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Due to the rapid densification of small cells in 5G and beyond cellularnetworks, deploying wired high-bandwidth connections to every small cell basestation is difficult, particularly in older metropolitan areas whereinfrastructure for fiber deployment is lacking. For this reason, mmWavewireless backhaul is being considered as a cost-effective and flexiblealternative that has potential to support the high-rate transmission needed toaccommodate backhaul traffic demands. However, maintaining a high networksurvivability is extremely important since networks based on mmWavecommunication are susceptible to short-term blockages or node failures causedby unforeseen events. Therefore, to realize a robust mmWave backhaul network,several works propose to adopt a triangular-wave topology in roadsideenvironments, which can eliminate the mutual interference among backhaul links,and provide robustness to blockage effects. Based on this novel topology, weinvestigate a blockage type detection scheme, which reacts to blockage effectsquickly and assists in various path reconfiguration approaches.

Blockage Type Detection Process in Triangular-wave Topology for mmWave Wireless Backhaul