Granted Patent B2

US 12,272,106 · App. 18/180,066 · Granted Apr 8, 2025

Inventors: Shuri Liao (Shenzhen, CN); Shengyue Dou (Shenzhen, CN); Huiying Zhu (Shenzhen, CN); Pengpeng Dong (Shenzhen, CN); Zijie Xu (Shenzhen, CN)

Assignee: HUAWEI TECHNOLOGIES CO., LTD.

G06T9/00H04N19/46

Abstract

Claims (37)

1. A coding method, comprising:

obtaining T1 first to-be-coded data units and T2 second to-be-coded data units, T1 and T2 being integers greater than or equal to 1;

coding the T1 first to-be-coded data units and the T2 second to-be-coded data units based on at least one of an extended reality data type corresponding to the T1 first to-be-coded data units or an extended reality data type corresponding to the T2 second to-be-coded data units, to obtain K coded data units, K being an integer greater than or equal to T1+T2; and

outputting the K coded data units, wherein:

coding the T1 first to-be-coded data units and the T2 second to-be-coded data units comprises:

obtaining a coding matrix based on the least one of the extended reality data type corresponding to the T1 first to-be-coded data units or the extended reality data type corresponding to the T2 second to-be-coded data units; and

coding the T1 first to-be-coded data units and the T2 second to-be-coded data units based on the coding matrix;

the coding matrix comprises a coding submatrix comprising T1 first coding vectors and T2 second coding vectors, the T1 first coding vectors respectively corresponding to the T1 first to-be-coded data units and the T2 second coding vectors respectively corresponding to the T2 second to-be-coded data units; and

the quantity of non-zero coefficients included in the any one of the T2 second coding vectors is less than a coding depth M, the coding depth being a maximum value of a quantity of to-be-coded data units that participate in coding when one coded data unit is obtained, M being an integer greater than 0 and less than or equal to T1+T2.

2. The method according to claim 1 , wherein a quantity of non-zero coefficients included in one of the T1 first coding vectors is greater than a quantity of non-zero coefficients included in one of the T2 second coding vectors.

3. The method according to claim 1 , wherein a quantity of non-zero coefficients included in any one of the T1 first coding vectors is greater than a quantity of non-zero coefficients included in any one of the T2 second coding vectors.

4. The method according to claim 1 , wherein the extended reality data type corresponding to the T1 first to-be-coded data units comprise at least one of extended reality base layer data or extended reality in-field of view data, and the extended reality data type corresponding to the T2 second to-be-coded data units comprise at least one of extended reality enhancement layer data or extended reality out-of-field of view data.

5. An apparatus, comprising:

one or more processors; and

a memory having instructions stored thereon that, when executed by the one or more processors, cause the apparatus to:

obtain T1 first to-be-coded data units and T2 second to-be-coded data units, T1 and T2 being integers greater than or equal to 1;

code the T1 first to-be-coded data units and the T2 second to-be-coded data units based on at least one of an extended reality data type corresponding to the T1 first to-be-coded data units or an extended reality data type corresponding to the T2 second to-be-coded data units, to obtain K coded data units, K being an integer greater than or equal to T1+T2; and

output the K coded data units, wherein:

coding the T1 first to-be-coded data units and the T2 second to-be-coded data units comprises causing the apparatus to:

obtain a coding matrix based on the least one of the extended reality data type corresponding to the T1 first to-be-coded data units or the extended reality data type corresponding to the T2 second to-be-coded data units; and

code the T1 first to-be-coded data units and the T2 second to-be-coded data units based on the coding matrix;

the coding matrix comprises a coding submatrix comprising T1 first coding vectors and T2 second coding vectors, the T1 first coding vectors respectively corresponding to the T1 first to-be-coded data units and the T2 second coding vectors respectively corresponding to the T2 second to-be-coded data units; and

the quantity of non-zero coefficients included in the any one of the T2 second coding vectors is less than a coding depth M, the coding depth being a maximum value of a quantity of to-be-coded data units that participate in coding when one coded data unit is obtained, M being an integer greater than 0 and less than or equal to T1+T2.

6. The apparatus according to claim 5 , wherein a quantity of non-zero coefficients included in one of the T1 first coding vectors is greater than a quantity of non-zero coefficients included in one of the T2 second coding vectors.

7. The apparatus according to claim 5 , wherein a quantity of non-zero coefficients included in any one of the T1 first coding vectors is greater than a quantity of non-zero coefficients included in any one of the T2 second coding vectors.

8. The apparatus according to claim 5 , wherein the extended reality data type corresponding to the T1 first to-be-coded data units comprise at least one of extended reality base layer data or extended reality in-field of view data, and the extended reality data type corresponding to the T2 second to-be-coded data units comprise at least one of extended reality enhancement layer data or extended reality out-of-field of view data.

9. A non-transitory computer readable medium storing instructions that are executable by a first communication apparatus having at least one processor, the instructions upon execution by the at least one processor causing the first communication apparatus to:

obtain T1 first to-be-coded data units and T2 second to-be-coded data units, wherein T1 and T2 are integers greater than or equal to 1;

code the T1 first to-be-coded data units and the T2 second to-be-coded data units based on at least one of an extended reality data type corresponding to the T1 first to-be-coded data units or an extended reality data type corresponding to the T2 second to-be-coded data units, to obtain K coded data units, wherein K is an integer greater than or equal to T1+T2; and

output the K coded data units, wherein:

the coding the T1 first to-be-coded data units and the T2 second to-be-coded data units comprises:

obtaining a coding matrix based on the least one of the extended reality data type corresponding to the T1 first to-be-coded data units or the extended reality data type corresponding to the T2 second to-be-coded data units; and

coding the T1 first to-be-coded data units and the T2 second to-be-coded data units based on the coding matrix;

the coding matrix comprises a coding submatrix comprising T1 first coding vectors and T2 second coding vectors, the T1 first coding vectors respectively corresponding to the T1 first to-be-coded data units and the T2 second coding vectors respectively corresponding to the T2 second to-be-coded data units; and

the quantity of non-zero coefficients included in any one of the T2 second coding vectors being less than a coding depth M, the coding depth being a maximum value of a quantity of to-be-coded data units that participate in coding when one coded data unit is obtained, M being an integer greater than 0 and less than or equal to T1+T2.

10. The non-transitory computer readable medium according to claim 9 , wherein a quantity of non-zero coefficients included in one of the T1 first coding vectors is greater than a quantity of non-zero coefficients comprised in one of the T2 second coding vectors.

11. The non-transitory computer readable medium according to claim 9 , wherein a quantity of non-zero coefficients included in any one of the T1 first coding vectors being greater than a quantity of non-zero coefficients comprised in any one of the T2 second coding vectors.

Assignments (2)

Continuity (2)

References Cited (12)