Data Centers are Critical Infrastructure Targets. The Drone Threat is here.
Updated: Oct 22
13,000+ Power facility incursions in 2024 — up 45% year over year
$1M+ Hyperscale downtime cost per hour
Jul 6 Section 2209 NPRM comment deadline
On March 1, 2026, Iranian Shahid drones struck data centers in Bahrain.1 Cooling infrastructure, power systems, and rooftop equipment were targeted directly. Amazon Web Services flagged operational issues across its Bahrain and UAE regions. The drones used were militarily derived. The tactics are commercially reproducible.
That is not a distant problem. It is a preview.
U.S. data center operators are watching the same threat mature domestically, and most don't have a program to deal with it. The hardware to execute an attack is on Amazon. The preliminary targeting data is publicly available via satellite imagery. And the legal framework that would allow a private operator to shoot a drone down doesn't exist yet.
What does exist is a narrow but meaningful window to get ahead of this. Here's what data center security teams need to understand.
Why Data Centers Are High-Value Targets
The drone threat to critical infrastructure has grown faster than most organizations' awareness of it. Power generation facilities reported more than 13,000 unauthorized incursions in 2024, a 45% increase from the prior year.2 NFL game incidents rose from 67 in 2018 to 2,845 in 2023.3 Airport control towers file more than 100 reports monthly. These numbers reflect a threat that has moved out of the category of edge-case nuisance and into routine operational concern.
Data centers occupy a specific position on the target spectrum. Unlike substations or pipeline compressor stations, they combine three characteristics that make them uniquely attractive:
Exposed rooftop infrastructure. Cooling units, HVAC systems, generators, and antennas sit unprotected from above. A small drone carrying a modest payload doesn't need to breach a perimeter fence. It needs to drop something on a chiller. A single point of failure at a hyperscale facility can cascade quickly.
Extreme economic consequences. Downtime at a large facility can exceed one million dollars per hour. Nation-state actors and domestic extremists know this. For many threat actors, disruption is the mission. Destruction is a bonus.
Open-source targeting. No physical reconnaissance is required. Facility footprints, power infrastructure layouts, and approach corridors are documented online. An adversary sitting in a hotel room can plan an attack with satellite imagery and publicly available engineering data.
Political target dynamics. Domestic actors opposing data center construction and expansion are already flagged in threat reporting as a specific vector. The ideological motivation exists independent of foreign state actors.
The Bahrain attack removed the theoretical dimension from this conversation. Consumer Off-the-Shelf (COTS) equipment combined with freely available information could equal weaponized Unmanned Aircraft Systems (UAS). That equation doesn't change based on which country the facility is in.
You Can Detect. You Cannot Defeat. That Distinction Matters.
The first thing data center security teams need to accept is this: as a private entity in the United States, you cannot legally defeat a drone in U.S. airspace yourself. Kinetic countermeasures, jamming, spoofing, and directed energy systems are currently only reserved for DHS, DOD, DOJ, and FAA-designated entities. The FCC prohibition on non-federal use of jammers and spoofers is not an administrative technicality. Violating it carries serious legal exposure.
This is not an indefinite limitation. Policy is moving. But today, your program must be built around detection and response.
Detection is still worth doing. A well-run detection program accomplishes things that matter:
It gives you time. Advanced warning changes what your security team can do. A drone appearing on a sensor feed before it reaches your rooftop is a fundamentally different situation from discovering one after the fact.
It builds a record. Pattern-of-life data collected over months tells you what normal looks like over your facility, which makes anomalies identifiable and incidents defensible in court or in front of federal partners.
It demonstrates due diligence. If something happens, the question your insurers, lawyers, and regulators will ask is whether you had a program. A sensor log is evidence that you did.
It positions you for what's coming. Operators who build a detection program now, run it consistently, and develop institutional knowledge around it are the ones positioned to add defeat capability the moment regulations allow. The detect-only posture today becomes detect-and-defeat tomorrow, provided the groundwork is there.
Detection is not a reason to feel secure. It is a reason to act. What you do with detection data, i.e., how you respond, who gets notified, and how fast, is what determines whether awareness translates into protection.
Target Hardening: What You Can Do Right Now Without Defeat Capability
Alongside detection, physical hardening is the most actionable near-term investment for data center operators, and most of it requires no regulatory approval.
Hardening could mean placing physical barriers around your most vulnerable rooftop assets. Tensioned cables over cooling equipment, mesh caging over generators, concrete enclosures around critical power infrastructure. These measures don't require defeating the drone. They require making the target harder to hit with precision. A drone that detonates or impacts 20 feet from a cooling unit instead of directly on it produces a different outcome.
Obscuration could mean making your critical sub-systems harder to locate and identify from above. Physical camouflage, decoys, screening vegetation, and concealment of rooftop markings can complicate an adversary's ability to navigate to a specific target.
Perimeter extension could mean extending your detection envelope outward. The goal is to force a threat to travel farther in your observable airspace before reaching anything critical. More distance means more time, and more time means more options.
None of these efforts require special authority. They require a site assessment and a program budget conversation. The physical measures are low-cost relative to the consequences they're meant to reduce.
Sensing Technologies and the Importance of Sensor Fusion
No single detection technology will detect and track 100% of drone activity. This is the structural reality of how these systems work.
Commercially-available sUAS in swarm configuration.
Remote ID Sensors
Fast to deploy and good at identifying aircraft that compliantly broadcast Remote ID. Struggle against non-broadcasting drones and custom-built platforms — the higher-threat category.
Radar
Detects non-emitting targets in most weather conditions. Requires line of sight, needs tuning for environmental-specific clutter, and can perform terribly in the wrong context. Micro-Doppler improves discrimination at cost and complexity.
EO / IR
Visual confirmation and payload cueing. Generally weather-limited and require line of sight.
Acoustic
Low-cost and capable of detecting audible aircraft signatures. In noisy urban or industrial environments, however, they can be unreliable.
Multi-sensor fusion platforms integrate data from multiple sensors, reduce false alarms through corroboration, and give operators a single operational picture. They add cost and integration complexity, but they're what transforms a collection of individual sensors into a program.
The practical implication: a mature Counter-Unmanned Aircraft System (C-UAS) detection program for a data center is likely a combination of Remote ID as the baseline layer. Depending on your total asset footprint and threat analysis for all sites independently, lower threat sites may require a single sensor while others require a multi-sensor approach. The optimal configuration depends on your site, the surrounding airspace, other environmental factors, and your threat profile.
Section 2209: The Regulatory Window That Could Change the Landscape
Section 2209 of the FAA Reauthorization Act is the most consequential near-term development in the C-UAS regulatory space. It directs DHS to establish a process through which non-federal entities operating critical infrastructure can apply for specific airspace restrictions over their assets, currently called Unmanned Aircraft Flight Restrictions (UAFR) and Special Unmanned Aircraft Flight Restrictions (SUAFR). While this is not an authority for private asset owners to use UAS defeat technologies, it is a significant step in the right direction for such authority in future rulemakings.
Action required — July 6, 2026
The comment deadline for this Notice of Proposed Rulemaking (NPRM) is July 6, 2026, and data center operators should be in that docket. Comments can be filed at:
The comment period is the practical window to make the case that data centers constitute critical infrastructure warranting protection under this framework. A well-argued comment doesn't need to be long. It needs to establish the economic consequence of a successful UAS attack. Operators who coordinate a collective comment with peers carry more weight in the docket than individual filings making the same argument independently.
Building a Program: The Sequence Matters
Program stand-up is a process, not a purchase. The single most common mistake I see is organizations skipping directly to procurement, without defining what they're trying to detect, in what environment, against what threat profile.
A far more effective approach is as follows:
01
Education comes first.
Understand the threat, the technology landscape, and the regulatory framework before technology purchases.
02
Solicitation follows.
Issue an RFI or RFP to qualified vendors. Require actual performance data from comparable facilities, FCC and FAA compliance documentation, and references you can call. Treat this like any other critical procurement.
03
Request specific testing data or validate on your own site(s).
Down-selection and verification should be scored in your specific environment. Shortlisted systems should be tested against your specific threat scenarios.
04
Response policy gets built in parallel with technology selection.
Detection without a response protocol is operationally useless. Define who gets notified, in what order, what they're authorized to do, and how that connects to local law enforcement and federal partners. SOPs need to exist before an incident, not after.
05
Commissioning and maintenance complete the cycle.
Systems require maintenance. Operators need recurrent training. Pattern-of-life runs and red-team exercises need to happen on a schedule. A commissioned system that runs unattended for 18 months is not a C-UAS program. It's an expensive sensor with degrading effectiveness.
Where This Is Going
The trajectory is clear. Drone incursions will continue to increase. The threat actors are diversifying, from hobbyists and corporate espionage operators to organized domestic extremists to state-affiliated actors. The hardware to execute an attack is increasingly capable and becoming even less expensive over time.
Regulatory authority for private operators is moving in the right direction, but slowly. State and local law enforcement are maturing, but uneven. Major cities that hosted events like the FIFA World Cup accelerated their capability. Most jurisdictions haven't. Broad state and local C-UAS defeat capability, realistically, is years away.
In that gap, data center operators are not defenseless. Detection is legal and available now. Physical hardening is legal and available now. Building institutional knowledge, vendor relationships, and interagency connections that will enable defeat capability when regulations allow is work that can start today.
The Bahrain attack demonstrated that the threat is not theoretical. It demonstrated that the tactics are reproducible and the hardware is accessible. What it also demonstrated is that detection and hardening have value. The attack was unfortunately successful. However, a more mature program could have shortened the response, limited the impact, and built the forensic record needed to support federal action in the future within the United States.
Data center operators who treat this as a future problem will find themselves building programs reactively, under pressure, after something has already happened. That's a worse outcome in every dimension.
The tools to start are available. The regulatory window is open. The time is now.
Topics
Counter-UAS · Data Center Security · Section 2209 · Drone Threat · Critical Infrastructure · UAS Policy · C-UAS Program · NPRM
Nate Ernst
Founder & President, The Tactien Group
As Founder and President of The Tactien Group, Nate Ernst specializes in helping infrastructure operators decode aviation technologies and integrate them into their operations. Ernst has 15 years of UAS operations experience across Group 1 through Group 4 aircraft, advising utilities, data center operators, oil and gas companies, other infrastructure sectors, and federal partners on technology selection, regulatory strategy, and operational program stand-up. Within the C-UAS sector, he supports integration efforts and bespoke program stand-up. He has participated in multiple national C-UAS forums on C-UAS capabilities for the private sector and serves as a regular advisor to government organizations on C-UAS technology.
About The Tactien Group
The Tactien Group is an independent aviation advisory firm focused on the integration of unmanned aircraft systems into critical infrastructure operations. Services span UAS program strategy, counter-UAS advisory, technology vetting and validation, regulatory support, CONOPS development, and executive education. Clients include electric utilities, oil and gas operators, data center operators, and water infrastructure organizations.
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