Control channel signaling for multiple ACK/NACK assignments
A method to control channel signaling between elements in a wireless network (e.g., a UE and a network node) is described. The method includes making a first assignment by assigning a first resource to a UE for single AN signaling. Making a second assignment by assigning a second resource to the UE for multi-bit AN signaling in conjunction with the single AN signaling is also included in the method. A resource block reserved for sending dynamic AN feedback includes the first resource and the second resource. The method includes providing (e.g., via a transmitter) an indication of the first assignment and the second assignment Apparatus and computer readable media are also described.
1. A method comprising:
making a first assignment by assigning a first resource to a user equipment for single acknowledge/negative-acknowledge signaling;
making a second assignment by assigning a second resource to the user equipment for multi-bit acknowledge/negative-acknowledge signaling in conjunction with the single acknowledge/negative-acknowledge signaling, wherein assigning the second resource comprises an implicit assignment including an offset based at least in part on the first resource,
where a resource block reserved for sending dynamic acknowledge/negative-acknowledge feedback comprises the first resource and the second resource; and
providing, via a transmitter, an indication of the first assignment and the second assignment.
2. The method of claim 1 , where, for single acknowledge/negative-acknowledge signaling, feedback related to a plurality of downlink resources is compressed into a single acknowledge/negative-acknowledge feedback which is transmitted via a single acknowledge/negative-acknowledge resource.
3. The method of claim 1 , where for multi-bit acknowledge/negative-acknowledge signaling each downlink resource is considered as a separate hybrid automatic repeat process and a separate acknowledge/negative-acknowledge feedback is transmitted for each granted downlink resource.
4. The method of claim 1 , where the first resource is a first cyclic shift of a zero-autocorrelation sequence and an orthogonal cover code and the second resource is one of:
a second cyclic shift of the zero-autocorrelation sequence and a second orthogonal cover code,
the first cyclic shift of the zero-autocorrelation sequence and a second orthogonal cover code and
a second cyclic shift of the zero-autocorrelation sequence and the first orthogonal cover code.
5. The method of claim 1 , where the resource block is a physical uplink control channel physical resource block.
6. The method of claim 5 , where the resource block is configured in accordance with EUTRAN physical uplink control channel format 1/1a/1b.
7. The method of claim 1 , where the resource block is configured for use by twelve user equipment.
8. The method of claim 1 , where the resource block is a time division duplex resource block.
9. The method of claim 1 , where assigning the second resource comprises assigning the second resource in accordance with a pre-defined rule.
10. An apparatus, comprising: at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus to perform at least the following:
to make a first assignment by assigning a first resource to a user equipment for single acknowledge/negative-acknowledge signaling;
to make a second assignment by assigning a second resource to the user equipment for multi-bit acknowledge/negative-acknowledge signaling in conjunction with the single acknowledge/negative-acknowledge signaling, wherein assigning the second resource comprises an implicit assignment including an offset based at least in part on the first resource,
where a resource block reserved for sending dynamic acknowledge/negative-acknowledge feedback comprises the first resource and the second resource; and
to provide, via a transmitter, an indication of the first assignment and the second assignment.
11. The apparatus of claim 10 , where, for single acknowledge/negative-acknowledge signaling, feedback related to a plurality of downlink resources is compressed into a single acknowledge/negative-acknowledge feedback which is transmitted via a single acknowledge/negative-acknowledge resource.
12. The apparatus of claim 10 , where for multi-bit acknowledge/negative-acknowledge signaling each downlink resource is considered as a separate hybrid automatic repeat process and a separate acknowledge/negative-acknowledge feedback is transmitted for each granted downlink resource.
13. The apparatus of claim 10 , where the first resource is a first cyclic shift of a zero-autocorrelation sequence and an orthogonal cover code and the second resource is one of:
a second cyclic shift of the zero-autocorrelation sequence and a second orthogonal cover code,
the first cyclic shift of the zero-auto correlation sequence and a second orthogonal cover code and
a second cyclic shift of the zero-autocorrelation sequence and the first orthogonal cover code.
14. The apparatus of claim 10 , where assigning the second resource comprises one of: assigning the second resource in accordance with a pre-defined rule and an implicit assignment based at least in part on the first resource.
15. A non-transitory computer readable medium tangibly encoded with a computer program executable by a processor to perform actions comprising:
making a first assignment by assigning a first resource to a user equipment for single acknowledge/negative-acknowledge signaling;
making a second assignment by assigning a second resource to the user equipment for multi-bit acknowledge/negative-acknowledge signaling in conjunction with the single acknowledge/negative-acknowledge signaling, wherein assigning the second resource comprises an implicit assignment including an offset based at least in part on the first resource,
where a resource block reserved for sending dynamic acknowledge/negative-acknowledge feedback comprises the first resource and the second resource; and
providing, via a transmitter, an indication of the first assignment and the second assignment.
16. The computer readable medium of claim 15 , where the first resource is a first cyclic shift of a zero-autocorrelation sequence and an orthogonal cover code and the second resource is one of:
a second cyclic shift of the zero-autocorrelation sequence and a second orthogonal cover code,
the first cyclic shift of the zero-autocorrelation sequence and a second orthogonal cover code and
a second cyclic shift of the zero-autocorrelation sequence and the first orthogonal cover code.
17. The computer readable medium of claim 15 , where assigning the second resource comprises one of: assigning the second resource in accordance with a pre-defined rule and an implicit assignment based at least in part on the first resource.
18. An apparatus comprising:
means for making a first assignment by assigning a first resource to a user equipment for single acknowledge/negative-acknowledge signaling;
means for making a second assignment by assigning a second resource to the user equipment for multi-bit acknowledge/negative-acknowledge signaling in conjunction with the single acknowledge/negative-acknowledge signaling, wherein assigning the second resource comprises an implicit assignment including an offset based at least in part on the first resource,
where a resource block reserved for sending dynamic acknowledge/negative-acknowledge feedback comprises the first resource and the second resource; and
means for transmitting an indication of the first assignment and the second assignment.
19. The apparatus of claim 18 , where the first resource is a first cyclic shift of a zero-autocorrelation sequence and an orthogonal cover code and the second resource is one of:
a second cyclic shift of the zero-auto correlation sequence and a second orthogonal cover code,
the first cyclic shift of the zero-autocorrelation sequence and a second orthogonal cover code and
a second cyclic shift of the zero-autocorrelation sequence and the first orthogonal cover code.