Dedrone-Axon Report Warns of Escalating Drone Threats and Gaps in Counter-UAS Readiness

A new joint report from counter-drone specialist Dedrone and public safety technology firm Axon underscores the rising complexity of unmanned aerial threats and the urgent need for more integrated counter-UAS (C-UAS) capabilities. Drawing on global incident data from 2024–2025, the report outlines key trends such as increased drone swarming activity, autonomous navigation beyond RF jamming reach, and the growing use of drones in criminal and asymmetric warfare contexts.

Drone Threat Landscape Expanding Across Civilian and Military Domains

The Dedrone-Axon 2025 Drone Threat Report documents a sharp rise in unauthorized drone activity across both conflict zones and domestic airspace. According to the report—which analyzed over 1 million drone flights across 30 countries—there has been a 60% year-over-year increase in drone incursions near critical infrastructure sites such as airports, power stations, prisons, and government buildings.

In conflict environments like Ukraine or Gaza, drones are being used not only for ISR (intelligence, surveillance, reconnaissance) but also for direct attack roles via FPV (first-person view) kamikaze missions. The report notes a marked increase in low-cost commercial drones being modified with munitions or used to drop grenades—tactics that have proliferated due to open-source knowledge sharing on platforms like Telegram.

Outside warzones, law enforcement agencies have documented increased use of drones for smuggling contraband into prisons or conducting illicit surveillance of police operations. In one cited case from late 2024, a coordinated swarm of five drones disrupted emergency response operations at a large-scale fire scene in California.

Swarming Tactics and Autonomy Challenge Traditional Defenses

A key concern highlighted is the growing prevalence of drone swarms—coordinated groups of UAVs capable of overwhelming traditional point-defense systems. Unlike isolated intrusions that can be mitigated with jamming or kinetic interceptors, swarms present significant targeting challenges due to their distributed nature and potential autonomy.

The report cites several instances where existing C-UAS systems struggled to neutralize multiple simultaneous threats. In one simulated test scenario conducted with U.S. law enforcement partners in early 2025, only 40% of incoming drones were successfully intercepted by legacy RF-based defenses when faced with a six-drone swarm executing autonomous flight paths without active RF links.

This trend aligns with broader defense concerns about AI-enabled autonomy in small UAVs. As adversaries adopt navigation algorithms resistant to GPS spoofing or jamming—and even deploy pre-programmed mission profiles—the effectiveness of traditional EW-centric countermeasures is diminishing.

Critical Infrastructure Vulnerabilities Remain Underaddressed

The report identifies critical infrastructure protection as a major blind spot in current C-UAS deployments. While military bases have increasingly fielded layered defenses—including radar-cued optics and kinetic interceptors—civilian facilities often lack dedicated detection or interdiction tools altogether.

Dedrone’s data shows that over half of all unauthorized drone flights near energy facilities occurred undetected until visual confirmation by personnel. Airports remain particularly vulnerable; despite FAA mandates for UAS detection protocols at Class B airports in the U.S., implementation remains inconsistent due to funding constraints and regulatory ambiguity around active interdiction authority.

The authors call for expanded federal investment into scalable C-UAS solutions suitable for utility operators, transit hubs, and public event venues—especially given recent incidents involving drones disrupting NFL games or approaching presidential motorcades within restricted airspace.

Fragmented Regulatory Framework Hampers Response Readiness

Another key finding is that legal ambiguity continues to constrain effective counter-drone responses outside military settings. In many jurisdictions—including parts of Europe—the use of RF jammers or kinetic interceptors by non-military actors remains legally prohibited under spectrum management laws or aviation safety regulations.

This legal gap has created what Dedrone calls an “authority vacuum,” where private sector operators can detect threats but are unable to act decisively without law enforcement intervention. Even among police agencies equipped with C-UAS tools through partnerships with vendors like Axon or Anduril Industries, operational rules-of-engagement remain poorly defined.

The report recommends harmonized national frameworks enabling authorized actors—such as airport security teams—to deploy non-kinetic mitigation tools under strict oversight protocols. It also advocates for clearer guidance on evidence collection standards during drone-related investigations to support prosecution efforts against malicious operators.

Toward Integrated Multi-Layered Counter-UAS Architectures

To address these evolving threats effectively, the authors argue for multi-layered C-UAS architectures combining passive detection (RF/EO/IR), active tracking (radar + AI fusion), electronic warfare modules (jammers/spoofers), and kinetic effectors where legally permissible. Integration into existing command-and-control networks is deemed essential for real-time threat classification and response coordination across agencies.

• Sensors: Multi-spectral EO/IR cameras cued by RF direction-finding arrays or short-range radars
• C2 Integration: Cloud-based dashboards linked via secure LTE/5G networks; STANAG-compliant interfaces recommended for NATO interoperability
• Effectors: Net guns/directed energy weapons (DEW) under testing; kinetic interceptors limited by collateral risk concerns
• AI Support: Real-time threat scoring based on flight pattern anomalies; swarm behavior detection algorithms under development

The report highlights successful pilot programs involving Axon’s integration platform linking body-worn cameras with Dedrone’s RF sensors to provide frontline officers with real-time alerts during urban deployments—a model now being evaluated by several NATO-aligned interior ministries.

Conclusion: From Tactical Awareness to Strategic Preparedness

The Dedrone-Axon study reinforces what many defense analysts have long warned: that small UAVs represent not just tactical nuisances but strategic vulnerabilities if left unaddressed at scale. As commercial drone capabilities continue advancing—with longer ranges, heavier payloads, swarm coordination software—the barriers between recreational tech and weaponized platforms are rapidly eroding.

A shift toward proactive threat modeling—supported by cross-sector data sharing agreements—is needed to close current capability gaps before they are exploited en masse by state or non-state actors alike. The authors stress that while no single solution exists today capable of neutralizing all UAS threats autonomously at scale, layered defenses combined with clear legal frameworks offer the most viable path forward through this accelerating domain challenge.