CN101044446A - Optical pointing apparatus and personal portable device having the optical pointing apparatus - Google Patents

Optical pointing apparatus and personal portable device having the optical pointing apparatus Download PDF

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Publication number
CN101044446A
CN101044446A CNA2005800282948A CN200580028294A CN101044446A CN 101044446 A CN101044446 A CN 101044446A CN A2005800282948 A CNA2005800282948 A CN A2005800282948A CN 200580028294 A CN200580028294 A CN 200580028294A CN 101044446 A CN101044446 A CN 101044446A
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CN
China
Prior art keywords
light
waveguide
plano
convex lens
reflecting surface
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Granted
Application number
CNA2005800282948A
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Chinese (zh)
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CN101044446B (en
Inventor
安建俊
朴哲
金载东
裵宰勋
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Crucialtec Co Ltd
GNC Co Ltd
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Crucialtec Co Ltd
GNC Co Ltd
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Application filed by Crucialtec Co Ltd, GNC Co Ltd filed Critical Crucialtec Co Ltd
Priority claimed from PCT/KR2005/001746 external-priority patent/WO2006019218A1/en
Publication of CN101044446A publication Critical patent/CN101044446A/en
Application granted granted Critical
Publication of CN101044446B publication Critical patent/CN101044446B/en
Expired - Fee Related legal-status Critical Current
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    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00Input arrangements for transferring data to be processed into a form capable of being handled by the computer; Output arrangements for transferring data from processing unit to output unit, e.g. interface arrangements
    • G06F3/01Input arrangements or combined input and output arrangements for interaction between user and computer
    • G06F3/03Arrangements for converting the position or the displacement of a member into a coded form
    • G06F3/033Pointing devices displaced or positioned by the user, e.g. mice, trackballs, pens or joysticks; Accessories therefor
    • G06F3/0354Pointing devices displaced or positioned by the user, e.g. mice, trackballs, pens or joysticks; Accessories therefor with detection of 2D relative movements between the device, or an operating part thereof, and a plane or surface, e.g. 2D mice, trackballs, pens or pucks
    • GPHYSICS
    • G02OPTICS
    • G02BOPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B6/00Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings

Abstract

Provided is an optical joystick including: a first waveguide including a first reflecting surface located below a reading area for sensing the movement of an object and a first plano-convex lens portion condensing light reflected from the first reflecting surface; a second waveguide including a second plano-convex lens portion facing the first plano-convex lens portion and a second reflecting surface for reflecting light refracted at the second plano-convex lens portion, and an image sensor located below the second reflecting surface. The first reflecting surface and the first plano-convex lens portion form a single body, and the second plano-convex lens portion and the second reflecting surface form a single body. The reflecting surface and the lens portion are in a single body, thereby notably reducing the thickness of the optical joystick. The first and second waveguides are facing each other, thereby improving refraction and condensing light.

Description

Ultra thin optical operating rod and have a personal portable device of ultra thin optical operating rod
Technical field
The present invention relates to load module, the extra small extra small optical joystick of size especially, it is convenient to be installed in the personal portable device of mobile phone for example and comprises on the personal portable device of extra small optical joystick.
Background technology
In the conventional personal portable device of for example mobile phone, adopt the load module that uses keyboard usually.Conventional personal portable device comprises that a plurality of buttons of input digit and letter that are used for are so that input designated telephone number or sentence.
And traditional personal portable device can provide various functions by using Menu key and other function keys.Recently, can display graphics user interface (GUI) on the display module of personal portable device, thus can use display module with two-dimensional approach as personal computer.In this case, in order to set and carry out the function of demand, Menu key and other function keys can be used as directionkeys and use.
Though the functional shift of personal portable device must be similar to personal computer, yet, in the personal portable device of for example mobile phone, service orientation key still, they select a function or target step by step according to the finger extruding that promotes them.Although the input method inconvenience of service orientation key, yet formed custom till now by the method for using the keyboard input, and do not disclose load module so far and can diminish, still utilize the input method of keyboard basically in use by taking other input methods.For example, mobile phone can comprise requisite parts, for example printed circuit board (PCB) (PCB) and radio frequency (RF) module., the size of the requisite parts in the mobile phone and thickness considers that therefore, the miscellaneous part except that requisite parts is with regard to surplus little space only because being emphasis.
Use traditional input method of keyboard to embody a kind of single moving, import telephone number or use other menus one by one for one of them one.In addition, because single move mode makes input digit or letter become slower.Usually, the user need remember the position and the function of key for rapid input, and this bothers very much.And single move mode can't utilize the advantage of graphic user interface in the mobile phone (GUI) environment all sidedly.
Summary of the invention
Technical purpose
At present, several pointing devices of supporting gui environment are on computers disclosed.According to method of operating, spherical mouse, optical mouse, laser mouse, Trackpad are arranged in the pointing device, and board.
The pointing device that is used for computing machine in theory also can be as the pointing device of personal portable device.Yet, because the purpose of personal portable device is to carry, with body portion from extra pointing device be actually can not be as the pointing device of personal portable device.
The mouse of following the tracks of ball-type or Joystick-type can be used as pointing device, and it can be installed on the personal portable device integratedly.Yet the structure of tracking ball or operating rod needs sizable solid space to be used for installing physically, thereby has stoped the miniaturization of personal portable device.
Consider this problem, in described pointing device, the click principle that optical mouse adopted can be applied on the personal portable device.
Fig. 1 to 3 is the viewgraph of cross-section of the click principle of demonstration conventional optical mouse.
With reference to Fig. 1, the image input device 21 that uses in the conventional optical mouse comprises cover glass 41, lens 42, lightproof unit 44 and imageing sensor 46.And the light emitting diode (LED) 43 with high brightness is used as light source, and the light of launching from LED43 projects on the cover glass 41 via light source guide 47.
Be used for the conventional optical mouse of PC, light scans to the bottom surface from light source, and for sensing optics mouse moving, imageing sensor is positioned on the lens.Yet for conventional optical mouse structure is applied on the personal portable device, finger is that object moves on cover glass, and imageing sensor 46 can not need to move moving of the object that relatively moves with sensing on cover glass.
As shown in Figure 1, in conventional optical mouse structure, cover glass 41, lens 42 and imageing sensor 46 in turn are arranged vertically.Just, imageing sensor is arranged in the bottom, and the cover glass 41 that light is projected on the object is positioned at the top, and lens 42 are arranged between cover glass 41 and the imageing sensor 46.Lightproof unit 44 is inserted between lens 42 and the imageing sensor 46 to block the stray light of periphery, so that distinct image projects on the imageing sensor 46.
With reference to Fig. 2, the light that the LED43 from conventional mouse structure produces can be sent to the outside 47 of cover glass 41 by light source guide 45.
The light that transmits can be by reflecting downwards being positioned at the object localization of for example pointing on the cover glass 41, and reflected light can project on the imageing sensor 46.
With reference to Fig. 3, the light that is reflected by object passes through lens 42, lightproof unit 44 and imageing sensor 46.The finger 48 that the light that goes out from light emitted is positioned on the cover glass 41 reflects to change the path, and reflected light projects on the optical image sensor 46 via lens 42.Imageing sensor 46 can the sensing projects images variation and be electric signal with image transitions.The master controller of personal portable device can be resolved moving of object from electric signal.
Yet image input device 21 described above can not ideally make the personal portable device miniaturization.Consider the level of prior art, the minimum constructive height of the image input device in the conventional optical mouse structure is approximately 4-5mm.Yet in current personal portable device, the height that requires module is less than about 2mm.
Have difficulties because not only process super accurate structure, and the depth of focus of the image input device in the conventional optical mouse structure 21, height can't be reduced to less than 2mm.
Figure 4 and 5 are the synoptic diagram that concerns between the height of display image input equipment and the depth of focus.
With reference to Fig. 4, shown optical system with short focal length.When light 62 scans on the lens 61, on image sensor surface 63, form focus.Yet under the too short situation of focal length, light shines the surface of imageing sensor 63 with high incident angle.Therefore, if the distance between lens 61 and the imageing sensor 63 changes, it is big that the size of the focus of light 62 becomes.If it is very big that focus becomes, it is bigger than the Pixel Dimensions of imageing sensor 63 that the size of point may become.Ground for reference, the distance between lens 61 and the imageing sensor 63 tend to form when the assembling load module, because because the generation of structure allowable error can produce defective.
On the other hand, the optical system with long-focus as shown in Figure 5.When light 65 scans on the collector lens 64, also on image sensor surface 66, form focus.In this case, because the focal length long enough between collector lens 64 and the image sensor surface 66, light 65 almost is vertically to shine image sensor surface 66 with low incident angle.Therefore, when the distance between lens 65 and the image sensor surface 66 changed, the spot size of focus was less relatively, thereby had reduced or do not produce defective.To a certain degree to produce, the size of focus can be greater than the Pixel Dimensions of imageing sensor as the fruit structure allowable error.
Therefore, in traditional optical mouse structure, because cover glass, lens and imageing sensor arrange along optical axis direction, and make the height of basic equipment be restricted, the depth of focus of optical system also is restricted.
Technical scheme
In order to address the above problem, the invention provides optical joystick and personal portable device, wherein, when using the GUI of personal portable device, numeral and letter for example do not need the extra load module of mouse just can import.
The invention provides optical joystick and personal portable device, wherein, according to finger moving on operating rod, the pointer cursor on the screen moves thereupon, and the minimizing of the height of optical joystick is more, and has enough depths of focus.
The personal portable device that the invention provides optical joystick and can process for a short time and be easy to install and assemble.
According to embodiments of the invention, optical joystick comprises first waveguide that is used to reflect and converge from the light of object reflection, be used to converge and reflect second waveguide of the light that passes first waveguide, and receive from the imageing sensor of the light of second waveguide refraction.
First waveguide comprises being positioned at and is used for first reflecting surface and the first plano-convex lens part that read the below, zone that object sensing moves.Simultaneously, second reflecting surface that comprises in the face of second plano-convex lens part of first plano-convex lens part in the face of second waveguide of first waveguide and be used to be reflected in the light that second plano-convex lens partly reflects.Light on from the light emitted to the object reflects because of object.The light that is reflected by object reflects at first reflecting surface, passes first and second plano-convex lenss part and converges at the light of first reflecting surface reflection.The light that passes first and second plano-convex lenss part is in reflection of second reflecting surface and imaging on imageing sensor.
Therefore, the anaclasis twice of being reflected by object, thus have enough depths of focus.Because first and second waveguides comprise reflecting surface and lens component, the height of optical joystick can be reduced to about 2mm.Simultaneously, because reflecting surface and lens component are one, thereby can process waveguide easily, assemble flow is mass simply also.
According to another embodiment, optical joystick comprises first waveguide that is used to reflect and converge from the light of object reflection, is used to converge second waveguide of the light that passes first waveguide, and the imageing sensor that receives the light that passes second waveguide.
As the preceding embodiment, first waveguide comprises being positioned at and is used for first reflecting surface that reads the below, zone that object sensing moves and converges from the first plano-convex lens part of the light of first reflecting surface reflection.Second waveguide of facing first waveguide comprises second plano-convex lens part and comprises the exit surface with second reflecting surface.The unirefringence of being finished by first reflecting surface can provide enough depths of focus, and the structure of second waveguide can keep fully.Because used first and second waveguides, the height of optical joystick can be reduced to about 2mm.Because reflecting surface or lens component are one, thereby can process waveguide easily, assemble flow is mass simply also.
For setting or the function of carrying out demand, for example Shou Zhi object moves reading on the zone, thereby specifies a certain numeral or letter and select icon.In the selection of optical joystick, there is several different methods.Remove or use extra button can carry out input by pointing from reading the zone.
Description of drawings
Fig. 1 to 3 clicks the viewgraph of cross-section of principle for showing conventional optical mouse;
Figure 4 and 5 are the synoptic diagram that concerns between the height of display image input equipment and the depth of focus;
Fig. 6 to 8 is the viewgraph of cross-section of optical joystick according to an embodiment of the invention;
Fig. 9 to 11 is the viewgraph of cross-section of optical joystick according to another embodiment of the present invention;
Figure 12 is the vertical view of first waveguide shown in displayed map 6 and 9 and second waveguide structure;
Figure 13 is for showing the viewgraph of cross-section of optical joystick according to another embodiment of the present invention;
Figure 14 is the side view of the waveguide of the optical joystick among demonstration Figure 13;
Figure 15 is the skeleton view of the waveguide of the optical joystick among demonstration Figure 13;
Figure 16 is for showing the fragmentary, perspective view of the optical joystick among Figure 13;
Figure 17 is for showing the skeleton view of the optical joystick among Figure 13;
Figure 18 is for showing the vertical view of the optical joystick among Figure 13;
Figure 19 is for showing the side view of the optical joystick among Figure 13; And
Figure 20 is for showing the skeleton view of personal portable device according to another embodiment of the present invention.
Embodiment
After this, to being illustrated according to embodiments of the invention, scope of the present invention also can't help that following examples limit or restriction with reference to accompanying drawing.
Fig. 6 to 8 is the viewgraph of cross-section of optical joystick according to an embodiment of the invention.
With reference to Fig. 6, optical joystick 100 comprises first waveguide 110, second waveguide 120, imageing sensor 150, cover glass 130 and the Lights section 140.
The Lights section 140 comprises LED142 and catoptron 144.Be approximately 30 μ m to 50 μ m owing to be included in the Pixel Dimensions of the imageing sensor 150 in the operating rod 100, the light that the Lights section 140 produces enough is sent to imageing sensor 150, although the Lights section 140 does not comprise extra waveguide.And because operating rod of the present invention can be applied in the portable set as mobile phone, the zone that pointer cursor moves is littler than common computing machine basically, thereby the Lights section 140 need not have complicated structure for accurate pointer cursor control.
With reference to Fig. 7, be reflected mirror 144 reflections and guide to cover glass 130 with high incident angle of the light of launching from the LED142 as light source are so that light can be sharply or almost flatly shone cover glass.Is the finger surface shape information that is placed on the body surface in order to scan easily with light with the reason that high incident angle guides to cover glass.On the other hand, light can not need extra waveguide or catoptron and directly be transmitted into cover glass 130 from LED142.
Do not having object under the situation on the end face of cover glass 130, the light that goes out from light emitted directly is sent on the end face of cover glass 130, and does not have information to be sent to optical image sensor 150.
With reference to Fig. 8, under the object as finger F was placed on situation on the cover glass 130, scanned light was reflected and is directed to first waveguide 110 that is positioned at the below, and the light that guides to first waveguide 110 is by 112 horizontal reflections of first reflecting surface.
The optical path that level changes advances along first waveguide 110, and passes the first plano-convex lens part 114 that is formed at first waveguide, 110 ends and converge.Light passes the lightproof unit 160 that weakens peripheral stray light and guides to second waveguide 120.
Second waveguide 120 comprises the second plano-convex lens part 124 and second reflecting surface 122.The second plano-convex lens part 124 and second reflecting surface 122 are to make one by optical plastic.The light that guides to second waveguide 120 passes second plano-convex lens 124 and converges, and the reflection downwards by second reflecting surface 122.Light reflects by second reflecting surface 122, thereby changes optical path up and down.
In this case, the first or second plano- convex lens part 114 or 124 can be the collector lens that constitutes with various forms, for example spherical lens or aspheric lens shape.And another collector lens or another waveguide can be arranged between first waveguide 110 and second waveguide 120, and it can differently change according to deviser's design, but do not break away from claim scope of the present invention.
First and second waveguides 110 and 120 can symmetry or asymmetric.Under asymmetric situation, first and second waveguides 110 and 120 can be in the shape of the curvature of lens, lens surface have various variation aspect the thickness of the length of for example spherical or non-sphere, lens and lens.
With reference to Fig. 8, the light of optical path such as above-mentioned variation is directed to optical image sensor 150 and the imaging that is positioned on the printed circuit board (PCB) (PCB).Calculate the variation of the image of imaging as mentioned above, calculating coordinate, thereby the pointing device of optical joystick is specialized, it makes pointer cursor move comprising on the display of LCD.
With cover glass 130, the first and second plano- convex lens parts 114 and 124 and imageing sensor 150 not along optical axis direction but the reason of flatly arranging be on the portable set that the present invention is applied to mobile phone for example.Because the thickness of portable set is extremely thin, if each parts is all vertically installed, because the restriction of focal length, reducing thickness may be restricted.For example, the thickness of the module of the equal homeotropic alignment of parts is difficult to be reduced to less than 4mm.
And if the optical system of light focusing unit is to design in order to reduce thickness significantly, then the depth of focus becomes very little, thereby has destroyed the quality of the light that converges by imageing sensor.
Therefore, if optical path changes by level of the present invention, module not only can subminiaturization arrive less than about 2.0mm, it can be installed on the portable set basically, and can obtain to be about enough focal lengths of 5 to 30mm, with the extension depth of focus, thereby obtain outstanding processibility and batch process.
Fig. 9 to 11 is the viewgraph of cross-section of optical joystick according to another embodiment of the present invention.
With reference to Fig. 9 to Figure 11, shown a kind of structure, wherein this structure is with respect to the variation of Fig. 6 structure, and LED142 is positioned at the top, and catoptron 144 tilts so that light is directed to cover glass.In this structure, the angle and direction that guides to the light of cover glass 130 can change easily, thereby can design the angle that is suitable for the initial assembling of module easily.
In Figure 10 and 11,,, has identical 26S Proteasome Structure and Function corresponding to the parts in preceding embodiment except the miscellaneous part of the Lights section 140.In explanation of the present invention, same structure can be with reference to explanation in preceding embodiment and accompanying drawing, and repeated content will be omitted.
Figure 12 is the vertical view of first waveguide shown in displayed map 6 and 9 and second waveguide structure.
With reference to Figure 12, on the portable set that is applied to mobile phone for example, first and second waveguides 110 and 120 thickness is 2.0mm or littler preferably approximately.Yet because the width of operating rod limits unlike highly being subjected to strictness, the Lights section can be positioned at any position of cover glass 130 belows.Therefore, the Lights section can be positioned at the side of first waveguide 110 light is scanned cover glass 130.In this case, light can high incident angle be directed to cover glass 130, so that sharply shine on the cover glass, and has enough information can be sent to imageing sensor 150.
As mentioned above, the invention provides the optical joystick pointing-input device, wherein by adopting reflecting surface and collector lens flatly to change with the optical waveguide form of tubes, solved the thickness limits problem of all vertically arranged conventional mouse sensor assembly of cover glass, lens and optical image sensor, thereby possessed the enough focal lengths and the depth of focus and reduced module thickness.Especially, extra small optical joystick pointing-input device may be used on the small-sized and microminiature equipment of mobile phone for example.
Figure 13 is for showing the viewgraph of cross-section of optical joystick according to another embodiment of the present invention, Figure 14 is the side view of the waveguide of the optical joystick among demonstration Figure 13, Figure 15 is the skeleton view of the waveguide of the optical joystick among demonstration Figure 13, and Figure 16 is for showing the fragmentary, perspective view of the optical joystick among Figure 13.
With reference to Figure 13 to 16, optical joystick 200 comprises cover glass 230, first waveguide 210, second waveguide 220, imageing sensor 250 and the Lights section 240.The monolithic entity of first waveguide 210 for being made of plastics, and comprise first reflecting surface 212 and the first plano-convex lens part 214.Second waveguide 220 also is the monolithic entity that is made of plastics, and comprises second reflecting surface 222 and the second plano-convex lens part 224.When light when light source 240 is transmitted on the object, light is reflected by object and is sent to cover glass 230, first reflecting surface 212, the first plano-convex lens part 214, lightproof unit 260, the second plano-convex lens part 224, second reflecting surface and imageing sensor 250.
The advance route of light can change to be reflected once or twice horizontal structure of light wherein from traditional vertical stratification that the first and second plano-convex lens parts 214 wherein are connected with 224 and imageing sensor 250.Can form thickness less than 2.0mm and have the module of the enough focal lengths and the depth of focus.
Especially, the main factor of installation optical joystick is the thickness of optical joystick on the portable set of for example mobile phone.In order to be applied to operational blocks which partition system, according to each small portable apparatus of for example mobile phone, optical path flatly changes, thereby the length of module is reduced to 5 to 30mm.
As shown in figure 16, imageing sensor 250 is installed on the PCB252, and the center of imageing sensor 250 is designed to accurately corresponding with the center of lens component.
Figure 17 is for showing the skeleton view of the optical joystick among Figure 13, and Figure 18 is for showing the vertical view of the optical joystick among Figure 13, and Figure 19 is for showing the side view of the optical joystick among Figure 13.
With reference to Figure 17 to 19, optical system, lightproof unit 260, shield portions 272, fixedly housing, the click keys 232 of PCB252 and the vaulted switch 234 that is used for click is converted to electric signal have been shown.When finger was positioned on the end face of cover glass 230, light was transmitted into cover glass from LED, and the identification fingerprint is with the identification light intensity.In this case, identify the lines of fingerprint, thus the sensing light and shade.
The light that is reflected by object passes first and second waveguides 210 and 220 and be directed to imageing sensor 250.The analysis of the information via imageing sensor 250 of the light that is directed and be electric signal by circuit conversion.Pointer cursor can move comprising on the screen (not shown) of LCD according to the signal of conversion.
The present invention relates to be applied to for example optical joystick of all types of small portable apparatus of PDA, notebook and HPC.In this manual, quoted letter and number.Yet numeral also can be expressed as letter from wide significance.
Simultaneously, optical joystick can be used for rolling.
Rolling shows and pointer cursor can be moved up and down, and does not just roll along the direction of needs thereby do not need to promote button by adopting finger to move.Especially, the direction of rolling and speed can be by translational speed, direction and the distance controls of finger.
Figure 20 is for showing the skeleton view of personal portable device according to another embodiment of the present invention.
With reference to Figure 20, personal portable device 300 comprises main body 310 and optical joystick 200.In this case, main body 310 comprises the inside and outside parts with general purpose terminal function and circuit structure.Main body 310 can comprise termination box, keyboard, display module, wireless transmission and receiver module, battery, microphone and receiver.The shape of main body 310 can have various constituted mode, for example page turning type, folded form, sliding-type and oscillating-type.
In this manual, personal portable device is represented portable electricity/electronic equipment, for example PDA(Personal Digital Assistant), fast phone, hand-held PC, mobile phone, MP3 player, it can comprise CDMA (CDMA) module, bluetooth module, infrared data UNICOM (IrDA), wired or wireless LAN card, and can be used as the terminal ordinary call notion with pre-operation ability by the default microprocessor of equipment execution multimedia regeneration function.
As shown in figure 20, main body 310 comprises main part and folded part.Main part is equipped with keyboard, battery and communicating circuit.Simultaneously, folded part is equipped with the display that comprises LCD.The Menu key that is used to be provided with function of cellular phone is installed in the keyboard top.In order to expose cover glass 230, optical joystick 200 is installed in the center of the Menu key that is positioned at main body 310 front sides.
Because button click 232 is installed in around the cover glass 230 on the optical joystick, the user can move pointer displayed cursor on display by using optical joystick 200, realizes various functions by using peripheral click button 232.
Industrial applicibility
As mentioned above, according to the letter input method of optical joystick of the present invention, even do not use keyboard, finger is mobile also can be imported letter or number by resolving.In addition, optical joystick of the present invention can combine with click keys with the increase input function, and improves the function of direct input alphabet.
By using this method, for example the small portable apparatus of mobile phone can become gently, approach and be simple, and it is easy that input can become.
Though the present invention has done detailed explanation and displaying with reference to typical embodiment, those skilled in the art should understand, do not breaking away under the situation of the spirit and scope of the present invention that limit by following claim, can make the various variations on form and the details therein.

Claims (21)

1, a kind of optical joystick comprises:
First waveguide, first waveguide comprises being positioned at and is used for first reflecting surface that reads the below, zone that object sensing moves and converges from the first plano-convex lens part of the light of first reflecting surface reflection, wherein, first reflecting surface and first plano-convex lens partly constitute monolithic entity;
Second waveguide, second reflecting surface that second waveguide comprises in the face of second plano-convex lens part of first plano-convex lens part and is used to be reflected in the light that second plano-convex lens partly reflects, wherein, second plano-convex lens part and second reflecting surface constitute monolithic entity; And
Be positioned at the imageing sensor of second reflecting surface below.
2, a kind of optical joystick comprises:
First waveguide, first waveguide comprises being positioned at and is used for first reflecting surface that reads the below, zone that object sensing moves and converges from the first plano-convex lens part of the light of first reflecting surface reflection, wherein, first reflecting surface and first plano-convex lens constitute monolithic entity;
The exit surface that second waveguide, second waveguide comprise in the face of second plano-convex lens part of first plano-convex lens part and be used to make the light that partly reflects at second plano-convex lens to pass through, wherein, second plano-convex lens part and exit surface formation monolithic entity; And
Imageing sensor with the adjacent setting of exit surface.
According to each described operating rod in claim 1 and 2, it is characterized in that 3, one or two in first plano-convex lens part and second plano-convex lens part forms spherical or non-spherical lens shape.
4, according to each described operating rod in claim 1 and 2, it is characterized in that, comprise that another waveguide of one in lens or the lens component is arranged between first waveguide and second waveguide.
5, according to each described operating rod in claim 1 and 2, it is characterized in that first and second waveguides are provided with symmetrically.
6, according to each described operating rod in claim 1 and 2, it is characterized in that first and second waveguides are provided with symmetrically.
According to each described operating rod in claim 1 and 2, it is characterized in that 7, cover glass is formed on first reflecting surface top of first waveguide, the cover glass and first waveguide are integral or form dividually with first waveguide.
8, operating rod according to claim 7 is characterized in that, light source cell and cover glass are adjacent to install, and described light source cell comprises light emission module, and described light emission module emission light is so that scan cover glass with light directly or indirectly.
9, operating rod according to claim 8 is characterized in that, light source cell is positioned at first reflecting surface below of first waveguide, and the feasible light that produces from light emission module passes first reflecting surface of first waveguide and scans the end face of cover glass.
10, operating rod according to claim 8 is characterized in that, light source cell comprises catoptron, and the light that catoptron guiding produces from light emission module is so that light shines cover glass item face with high incident angle.
11, operating rod according to claim 7, it is characterized in that, light source cell and cover glass are adjacent to install, described light source cell comprises radiative light emission module and will guide to the light source guide of cover glass from the light that light emission module produces, wherein, light source guide constitutes by adopting optical plastic, and by adopting total reflection to guide to cover glass with high incident angle from the light that light emission module produces.
12, operating rod according to claim 7 is characterized in that, the unit that blocks that is used for isolated stray light is arranged between first and second waveguides.
13, according to each described operating rod in claim 1 and 2, it is characterized in that, also comprise:
Click keys around cover glass formation;
Be positioned at the vaulted switch of click keys below; And
Transmit the key control section of pressing of click keys input value.
14, a kind of personal portable device comprises:
The terminal bodies that comprises display module;
Partly expose to read the cover glass of movement of objects from terminal bodies;
First waveguide, first waveguide comprise first reflecting surface that is positioned at the cover glass below and converge from the first plano-convex lens part of the light of reflecting surface reflection that wherein, first reflecting surface and first plano-convex lens partly constitute monolithic entity;
Second waveguide, second waveguide second reflecting surface that comprises in the face of second plano-convex lens part of first plano-convex lens part and be used to be reflected in the light that second plano-convex lens partly reflects, wherein, second plano-convex lens part and second reflecting surface constitute monolithic entity;
Be positioned at the imageing sensor of second reflecting surface below; And
The movement of objects that reads according to imageing sensor moves the control module that is presented at the pointer cursor on the display module.
15, equipment according to claim 14 is characterized in that, first and second waveguides symmetry or setting asymmetricly.
16, equipment according to claim 14 is characterized in that, the main body of the cover glass and first waveguide is integral or forms dividually with first waveguide.
17, equipment according to claim 16 is characterized in that, light source cell and cover glass are adjacent to install, and described light source cell comprises light emission module, and described light emission module emission light is so that scan cover glass with light directly or indirectly.
18, equipment according to claim 17 is characterized in that, light source cell comprises catoptron, and the light that catoptron guiding produces from light emission module is so that light shines the cover glass end face with high incident angle.
19, equipment according to claim 17, it is characterized in that, light source cell and cover glass are adjacent to install, described light source cell comprises radiative light emission module and will guide to the light source guide of cover glass from the light that light emission module produces, wherein, light source guide constitutes by adopting optical plastic, and by adopting total reflection to guide to cover glass with high incident angle from the light that light emission module produces.
20, equipment according to claim 19 is characterized in that, the isolated unit that is used for isolated stray light is arranged between first and second waveguides.
21, equipment according to claim 14 is characterized in that, also comprises:
Click keys around cover glass formation;
Be positioned at the vaulted switch of click keys below; And
Transmit the key control section of pressing of click keys input value.
CN2005800282948A 2004-08-20 2005-06-10 Optical pointing apparatus and personal portable device having the optical pointing apparatus Expired - Fee Related CN101044446B (en)

Applications Claiming Priority (10)

Application Number Priority Date Filing Date Title
KR20040023760 2004-08-20
KR20-2004-0023760 2004-08-20
KR2020040023760 2004-08-20
KR1020040078941 2004-10-05
KR20040078941 2004-10-05
KR10-2004-0078941 2004-10-05
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