NATO Drone Wall vs Belarus Incursions: Counter-UAS Teardown

In September 2025, roughly twenty Russian uncrewed aerial systems crossed into Polish airspace. Dutch F-35As from 313 Squadron scrambled and shot down four of the intruders, Poland invoked NATO Article 4 the same morning, and within days Allied Command Operations stood up Operation Eastern Sentry—pooling tactical aviation and ground-based air defense assets drawn from Denmark, France, Germany, Italy, the Netherlands, Spain, and the UK.

Then the accounting ledger arrived.

A single AIM-9X Sidewinder launch consumes more than €400,000, expended against a mass-manufactured delta-wing airframe costing between $20,000 and $50,000. Compounding the financial asymmetry, one of those interceptors detonated in terminal proximity and scattered kinetic fragments and structural debris across a civilian residence in Wyryki-Wola.

That single engagement encapsulates the systemic structural crisis of European continental air defense: fifth-generation stealth fighters and exquisite missile magazines utilized as an ad-hoc, $35,000-target disposal service, accompanied by acute collateral risk falling directly onto civilian infrastructure.

The defense apparatus now being assembled along NATO’s eastern frontier is popularly christened the “drone wall”—a name that represents a severe conceptual and marketing failure. There is no physical wall. What is actually being deployed from the Baltic shores to the Black Sea is an asynchronous, distributed sensing and effector stack: five interoperating technical layers that collectively determine whether a low-radar-cross-section (RCS) intruder navigating at 80 meters above ground level is identified at 20 kilometers or at 2.

This technical audit deconstructs that architecture across three interdependent planes: physical hardware interfaces, unit economics of attrition, and procurement politics as the binding system constraint.

There Is No Wall. There Are Five Interfaces.

The terminology became detached from operational reality early in the political cycle. Interior ministers representing Estonia, Latvia, Lithuania, Poland, Finland, and Norway convened in May 2024 to formalize an agreement establishing a collective “drone wall” of counter-uncrewed aerial systems (C-UAS) along their external borders. By late 2026, the phrase had fractured into at least three distinct, competing concepts:

1. An operational Baltic border sensor and telemetry network.
2. A European Commission multi-billion-euro industrial subsidy program.
3. An umbrella marketing vehicle for national defense-industry roadshows.

Frontline Baltic defense officials state this openly. Arbo Probal, director of UAS and C-UAS operational programs for the Estonian Defence Forces, noted at DSEI Gateway that the phrase has devolved into “an umbrella term for defence industry initiatives.” Major Modris Kairišs, commanding officer of Latvia’s Autonomous Systems Competence Centre, confirms that while inter-ministerial committees debate the conceptual wall, member states are “starting their own national programmes” out of immediate operational necessity.

Stripping away political rhetoric reveals the five technical interfaces actually being fielded across the Baltic-to-Black-Sea corridor:

Estonian military program managers emphasize that relying on single-point solutions guarantees defeat: “There is not a single sensor, interceptor or kinetic solution which will solve this problem,” Probal stated. Attack profiles consistently exploit physical terrain masking along border valleys, intentionally navigating beneath the minimum line-of-sight elevation cutoff of legacy air-defense radars. A multi-layered, integrated topology is the only architecture capable of achieving closure across the kill chain.

The Belarus Corridor Threat Model: Attackers, Strays, and Swarms That Look Identical on Radar

Designing an effective sensor-effector stack requires a rigorous threat model. On the Belarus frontier, the target environment is far more complex than simple hostile loitering munitions:

Political Cadence of Incursions

Hostile airframes do not arrive randomly; their incursions align with political and strategic calendar triggers. The September 9–10, 2025 multi-drone breach occurred days prior to the commencement of the joint Russian-Belarusian Zapad 2025 strategic exercises on September 12, focusing Allied attention directly onto the Suwałki Gap—the narrow 65-kilometer Polish-Lithuanian corridor isolating Kaliningrad from Belarus.

The drones formed part of an integrated deep-strike package targeting western Ukrainian infrastructure, utilizing sovereign NATO airspace as an unmonitored radar-shadow corridor. In the same operational window, Russian uncrewed systems breached Romanian territory on September 13 (marking the eleventh recorded airspace violation logged by Bucharest), while three Russian MiG-31 fighters transited Estonian sovereign airspace for 12 minutes on September 20. Belarus operates in this framework as permissive operational geography: a staging base, electronic screening buffer, and low-altitude overflight corridor allowing sovereign actors plausible deniability.

The Problem of Friendly Electronic Strays

A critical dimension routinely omitted from public policy briefings is the volume of friendly strays. Baltic defense analysts confirm that a substantial percentage of low-altitude drones breaching eastern airspace originate from Ukrainian defensive lines, having lost guidance links and satellite locks under severe Russian electronic warfare (EW) barrage jamming.

The frontier sensor fusion pipeline must perform high-confidence target discrimination: distinguishing a drift-compromised Ukrainian reconnaissance drone from a Russian radar-cross-section decoy, or an illicit smuggler’s modified quadcopter. This classification must occur within seconds, amidst ground radar clutter at night, with sufficient target confidence to authorize kinetic interception above inhabited rural communities.

Saturation Production Economics

Mass is no longer a tactical option; it is an industrial prerequisite. Satellite imagery audits conducted by Harvard’s Belfer Center document the scaling of the Alabuga Special Economic Zone facility, reaching an output of approximately 170 Shahed-class airframes per day by July 2025 and climbing toward 190 per day by late 2025.

Think-tank assessments characterize modern deep-strike doctrine as “coercion by salvo.” If an adversary routes even a 10% diversion of daily industrial manufacturing volume through border corridors, Western air defense magazines face mathematical exhaustion within days under traditional missile doctrine.

Persistent Hybrid Border Pressure

The Belarusian border has served as an active hybrid confrontation zone since 2021. The current drone defense mission is directly downstream of this friction: border guard detachments equipped with tactical radio-frequency scanners and Remote ID decoders must handle simultaneous civilian smuggling, hybrid reconnaissance probes, and military overflights. Estonia’s Ministry of the Interior drafted comprehensive counter-drone legislation precisely to unite civilian law enforcement and military intercept authorities across a single statutory domain.

Layer 0: The Physical Protection Layer Nobody Announces at Press Conferences

Operational commanders note a recurring blind spot in parliamentary defense debates: while political leadership focuses on high-tech interceptors and laser weapons, field engineers emphasize physical hardening, revetments, and camouflage. Arbo Probal highlights that “the wider Drone Wall concept leaves out” passive survivability measures completely.

Physical engineering remains unglamorous, immune to electronic disruption, and highly cost-effective. Defense operators along NATO’s eastern flank began retrofitting electrical distribution grids and substation step-down transformers with passive concrete baffles, earthen berms, and overhead steel wire mesh anti-drone nets—particularly across infrastructure nodes flanking the Suwałki Gap.

An overhead steel mesh net suspended above a high-voltage transformer requires zero firmware validation, draws zero kilowatts of continuous shore power, emits no detectable RF signature, and stops a $20,000 loitering munition with 100% mechanical reliability at zero marginal cost per engagement.

Capital efficiency dictates that passive hardening take precedence before sizing kinetic interceptor magazines and active radar coverage across adjacent sectors.

Layer 1: Multi-Modal Detection Is the Core Technical Hurdle

Major Kairišs summarizes the physical reality of low-altitude defense: uncrewed aerial targets are “not a hard target” to destroy kinetically; the binding challenge is achieving persistent detection and positive identification.

A Shahed-136 delta-wing airframe presents an estimated radar cross-section (RCS) of only 0.01 to 0.1 m²—equivalent to a medium-sized bird—while operating at altitudes of 50 to 300 meters, directly inside the severe ground-clutter zone. Legacy air defense search radars (such as Patriot AN/MPQ-65 or medium-range surveillance platforms) were designed and tuned to identify high-altitude supersonic combat aircraft and steep-angle ballistic profiles. Forcing these legacy systems to maintain a continuous track on a two-stroke lawnmower engine skimming tree lines produces radar returns indistinguishable from vehicular ground traffic or flocks of birds.

Resolving this blind spot requires transitioning from centralized high-power radar to a dense, multi-modal sensor fusion mesh:

Active Tactical Low-Altitude Radar

Deploying distributed networks of compact, solid-state X-band and S-band Active Electronically Scanned Array (AESA) radars optimized for micro-Doppler signature detection. Lithuania’s Ministry of National Defence authorized the Defence Resources Agency to acquire tactical short-range and passive radar suites, accompanied by initial interceptor drone evaluation lots, explicitly to establish “a unified system in which different means of airspace surveillance, target detection and destruction work together,” in the words of Defence Minister Robertas Kaunas.

Passive Radar & RF Emission Sniffers

Passive bistatic radar systems omit active transmitters entirely, calculating target position, velocity, and vector by analyzing distortions in ambient “signals of opportunity” (such as commercial digital audio broadcast, DVB-T television, and cellular base-station carriers) reflected off airborne surfaces. Because passive arrays produce zero radio-frequency emissions, they are invisible to adversary electronic surveillance and immune to anti-radiation homing missiles.

Concurrently, border agencies deploy automated RF spectrum monitoring pods that parse unencrypted Remote ID broadcast packets mandated on commercial drone protocols, instantly isolating low-level smuggling platforms from military-grade incursions.

Ground-Based Acoustic Arrays

Latvia is fielding a contiguous acoustic sensor line across its eastern frontier—one of the earliest national-scale operational deployments of tactical acoustic arrays. High-sensitivity directional microphone clusters paired with edge-deployed machine learning classifiers evaluate acoustic frequency spectrograms, detecting characteristic internal combustion and electric motor harmonics even when the airframe navigates through deep valleys invisible to radar. Crucially, acoustic sensing detects autonomous drones operating in complete radio silence with zero RF emissions.

To overcome atmospheric attenuation, acoustic arrays are paired with tactical radar nodes, providing cross-cueing during adverse weather conditions.

Multispectral EO/IR with Edge Computer Vision

High-definition mid-wave infrared (MWIR) and continuous-zoom electro-optical cameras equipped with edge inference accelerators form the definitive target verification layer. While tactical radar provides a target vector at 5 kilometers, optical sensors confirm target taxonomy—verifying whether an incoming airframe is an unarmed commercial DJI quadcopter or an armed combat drone. This optical confirmation provides the legal standard required under Allied rules of engagement before authorizing kinetic fire over inhabited terrain.

Harvard Belfer Center evaluations of the European Drone Defense Initiative (EDDI) identify a critical structural imbalance: procurement programs remain heavily over-indexed on multi-year interceptor manufacturing contracts with prime defense contractors, while “generally ignoring detection architecture, which is likely to become a binding constraint later on.” Mass-producing thousands of kinetic interceptors yields zero defensive utility if target cueing is achieved only when the incoming airframe is 400 meters from impact.

Layer 2: Command & Control Is the Actual “Wall”

Across frontline operational commands, consensus has solidified on one central truth: defensive efficacy is governed by integration latency. The decisive variable is neither the sensitivity of the sensor nor the speed of the interceptor; it is the time required to fuse disparate sensor tracks into a unified fire-control solution distributed to distributed effectors within seconds.

Latvia, Estonia, and Lithuania are actively building toward synchronized national C2 architectures to feed a single, standardized operational airspace picture. However, the architectural failure mode threatens to mirror commercial software platform fragmentation: 27 sovereign European Union member states establishing 27 independent national acquisition programs, yielding 27 proprietary, non-interoperable data formats.

The Belfer Center’s primary architectural recommendation mirrors open platform engineering: Allied funding should mandate open, standardized API publishing as an absolute statutory condition of procurement:

“Any funded effector must plug into any funded detection layer.”

Without mandatory interface standards, the European Union’s €150 billion Readiness 2030 funding pipeline risks subsidizing a mosaic of disconnected proprietary ecosystems that share financial backing but cannot exchange real-time target tracks.

International standardization efforts are advancing slowly. A formal US-UK joint declaration on counter-drone data architectures seeks to unify C-UAS data schemas across up to 25 allied nations. On the operational verification side, NATO established the Sēlija uncrewed testing range in Latvia—one of five specialized NATO Innovation Ranges organized under the Alliance’s Rapid Adoption Action Plan—specifically to subject competing vendor interoperability claims to rigorous electronic warfare stress tests.

Field commanders maintain a healthy skepticism toward vendor marketing claims. Veiko Kommusaar, Estonia’s Deputy Director General for Border Management, observes: “Industry presentations promise much, but in real conditions, solutions do not always function as expected.” Consequently, Estonia structures counter-drone procurement as continuous sprint cycles of live field testing and integration rather than monolithic multi-year buys, strictly limiting vendor selection to vetted Western and regional defense partners.

Layer 3: Soft-Kill Interdiction and Its Declining Operational Half-Life

Radio-frequency and electronic warfare jamming constituted the initial operational response to consumer and commercial drone incursions. While soft-kill systems offer minimal marginal cost per engagement, their tactical effectiveness is decaying along a steep technological obsolescence curve.

Modern military-grade airframes operate with frequency-hopping spread-spectrum radios, multi-band satellite receivers, and—most crucially—autonomous dead-reckoning navigation systems combining high-grade inertial measurement units (IMUs) with optical terrain-referencing cameras.

Once an autonomous drone navigates via pre-programmed waypoint coordinates using inertial dead-reckoning and terminal optical scene matching, the aircraft generates zero RF control emissions and ignores external satellite positioning entirely. Under these operational conditions, traditional RF jammers and GNSS spoofers fail completely.

Two additional operational constraints limit soft-kill employment in peacetime and hybrid gray-zone environments:

Electromagnetic Collateral Damage

Broadband barrage jamming across civilian airspace indiscriminately degrades commercial air traffic navigation, agricultural GPS systems, cellular networks, and municipal emergency response bands.

The security crisis at Munich Airport on October 2–3, 2025, illustrates this defensive paralysis: unauthorized drone sightings forced immediate runway shutdowns, cancelling 17 commercial flights and stranding 3,000 passengers, followed by a secondary disruption within 24 hours impacting an additional 6,500 travelers. Law enforcement authorities refrained from deploying RF jamming or kinetic counter-measures due to unquantified collateral liabilities and undefined domestic rules of engagement over dense municipal centers. Between January 2024 and November 2025, commercial drone incursions forced operations to halt at more than 24 airports across 12 European nations.

Tactical Attribution Asymmetry

In an operational corridor saturated with stray reconnaissance drones and commercial cross-border traffic, jamming decisions occur under profound identification uncertainty. Jamming a friendly Ukrainian reconnaissance drone navigating back to allied lines directly degrades friendly situational awareness.

Soft kill remains a necessary component of the defense stack—functioning like a perimeter firewall—but cannot be relied upon as the terminal backstop for high-value asset protection.

Layer 4: Hard-Kill Interception and the Unit Economics Ledger

The fundamental vulnerability of Western air defense lies in the unsustainable economic disparity between offensive saturation munitions and exquisite surface-to-air interceptors. The public ledger makes this asymmetry clear:

The strategic imperative is stark: the marginal cost per engagement must converge toward the marginal cost of the incoming threat, or the defense will be defeated arithmetically even while winning individual tactical engagements.

The United States Navy encountered this mathematical reality in the southern Red Sea, shifting from $4.5 million Standard Missiles to Sidewinders and APKWS laser-guided rockets as inventory levels depleted at an unsustainable rate. Poland absorbed this lesson directly when intercepting low-altitude targets over Lublin province with €400,000 munitions.

This economic reality is driving hard-kill innovation along the eastern flank:

Interceptor Drones as the New Anti-Air Artillery

Latvia is operationalizing rapid-response mobile units mounted on light 4×4 tactical vehicles equipped with automated pneumatic launch racks for high-speed interceptor drones manufactured by Origin Robotics and Eraser.

In Estonia, defense integrator DefSecIntel formalized agreements with Origin Robotics to integrate the high-velocity Blaze kinetic interceptor directly into its vehicle-mounted Eirshield multi-layered combat system, creating a combined ecosystem alongside regional contractors including Rantelon, Marduk Technologies, Lendurai, Hevi Optronics, Frankenburg Technologies, and Lithuania’s Telekonta.

With Ukrainian manufacturing reaching tens of thousands of interceptor drones monthly, Baltic defense ministries are pivoting acquisition budgets toward high-rate attritable interceptors. As Jaanus Tamm, CEO of DefSecIntel Solutions, affirmed: “Politicians have called for a Drone Wall. We are ready to build it. This is not a concept. This is a live, integrated system.”

Low-Cost Directed Energy

The counter-drone laser sector is bifurcating into two distinct market categories: complex, maintenance-intensive 100 kW-class military directed-energy installations, and a new tier of compact, solid-state 5 kW tactical units engineered specifically for counter-FPV point defense.

A mobile 5 kW unit priced near €200,000 with a 500-meter closed-loop optical tracking envelope cannot intercept a heavy fixed-wing Shahed. However, it provides an optimal, virtually infinite magazine depth for defending high-voltage electrical transformers against commercial quadcopter strikes, with marginal shot costs measured purely in kilowatt-hours.

Strict Budgetary Discipline

Arbo Probal frames this design constraint succinctly: as adversary drones drop in unit cost, counter-UAS architectures “must also stay affordable, so we don’t fight ourselves into bankruptcy.”

The Gerbera Inversion: When Decoy Economics Collapse

One of the most consequential discoveries emerging from empirical combat analysis contradicts prevailing Western air defense doctrine. Vasyl Dubovyi, head of the Ukrainian Armed Forces’ Group 12 weapons-analysis unit, documented in early 2026 that the underlying economics of offensive decoy swarms had completely inverted.

Western air defense planners widely assumed that adversaries would deploy high ratios of cheap, unarmed foam-body Gerbera decoys alongside armed Shahed-136 strike drones (projecting ratios of roughly 3:1) to exhaust defender missile stocks.

However, empirical battlefield telemetry revealed that decoy density dropped from approximately 30% of strike packages in late 2025 to barely 10% by early 2026.

This inversion has immediate consequences for the “drone wall”: defensive stacks engineered around deceptive decoy discrimination or target-to-decoy ratios are optimizing for obsolete industrial baselines. The eastern flank requires discrimination algorithms and kinetic intercept costs that scale down in price faster than offensive airframe manufacturing curves. This is an industrial scaling race resembling silicon fabrication curves, and traditional bureaucratic procurement structures are ill-suited to navigate it.

Layer 5: Operational Human Authority and the Liability of the Shootdown

Beyond hardware and sensor telemetry, border air defense requires human operators operating under clear legal statutory authority—and frontline Baltic nations face acute personnel constraints.

Latvia’s operational approach relies on dispersed two-operator teams deployed in light 4×4 vehicles carrying interceptor launch containers, supported by synchronized optical and acoustic telemetry. The explicit architectural goal is minimizing operational crew size, recognizing that Baltic demographics cannot sustain the high manpower density of Ukraine’s mobile fire-team network.

Estonia is addressing the bottleneck through statutory architecture. The Drone Draft Act, backed by a planned €364 million multi-year counter-drone investment framework, formalizes clear division of engagement authority:

• Civilian / Hybrid Low-End Threats: Primary engagement authority rests with the Police and Border Guard Board, with military units providing technical sensor backstop.
• Military Incursions: Primary engagement authority transitions instantly to the Estonian Defence Forces, with border guard units authorized to execute kinetic engagements if tactical response timelines require immediate action.

This legislative architecture is critical. The binding constraint across modern European air defense is rarely technical target tracking; it is the legal framework governing kinetic rules of engagement over sovereign, populated territory under ambiguous hybrid conditions. The defensive paralysis observed during the Munich Airport incursions and the kinetic collateral damage sustained at Wyryki-Wola illustrate two sides of the same dilemma: authorizing a kinetic engagement over farmland is fundamentally a statutory liability decision. Without statutory de-risking, high-speed effectors remain locked in storage racks while incoming tracks cross sovereign airspace.

European Fragmentation: EDDI, Eastern Sentry, and the Battle of the Architectures

Europe’s counter-drone deployment is at risk of fracturing along bureaucratic and organizational fault lines:

European Drone Defense Initiative (EDDI)

Managed under the European Commission and funded via the €1.5 billion European Defence Industry Programme (EDIP) adopted in March 2026 alongside SAFE credit mechanisms. Targeted for formal operational initiation in late 2026 with full functional capacity planned for late 2027.

EDDI represents the broadened iteration of the eastern border “drone wall” proposal that the Commission initially declined to fund in early 2025—a decision reversed following the Polish border incursion. After non-frontline member states objected to specialized geographic allocations, the project was restructured into a broader, continent-wide drone defense initiative.

Operation Eastern Sentry

Allied Command Operations’ enhanced vigilance activity operating under the authority of SACEUR. Funded through national defense budgets and NATO common-funding pools, drawing on non-EU Allied assets including the United Kingdom, Norway, and Canada. By mid-2026, Eastern Sentry established its own live-fire trial framework, including multi-tier C-UAS operational exercises in Romania.

Eastern Flank Watch

An eight-nation regional Nordic-Baltic defense consortium organized under Finnish and Polish leadership, established at the December 2025 Helsinki Summit to accelerate rapid procurement cycles independently of Brussels’ multi-year legislative mechanisms.

These three initiatives overlap in geographical mission, operate under distinct command-and-control hierarchies, and compete directly for identical industrial manufacturing capacity and specialized engineering talent.

Concurrently, major western European powers have voiced open skepticism regarding centralized Commission oversight. French leadership has urged strategic caution, while German Defence Minister Boris Pistorius explicitly emphasized at the Warsaw Security Forum that a comprehensive continental system would require years to mature: “Drone defense, of course, but not by a drone wall.”

Addressing this friction, ECFR defense analyst Ulrike Franke noted that while the late-2027 deployment schedule is technically feasible because constituent subsystems (tactical radar, acoustic arrays, and kinetic effectors) already exist commercially, treating the concept as an all-encompassing strategic solution is dangerous:

“The drone wall has become a silver bullet to all of our security questions. That is wrong, because these are different challenges. Airport incursions by locally launched drones are not solved by a border sensor line.”

Former Lithuanian Deputy Defence Minister Dovilė Šakalienė summarized the inter-governmental friction directly: “We have a lot of different names for a lot of different formats. I wish we’d have as much money — that would be much more helpful.”

Architectural Verdict: What Capital Buys Without Mandatory APIs

From an enterprise systems perspective, the fundamental operational risk confronting Europe’s counter-UAS deployment is not sensor physics; it is interface architecture.

Counter-UAS technology in 2026 mirrors the enterprise cloud infrastructure ecosystem of 2010. Detection sensors are commoditizing rapidly. Hard-kill effectors are diversifying into a wide ecosystem of attritable interceptors, programmable ammunition, directional lasers, and kinetic capture nets.

The defense ecosystems that dominate operationally will be those whose Command and Control data planes establish the de facto integration standard. Today, that integration surface is being built across 27 disparate national development silos without a unified, mandatory interface specification.

To prevent systemic divergence, three architectural mandates take operational precedence:

1. Mandatory Published Interface Schemas: Any effector or sensor platform receiving centralized European Union or NATO defense funding must publish standardized, documented open APIs as an absolute condition of contract award.
2. Industrial IP Co-Development with Ukraine: Centralized funding programs must secure intellectual property frameworks enabling frontline European manufacturers to build, modify, and iterate on battle-proven Ukrainian interceptor designs locally. Purchasing off-the-shelf production without adopting the accompanying weekly software iteration cycle is paying industrial tuition without attending class.
3. Dual-Track Procurement Pipelines: Split defense acquisition into high-velocity sprint tracks (delivering operational field iterations within 90 days for frontline border sectors) and standard multi-year programs for long-lead strategic infrastructure.

Failing to enforce open interface standards will produce a fragmented patchwork of closed, proprietary national systems—optimized to counter 2025 threat benchmarks while facing rocket-assisted, AI-navigated strike platforms and EW-dense saturation waves in 2027.

The 12-Month Defense-Tech Watchlist

Critical milestones and empirical decision points to track over the coming operational cycle:

• Estonia’s Drone Draft Act Adoption: Auditing whether the statutory handover protocols between the Police and Border Guard Board and the Defence Forces operate smoothly during initial hybrid border breaches.
• Estonian Eastern Border Continuous Sensor Coverage: Assessing the transition from localized fixed radar deployments across southeastern border corridors toward contiguous coverage spanning the entire eastern frontier.
• Lithuanian Air Defense Integration: Verifying which operational C2 network integrates Lithuania’s tactical passive radar and interceptor drone lots acquired in September 2026.
• US-UK Interoperability Schema Implementation: Monitoring whether the US-UK counter-drone data standard establishes production data exchange schemas or remains limited to general policy declarations across Allied forces.
• EDDI Initial Operational Capability (IOC): Auditing the threat profiles utilized during initial operational certification tests to verify resilience against autonomous, non-RF optical-navigation threats.
• NATO Sēlija Range Interoperability Trials: Evaluating live-fire, cross-border sensor-to-shooter data links between disparate national sensor platforms and third-party kinetic interceptors.
• Mass-Market Interceptor Cost Curves: Tracking whether Western industrial manufacturing of attritable interceptor drones approaches the $2,000 unit-cost threshold required to maintain defensive magazine parity.

Frequently Asked Questions