CBRS

The Department of Defense and the National Spectrum Consortium (NSC) are moving five industry-academia teams into field demonstrations to validate dynamic spectrum coexistence between defense systems and commercial networks. The focus is practical: prove that military radar, weapons systems, and electronic sensors can operate alongside commercial 5G/6G-class networks in the same bands without harmful interference. Experiments are slated to begin as early as November, with results feeding a follow-on study on dynamic spectrum operations mandated by the 2023 National Spectrum Strategy.
Aviation is no longer a siloed industry – itโ€™s a globally connected ecosystem where airports, airlines, regulators, telecom operators, and tech vendors must work in sync. As digital transformation accelerates, connectivity becomes a critical layer for collaboration, enabling real-time decision-making, safety, operational alignment, and a seamless passenger experience. From private 5G and edge computing to biometric boarding and IoT, the aviation industry must co-invest, co-develop, and co-govern digital infrastructure. Case studies from Heathrow, Changi, and DFW show that stakeholder alignment leads to measurable gains in efficiency, innovation, and trust. Connectivity is the enabler, but collaboration is what makes it scalable and sustainable.
Airport ground operations โ€” from baggage handling and fueling to aircraft turnaround – are undergoing rapid digital transformation. Powered by IoT, automation, private 5G, and edge computing, airside workflows are becoming more predictive, efficient, and sustainable. Sensors track assets, optimize vehicle dispatch, and enhance worker safety. Autonomous tugs, computer vision, and AI-driven maintenance cut delays and reduce manual errors. Private networks and edge computing provide the real-time connectivity needed for mission-critical applications. Leading airports like Schiphol, Changi, and DFW are already adopting these technologies, proving that digital transformation on the ground isn’t just possible, it’s essential for next-gen airport performance.
Airports are shifting from physical-first to connectivity-first infrastructure. Legacy systems are no longer enough to manage modern expectations for speed, safety, and digital experience. Leading airports are deploying Wi-Fi 6, 5G, private mobile networks, and edge computing โ€” not as standalone upgrades but as a hybrid network foundation. Each technology serves a purpose: Wi-Fi 6 supports high-density passenger areas; public 5G offers mobile bandwidth for travelers; private networks ensure operational reliability; and edge computing enables real-time decision-making. Together, they form a resilient architecture built for scalability, cybersecurity, and future growth. Airports like Heathrow, Changi, and DFW are already implementing these layers, proving that connectivity is now core infrastructure, just like runways or terminals.
Airport terminals are evolving into connected, intelligent environments powered by biometrics, IoT, and scalable infrastructure. These technologies are helping airports manage increasing passenger volumes, improve security, and deliver seamless experiences. From facial recognition at check-in to IoT-based baggage tracking and AR navigation, the connected terminal offers faster processing, predictive safety, and energy-efficient operations. Scalable, cloud-native systems future-proof infrastructure for demand surges and enable rapid integration of emerging tech like AI, digital twins, and virtual queuing. As global air travel rebounds, the connected terminal represents a blueprint for smarter, safer, and more sustainable airport growth.
Manufacturers and wireless providers are shifting 5G from promising pilots to scaled, revenueโ€‘relevant deployments across American factories. A joint report from the National Association of Manufacturers (NAM) and CTIA underscores a clear inflection point: commercial 5G, industrial AI and edge computing are maturing together. With 3GPP Release 16/17 capabilities such as URLLC, timeโ€‘sensitive networking integration, network slicing and nonโ€‘public networks, 5G is increasingly able to support timeโ€‘critical control, quality inspection and safety systems at scale. Production use cases are expanding and delivering measurable benefits. The message is consistent: companies that operationalize 5G alongside AI and automation will capture disproportionate productivity and resiliency advantages.
With the FCC under pressure to deliver 300 MHz of auctionable spectrum, a group of Senate Republicans is urging the agency to preserve the shared 3.5 GHz CBRS band and the unlicensed 6 GHz band that underpin private 5G and nextโ€‘gen Wiโ€‘Fi. Ten Senate Republicans, including five members of the Senate Commerce Committee, sent a letter urging the FCC to ensure existing operations in the 6 GHz and Citizens Broadband Radio Service (CBRS) bands continue โ€œwithout disruption.โ€ NTIA Administrator Arielle Roth called for preserving 6 GHz for Wiโ€‘Fi, a stance applauded by NCTA as a recognition that unlicensed spectrum is an economic engine.
Thailandโ€™s National Broadcasting and Telecommunications Commission (NBTC) plans to allocate 100 MHz in the 4.8 GHz range to factories and industrial estate operators to deploy non-public 5G networks under a private network operator (PNO) framework. The spectrum is to be granted on request and used solely for internal, non-commercial operations. Mobile operators may bid for PNO rights but cannot use this spectrum for public mobile service. The 4.8 GHz range sits within 3GPP Band n79, which means a relatively deep device and radio ecosystem that can lower total cost of ownership and accelerate time-to-deploy.
Fresh data from Nokia and GlobalData shows that private wireless and on-premise edge are delivering rapid ROI, unlocking AI at scale, and improving security and sustainability across industrial sites. Industrial operations need deterministic connectivity, real-time data, and strong security to automate safely and sustainably. Across 115 organizations, 87% of adopters reported a return on investment within one year after deploying private wireless with on-prem edge. Setup costs were lower than alternatives for 81% of respondents, and 86% cut ongoing costs. Critically, 94% deployed on-prem edge alongside private wireless, and 70% are already powering AI use cases.
Private 5G Networks are enterprise-controlled wireless systems offering secure, reliable, and high-performance connectivity. Learn what Private 5G Networks are, how they compare to Wi-Fi and public 5G, and how industries like manufacturing, logistics, and healthcare use them to power automation, IoT, and real-time data applications.
Chesapeake, Virginia, in partnership with Boldyn Networks, has launched Chesapeake Connects, a city-owned private LTE and IoT network aimed at transforming public services, improving digital equity, and reducing reliance on commercial carriers. The hybrid system leverages CBRS for Fixed Wireless Access and LoRaWAN for citywide IoT, supporting smart city infrastructure like flood sensors, smart traffic lights, and more.
The 4.44.94 GHz range offers the cleanest mix of technical performance, policy feasibility, and global alignment to move the U.S. ahead in 6G. Midband is where 6G will scale, and 4 GHz sits in the sweet spot. A contiguous 500 MHz block supports wide channels (100 MHz+), strong uplink, and macro coverage comparable to C-Band, but with more spectrum headroom. That translates into better spectral efficiency and a lower total cost per bit for nationwide deployments while still enabling dense enterprise and edge use cases.

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