Notice of Pre-AIA or AIA Status
The present application, filed on or after March 16, 2013, is being examined under the first inventor to file provisions of the AIA .
Double Patenting
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Claims 1-2 rejected on the ground of nonstatutory double patenting as being unpatentable over claims 1-2 of U.S. Patent No. 11849139 in view of Xiu et al. US 2020/0045336 and Lee US 2020/0169744
Current
11849139
1. An encoder, comprising: memory; and a processor connected to the memory and configured to: generate a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and perform a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein, in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, (iii) the deblocking filter determined to be applied is the first deblocking filter,
and (iv) the sub-block prediction mode is equal to affine mode, and(v) the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode.
2. A decoder, comprising: memory; and a processor connected to the memory and configured to: generate a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and perform a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, (iii) the deblocking filter determined to be applied is the first deblocking filter,
and (iv) the sub-block prediction mode is equal to affine mode, and(v) the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode.
1. An encoder comprising: memory; and a processor connected to the memory and configured to: generate a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and perform a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein, in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, and (iii) the deblocking filter determined to be applied is the first deblocking filter.
2. A decoder comprising: memory; and a processor connected to the memory and configured to: generate a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and perform a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, and (iii) the deblocking filter determined to be applied is the first deblocking filter.
While the patent doesn’t explicitly disclose the following, however Xiu teaches (iv) the sub-block prediction mode is equal to affine mode (0095)
Therefore, it would have been obvious to a person having ordinary skill before the effective filing date to modify the reference(s) as above in order so The coding mode(s) may be used to derive motion information at a sub-block level (Xiu 0095)
Lee teaches the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode (0050-3, 0057-9).
Therefore, it would have been obvious to a person having ordinary skill before the effective filing date to modify the reference(s) as above including equating the device to the methods in order to checking whether the AF mode is applied to the current block, the AF mode representing a motion prediction mode using an affine motion model (Lee 0050)
Claims 1-3 rejected on the ground of nonstatutory double patenting as being unpatentable over claims 1-3 of U.S. Patent No. 12219169 in view of Xiu et al. US 2020/0045336 and Lee US 2020/0169744
Current
12219169
1. An encoder, comprising: memory; and a processor connected to the memory and configured to: generate a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and perform a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein, in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, (iii) the deblocking filter determined to be applied is the first deblocking filter,
and (iv) the sub-block prediction mode is equal to affine mode, and(v) the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode.
2. A decoder, comprising: memory; and a processor connected to the memory and configured to: generate a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and perform a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, (iii) the deblocking filter determined to be applied is the first deblocking filter,
and (iv) the sub-block prediction mode is equal to affine mode, and(v) the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode.
3. An apparatus generating a bitstream to cause a computer to perform a decoding process including:
generating a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and performing a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, (iii) the deblocking filter determined to be applied is the first deblocking filter,
and (iv) the sub-block prediction mode is equal to affine mode, and(v) the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode.
1. An encoding method, comprising:
generating a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and performing a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein, in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, and (iii) the deblocking filter determined to be applied is the first deblocking filter.
2. A decoding method, comprising: generating a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and performing a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, and (iii) the deblocking filter determined to be applied is the first deblocking filter.
3. A non-transitory computer readable medium storing a bitstream, the bitstream comprising decoding information that causes a decoder to execute a decoding process, the decoding process comprising:
generating a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and performing a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, and (iii) the deblocking filter determined to be applied is the first deblocking filter.
While the patent doesn’t explicitly disclose the following, however Xiu teaches (iv) the sub-block prediction mode is equal to affine mode (0095)
Therefore, it would have been obvious to a person having ordinary skill before the effective filing date to modify the reference(s) as above including equating the device to the methods in order so The coding mode(s) may be used to derive motion information at a sub-block level (Xiu 0095)
Lee teaches the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode (0050-3, 0057-9).
Therefore, it would have been obvious to a person having ordinary skill before the effective filing date to modify the reference(s) as above including equating the device to the methods in order to checking whether the AF mode is applied to the current block, the AF mode representing a motion prediction mode using an affine motion model (Lee 0050)
Claims 1-3 provisionally rejected on the ground of nonstatutory double patenting as being unpatentable over claim 1-3 of copending Application No. 19002390 in view of Lee US 2020/0169744.
Current
19002390
1. An encoder comprising: memory; and a processor connected to the memory and configured to:generate a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; andperform a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein, in response to the block prediction mode being selected, the determination process includes:determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; andselecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; andin response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein,(i) each sub-block has a size of 4 by 4 pixels,(ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position,(iii) the deblocking filter determined to be applied is the first deblocking filter,(iv) the sub-block prediction mode is equal to affine mode, and (v) the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode.
2. A decoder comprising: memory; and a processor connected to the memory and configured to:generate a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; andperform a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein in response to the block prediction mode being selected, the determination process includes:determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; andselecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; andin response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein,(i) each sub-block has a size of 4 by 4 pixels,(ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position,(iii) the deblocking filter determined to be applied is the first deblocking filter,(iv) the sub-block prediction mode is equal to affine mode, and (v) the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode.
3. A apparatus generating a bitstream to cause a computer to perform a decoding process including: generating a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and performing a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein in response to the block prediction mode being selected, the determination process includes:determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; andselecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein,(i) each sub-block has a size of 4 by 4 pixels,(ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position,(iii) the deblocking filter determined to be applied is the first deblocking filter,(iv) the sub-block prediction mode is equal to affine mode, and (v) the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode.
1. An encoder, comprising: memory; and a processor connected to the memory and configured to: generate a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and perform a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein, in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, (iii) the deblocking filter determined to be applied is the first deblocking filter, and (iv) the sub-block prediction mode is equal to affine mode.
2. A decoder, comprising: memory; and a processor connected to the memory and configured to: generate a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and perform a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, (iii) the deblocking filter determined to be applied is the first deblocking filter, and (iv) the sub-block prediction mode is equal to affine mode.
3. An apparatus generating a bitstream to cause a computer to perform a decoding process including: generating a reconstructed image based on a prediction mode selected from candidate prediction modes, the candidate prediction modes including a block prediction mode and a sub-block prediction mode; and performing a determination process on each boundary having a pixel position of 4n, where n is an integer, wherein in response to the block prediction mode being selected, the determination process includes: determining whether to apply a deblocking filter to each block boundary between a corresponding pair of adjacent blocks in the reconstructed image; and selecting, for each block boundary, a first deblocking filter or a second deblocking filter different from the first deblocking filter; and in response to the sub-block prediction mode being selected, the determination process includes determining whether to apply a deblocking filter to each sub-block boundary between a corresponding pair of adjacent sub-blocks among the sub-blocks in the block, wherein, (i) each sub-block has a size of 4 by 4 pixels, (ii) the deblocking filter is determined to be applied only to sub-block boundaries having an 8n-th pixel position, (iii) the deblocking filter determined to be applied is the first deblocking filter, and (iv) the sub-block prediction mode is equal to affine mode.
While the application doesn’t explicitly disclose the following, however Lee teaches the circuitry, in operation, generates a bitstream, the bitstream including a flag indicating the affine mode (0050-3, 0057-9).
Therefore, it would have been obvious to a person having ordinary skill before the effective filing date to modify the reference(s) as above including equating the device to the methods in order to checking whether the AF mode is applied to the current block, the AF mode representing a motion prediction mode using an affine motion model (Lee 0050)
This is a provisional nonstatutory double patenting rejection.
Conclusion
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/JOSEPH W BECKER/Examiner, Art Unit 2483
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