Optical processor using detecting assembly and method using same
An optical processor includes a light source ( 20 ), a grating device ( 23 ), a first lens ( 24 ), a reflector ( 25 ), a second lens ( 26 ), an array of mirror cells ( 28 ), a color wheel ( 29 ), and a third lens ( 30 ). The light source is for generating a number of light beams. The grating device is for reflecting and dispersing the generated light beams. The first lens is for imaging the reflected and dispersed light beams. The reflector is for reflecting the imaged light beams. The second lens is for correcting any aberration of the reflected light beams. The array of mirror cells is for reflecting the light beams received from the second lens. The color wheel is for coloring the reflected light beams. The third lens is for projecting the colored light beams onto a display.
1. An optical processor comprising:
a light source for generating a plurality of light beams;
a grating device for reflecting and dispersing the generated light beams;
a first lens for imaging the reflected and dispersed light beams;
a reflector for reflecting the imaged light beams;
a second lens for correcting any aberration of the reflected light beams;
an array of mirror cells for reflecting the light beams received from the second lens;
a color wheel for coloring the reflected light beams; and
a third lens for projecting the colored light beams onto a display.
2. The optical processor as described in claim 1 , further comprising a collimator for collimating the generated light beams.
3. The optical processor as described in claim 1 , wherein the light source is selected from the group consisting of a laser source and an inductively-coupled-plasma source.
4. The optical processor as described in claim 1 , wherein the grating device comprises a plurality of grooves.
5. The optical processor as described in claim 2 , further comprising a first slit member for light beams to pass through before entering the collimator.
6. The optical processor as described in claim 1 , further comprising a second slit member for light beams to pass through after exiting the second lens.
7. The optical processor as described in claim 1 , wherein each of the mirror cells comprises a mirror over a substrate, and a driver for tilting the mirror.
8. The optical processor as described in claim 7 , wherein each of the mirror cells further comprises two pedestals positioned around the mirror, for cantilevering the mirror.
9. The optical processor as described in claim 8 , wherein each of the mirror cells further comprises two cantilevers for the pedestals to respectively cantilever the mirror.
10. The optical processor as described in claim 7 , wherein the mirror comprises a silicon chip.
11. An optical processor comprising:
a light source for generating a plurality of light beams;
a grating device for reflecting and dispersing the generated light beams;
a first lens for imaging the reflected and dispersed light beams;
a reflector for reflecting the imaged light beams;
a second lens for correcting any aberration of the reflected light beams;
a detecting assembly comprising means for reflecting the light beams received from the second lens, and a color wheel for coloring the reflected light beams; and
a third lens for projecting the colored light beams onto a display.
12. The optical processor as described in claim 11 , wherein the detecting assembly comprises means for firstly reflecting the light beams to the color wheel, wherein the first reflected light beams serve as a first optical signal, means for secondly reflecting the light beams to a light absorber, wherein the second reflected light beams serve as a second optical signal, and means for thirdly reflecting the light beams to the color wheel, wherein the third reflected light beams serve as a third optical signal.
13. The optical processor as described in claim 12 , wherein the detecting assembly further comprises means for digitally displaying the first and third optical signals by projecting the first and third reflected light beams onto a display.