System and method for adjusting light intensity in a display system

1. A display system comprising:

a backlight including a housing receiving one or more light emitting elements to generate and project light from the backlight and one or more reflective portions disposed on the housing;

a first display unit disposed proximate the backlight, wherein the first display unit includes:

an upper substrate,

a monochrome liquid crystal layer cooperating with the upper substrate, wherein the monochrome liquid crystal layer of the first display unit is pixelated, wherein each pixel is dynamically configured to optically rotate polarized light to produce a local dimming backlight at the pixel level, and wherein a periphery of each pixel includes a matrix structure disposed thereon,

a lower substrate disposed opposite the upper substrate and cooperating with the monochrome liquid crystal layer,

a first reflective polarizer having a body including an upper surface and an opposing lower surface that cooperates with the upper substrate, and

a second reflective polarizer having a body including an upper surface cooperating with the lower substrate and an opposing lower surface;

a second display unit disposed proximate the first display unit, wherein the second display unit includes:

an upper substrate,

a color thin film transistor (TFT) display layer cooperating with the upper substrate,

a lower substrate disposed opposite the upper substrate and cooperating with the color TFT display layer,

a first linear polarizer having a body including an upper surface cooperating with the lower substrate of the second display unit and an opposing lower surface; and

a second linear polarizer having a body including an upper surface and an opposing lower surface cooperating with the upper substrate of the second display unit;

a diffuser disposed between the first display unit and the second display unit, wherein the diffuser provides a light profile transition for light transmitted through the first display unit;

a microcontroller for controlling the backlight, the first display unit and the second display unit,

wherein the microcontroller is configured to execute instructions to adjust the monochrome liquid crystal layer of the first display unit between at least a first transmissive state and a second transmissive state;

wherein the matrix structure includes a reflective matrix element configured to reflect the light back to the backlight for recycling;

wherein the matrix structure disposed on the periphery of each of the pixels includes a black matrix structure. the reflective matrix element disposed on a back side of the black matrix structure to reduce reflectivity from a front side of the monochrome liquid crystal layer

wherein the light emitting elements are in a direct type of alignment with the color TFT layer for providing direct lighting thereto;

wherein the light emitting elements are arranged into a plurality of zones, each zone configured to be independently controllable between the first and second transmissive states; and

wherein the color TFT display layer includes a plurality of color pixels in vertical alignment with the zones and the lighting elements.

2. The display system of claim 1 , wherein the reflective matrix element disposed on the periphery of each of the pixels comprises a reflective material.

3. The display system of claim 1 , wherein the matrix structure disposed on the periphery of each of the pixels includes a black matrix structure and the reflective matrix element fabricated from reflective material.

4. The display system of claim 1 , wherein the reflective matrix element disposed on the periphery of each of the pixels comprises a first matrix structure fabricated from a reflective material and a second matrix structure fabricated from the reflective material.

5. The display system of claim 1 , wherein the monochrome liquid crystal layer of the first display unit being pixelated includes a first pixel that is contiguous to a second pixel;

wherein the first pixel is separated from the second pixel by the matrix structure;

wherein the matrix structure includes the reflective matrix element and a black matrix element;

wherein the black matrix element is disposed immediately contiguous to the reflective matrix element; and

wherein the reflective matrix element is disposed immediately contiguous to the first pixel.

6. The display system of claim 1 , wherein the monochrome liquid crystal layer of the first display unit being pixelated includes a first pixel that is contiguous to a second pixel;

wherein the first pixel is separated from the second pixel by the matrix structure;

wherein the matrix structure includes the reflective matrix element and a black matrix dement; and

wherein the black matrix element is disposed immediately contiguous to the second pixel.

7. The display system of claim 1 , wherein the monochrome liquid crystal layer of the first display unit being pixelated includes a first pixel that is contiguous to a second pixel;

wherein the first pixel is separated from the second pixel by the matrix structure;

wherein the matrix structure includes the reflective matrix element and a black matrix element; and

wherein the reflective matrix element is disposed immediately contiguous to the second pixel.

8. The display system of claim 1 , wherein the monochrome liquid crystal layer of the first display unit being pixelated includes a first pixel that is contiguous to a second pixel;

wherein the first pixel is separated from the second pixel by the matrix structure;

wherein the matrix structure includes the reflective matrix element and a black matrix element;

wherein the black matrix element is disposed immediately contiguous to the second pixel; and

wherein the reflective matrix element is disposed between the black matrix element and an alignment layer of the monochrome liquid crystal layer.

9. The display system of clairn 1 , wherein the monochrome liquid crystal layer of the first display unit being pixelated includes a first pixel that is contiguous to a second pixel;

wherein the first pixel is separated from the second pixel by the matrix structure;

wherein the reflective matrix element includes a first reflective matrix layer, a second reflective matrix layer, and the matrix structure includes a black matrix element;

wherein the first reflective matrix layer is disposed immediately contiguous to the second pixel; and

wherein the second reflective matrix layer is disposed adjacent to the first pixel.

10. The display system of claim 1 , wherein the monochrome liquid crystal layer of the first display unit being pixelated includes a first pixel that is contiguous to a second pixel;

wherein the first pixel is separated from the second pixel by the matrix structure;

and

wherein the reflective matrix element is disposed immediately contiguous to the first pixel.

11. The display system of claim 1 , wherein the monochrome liquid crystal layer of the first display unit being pixelated includes a first pixel that is contiguous to a second pixel;

wherein the first pixel is separated from the second pixel by the matrix structure;

wherein the reflectivematrix element is disposed immediately contiguous to the first pixel; and

wherein the color TFT display layer is disposed immediately contiguous to the second pixel.

12. The display system of claim 1 , wherein the monochrome liquid crystal layer of the first display unit includes a first pixel that is contiguous to a second pixel;

wherein the first pixel is separated from the second pixel by the matrix structure;

wherein the matrix structure includes the reflective matrix element and a black matrix element;

wherein the reflective matrix element is disposed immediately contiguous to the first pixel;

wherein the black matrix element is disposed immediately contiguous to the reflective matrix element; and

wherein the color TFT display layer is disposed immediately contiguous to the second pixel.

13. The display system of claim 1 , wherein the second colored display unit includes a color filter.

14. A display system comprising:

a backlight having a plurality of light emitting elements configured emitting polarized light;

a first display unit disposed proximate the backlight, wherein the first display unit includes:

an upper substrate,

a monochrome liquid crystal layer cooperating with the upper substrate, wherein the monochrome liquid crystal layer of the first display unit is pixelated, wherein each pixel thereof is dynamically configured to optically rotate polarized light to produce a local dimming backlight at the pixel level, and wherein a periphery of each pixel includes a matrix structure disposed thereon,

a lower substrate disposed opposite the upper substrate and cooperating with the monochrome liquid crystal layer,

a second display unit disposed proximate the first display unit, the second display unit including a color thin film transistor (TFT) display layer;

a diffuser disposed between the first display unit and the second display unit, wherein the diffuser provides a light profile transition for light transmitted through the first display unit;

a microcontroller coupled to the first display unit,

wherein the microcontroller is configured to execute instructions to adjust the monochrome liquid crystal layer of the first display unit between at least a first transmissive state and a second transmissive state, the first transmissive state corresponding with polarized light transmitted from the backlight projecting through the monochrome liquid crystal layer of the first display unit to the second display unit, the second transmissive state corresponding with the monochrome liquid crystal layer rotating the polarized light transmitted from the backlight up to 90 degrees;

a reflective polarizer positioned between the second display unit and the backlight;

wherein a back side of the matrix structure includes a reflective matrix element configured to reflect the light back to the backlight for recycling and a front side of the matrix structure includes a black matrix structure to reduce reflectivity from a front side of the monochrome liquid crystal layer;

wherein the light emitting elements are in a direct type of alignment with the color TFT layer for providing direct lighting thereto;

wherein the light emitting elements are arranged into a plurality of zones, each zone configured to be independently controllable between the first and second transmissive states; and

wherein the color TFT display layer includes a plurality of color pixels in vertical alignment with the zones and the lighting emitting elements.

15. The display system of claim 14 , wherein the monochrome liquid crystal layer of the first display unit being pixelated includes a first pixel that is contiguous to a second pixel;

wherein the first pixel is separated from the second pixel by the matrix structure;

wherein the matrix structure includes the reflective matrix element and a black matrix element; and

wherein the black matrix element is disposed immediately contiguous to the second pixel.

16. A display system comprising:

a backlight having a plurality of light emitting elements;

a first colorless display unit disposed proximate the backlight, wherein the first colorless display unit includes:

an upper substrate,

a liquid crystal layer cooperating with the upper substrate, wherein the liquid crystal layer of the first colorless display unit is pixelated, wherein each pixel is dynamically configured to optically rotate polarized light to produce a local dimming of the backlight at the pixel level, and wherein a periphery of each pixel includes a matrix structure disposed thereon,

a lower substrate disposed opposite the upper substrate and cooperating with the liquid crystal layer,

a second colored display unit disposed proximate the first colorless display unit;

a microcontroller coupled to the first colorless display unit,

wherein the microcontroller is configured to execute instructions to adjust the liquid crystal layer of the first colorless display unit between at least a first transmissive state and a second transmissive state, the first transmissive state corresponding with polarized light transmitted from the backlight projecting through the liquid crystal layer of first colorless display unit to the second colored display unit, the second transmissive state corresponding with the liquid crystal layer rotating the polarized light transmitted from the backlight up to 90 degrees;

wherein the matrix structure includes a reflective matrix element configured to reflect the light back to the backlight for recycling;

wherein the light emitting elements are in a direct type of alignment with the second colored display unit;

wherein the light emitting elements are arranged into a plurality of zones, each zone configured to be independently controllable between the first and second transmissive states; and

wherein the second colored display unit includes a plurality of color pixels in alignment with the zones and the lighting emitting elements.