TWM283242U - Micro-type cursor control device - Google Patents

Micro-type cursor control device Download PDF

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Publication number
TWM283242U
TWM283242U TW94214440U TW94214440U TWM283242U TW M283242 U TWM283242 U TW M283242U TW 94214440 U TW94214440 U TW 94214440U TW 94214440 U TW94214440 U TW 94214440U TW M283242 U TWM283242 U TW M283242U
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Taiwan
Prior art keywords
light
item
patent application
cursor controller
micro
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TW94214440U
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Chinese (zh)
Inventor
Ju-Liang Jeng
Ji-Hua Wang
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Elite Advanced Laser Corp
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Priority to TW94214440U priority Critical patent/TWM283242U/en
Publication of TWM283242U publication Critical patent/TWM283242U/en

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Description

M283242 八、新型說明·· 【新型所屬之技術領域】 本創作係有關一種微型游標控制器,特別指一種 可以蒐集以及輸出所在位置與一被測物體間相對位 移資訊的微型游標控制器。 【先前技術】 個人隨身攜帶之電子產品日新月異,配置顯示銀 幕的機種也逐漸增多,但受到指令輸入方式的限制常 常需要用選單方式逐層選擇’並不像電腦一樣有滑鼠 可以在銀幕上自由移動游標遂行控制,因此使得操作 方式繁瑣’無法直接觸及較深層的功能,而不便使 用。隨著隨身電子裝置顯示銀幕的日益增大,尋求更 方便的游標控制裝置實屬必要。 目前個人隨身攜帶之電子產品的游標輸入方式, 主要是以方向按鍵’或是以手指或筆以觸控方式進 仃’其中以方向按鍵進行時’往往需要多次按壓才能 移到特定位置,至於以手指或筆在銀幕上按壓,不但 容易污染損壞銀幕,控制較不精確,阻礙部分視線而 且銀幕成本較1¾。 的人機介面 光學滑鼠是現今電腦使用上非常重要 M283242 工具’自從早先被發展出來到今天,市面上主要產品 的運作方式,基本上是利用一個發光二極體作為:: 源,經獨立的光學組件將光線導引到—待測平面,然 後利用一個影像感測器,高速地攝取該待測平面之影 像,並比較影像内容的相對位移,來獲取滑鼠移動的 相關訊息,並進而移動銀幕上的指標,來執行控制的M283242 VIII. New type description [Technical field to which the new type belongs] This creation relates to a miniature cursor controller, especially a miniature cursor controller that can collect and output the relative displacement information between the location and a measured object. [Previous technology] The electronic products that individuals carry are changing with each passing day, and the number of models equipped with display screens is gradually increasing. However, due to the limitation of command input methods, it is often necessary to use the menu method to select layer by layer. 'Like a computer, there is no mouse to be free on the screen The mobile cursor is controlled, so it is cumbersome to operate. It is impossible to use direct access and deeper functions. With the increasing display screen of portable electronic devices, it is necessary to find more convenient cursor control devices. At present, the cursor input method of personal electronic products is mainly using the directional buttons or touch with a finger or a pen. Among them, when the directional buttons are used, it often requires multiple presses to move to a specific position. Pressing with your finger or pen on the screen will not only easily pollute and damage the screen, less precise control, obstructing part of the line of sight, and the cost of the screen will be 1¾. The human-machine interface optical mouse is very important in computer use today. Since the development of the M283242 tool, it has basically used a light-emitting diode as a source since :: The optical component guides the light to the plane to be measured, and then uses an image sensor to capture the image of the plane to be measured at high speed, and compares the relative displacement of the image content to obtain relevant information about the movement of the mouse, and then move On-screen indicators to exercise control

功能。另外也有雷射光學滑鼠,其係以單獨設置的面 射型半導體雷射彳令糸 作為先源,經獨立的光學鏡頭照射到 待測平面,並以一影像感測器高速地攝取待測平面之 影像,並比較影像内容的相對位移,來獲取滑鼠移動 的相關訊息’進而移動銀幕上的指標來遂行控制的功 能,而使用雷射作為光源的優點是利用雷射光的高度 平行及單-波長的特性,可以獲得較清晰的影像,因 此可以大幅提昇影像内容相對位移的精確性,進而提 升滑鼠的控制準確度。 而目别的發光二極體滑鼠有一些是將發光二極體 與影像感測元件分別封裝,或是在某些產品上,是將 發光二極體與影像感測晶片封裝在同一封裝體内。另 外,雷射光學滑鼠則是將雷射晶片與影像感測晶片分 別封裝’而且所使用的早 疋波長850奈米的面射型雷 M283242 射疋屬於不可見光範圍,不但成本較邊射型雷射 冋而且照射入人眼時無法察覺,因此有潛在的安全 顧慮另外匕們都要使用一組外加的光學鏡頭;其中 一部份將光源指向特定區域,另一部分導引反射回的 光、、泉,經聚焦後在影像感測晶片上形成清晰的影像, 以便加以辨識處理。Features. In addition, there is also a laser optical mouse, which uses a separately set surface-emitting semiconductor laser command as a source, irradiates the plane to be measured through an independent optical lens, and uses an image sensor to capture the test to be measured at a high speed. Plane images and compare the relative displacements of the image content to get the relevant information of the mouse movement, and then move the indicators on the screen to perform the control function. The advantage of using laser as the light source is to use the high parallel and single -The characteristic of the wavelength can obtain a clearer image, so the accuracy of the relative displacement of the image content can be greatly improved, thereby improving the control accuracy of the mouse. Some of the light-emitting diode mice are packaged separately from the light-emitting diode and the image sensing element, or on some products, the light-emitting diode and the image sensing chip are packaged in the same package. Inside. In addition, the laser optical mouse encapsulates the laser chip and the image sensing chip separately, and the surface-emission type laser M283242 with an early-beam wavelength of 850 nanometers belongs to the invisible light range, which is not only more expensive than the edge-emission type. Lasers are irritated and undetectable when irradiated into the human eye, so there is a potential safety concern. In addition, daggers must use an additional set of optical lenses; one part points the light source at a specific area, and the other guides the reflected light. , Quan, after focusing, a clear image is formed on the image sensing chip for identification and processing.

直接配置光學滑鼠到個人隨身電子裝置上,固然 可以保有滑鼠大部分的優點,但受限於體積過大以及 而要一個工作平面來量測相對位移,而顯得不夠實 際,因此將光學滑鼠的光學引擎微型化,並與個人隨 身電子裝置整合,並能很方便的使用應該具有極高的 實用價值。 目則習知的光學滑鼠7之光學引擎所偵測的待測 平面,皆與光學引f 71有一空間距離,並透過一具 有孔徑之隔板72維持此—距離,如第四圖所示,此 具有空腔結構的梦罢 rp . 、,用在)月机時因為孔徑永遠向 下,與桌面接觸,異物及污染較不易入侵,因此可以 使用,若要將此種光學引擎的她向上安褒到隨身 攜帶的電子設備時’開放式㈣測孔徑就就容易被灰 塵侵入’而且不易保持與待測物的距離,因而不便使 M283242 用0 口此要將緊貼it光鏡窗另—側之被測物體的反 射光冤集、回射至感測器作運算,並將感測器封裝使 用的形式最佳化、封裝體積的縮小、降低成本及如何 比較谷易應用,則是本創作所要解決課題。 【新型内容】 依據上述,本創作之主要目的在於,提供一種以 發光晶片作為㈣,影像感測晶片為接收器,光源射 出人回傳共用一透光鏡窗,以偵測緊鄰透光鏡窗另一 側物體壓在透光鏡窗上所形成之影像移動的資訊,而 且具有封裝製程簡化、封裝體積縮小及降低成本之微 型游標控制器。 為達上述之目的,本創作之微型游標控制器係包 括封牧體、一發光晶片、一影像感測晶片、一光柵、 —極納(Zener)二極體及選擇性設置的運算晶片組 成’其中該封裝體係具有一基座,於基座上面設一結 構封蓋,於封蓋選定處設置導光裝置及透光鏡窗;該 發光晶片係結合於基座上,照明光線被導引至鏡窗的 偵测面後,照射在緊鄰透光鏡窗另一側物體壓在透光 鏡窗上所形成之影像,一影像感測晶片用以感應光線 M283242 反射所產生的圖形’當此圖形被偵謂到有水平位移 犄,即可提供相對位移之輸出信號。 更進—部可藉由影像感測晶片與發光晶片設於相 鄰之處所形成的最短光程, 尤狂 j以獲侍較強的反射信 號,整個結椹的古# π m, ^ 構^度刊此而降低,射出光線與回傳 仏息共用同-鏡窗亦使結構簡潔經濟。而本創作用於 蒐木被測物體貧訊的微型位移感測器所形成的單一 封裝結構’亦能達到製程簡化、封裝體積縮小及降低 成本專效果。 【實施方式】 有關本創作為達上述目的、特徵所採用的技術手 &及其功效’兹例舉一較佳實施例並配合以下圖式說 明如下: 參閱第 圖,本創作 之微型位移感測器之一 較佳實施例係包括-封裝體1、-發光…、一影 像感測晶片3、一選擇性設置的運算晶片4、一光栅5 及一極納(Zener )二極體β。 上述所提之封裝體!,係為一基座u及一甲空狀 封蓋12所組成的單―封裝構件,㈣基座η可為印 刷電路板或導線架等,於選定處設有可與其他功能性Directly placing an optical mouse on a personal portable electronic device, although it can retain most of the advantages of the mouse, but it is not practical because it is too large and requires a working plane to measure the relative displacement. Therefore, the optical mouse is not practical. The optical engine is miniaturized and integrated with personal portable electronic devices, and can be used very conveniently. It should have extremely high practical value. The measured planes detected by the optical engine of the conventional optical mouse 7 have a spatial distance from the optical guide f 71, and this distance is maintained through a diaphragm 72 with an aperture, as shown in the fourth figure This dream with a cavity structure is used.), When the lunar plane is always down, contact with the desktop, foreign objects and pollution are less likely to invade, so it can be used, if you want to turn this optical engine up When installing the electronic device with you, “the open aperture is easy to be penetrated by dust” and it is not easy to maintain the distance from the object to be measured. Therefore, it is inconvenient for the M283242 to use the 0 port. The reflected light from the object under test is collected and reflected back to the sensor for calculation, and the sensor package is optimized for use, the packaging volume is reduced, the cost is reduced, and how to compare it with Gu Yi is the basis for this. Creative issues need to be solved. [New content] Based on the above, the main purpose of this creation is to provide a light-emitting chip as a maggot and an image-sensing chip as a receiver. Information on the movement of the image formed by the object on the other side pressed against the light-transmitting mirror window, and a miniature cursor controller with a simplified packaging process, reduced packaging volume and reduced cost. In order to achieve the above purpose, the miniature vernier controller of this creation is composed of a herd, a light-emitting chip, an image-sensing chip, a grating, a Zener diode, and an optional computing chip. The packaging system has a base, and a structural cover is provided on the base. A light guide device and a light-transmitting mirror window are provided at the selected position of the cover. The light-emitting chip is combined on the base, and the illumination light is guided to the base. After the detection surface of the mirror window, an image formed by irradiating an object adjacent to the other side of the transparent mirror window and pressing on the transparent mirror window, an image sensing chip is used to sense the pattern generated by the reflection of light M283242. When detected, there is a horizontal displacement 犄, which can provide an output signal of relative displacement. Advancement-the shortest optical path formed by the image sensor chip and the light emitting chip located adjacent to each other, especially in order to obtain a strong reflection signal, the entire structure of the ancient # π m, ^ structure ^ The degree is reduced, and the same light-mirror window that the emitted light and the return information share also makes the structure simple and economical. And the single package structure formed by the miniature displacement sensor used to search for the poor sound of the measured object in this creation can also achieve the special effects of simplified process, reduced packaging volume and reduced cost. [Embodiment] The technical hand & used in this creation to achieve the above-mentioned purpose and characteristics and its effects are exemplified by a preferred embodiment and explained with the following diagrams: See the figure, the micro displacement feeling of this creation A preferred embodiment of the measuring device includes-a package body 1-emitting light, ... an image sensing chip 3, a selectively arranged computing chip 4, a grating 5 and a Zener diode β. The package mentioned above! It is a single-package component composed of a base u and a hollow cover 12. The base η may be a printed circuit board or a lead frame, etc., and it can be provided with other functionalities at selected locations.

M283242 電路板等設備作電性連接的一對外導接部丨丨1,於基 座11上設置一封蓋12,該封蓋12可為一組合成—體 的中空狀透光體,於底部構成-腔室121,以封罩住 基座11上面,於腔室121頂部構成一導光結構ι22, 使腔室121内部光源經由導光結構122導引穿出透光 鏡窗123的偵測面124,投射於緊鄰透光鏡窗另一側 被測物體50壓在透光鏡窗上所形成之影像,經反射 回傳再穿過透光鏡窗123進人腔室,經成像透鏡125 及光柵5投射到影像感測晶片3之上。其中,該美座 11之對外導接部11丨可為金屬導線或導接端子等構 成0 該發光晶片2可以是發光二極體也可以是雷射二 極體,可為一個或多個與具有折光功能之副置體結合 後組合於該封裝體1之基座丨丨上面呈電性連接,並 被封蓋12的腔室121罩設密封,其發光端(面)對 應地位於具有折光功能之導光結構122的入射端,經 偏折後的光線被導引到透光鏡窗123的偵測面124並 射到緊貼此面的被測物50再偵測面丨24上所形成之 圖像。 該影像感測晶 3係一種用以接收 感測影像的 10 M283242 晶片(Image Sensor Chip ),係依據上述透光鏡窗^ 23 接受反射光線所投射的位置結合於封裝體1之基座 11上面呈電性連接,並被封蓋12的腔室1 21罩設密 封’影像感測晶片3上方的適當位置裝設有一成像鏡 頭1 25以將入射光線成像,其後並設有一光栅5,其 上開設有適當的孔徑而僅容許信號光束通過以避免 雜訊進入。 如上所述’該發光晶片2及影像感測晶片3並不 一定要設在該基座11同一平面或光平面上,且該發 光晶片2及影像感測晶片3的接地平面在電(性)緣上 亦可為相接或絕緣,端視使用需求可變更實施。另 者’亦可選擇性地於該基座11上設置一個或多個所 述運异晶片4,用以接收由影像感測晶片3上所讀取 的資訊信號作運算,俾作進一步的應用,藉此組成本 創作之微型位移感測器。 當本創作於實施時,係由發光晶片2發出所需之 探測光源,使該光源投射至具有折射導引光線功能之 導光結構122上,經導光結構122之折射後,其光源 則照射至透光鏡窗123的偵測面124,而此探測光源 奴射於緊鄰偵測面1 2 4之被測物體5 〇再偵測面1 2 4 πM283242 An external conducting part for the electrical connection of circuit boards and other equipment. A cover 12 is provided on the base 11, and the cover 12 can be a group of hollow hollow light-transmitting bodies at the bottom. Composition-the chamber 121 covers the upper surface of the base 11 and forms a light guide structure ι22 on the top of the chamber 121, so that the internal light source of the chamber 121 is guided through the light guide structure 122 through the detection of the light-transmitting mirror window 123 Surface 124, an image formed by pressing the object 50 on the other side of the transparent mirror window pressed against the transparent mirror window, reflected and transmitted back through the transparent mirror window 123 into the human cavity, and through the imaging lens 125 And the grating 5 is projected onto the image sensing chip 3. Among them, the outer lead 11 of the US seat 11 can be composed of metal wires or lead terminals, etc. The light emitting chip 2 can be a light emitting diode or a laser diode, and can be one or more The auxiliary body with a refractive function is combined and combined with the base of the package body 1 and is electrically connected on the base 1 and sealed by the cavity 121 of the cover 12, and the light emitting end (face) thereof is correspondingly located with the refractive power. The incident end of the light guide structure 122 of the function, the deflected light is guided to the detection surface 124 of the transparent mirror window 123 and is incident on the measured object 50 next to this surface and then detected on the surface 24. The resulting image. The image sensing crystal 3 is a 10 M283242 chip (Image Sensor Chip) for receiving sensing images, which is combined with the position of the projection of the reflected light received on the base 11 of the package 1 according to the above-mentioned transparent mirror window ^ 23 The chamber 1 21 which is electrically connected and is covered by a cover 12 is sealed with a sealed 'image sensing wafer 3'. An imaging lens 1 25 is installed at an appropriate position to image the incident light, and a grating 5 is provided behind it. The upper opening is provided with an appropriate aperture to allow only the signal beam to pass to avoid noise from entering. As described above, 'the light-emitting chip 2 and the image-sensing chip 3 are not necessarily disposed on the same plane or light plane of the base 11, and the ground planes of the light-emitting chip 2 and the image-sensing chip 3 are electrically The edge can also be connected or insulated, and the implementation can be changed depending on the use requirements. Alternatively, one or more of the different transport chips 4 may be selectively arranged on the base 11 to receive information signals read by the image sensing chip 3 for calculation, and further applications To form the miniature displacement sensor of this creation. When this creation is implemented, the required detection light source is emitted by the light-emitting chip 2 so that the light source is projected onto the light guide structure 122 having the function of refracting and guiding the light. After being refracted by the light guide structure 122, its light source is illuminated To the detection surface 124 of the light-transmitting mirror window 123, and this detection light source strikes the measured object 5 next to the detection surface 1 2 4 and then the detection surface 1 2 4 π

M283242 上所形成之圖像後,部份將再反射回到透光鏡窗 123’且穿過該透光鏡窗123將含有被測物體5〇表面 型態資訊的反射光投射於影像感測晶片3,而光程中 經過成像鏡頭125成像以及光柵5阻擋雜訊後即能由 影像感測晶片3讀取該資訊,為微型化以'節省空間, 因此,應將影像感測晶片3與可見發光晶片2設置在 實施時可行的最短距離,以利於製造及解析所獲得之 資訊,此最短距離應介於2至20厘米之間以縮減封 i後之體積。另一貫施例是使用其他形式的折光結 構,如第三圖所示,但仍以將光源投射到偵測面124 並擷取緊6品偵測面12 4另一侧被測物5 〇圖像之同— 目的。 另外,也可經由光學設計使透光鏡窗123,與成像 鏡頭125、结合成一體,以簡化結構,或是在某些應用, 僅以針孔成像原理,即可獲致部分的效能,亦是本創 作『微型游標控制器』的運用之一。 而由於有一些結構的發光晶片2對靜電的耐受程 度車乂差口此可加裝一顆極納(Zener)二極體6在 發光晶片附近’並與發光晶Μ 2的極性呈反相連結, 以Λ放正、,且構件在使用時可能產生的靜電電荷,以避 12 M283242 免發光晶片損壞。 由於本結構之被測物50需緊貼透光鏡窗123之偵 測面124,為防止使用一段時間之後造成㈣面124 刮傷或磨_,因此,可視需要在其上粘附,或結合一 、田而可更替之薄膜(圖中未示),藉以保護偵測面 124之完整。 ……"乍『微型游標控制器』的發光晶片2及 影像感測晶片3及透明鏡窗123等,係應用一封裝體 構裝而為單—元件,故可簡化其封裝製程,在應用時 D省各外加之光學鏡頭,因此可以將整組結構的高 度縮小到5厘米以下,特 、j在現$電子產品精巧化設 計趨勢下,係能達成縮小封裝體積效果’擴大這種結 構的應用範圍’確實符合產業需求。 /宗合以上所述,本創作『微型游標控制器』,破能 I曰由上述構造,達到 !預期之功效’且申請前未見於刊 物亦未公開使帛,符合新 , 寻和之新頭、進步及符合 產業利用性等要件,爰依 杜也 U利之。而以上所述 僅為本創作之實施例而已, Μ 凡依本創作之精神所作之 間易修飾及等效變化 範圍内。 盡於以下之申請專利 M283242 【圖式簡單說明】 第一圖係本創作微型游標控制器之一較佳實施例封 裝後之斷面立體圖。 第二圖為該較佳實施例之封裝後斷面示意圖。 第三圖為另一實施例之封裝後斷面示意圖。 第四圖為習知之光學滑鼠斷面示意圖。 【主要元件符號說明】 1 封裝體 3 影像感測晶片 11 基座 4 運算晶片 111 對外導接部 5 光柵 12 封蓋 50 被測物體 121 腔室 6 極納二極體 122 導光裝置 7 光學滑鼠 123 透光鏡窗 71 光學引擎 124 偵測面 72 隔板 2 發光晶片 125 成像透鏡 14After the image formed on M283242, part will be reflected back to the transparent mirror window 123 ', and the reflected light containing the surface shape information of the measured object will be projected on the image sensor through the transparent mirror window 123 Chip 3, and the information can be read by the image sensor chip 3 after the imaging of the imaging lens 125 and the grating 5 block noise in the optical path, for miniaturization to save space, therefore, the image sensor chip 3 and It can be seen that the light-emitting chip 2 is provided with the shortest distance that is feasible during implementation to facilitate manufacturing and analysis of the obtained information. The shortest distance should be between 2 and 20 cm to reduce the volume after sealing i. Another embodiment is to use other forms of refractive structure, as shown in the third figure, but still use the light source to project on the detection surface 124 and capture the 6th detection surface 12 4 on the other side of the test object 5 〇 It's the same-purpose. In addition, the transparent lens window 123 can also be integrated with the imaging lens 125 through optical design to simplify the structure, or in some applications, only the principle of pinhole imaging can be used to achieve partial efficiency. One of the applications of this creation "Miniature Cursor Controller". Because of the structure's resistance to static electricity, the light-emitting chip 2 has some structures. A Zener diode 6 can be installed near the light-emitting chip, and its polarity is opposite to that of the light-emitting crystal M 2. The connection is to be positively placed, and the component may generate electrostatic charges during use to avoid 12 M283242 damage to the light-emitting chip. Since the measured object 50 of this structure needs to be close to the detection surface 124 of the light-transmitting mirror window 123, in order to prevent the surface 124 from being scratched or worn after using for a period of time, it can be adhered or combined as needed. First, Tian Erke replaces the film (not shown) to protect the integrity of the detection surface 124. …… " The light-emitting chip 2 and image sensing chip 3 and transparent mirror window 123 of the "mini-cursor controller" are all packaged as a single component, so the packaging process can be simplified. With the addition of optical lenses in province D, the height of the entire group of structures can be reduced to less than 5 cm. Under the trend of sophisticated design of current electronic products, J and J can achieve the effect of reducing the packaging volume. The scope of application 'does meet the needs of the industry. / Zonghe mentioned above, this creation "Miniature Cursor Controller", broken energy I said from the above structure, to achieve the "expected effect" and has not been seen in the publication before the application nor disclosed, in line with the new head of the new, search for harmony , Progress, and compliance with the industrial availability, etc., Yi Du Du also benefited. The above description is only an example of this creation, and M is within the scope of easy modification and equivalent changes in accordance with the spirit of this creation. The following applies for the patent application M283242 [Brief description of the diagram] The first diagram is a cross-sectional perspective view of one of the preferred embodiments of the miniature cursor controller of this creation after being packaged. The second figure is a schematic cross-sectional view after packaging of the preferred embodiment. The third figure is a schematic cross-sectional view after packaging according to another embodiment. The fourth figure is a schematic cross-sectional view of a conventional optical mouse. [Description of main component symbols] 1 Package 3 Image sensing chip 11 Base 4 Computing chip 111 External guide 5 Grating 12 Cover 50 Object to be measured 121 Cavity 6 Polarity diode 122 Light guide 7 Optical slip Mouse 123 Transparent mirror window 71 Optical engine 124 Detection surface 72 Partition plate 2 Light emitting chip 125 Imaging lens 14

Claims (1)

M283242 九、申請專利範圍·· 1· 一種微型游標控制器,包括: 一封裝體,係具有一基座及一部分矸透光之中空狀封蓋,且該封芸 係封罩於基座上藉以構成一腔室,並於該腔室頂部具有一導光裝置及一 透光鏡窗; 一發光晶片,係與上述基座電性連接並密封於封蓋中,且該發光晶 片之發光端對應於該導光裝置之光入射面,並可供將光導向透光鏡窗; 一影像感測晶片,係與上述基座電性連接並密封於封蓋中,可供接 收該發光晶片投射到緊鄰透光窗外側物體之反射光源; 一成像透鏡,係設置於上述影像感測晶片上方之適當處,且該成像 透鏡與影像感測晶片之間並設有一光柵。 2·如申請專利範圍第丨項所述之微型游標控制器,其中發光晶片可為發光 二極體或雷射二極體。 3.如申請專利範圍第!項所述之微型游標控制器,其中導光褒置係可與封 盍結合,可供將發光晶片所發射出之照射光投射至透光鏡窗。 4·如申請專概圍第丨項所述之微型游標控湘,其巾導光裝置係可另設 衣封1上,可供將發光晶片所發射出之照射光投射至透光鏡窗。 5·如申請專利範_丨項所述之微型游標控制器,其中該透光鏡窗可以具 有擴散光束與聚合光束的功能。 6. 如申請專利範圍第i項所述之微型游標控制器,其中該透光鏡窗與成像 鏡頭係可經由光學設計結合成一體。 7, 如申請專利範,項所述之微型游標控制器,其中該發編之中心M283242 9. Scope of patent application 1. A miniature cursor controller, including: a package body with a base and a part of a transparent hollow cover, and the seal is a cover on the base A cavity is formed, and a light guiding device and a light-transmitting mirror window are provided on the top of the cavity; a light-emitting chip is electrically connected to the base and sealed in a cover, and the light-emitting end of the light-emitting chip corresponds to At the light incident surface of the light guide device, and can be used to guide light to the transparent mirror window; an image sensing chip, which is electrically connected to the base and sealed in a cover, and can be used to receive the light emitting chip to project to A reflective light source close to the object on the outside of the light transmission window; an imaging lens is arranged at an appropriate place above the image sensing chip, and a grating is arranged between the imaging lens and the image sensing chip. 2. The micro-cursor controller according to item 丨 of the patent application scope, wherein the light emitting chip can be a light emitting diode or a laser diode. 3. If the scope of patent application is the first! The miniature cursor controller described in the above item, wherein the light guide arrangement can be combined with the enclosure, and can be used to project the irradiation light emitted by the light-emitting chip to the transparent mirror window. 4. According to the application of the micro-controller Xiangxiang described in item 丨, the light guide device of the towel can be additionally provided on the clothes cover 1 for projecting the irradiated light emitted by the light-emitting chip to the transparent mirror window. 5. The micro-cursor controller described in the patent application, wherein the light-transmitting mirror window can have the functions of diffusing light beams and converging light beams. 6. The miniature cursor controller as described in item i of the patent application scope, wherein the light-transmitting mirror window and the imaging lens can be integrated into one through optical design. 7, such as the patent application, the miniature cursor controller described in the item, wherein the center of the development 15 M283242 與該影像感測晶片之中心二者最佳距離係介於2公厘至20公厘之間。 8.如申請專利範圍第1項所述之微型游標控制器,其中該透光鏡窗外側係 結合可更替之薄膜。 9·如申請專利範圍第1項所述之微型游標控制器,其中該導光裝置矸由外 部周圍環境導入光線做為光源。 10.如申凊專利範圍第1項所述之微型游標控制器,其更包括有一鄰近設置 在該發光晶片處之極納二極體,並與該發光晶片的極性反相連結,以洩 放整組構件在使用時可能產生的靜電電荷。15 The optimal distance between M283242 and the center of the image sensing chip is between 2 mm and 20 mm. 8. The micro-cursor controller according to item 1 of the scope of patent application, wherein the translucent mirror window is combined with a replaceable film on the outside. 9. The micro-cursor controller according to item 1 of the scope of patent application, wherein the light guide device 导入 introduces light from the external environment as a light source. 10. The micro-cursor controller according to item 1 of the patent claim, further comprising a pole-nano diode disposed adjacent to the light-emitting chip, and connected in anti-phase with the polarity of the light-emitting chip to discharge. The electrostatic charge that the entire set of components may generate during use.
TW94214440U 2005-08-23 2005-08-23 Micro-type cursor control device TWM283242U (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI394070B (en) * 2009-07-22 2013-04-21 Arima Lasers Corp Optical device

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI394070B (en) * 2009-07-22 2013-04-21 Arima Lasers Corp Optical device

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