1. A method for breeding sesame plants to result in improved non-dehiscent sesame lines, comprising:
crossing a plurality of sesame plants in a series of successive crosses, at least one of said plurality exhibiting a CAPSULE SPLIT rating of 1 to 3, at least one of said plurality exhibiting a CAPSULE OPENING rating of 5 to less than 8, at least one of said plurality exhibiting a CAPSULE MEMBRANE COMPLETENESS rating of 5 to 8, at least one of said plurality exhibiting a CAPSULE CONSTRICTION rating from 3 to 6, at least one of said plurality exhibiting a CAPSULE MEMBRANE ATTACHMENT rating from 4 to 8, and at least one of said plurality exhibiting a CAPSULE PLACENTA ATTACHMENT rating from 4 to 8; and
screening progeny of any one of a series of successive crosses for non-dehiscent characteristics including greater than or equal to 85% of the capsules retaining essentially all of their seed in unharvested capsules four weeks after the ideal harvest time, seed is visible in 85% or more of the capsules four weeks after the ideal harvest time, less than or equal to 10% of the total amount of sesame seed is retained in mechanically harvested capsules, and less than or equal to 7% of the total amount of sesame seed released from capsules is broken during mechanical harvesting.
2. The method of claim 1, wherein said CAPSULE SPLIT rating is 1, said CAPSULE OPENING rating is 7, said CAPSULE MEMBRANE COMPLETENESS is 7, said CAPSULE CONSTRICTION is 4 to 5, said CAPSULE MEMBRANE ATTACHMENT rating is from 5 to 8, and said CAPSULE PLACENTA ATTACHMENT rating is from 7 to 8.
3. The method of claim 1, wherein at least one of said plurality exhibits non-dehiscence.
4. The method of claim 1, wherein said ratings for said CAPSULE SPLIT, said CAPSULE OPENING, said CAPSULE MEMBRANE COMPLETENESS, said CAPSULE CONSTRICTION, said CAPSULE MEMBRANE ATTACHMENT, and said CAPSULE PLACENTA ATTACHMENT are taken 4 weeks post ready for combining.
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 method of processing an audio signal by a decoder operated by a central processing unit, the method comprising:
receiving, by the decoder, the audio signal having configuration information and at least one channel subdivided into a plurality of blocks according to a subdivision hierarchy, the subdivision hierarchy having more than one level, each level being associated with a different block length, and lengths of at least two of the plurality of blocks for each level being able to be different;
reading, by the decoder, an indicator from the configuration information indicating whether or not channel mapping information is included in the configuration information,
reading, by the decoder, the channel mapping information from the configuration information if the indicator indicates that the channel mapping information is included in the configuration information, the channel mapping information indicating to which speaker in a reproduction device to map each channel in the audio signal;
reading, by the decoder, channel rearrangement information from the configuration information, the channel rearrangement information indicating the rearrangement of multi-channels;
reading, by the decoder, subdivision information indicating the subdivision of the at least one channel into the plurality of blocks if the at least one channel has been subdivided;
obtaining, by the decoder, an optimum prediction order for each block in the at least one channel;
predicting, by the decoder, current data samples in the at least one channel based on the optimum prediction order;
obtaining, by the decoder, a residual of the current data samples from the audio signal;
decoding, by the decoder, the multi-channels based on the channel mapping information, the channel rearrangement information, and the residual of the current data samples,
wherein a length of the subdivision information depends on a number of levels in the subdivision hierarchy,
wherein the optimum prediction order indicates a minimum one of a global prediction order and a local prediction order, the global prediction order having been determined based on a maximum permitted prediction order, the local prediction order having been determined based on a length of the block.
2. The method of claim 1, further comprising:
reading, by the decoder, channel number information from the configuration information, the channel number information indicating a number of channels in the multi-channels.
3. The method of claim 2, wherein the channel rearrangement information includes rearranged position information for each channel.
4. The method of claim 1, wherein the channel mapping information includes a plurality of bits, and each bit is associated with a speaker and indicates whether a channel exists in the audio signal for the associated speaker.
5. A method of processing an audio signal by an encoder operated by a central processing unit, the audio signal having configuration information and at least one channel, the method comprising:
subdividing, by the encoder, the at least one channel in a frame of the audio signal into a plurality of blocks according to a subdivision hierarchy, the subdivision hierarchy having more than one level, each level being associated with a different block length, and lengths of at least two of the plurality of blocks for each level being able to be different;
adding, by the encoder, subdivision information to configuration indication of the audio signal, the subdivision information indicating the subdivision of the at least one channel into the plurality of blocks if the subdividing step as been performed;
adding, by the encoder, an indicator and channel mapping information to configuration information of the audio signal, wherein the indicator indicates whether or not the channel mapping information is included in the configuration information, and the channel mapping information indicates to which speaker in a reproduction device to map each channel in the audio signal if the indicator indicates that the channel mapping information is included in the configuration information;
adding, by the encoder, channel rearrangement information to the configuration information, the channel rearrangement information indicating the rearrangement of the multi-channels;
adding, by the encoder, an optimum prediction order for each block to a block data of the audio signal based on a maximum permitted prediction order and a length of the block;
predicting, by the encoder, current data samples in the at least one channel based on previous data samples, a number of the previous data samples used in the predicting step being the optimum prediction order; and
adding, by the encoder, a residual of the current data samples to the block data based on the predicted data samples,
wherein a length of the subdivision information depends on a number of levels in the subdivision hierarchy,
wherein the step of adding the optimum prediction order includes,
determining, by the encoder, a global prediction order based on the maximum permitted prediction order;
determining, by the encoder, a local prediction order based on the length of the block;
selecting, by the encoder, a minimum one of the global prediction order and the local prediction order as the optimum prediction order.
6. The method of claim 5, further comprising:
adding, by the encoder, channel number information from the configuration information, the channel number information indicating a number of channels in the multi-channels.
7. The method of claim 6, wherein the channel rearrangement information includes rearranged position information for each channel.
8. The method of claim 5, wherein the channel mapping information includes a plurality of bits, and each bit is associated with a speaker and indicates whether a channel exists in the audio signal for the associated speaker.
9. An apparatus for processing an audio signal, comprising:
a central processing unit configured to operate a decoder,
the decoder configured to receive the audio signal having configuration information and at least one channel subdivided into a plurality of blocks according to a subdivision hierarchy, the subdivision hierarchy having more than one level, each level being associated with a different block length, and lengths of at least two of the plurality of blocks for each level being able to be different;
the decoder configured to read an indicator from the configuration information indicating whether or not channel mapping information is included in the configuration information, and read the channel mapping information from the configuration information if the indicator indicates that the channel mapping information is included in the configuration information, the channel mapping information indicating to which speaker in the apparatus to map each channel in the audio signal,
the decoder configured to read channel rearrangement information from the configuration information, the channel rearrangement information indicating the rearrangement of multi-channels,
the decoder configured to read subdivision information from the configuration information, the subdivision information indicating the subdivision of the at least one channel into the plurality of blocks if the at least one channel has been subdivided,
the decoder configured to obtain an optimum prediction order for each block in the at least one channel and to predict current data samples in the at least one channel based on the optimum prediction order, and the decoder configured to obtain a residual of the current data samples based on the predicted data samples, and
the decoder further configured to decode the multi-channels based on the channel mapping information, the subdivision information, the channel rearrangement information, and the residual of the current data samples, wherein a length of the subdivision information depends on a number of levels in the subdivision hierarchy, wherein the optimum prediction order indicates a minimum one of a global prediction order and a local prediction order, the global prediction order having been determined based on a maximum permitted prediction order, the local prediction order having been determined based on a length of the block.
10. The apparatus of claim 9, the decoder further configured to read channel number information from the configuration information, the channel number information indicating a number of channels in the audio signal.
11. The apparatus of claim 9, wherein the channel rearrangement information includes rearranged position information for each channel.
12. The apparatus of claim 9, wherein the channel mapping information includes a plurality of bits, and each bit is associated with a speaker and indicates whether a channel exists in the audio signal for the associated speaker.
13. An apparatus for processing an audio signal, the audio signal having configuration information and at least one channel, comprising:
a central processing unit configured to operate an encoder,
the\u2014encoder configured to subdivide the at least one channel in a frame of the audio signal into a plurality of blocks according to a subdivision hierarchy, the subdivision hierarchy having more than one level, each level being associated with a different block length, and lengths of at least two of the plurality of blocks in the at least one channel for each level being able to be different,
the encoder configured to add subdivision information to the configuration information, the subdivision information indicating the subdivision of the at least one channel into the plurality of blocks if the at least one channel has been subdivided,
the encoder configured to add an indicator to the configuration information indicating whether or not channel mapping information is included in the configuration information,
the encoder configured to add the channel mapping information to the configuration information if the indicator indicates that the channel mapping information is included in the configuration information, the channel mapping information indicating to which speaker in a reproduction device to map each channel in the audio signal,
the encoder configured to add channel rearrangement information to the configuration information, the channel rearrangement information indicating the rearrangement of multi-channels;
the encoder configured to determine a global prediction order based on a maximum permitted prediction order and to determine a local prediction order based on a length of the block and to add a minimum one of the global prediction order and the local prediction order as an optimum prediction order for each block to a block data of the audio signal based on the global prediction order and the local prediction order, and
the encoder configured to predict current data samples in the channel based on previous data samples, a number of the previous data samples being the optimum prediction order, and the encoder configured to add a residual of the current data samples to the block data based on the predicted data samples, wherein a length of the subdivision information depends on a number of levels in the subdivision hierarchy.
14. The apparatus of claim 13, the encoder further configured to add channel number information to the configuration information, the channel number information indicating a number of channels in the audio signal.
15. The apparatus of claim 13, wherein the channel rearrangement information includes rearranged position information for each channel.
16. The apparatus of claim 13, wherein the channel mapping information includes a plurality of bits, and each bit is associated with a speaker and indicates whether a channel exists in the audio signal for the associated speaker.