Samsung and Verizon have tested a foundational 6G sensing technology during a major soccer event in Dallas. The trial demonstrates how regular cellular frequencies can track crowd movement and create density heatmaps in real time without extra hardware. Full commercial adoption will depend on how fast mobile operators upgrade their virtual network software.
Cellular networks usually do 1 thing: pass data back and forth. This trial changes that expectation. By deploying Integrated Sensing and Communication technology, the carriers turned standard radio waves into a live radar system. A mobile transmission unit mounted on a trailer used 40 MHz of CBRS spectrum to capture reflections from ordinary 5G phones carried by attendees.
The system ran on a single server edge computing platform built by Samsung. It monitored tiny disruptions in the wireless signals as people walked across the plaza. This allowed computers to calculate crowd density and plot human traffic patterns across the venue instantly. No specialized cameras or thermal imaging sensors were installed.
Live heatmaps gave event organizers immediate visibility into bottleneck locations. Staff could redirect lines to less crowded food stations and open extra exit paths before walkways became congested. Security teams also monitored the data to identify sudden crowd surges early.
Yago Tenorio, the Chief Technology Officer at Verizon, highlighted the broader goal of turning basic signal pathways into spatial awareness tools during the trial review.
This field trial with Samsung proves that the network of the future will do far more than just transfer data, turning connectivity into situational awareness.
Samsung loaded its virtualized radio access software and core network tools directly onto 1 compact server unit. This approach proves that mobile carriers will not need to replace their existing antennas to roll out preliminary 6G capabilities. Instead, network operators can activate situational sensing features across their footprint through remote code updates on existing commercial infrastructure.
