TWM322576U - Optical multifunctional image-detecting structure - Google Patents

Optical multifunctional image-detecting structure Download PDF

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Publication number
TWM322576U
TWM322576U TW96205329U TW96205329U TWM322576U TW M322576 U TWM322576 U TW M322576U TW 96205329 U TW96205329 U TW 96205329U TW 96205329 U TW96205329 U TW 96205329U TW M322576 U TWM322576 U TW M322576U
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Taiwan
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optical
image
beam splitter
trackball
hole
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TW96205329U
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Chinese (zh)
Inventor
Shu-Fen Liu
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Pacing Technology Co Ltd
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Priority to TW96205329U priority Critical patent/TWM322576U/en
Publication of TWM322576U publication Critical patent/TWM322576U/en

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M322576 八、新型說明: f新型所屬之技術領域】 本創作係有關於一種光學多用途影像偵測結構,尤其 係指一種擷取軌跡、球之移動距離及方向,以計算一位移'數 據之光學多用途影像偵測結構。 夕 【先如技術】 口呆上1氧聿記型電腦,其可藉由滑鼠或軌跡球另 ,來操控顯示器上的游標移位之用。以滑鼠之使用面j 說,使用者常用的是光學滑鼠,如第一圖所示,係一 光學滑鼠之剖視圖,其可在—平面上移動,内部的發光月 =81士會將發光源投射至—導光板82之第―反射面石 三1%'即會將此光源反射至第二反射面δ 2 2上 :==8 2 2之反射,光源會穿過底殼δ、之開口 t旦丄透:介面形成之接觸面84,其可與影像軸f 宜’衫像軸F之影像經—鏡片8 5聚焦使 《M322576 VIII, new description: f new technology field] This creation is about an optical multi-purpose image detection structure, especially refers to a trajectory, the distance and direction of the ball to calculate a displacement 'data optics Multi-purpose image detection structure. Evening [Technology] The stunned 1 Oxygen Recording Computer can be used to manipulate the cursor shift on the display by means of a mouse or a trackball. According to the use surface of the mouse, the user usually uses an optical mouse. As shown in the first figure, it is a sectional view of an optical mouse, which can be moved on a plane, and the internal illumination month = 81 will The light source is projected onto the first reflecting surface of the light guide plate 82 by 1%, which reflects the light source to the second reflecting surface δ 2 2 :== 8 2 2 reflection, the light source passes through the bottom shell δ, The opening is transparent: the contact surface 84 formed by the interface, which can be focused with the image of the image axis f

上之2 Γ 光源所投射物件影像軸F 移動距離】:二 準確地計算出光學滑鼠之 動距離及方向,進而控制顯示器上的游標。 ,由上述’光學滑鼠之擷取影像 之先軸D與絲影像之光城 而^又射先源 F上相交於一點p,才能使得影像:面8 到影像轴F的‘影.像訊號。 & °°86正破地擷取 面8 料,惟,光學滑鼠之❹是會受限於接觸 上該接觸面84係為—”介質材料(如 )上以會吸收/擾亂光線之材質 ( M322576 SI其/不/㈣靖料為例,將使得接㈣ 和像軸F不重豐,當投射光入射至 # = 率二射光源之光軸D會和其下方之 無法在影像轴fLU先= = 影像 面84卜你田冰又進而以成先學滑鼠不能在此接觸 能# ,光學滑鼠是受限於接觸面84之 it難=ί法產生作用之虞’因此,使得光學滑鼠於使 用上難免也有不便之處。 ^ 般、㈣跡球裝置而言,其可提供裝置如鍵 =機相插接’再利用使用者之手指轉動執跡=由 tr動方位及距離,進而同步控制顯示器上的游標 位置〇 習知之執跡球裝置大致係為光學式,如公告於西元2 [年0 3月〇 1日之中華民國新型專利,證書號數: ,58357,申請案號:〇93207816,即揭 路出一種「光學執跡球結構」,請參閱第三圖所示,其提 供設置於輸人裝置之殼體9 i内,進而由殼體9丄表面至 底面依序地揭露出一座體9 2、一執跡球9 3、一透光板 9 4、一光學座9 5、一電路板9 6、一發光元件9 7、 光罩9 8及一辨識元件9 9等之構件。其中,光學座9 5亦揭露出-鏡片9 5 1、-反射部9 5 2及-導光鏡9 5 3 〇 , ' 當發光兀件9 7所產生之光源,其可投向該光學座9 5之導光鏡9 5 3後,再經由反射部9 5 2反射後係呈斜 向地投射至執跡球9 3之底部球面處(將會具有一投射角 M322576 θ ),而辨識元件9 9係可透過鏡片9 5丄,從而偵測到 軌跡球9 3被投射到光源之部份所移動之距離及方向,當 軌跡球9 3被轉動時,即可令辨識元件9 9偵測到軌跡球 9 3之移-動距離及方向,進而計算出一位移數據,而將位 移數據傳至一主機上,使得主機可藉由位移數據而加以控 制主機相連接之顯示器上之游標。 " 實際上,發光元件97之光源,其經由反射部952 反射後投射至執跡球9 3之底部球面處,將在其球面上產 生一影像擷取區931,請配合參閱第三a圖之(A)、 (C)所示,辨識元件9 9乃係透過鏡片9 51以擷取影 像齡區9 3 1上光源所投射之影像,而辨識元件9 9於 擷取影像之先決條件,是光源必須均勻投射至執跡球9 3 之球即影像擷取區9 31上的光源要均勻化),從而辨 識兀件9 9才能取得完整之影像,供比對並判斷軌跡球9 動距離及方向,以計算出—完整之位移數據,才能 準喊地控制顯示器上之游標。 =當發光元件9 7光源聚集而成一光束[ ,跡^3之球面’將產生―投光區们2,如第三績 塑下)二?)、( C)所示,但卻受斜向之投射角Θ的影 ς:使侍投光區932無法均勻地與影像擷取區93ι =,使侍影像擷取區9 3丄產生出陰 C)、⑻所示,令吻^ 向,以古ΓΛ ’供比對並判斷軌跡球9 3.之移動距離及方 °异一完整之位移數據。《其中,第三Α圖之(D ) 局〔c)之D部份的放大圖》 特別值得一提的是,請參閱第三B圖之(A )、( B ) 7 M322576 所示,尤其當投射角0之角度值越大時,進而令陰影區9 , 3 3之範圍也將相對地變大,如第三B圖之(C )所示, ’ 陰影區9 3 3於影像擷取區9 3 1之範圍中已相對地變/ 擴大,更是無法擷取到更完整之位移數據;因此,該結構 之整體設計態樣明顯係無法獲得完整之位移數據,使得操 作上有不盡理想之弊端存在。 • 緣是本創作人有感上述缺失之可改善,乃特潛心研 - 究並配合學理之運用,終於提出一種設計合理且有效改善 上述缺失之本創作。 > 【新型内容】 本創作之目的,係提供一種光學多用途影像偵測結 構,其可達到完全均勻化之擷取影像,令一影像感測器可 取得完整之影像,供比對並判斷執跡球之移動距離及方 向,以計算出一完整之位移.數據。 為達上述之目的,本創作提供一種光學多用途影像偵 測結構,其包括:一殼體,其具有一容置空間,及一與該 容置空間連通的通孔;一軌跡球,係可轉動的定位於該殼 > 體之容置空間中,且該軌跡球之部份球面突伸於該殼體 外,及另外之部份球面係對應至該通孔;一光學座,係位 於該通孔一側,且該光學座係設有一斜向的分光鏡,及一 位於該分光鏡一側的透鏡元件,該分光鏡係以斜向地面對 該通孔之位置;一電路板,係位於該光學座一側;一光發 .射元件,係與該電路板電性地連結,.該光發射元件所產生 投射光源之光轴係面對該光學座之分光鏡,經該分光鏡一 次或一次以上反/透射投射光源之光軸至該執跡球之部份 球面,該執跡球之球面影像再反射至該分光鏡,擷取影像 "M322576 ' ' 之光軸係舆經該分光鏡投射光源之光軸重疊;以及一 ’,,係與該電路板電性地連結,且係面對該透:元 件’經该分光鏡投射擷取影像之光轴至該透鏡元件,供談 =擷取經該透鏡元件作用之影像,以擷取賴測: 跡球所移動之距離及方向,進而計算出—位移數據。 . 作具有之效益··光發射元件所產生投射光源之光 入、可經由分光鏡一次或一次以上反/透射而直接投射 ==之球面上(即影像操取區),從而使得光源可達 =勾地投射於此影像擷取區,且由於投射光源之光輛並 影像之光源係重叠在一起’之後再投射至分光鏡, f f投射至透鏡70件,從而可達到完全均勾化之操取影 ,々影像感測n取得完整mb對並判斷軌跡球 之移動距離及方向,以計算出—完整之位移數據。 為使此更進一步瞭解本創作之特徵及技術内容,請表 閱以下有關本創作之詳細說明與附圖’然僅^ 供參考與說_,並非絲對賴作加以限制/。式料 【實施方式】 凊參閱第四圖至第六圖所示,本創作係提供一種光 ^用途影像侧結構,其包括有—殼體丄Q、_軌跡球2 、-光學座3Ό、-f路板4 Q、-光發射元件5 〇及 一影像感測器6 0。 其中’該殼體1〇主要之作用係用以容置軌跡球2 〇 所使用,而該殼體i 〇係可具有一外殼工工、一承座工2 固定蓋1 3。外殼i ]_由上而下地開設有一容置空間 1 1,及側緣面開設有二相對的孔洞i i 2。承座工2 央處開設有一通孔121,及内部中係裝設有數個可轉 M322576 動地滚珠1 2 2,且承座1,2設有數個缺口 1 2 3以供每 ' 一滾珠1 2 2之部份珠面係顯露於承座1 2外。固定蓋工 3中係開設有一透孔1 3 1。 邊光學座3 0係設有一斜向設置的分光鏡3 1,及— 由分光鏡3 1—側以一體水平式設置的透鏡元件3 2。其 中’分光鏡3 1係具有相對的一外面3 1 1及一内面3 1 • 2,透鏡元件3 2係由内面3 1 2以一體延伸而成(如第 •四圖)。2 Γ Light source project image axis F moving distance】: 2 Accurately calculate the moving distance and direction of the optical mouse, and then control the cursor on the display. From the above-mentioned 'optical mouse', the first axis D of the image and the light image of the silk image and the first source F intersect at a point p, in order to make the image: face 8 to the image axis F's shadow image signal . & ° ° 86 is breaking the ground to pick up the surface material 8, but the optical mouse is limited by the contact surface 84 is -" dielectric material (such as) on the material that will absorb / disturb the light (M322576 SI its / not / (four) Jing material as an example, will make the connection (four) and the image axis F is not heavy, when the projected light is incident on the # = rate, the optical axis D of the two-shot source will be below it and cannot be in the image axis fLU First = = image surface 84, you Tian Bing and then to learn the mouse can not contact energy #, optical mouse is limited by the contact surface 84 it is difficult = ί method to produce a role It is inevitable that the mouse will be inconvenient in use. ^ Generally, (4) in the case of a ball device, it can provide a device such as a key = machine phase plugging 'reuse the user's finger to turn the track = direction and distance from the tr, In turn, the position of the cursor on the display is synchronously controlled. The conventional ball device is generally optical, such as the announcement in the second year [New Year's Republic of China, the Republic of China, the new patent, certificate number: 58,357, application number :〇93207816, which reveals an "optical obstruction ball structure", please refer to the third figure. Provided in the housing 9 i of the input device, and sequentially exposing the body 9 from the surface to the bottom surface of the housing 9 , a remnant ball 9 3 , a transparent plate 9 4 , an optical seat 9 5. A circuit board 916, a light-emitting element 197, a reticle 9 8 and an identification component 919, etc., wherein the optical housing 915 also exposes a lens 915, a reflection portion 925 and - Light guide 9 5 3 〇, 'When the light source generated by the light-emitting element 9 7 is directed to the light guide 9 5 3 of the optical mount 95, it is reflected by the reflection portion 915 Projected to the ground at the bottom of the trackball 9 3 (will have a projection angle M322576 θ ), and the identification element 9 9 can pass through the lens 9 5 , thereby detecting that the trackball 9 3 is projected onto the light source The distance and direction of the part of the movement, when the trackball 9 3 is rotated, the identification component 9 9 can detect the movement-movement distance and direction of the trackball 9 3, thereby calculating a displacement data, and shifting The data is transmitted to a host, so that the host can control the cursor on the display connected to the host by shifting the data. " Actually, the light-emitting element 97 The light source, which is reflected by the reflecting portion 952 and projected onto the bottom spherical surface of the observing ball 913, will generate an image capturing area 931 on the spherical surface thereof. Please refer to (A) and (C) of the third figure. It is shown that the identification component 9 is transmitted through the lens 9 51 to capture the image projected by the light source in the image age area 913, and the identification component 9 is a prerequisite for capturing the image, and the light source must be uniformly projected onto the trajectory ball. The ball of 9 3 is the light source on the image capturing area 9 31 to be uniformized, so that the identification piece 9 9 can be used to obtain a complete image for comparison and judging the moving distance and direction of the track ball 9 to calculate - complete The displacement data can be used to control the cursor on the display. = When the light-emitting elements 9 7 light source are combined to form a light beam [ , the spherical surface of the trace ^ 3 will produce "light-emitting area 2", as in the third performance)? ), (C), but subject to the oblique projection angle ς: the servant area 932 can not be evenly combined with the image capture area 93 ι =, so that the image capture area 9 3 丄 produces a yin C), (8), let the kiss ^ direction, with the ancient ΓΛ 'for comparison and judge the trackball 9 3. The moving distance and the square ° different complete displacement data. "In the third picture, the enlarged view of part D of the (D) Bureau [c)" is particularly worth mentioning. Please refer to (A), (B) 7 M322576 in Figure 3B, especially When the angle value of the projection angle 0 is larger, the range of the shadow regions 9 and 3 3 will be relatively larger, as shown in (C) of the third B diagram, 'the shadow region 9 3 3 is captured by the image. The range of zone 9 3 1 has been relatively changed/expanded, and it is impossible to obtain more complete displacement data; therefore, the overall design aspect of the structure is obviously unable to obtain complete displacement data, which makes the operation inexhaustible. The shortcomings of ideals exist. • The reason is that the creator feels that the above-mentioned deficiencies can be improved. He is devoted to research and research, and finally proposes a creation that is reasonable in design and effective in improving the above-mentioned deficiencies. > [New Content] The purpose of this creation is to provide an optical multi-purpose image detection structure that can achieve a completely uniform captured image, so that an image sensor can obtain a complete image for comparison and judgment. The moving distance and direction of the ball are tracked to calculate a complete displacement. Data. For the purpose of the above, the present invention provides an optical multi-purpose image detecting structure, comprising: a housing having an accommodating space and a through hole communicating with the accommodating space; and a track ball The rotating position is located in the accommodating space of the shell body, and a part of the spherical surface of the track ball protrudes outside the casing, and another part of the spherical surface corresponds to the through hole; an optical seat is located at the a side of the through hole, and the optical base is provided with an oblique beam splitter, and a lens element on a side of the beam splitter, the beam splitter is located obliquely to the position of the through hole; a circuit board, The light-emitting element is electrically connected to the circuit board, and the optical axis of the projection light source generated by the light-emitting element faces the beam splitter of the optical seat, and the beam splitting Mirroring one or more times of the optical axis of the inverse/transmissive projection source to a part of the spherical surface of the trajectory ball, and the spherical image of the trajectory ball is reflected to the beam splitter to capture the optical axis system of the image "M322576 ' The optical axes of the projection light source are overlapped by the beam splitter; and a ' Electrically coupled to the circuit board, and facing the transparent component: the optical axis of the captured image is projected through the beam splitter to the lens component for reading and capturing the image of the lens component. Dependent measurement: The distance and direction in which the ball moves, and then calculate the displacement data. The benefit of the light source of the projection light source generated by the light-emitting element can be directly projected on the spherical surface of the == (ie, the image manipulation area) via the beam splitter once or more, and the light source can be reached. = hooked to the image capture area, and because the light source of the projected light source and the light source of the image are overlapped together, and then projected onto the beam splitter, ff is projected onto the lens 70, so that the complete uniform operation can be achieved. Taking the image, the image sensing n obtains the complete mb pair and judges the moving distance and direction of the trackball to calculate the complete displacement data. In order to further understand the characteristics and technical content of this creation, please refer to the following detailed description and drawings regarding this creation. However, it is only for reference and explanation. [Embodiment] 凊 Referring to the fourth to sixth figures, the present invention provides a light-using image side structure, which includes a casing 丄Q, a trajectory ball 2, an optical seat 3Ό, The f-plate 4 Q, the light-emitting element 5 and an image sensor 60. The main function of the housing 1 is for accommodating the trackball 2 ,, and the housing i can have a housing worker and a seat 2 fixing cover 13 . The housing i]_ has an accommodation space 1 1 from top to bottom and two opposite holes i i 2 on the side edge surface. There is a through hole 121 at the central office of the contractor 2, and a plurality of convertible M322576 moving balls 1 2 2 are installed in the inner center, and the sockets 1, 2 are provided with a plurality of notches 1 2 3 for each 'one ball 1 Part of the 2nd part of the bead is exposed to the seat 1 2 . The fixed cover 3 has a through hole 1 3 1 in the middle. The edge optical block 30 is provided with an obliquely disposed beam splitter 3 1 and a lens element 32 which is integrally horizontally disposed by the beam splitter 31 - side. The 'splitter mirror 3 1 has a pair of outer faces 31 1 and an inner face 3 1 • 2, and the lens elements 32 are integrally extended by the inner face 3 1 2 (as shown in Fig. 4).

該電路板40係開設有一開口4 1,該光發射元件5 2係電性連結地設置於該電路板4 〇 一端上,該影像感測 器6 0係電性連接地與該光發射元件5 〇相對的設置於 該電路板4 0另一端,且令影像感測器6 0之部份可通過 或位於電路板4〇之開口41。 ' 組裝時,光學座3 0係組設於影像感測器6 〇上方 處,以位於電路板4 〇上侧,令影像感測器6 〇面對透顧The circuit board 40 is provided with an opening 4 1 . The light emitting element 52 is electrically connected to one end of the circuit board 4 . The image sensor 60 is electrically connected to the light emitting element. 5 〇 is oppositely disposed at the other end of the circuit board 40, and a portion of the image sensor 60 can pass through or be located in the opening 41 of the circuit board 4. ' When assembled, the optical base 30 is set above the image sensor 6 , to be located on the upper side of the circuit board 4 ,, so that the image sensor 6 〇 faces

直之方向套設於於光學座3 0外,使得光學座3 〇位於 f空間111中。同時’令光發射元件5◦之前端可部伤 孔洞11 2中’從而面對光學座3 Q之分光鏡3 。之後,將承座工2組設於外殼η之容置空間U 的位置處’並且使得通孔 ,著^再將執跡球2 0組設於外殼η之容置空 上1 令軌跡球2 〇之部份球面與每—滾珠丄2 2之珠 相接觸,進而使得㈣球2()可轉動地定位於該殼體工 M322576 -可突伸於通孔121外,或係位於通孔121中,$而= 面對分光鏡3 1,且令分光鏡3工之外面3工工係 地面對通孔1 2 1,而选鏡元件3 2将☆私、土 ’、 =方向’進而使,執跡球20、分光鏡3工、透鏡元件 3 2及影像感測态6 0係以沿同一方向之設置 …式)。最後,將固定蓋i 3與外殼工工相互地結合, •跡球20通過透孔丄3χ,進而將上端之部份球面 豉體1 0之固定蓋1 3外。 、 , 其中,上述之結構係可作不同之變化,其變於. ,座12係可與外殼η以一體成型之方式,將承座ΐ2· 一體結合於外殼1 ]_之容置空間丄丄丄中; 〇也係可與外殼11以-體成型之方式,將光學座H 體結合於外殼1 1之容置空間工工χ中。然而,,為了 上之便利性,當外殼1 1與承座1 2係以-體成型時、,^ 學座3 0則係以組裝之方式為較佳,反之,外殼工工盘光 ,座3◦-體成型時,承座!2則係以組裝之方式較佳, 藉以利於組裝上之便利性。 一請麥閱第六圖所示’並請配合參閱第六人圖,當光發 射π件5 0所產生投射光源之光軸〇,其可面對及射向分 光鏡3 1,經由分光鏡3工之使用特性下,其可將入射之 光源-部份反射,及-部份透射之光學物件,使得部份透 射的投射光源之光轴D 1以穿過另一孔洞ια 2而出,尽 將部份反射的投射光源之光軸DM向通孔丄2工而投 射至軌跡球2 0之部份球面上(即影像擷取區21,如第 六Αϋ),軌跡球2 0之球面影像再反射至分光鏡3工外 面3 1 1,而擷取影像之光㈣係與經分光鏡3工投射光 11 M322576 源之光軸D 2重疊。 再經由分光鏡31之作用下,使得部份反射的擷取影 像之光軸R1可投射至光發射元件5 〇,部份透射的擷取 影像之光軸R 2可投射'至透鏡元件3 2,以供影像感測器 6 0擷取經透鏡元件3 2作用之影像。當軌跡球2 〇轉動 時,即可使得影像感測器6 〇擷取偵測到執跡球2 〇之移 動距離及方向,進而計算出一位移數據。 • ά上述之說明,光發射元件5 0所產生投射光源之光 軸D,其可經由分光鏡3丄一次或一次以上反射而直接以 接近垂直之方向,將反射投射光源之光軸D 2至執跡球2 0之影像擷取區2 1 .,從雨使得光源(束)可達到均句地投 射於此影像擷取區2 1(即光束之投射區和影像擷取區完 全重疊),且由於投射光源之光軸D 2並與棘影像之光 源R係重疊在一起,.之後再投射至分光鏡3丄,進而再投 射至透鏡元件3 2,從而可達到完全均句化之擷取影像, 令影像感測器6 〇取得完整之影像,供比對並判斷執跡球 2 0之移動距離及方向,以計算出一完整之位移數據。 另外’請參閱第七圖所示(並請配合參閱第六八圖), 依據分,鏡3 1之使用特性下,進而使得本創作之結構位 置設置是可作不同之變化,與前述之不同在於:該外嗖1 1係沿著與電路板4〇相互平行之方向置設於電路板4 0上,令光學座3 ◦通過—孔洞i 1 2以位於容置空間1 1 1,光發射元件.5 〇直接伸入至容置空間丄丄丄中,分 光鏡3 1也係以斜向面對通孔工2工之位置,而分光鏡】 1之内面3 1 2係斜向地面對通孔1 2 1及執跡球2 〇,外面3 1 !則面對光發射元件5〇,使得透鏡元件3 12 M322576 ’進而使得軌跡球2 以沿同一方向之設置 2係位於朝接近執跡球2 〇之方向 0、分光鏡3 1及光發射元件5 〇係 (水平式)。 當光發射τε件5 〇投射光源之光轴D,而射向分光鏡 3 1經其❹特性下’使得部份透射的投射光源之光轴β 1朝向通孔1 2 1而投射至執跡球2 〇之部份球面上,及 使得部份反射的投射光源之光軸D 2反射朝向孔洞1工 2而出,軌跡球2 0之球面影像再反射至分光鏡3丄之内 面3 1 2,而擷取影像之光㈣係與經分光鏡3丨透射之 光源D 1重疊。 再經由分光鏡3丄之作用下,使得部份反射的掏取影 ^象之光軸R i投射至透鏡元件3 2,以供影像感測器6 〇 擷取經透鏡凡件3 2作用之影像,及部份透射的操取影像 之光軸R 2可投射至光發射元件5 〇。當執跡球2 〇轉動 時,即可使得影像感測器6 0擷取偵測到軌跡球2 〇之 動距離及方向,進而計算出一完整之位移數據。.夕 光所產生投射光源之 直接 _,區 2 技射於此影像擷取區2 !,且由於投射光源之光抽Μ並 ^取^之光源R係重疊在—起,,之後再 3 1 ’進而再投射至透鏡元件3 2,從而可達到二3 化之擷取影像’令影像感测器6 〇取得之二 到上述相同之效果。 〜像以達 使得本創作係可提 藉由上述之說明,如第八圖所示 13 M322576 供應用於一卓卜刑φ β i電恥之鍵盤7 〇 a的外殼體7 1a中, 使侍執跡球2〇係以朝 士 肀 .機(圖略)電性連,士,蕤么用方式’且同日寸可與電腦主 用於任的游標。當然’本創作也是可應 F v/衣置中,例如:筆記型電腦或手持式通訊 ,太=制顯示器上的游標。另外,特別值得一提的 所述及之殼體1 Q的設計,其當然是可作不同 之、交化’如將鍵盤7 0 a之外μ μ 7 1 从主二 内凹-笠夕之外欣脰7 la的表面以直接向 署访Γ 式以形成一内凹的容置空間(圖略),可直接 =f”20於其中,並將軌跡球20作適當之固: =將上述之構件(如轉板、紐射元件、絲座和^ 以相同之組設方式置設於外殼體7 la内部, 也係可達到相同之效用。 一上5參閱第九圖所示,本創作也係可提供應用於 =7 0 b之外殼體7丄b中,使得執跡球2 〇係以朝 心ίΐ 且同時經由滑鼠7 Q b與電腦主機(圖略) 結’猎由上述之位移數據得以控制和電腦主機相 示器t的游標。然而’在使用時,執跡球2 〇係 ^面上移動’如在桌面、鏡面或破璃表面上,而藉 ^執跡球2G係與接觸面接觸,而内部之光發射元件(圖 略)的光源係投射於軌跡球2 〇之球面,而並非以直接之 方式投射於接觸面上’即利用軌跡球2〇作為間接物和接 觸面接觸’使得光發射元件的光源不受限於接觸面之離 樣’以避免如習知所述之光學滑鼠於使用面上有不足之 處。 惟以上所述僅為本創作之較佳可行實施例,非因此即 M322576 所=作之專利㈣’故舉凡運用本創作說明書及圖式 内效結構變化’均同理皆包含於本創作之範圍 【圖式簡單說明】 /、 第一圖為習知光學滑鼠之剖視圖。 等二圖為習知光學滑鼠之另-剖視圖。 第二圖為習知光學軌跡球結構之剖視圖。 圖為nx部份的絲投射之示意圖。 f—B-為弟三圖之χ部份的光源投射之另一示意圖。 弟四圖為本創作之立體分解圖。 第五圖為本創作之立體組合圖。 第/、圖為本創作之剖視圖。 第/、Α圖為第六圖之a部份詳圖。 第七圖為本創作之另一實施例之剖視圖。 =八圖為本創作應用於鍵盤中之立體示意圖。 第九圖為本創作應用於滑鼠中之立體示意圖。 【主要元件符號說明】 [習知]The straight direction is sleeved outside the optical base 30 such that the optical mount 3 is located in the f-space 111. At the same time, the front end of the light-emitting element 5 可 can be damaged in the hole 11 2 to face the beam splitter 3 of the optical holder 3 Q. After that, the group of the contractor 2 is set at the position of the housing space U of the outer casing η and the through hole is formed, and then the group of the standing ball 20 is placed on the housing η. The partial spherical surface of the crucible is in contact with each of the beads of the ball 丄 22, so that the (four) ball 2 () is rotatably positioned on the housing M322576 - can protrude outside the through hole 121 or be located in the through hole 121 In the middle, $ and = face the beam splitter 3 1, and let the beam splitter 3 work outside the surface of the 3 work, the mirror element 3 2 will be ☆ private, soil ', = direction' The tampering ball 20, the beam splitter 3, the lens element 3 2, and the image sensing state 60 are arranged in the same direction. Finally, the fixed cover i 3 and the outer casing are combined with each other, and the ball 20 passes through the through hole χ3χ, and then the upper end of the partial spherical body 10 is fixed outside the cover 13 . Wherein, the above-mentioned structure can be changed differently, and it can be changed to. The seat 12 can be integrally formed with the outer casing η to integrally integrate the socket 2· into the housing space of the outer casing 1]. In the middle of the housing, the optical housing H body can be coupled to the housing 11 in the housing space of the housing 11. However, for the sake of convenience, when the outer casing 11 and the socket 12 are formed in a body, the seat 30 is preferably assembled, and the outer casing is light. 3◦-body molding, the seat! 2 is better in assembly, so as to facilitate assembly convenience. Please refer to the figure in the sixth figure, and please refer to the figure of the sixth person. When the light emits π, the optical axis of the projection light source generated by the 50 is 50, which can face and shoot toward the beam splitter 3 1, via the beam splitter. Under the use characteristic of the work, the incident light source can be partially reflected, and the partially transmitted optical object is such that the optical axis D 1 of the partially transmitted projection light source passes through the other hole ια 2 . The optical axis DM of the partially reflected projection light source is projected onto the partial spherical surface of the trackball 20 (ie, the image capturing area 21, such as the sixth frame), and the spherical surface of the trackball 20 The image is then reflected back to the outer surface of the beam splitter 3 1 1 , and the light captured by the image (4) overlaps with the optical axis D 2 of the source of the splitter 3 projection light 11 M322576. Then, the optical axis R1 of the partially reflected captured image can be projected to the light emitting element 5 by the action of the beam splitter 31, and the optical axis R 2 of the partially transmitted captured image can be projected 'to the lens element 3 2 For the image sensor 60 to capture the image that is applied through the lens element 32. When the trackball 2 〇 rotates, the image sensor 6 can detect the moving distance and direction of the trajectory 2 ,, and then calculate a displacement data. • In the above description, the optical axis D of the projection light source generated by the light-emitting element 50 can be reflected by the beam splitter 3 once or more directly in the direction perpendicular to the vertical direction, and the optical axis D 2 of the projection light source is reflected to The image capturing area of the ball 20 is captured. The rain source causes the light source (beam) to be uniformly projected onto the image capturing area 2 1 (ie, the projection area of the light beam and the image capturing area completely overlap). And because the optical axis D 2 of the projection light source is overlapped with the light source R of the spine image, and then projected to the beam splitter 3丄, and then projected to the lens element 32, so that the full uniformization can be achieved. The image causes the image sensor 6 to obtain a complete image for comparison and to determine the moving distance and direction of the trailing ball 20 to calculate a complete displacement data. In addition, please refer to the seventh figure (and please refer to the sixty-eighth figure). According to the usage characteristics of the mirror 3, the structure position setting of the creation can be changed differently, which is different from the above. The outer raft 11 is disposed on the circuit board 40 in a direction parallel to the circuit board 4 ,, so that the optical pedestal 3 ◦ passes through the hole i 1 2 to be located in the accommodating space 1 1 1. The component .5 〇 directly protrudes into the accommodating space ,, and the beam splitter 3 1 also faces the through hole in the oblique direction, and the inner surface of the beam splitter 1 1 2 is inclined to the ground For the through hole 1 2 1 and the obstructing ball 2 〇, the outer 3 1 ! is facing the light emitting element 5 〇, so that the lens element 3 12 M322576 'and thus the trackball 2 is arranged in the same direction 2 is located close to the The direction of the track 2 0 0, the beam splitter 3 1 and the light-emitting element 5 are horizontal (horizontal). When the light emission τ ε 5 〇 projects the optical axis D of the light source, and the illuminating mirror 3 1 passes through its ❹ characteristic, the optical axis β 1 of the partially transmitted projection light source is projected toward the through hole 1 2 1 and is projected to the sculpt. The spherical surface of the ball 2 , and the optical axis D 2 of the partially reflected projection light source are reflected toward the hole 1 , and the spherical image of the track ball 20 is reflected back to the inner surface of the beam splitter 3 3 3 1 2 The light (4) of the image is superimposed on the light source D 1 transmitted through the beam splitter 3丨. And then, through the action of the beam splitter 3, the optical axis R i of the partially reflected image is projected onto the lens element 3 2 for the image sensor 6 to capture the image through the lens element 3 2 . And a partially transmissive optical axis R 2 of the acquired image can be projected onto the light emitting element 5 〇. When the tracking ball 2 turns, the image sensor 60 can capture the moving distance and direction of the trackball 2 ,, and then calculate a complete displacement data. The direct light generated by the evening light is generated by the _, the area 2 is shot in the image capturing area 2!, and the light source R of the projected light source is twitched and the light source R is overlapped, and then 3 1 'Further re-projecting to the lens element 32, so that the captured image can be achieved, so that the image sensor 6 can achieve the same effect as described above. ~ Like to make this creation department can be explained by the above description, as shown in the eighth figure, 13 M322576 is supplied for the outer casing 7 1a of a keyboard 7 〇a The ruling ball 2 is based on the priest. The machine (figure) is electrically connected, the singer, the singer, and the same day can be used with the computer master. Of course, this creation can also be used in F v / clothing, such as: notebook or handheld communication, too = on the display of the cursor. In addition, it is particularly worth mentioning that the design of the housing 1 Q described above can be made differently, such as the intersection of the keyboard 7 0 a μ μ 7 1 from the main two concave - 笠夕之The surface of the outer 脰7 la is directly visited to form a concave accommodating space (figure omitted), which can directly =f"20 and the trackball 20 is properly solidified: The components (such as the transfer plate, the splicing element, the wire holder and the ^ are disposed in the outer casing 7 la in the same manner, can also achieve the same effect. One of the above 5, see the ninth figure, the creation It can also be applied to the housing 7丄b outside the =7 0 b, so that the trajectory 2 is tied to the heart and at the same time via the mouse 7 Q b and the computer host (not shown) The displacement data is controlled and the cursor of the computer host is displayed. However, 'When in use, the ball 2 is moved on the surface, as on the desktop, mirror or glass surface, and the 2G system is used. In contact with the contact surface, the light source of the internal light-emitting element (not shown) is projected onto the spherical surface of the trackball 2, not in a direct manner Projected on the contact surface 'i.e., using the trackball 2 〇 as the indirect object and the contact surface contact 'to make the light source of the light-emitting element unrestricted from the contact surface' to avoid the optical mouse in the use surface as conventionally described There are deficiencies in the above. However, the above description is only a preferred and feasible embodiment of the present creation, and therefore, the patent (4) of the M322576 = "the use of this creation specification and the internal structure of the schema" is the same. Included in the scope of this creation [Simple description of the drawing] /, the first picture is a cross-sectional view of a conventional optical mouse. The second picture is another cross-sectional view of a conventional optical mouse. The second picture is a conventional optical track ball structure. The cross-sectional view is a schematic view of the silk projection of the nx part. f-B- is another schematic diagram of the light source projection of the part of the third figure of the younger brother. The fourth picture of the brother is the exploded view of the creation. The three-dimensional combination diagram of the creation. The / / diagram is a cross-sectional view of the creation. The / / diagram is a partial detail of the sixth diagram of the sixth diagram. The seventh diagram is a cross-sectional view of another embodiment of the creation. This creation is applied to a three-dimensional schematic diagram in a keyboard. This picture shows a perspective schematic view of creation is applied in the mouse. The main element REFERENCE NUMERALS [conventional]

發光元件 8 1 第一反射面 821 底殼 8 3 鐃片,85 影像軸 F 導光板 8 2 第二反射面 82 接觸面 8 4 影像感測器 86Light-emitting element 8 1 First reflective surface 821 Bottom case 8 3 铙, 85 Image axis F Light guide 8 2 Second reflective surface 82 Contact surface 8 4 Image sensor 86

投射光源之光軸 d 擷取影像之光軸 R 15 座體 9 2 影像擷取區 93 陰影區 933 光學座9 5 反射部 95.2 電路板 96 光罩 9 8 M322576 •殼體 9 1 / 軌跡球 9 3 投光區 932 透光板9 4 鏡片 9 5 1 導光鏡 953 發光元件 97 辨識元件 9 9 投射角、Θ 光束 L [本創作] 殼體 10 .外殼 1 1 容置空間 1 孔洞 1 1 2 承座 1 2 通孔 1 2 1 滾珠 1 2 2 缺口 1 2 3 固定蓋 13 透孔 1 3 1 執跡球 2 0 影像擷取區 21 光學座 3 0 分光鏡 3 1 外面 3 1 1 内面 3 12 透鏡元件 32 電路板 4 0 開口 4 1 16 M322576 光發射元件 50 影像感測器 6 0 投射光源之光轴 D * 擷取影像之光軸 R 鍵盤 7 0a 外殼體 71a 滑鼠 7 0b 外殼體 7 1bThe optical axis of the projected light source d The optical axis of the captured image R 15 Seat 9 2 Image capturing area 93 Shadow area 933 Optical seat 9 5 Reflecting part 95.2 Circuit board 96 Photomask 9 8 M322576 • Housing 9 1 / Trackball 9 3 Projection area 932 Transmitted plate 9 4 Lens 9 5 1 Light guide 953 Light-emitting element 97 Identification element 9 9 Projection angle, 光束 Beam L [This creation] Housing 10. Housing 1 1 accommodating space 1 Hole 1 1 2 Seat 1 2 Through Hole 1 2 1 Ball 1 2 2 Notch 1 2 3 Fixed Cover 13 Through Hole 1 3 1 Track Ball 2 0 Image Capture Area 21 Optical Block 3 0 Beamsplitter 3 1 Outside 3 1 1 Inside 3 12 Lens Element 32 Circuit Board 4 0 Opening 4 1 16 M322576 Light Emitting Element 50 Image Sensor 6 0 Optical axis of the projected light source D * Optical axis of the captured image R Keyboard 7 0a Outer casing 71a Mouse 7 0b Outer casing 7 1b

Claims (1)

• M322576 ^ 7 九、申請專利範圍: 1、一種光學多用途影像偵測結構,其包括.· 一殼體,其具有一容置空間,及一與該容置空間連通 _ 的通孔; 一軌跡球,係可轉動的定位於該殼體之容置空間中, 且該軌跡球之部份球面突伸於該殼體外,及另外之部份球 面係對應至該通孔; 一光學座’係位於該通孔一侧,且該光學座係設有一 I 斜向的分光鏡,及一位於該分光鏡一侧的透鏡元件,該分 光鏡係以斜向地面對該通孔之位置; 一電路板,係位於該光學座一侧; 一光發射元件,係與該電路板電性地連結,該光發射 元件所產生投射光源之光軸係面對該光學座之分光鏡,經 該分光鏡一次或一次以上反/透射投射光源之光軸至該軌 跡球之部份球面,該執跡球之球面影像再反射至該分光 鏡,而擷取影像之光軸係與經該分光鏡投射光源之光轴重 Φ 疊;以及 一影像感測器,係與該電路板電性地連結,且係面對 該透鏡元件,經該分光鏡投射擷取影像之光軸至該透鏡元 _ 件,供該影像感測器擷取經該透鏡元件作用之影像,以擷 取偵測該軌跡球所移動之距離及方向,進而計算出一位移 數據。 2、如申請專利範圍第1項所述之光學多用途影像偵 測結構,其中該殼體係具有: 一外殼,其形成所述之容置空間’該光學座係位於該 外殼中; 18 M322576 中 ^座,其形成所述之通孔,且該承座係位於該外殼 裝^有數個可轉動地滾珠,其部份之珠面係 、、。該承座外供接觸該執跡球之球面;及 一固定蓋,係與該外-殼相互地結合,且設有一透孔 s亥執跡球之球面通過突伸於該固定蓋外。 ’、 測請專利範圍第2項所述之光學多用途影像備 構,其中該外殼係與該承座以一體成型之方式, 承座一體結合於該外殼之容置空間中。 、 測4=1請專利範圍第2項所述之光學多用途影像偵 構,其中該外殼係與該光學座以一體成型之方式,將 予座一體結合於該外殼之容置空間中。 測社請專利範圍第1項所述之洗學多用途影像偵 =、、'構,其中該分光鏡係具有相對的一外面及一内面,該 i鏡兀件係由該内面以一體延伸所形成。人 、料請專利範圍第5項所述之光學多用途影像偵 構,/、中該外面係以斜向地面對該通孔、該執跡球及 以先發射元件,該透鏡元件係位於遠離該執跡球之方向。 、、1处7、如申請專利範圍第5項所述之光學多用途影像偵 測結構’其中該内面係斜向地面對該通孔及該軌跡球,該 透鏡7L件係位於朝接近該軌跡球之方向。 Μ 、祕f b申料利範81第1項所述之光學多用途影像偵 中該軌跡球、該分光鏡、該連鏡元件及該影像 感成I态係沿同一方向·之設置。 、9、如申請專利範圍第丄項所述之光學多用途影像偵 測結構’其中該執跡球、該分光鏡及該光發射元件係沿同 一方向之設置。 19• M322576 ^ 7 IX. Patent application scope: 1. An optical multi-purpose image detecting structure, comprising: a housing having an accommodating space and a through hole communicating with the accommodating space; The trackball is rotatably positioned in the accommodating space of the casing, and a part of the spherical surface of the trackball protrudes outside the casing, and another part of the spherical surface corresponds to the through hole; Is located on one side of the through hole, and the optical base is provided with an I oblique beam splitter, and a lens element on one side of the beam splitter, the beam splitter is located obliquely to the ground; a circuit board is disposed on a side of the optical base; a light emitting element is electrically connected to the circuit board, and the optical axis of the projection light source generated by the light emitting element faces the beam splitter of the optical seat, The beam splitter transmits the optical axis of the light source to the spherical surface of the trackball once or more, and the spherical image of the trackball is reflected to the beam splitter, and the optical axis of the image is captured and the beam splitter is taken The optical axis of the projected source is Φ stacked; An image sensor is electrically connected to the circuit board and faces the lens element, and the optical axis of the captured image is projected through the beam splitter to the lens element for the image sensor to capture The image of the lens element is used to capture the distance and direction of the movement of the trackball, thereby calculating a displacement data. 2. The optical multi-purpose image detecting structure according to claim 1, wherein the housing has: a housing forming the receiving space, wherein the optical housing is located in the housing; 18 M322576 a seat, which forms the through hole, and the socket is mounted on the outer casing with a plurality of rotatable balls, a part of which is a bead system. The outer surface of the socket is in contact with the spherical surface of the obstructing ball; and a fixed cover is coupled to the outer shell and is provided with a through hole. The spherical surface of the scribing ball protrudes beyond the fixed cover. The optical multi-purpose image preparation according to the second aspect of the invention, wherein the outer casing is integrally formed with the socket, and the socket is integrally coupled to the accommodating space of the outer casing. The optical multi-purpose image detection described in the second aspect of the invention, wherein the outer casing and the optical base are integrally formed in a manner of being integrally coupled to the accommodating space of the outer casing. According to the scope of the patent application, the multi-purpose image detection method of the first aspect of the patent scope has a relative outer surface and an inner surface, and the i-mirror element is integrally extended by the inner surface. form. The optical multi-purpose image detection described in item 5 of the patent scope, the outer surface of the outer layer is obliquely facing the through hole, the obstructing ball and the first transmitting element, and the lens element is located Stay away from the direction of the track. The optical multi-purpose image detecting structure of the invention of claim 5, wherein the inner surface is obliquely facing the through hole and the track ball, and the lens 7L is located close to the The direction of the trackball. The optical multi-purpose image detection described in the first item of the invention is the setting of the trackball, the beam splitter, the mirror element, and the image sensing I state in the same direction. 9. The optical multi-purpose image detecting structure of claim </RTI> wherein the obstructing ball, the beam splitter and the light emitting element are disposed in the same direction. 19
TW96205329U 2007-04-02 2007-04-02 Optical multifunctional image-detecting structure TWM322576U (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI426418B (en) * 2007-12-25 2014-02-11 Myson Century Inc Optical navigator senser and optical navigator apparatus using the same

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI426418B (en) * 2007-12-25 2014-02-11 Myson Century Inc Optical navigator senser and optical navigator apparatus using the same

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