控制信號、第二控制信號 :或第三控__送至電腦時，電腦依_—㈣錢使得游標 、速度在帛彳向移動’其中’第—方向可為但不限於游標的 上方°或電驗據第二控制信號使得游標以慢速度往第一方向移 動。或電腦依據第三控制信號使得游標移動到特定的位置，但本 13 201211835 實施例並非用以限定本發明，可依據實際需求進行調整。 當才呆作者施予壓力強度於按壓處2022時，設置於按壓處2022 的壓力感測早元204用以接收按壓處2022所受的壓力。設置於按 壓處2022的壓力感測單元204根據按壓處2022所受的壓力強度 產生壓力信號217,微處理器206將壓力信號217分別與第三預設 值220及第四預設值2 21進行比較而輸出對應的控制信號2丨3，傳 輸模組212係將控制信號213傳送至與電腦輸入裝備5〇耦接的電 腦，以使得電腦可依據傳輸模組212所傳送的控制信號213進行 相對的運作。 微處理器206接收並轉換壓力信號217為對應的壓力值（未 標示）’並將壓力值分別與第三預設值22〇及第四預設值221進行 比較而羞生比較結果，微處理器2G6依據比較結果輸出相對的第 四控制信號（未標示）、第五控制信號（未標示）及第六控制信銳 (未標示）。其中，第四預設值221可大於第三預設值220,當壓 力值大於第三預設值22〇及第四預設值221時，微處理器2〇〔輪 出第四控制信號，當壓力值大於第三預設值220但小於第四預毁 值221時，微處理n 206輸出第五控制信號，當壓力值小於第^ 預設值220及第四預設值221時，微處理器2〇6輪出第六控制: 號’但本實施例並非用以限定本發明。 舉例而言，當傳輸模組犯將第四控制信號、第五控制錢 或第六控制信號傳送至電腦時，電腦依·四控制信號使得游襟 以快速度往第二方向移動，其巾，第二方向可為但靴於游標的 201211835 下方。或電腦依據第五控制信號使得游標以慢速度往第二方向移 動。電腦依據第六控制信號使得游標移動到特定的位置，但本= 施例並非用嫌定本發明，可域實際需求進行調整。 本發明所揭露之輸人裝置可藉由壓力感解元與微處理的設 置，使微處理ϋ可依據輸人件所受賴賴度的不_輸出不同 的控制信號。當輸人件為單—按鍵且微處理器包括二預設值時， 使微處理料賴作者辭輸人件_力Α小分成三眺，以輸 出相對應的控制信號，也就是說，每一輸入件具有三個使用功能。 當輸入件為雙向按鍵錢處理器包括四預設值時，使微處理器可 將操作者施倾人件的每-按壓處的壓力大小分成三階級，以輸 出相對應的控制信號，也就是說，每—輸人件具有六個使用功能。 因此’解決習知輸入件存在有使用功能有限的問題。 4參照「第7 ®」，係為依據本發明之筆型滑鼠—實施例的電 路方塊圖。筆型滑鼠3GG制以傳輸信號於接收裝置（未標示） 以控制游標（未標示），且筆型滑鼠3⑻具有滑鼠模式與數位筆模 式。筆型滑鼠300包括筆頭3〇3、壓力感測單元3〇5、微處理器3〇6、 切換模組307、電源供應器、位移執跡感應單元31〇及傳輸模 組312。在本實施财，_滑鼠期可為但秘於無線筆型滑 鼠’接收裝置可為但不限於具有無線接收器的電腦。 壓力感測單元305設置於筆頭3〇3,微處理器3〇6電性連接於 壓力感測單元3〇5、切換模組3〇7、位移軌跡感應單元31〇以及傳 輸換組312。電源供應器3〇8分別與壓力感測單元3〇5、微處理器 15 201211835 306、位移軌跡感應單元31G及傳輸模組犯連接，以供應電源於 坚力感測單元305、微處理器3〇6、位移執跡感應單元31〇及傳輸 核、.且312。切換板組3〇7與微處理器鳥输，用以切換筆型滑鼠 3〇〇於π故式或數位筆模式。位移執跡感應單元3 _用以偵測 筆型滑鼠_的位移執跡，傳輸模組312侧以無線傳輸的方式 將微處理器306所產生的信號傳送至與筆型滑鼠3_合的接收 裝置在本貫;^例中，微處理器3〇6可包括但不限於與第一預設 值320及第一預设值322,本實施例並非用以限林發明，可依據 實際需求進行調整。 虽筆型滑鼠3〇〇於滑鼠模式時，操作者藉由移動筆型滑鼠 300使得位移軌跡感應單元31〇偵測到筆型滑鼠3⑻的位移軌 跡，進而控制游標的移動。 當筆型滑鼠300於數位筆模式時，可透過壓力感測單元設置 於筆頭303，透過筆頭303所受壓力強度大小的改變，進而使接收 裝置進行相對的運作，詳細的描述如下。 當操作者施予磨力強度於筆頭3〇3時，麼力感測單元3〇5用 以接收筆頭303所受的虔力。壓力感測單元3〇5根據筆頭3〇3所 文的還力強度產生屋力信號317，微處理器3〇6將慶力信號爪 與第一預设值320及第二預設值322進行比較而輸出對應的控制 號318傳輸模312係將控制信號318 f專送至與筆型滑鼠3〇〇 相接的接收裝置，以使得接收裝置可依據傳輸模組312所傳"送的 控制信號318進行相對的運作。 201211835 其中，微處理器306接收並轉換壓力信號317為對應的壓力 值（未標示）’並將壓力值分別與第一預設值320及第二預設值322^Fig. 2A" is a circuit configuration of the first embodiment of the pressure sensing unit according to the present invention. The pressure sensing unit 1G4 may include an RC circuit 117, which may include a first variable resistor. When the operator applies pressure to the input member 1〇2, the first variable resistor 118 can change its resistance value ′ as the force of the input member 102 is greater than J to change the charging time required for the rainbow circuit m. For example, please refer to "2B" and "%", which are the results of the pressure intensity of the operator according to the "Phase 2A" and the output of the operator. It can be found from "2B" and "%" that i: the force sensing unit 1〇4 is large or small when the pressure applied by the operator to the input member (7) 2 is large, and the resistance value of the first variable resistor m is changed. Smaller or larger, which in turn makes the charging time required for the rc circuit ΐ7 larger or smaller. The pressure sensing unit 104 transmits the charging time curve (P [force L number II5) required by the RC circuit 117 to the microprocessor 1〇6, and the microprocessor (10) takes the charging time curve (ie, the pressure signal) required by the circuit 117. 115) converting into a pressure value (ie, charging time required by the RC circuit in) to compare with the first preset value (1) and the pre-valued value 114, thereby outputting the first control signal, the second control signal 201211835 or the The third control signal, but this embodiment is not intended to limit the present invention. For example, the RC circuit 117 may include a first variable capacitor 120 (as shown in "2D"), and "2D" is in accordance with the present invention. Referring to "1st diagram" and "2D diagram", the first variable capacitor 12A can change its capacitance according to the magnitude of the pressure intensity applied to the input member 102. The value, and thus the charging time required by the RC circuit 117, the microprocessor 106 compares the charging time required by the RC circuit 117 with the first preset value 113 and the second preset value 114, thereby outputting the first control signal, Second control signal or third control In addition to the circuit structure of the pressure sensing unit 104 described above, the pressure sensing unit 〇4 may further include a frequency generating circuit 122, and the frequency generating circuit 122 may include a variable inductor 124 (as shown in FIG. 3A). "Fig. 3A" is a schematic diagram of the second pass-through circuit structure of the pressure sensing unit IT according to the present invention. When the operator applies pressure to the input member 102, the variable inductance 124 can be input with the input. The strength of the device 1 〇 2 changes its power storage 'and changes the frequency generated by the fresh generation circuit 122. For example, 4 refers to the 3B map and the 3C map, respectively, according to the "3A map" The pressure sensing unit is a schematic diagram of the results of the pressure intensity output of the input member and the output of the operator. It can be found from "3B" and "3C" that when the pressure sensing unit author resigns (10) When the force intensity is large or small, the inductance value of the variable inductor 124 is variable or smaller, and the frequency generated by the frequency generating circuit 122 is increased or decreased. The pressure sensing unit 104 is The frequency curve generated by the frequency maternity generating circuit 122 (ie, The force signal 115) is transmitted to the microprocessor 106, and the microprocessor 1〇6 converts the fresh curve generated by the frequency generation 201211835 circuit 122 (ie, the pressure signal j!5) into a pressure value (ie, the frequency generation circuit 122 The generated frequency is compared with the first pre-value 113 and the second preset value 114 to output the first control signal, the second control signal or the second control signal, but the embodiment is not intended to limit the present invention. The present invention is a circuit structure diagram of a fourth embodiment of the force sensing unit according to the present invention. The frequency sensing unit 1〇4 may include a voltage circuit, and the voltage circuit m may include a second The resistance is 128, and the voltage circuit m is electrically connected to the analog digital converter 13 of the microprocessor. When the operator applies pressure to the input member Η) 2, the second variable resistor 128 can change its resistance value according to the magnitude of the force applied to the input member 1 〇 2, thereby changing the voltage output by the voltage circuit 126. For example, please refer to "4th Diagram" and "4C Diagram", which are the results of the pressure intensity of the input force applied to the operator by the Lili Sensing Unit according to Figure 4A, respectively. schematic diagram. From "4B" and "4C", it can be found that 'when the pressure sensing unit 104 applies the input member 1〇2 to the operator, the pressure is large or small, and the inductance of the second variable resistor 128 becomes smaller. Alternatively, the voltage output from the circuit 126 is increased or decreased. The pressure sensing unit 104 transmits the voltage curve outputted by the voltage circuit 126 (ie, the pressure city II5) to the microprocessor 1〇6, and the microprocessor touches the output of the voltage circuit I% (ie, the pressure signal 丨). After being processed by the ugly ratio converter (10), it is converted into a pressure value (ie, the voltage output by the power circuit 126) to be compared with the first preset value 113 and the second preset value 114, thereby outputting the first control signal, The second control signal scale control signal 'but this embodiment' is intended to limit the invention. The number of presets included in the 201211835 106 may be but not the second preset value 114). In this embodiment, the microprocessor is limited to two (ie, the first preset value m is adjusted according to actual needs). Please refer to "figure 5" and "figure 6", which are circuit blocks of another embodiment of the input device according to the present invention, and another embodiment of the input device according to the present invention is applied to a computer input device. The appearance structure diagram. The computer input equipment % is used to control the cursor (not marked). In this embodiment, the computer input equipment % is the mouse, but not limited to this. The computer input equipment 5〇 includes the input device fine The input device 200 includes an input member 2〇2, two pressure sensing units 2()4, a microprocessor 2〇6, a power supply 208, and a transmission module 212. In this embodiment, the input member 202 can be For example, but not limited to the two-way button, the two-way button has a pressing portion 20222, and the pressing portions 2021 and 2022 are respectively connected to each of the pressure sensing units 204. The microprocessor 206 is electrically connected to each of the pressure sensing units. 204, and electrically coupled to the transmission module 2 12. The power supply 2〇8 is electrically connected to each of the pressure sensing unit 2〇4, the microprocessor 206 and the transmission module 212. The transmission module 212 transmits the signal generated by the microprocessor 206 to A computer (not labeled) coupled to the computer input device 50. In this embodiment, the preset number of the presets included in the microprocessor 2〇6 may be, but not limited to, four (ie, the first preset value 218, the first The second preset value 219, the third preset value 220, and the fourth preset value 221) can be adjusted according to actual needs. When the operator applies the pressure intensity to the pressing portion 2021, the pressure connected to the pressing portion 2021 is connected. The sensing unit 204 is configured to receive the pressure received by the pressing portion 2021. After 12201211835, the pressure signal 215 is generated according to the pressure intensity received by the pressing portion 2021, and then the microprocessor 206 respectively sets the pressure signal 215 with the first preset. The value 218 and the second preset value 219 are compared to output a corresponding control signal 211. After the transmission module 212 receives the control signal 211, the transmission module 212 transmits the control signal 211 to the computer input device 50. Computer 'to make the computer transferable The control signal 211 transmitted by the module 212 performs relative operation. In this embodiment, the microprocessor 206 receives and converts the pressure signal 215 to the pressure value (not labeled) of Lu Ying and separates the pressure value with the first The preset value 218 and the second preset value 219 are compared to generate a comparison result, and the microprocessor 2〇6 outputs a relative first control signal (not labeled), a second control signal (not labeled), and a second according to the comparison result. a control signal (not shown), wherein the first preset value 219 can be greater than the first preset value 218, and when the pressure value is greater than the first preset value 218 and the second preset value 219, the microprocessor 2() 6 output first control 4 „ „ _ _ _ _ pressure value is greater than the first preset value 218 but less than the second preset value, the microprocessor H 206 outputs a second control signal, when the pressure value is less than the first preset value 218 and When the preset value is 219, the microprocessor outputs a third control signal, but this embodiment is not intended to limit the present invention. When the singular and sigma transmission module 212 sends the first control signal, the second control signal: or the third control __ to the computer, the computer moves the cursor and the speed in the direction of the 'the' - The direction may be, but is not limited to, the top of the cursor or the second control signal causes the cursor to move in a first direction at a slow speed. Or the computer moves the cursor to a specific position according to the third control signal, but the embodiment of the present invention is not intended to limit the present invention, and may be adjusted according to actual needs. When the author gives the pressure intensity to the pressing portion 2022, the pressure sensing early 204 provided at the pressing portion 2022 is used to receive the pressure applied to the pressing portion 2022. The pressure sensing unit 204 disposed at the pressing portion 2022 generates a pressure signal 217 according to the pressure intensity received by the pressing portion 2022, and the microprocessor 206 performs the pressure signal 217 with the third preset value 220 and the fourth preset value 2 21, respectively. Comparing and outputting the corresponding control signal 2丨3, the transmission module 212 transmits the control signal 213 to the computer coupled to the computer input device 5〇, so that the computer can perform relative to the control signal 213 transmitted by the transmission module 212. Operation. The microprocessor 206 receives and converts the pressure signal 217 to a corresponding pressure value (not labeled) and compares the pressure value with the third preset value 22〇 and the fourth preset value 221, respectively, to compare the result of the shyness, and the micro processing The device 2G6 outputs a relative fourth control signal (not labeled), a fifth control signal (not labeled), and a sixth control signal sharp (not labeled) according to the comparison result. The fourth preset value 221 may be greater than the third preset value 220. When the pressure value is greater than the third preset value 22〇 and the fourth preset value 221, the microprocessor 2 turns [the fourth control signal, When the pressure value is greater than the third preset value 220 but less than the fourth pre-destruction value 221, the microprocessor n 206 outputs a fifth control signal, when the pressure value is less than the second preset value 220 and the fourth preset value 221, The processor 2〇6 rotates the sixth control: No. 'But this embodiment is not intended to limit the invention. For example, when the transmission module commits the fourth control signal, the fifth control money or the sixth control signal to the computer, the computer controls the navigation to move in the second direction at a rapid speed, the towel, The second direction can be but the boots are below the 201211835 cursor. Or the computer moves the cursor to the second direction at a slow speed according to the fifth control signal. The computer moves the cursor to a specific position according to the sixth control signal, but this example is not intended to be used in the present invention, and can be adjusted according to actual needs of the domain. The input device disclosed in the present invention can be configured by the pressure sensing unit and the micro processing, so that the micro processing unit can output different control signals according to the dependence of the input unit. When the input member is a single button and the microprocessor includes two preset values, the micro processing material is divided into three parts by the author to diverge the force to output a corresponding control signal, that is, each input. The piece has three usage features. When the input member is a two-way button, the money processor includes four preset values, so that the microprocessor can divide the pressure of each pressing portion of the operator's tilting member into three classes to output a corresponding control signal, that is, Each of the input parts has six functions. Therefore, there is a problem that the conventional input member has a limited use function. Reference is made to "Stage 7", which is a circuit block diagram of a pen type mouse according to the present invention. The pen type mouse 3GG is used to transmit signals to the receiving device (not shown) to control the cursor (not shown), and the pen type mouse 3 (8) has a mouse mode and a digital pen mode. The pen type mouse 300 includes a pen tip 3〇3, a pressure sensing unit 3〇5, a microprocessor 3〇6, a switching module 307, a power supply, a displacement sensing unit 31〇, and a transmission module 312. In this implementation, the _mouse period may be but the secret wireless pen type mouse' receiving device may be, but is not limited to, a computer having a wireless receiver. The pressure sensing unit 305 is disposed on the pen tip 3〇3, and the microprocessor 3〇6 is electrically connected to the pressure sensing unit 3〇5, the switching module 3〇7, the displacement track sensing unit 31〇, and the transmission swap group 312. The power supply unit 〇8 is connected to the pressure sensing unit 〇5, the microprocessor 15 201211835 306, the displacement trajectory sensing unit 31G and the transmission module respectively to supply power to the force sensing unit 305 and the microprocessor 3 〇 6. Displacement sensing unit 31 传输 and transmission core, and 312. The switch board group 3〇7 and the microprocessor bird are used to switch the pen type mouse 3〇〇 in the π or digital pen mode. The displacement sensing unit 3 _ is used to detect the displacement of the pen type mouse _, and the transmission module 312 side transmits the signal generated by the microprocessor 306 to the pen type mouse 3_ in a wireless transmission manner. The receiving device is in the present embodiment; the microprocessor 3〇6 may include, but is not limited to, the first preset value 320 and the first preset value 322. This embodiment is not intended to limit the invention, and may be based on actual conditions. Demand adjustments. When the pen type mouse 3 is in the mouse mode, the operator causes the displacement track sensing unit 31 to detect the displacement track of the pen type mouse 3 (8) by moving the pen type mouse 300, thereby controlling the movement of the cursor. When the pen type mouse 300 is in the pen mode, it can be placed on the pen tip 303 through the pressure sensing unit, and the pressure intensity of the pen head 303 is changed, so that the receiving device performs relative operation, which is described in detail below. When the operator applies the grinding strength to the writing head 3〇3, the force sensing unit 3〇5 receives the force received by the writing head 303. The pressure sensing unit 3〇5 generates a house force signal 317 according to the strength of the force of the pen tip 3〇3, and the microprocessor 3〇6 performs the Qingli signal claw with the first preset value 320 and the second preset value 322. Comparing and outputting the corresponding control number 318, the transmission mode 312 transmits the control signal 318 f to the receiving device connected to the pen type mouse 3〇〇, so that the receiving device can transmit according to the transmission module 312. Control signal 318 operates in a relative manner. 201211835, wherein the microprocessor 306 receives and converts the pressure signal 317 to a corresponding pressure value (not labeled) and separates the pressure value with the first preset value 320 and the second preset value 322, respectively.
進行比較而產生比較結果，微處理器306依據比較結果輸出相對 的第一控制信號（未標示）、第二控制信號（未標示）及第三控制 仏號（未標示）。.其中’第二預設值322可大於第一預設值320， 當壓力值大於第一預設值320及第二預設值322時，微處理器3〇6 輸出第一控制信號，當壓力值大於第一預設值32〇但小於第二預 設值322時’微處理器306輸出第二控制信號，當壓力值小於第 -預设值320及第二預設值322時，微處理器3〇6輸出第三控制 信號，但本實施例並非用以限定本發明。 舉例而言’當筆型賴以無線方式將第—控制信號、第 二控制信號或第三控制㈣傳送至接收裝置時，接收裝置依據第 -控制信號使得游標（未標示）的移動軌跡變粗，接收裝置依據 第二控制信舰㈣標（未標示）_純_細，接收裝置依 據第三控制信號使得游標（未標示）選取目前所在的位置，但本 實施例並義錄定本發明’可依翁際絲進行調整。 在本實施例中，壓力感測單元3〇5的電路結構示意圖可鱼「第 則〆第洲」、「第3A圖」或「第4A^_，於㈣ 本發明所揭露之筆型物藉由壓力感測單元與微處理器的 設置’使職纽職著操翁辭筆_壓力大小 的控制錄，樣嫩域物__ 17 201211835 的運作，進而可使本發明所揭露之筆型滑鼠取代數位筆於數位板 上的操作功能，且不受數位板工作區域的限制。 雖然本發明以前述峨佳實施例揭露如上，然其並非用以限 定本發明’任何熟f相像技藝者，在不脫離本發明的精神和範圍 内田可作些許的更動及潤飾，因此本發明的專利保護範圍須視 本說明書觸的申料利範騎界定者為準。 【圖式簡單說明】 第1圖係為依據本發明之輸入裝置一實施例的電路方塊圖。 第2A圖係為依據本發明之壓力感測單元的第一實施例電路 結構不意圖0 第2B圖係為依據第2A圖的壓力感測單元於操作者施予輸入 件的壓力強度大時所輸^的結果示意圖。 第2C圖係為依據第2A圖的壓力感測單元於操作者施予輸入 件的壓力強度小時所輸出的結果示意圖。 第2D圖係為依據本發明之壓力感測單元的第二實施例電路 結構不意圖。 第 圖係為依據本發明之壓力感測單元的第三實施例電路 結構不意圖。 第犯圖係為依據帛3八圖的壓力感測單元於操作者施予輸入 件的壓力強度大時所輸出的結果示意圖。 第3C圖係為依據帛3A圖的麗力感測單元於操作者施予輸入 件的壓力強度切所輪出的結衫賴。 、 201211835 第4A圖係為依據本發明之壓力感測單元的第四實施例電路 結構示意圖。 第4B圖係為依據帛4A圖的壓力感測單元於操作者施予輸入 件的壓力強度大時所輸出的結果示意圖。 第4C圖係為依據第4A圖的壓力感測單元於操作者施予輸入 件的壓力強度小時所輸出的結果示意圖。 第5圖係為依據本發明之輸入裝置另一實施例的電路方塊圖。 第6圖係為依據本發明之輸入裝置另一實施例應用於電腦輸 入裝備的外觀結構示意圖。 第7圖係為依據本發明之筆型滑鼠一實施例的電路方塊圖。 【主要元件符號說明】 50 電腦輸入裝備 100、200 輸入裝置 102'202 輸入件 2021 ' 2022 按壓處 104、204、305 壓力感測單元 106、206、306 微處理器 108、208、308 電源供應器 111、211、213、318 控制信號 112、212、312 傳輸模組 113、218、320 第一預設值 114、219、322 第二預設值 19 201211835 115、215、217、317 117 118 120 122 124 126 128 130 220 221 300 303 307 310 壓力信號 RC電路 第一可變電阻 第一可變電容 頻率產生電路 可變電感 電壓電路 第二可變電阻 類比數位轉換器 第三預設值 第四預設值 筆型滑鼠 筆頭 切換模組 位移執跡感應單元Comparing to produce a comparison result, the microprocessor 306 outputs a relative first control signal (not labeled), a second control signal (not labeled), and a third control apostrophe (not labeled) based on the comparison result. Wherein the second preset value 322 can be greater than the first preset value 320, and when the pressure value is greater than the first preset value 320 and the second preset value 322, the microprocessor 3〇6 outputs the first control signal, when When the pressure value is greater than the first preset value 32 〇 but less than the second preset value 322, the microprocessor 306 outputs the second control signal. When the pressure value is less than the first preset value 320 and the second preset value 322, the micro The processor 3〇6 outputs a third control signal, but this embodiment is not intended to limit the present invention. For example, when the pen type transmits the first control signal, the second control signal or the third control (four) to the receiving device in a wireless manner, the receiving device makes the moving track of the cursor (not labeled) thick according to the first control signal. The receiving device is based on the second control letter (four) standard (not marked)_pure_fine, and the receiving device causes the cursor (not labeled) to select the current location according to the third control signal, but the present embodiment also defines the present invention as Adjusted according to Wengji. In the present embodiment, the schematic diagram of the circuit structure of the pressure sensing unit 〇5 can be used as a "pen 洲 洲", "3A" or "4A _ _, (4) By the setting of the pressure sensing unit and the microprocessor, the operation of the pressure-sensitive vocabulary, the control of the pressure, the operation of the sample __ 17 201211835, and the pen-type slip disclosed by the present invention The mouse replaces the operational function of the digital pen on the tablet and is not limited by the working area of the tablet. Although the present invention has been disclosed above in the foregoing preferred embodiments, it is not intended to limit the invention to any skilled artisan. The invention may be modified and retouched without departing from the spirit and scope of the present invention. Therefore, the scope of patent protection of the present invention shall be subject to the definition of the specification of the specification. BRIEF DESCRIPTION OF THE DRAWINGS FIG. 2A is a circuit diagram of a first embodiment of a pressure sensing unit according to the present invention. FIG. 2A is a pressure sense according to FIG. 2A. Measuring unit to operator Fig. 2C is a schematic diagram showing the result of outputting the pressure intensity of the pressure sensing unit according to Fig. 2A when the pressure is applied to the input member according to Fig. 2A. Fig. 2D is a diagram showing the result of the pressure intensity of the pressure sensing unit according to Fig. 2A. The circuit structure of the second embodiment of the pressure sensing unit according to the present invention is not intended. The first embodiment is a circuit configuration of the third embodiment of the pressure sensing unit according to the present invention. The pressure sensing unit of the figure is a schematic diagram of the result of the output when the pressure intensity of the input member is large. The 3C figure is the pressure intensity of the input force applied to the operator by the Lili sensing unit according to the 帛3A diagram. 4118A is a circuit structure diagram of a fourth embodiment of the pressure sensing unit according to the present invention. FIG. 4B is a pressure sensing unit according to FIG. The result of the output when the pressure intensity of the input member is large is shown in Fig. 4C as a result of the output of the pressure sensing unit according to Fig. 4A when the pressure intensity of the input member is given by the operator. 5 is a circuit block diagram of another embodiment of an input device according to the present invention. Fig. 6 is a schematic diagram showing the appearance of a computer input device according to another embodiment of the input device according to the present invention. Circuit block diagram of an embodiment of the pen type mouse of the present invention. [Description of main component symbols] 50 computer input equipment 100, 200 input device 102'202 input member 2021 ' 2022 pressing place 104, 204, 305 pressure sensing unit 106 , 206, 306 microprocessor 108, 208, 308 power supply 111, 211, 213, 318 control signal 112, 212, 312 transmission module 113, 218, 320 first preset value 114, 219, 322 second pre Set value 19 201211835 115, 215, 217, 317 117 118 120 122 124 126 128 130 220 221 300 303 307 310 pressure signal RC circuit first variable resistance first variable capacitance frequency generating circuit variable inductance voltage circuit second Variable resistance analog digital converter third preset value fourth preset value pen type mouse pen head switching module displacement tracking sensing unit