TWI497186B - Laser micro projector - Google Patents
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Description
本發明係關於一種雷射微型投影機，尤指一種具有多重投影與立體顯示功能之雷射微型投影機。 The invention relates to a laser micro projector, in particular to a laser micro projector with multiple projection and stereo display functions.
一般習知之投影機只能具有單一投影功能，因此其所投影出來之影像只有單一畫面，如要具有多重投影功能的話則需要利用多個光學鏡片來加以分光以達到多重投影之功能，如申請專利號201234097『具雙投影功能之投影機』中所揭露的，利用兩分光鏡片加以組合以達到雙重投影之目的，但是在組合該兩分光鏡片時，對於組裝之精準度有其困難所在。 Conventional projectors can only have a single projection function, so the projected image has only a single image. If multiple projection functions are required, multiple optical lenses are needed to split the light to achieve multiple projection functions, such as patent application. No. 201234097 "Projector with Dual Projection", which uses two spectroscopic lenses to combine to achieve dual projection, but when combining the two spectroscopic lenses, there is difficulty in assembly accuracy.
另外如要達到具有立體顯示功能的話則需要有兩組光源模組，分別對於上述之兩組光源進行偏極化才能達到立體投影之效果，其成本相對偏高，同時對於雷射微型投影機之體積就無法縮小，而達到輕量化之要求。 In addition, if you want to achieve the stereo display function, you need to have two sets of light source modules. The two sets of light sources can be polarized to achieve the effect of stereoscopic projection. The cost is relatively high, and at the same time, for the laser micro projector. The volume cannot be reduced, and the requirement for weight reduction is achieved.
另外為偵測雷射光源的衰減程度，通常為多增設一雷射光源或是使用分光稜鏡分光，使該光源照射於光偵檢器上，而如果使用增加雷射光源則會造成成本增加與投影機體積不易小型化的缺失；若是使用分光稜鏡來進行分光，則無法控制分光量大小，容易造成影像品質低落的缺失。 In addition, in order to detect the attenuation degree of the laser light source, usually a laser light source is added or a split light beam is used to make the light source illuminate the light detector, and if the laser light source is used, the cost is increased. It is not easy to miniaturize the size of the projector; if the splitter is used for splitting, the amount of light splitting cannot be controlled, which is likely to cause a lack of image quality.
本發明人為改善上述之缺失，提出利用一分光鏡片來達到分光的功能，藉由該分光鏡片的設計，可以達到控制分光量大小的效果，改善因利用分光稜鏡而無法控制分光量所造成之影像品質 不佳與需增加一額外雷射光源鎖增加之成本。 In order to improve the above-mentioned defects, the inventors have proposed to use a spectroscopic lens to achieve the function of splitting light. By designing the spectroscopic lens, the effect of controlling the amount of spectroscopic amount can be achieved, and the amount of splitting light cannot be controlled by using the spectroscopic diaphragm. Image quality Poor and the need to add an additional laser source lock to increase the cost.
本發明更提供一種利用分光鏡片來達成雙投影之功能，改善上述之需利用多個分光鏡來達成雙投影之分光鏡組裝不易之缺失；本發明更提供一種利用分光鏡片將雷射光束分光後再加以偏極化，以改善立體投影需用雙投影光機所形成之成本偏高與無法縮小投影機體積之缺失。 The present invention further provides a function of using a spectroscopic lens to achieve dual projection, and improving the above-mentioned need to use a plurality of spectroscopes to achieve a double projection of the spectroscope assembly is not easy to be missing; the present invention further provides a spectroscopic lens for splitting the laser beam The polarization is further increased to improve the cost of the stereo projection required by the dual projection machine and the lack of the projector volume.
本發明之雷射微型投影機包含有：一投影機本體；一雷射光源模組，該雷射光源裝設於該投影機本體內部一側，該雷射光源模組具有複數個雷射光源產生器，用以提供雷射光束；一準直模組，該準直模組具有複數個準直鏡片，該準直模組裝設於雷射光源模組一側，用以將雷射光束準直化；一透鏡模組，該透鏡模組具有複數個透鏡，該複數個透鏡可以分別折射特定波長光源，該透鏡模組裝設於準直模組相對於雷射光源模組之一側，用以將準直後之雷射光束聚集形成一單一光束；一分光鏡片，該分光鏡片裝設於透鏡模組一側與透鏡模組形成有一相對角度，用以將準直後之雷射光束進行分光以形成複數個分光束，其中該分光鏡片可以是一平面反射鏡片，亦可設計成一具有彎角之反射鏡片；一折射鏡片，該折射鏡片裝設於分光鏡片相對於雷射光束入射的一側，該折射鏡片與分光鏡片間具有一相對角度，該折射鏡用以折射經由分光鏡片所形成之分光束，該分光鏡片可以藉由調整與主光束間折射區域或是該分光鏡片的彎折角度達到調整分光量之大小；一偏光模組，該偏光模組具有一P型偏光片與一S型偏光片，該偏光模組裝設於該分光模組相對於透鏡模組一側，該偏光模組用於將經由分光鏡片所形成之分光束偏極化，形成P極光與S極光；一掃描鏡片，該掃瞄鏡片裝設於該分光鏡片與折射鏡片之光路上，用以將經由分光鏡片與折射鏡片所產生之分光束投射至螢幕上形成影像。 The laser micro projector of the present invention comprises: a projector body; a laser light source module, the laser light source is mounted on an inner side of the projector body, the laser light source module has a plurality of lasers a light source generator for providing a laser beam; a collimating module having a plurality of collimating lenses, the collimating module being assembled on one side of the laser light source module for using the laser beam Beam collimation; a lens module having a plurality of lenses, the plurality of lenses respectively refracting a specific wavelength light source, the lens mold being assembled in one of the collimating modules relative to the laser light source module a side for collecting the collimated laser beams to form a single beam; a spectroscopic lens mounted on a side of the lens module and forming a relative angle with the lens module for collimating the laser beam Performing beam splitting to form a plurality of partial beams, wherein the beam splitting lens may be a plane reflecting lens, or may be designed as a reflecting lens having a curved angle; and a refractive lens disposed on the beam splitting lens with respect to the laser beam incident One Having a relative angle between the refractive lens and the spectroscopic lens, the refractor mirror refracts the sub-beam formed by the spectroscopic lens, and the spectroscopic lens can adjust the angle of refraction between the main beam and the angle of the spectroscopic lens The polarizing module has a P-type polarizer and an S-type polarizer, and the polarizing module is assembled on the side of the beam splitting module relative to the lens module, and the polarizing is performed. The module is configured to polarize the partial beam formed by the spectroscopic lens to form a P-polar and S-polar light; and a scanning lens mounted on the optical path of the spectroscopic lens and the refractive lens for splitting The partial beam generated by the lens and the refractive lens is projected onto the screen to form an image.
當分光鏡為一平面反射鏡片時，雷射光源經由準直模組所形成之主光束穿透透鏡模組照射至該分光鏡片時，該分光鏡片將主光束分光成複數個分光束，該複數個分光束包含有至少一第一分光束、一第二分光束，其中第一分光束為主光束未照射到分光鏡片而直接穿過該分光鏡片所形成，該第一分光束直接穿過該分光鏡片後照射於折射鏡片上，經由該折射鏡片的折射後投射於掃瞄鏡上，經由該掃瞄鏡的折射後形成一第一影像；一第二分光束，該第二分光束為主光束照射於分光鏡片上折射所形成，該第二分光束經由分光鏡片折射至掃瞄鏡上，經由掃描鏡投射至螢幕上形成一第二影像，藉由第一分光束所形成之第一影像與第二分光束所形成之第二影像達到多重影像投影功能。 When the beam splitter is a plane reflecting lens, when the main beam formed by the laser beam passing through the lens module is irradiated to the beam splitting lens by the collimating module, the beam splitting beam splits the main beam into a plurality of partial beams, the plurality The partial beam includes at least a first partial beam and a second partial beam, wherein the first partial beam is formed by directly passing through the spectroscopic lens without irradiating the spectroscopic lens, and the first sub beam directly passes through the beam The spectroscopic lens is then irradiated onto the refractive lens, and is refracted by the refractive lens and projected onto the scanning mirror, and is refracted by the scanning mirror to form a first image; a second partial beam, the second partial beam is mainly The light beam is formed by refracting on the spectroscopic lens, and the second partial beam is refracted to the scanning mirror via the spectroscopic lens, and is projected onto the screen through the scanning mirror to form a second image, and the first image formed by the first partial beam is formed. The second image formed by the second partial beam reaches a multiple image projection function.
要呈現立體影像時，該分光鏡設計成一具彎折角度之鏡片，當主光束照射到該分光鏡片時，該分光鏡片將主光束分光成複數個分光束，同時在分光鏡片與掃描鏡光路間加設一偏光模組，該偏光模組具有一P型偏光片與S型光片，當分光束穿透偏光模組的P型偏光片與S型光片，分別形成P偏極光束與S偏極光束，該S偏極光與P偏極光束經由掃描鏡片折射後於螢幕上形成重疊影像，使用者藉由外加偏光裝置觀賞該影像時可以獲的立體之效果。 When the stereoscopic image is to be presented, the spectroscope is designed as a lens with a bending angle. When the main beam is irradiated to the spectroscopic lens, the spectroscopic lens splits the main beam into a plurality of sub-beams, and between the beam splitter and the scanning mirror. A polarizing module is provided. The polarizing module has a P-type polarizer and an S-type light sheet. When the split light beam penetrates the P-type polarizer and the S-type light sheet of the polarizing module, respectively, a P-polarized beam and a S are formed. The polarized light beam, the S polarized light and the P polarized light beam are refracted through the scanning lens to form an overlapping image on the screen, and the stereoscopic effect can be obtained when the user views the image by using a polarizing device.
1‧‧‧雷射微型投影機 1‧‧‧Laser Pico Projector
10‧‧‧本體 10‧‧‧ Ontology
11‧‧‧雷射光源模組 11‧‧‧Laser light source module
11R‧‧‧紅光雷射光源 11R‧‧‧Red Light Laser Source
11G‧‧‧綠光雷射光源 11G‧‧‧Green laser light source
11B‧‧‧藍光雷射光源 11B‧‧‧Blu-ray laser source
12‧‧‧準直模組 12‧‧‧Alignment module
121‧‧‧準直透鏡 121‧‧‧ Collimating lens
13‧‧‧透鏡模組 13‧‧‧ lens module
13R‧‧‧紅光透鏡 13R‧‧‧Red lens
13G‧‧‧綠光透鏡 13G‧‧‧Green lens
13B‧‧‧藍光透鏡 13B‧‧‧Blue lens
14‧‧‧主光束 14‧‧‧Main beam
20‧‧‧分光鏡片 20‧‧‧Splitting lens
21‧‧‧第一分光束 21‧‧‧First partial beam
22‧‧‧第二分光束 22‧‧‧Second partial beam
23‧‧‧折射鏡片 23‧‧‧Reflective lenses
30‧‧‧偏光模組 30‧‧‧Polarization module
30P‧‧‧P波偏光鏡 30P‧‧‧P wave polarizer
30S‧‧‧S波偏光鏡 30S‧‧‧S wave polarizer
40‧‧‧掃瞄鏡 40‧‧‧Scan mirror
圖1為雷射微型投影機示意圖。 Figure 1 is a schematic diagram of a laser pico projector.
圖2為第一實施例光路示意圖。 Fig. 2 is a schematic view showing the optical path of the first embodiment.
圖3為第一實施例分光鏡片分光示意圖。 Fig. 3 is a schematic view showing the spectroscopic lens splitting of the first embodiment.
圖4為第一實施例分光鏡片分光光量比例示意圖 4 is a schematic view showing the proportion of the split light amount of the spectroscopic lens of the first embodiment;
圖5為第二實施例光路示意圖 Figure 5 is a schematic view of the optical path of the second embodiment
圖6為第二實施例分光鏡片分光示意圖。 Fig. 6 is a schematic view showing the splitting of the spectroscopic lens of the second embodiment.
圖7為第三實施例分光光路示意圖。 Fig. 7 is a schematic view showing a beam splitting optical path of the third embodiment.
圖8為第三實施例分光鏡片分光示意圖。 Fig. 8 is a schematic view showing the splitting of the spectroscopic lens of the third embodiment.
本案之第一實施方式請參閱圖1至圖4所示，本發明之雷射微型投影機包含有：一本體10，一雷射光源模組11，該雷射光源模組10裝設於本體10內，該雷射光源模組11具有一紅光雷射光源11R、一綠光雷射光源11G、一藍光雷射光源11B，該雷射光源模組11用以提供雷射光束；一準直模組12，該準直模組12裝設於於上述雷射光源模組11雷射光源出口一側，用以將雷射光源所生成之雷射光束進行準直，該準直模組包含有複數個準直透鏡121；一透鏡模組13，該透鏡模組13具有一紅光透鏡13R、一綠光透鏡13G、一藍光透鏡13B，上述之透鏡模組13裝設於準直模組12相對於雷射光源模組11一側，使得特定波長之雷射光被該透鏡折射而其餘波長之雷射光得以穿過該透鏡，例如紅色透鏡折射紅色雷射光，而藍色跟綠色雷射光則穿透該紅色透鏡，雷射光源穿透該透鏡模組13後聚光形成一主光束14。 The first embodiment of the present invention is shown in FIG. 1 to FIG. 4 . The laser micro projector includes a body 10 and a laser light source module 11 . The laser light source module 10 is mounted on the body. 10, the laser light source module 11 has a red laser light source 11R, a green laser light source 11G, a blue laser light source 11B, the laser light source module 11 is used to provide a laser beam; The collimating module 12 is mounted on the side of the laser light source outlet of the laser light source module 11 for collimating the laser beam generated by the laser source. The collimating module The lens module 13 includes a plurality of collimating lenses 121, and a lens module 13 having a red lens 13R, a green lens 13G, and a blue lens 13B. The lens module 13 is mounted on the collimating module. The group 12 is opposite to the side of the laser light source module 11 such that laser light of a specific wavelength is refracted by the lens and laser light of the remaining wavelength is passed through the lens, for example, the red lens refracts red laser light, and the blue and green laser light Passing through the red lens, the laser light source penetrates the lens module 13 and collects light to form a Beam 14.
一分光鏡片20，該分光鏡片20裝設於透鏡模組13相對於雷射光源模組11一側，該分光鏡片20將主光束14分光後形成複數個分光束，該複數個分光束至少包含有一第一分光束21與一第二分光束22；該分光鏡片20藉由與主光束14間的折射區域大小不同來調整第一分光束21與第二分光束22的大小而調整各分光光束之光量；一折射鏡23裝設於分光鏡片20相對於準直模組11一側，該分光鏡片20與該折射鏡片23間具有一相對角度；當主光束14經過分光鏡片20時，部分光束照射於分光鏡片20而產生折射，該折射光束形成第一分光束21；主光束14未照射到分光鏡片20的部份，通過分光鏡片20照射於折射鏡片22上形成一第二分光束22，上述之第一分光束21與第二分光束22因第分光鏡片20與折射鏡片22間具有一相對角度，因此其反射之角度亦不同； 一掃描鏡40，該掃描鏡40裝設於第一分光束21與第二分光束22之光路上，藉由掃描鏡40將第一分光束21與第二分光束22投射至螢幕上形成雙重影像；本案之第二實施方式請參閱圖5與圖6，本發明之雷射微型投影機包含有：一本體10，一雷射光源模組11，該雷射光源模組10裝設於本體10內，該雷射光源模組11具有一紅光雷射光源11R、一綠光雷射光源11G、一藍光雷射光源11B，該雷射光源模組11用以提供雷射光束；一準直模組12，該準直模組12裝設於於上述雷射光源模組11雷射光源出口一側，用以將雷射光源所生成之雷射光束進行準直，該準直模組包含有複數個準直透鏡121；一透鏡模組13，該透鏡模組13具有一紅光透鏡13R、一綠光透鏡13G、一藍光透鏡13B，上述之透鏡模組13裝設於準直模組12相對於雷射光源模組11一側，使得特定波長之雷射光被該透鏡折射而其餘波長之雷射光得以穿過該透鏡，例如紅色透鏡折射紅色雷射光，而藍色跟綠色雷射光則穿透該紅色透鏡，雷射光源穿透該透鏡模組13後聚光形成一主光束14。 a splitting lens 20 is disposed on a side of the lens module 13 relative to the laser light source module 11 . The beam splitting lens 20 splits the main beam 14 to form a plurality of partial beams, and the plurality of partial beams include at least There is a first partial beam 21 and a second partial beam 22; the spectroscopic lens 20 adjusts the size of the first partial beam 21 and the second partial beam 22 by different sizes of the refractive area between the main beam 14 to adjust the respective splitting beams. The amount of light; a refractor 23 is disposed on the side of the spectroscopic lens 20 relative to the collimating module 11, the spectroscopic lens 20 and the refractive lens 23 have a relative angle; when the main beam 14 passes through the spectroscopic lens 20, part of the beam Irradiating the spectroscopic lens 20 to generate refraction, the refracted beam forms a first partial beam 21; the main beam 14 is not irradiated to the portion of the spectroscopic lens 20, and the spectroscopic lens 20 is irradiated onto the refractive lens 22 to form a second partial beam 22, The first partial beam 21 and the second partial beam 22 have a relative angle between the first optical lens 20 and the refractive lens 22, and thus the angle of reflection thereof is also different; a scanning mirror 40 is disposed on the optical path of the first partial beam 21 and the second partial beam 22, and the first partial beam 21 and the second partial beam 22 are projected onto the screen by the scanning mirror 40 to form a double The second embodiment of the present invention refers to FIG. 5 and FIG. 6. The laser micro projector includes a body 10, a laser light source module 11, and the laser light source module 10 is mounted on the body. 10, the laser light source module 11 has a red laser light source 11R, a green laser light source 11G, a blue laser light source 11B, the laser light source module 11 is used to provide a laser beam; The collimating module 12 is mounted on the side of the laser light source outlet of the laser light source module 11 for collimating the laser beam generated by the laser source. The collimating module The lens module 13 includes a plurality of collimating lenses 121, and a lens module 13 having a red lens 13R, a green lens 13G, and a blue lens 13B. The lens module 13 is mounted on the collimating module. The group 12 is opposite to the side of the laser light source module 11 such that laser light of a specific wavelength is refracted by the lens and the remaining wavelengths are Light is emitted through the lens, a refractive lens, for example a red laser beam of red, green and blue color with the red laser beam penetrates the lens, the laser light penetrating the condenser lens module 13 is formed after a main beam 14.
一分光鏡片20，該分光鏡片20裝設於透鏡模組13相對於雷射光源模組11一側，該分光鏡片20為具有一彎折角度之鏡片，該分光鏡片20將主光束14分光後形成複數個分光束，該複數個分光束至少包含有一第一分光束21與一第二分光束22；該分光鏡片20藉由與鏡片角度與主光束14間的照射區域不同來調整第一分光束21與第二分光束22的大小，進而調整各分光光束之光量；一折射鏡23裝設於分光鏡片20相對於準直模組11一側，該分光鏡片20與該折射鏡片23間具有一相對角度；當主光束14經過分光鏡片201時，主光束14照射於分光鏡片20時，因分光鏡片20的彎折角度，使得主光束14產生兩不同折射角度之分光 光束，其中一折射光束形成第一分光束21，另一折射光束形成第二分光束22；上述之第二分光束22經由折射鏡23折射改變其光束行進方向；一掃描鏡40，該掃描鏡40裝設於第一分光束21與第二分光束22之光路上，藉由掃描鏡40將第一分光束21與第二分光束22投射至螢幕上形成雙重影像；本案之第三實施方式請參閱圖7與圖8，本發明之雷射微型投影機包含有一本體10，一雷射光源模組11，該雷射光源模組11具有紅色雷射光源、綠色雷射光源、藍色雷射光源，該雷射光源模組11用以提供雷射光束；一準直模組12，該準直模組12裝設於相對於上述雷射光源模組11的各雷射光源一側，用以將雷射光源所生成之雷射光束進行準直；一透鏡模組13，該透鏡模組13具有一紅光透鏡、一綠光透鏡、一藍光透鏡，上述之透鏡模組13裝設於準直模組12相對雷射光源模組11一側，可以使得特定波長之雷射光穿透或折射，例如紅色透鏡折射紅色雷射光，而藍色跟綠色雷射光則穿透該紅色透鏡，雷射光源穿透該透鏡模組13後形成一主光束14。 a spectroscopic lens 20 is disposed on a side of the lens module 13 opposite to the laser light source module 11 . The spectroscopic lens 20 is a lens having a bending angle. The spectroscopic lens 20 splits the main beam 14 . Forming a plurality of partial beams, the plurality of partial beams comprising at least a first partial beam 21 and a second partial beam 22; the spectroscopic lens 20 adjusting the first sub-point by different from an illumination area between the lens angle and the main beam 14 The beam 21 and the second sub-beam 22 are sized to adjust the amount of light of each of the beam splitters; a refractor 23 is disposed on the side of the spectroscopic lens 20 with respect to the collimating module 11 , and the spectroscopic lens 20 and the refractor lens 23 have A relative angle; when the main beam 14 passes through the spectroscopic lens 201, when the main beam 14 is irradiated to the spectroscopic lens 20, the main beam 14 generates two different angles of refraction due to the bending angle of the spectroscopic lens 20. a light beam, wherein a refracted beam forms a first partial beam 21, and another refracted beam forms a second partial beam 22; said second partial beam 22 is refracted by a refractor 23 to change its beam traveling direction; a scanning mirror 40, the scanning mirror 40 is disposed on the optical path of the first partial beam 21 and the second partial beam 22, and the first partial beam 21 and the second partial beam 22 are projected onto the screen by the scanning mirror 40 to form a dual image; the third embodiment of the present invention Referring to FIG. 7 and FIG. 8 , the laser micro projector includes a body 10 and a laser light source module 11 . The laser light source module 11 has a red laser light source, a green laser light source, and a blue mine. The laser light source module 11 is configured to provide a laser beam; a collimating module 12 is disposed on a side of each of the laser light sources relative to the laser light source module 11; For aligning a laser beam generated by a laser source; a lens module 13 having a red lens, a green lens, and a blue lens, and the lens module 13 is mounted The collimating module 12 is opposite to the side of the laser light source module 11 Laser light penetrates the predetermined wavelength or refractive, e.g. a refractive lens red laser light red, green and blue color with the red laser beam penetrates the lens, the laser light penetrating the lens module 14 is formed after the main beam 13 a.
一分光鏡片20，該分光鏡片20裝設於透鏡模組13相對於雷射光源模組11一側，該分光鏡片20為具有一彎折角度之鏡片；當主光束14照射到分光鏡片20時，光束因分光鏡片20間的彎折角度作用而使得主光束14產生第一分光束21與第二分光束22，同時藉由主光束14的照射位置與分光鏡片20的彎折角度來調整第一分光束21與第二分光束22的分光量大小；一偏光模組30，該偏光模組30包含有一P波偏光鏡30P，一S波偏光鏡30S；第一分光束21穿過P波偏光鏡30P後形成P波偏光束，同樣當第二分光束22穿過S波偏光鏡30S後形成S 波偏光束；一掃描鏡40，該掃描鏡40裝設於偏光模組30相對於分光模組201一側之P波偏光束30P與S波偏光束30S之光路上，該掃描鏡40將P波偏光束與S波偏光束投射至螢幕上形成一重疊影像，使用者利用一偏光眼鏡即可觀賞到立體影像。 a spectroscopic lens 20 is disposed on a side of the lens module 13 opposite to the laser light source module 11 , and the spectroscopic lens 20 is a lens having a bending angle; when the main beam 14 is irradiated to the spectroscopic lens 20 The light beam is caused by the bending angle between the spectroscopic lenses 20 to cause the main beam 14 to generate the first partial beam 21 and the second partial beam 22, while the irradiation position of the main beam 14 and the bending angle of the spectroscopic lens 20 are adjusted. A splitting beam 21 and a second splitter 22 have a splitting amount; a polarizing module 30, the polarizing module 30 includes a P-wave polarizing mirror 30P, an S-wave polarizing mirror 30S; and the first partial beam 21 passes through the P-wave After the polarizer 30P, a P-wave beam is formed, and when the second sub-beam 22 passes through the S-wave polarizer 30S, it forms S. The scanning mirror 40 is mounted on the optical path of the P-wave beam 30P and the S-wave beam 30S of the polarizing module 30 with respect to the beam splitting module 201. The scanning mirror 40 will be P. The wave-biased beam and the S-wave deflected beam are projected onto the screen to form an overlapping image, and the user can view the stereoscopic image by using a polarizing glasses.
1‧‧‧雷射微型投影機 1‧‧‧Laser Pico Projector
10‧‧‧投影機本體 10‧‧‧Projector body
11‧‧‧雷射光源模組 11‧‧‧Laser light source module
12‧‧‧準直模組 12‧‧‧Alignment module
13‧‧‧透鏡模組 13‧‧‧ lens module
20‧‧‧分光鏡片 20‧‧‧Splitting lens
23‧‧‧折射鏡片 23‧‧‧Reflective lenses
40‧‧‧掃瞄鏡 40‧‧‧Scan mirror
Claims (6)
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| TW102118575A TWI497186B (en) | 2013-05-27 | 2013-05-27 | Laser micro projector |
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| TW102118575A TWI497186B (en) | 2013-05-27 | 2013-05-27 | Laser micro projector |
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| TWI497186B true TWI497186B (en) | 2015-08-21 |
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| TWI269062B (en) * | 2004-09-02 | 2006-12-21 | Sony Corp | Electronic device chip assembly, electronic device chip, diffraction grating-optical modulation apparatus assembly, and diffraction grating-optical modulation apparatus |
| TW201019032A (en) * | 2008-11-05 | 2010-05-16 | Young Optics Inc | Laser projection system |
| WO2013009414A2 (en) * | 2011-07-12 | 2013-01-17 | Google Inc. | Whole image scanning mirror display system |
| WO2013064303A1 (en) * | 2011-11-02 | 2013-05-10 | Osram Gmbh | Laser projector having at least one laser source, and method for producing an illuminated region on a projection area |
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2013
- 2013-05-27 TW TW102118575A patent/TWI497186B/en not_active IP Right Cessation
Patent Citations (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| TWI269062B (en) * | 2004-09-02 | 2006-12-21 | Sony Corp | Electronic device chip assembly, electronic device chip, diffraction grating-optical modulation apparatus assembly, and diffraction grating-optical modulation apparatus |
| TW201019032A (en) * | 2008-11-05 | 2010-05-16 | Young Optics Inc | Laser projection system |
| WO2013009414A2 (en) * | 2011-07-12 | 2013-01-17 | Google Inc. | Whole image scanning mirror display system |
| WO2013064303A1 (en) * | 2011-11-02 | 2013-05-10 | Osram Gmbh | Laser projector having at least one laser source, and method for producing an illuminated region on a projection area |
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