1. An LED display apparatus comprising:
two LED arrays for performing as a light source wherein a plurality of LEDs are arrayed in two rows;
a housing to house the two LED arrays;
two transparent panels of which one side is attached to the housing so that the LEDs can shed light through the side of the transparent panels;
dispersion scratches on the transparent panels for refracting, reflecting and diffusing LED light wherein the dispersion scratches are configured to form a sign; and
two additional panels treated with fluorescent paint for enhancing the intensity of LED light refracted or reflected wherein each panel treated with fluorescent paint is attached to each additional transparent panel on the side having the dispersion scratch and the fluorescent paint glows by reflecting the LED light;
wherein the dispersion scratches are configured to be a letter, sign, symbol or design component for being bright as against the rest of dark plain background of the transparent panels.
2. The LED display apparatus of claim 1, wherein the two LED arrays have different light colors.
3. The LED display apparatus of claim 1, wherein the two transparent panels comprise acrylic.
4. The LED display apparatus of claim 3, wherein the acrylic has the function of edge lighting by the LED light.
5. The LED display apparatus of claim 1, wherein the dispersion scratches are made vertically by means of drill.
6. The LED display apparatus of claim 1, wherein the two additional panels treated with fluorescent paint comprise fluorescent paint which is treated on the panels at the substantially same places as the dispersion scratches are made so that the sign by the dispersion scratches lights more intensely by the fluorescent paint.
7. The LED display apparatus of claim 6, wherein the two additional panels treated with fluorescent paint comprise fluorescent paint of more than one color for various sign design effects.
8. The LED display apparatus of claim 1, wherein the circuit for the plurality of LEDs comprises a capacitor and rectifying diode for stable current.
9. The LED display apparatus of claim 1, wherein the circuit for the plurality of LEDs has an IC control chip.
10. The LED display apparatus of claim 9, wherein the IC control chip has an integrated multivibrator circuit for making the plurality of LEDs flash.
11. The LED display apparatus of claim 1, wherein the circuit for the plurality of LEDs has a photoresistor.
12. The LED display apparatus of claim 1, wherein some or all of the plurality of LEDs are bi-color LEDs.
13. The LED display apparatus of claim 1, wherein some of all of the plurality of LEDs have the function of dimming either by pulse-width modulation or lowering the forward current.
14. The LED display apparatus of claim 1, wherein the inside of housing is made of mirror for maximizing the downward light.
15. The LED display apparatus of claim 1, wherein light scattering panel is attached to the upper side of the transparent panel for evenly scattering the light from LEDs.
16. An LED display apparatus comprising:
a plurality of LED arrays for performing as a light source;
a housing to house the plurality of LED arrays;
a plurality of transparent panels of which one side is attached to the housing so that the LED light can shed light through the side of the transparent panels and the number of transparent panels is the same as the number of LED arrays;
dispersion scratches on the transparent panels for refracting, reflecting and diffusing LED light wherein the dispersion scratches are configured to form a sign; and
a plurality of panels treated with fluorescent paint for enhancing the intensity of LED light refracted or reflected wherein each panel treated with fluorescent paint is attached to each transparent panel on the side having the dispersion scratch and the fluorescent paint glows by reflecting the LED light;
wherein the dispersion scratches are configured to be a letter, sign, symbol or design component for being bright as against the rest of dark plain background of the transparent panels.
17. The LED display apparatus of claim 16, wherein the LED arrays have different light colors.
18. The LED display apparatus of claim 16, wherein the transparent panels comprise acrylic.
19. The LED display apparatus of claim 16, wherein the dispersion scratches are made vertically by means of drill.
20. The LED display apparatus of claim 16, wherein the plurality of panels treated with fluorescent paint comprise fluorescent paint which is treated on the panels at the substantially same places as the dispersion scratches are made so that the sign by the dispersion scratch lights more intensely by the fluorescent paint.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. A video processing system comprising:
a wide-angle optical system configured to receive an optical image;
a high-resolution image sensor coupled to the optical system and configured to convert the optical image to an electronic image;
an image processing circuit coupled to the image sensor and configured to receive and process the electronic image, one of its tasks being to correct optical distortion on one or more regions of interest of the electronic image through reference to a table of parameters specific to a combination of the optical system and the image sensor, each of said regions of interest including at least a portion of said electronic image from anywhere within said electronic image, said image processing circuit configured to perform event detection in at least one other area of the electronic image;
a control circuit coupled to said image processing circuit and configured to receive movement and zoom commands to transmit a signal to said image processing circuit relating the movement and zoom commands specific to at least one region of interest in said electronic image, while said image sensor also performs said event detection; and
an output circuit coupled to said image processing circuit capable of outputting in a plurality of electronic signal formats.
2. The video processing system of claim 1, wherein the output circuit comprises a compression and formatting circuit.
3. The video processing system of claim 1, wherein the output circuit outputs an electronic video signal to a coupled base station, and the base station provides command inputs to the control circuit.
4. The video processing system of claim 1, wherein said image processing circuit can perform one or more of: distortion correction; filtering; color correction; or white balance adjustment.
5. The video processing system of claim 1, wherein the image processing circuit comprises: a digital signal processor, comprising an arithmetic and logic unit controlled by a coupled instruction sequencer, which fetches instructions from a memory; at least one of a coupled register storage or memory storing image data for processing; and accessed algorithms for processing an image comprising a least one of sharpening, contrast adjustment, color adjustment, resizing, or analysis.
6. The video processing system of claim 1, wherein the image processing circuit comprises: a programmable graphics processor, comprising a rasterizer producing coordinates of an output image transmitted to a coupled pixel shader calculating the pixels in the source image to use, causes the pixels to be read from a coupled memory, and filtered by a coupled filter; and accessed algorithms for processing an image comprising at least one of sharpening, contrast adjustment, color adjustment, resizing, or analysis.
7. The video processing system of claim 1, wherein the image processing circuit comprises a combination of a digital processing circuit and a graphics processor.
8. The video processing system of claim 1, wherein at least one region of interest is simultaneously monitored while maintaining visibility of the full electronic image.
9. A video processing system comprising:
at least one image sensor coupled to an optical system that captures a distorted image, said image sensor converting the optical image into an electronic image;
an image processing circuit coupled to the at least one image sensor, said image processing circuit receiving and processing the electronic image to correct the distorted image on one or more regions of interest from anywhere in said electronic image based on factors specific to the optical system and at least one image sensor, the image processing circuit also producing at least one zoomed electronic image of at least one region of interest anywhere in the image based on execution of movement and zoom commands specific to said region of interest anywhere within the image while maintaining visibility of the full electronic image, the said image processing circuit also performing event detection in at least one other area of the electronic image while producing the zoomed image;
a control circuit coupled to said image processing circuit; and
an output circuit coupled to the image processing circuit.
10. The video processing system of claim 9, wherein the control circuit receives movement and zoom commands to transmit to the image processing circuit executing the movement and zoom commands, wherein the region of interest comprises at least a portion of the electronic image.
11. The video processing system of claim 10, wherein the image processing circuit scales the region of interest up or down.
12. The video processing system of claim 9, wherein a plurality of regions of interest are simultaneously monitored while maintaining visibility of the full electronic image.
13. The video processing system of claim 9, wherein the output circuit is capable of outputting in a plurality of electronic signal formats.
14. A method for operating a video processing system, comprising the steps of:
receiving a distorted wide-angle optical image converted into an electronic signal of image frames at an image processing circuit;
processing the image frames to correct wide-angle optical distortion, which includes one or more regions of interest within the image frames, wherein view commands specific to the one or more regions of interest are executed via manipulating the image frame data to produce an electronic image frame for each of the one or more regions of interest anywhere within the full electronic image frame while maintaining visibility of the full electronic image frame; and
while executing said view commands, also performing event detection in at least one other area of the electronic image; and
outputting a plurality of electronic image frames to a coupled base station corresponding to each of the one or more regions of interest and the full electronic image.
15. The method of claim 14, wherein the view commands comprise at least one of a movement and a zoom component.
16. The method of claim 14, further comprising the steps of:
formatting the plurality of electronic image frames; and compressing the plurality of electronic image frames.
17. The method of claim 14, further comprising the step of:
transmitting the one or more regions of interest as thumbnails, interleaved fields or frames, or multiplexed.
18. The method of claim 14, further comprising the step of:
storing image frames in a memory.
19. The method of claim 18, further comprising the steps of:
transmitting stored image frames to a base station upon detection of an event; and
extracting portions of the image frames relative to the event.
20. The method of claim 14, further comprising the steps of:
automatically detecting an event using mathematical analysis of an image frame;
designating a portion of the image frame as a region of interest correlating to the event; and
executing view commands to generate an image frame of the region of interest.