|
Getting your Trinity Audio player ready...
|
Reading time: 10 minutes
The U.S. UAS (unmanned aircraft systems) industry is entering a new regulatory era. In May 2026, Holland & Knight published an important analysis titled “Citing National Security Needs, the FCC and FAA Take Steps on UAS Regulation,” highlighting two major U.S. government initiatives that could significantly reshape how unmanned aircraft systems (UAS) are deployed, managed, secured, and integrated into national infrastructure. (hklaw.com)
The developments involve:
1. The Federal Communications Commission’s (FCC) efforts to modernize spectrum policy and support secure domestic drone ecosystems.
2. The Federal Aviation Administration’s (FAA) long-awaited implementation of Section 2209, enabling critical infrastructure operators to request drone flight restrictions over sensitive facilities.
Together, these actions reflect a broader strategic shift in Washington: drones are no longer viewed only as emerging commercial tools. They are increasingly considered national security assets and potential national security threats.
For UAS manufacturers and operators, public safety agencies, critical infrastructure providers, and connectivity technology vendors, these changes are far more than procedural updates. They signal the emergence of a security-first UAS framework focused on:
• Trusted connectivity and communications
• Secure spectrum access
• Airspace sovereignty
• Counter-UAS readiness
• Domestic technology resilience
• Beyond Visual Line of Sight (BVLOS) enablement
• Reliable command-and-control (C2) infrastructure
This evolving environment creates new opportunities for technologies specifically designed to provide resilient, secure, and multi-network connectivity for unmanned systems operating in complex and mission-critical environments.
That is precisely where solutions such as the Elsight Halo become increasingly relevant.
Table of Contents
A Defining Moment for U.S. Drone Regulation
The Holland & Knight article explains that the FCC and FAA are simultaneously addressing different sides of the same challenge. The FAA is focused on airspace protection and physical security, while the FCC is focused on communications infrastructure, spectrum policy, and trusted drone ecosystems. (** source: hklaw.com)
The timing is not accidental.
Commercial drone usage has expanded dramatically across:
• Energy infrastructure
• Emergency response
• Public safety
• Defense-adjacent operations
• Logistics and delivery
• Industrial inspection
• Maritime operations
• Border security
• Rail and transportation
At the same time, unauthorized drone incursions near airports, military sites, power facilities, and other critical infrastructure have become a growing concern.
The U.S. government now appears determined to build a more secure drone ecosystem that balances innovation with operational control and national security safeguards.
This regulatory momentum follows broader executive actions such as “Unleashing American Drone Dominance” and “Restoring American Airspace Sovereignty,” which position U.S. drone leadership as both an economic and geopolitical priority.
The message from regulators is becoming clear: The future drone ecosystem must be trusted, secure, resilient, and capable of operating safely at scale.
FAA Section 2209: Protecting Critical Infrastructure from Unauthorized Drone Activity
One of the most consequential elements discussed in the Holland & Knight analysis is the FAA’s Notice of Proposed Rulemaking (NPRM) implementing Section 2209 of the FAA Extension, Safety, and Security Act of 2016. Although Congress originally mandated the rule years ago, the FAA only recently moved forward with formal implementation. The proposed rule would allow operators of qualifying fixed-site critical infrastructure facilities to petition the FAA for drone flight restrictions over their facilities.
Examples of facilities that could seek protection include:
• Power generation sites
• Electrical substations
• Oil and gas facilities
• Chemical plants
• Ports and maritime infrastructure
• Telecommunications hubs
• Data centers
• Defense-related facilities
• Transportation infrastructure
Under the proposal, restrictions would not automatically apply. Instead, facility owners would need to demonstrate legitimate security, aviation safety, or homeland security concerns. The FAA’s proposal also emphasizes that restrictions would apply specifically to fixed-site facilities rather than broad geographic regions or temporary events.
This distinction matters.
The government is attempting to avoid over-regulating drone operations while still giving critical infrastructure operators tools to protect sensitive locations.
Why Section 2209 Matters Beyond Airspace Restrictions
While the proposed rule primarily addresses airspace access, its broader implications are operational.
As more facilities establish restricted airspace zones, UAS manufacturers and operators will need:
• Enhanced connectivity reliability
• Better situational awareness
• More reliable navigation systems
• Stronger geofencing integration
• Higher confidence in compliant operations
• Greater operational transparency
This is particularly important for commercial drone operators conducting BVLOS missions.
A drone operating near critical infrastructure must maintain highly reliable command-and-control connectivity while simultaneously integrating evolving airspace restrictions and operational requirements. Connectivity failures in these environments are no longer just operational inconveniences. They become potential security liabilities. This is where resilient connectivity platforms for continuous communications become strategically important.
The FCC’s Push for Secure and Trusted Drone Communications
The FCC’s parallel initiative may ultimately prove even more transformative for the U.S. drone industry. According to the Holland & Knight analysis, the FCC’s April 2026 Public Notice seeks comments on a wide range of reforms designed to “unleash American drone dominance.”
The FCC initiative focuses heavily on:
• Spectrum availability
• Streamlined licensing
• Device certification
• Trusted supply chains
• Secure communications infrastructure
• Domestic manufacturing
• Counter-UAS enablement
• Experimental testing flexibility
• BVLOS connectivity systems
Importantly, the FCC specifically references the need to support:
• Command-and-control (C2) systems
• Detect-and-avoid technologies
• Secure navigation tools
• Agile testing across broader spectrum bands
This signals a major regulatory acknowledgment: Reliable connectivity infrastructure is foundational to the future of scalable drone operations.
The Shift Toward Trusted Drone Ecosystems
One of the most significant themes in the FCC proceeding is trust. The FCC has increasingly focused on restricting foreign-origin technologies deemed national security risks. In late 2025, the FCC added certain foreign-produced UAS and UAS critical components to its Covered List, limiting their ability to receive FCC authorization for importation or sale in the United States. At the same time, the FCC exempted certain approved systems that meet trusted supplier standards or align with Blue UAS and Buy American requirements.
This policy direction has enormous implications. The drone industry is moving away from purely cost-driven procurement and toward:
• Trusted infrastructure
• Secure software architectures
• Verified supply chains
• Cybersecurity compliance
• Multi-layered connectivity resilience
• Operational redundancy
• Sovereign technology ecosystems
Connectivity providers are no longer just enabling drone operations. They are becoming part of the security architecture itself.
Why Reliable Connectivity Is Becoming a National Security Requirement
For years, UAS connectivity discussions focused primarily on convenience, bandwidth, or operational range. However, this paradigm is changing. Today, connectivity is increasingly viewed through a national security lens.
The FCC’s requests for comment repeatedly emphasize secure communications, resilient command-and-control systems, and reliable infrastructure capable of supporting advanced drone operations. This shift is especially important for BVLOS operations.
Beyond Visual Line of Sight flights require uninterrupted communication between the UAS and operators, often across long distances, urban environments, remote terrain, or congested RF conditions. A single network failure can interrupt:
• Flight control
• Telemetry
• Video transmission
• Remote identification
• Detect-and-avoid coordination
• Emergency response operations
As regulators move toward large-scale drone integration, resilient communications are becoming a prerequisite rather than an enhancement.
How Elsight Halo Aligns with the Regulatory Direction
The regulatory priorities outlined by the FCC and FAA closely align with the operational challenges that the Elsight Halo platform was designed to solve. Halo is fundamentally built around resilient, secure, and uninterrupted connectivity for unmanned systems.
Rather than relying on a single network or communications pathway, Halo aggregates multiple IP links simultaneously, including LTE, 5G, satellite, RF, and other available communication channels into a bonded communications environment.
This architecture supports several capabilities directly relevant to the FCC and FAA’s emerging priorities.
1. Communications Resilience for Mission-Critical Operations
The FCC’s focus on secure and reliable command-and-control infrastructure reflects a growing recognition that drones cannot safely scale using fragile single-link communications.
Halo’s multi-link bonding architecture enhances operational resilience by dynamically maintaining connectivity even if one network path degrades or fails.
This capability is highly relevant for:
• Public safety missions
• Infrastructure inspection
• Border security
• Emergency response
• Maritime operations
• Defense-support operations
• Critical infrastructure monitoring
As regulatory expectations for reliability increase, resilient connectivity platforms become central enablers of compliant operations.
2. Support for BVLOS Expansion
The FCC explicitly referenced the importance of enabling BVLOS communications systems. BVLOS is widely considered the gateway to large-scale commercial drone adoption.
However, BVLOS operations demand:
• Persistent connectivity
• Low-latency communications
• Network redundancy
• Stable video transmission
• Reliable telemetry
Halo’s aggregation capabilities help address these requirements by reducing dependency on any single carrier or communications technology. This becomes especially valuable in:
• Rural environments
• Remote industrial sites
• Disaster zones
• Maritime corridors
• Infrastructure-heavy regions with RF congestion or jamming
As the FAA and FCC continue developing frameworks for scalable BVLOS operations, communications resilience will likely become a major certification and operational consideration.
3. Alignment with Trusted Infrastructure Priorities
The FCC’s national security posture increasingly emphasizes trusted ecosystems and reduced reliance on potentially vulnerable foreign technologies.
Connectivity platforms that provide secure architectures, flexible deployment models, and interoperability across approved communications networks are well-positioned within this evolving landscape.
Halo’s ability to integrate across multiple network providers and communication methods helps support operational flexibility while reducing dependence on any single infrastructure pathway.
That flexibility can become strategically important in environments where:
• Network reliability fluctuates
• Security requirements vary by mission
• Infrastructure resilience is critical
• Redundancy requirements are increasing
• Communications spoofing and jamming is common
4. Enabling Operations Near Critical Infrastructure
As Section 2209 restrictions are implemented, authorized drone operations near sensitive infrastructure will require heightened reliability, compliance, and operational transparency. Infrastructure operators conducting legitimate drone activities such as inspection, maintenance, or emergency response will need connectivity systems capable of supporting secure and uninterrupted operations in tightly controlled and contested environments.
Halo’s resilient connectivity model supports these operational demands by helping maintain stable command-and-control links even in challenging network conditions.
This is particularly relevant for:
• Energy utilities
• Rail infrastructure
• Oil and gas operators
• Maritime ports
• Emergency management agencies
• Homeland security situations
The Commercial Opportunity Behind the Regulations
Although much of the regulatory conversation focuses on security and restrictions, these initiatives also create substantial commercial opportunities. The FCC’s stated objective is not to suppress the drone industry; rather, it aims to accelerate trusted drone leadership.
That creates momentum for technologies supporting:
• Enterprise drone scalability
• Public safety modernization
• Autonomous infrastructure inspection
• Advanced logistics
• Emergency response automation
• Industrial automation
• Maritime autonomy
• Secure remote operations
However, scalability depends on the connectivity infrastructure. Without reliable command-and-control connectivity, advanced drone ecosystems cannot scale safely or meet emerging regulatory expectations.
The Bigger Industry Trend: From Consumer Drones to Critical Systems
The broader takeaway from the FCC and FAA actions is that UAS are transitioning from consumer-adjacent devices into critical operational systems. That transition changes regulatory expectations. It also changes purchasing priorities.
Organizations are increasingly evaluating drone ecosystems based on:
• Reliability
• Cybersecurity
• Network resilience
• Operational continuity
• Supply chain trustworthiness
• Compliance readiness
• Integration capability
• Scalability
This is especially true for government agencies, critical infrastructure operators, defense-adjacent organizations, and enterprise operators conducting mission-critical operations.
In this environment, resilient connectivity is no longer optional; it becomes foundational.
Looking Ahead
The FCC and FAA proceedings discussed in the Holland & Knight analysis represent an early but significant phase in the next generation of U.S. drone regulation.
Several trends are becoming increasingly clear:
1. National security considerations will heavily shape future UAS policy.
2. Trusted connectivity infrastructure will become more important.
3. BVLOS expansion will require stronger connectivity standards.
4. Critical infrastructure protection will remain a central regulatory priority.
5. Trusted supply chains and resilient architectures will gain strategic importance.
For drone operators and technology providers, adaptation will require more than compliance. It will require operational resilience. Platforms capable of delivering secure, redundant, and uninterrupted connectivity will play a central role in enabling the next generation of drone operations. That is why solutions such as Elsight Halo increasingly align with the direction regulators appear to be taking.
As the industry evolves toward larger-scale autonomous operations, trusted communications will become one of the defining pillars of the modern drone ecosystem. And in a world where drones are increasingly viewed as national infrastructure assets, resilient connectivity may ultimately become as important as the aircraft themselves.
