Sixty gigahertz multiple input multiple output transceiver

1 . A system-on-chip (SoC) device for a communication system, the SoC device comprising:

a peripheral component interconnect express (PCIe) interface configured to receive data from a backhaul field programmable gate array (FPGA) of the communication system;

a producer port linked with a consumer port through direct memory access (DMA), wherein data received by the PCIe interface is assigned to the producer port;

dual hardware media access controls (MACs) configured to consume the data assigned to the producer port; and

at least one processor configured to supply the data to a wireless interface for transmission to another wireless communication device of the communication system at a frequency of at least sixty Gigahertz,

wherein an aggregation layer of the SoC device is configured to synchronize the dual MACs and reassemble two independent MAC data streams into a single enhanced common public radio interface (eCPRI) data stream,

wherein the aggregation layer is configured to reorder out-of-order data frames using 802.11 protocol sequence numbers, committing only in-order frames to a next processing step and holding out-of-order data frames until they can be reordered or a timeout occurs, and

wherein the at least one processor is configured to reduce a specified modulation rate in response to an out-of-order frame arrival rate increasing above a specified degradation threshold, and increase the specified modulation rate in response to the out-of-order frame arrival rate decreasing below the specified degradation threshold.

2 . The SoC device of claim 1 , wherein the PCIe interface is configured to receive the data from a distributed unit of a fronthaul communication system architecture, wherein the distributed unit is in communication with a core network of the communication system.

3 . The SoC device of claim 1 , wherein the PCIe interface is configured to receive the data from a radio unit of a fronthaul communication system architecture, wherein:

the radio unit is electrically coupled with at least one cellular antenna; and

the radio unit is configured to transmit and receive wireless cellular signals.

4 . The SoC device of claim 1 , wherein, the other wireless communication device includes:

a second PCIe interface configured to receive data from a second backhaul FPGA of the communication system;

a second producer port linked with a second consumer port through DMA;

second dual hardware media access controls configured to consume the data assigned to the producer port; and

at least one second processor configured to receive, via a second wireless interface, the data transmitted at the frequency of at least sixty Gigahertz.

5 . The SoC device of claim 1 , wherein the data received by the PCIe interface includes radio over Ethernet (RoE) data.

6 . The SoC device of claim 5 , wherein:

the data received from the backhaul FPGA includes enhanced common public radio interface (eCPRI) data; and

the backhaul FPGA comprises an eCPRI FPGA.

7 . The SoC device of claim 1 , wherein the at least one processor is configured to establish control communication channels between the backhaul FPGA and the SoC device through dedicated PCIe ports to central processing unit (CPU) consumer ports.

8 . The SoC device of claim 1 , wherein:

the at least one processor is configured to handle lower MAC processes of the SoC device; and

upper MAC processes reside on an application processor of the backhaul FPGA.

9 . The SoC device of claim 1 , wherein the at least one processor is configured to operate in a de-aggregation mode where an incoming stream of data from the PCIe interface is divided into two radio channel streams using a ping-pong protocol.

10 . The SoC device of claim 9 , wherein according to the ping-pong protocol, frames of data are sent out in a round-robin manner based on which MAC is able to access the wireless interface.

11 . The SoC device of claim 9 , wherein each radio channel stream is configured to operate according to the specified modulation rate which allows each MAC to independently request MAC protocol data unit (MPDU) payload from a shared memory space.

12 . A method of operating a system-on-chip (SoC) device for a communication system, the method comprising:

receiving, via a peripheral component interconnect express (PCIe) interface, data from a backhaul field programmable gate array (FPGA) of the communication system;

assigning data received by the PCIe interface to a producer port linked with a consumer port through direct memory access (DMA);

consuming the data assigned to the producer port via dual hardware media access controls (MACs); and

supplying the data to a wireless interface for transmission to another wireless communication device of the communication system at a frequency of at least sixty Gigahertz, wherein an aggregation layer of the SoC device is configured to synchronize the dual MACs and reassemble two independent MAC data streams into a single enhanced common public radio interface (eCPRI) data stream, wherein the aggregation layer is configured to reorder out-of-order data frames using 802.11 protocol sequence numbers, committing only in-order frames to a next processing step and holding out-of-order data frames until they can be reordered or a timeout occurs;

reducing a specified modulation rate in response to an out-of-order frame arrival rate increasing above a specified degradation threshold; and

increasing the specified modulation rate in response to the out-of-order frame arrival rate decreasing below the specified degradation threshold.

13 . The method of claim 12 , wherein:

receiving the data includes receiving the data at the PCIe interface from a distributed unit of a fronthaul communication system architecture; and

the distributed unit is in communication with a core network of the communication system.

14 . The method of claim 12 , wherein:

receiving the data includes receiving the data at the PCIe interface from a radio unit of a fronthaul communication system architecture;

the radio unit is electrically coupled with at least one cellular antenna; and

the radio unit is configured to transmit and receive wireless cellular signals.

15 . The method of claim 12 , wherein, the other wireless communication device includes:

a second PCIe interface configured to receive data from a second backhaul FPGA of the communication system;

a second producer port linked with a second consumer port through DMA;

second dual hardware media access controls configured to consume the data assigned to the producer port; and

at least one second processor configured to receive, via a second wireless interface, the data transmitted at the frequency of at least sixty Gigahertz.

16 . The method of claim 12 , wherein the data received by the PCIe interface includes radio over Ethernet (RoE) data.

17 . The method of claim 16 , wherein:

the data received from the backhaul FPGA includes enhanced common public radio interface (eCPRI) data; and

the backhaul FPGA comprises an eCPRI FPGA.