Central scheduling multi-board architecture for wireless transceiver station

1. A transceiver station providing wireless resources for cells on a plurality of carriers in a geographical coverage area, the geographical coverage area being divided into a plurality of sectors, the transceiver station comprising:

a first board including,

a first L1 processing circuit configured to perform L1 processing functions on at least one of radio frequency antenna streams and downlink transmit data for users in cells on only a first subset of the plurality of carriers, and

a first scheduler configured to schedule at least one of uplink and downlink transmissions for cells on the plurality of carriers in only a first subset of the plurality of sectors; and

a second board interconnected with the first board, the second board including,

a second L1 processing circuit configured to perform L1 processing functions on at least one of radio frequency antenna streams and downlink transmit data for users in cells on only a second subset of the plurality of carriers, the first subset of the plurality of carriers being different from the second subset of the plurality of carriers, and

a second scheduler configured to schedule at least one of uplink and downlink transmissions for cells on the plurality of carriers in only a second subset of the plurality of sectors.

2. The transceiver station of claim 1 , wherein the first scheduler is further configured to,

generate downlink scheduling information for cells on the plurality of carriers in only the first subset of the plurality of sectors, and

output the downlink scheduling information and scheduled downlink transmission data to the second L1 processing circuit.

3. The transceiver station of claim 2 , wherein the second L1 processing circuit is further configured to,

generate at least one radio frequency antenna stream based on the downlink scheduling information and the scheduled downlink transmission data, and

output the generated at least one radio frequency antenna stream to a radio frequency antenna for transmission to users in cells on only the second subset of the plurality of carriers.

4. The transceiver station of claim 1 , wherein the first L1 processing circuit is further configured to,

obtain uplink control and transmit data for users in cells on only the first subset of the plurality of carriers based on the radio frequency antenna streams, and

output the obtained uplink control and transmit data to the second scheduler.

5. The transceiver station of claim 4 , wherein the second scheduler is configured to,

collect uplink control and transmit data for users in cells in only the second subset of the plurality of sectors, the collected uplink control and transmit data including the obtained uplink control and transmit data output from the first L1 processing circuit,

generate uplink control and transmit information for the cells in only the second subset of the plurality of sectors, and

output the generated uplink control and transmit information to a radio network controller.

6. The transceiver station of claim 1 , wherein the first subset of the plurality of sectors is different from the second subset of the plurality of sectors.

7. The transceiver station of claim 1 , wherein each carrier in the first subset of the plurality of carriers is different from each carrier in the second subset of the plurality of carriers.

8. The transceiver station of claim 1 , wherein each sector in the first subset of the plurality of sectors is different from each sector in the second subset of the plurality of sectors.

9. A transceiver station providing wireless resources for cells on a plurality of carriers in a geographical coverage area, the geographical coverage area being divided into a plurality of sectors, the transceiver station comprising:

a first board including,

a first L1 processing circuit configured to perform L1 processing functions on at least one of radio frequency antenna streams and downlink transmit data for users in cells on only a first subset of the plurality of carriers,

a first scheduler configured to schedule at least one of uplink and downlink transmissions for cells on the plurality of carriers in only a first subset of the plurality of sectors; and

a second board interconnected with the first board, the second board including,

a second L1 processing circuit configured to perform L1 processing functions on at least one of radio frequency antenna streams and downlink transmit data for users in cells on only a second subset of the plurality of carriers, and

a second scheduler configured to schedule at least one of uplink and downlink transmissions for cells on the plurality of carriers in only a second subset of the plurality of sectors;

wherein the first scheduler includes

an anchor cell scheduler configured to schedule at least one of uplink and downlink transmissions for cells on the first subset of the plurality of carriers in the first subset of the plurality of sectors, and

a secondary scheduler configured to schedule at least one of uplink and downlink transmissions for cells on the second subset of the plurality of carriers in the first subset of the plurality of sectors.

10. A transceiver station providing wireless resources for cells on a plurality of carriers in a geographical coverage area, the geographical coverage area being divided into a plurality of sectors, the transceiver station comprising:

a first board including a L1 processing circuit configured to perform L1 processing functions on at least one of radio frequency antenna streams and downlink transmit data for users in the cells on a per-carrier basis; and

a second board including a scheduler configured to schedule at least one of uplink and downlink transmissions for the cells on a per-sector basis, the second board being separate from, but interconnected with the first board; wherein

the L1 processing circuit is further configured to perform L1 processing functions on the at least one of the radio frequency antenna streams and the downlink transmit data for users in the cells on only a first subset of the plurality of carriers, the first subset of the plurality of carriers being different from at least one other subset of the plurality of carriers on which L1 processing functions are performed at at least one other board at the transceiver station.

11. The transceiver station of claim 10 , wherein the scheduler is configured to schedule at least one of uplink and downlink transmissions for users in cells on the plurality of carriers in only a first subset of the plurality of sectors.

12. The transceiver station of claim 11 , wherein the scheduler is further configured to,

generate downlink scheduling information for the users in the cells in only the first subset of the plurality of sectors, and

output the downlink scheduling information and scheduled downlink transmission data to the L1 processing circuit.

13. The transceiver station of claim 12 , wherein the L1 processing circuit is further configured to,

generate at least one radio frequency antenna stream based on the downlink scheduling information and the scheduled downlink transmission data, and

output the generated at least one radio frequency antenna stream to a radio frequency antenna for transmission to the users in the cells on only the first subset of the plurality of carriers.

14. The transceiver station of claim 11 , wherein the L1 processing circuit is further configured to,

obtain uplink control and transmit data for the users in the cells on only the first subset of the plurality of carriers based on the radio frequency antenna streams, and

output the obtained uplink control and transmit data to the scheduler.

15. The transceiver station of claim 14 , wherein the scheduler is configured to,

collect uplink control and transmit data for the users in the cells in only the first subset of the plurality of sectors, the collected uplink control and transmit data including the obtained uplink control and transmit data,

generate uplink control and transmit information for the cells in only the first subset of the plurality of sectors, and

output the generated uplink control and transmit information to a radio network controller.

16. A transceiver station providing wireless resources for cells on a plurality of carriers in a geographical coverage area, the geographical coverage area being divided into a plurality of sectors, the transceiver station comprising:

a first board including a L1 processing circuit configured to perform L1 processing functions on at least one of radio frequency antenna streams and downlink transmit data for users in the cells on a per-carrier basis; and

a second board including a scheduler configured to schedule at least one of uplink and downlink transmissions for the cells on a per-sector basis, the second board being separate from, but interconnected with the first board;

wherein the scheduler is configured to schedule at least one of uplink and downlink transmissions for users in cells on the plurality of carriers in only a first subset of the plurality of sectors; and

wherein the scheduler includes

an anchor cell scheduler configured to schedule at least one of uplink and downlink transmissions for the cells on the first subset of the plurality of carriers in the first subset of the plurality of sectors, and

a secondary scheduler configured to schedule at least one of uplink and downlink transmissions for cells on a second subset of the plurality of carriers in the first subset of the plurality of sectors.

17. A method for scheduling transmissions at a transceiver station providing wireless resources for cells on a plurality of carriers in a geographical coverage area, the geographical coverage area being divided into a plurality of sectors, the method comprising:

performing, at a first board at the transceiver station, L1 processing functions on at least one of radio frequency antenna streams and downlink transmit data for users in the cells on a per-carrier basis; and

scheduling, at a second board at the transceiver station, at least one of uplink and downlink transmissions for the cells on a per-sector basis;

wherein the performing step includes

performing L1 processing functions on the at least one of the radio frequency antenna streams and the downlink transmit data for users in the cells on only a first subset of the plurality of carriers, the first subset of the plurality of carriers being different from at least one other subset of the plurality of carriers on which L1 processing functions are performed at at least one other board at the transceiver station.

18. The method of claim 17 , wherein the scheduling step includes:

scheduling at least one of uplink and downlink transmissions for users in cells on the plurality of carriers in only a first subset of the plurality of sectors.