Claims Analysis
Total Claims: 40
Claim 1
Independent Claim
131 words
A method for transmitting an image over a data channel, comprising: converting signals representing an image into RGB form data; transforming said RGB form data into YUV data; converting said YUV data into DCT data by multiplying a factored transform matrix F k to a plurality of subsets of said YUV data having k points wherein: A.sub.k =D.sub.k F.sub.k ; A k is a transform matrix converting subsets of YUV data into DCT data; and D k is a k×k diagonal matrix; absorbing D k into a matrix having elements η ij to form a quantization matrix having elements η ij ; quantizing said DCT data with said quantization matrix; converting said quantized DCT data into signals for transmission over said data channel; and applying said signals to said data channel.
Claim 2
Independent Claim
131 words
A method for transmitting an image over a data channel, comprising: converting signals representing an image into RGB form data; transforming said RGB form data into YUV data; converting said YUV data into DCT data by multiplying a factored transform matrix F k to a plurality of subsets of said YUV data having k points wherein: A.sub.k =D.sub.k F.sub.k ; A k is a transform matrix converting subsets of YUV data into DCT data; and D k is a k×k diagonal matrix; absorbing D k into a matrix having elements η ij to form a quantization matrix having elements η ij ; quantizing said DCT data with said quantization matrix; converting said quantized DCT data into signals for transmission over said data channel; and applying said signals to said data channel.
Claim 3
Dependent Claim
39 words
A method for transmitting an image over a data channel, as in claim 1, wherein: D k is the k×k diagonal matrix in which the jj-th element is the first entry in the j-th row of A k .
Claim 4
Dependent Claim
38 words
A method for transmitting an image over a data channel, as in claim 1, wherein: a (jk+i)-th element of D k ○ × D k is absorbed to form said quantization matrix, wherein ○ × is tensor multiplication.
Claim 5
Dependent Claim
26 words
A method for transmitting an image over a data channel, as in claim 3, wherein: non rational elements of F k are approximated by rational elements.
Claim 6
Dependent Claim
30 words
A method for transmitting an image over a data channel, as in claim 4, wherein: a function of multiplying by a rational number is implemented by shift and add operations.
Claim 7
Independent Claim
159 words
A method for transmitting an image over a data channel, comprising: converting signals representing an image into RGB form data; transforming said RGB form data into YUV data; converting said YUV data into DCT data by multiplying a factored transform matrix F k ○ × F k by a plurality of subsets of said YUV data having k 2 points wherein: A.sub.k ○ × A.sub.k =(D.sub.k ○ × D.sub.k)(F.sub.k ○ × F.sub.k); A k ○ × A k is a transform matrix for converting subsets of YUV data into DCT data; and D k ○ × D k is a k 2 ×k 2 diagonal matrix; absorbing D k ○ × D k into a matrix having elements η ij to form a quantization matrix having elements η ij ; quantizing said DCT data with said quantization matrix; converting said quantized DCT data into signals for transmission over said data channel; and applying said signals to said data channel.
Claim 8
Independent Claim
159 words
A method for transmitting an image over a data channel, comprising: converting signals representing an image into RGB form data; transforming said RGB form data into YUV data; converting said YUV data into DCT data by multiplying a factored transform matrix F k ○ × F k by a plurality of subsets of said YUV data having k 2 points wherein: A.sub.k ○ × A.sub.k =(D.sub.k ○ × D.sub.k)(F.sub.k ○ × F.sub.k); A k ○ × A k is a transform matrix for converting subsets of YUV data into DCT data; and D k ○ × D k is a k 2 ×k 2 diagonal matrix; absorbing D k ○ × D k into a matrix having elements η ij to form a quantization matrix having elements η ij ; quantizing said DCT data with said quantization matrix; converting said quantized DCT data into signals for transmission over said data channel; and applying said signals to said data channel.
Claim 9
Dependent Claim
50 words
A method for transmitting an image over a data channel, as in claim 6, wherein: D k ○ × D k is the k 2 ×k 2 diagonal matrix in which the jj-th element is the first entry in the j-th row of A k ○ × A k .
Claim 10
Dependent Claim
32 words
A method for transmitting an image over a data channel, as in claim 6, wherein: a (jk+i)-th element of D k ○ × D k is absorbed to form said quantization matrix.
Claim 11
Dependent Claim
29 words
A method for transmitting an image over a data channel, as in claim 8, wherein: non-rational elements of F k ○ × F k are approximated by rational elements.
Claim 12
Dependent Claim
30 words
A method for transmitting an image over a data channel, as in claim 9, wherein: a function of multiplying by a rational number is implemented by shift and add operations.
Claim 13
Independent Claim
135 words
A method for generating an image, comprising: sensing signals representing said image from a data channel; decoding said sensed signals into DCT form data; absorbing a diagonal matrix D k into a matrix having elements η ij to form a dequantization matrix having elements η ij ; dequantizing said DCT form data with said dequantization matrix; converting said DCT data into YUV data by multiplying a plurality of subsets of said DCT data having k points by a factored transform matrix F k t , wherein: A.sub.k.sup.-1 =F.sub.k.sup.t D.sub.k ; A k -1 is a transform matrix for converting subsets of DCT data into YUV data; and D k is a k×k diagonal matrix; converting said YUV data into RGB form data; and applying said RGB form data to a display to generate said image.
Claim 14
Independent Claim
135 words
A method for generating an image, comprising: sensing signals representing said image from a data channel; decoding said sensed signals into DCT form data; absorbing a diagonal matrix D k into a matrix having elements η ij to form a dequantization matrix having elements η ij ; dequantizing said DCT form data with said dequantization matrix; converting said DCT data into YUV data by multiplying a plurality of subsets of said DCT data having k points by a factored transform matrix F k t , wherein: A.sub.k.sup.-1 =F.sub.k.sup.t D.sub.k ; A k -1 is a transform matrix for converting subsets of DCT data into YUV data; and D k is a k×k diagonal matrix; converting said YUV data into RGB form data; and applying said RGB form data to a display to generate said image.
Claim 15
Dependent Claim
39 words
A method for generating an image, as in claim 11, wherein: D k is the k×k diagonal matrix in which the jj-th element is an inverse of a first entry in a j-th row of A k -1 .
Claim 16
Dependent Claim
34 words
A method for generating an image, as in claim 11, wherein: a (jk+i)-th element of D k ○ × D k is absorbed to form said dequantization matrix, wherein ○ × is tensor multiplication.
Claim 17
Dependent Claim
22 words
A method for generating an image, as in claim 13, wherein: non-rational elements of F k t are approximated by rational elements.
Claim 18
Dependent Claim
26 words
A method for generating an image, as in claim 14, wherein: a function of multiplying by a rational number is implemented by shift and add operations.
Claim 19
Independent Claim
135 words
A method for generating an image, comprising: sensing signals representing said image from a data channel; decoding said sensed signals into DCT form data; absorbing a diagonal matrix D k -1 into a matrix having elements η ij to form a dequantization matrix having elements η ij ; dequantizing said DCT form data with said dequantization matrix; converting said DCT data into YUV data by multiplying a plurality of subsets of said DCT data having k points by a factored transform matrix F k t wherein: A.sub.k.sup.-1 =F.sub.k.sup.-1 D.sub.k.sup.-1 ; A k -1 is a transform matrix for converting subsets of DCT data into YUV data; and D k -1 is a k×k diagonal matrix; converting said YUV data into RGB form data; and applying said RGB data to a display to generate said image.
Claim 20
Independent Claim
135 words
A method for generating an image, comprising: sensing signals representing said image from a data channel; decoding said sensed signals into DCT form data; absorbing a diagonal matrix D k -1 into a matrix having elements η ij to form a dequantization matrix having elements η ij ; dequantizing said DCT form data with said dequantization matrix; converting said DCT data into YUV data by multiplying a plurality of subsets of said DCT data having k points by a factored transform matrix F k t wherein: A.sub.k.sup.-1 =F.sub.k.sup.-1 D.sub.k.sup.-1 ; A k -1 is a transform matrix for converting subsets of DCT data into YUV data; and D k -1 is a k×k diagonal matrix; converting said YUV data into RGB form data; and applying said RGB data to a display to generate said image.
Claim 21
Dependent Claim
40 words
A method for generating an image, as in claim 16, wherein: D k -1 is the k×k diagonal matrix in which the jj-th element is an inverse of a first entry in a j-th row of A k -1 .
Claim 22
Dependent Claim
36 words
A method for generating an image, as in claim 16, wherein: a (jk+i)-th element of D k -1 ○ × D k -1 is absorbed to form said dequantization matrix, wherein ○ × is tensor multiplication.
Claim 23
Dependent Claim
22 words
A method for generating an image, as in claim 18, wherein: non-rational elements of F k -1 are approximated by rational elements.
Claim 24
Dependent Claim
26 words
A method for generating an image, as in claim 19, wherein: a function of multiplying by a rational number is implemented by shift and add operations.
Claim 25
Independent Claim
160 words
A method for generating an image, comprising: sensing signals representing said image from a data channel; decoding said sensed signals into DCT form data; absorbing a diagonal matrix D k into a matrix having elements η ij to form a dequantization matrix having elements η ij ; dequantizing said DCT form data with said dequantization matrix; converting said DCT data into YUV data by multiplying a plurality of subsets of said DCT data having k 2 points by a factored transform matrix F k t ○ × F k t , wherein: A.sub.k.sup.-1 ○ × A.sub.k.sup.-1 =(F.sub.k.sup.t ○ × F.sub.k.sup.t)(D.sub.k ○ × D.sub.k); A k -1 ○ × A k -1 is a transform matrix for converting subsets of DCT data into YUV data; and D k ○ × D k is a k 2 ×k 2 diagonal matrix; converting said YUV data into RGB form data; and applying said RGB form data to a display to generate said image.
Claim 26
Independent Claim
160 words
A method for generating an image, comprising: sensing signals representing said image from a data channel; decoding said sensed signals into DCT form data; absorbing a diagonal matrix D k into a matrix having elements η ij to form a dequantization matrix having elements η ij ; dequantizing said DCT form data with said dequantization matrix; converting said DCT data into YUV data by multiplying a plurality of subsets of said DCT data having k 2 points by a factored transform matrix F k t ○ × F k t , wherein: A.sub.k.sup.-1 ○ × A.sub.k.sup.-1 =(F.sub.k.sup.t ○ × F.sub.k.sup.t)(D.sub.k ○ × D.sub.k); A k -1 ○ × A k -1 is a transform matrix for converting subsets of DCT data into YUV data; and D k ○ × D k is a k 2 ×k 2 diagonal matrix; converting said YUV data into RGB form data; and applying said RGB form data to a display to generate said image.
Claim 27
Dependent Claim
51 words
A method for generating an image, as in claim 21, wherein: D k ○ × D k is the k 2 ×k 2 diagonal matrix in which the jj-th element is an inverse of a first entry in a j-th row of A k -1 ○ × A k -1 -k.
Claim 28
Dependent Claim
28 words
A method for generating an image, as in claim 21, wherein: a (jk+i)-th element of D k ○ × D k is absorbed to form said dequantization matrix.
Claim 29
Dependent Claim
27 words
A method for generating an image, as in claim 23, wherein: non-rational elements of F k t ○ × F k t are approximated by rational elements.
Claim 30
Dependent Claim
26 words
A method for generating an image, as in claim 24, wherein: a function of multiplying by a rational number is implemented by shift and add operations.
Claim 31
Independent Claim
161 words
A method for generating an image, comprising: sensing signals representing said image from a data channel; decoding said sensed signals into DCT form data; absorbing a diagonal matrix D k -1 into a matrix having elements η ij to form a dequantization matrix having elements η ij ; dequantizing said DCT form data with said dequantization matrix; converting said DCT data into YUV data by multiplying a plurality of subsets of said DCT data having k 2 points by a factored transform matrix F k -1 ○ × F k -1 wherein: A.sub.k.sup.-1 ○ × A.sub.k.sup.-1 =(F.sub.k.sup.-1 ○ × F.sub.k.sup.-1)(D.sub.k.sup.-1 ○ × D.sub.k.sup.-1); A k -1 ○ × A k -1 is a transform matrix for converting subsets of DCT data into YUV data; and D k -1 ○ × D k -1 is a k 2 ×k 2 diagonal matrix; converting said YUV data into RGB form data; and applying said RGB data to a display to generate said image.
Claim 32
Independent Claim
161 words
A method for generating an image, comprising: sensing signals representing said image from a data channel; decoding said sensed signals into DCT form data; absorbing a diagonal matrix D k -1 into a matrix having elements η ij to form a dequantization matrix having elements η ij ; dequantizing said DCT form data with said dequantization matrix; converting said DCT data into YUV data by multiplying a plurality of subsets of said DCT data having k 2 points by a factored transform matrix F k -1 ○ × F k -1 wherein: A.sub.k.sup.-1 ○ × A.sub.k.sup.-1 =(F.sub.k.sup.-1 ○ × F.sub.k.sup.-1)(D.sub.k.sup.-1 ○ × D.sub.k.sup.-1); A k -1 ○ × A k -1 is a transform matrix for converting subsets of DCT data into YUV data; and D k -1 ○ × D k -1 is a k 2 ×k 2 diagonal matrix; converting said YUV data into RGB form data; and applying said RGB data to a display to generate said image.
Claim 33
Dependent Claim
53 words
A method for generating an image, as in claim 26, wherein: D k -1 ○ × D k -1 is the k 2 ×k 2 diagonal matrix in which the jj-th element is an inverse of a first entry in a j-th row of A k -1 ○ × A k -1 .
Claim 34
Dependent Claim
30 words
A method for generating an image, as in claim 26, wherein: a (jk+i)-th element of D k -1 ○ × D k -1 is absorbed to form said dequantization matrix.
Claim 35
Dependent Claim
27 words
A method for generating an image, as in claim 28, wherein: non-rational elements of F k -1 ○ × F k -1 are approximated by rational elements.
Claim 36
Dependent Claim
26 words
A method for generating an image, as in claim 29, wherein: a function of multiplying by a rational number is implemented by shift and add operations.
Claim 37
Dependent Claim
178 words
An image transmitter, comprising: an RGB data generator for representing an image with RGB form data; an RGB to YUV transformer coupled to said RGB data generator for converting said RGB form data into YUV form data; a YUV to DCT transformer coupled to said RGB to YUV transformer for converting said YUV data into DCT form data by multiplying a factored transform matrix F k by a plurality of subsets of said YUV data having k points wherein: A.sub.k =D.sub.k F.sub.k ; A k is a transform matrix for converting subsets of YUV data into DCT data; and D k is a k×k diagonal matrix; a quantization means coupled to said YUV to DCT transformer for quantizing said DCT data with a quantization matrix having elements η ij and generated by absorbing D k into a matrix having elements η ij ; and a driver means coupled to said quantization means and a data channel for converting said quantized DCT data into signals for transmission over said data channel and applying said signals to said data channel.
Claim 38
Dependent Claim
178 words
An image transmitter, comprising: an RGB data generator for representing an image with RGB form data; an RGB to YUV transformer coupled to said RGB data generator for converting said RGB form data into YUV form data; a YUV to DCT transformer coupled to said RGB to YUV transformer for converting said YUV data into DCT form data by multiplying a factored transform matrix F k by a plurality of subsets of said YUV data having k points wherein: A.sub.k =D.sub.k F.sub.k ; A k is a transform matrix for converting subsets of YUV data into DCT data; and D k is a k×k diagonal matrix; a quantization means coupled to said YUV to DCT transformer for quantizing said DCT data with a quantization matrix having elements η ij and generated by absorbing D k into a matrix having elements η ij ; and a driver means coupled to said quantization means and a data channel for converting said quantized DCT data into signals for transmission over said data channel and applying said signals to said data channel.
Claim 39
Dependent Claim
193 words
A image receiver, comprising: a sensor for sensing coded data from a data channel; a decoder coupled to said sensor for decoding data sensed from said data channel into DCT form data; a dequantizer coupled to said decoder for quantizing said DCT form data from said decoder with a dequantization matrix, said dequantization matrix formed by absorbing a diagonal matrix D k into a matrix having elements η ij to form said dequantization matrix having element η ij , a DCT to YUV transformer coupled to said dequantizer for converting dequantized DCT data from said dequantizer into YUV form data by multiplying a factored transform matrix F k t by a plurality of subsets of said dequantized DCT data having k points wherein: A.sub.k.sup.-1 =D.sub.k F.sub.k.sup.t ; A k -1 is a transform matrix for converting subsets of DCT data into YUV data; and D k is a k×k diagonal matrix; a YUV to RGB transformer coupled to said DCT to YUV transformer for conveying YUV data from said DCT to YUV transformer into RGB form data; and a driver for applying said RGB form data to a display to generate said image.
Claim 40
Dependent Claim
193 words
A image receiver, comprising: a sensor for sensing coded data from a data channel; a decoder coupled to said sensor for decoding data sensed from said data channel into DCT form data; a dequantizer coupled to said decoder for quantizing said DCT form data from said decoder with a dequantization matrix, said dequantization matrix formed by absorbing a diagonal matrix D k into a matrix having elements η ij to form said dequantization matrix having element η ij , a DCT to YUV transformer coupled to said dequantizer for converting dequantized DCT data from said dequantizer into YUV form data by multiplying a factored transform matrix F k t by a plurality of subsets of said dequantized DCT data having k points wherein: A.sub.k.sup.-1 =D.sub.k F.sub.k.sup.t ; A k -1 is a transform matrix for converting subsets of DCT data into YUV data; and D k is a k×k diagonal matrix; a YUV to RGB transformer coupled to said DCT to YUV transformer for conveying YUV data from said DCT to YUV transformer into RGB form data; and a driver for applying said RGB form data to a display to generate said image.