FPV/loitering systems reduce kg per strike, but multiply the number of strike packages. The bottleneck shifts to standardized payloads, fuzes, batteries, cameras, operators, EW.
The market is no longer an "invisible rear." It is strategic infrastructure.
In peacetime, explosives were a niche industrial / mining sector. After 2022, part of the market became critical defense infrastructure: artillery, missiles, drones, mines, aerial bombs, demolition, mining.
This is market analysis, not a technical manual.
The material deliberately cuts out anything that could be used as a practical instruction for manufacturing, acquiring, optimizing, or applying explosives.
What is in the material
OSINT figures, market estimates, public programs, strategic bottlenecks, country playbooks, high-level component logic, 2026–2030 scenarios.
What is not in the material
Recipes, synthesis regimes, proportions, temperatures/pressures, procurement tactics, plant addresses, vulnerabilities, instructions for manufacturing or use.
Why
The right level for a business-strategic review is to understand the supply chain, economics, and policy, without venturing into operational know-how.
The shell hunger is not an invention of 2022. It is a relapse.
Industrial war has its own gravity. Every generation first disarms "because peace is forever," and then rediscovers the same law — under fire, years behind. 1915 and 1940 already went through this lesson. 2022–2026 simply repeats it with new abbreviations.
1915: the crisis that toppled a government
In the spring of 1915, the British army in France opened fire — and quickly hit a wall: there simply weren't enough shells for a protracted positional war. After the failed assault at Aubers Ridge (May 1915), a war correspondent for The Times stated the cause outright — a shell shortage. The "Shell Scandal" became a political explosion: the Liberal government of Asquith did not survive it and turned into a coalition.
The response was not tactical but industrial: in June 1915, the Ministry of Munitions was created, headed by Lloyd George — in effect a separate ministry to force a peacetime economy to produce energetic materials at wartime tempo. National Filling Factories, hundreds of thousands of female workers (nicknamed "canaries" for the yellow tinge of their skin from TNT contact), new powder and filling lines. [44][45]
The scale that had to be caught up: ahead of the Battle of the Somme (1916), British artillery fired roughly 1.5 million shells in a single week of preparatory bombardment — a volume the peacetime industry of 1914 took months to produce. The bill for peacetime savings always arrives in the currency of time. [44]
What of this is a law, not an episode
The key point isn't "how much," but how much time: from recognizing the shortage to real mass output — years, not months. The powder and filling rear does not switch on at the push of a button even once the money and political will are already there.
A market that breaks almost every rule of a normal market.
The intuition "demand appears → supply follows" works poorly here. The ammunition market has built-in anomalies that leave it chronically underinvested in peacetime and chronically short in wartime. Six mechanisms worth keeping in mind while reading any figure below.
1. Monopsony
For a military-grade product, there is effectively one buyer — the state (and its allies). The White House Council of Economic Advisers names this directly as the root of fragility: "monopsony — the role of the single largest buyer and end consumer." Demand switches on and off by political decision, not by thousands of independent customers. [34]
2. Feast or famine
Orders pulse: dense during war, near-zero in peacetime. The US Army Science Board describes it literally as a "wave": as funding fluctuates, both unit price and lead times rise, and ammunition programs become the standing "bill-payer" — cut to fund higher priorities, deepening the future shortfall. [33]
3. Capacity hysteresis
The downward curve and the upward curve are not the same. A plant can be shut in months; rebuilding takes years. The figure that proves it: per the US Army Science Board's estimate, even a +80% investment yields only a ×2.5 rate increase — and only after 2.5 years. Money alone doesn't buy speed: training an average line worker takes 2 years, and an energetics specialist — 7 years. [33]
4. Peace dividend as a loan
Every postwar drawdown looks like free savings. In reality it's a loan against the next crisis: you eat through stockpile and surge capacity, and the bill arrives in the very first year of the next major war.
5. Bullwhip effect
A small spike in spending at the front turns into enormous swings further up the chain: raw materials, equipment, certification. The farther from the point of fire, the sharper and slower the swings. The shortage "hits" not where the shooting happens.
6. Capability doesn't store
Shells can be put into storage. Capability to produce them cannot. "Warm base" / minimum sustaining rate: to be able to scale up quickly, you must pay for a running line even in peacetime. Otherwise, at the moment it's needed, there's money but no one and nothing to make it with.
Market map: from gas and cotton to shell filling.
Explosives are not a single product. They are several stacked chains: fertilizer chemistry, cellulose chemistry, high explosives, propellants, metal, electronics, assembly, certification.
"A shell plant without powder and explosives is an expensive metal shop, not ammunition capacity.”In 2024–2026, it was precisely powder / explosives / filling plants that became the focus of separate European funding programs — not just shell bodies. [1][2][3]
Three different markets that are often confused
| Segment | What's sold | 2026 dynamics |
|---|---|---|
| Civilian industrial | bulk explosives, emulsions, blasting services for mining / quarry / construction. | Depends on the mining cycle, the AN/fertilizer chain, energy prices, regulation. |
| Military energetics | qualified fillers, propellants, charges, warhead energetic components. | The tightest bottleneck: certification, safety, QA, permitting, restricted inputs. |
| Finished munitions | shells, rockets, missiles, bombs, drones, mines, fuzes, guidance kits. | Visible output; but constrained by upstream materials and LAP. |
What cotton, saltpeter, and "the chemistry of war" have to do with it.
At a high level, the market rests on a handful of raw-material "nerves." Their shortages look mundane — cotton linters, ammonium nitrate, nitric acid, industrial solvents, steel — yet these are precisely what often stall military output.
Saltpeter / ammonium nitrate
A dual role: a fertilizer input and the basis of a significant share of the civilian blasting market. So shocks in the fertilizer / ammonia / gas chain can hit mining explosives and adjacent defense chains. Russia, per Reuters, produces roughly a quarter of the world's ammonium nitrate and controls up to 40% of global trade in it. [16]
Cotton → nitrocellulose
Cotton linters / cellulose are important for propellant-grade nitrocellulose. OECD-FAO expects China, India, Brazil, the US, and Pakistan to account for about 79% of global cotton production in 2025/26. [13] European reviews highlight dependence on Chinese cotton linters. [15]
TNT / RDX / HMX / PBX / IM
These are not interchangeable commodities. For military use, what matters is certification, stability, aging behavior, sensitivity, compatibility with the body/fuze, and supply traceability. A new plant isn't "install a reactor" — it's years of permitting, QA, and qualification.
Powders and modular charges
A shell without a propelling charge doesn't function as ammunition. Precisely charges / powder have become one of the bottlenecks in the US and Europe: the U.S. Army explicitly names metal parts, LAP, and propellant as investment priorities. [17][19]
Metal, machining, filling
Even when the energetic material exists, you still need shell bodies, bomb bodies, safe filling, weighing, sealing, inspection, lot traceability, climate-safe storage. Reuters shows how Western shutdowns and aging plants became a problem long before 2022. [30]
Fuzes, guidance, sensors
Precision doesn't eliminate explosives, but it shifts value into electronics / guidance / software. For drones, the bottleneck may not be the kilograms of explosive, but the thousands of small standardized payload assemblies, fuzes, batteries, cameras, RF links.
"The price of a kilogram of explosives" is a bad but useful question.
Bad — because a civilian bulk product, certified TNT contract, modular charge, artillery shell and missile warhead all carry different requirements. Useful — because it shows where civil commodity ends and defense scarcity premium begins.
Public civilian price proxies
| Category | Public range | Converted | Comment |
|---|---|---|---|
| Bulk ANFO | $600–800 / ton | ~$0.60–0.80 / kg | Industrial / mining proxy; not defense-grade. [12] |
| Emulsion explosives | $800–1,200 / ton | ~$0.80–1.20 / kg | Depends on region, service, logistics, bulk vs packaged. [12] |
| Packaged products | $1.5–4 / lb | ~$3.3–8.8 / kg | Higher price for packaging, safety, logistics, distribution. [12] |
| Defense TNT contract proxy | $310M / 18,000 t | ~$17.2 / kg contract value | Nitro-Chem → U.S. TNT 2027–2029; includes defense qualification, terms, delivery, risk, not spot price. [7] |
Why the military kilogram costs more
In a finished munition, the price per kg of explosive nearly loses meaning: the buyer pays for effect, reliability, shelf life, fuse/guidance, casing, charges, logistics, safety, acceptance tests, spare batches and political availability.
Count not factories, but tons per year.
"How many factories do they have?" is a trap question. The real unit of war-making capacity is qualified throughput: how many certified tons of energetics, propellant and filling the system delivers per year, and how much of that the front burns through. A shortfall is when burn rate outruns build rate. Below is a calculator that makes this gap tangible (all defaults are public proxy figures, not specifications).
Burn rate vs build rate
A factory is a photo. Throughput is a video. Two states with the same number of "factories" can differ by an order of magnitude in real output — due to shifts, certification, raw materials, upstream bottlenecks. So it makes sense to compare not buildings, but flow: tons/year of energetics, monthly shells, batches ready for acceptance.
And critically — flow must be measured against consumption. High-intensity artillery warfare burns through annual peacetime norms in weeks. This is exactly where the "peacetime" chain (raw material → nitration → propellant → filling → acceptance) either holds the pace, or becomes the visible bottleneck.
Why this isn't "just build another one"
- A new chemical line takes years of permitting, safety, batch qualification — not a quarter.
- Throughput is bounded by the narrowest link in the chain, not the widest.
- Money and a contract are necessary but not sufficient: raw materials, long-lead equipment and trained people are also required.
- So a single "factory" without propellant and acceptance is an expensive workshop, not capacity.
Calculator: the gap between consumption and build-out
An economy-level estimate, not an instruction manual. Charge per round is a generalized public proxy (category, not specification).
To cover this rate, capacity needs to grow by roughly 1.0×.
The 2026 shortfall: not one "famine," but a cascade of bottlenecks.
Shell demand is the most visible symptom. The real system breaks where chemical inputs, safety regulation, aging plants, capital investment, certification and political risk appetite collide.
1. Upstream energetics
TNT, high explosives, nitrocellulose, propellant powder. This is exactly where the EU directs dedicated ASAP/EDIP programs. [1][3]
2. Long lead equipment
The U.S. 155 mm ramp showed that delay can sit in equipment, partner ramp-up and propelling charges, even when money is available. [18][19]
3. Safety & permitting
A new line ≠ instant output. Nitro-Chem publicly estimates a new TNT line at 3–4 years to completion. [8]
4. Cotton / cellulose dependency
Propellant-grade cellulose is a "soft" input with a hard defense effect. European dependency on Chinese cotton linters has become a strategic issue. [14][15]
5. Legacy stock exhaustion
The Czech initiative showed that global stockpiles still exist, but they are finite, growing costlier, requiring refurbishment, and often moving through complex political channels. [6]
6. Contract horizon
Plants don't build billion-euro chemical capacity for a one-off grant. Multi-year offtake contracts, state guarantees and war-risk financing are required.
How the key players are scaling up.
Each country has a different bottleneck: in the US it's ramp-up and supply chain; in the EU it's fragmented capacity; in Russia it's war-economy and cheap output; in Ukraine it's funding and distributed innovation; in Israel it's import substitution; in India and South Korea it's export-driven industrialization.
🇺🇦 Ukraine: distributed production + funding gap
Ukraine already manufactures more than 50% of battlefield weapons domestically, per Reuters, and is launching a framework for controlled military exports: a share of proceeds is to flow into a state defense fund. [24] The 2026 target is roughly 4.5 million FPVs against installed capacity of 8–10 million/year; ~99% of drones are now assembled in Ukraine (versus near-99% import dependence on China at the start of the war). Mirroring the race: Russia also claims more than 7 million FPVs for 2026. [25][43]
Logic: speed, drones, EW, components, co-production, exports to fund expansion. Weak point: protected upstream inputs, standardization, funding, air-defense risk.
🇺🇸 United States: rebuilding "arsenal muscle"
The U.S. Army states that monthly 155 mm capacity has more than tripled versus 2022 output, with a target of 100k shots/month by 2026. [17] But National Defense reported 40k/month in mid-2025 and a target shift to mid-2026. [18]
Logic: plant modernization, LAP, propellant, metal parts, allies. Weak point: nitrocellulose imports, propelling charges, equipment lead time. [19]
🇪🇺 EU: money is there, but the base is fragmented
ASAP: 31 projects, >€500m EU budget, ~€1.4B total supply-chain investment, +10k t powder, +4.3k t explosives, target of 2M shells/year by end-2025. [1][2] EDIP was formally adopted by the EU Council on 8 December 2025: €1.5 billion in grants for 2025–2027, of which €300 million is a separate support instrument for Ukraine; plus a "35% non-EU" component rule (with a deferral for munitions until 2033). [3][35]
Logic: de-bottleneck powder/explosives, joint procurement, Ukraine integration. Weak point: permitting, fragmentation, cotton linters, TNT concentration.
🇷🇺 Russia: mobilization output + imports
The Estonian Foreign Intelligence Service estimates 2025 Russian output at roughly 7 million large-calibre rounds and rockets, including 3.4 million howitzer shells. [5] Imports of 5–7 million rounds from Iran / North Korea since 2023 are also estimated. [5]
Logic: cheap unit cost, legacy capacity, state direction, imports. Weak point: quality, input-chain resilience, sanctions, dependence on legacy calibres.
🇮🇱 Israel: import substitution after an ammunition shock
Israel's MOD signed a roughly $48m deal with Elbit in 2026 for tens of thousands of 155 mm shells, emphasizing three-shift production and reduced reliance on external sources. [22] In 2025 Reuters described $275m deals for domestic heavy bombs and a raw-materials plant. [23]
Logic: sovereign critical munitions. Weak point: scale versus U.S. supply, raw materials, geopolitical export controls.
🇮🇳 / 🇰🇷 India & South Korea: emerging exporters
India is expanding defense exports and ammunition self-reliance; Reuters reported that Indian ammunition reached Ukraine via European buyers, despite the sensitivity for Delhi. [26] Hanwha is planning a $1 billion plant in the U.S. for fully localized 155 mm modular charges: construction from 2026, production start ~2030, ~$500 million in annual revenue. [21][42]
Logic: defense-industrial export growth. Weak point: political balancing, qualification, export approvals.
Plants and capacity: what's publicly visible.
The exact number of plants worldwide is not a reliably public figure. There are hundreds of civilian explosives / blasting-service sites and a much smaller number of strategic military energetic / propellant / filling plants. Below is not a "target list," but aggregated OSINT by country/company without addresses or technical details.
| Actor | Segment | Public capacity / target | Status 2026 | Risk / comment |
|---|---|---|---|---|
| EU ASAP / EDIP | powder, explosives, shells, missiles, testing, filling plants | ASAP: 31 projects; +10k t powder, +4.3k t explosives; target 2M 155 mm shells/year. [1][2] | Funding and project pipeline active; EDIP 2026 adds energetic components / raw materials / warheads. [3] | Fragmentation, permitting, upstream raw materials, execution lag. |
| Rheinmetall | 155 mm ammunition ecosystem | Target ≈1.5M 155 mm artillery shells/year by 2030. [4] | Expanding across Europe; orders for Ukraine, Spain production, German / EU network. | Shell body capacity must be synchronized with explosives, charges, fuzes. |
| Poland / Nitro-Chem | TNT | Reuters: $310M deal for 18,000 t of TNT for the U.S. 2027–2029; separately, current public output was cited at around 10,000 t/year with a new line to double output. [7][8] | New line estimated at 3–4 years to completion. | Europe's TNT choke point; expansion needs capex and qualification. |
| Sweden / SWEBAL | TNT | Public statement: >4,000 t/year TNT plant, launch 2028. [9] | Investment project stage. | Raw material supply chains insufficient per the company's own assessment. [9] |
| Norway / Chemring Nobel | high explosives | ASAP: €66.7 million in EU financial support to more than double explosives capacity. [37] | Awarded Nov 2025; expansion underway. | One of the few European high-explosives hubs outside Rheinmetall. |
| Bulgaria + Rheinmetall | gunpowder, 155 mm shells, modular charges | AP: plant to produce gunpowder, 155 mm shells and modular charges; up to 100k shells annually. [20] | €1B joint project; public claims of readiness within ~14 months. [31] | Bulgaria has a legacy Soviet-bloc arms base; execution risk in construction/permitting. |
| UK / BAE Systems | 155 mm ammunition, explosives filling | BAE: new explosives filling facility in South Wales to deliver eight-fold manufacturing capacity increase by 2026. [29] | Modernization/ramp. | Filling capacity without upstream explosives/powder doesn't resolve the whole chain. |
| United States / Army industrial base | 155 mm shells, metal parts, LAP, propellant | Goal 100k shots/month by 2026; capacity more than tripled vs 2022 output. [17] | National Defense: 40k/month as of July 2025, target shifted to mid-2026. [18] | Equipment, propelling charges, imported nitrocellulose and qualification lead times. [19] |
| Russia / Spetskhimiya + MIC | large-calibre ammunition, powder, explosives | Estonian assessment: ~7M large-calibre rounds/rockets in 2025; around a dozen explosive-industry enterprises under Spetskhimiya/Rostec. [5] | War-economy ramp + imports from North Korea/Iran. | Lower unit cost, but quality, input substitution and sanctions pressure matter. |
| Ukraine / domestic defense base | drones, EW, ammunition, components | Reuters: >50% of battlefield weapons domestically produced; controlled export framework to fund expansion. [24] | Rapid distributed innovation; export rules emerging in 2026. | Needs funding, protected facilities, standardized components, upstream security. |
| Israel / Elbit + IMOD | 155 mm shells, heavy bombs, raw materials | IMOD: ~$48M deal for tens of thousands of 155 mm shells. [22] Reuters: $275M deals for heavy bombs and raw materials plant. [23] | Import-substitution push after wartime supply constraints. | Strategic autonomy vs scale and U.S. dependency. |
| South Korea / Hanwha | propellant, modular charges, warheads | Defense News: planned U.S. propellant plant; target 1.5M 155 mm modular charge modules/year; $1B investment. [21] | Groundbreaking target Q3 2026; 3-year construction window. | Strategic ally integration, export controls, U.S. local-content logic. |
| India / private & state producers | TNT, ammunition, exports | Public Indian reporting describes major capacity expansions by private firms; India's defense exports targeted to grow materially by 2029. [26][27][28] | Self-reliance and export scaling. | Political balancing, end-use sensitivity, qualification and reliability. |
| Balkans / legacy Soviet-calibre networks | Soviet-calibre ammunition, refurbishment, trading | Czech initiative and NATO mission show large legacy stock sourcing; 2025 target/availability around millions of rounds in global market reporting. [6] | Still relevant for Ukraine's Soviet systems, but stock quality and availability decline. | Finite inventory, political opacity, rising prices, QA/refurbishment bottleneck. |
Do you need less explosive if the weapon is more precise?
Yes, but not linearly. Precision reduces waste on soft / exposed targets. Against hardened, buried, dispersed, or area targets, warhead mass and volume of fire still matter.
The artillery shell is a commodity-like war input. Even with precision kits, shells, propellant charges, barrels, logistics, and stock depth are still needed.
In a long-range missile, a significant share of mass and cost is propulsion, structure, guidance, sensors. The warhead may be a smaller share, but requirements on the energetic material are higher.
Against bunkers, bridges, hardened shelters, runways, and dispersed logistics, you need either a larger warhead, repeated strikes, or a specialized effect.
Trend 2026–2030
Less explosive per precise strike for soft targets, but greater overall industrial demand, because: there are more strikes; cheap drones create mass demand; precision weapons require stockpiles; battlefield attrition forces deep inventory.
A strategy-level formula
Required output = target set × desired tempo × miss/attrition reserve × shelf-life reserve × political uncertainty. Precision reduces the first multiplier for some targets, but high-intensity war increases tempo and reserve.
Comparator: cost of effect by target type
One FPV costs around $400 and carries ~1.4 kg of explosive; for the price of a single tank (~$4 million), one could theoretically field ~10,000 such drones. This asymmetry has rewritten battlefield economics — but below you'll see why it doesn't eliminate demand for artillery and energetics. Public price ranges; the comparison is strategic, not tactical. [47]
Old Soviet and global stockpiles: useful, but a melting ice sheet.
Stockpiles across the Balkans, post-Soviet states, Africa, Asia and other regions are not an "endless pantry." This is a politically fraught, qualitatively uneven and increasingly expensive market.
Advantage
Legacy calibres can quickly close gaps for older systems, especially where rearmament to NATO calibre is not yet complete.
Problem
Aging, storage conditions, refurbishment, compatibility, fuse reliability, safety inspection, political deniability, export licenses.
Trajectory
Every year of full-scale war depletes the cheap stock. What remains grows more expensive, slower and less reliable.
What the capital market has already priced in.
The best lie detector is money. While analysts argue over whether this is a "defense bubble," the capital market has already voted: it re-rated the sector multiple times over. But that same market behavior illustrates the industry's central flaw — money accelerates in weeks, while steel and certification crawl along for years.
Illustration of the year: a plant that grows over years
Unterlüß — Rheinmetall's largest new ammunition plant in Europe, launched in mid-2025. It might seem like the answer to the shortage has arrived. But look at the ramp-up profile, not the ribbon-cutting footage:
From 25 thousand to 350 thousand shells/year — ~3 years even with full funding and political will. This is where financial euphoria meets physics: [38] capital re-rates in weeks, throughput takes years.
Two speeds of one market
And one more lesson for investors: in 2026, Rheinmetall lost about a third of its value after the cancellation of Germany's F126 program, and the whole sector stalled — the Stoxx Europe Aerospace & Defence index was down year-to-date against a rising broad market. The monopsonist is the state, so the risk here is political, not market. Feast or famine plays out even on the exchange: one political decision moves the share price more than a quarterly report. [48]
Where the industry is heading.
By 2030 the market will become less "peacetime" and more state-driven: long contracts, strategic reserves, nearshoring, raw-material security, co-production with Ukraine, tighter export controls.
Slow unwinding of the bottleneck
EU/U.S./allies launch new lines, but permitting, training, equipment, raw materials and qualification stretch out to 2028–2030. Prices high; capacity improves unevenly.
Long-term offtake + Ukraine co-production
If governments provide a 5–10 year demand signal, guarantees and a raw-material strategy, the industry could reach a new baseline faster. The greatest leverage lies in upstream energetics and LAP.
Export bans and input shocks
Cotton linters, ammonium nitrate, gas/ammonia, sanctions, Hormuz, China/Russia controls, environmental permitting or political fatigue could once again make the supply chain brittle.
Highest-leverage moves for states
- Multi-year procurement instead of one-off emergency orders.
- Capex guarantees for upstream energetics, not just shell assembly.
- Diversification of the cotton/cellulose and fertilizer/nitrogen chain.
- Standardization of charges, fuzes, payload modules.
- Refurbishment / QA capacity for legacy stocks.
- Co-production with Ukraine, where the battlefield feedback loop is fastest.
Headline forecast
By 2030 the "explosives market" will become not merely a defense-industry subcontractor, but a measurable element of national resilience.Countries will count not only tanks, missiles and drones, but also tons/year of energetic materials, months of reserve, qualified lots and the resilience of input chains.
Where this picture may be off.
This material is compiled from open sources and deliberately holds a strategic level of altitude. That means built-in limitations — better to name them outright than to fake a precision that doesn't exist.
Market estimates are forecasts
Figures like IMARC/Mordor ($8.7B, $14B, CAGR through 2031/34) are vendor market-sizing models, not an audit. Different agencies give different ranges and methodologies. Read them as order of magnitude and direction, not as bookkeeping.
Intelligence estimates carry error bars
Data on Russian output (~7 million), imports from North Korea/Iran, other states' capacities — these are intelligence-agency estimates with an uncertainty interval. The order of magnitude is useful; the specific figure may swing by tens of percent.
What decays fastest
Drone economics, Ukrainian volumes, stock prices, and monthly 155 mm rates change within weeks. Every such figure here carries a timestamp. Recheck in six months; direction holds up longer than the specifics.
Steelman of the opposing thesis
To argue honestly against my own position: it's possible the shortage unwinds faster than the pessimists claim. The case for: money has already been allocated at unprecedented scale; drones are genuinely lowering the charge mass per strike; automation and new entrants (India, South Korea) add capacity outside the old core; part of the "shortage" is the industry's bargaining position for longer contracts. If contracts and permitting don't stall, 2028–2030 could surprise on the upside.
What would change this picture
- Long offtake contracts (5–10 years) — the main lever; removes the "feast or famine" risk for investors.
- A ceasefire — instantly hits demand and again tempts cuts to the "warm base."
- A raw-material breakthrough — an alternative to Chinese cotton linters or cheaper nitration would shift the bottleneck.
- Export shocks — restrictions on nitrate/gas/linters would again make the chain brittle.
Short answers to the main questions.
Why can't you just buy more explosives?
Because military-grade output isn't a commodity spot market. It requires certified quality, safety chain, storage, compatible lots, export approvals, transport rules, filling capacity, and trust between the state and the producer.
Why did Europe fall so far behind?
After the Cold War demand collapsed, plants closed, stockpiles shrank, and procurement went lean. A Reuters investigation described shutdowns, defects, aging facilities, and delayed replacements as a long structural problem, not merely a reaction to 2022. [30]
Why did cotton become a "military" issue?
Because cellulose / cotton linters are needed for propellant-grade nitrocellulose. If a country depends on imports of this input, its shell ramp-up can stall long before final assembly.
Will drones replace artillery?
No. Drones take over part of the workload: observation, precision strike, harassment, anti-vehicle, trench-level attacks. But artillery remains the way to deliver massed fire, suppression, counter-battery, area effects, and operate under EW/weather/scale constraints.
Where is the worst bottleneck?
In 2026 the worst bottleneck is qualified energetics + propellant + filling throughput. Shell body capacity matters, but without powder/explosives/charges/fuzes it doesn't produce a round.
Sources and methodology.
This is not a classified assessment. Only public government, corporate, media, and market sources were used. Where figures diverge, the text flags them as estimates / proxies.
ASAP: boosting defence production
€500m ASAP allocation and 2M shell capacity target
EDIP calls for energetic components and Ukraine support
Rheinmetall target of around 1.5M 155 mm shells/year by 2030
Russia expands large-calibre ammunition production
Czech initiative secures ammunition for Ukraine
$310M deal for 18,000 tons of TNT
New TNT line to double output
Swedish and Polish firms invest in TNT plants
Industrial explosives market size and forecast
Mining explosives market size and forecast
Industrial explosives public price ranges
Cotton production and trade outlook
Chemical shortage undermining European defence
Europe's gunpowder bottleneck and cotton linters dependence
Russia restrictions on nitrogen fertilizer exports
Army seeks to expand and accelerate 155 mm production
Army falls short of 155 mm production goal
155 mm production and propelling-charge concerns
Bulgaria and Rheinmetall ammunition factory
South Korea and Australia in U.S. munitions production ramp
$48M Elbit land munitions deal
Israel signs deals to make bombs domestically
Ukraine says portion of military exports proceeds will go to state defence fund
FPV drones and Ukrainian production capacities
Ammunition from India enters Ukraine through European buyers
SBL plans explosive facility expansion
Solar Group plans Kazakhstan plant
155 mm artillery ammunition and filling capacity
How NATO artillery production atrophied
Bulgaria and Rheinmetall seal €1B deal
Global spending $2,887B in 2025; Europe +14%
Capacity hysteresis (+80% → ×2.5 in 2.5y); 2y vs 7y workforce; energetics/nitrocellulose SPOF
Federal monopsony as structural driver of DIB fragility
€1.5B for 2025-2027; €300M Ukraine Support Instrument
~€248M powder + €124M explosives vs €90M shells
€66.7M to more than double explosives capacity
~€500M capex; ramp 25k→140k→350k shells 2025→2027 (stated targets)
Order backlog €63.8B (+36%); 2026 revenue guidance +40-45%
Least-cost model eliminated manufacturing slack / surge capacity
TNT single-source pressure; price up ~4x in 4 years
$1B US plant, construction 2026, production 2030
~4.5M FPV target 2026 vs 8-10M installed capacity
1915 Shell Crisis as a lesson for the modern industrial base
Ministry of Munitions and the British production scale-up
WWII mobilization ramp lessons for 21st-century planning
FPV ~$400; cost asymmetry vs armor; compliance overhead gap
2026 sector plateau after the spending-driven rally