Data storage device with variable containers for logic blocks

1. A data storage device, comprising:

one or more disks;

a write mechanism configured to write data to disk surfaces of the one or more disks; and

one or more processing devices configured to:

encode, based on a distributed sector encoding scheme, data into a plurality of logic blocks of data, wherein the logic blocks of data comprise the data to be written being interleaved across a plurality of sectors;

assign at least some of the logic blocks of data to a plurality of containers of two or more container sizes, the container sizes comprising a relatively larger container size and a relatively smaller container size; and

output a write signal to the write mechanism to write the at least some of the logic blocks of data in accordance with the assigning of the at least some of the logic blocks of data to the plurality of containers.

2. The data storage device of claim 1 , wherein the assigning of the at least some of the logic blocks to the plurality of containers is further based at least in part on criteria that comprise:

one or more advantages of the relatively larger container size; and

one or more advantages of the relatively smaller container size.

3. The data storage device of claim 2 , wherein the one or more advantages of the relatively larger container size, relative to the relatively smaller container size, comprise at least one of:

relatively higher averaging of variation in track misregistration (TMR);

relatively higher averaging of averaging signal-to-noise ratio (SNR);

relatively higher diluting of impact of defects in the disk surfaces across the logic blocks;

relatively higher density of data tracks per width;

distributing distributed sectors across a relatively larger number of the logic blocks of data; and

distributing distributed sectors across a relatively larger number of data tracks,

and wherein the one or more advantages of the relatively smaller container size, relative to the relatively larger container size, comprises at least relatively higher correction capability.

4. The data storage device of claim 1 , wherein the assigning of the at least some of the logic blocks to the plurality of containers is further based at least in part on criteria that comprise:

weighting the containers toward the relatively larger container size.

5. The data storage device of claim 1 , wherein the assigning of the at least some of the logic blocks to the plurality of containers is further based at least in part on criteria that comprise:

weighting the containers toward the relatively smaller container size.

6. The data storage device of claim 1 , wherein the assigning of the at least some of the logic blocks to the plurality of containers is further based at least in part on criteria that comprise:

balancing the containers between the relatively larger container size and the relatively smaller container size.

7. The data storage device of claim 1 , wherein the assigning of the at least some of the logic blocks to the plurality of containers is further based at least in part on criteria that comprise:

fitting an integer number of the containers to an available track on the disk surfaces.

8. The data storage device of claim 1 , wherein the assigning of the at least some of the logic blocks to the plurality of containers is further based at least in part on criteria that comprise:

left-justifying containers of the relatively larger container size.

9. The data storage device of claim 1 , wherein the assigning of the at least some of the logic blocks to the plurality of containers is further based at least in part on criteria that comprise:

left-justifying containers of the relatively smaller container size.

10. The data storage device of claim 1 , wherein the assigning of the at least some of the logic blocks to the plurality of containers is further based at least in part on criteria that comprise:

balancing a distribution of containers of the relatively larger container size and of the relatively smaller container size within the plurality of containers.

11. The data storage device of claim 1 , wherein at least one of the containers further comprises parity data, and wherein the assigning of the at least some of the logic blocks to the plurality of containers is further based at least in part on criteria that comprise:

right-justifying the container that comprises the parity data.

12. The data storage device of claim 1 , wherein the assigning of the at least some of the logic blocks to the plurality of containers further comprises:

assigning one or more of the logic blocks to a container span that comprises a plurality of the containers, wherein each of the containers comprised in the container span is of the same size as the others of the containers comprised in the container span.

13. The data storage device of claim 1 , wherein the assigning of the at least some of the logic blocks to the plurality of containers further comprises:

assigning the logic blocks to two or more sub-tracks within the plurality of containers.

14. The data storage device of claim 13 , wherein the assigning of the at least some of the logic blocks to the plurality of containers further comprises:

weighting the logic blocks within at least one of the sub-tracks.

15. The data storage device of claim 13 , wherein the assigning of the at least some of the logic blocks to the plurality of containers further comprises:

justifying the logic blocks within at least one of the sub-tracks.

16. The data storage device of claim 1 , wherein the plurality of containers contains all of the logic blocks of data from the encoding the data into the plurality of logic blocks of data, in a one-to-one relationship between the containers and distributed sectors in accordance with the distributed sector encoding scheme.

17. A method comprising:

encoding, by one or more processing devices, based on a distributed sector encoding scheme, data into a plurality of logic blocks of data, wherein the logic blocks of data comprise the data to be written being interleaved across a plurality of sectors;

assigning, by one or more processing devices, at least some of the logic blocks of data to a plurality of containers of two or more container sizes, the container sizes comprising a relatively larger container size and a relatively smaller container size; and

outputting, by the one or more processing devices, a write signal to a write mechanism configured to write data to disk surfaces of one or more disks of a data storage device, to write the at least some of the logic blocks of data in accordance with the assigning of the at least some of the logic blocks of data to the plurality of containers.

18. The method of claim 17 , wherein the assigning of the at least some of the logic blocks of data to the plurality of containers is further based at least in part on criteria that comprise:

one or more advantages of the relatively larger container size; and

one or more advantages of the relatively smaller container size,

wherein the one or more advantages of the relatively larger container size, relative to the relatively smaller container size, comprise at least one of:

relatively higher averaging of variation in track misregistration (TMR);

relatively higher averaging of averaging signal-to-noise ratio (SNR);

relatively higher diluting of impact of defects in the disk surfaces across the logic blocks of data;

relatively higher density of data tracks per width;

distributing distributed sectors across a relatively larger number of the logic blocks; and

distributing distributed sectors across a relatively larger number of data tracks,

and wherein the one or more advantages of the relatively smaller container size, relative to the relatively larger container size, comprises at least relatively higher correction capability.

19. One or more processing devices comprising:

means for encoding, based on a distributed sector encoding scheme, data into a plurality of logic blocks of data, wherein the logic blocks of data comprise the data to be written being interleaved across a plurality of sectors;

means for assigning at least some of the logic blocks of data to a plurality of containers of two or more container sizes, the container sizes comprising a relatively larger container size and a relatively smaller container size; and

means for outputting a write signal to a write mechanism configured to write data to disk surfaces of one or more disks of a data storage device, to write the at least some of the logic blocks of data in accordance with the assigning of the at least some of the logic blocks of data to the plurality of containers.

20. The one or more processing devices of claim 19 , wherein the means for assigning the at least some of the logic blocks of data to the plurality of containers is further based at least in part on criteria that comprise:

one or more advantages of the relatively larger container size; and

one or more advantages of the relatively smaller container size,

wherein the one or more advantages of the relatively larger container size, relative to the relatively smaller container size, comprise at least one of:

relatively higher averaging of variation in track misregistration (TMR);

relatively higher averaging of averaging signal-to-noise ratio (SNR);

relatively higher diluting of impact of defects in the disk surfaces across the logic blocks of data;

relatively higher density of data tracks per width;

distributing distributed sectors across a relatively larger number of the logic blocks; and

distributing distributed sectors across a relatively larger number of data tracks,

and wherein the one or more advantages of the relatively smaller container size, relative to the relatively larger container size, comprise at least relatively higher correction capability.