Quarter Ending June 2026
Global nitric acid markets remained tightly linked to underlying ammonia costs during Q2 2026, consistent with the commodity's position as a near-pure ammonia derivative: approximately 0.28–0.29 MT of ammonia is required to produce 1 MT of 100% nitric acid via the Ostwald process, making ammonia feedstock costs the dominant driver of nitric acid production economics and price direction. Indicative regional prices for merchant weak nitric acid (60% concentration) tracked a broad USD 170–270/MT range, with US Gulf and Western European values firming in line with regional ammonia benchmarks, while Chinese values remained comparatively lower given the country's cost-advantaged coal-based ammonia production. Unlike urea, DAP, or UAN, nitric acid trades almost exclusively as a captive intermediate: an estimated 70–75% of global production is consumed on-site or via pipeline for downstream ammonium nitrate, CAN, or industrial nitration chemistry, with only a modest, regionally confined merchant market given the product's corrosive, hazardous-to-transport nature, which limits trade to rail, tank truck, and short-haul routes rather than global seaborne flows. Demand remained split between fertilizer applications (FGAN, CAN, NPK, roughly 70–75% of global consumption) and a growing industrial segment, including explosives, adipic acid (nylon), TDI/MDI (polyurethanes), and other nitration chemistry. Platinum-rhodium catalyst replacement costs and plant energy economics provide secondary cost drivers; because the Ostwald process is strongly exothermic, modern nitric acid plants typically recover excess heat as steam, partially offsetting utility costs. Entering Q3 2026, the outlook tracks ammonia and underlying natural gas cost trends directly.
| Region | Basis | Avg. Price (USD/MT) | Key Driver | Outlook |
|---|---|---|---|---|
|
US Gulf / Midwest |
FOB Plant / Delivered (rail-truck) |
210–250 |
Ammonia (Tampa) feedstock cost; captive AN/CAN integration |
Stable to Bullish |
|
Western Europe |
FOB Plant / Delivered (regional) |
230–270 |
Elevated European ammonia/gas costs |
Bullish |
|
China |
FOB Plant (regional) |
170–210 |
Cost-advantaged coal-based ammonia |
Stable |
Note: Nitric acid does not trade as a global seaborne benchmark commodity given its captive, regionally confined structure (see Market Structure below). Prices shown are indicative plant-gate/delivered reference levels for merchant weak nitric acid, not FOB/CFR seaborne benchmarks.
Value Chain & Cost Build-Up: Ammonia to Nitric Acid
| Cost Component | Basis / Consumption Factor | Indicative Cost (USD/MT 100% HNO3) | Share of Production Cost |
|---|---|---|---|
|
Ammonia feedstock |
~0.29 t NH3 per t HNO3 @ ~USD 420–460/MT NH3 (US Gulf) |
122–133 |
~65% to 70% |
|
Platinum-Rhodium catalyst (gauze) |
Amortized per tonne HNO3 |
15–25 |
~8% to 12% |
|
Energy & utilities (net of steam export credit) |
Net of heat-recovery credit; reaction is strongly exothermic |
5–15 |
~3% to 7% |
|
Fixed costs, labor & maintenance |
Plant-level |
20–35 |
~12% to 17% |
|
Indicative production cost (100% HNO3 basis) |
— |
165–205 |
100% |
Ammonia cost pass-through: a USD 50/MT movement in ammonia feedstock cost translates to an estimated USD 14–15/MT change in 100% nitric acid production cost, underscoring nitric acid's function as a direct derivative of ammonia, and ultimately natural gas, price trends rather than an independently priced commodity. Commercial weak nitric acid (53–65% concentration) is priced per tonne of solution, scaling down from the 100%-equivalent production cost shown above after adjusting for dilution water and delivery costs.
| Cost Driver | Importance |
|---|---|
|
Ammonia |
Very High |
|
Platinum-Rhodium Gauze |
Medium |
|
Electricity |
Medium |
|
Steam Credit |
Medium |
|
Maintenance |
Low |
|
Labor |
Low |
Nitric acid is overwhelmingly a captive intermediate rather than a traded commodity. An estimated 70–75% of global production is consumed on-site or piped directly to adjacent ammonium nitrate, CAN, or nitration facilities within integrated production complexes, with the balance sold into limited regional merchant markets. This captive structure, more pronounced than in ammonia or UAN, reflects nitric acid's corrosive and hazardous nature, which makes long-distance transport costly and safety-sensitive relative to its unit value. Merchant shipments are generally limited to regional truck, rail, or pipeline movements, typically within a few hundred kilometers (roughly 200–500 km), beyond which transport economics become unfavorable given the product's relatively low unit value and stringent handling requirements. Unlike globally seaborne-traded ammonia, urea, or UAN, nitric acid moves almost exclusively via rail tank car, tank truck, or short-haul pipeline within a single region or country. Consequently, nitric acid pricing is best understood as a series of regional, plant-gate reference levels closely tracking local ammonia costs rather than a unified global benchmark.
Ammonium nitrate (AN) is nitric acid's single largest downstream consumption channel, produced by neutralizing nitric acid with ammonia in a roughly 1:1 molar ratio. Fertilizer-grade AN (FGAN) and calcium ammonium nitrate (CAN) together represent the largest direct-application nitrogen fertilizer channel outside urea, particularly in Europe, where CAN is the dominant straight nitrogen fertilizer. Technical-grade AN (TGAN), produced to a higher-porosity specification, is nitric acid's primary link to the explosives and mining sector via ANFO (ammonium nitrate fuel oil) blasting agents, a demand channel largely insulated from agricultural seasonality and instead tied to mining and construction activity. UAN solution, covered in our companion Global UAN Market Overview, draws on nitric acid indirectly through its ammonium nitrate component, giving nitric acid a secondary link to the same seasonal application cycles documented in that report. Collectively, these downstream products expose nitric acid demand more directly to mining and explosives activity than urea or phosphate-based fertilizers, which see no meaningful industrial offtake.
| End-Use Segment | Share of Global Demand | ||
|---|---|---|---|
|
Fertilizer (FGAN, CAN, UAN component) |
70% to 75% |
||
|
Explosives (TGAN / ANFO) |
12% to 15% |
||
|
Adipic acid (nylon) |
5% to 8% |
||
|
Nitrobenzene / TDI (aniline, polyurethanes) |
4% to 6% |
||
|
Other industrial/nitration uses |
Balance |
||
| Downstream Product | Indicative Nitric Acid Consumption (t/t product, approx.) | Primary End Use | Segment |
|
FGAN (Fertilizer Grade Ammonium Nitrate) |
~0.78–0.79 |
Direct-application nitrogen fertilizer |
Fertilizer |
|
CAN (Calcium Ammonium Nitrate) |
~0.55–0.65 |
Direct-application fertilizer (dominant in Europe) |
Fertilizer |
|
TGAN (Technical Grade Ammonium Nitrate) |
~0.78–0.79 |
ANFO explosives for mining & quarrying |
Industrial |
|
UAN (Urea Ammonium Nitrate solution) |
~0.35–0.40 |
Liquid nitrogen fertilizer (sidedress, starter) |
Fertilizer |
US nitric acid production remained closely integrated with ammonium nitrate and CAN fertilizer manufacturing, with the substantial majority of output captively consumed within integrated complexes. Values tracked regional ammonia benchmark prices (including Tampa import parity) closely. Market balance: balanced; outlook stable to bullish.
European nitric acid economics remained pressured by elevated regional ammonia and natural gas costs relative to the US and Middle East, reinforcing the region's status as the highest-cost major production base. Market balance: balanced-to-tight; outlook bullish.
Chinese nitric acid production benefited from cost-advantaged coal-based ammonia feedstock, keeping regional values structurally below US and European levels, consistent with the dynamic observed across China's broader nitrogen fertilizer complex. Market balance: balanced; outlook stable.