Aerial view of the renovated runway at Marine Corps Air Facility (MCAF), Marine Corps Base Quantico, Virginia, 2022. U.S. Marine Corps photo by Cpl. Mitchell Johnson, via DVIDS (public domain). Used to illustrate military airfield infrastructure.

Beyond the Flightline: Airbase Operational Readiness Is a Munitions and EOD Problem

Technical Summary

Strativia, a United States federal services contractor, recently published a capability brief titled Base Operational & Airfield Readiness. It makes a claim that is hard to argue with: airfields and base operations are not back-office logistics but the lifelines of mission execution. Every sortie, every cargo movement, every personnel rotation begins with an airfield that runs securely and without interruption. The brief then catalogues the peacetime craft of keeping that lifeline open. Runway and taxiway inspection. Foreign object debris (FOD) monitoring. Notice to Airmen (NOTAM) submission. Dispatch, warehousing, property accountability, all wrapped in ISO 9001 quality standards. None of that is wrong. It is also not the part that breaks first when an airbase is contested.

For European members of the North Atlantic Treaty Organization (NATO), the readiness conversation has moved on from snow removal to survival. A 2023 Royal United Services Institute (RUSI) study warned that European air forces had concentrated their combat aircraft on a handful of main operating bases with few hardened shelters and thin missile defence, leaving them exposed to Russian long-range strike. On 1 June 2025, Ukraine’s Operation Spiderweb made the same point from the other direction, smuggling first-person-view (FPV) drones deep inside Russia and striking parked strategic bombers on their own airfields. The lesson for the Alliance is uncomfortable. The binding constraint on contested airbase readiness is not the flightline. It is the Weapons, Ordnance, Munitions and Explosives (WOME) enterprise that arms the aircraft, and the explosive ordnance disposal (EOD) capacity that has to clear the field before anyone can fly again.

An aircraft can be dispersed to a highway strip in an afternoon. The licensed, quantity-distance-compliant storage that holds the bombs to arm it cannot. That asymmetry, not the flightline, is where contested airbase readiness is won or lost. ISC Defence Intelligence assessment

The Peacetime Model Meets a Contested Reality

The Strativia model describes installation support optimised for efficiency and compliance. It is built around Department of Defense, Federal Aviation Administration and base-specific standards, quality-management certification, and the steady rhythm of a base that nobody is shooting at. That is the right model for the overwhelming majority of airbase-days, and the contractor market that supplies it is large and capable. The difficulty is that efficiency and dispersal pull in opposite directions. Decades of consolidating fleets onto fewer, better-equipped main operating bases produced exactly the concentration RUSI flagged: a small number of high-value targets, lightly hardened, well inside the reach of an adversary that has studied them.

Operation Spiderweb added a second axis of threat. The danger to a parked aircraft is no longer only the ballistic or cruise missile arriving from hundreds of kilometres away. It is also the cheap drone launched from a lorry parked outside the wire. Ukraine claimed 41 aircraft hit for a notional seven billion US dollars in losses, using roughly 117 drones pre-positioned inside Russian territory. The aircraft-loss figures come from one party to the war and remain contested. The tactical proposition does not. The perimeter is porous, parked aircraft are exposed, and the answer is some blend of dispersal, hardening and ground-based air defence. NATO’s chosen vehicle for the dispersal half of that answer is Agile Combat Employment (ACE).

ACE moves aircraft away from the big bases to a web of smaller, less predictable operating locations, run by lean teams of multi-capable personnel. The Royal Air Force (RAF) and United States Air Force have signed a combined vision statement on ACE, and the concept now anchors NATO exercises such as Ramstein Flag 25. Dispersing the aircraft is the part everyone can picture. Dispersing what arms them is the part that does not appear in any brochure, and it is where the readiness problem actually lives.

The Quantity-Distance Ceiling on Dispersed Munitions

Munitions are not cargo. They are explosives, and storing them is governed by physics rather than preference. NATO codifies this in the Allied Ammunition Storage and Transport Publication (AASTP-1), the Alliance manual of safety principles for the storage of military ammunition and explosives. The governing relationship is quantity-distance (QD): the Net Explosive Quantity (NEQ) held at a location dictates the separation distances required between that store and everything around it, from inhabited buildings to neighbouring magazines to the aircraft on the ramp. Every nature is also assigned a Hazard Division (HD) and a Compatibility Group (CG). An HD 1.1 store, capable of mass detonation, demands far greater stand-off than HD 1.4 small-arms ammunition, and incompatible groups cannot share a building.

Here is where ACE meets hard limits. You can taxi a fighter onto a motorway strip or a civilian field in an afternoon. You cannot conjure a licensed, QD-compliant explosives storehouse there in the same timeframe. A dispersal site holding a meaningful tonnage of guided bombs and missiles needs either the real estate to satisfy quantity-distance, which austere sites rarely have, or a deliberate decision to accept reduced safety distances and the higher risk to people and aircraft that follows. Hold too little forward and the dispersed jets fly a sortie or two and fall silent. Hold too much, too close, and one lucky strike on the weapons storage area destroys the aircraft it was meant to arm. The munitions footprint, not the runway length, is what caps how long a dispersed site can fight.

Resupply Under Contested Conditions

Suppose the storage problem is solved. The next constraint is filling those stores, then refilling them under fire. ACE borrows the forward arming and refuelling point (FARP) from rotary-wing practice: a temporary node, close to the fight, where aircraft land, rearm, refuel and leave. FARPs are demanding even in benign conditions. Different aircraft need different loadouts. Live ordnance has to be moved and handled by certified personnel. The resupply tail leans on vehicle convoys that are themselves targets. None of that scales gracefully once the roads are contested.

Behind the tactical resupply sits a strategic shortfall that is now well documented. NATO’s ammunition production base withered during the long counter-insurgency years and is scrambling to recover. Open-source reporting through 2024 and 2025 returned again and again to one comparison: Russia was turning out in roughly three months what the whole Alliance produces in a year. Europe set a target of two million artillery rounds a year and stood up new capacity, including Rheinmetall’s plant at Unterlüss in Germany, opened in August 2025 and billed as the continent’s largest, with output planned to climb to 350,000 155 mm shells a year by 2027. The deeper bottleneck is energetics. For a stretch, a single factory in Poland was producing the trinitrotoluene (TNT) that fills Western shells, and the military high explosives that go into warheads, principally RDX and HMX, are themselves made at very few plants on either side of the Atlantic. Just-in-time supply chains, lean and efficient in peacetime, leave almost no buffer when consumption spikes. An airbase can only generate the sorties its magazines can sustain, and those magazines draw on a pipeline that is still being rebuilt.

The EOD Bottleneck: Clear the Field Before You Repair It

The third constraint reveals itself only after the first bomb lands. A modern strike on an airfield does not simply crater the runway. It scatters unexploded ordnance (UXO): submunitions, failed bomblets, and the inevitable proportion of any weapon that does not function as designed. Until that ordnance is rendered safe, nobody repairs anything. This is the sequence that base-operations marketing tends to skip. Rapid Airfield Damage Repair (RADR), the craft of cutting out craters and capping them with rapid-set concrete or fibre-reinforced polymer mats, cannot begin while the working area is seeded with live submunitions. Explosive ordnance disposal comes first. EOD is the pacing function of recovery.

The United States Air Force has industrialised part of this with the Recovery of Airbase Denied by Ordnance (RADBO) system: a mine-resistant vehicle mounting a three-kilowatt Zeus III laser and a robotic arm that investigates and neutralises ordnance from up to 300 metres of stand-off. The fleet has cleared more than 4,000 items at better than 99 percent effectiveness and performed strongly at exercises such as Cope North 24. It is a real advance. It is also around 29 vehicles for a global force, and a laser still services targets one at a time. When Air Force EOD technicians talk about rehearsing the removal of large numbers of submunitions before the next wave arrives, sometimes with rope, tape and a backhoe rather than anything exotic, they are describing a throughput problem. A dense field of submunitions can push the start of runway repair back by hours, sometimes longer, depending on contamination density, weather and the number of teams available. Finite EOD capacity, applied to a contaminated airfield, sets the clock for everything downstream. Clear, then repair, then rearm, then fly. NATO has recognised the repair half, investing in standardised fibre-reinforced polymer crater-repair kits for critical European bases. The clearance half rests on people and specialist equipment that take years to grow.

Personnel and Safety Considerations

ACE leans on the multi-capable airman: a generalist able to perform tasks outside their core trade so a small team can run a dispersed site. That logic has limits, and they bite hardest in the WOME domain. Quantity-distance licensing, hazard classification, render-safe procedures and ammunition technical oversight are not tasks you hand to a willing volunteer after a weekend’s instruction. They sit behind formal competence and qualification regimes for good reason: the United Kingdom’s Defence Safety Authority Ordnance, Munitions and Explosives regulations (DSA 03.OME), the United States Department of Defense explosives-safety standards (DoD 6055.09), and the NATO AASTP series all exist precisely because this knowledge cannot be improvised. The gap between holding a quality-management certificate and actually possessing ammunition-technical competence is precisely the seam NATO quality assurance has long struggled to close. Disperse the aircraft and you can spread the load. Disperse the explosives and you still need certified ammunition technicians and EOD operators at every node, and there are only so many of those. The binding constraint is human as much as it is physical.

Data Gaps and Confidence

This assessment rests on open sources, and several of the relevant figures sit behind classification. The number, hardening standard and quantity-distance licensing of European weapons storage areas are not public, so the true forward-storage ceiling cannot be quantified here. The aircraft-loss claims from Operation Spiderweb originate largely with one belligerent and should be read as contested. EOD manning levels and render-safe throughput rates are not disclosed. Forward ammunition holdings under ACE, and the risk-acceptance decisions that govern them, are operationally sensitive by design. Readers should treat the direction of travel as well evidenced and the precise magnitudes as indicative rather than settled.

Corrections & updates welcome. If you hold open-source data that refines or corrects any parameter in this article, please contact [email protected] citing the specific claim and your source. Verified corrections will be incorporated and credited in the revision history. AI-assisted technical assessment based on open-source material. Not a formal intelligence product.