System and method for communicating between a radio and a virtual baseband unit which are incompatible
Techniques are provided for transforming, using at least one translation library, data communicated between a radio and a virtual baseband unit having incompatible data protocols.
1. A method of facilitating communications between a radio and a virtual baseband unit, comprising:
at least one of: determining characteristics of the radio and receiving the characteristics of the radio, wherein the radio uses a first input/output (I/O) data protocol and a first message protocol;
selecting at least one translation library corresponding to at least one of determined characteristics of the radio and the received characteristics of the radio, wherein a base station comprises the radio and the virtual baseband unit;
generating configuration parameters that describe capabilities of the radio, and transmitting such configuration parameters to the virtual baseband unit using a second I/O data protocol and a second message protocol, wherein the first I/O data protocol and the second I/O data protocol are incompatible;
converting at least one of: (a) baseband data, in an uplink path, in at least one of a user plane, a control plane, a synchronization plane, and a management plane into the second I/O data protocol used by the virtual baseband unit, and (b) baseband data, in a downlink path, in the second I/O data protocol into data,. in at least one of; the user plane, the control plane, the synchronization plane, and the management plane, in the first I/O protocol; and
converting using the selected at least one translation library at least one of: a message in the first message protocol, transmitted from the radio to the virtual baseband unit, to the second message protocol, and a message in the second message protocol, transmitted from the virtual baseband unit to the radio, to the first message protocol, wherein the first message protocol and the second message protocol are incompatible.
2. The method of claim 1 , wherein the configuration parameters are in a Netconf/Yang model format.
3. The method of claim 1 , further comprising at least one of: sending at least one message to the radio to obtain a responsive message including at least one configuration parameter, and obtaining the at least one configuration parameter from a data source other than the radio.
4. The method of claim 1 , further comprising detecting whether the radio is communicatively coupled to the virtual baseband unit.
5. The method of claim 1 , wherein the converted data comprises the data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane.
6. The method of claim 1 , further comprising converting at least one of: an Ethernet frame in the uplink path to the data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane, and data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane to an Ethernet frame in the downlink path.
7. The method of claim 1 , further comprising performing at least one of: at least one of discrete Fourier transformation and data weighting on user plane data in the uplink path, and at least one of inverse Fourier transformation and the data weighting on the user plane data in the downlink path.
8. A program product comprising a processor readable medium on which program instructions are embodied, wherein the program instructions are configured, when executed by at least one programmable processor, to cause the at least one programmable processor to:
at least one of: determine characteristics of a radio and receive the characteristics of the radio, wherein the radio uses a first input/output (I/O) data protocol and a first message protocol;
select at least one translation library corresponding to at least one of determined characteristics of the radio and the received characteristics of the radio, wherein a base station comprises the radio and a virtual baseband unit;
generate configuration parameters that describe capabilities of the radio, and cause transmission of such configuration parameters to the virtual baseband unit using a second I/O data protocol and a second message protocol, wherein the first I/O data protocol and the second I/O data protocol are incompatible;
convert at least one of: (a) baseband data, in an uplink path, in at least one of a user plane, a control plane, a synchronization plane, and a management plane into the second I/O data protocol used by the virtual baseband unit, and (b) baseband data, in a downlink path, in the second I/O data protocol into data in at least one of: the user plane, the control plane, the synchronization plane, and the management plane, in the first I/O protocol; and
convert using the selected at least one translation library at least one of: a message in the first message protocol, transmitted from the radio to the virtual baseband unit, to the second message protocol, and a message in the second message protocol, transmitted from the virtual baseband unit to the radio, to the first message protocol, wherein the first message protocol and the second message protocol are incompatible.
9. The program product of claim 8 , wherein the configuration parameters are in a Netconf/Yang model format.
10. The program product of claim 8 , wherein the program instructions are configured, when executed by the at least one programmable processor, to further cause the at least one programmable processor to at least one of: send at least one message to the radio to obtain a responsive message including at least one configuration parameter, and obtain the at least one configuration parameter from a data source other than the radio.
11. The program product of claim 8 , wherein the program instructions are configured, when executed by the at least one programmable processor, to further cause the at least one programmable processor to detect whether the radio is communicatively coupled to the virtual baseband unit.
12. The program product of claim 8 , wherein the converted data comprises the data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane.
13. The program product of claim 8 , wherein the program instructions are configured, when executed by the at least one programmable processor, to further cause the at least one programmable processor to convert at least one of: an Ethernet frame in the uplink path to the data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane, and data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane to an Ethernet frame in the downlink path.
14. A system configured to couple a radio to a virtual baseband unit, comprising:
first circuitry configured to:
at least one of: perform at least one of discrete Fourier transformation and data weighting on user plane data in an uplink path, and perform at least one of inverse Fourier transformation and the data weighting on the user plane data in a downlink path; and
at least one of: convert data in at least one of a user plane, a control plane, a synchronization plane, and a management plane in the downlink path to data in a first input/output (I/O) data protocol, and convert data in the first I/O data protocol in the uplink path into the data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane; and
second circuitry, communicatively coupled to the first circuitry, configured to at least one of:
at least one of: determine characteristics of the radio and receive the characteristics of the radio, wherein the radio uses the first I/O data protocol and a first message protocol;
select at least one translation library corresponding to the at least one of determined characteristics of the radio and the received characteristics of the radio, wherein a base station comprises the radio and the virtual baseband unit;
generate configuration parameters that describe capabilities of the radio, and transmit such configuration parameters to the virtual baseband unit using a second I/O data protocol and a second message protocol, wherein the first I/O data protocol and the second I/O data protocol are incompatible;
convert at least one of: (a) baseband data, in an uplink path, in the at least one of the user plane, the control plane, the synchronization plane, and the management plane into the second I/O data protocol used by the virtual baseband unit, and (b) baseband data, in the downlink path, in the second I/O data protocol into the data, in at least one of: the user plane, the control plane, the synchronization plane, and the management plane, in the first I/O protocol; and
convert using the selected at least one translation library at least one of: a message in the first message protocol, transmitted from the radio to the virtual baseband unit, to the second message protocol, and a message in the second message protocol, transmitted from the virtual baseband unit to the radio, to the first message protocol, wherein the first message protocol and the second message protocol are incompatible.
15. The system of claim 14 , further comprising:
the radio communicatively coupled to the first circuitry; and
the virtual baseband unit communicatively coupled to the second circuitry.
16. The system of claim 14 , wherein the configuration parameters are in a Netconf/Yang model format.
17. The system of claim 14 , wherein the second circuitry is further configured to send at least one message to the radio to obtain a responsive message including at least one configuration parameter, and obtain the at least one configuration parameter from a data source other than the radio.
18. The system of claim 14 , wherein the second circuitry is further configured to detect whether the radio is communicatively coupled to the virtual baseband unit.
19. The system of claim 14 , wherein the converted data comprises the data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane.
20. The system of claim 14 , wherein the first circuitry is further configured to convert at least one of: an Ethernet frame in the downlink path to the data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane, and the data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane to an Ethernet frame in the uplink path; and
wherein the second circuitry is further configured to convert at least one of: the Ethernet frame in the uplink path to the data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane, and the data in the at least one of the user plane, the control plane, the synchronization plane, and the management plane to the Ethernet frame in the downlink path.