Ukraine Expands Missile Production with Solid Rocket Fuel Plant in Denmark by 2026.

Ukrainian defense firm Fire Point is building a solid rocket fuel production facility in Denmark, with operations expected to begin in 2026. The project highlights Europe’s shift toward wartime industrial capacity while reinforcing Ukraine’s ability to sustain missile production.

Ukrainian defense company Fire Point is moving ahead with the construction of a solid rocket fuel production facility in Denmark, with initial operations targeted for 2026, according to project details shared with regional authorities. The initiative, developed in coordination with Danish regulators, is progressing alongside environmental and industrial safety approvals as construction continues. The facility is intended to support Ukraine’s growing demand for missile propulsion materials amid the ongoing conflict, while also reflecting a broader European effort to expand defense manufacturing capacity beyond national borders. Danish involvement underscores a shift toward distributed production models designed to mitigate supply chain risks and accelerate output under wartime conditions.
Related news: New Flamingo cruise missile will allow Ukraine to strike key Russian assets from 3,000 km away

The FP-7 operational-tactical ballistic missile has already entered early flight testing, with launches conducted in late February and again on March 14, 2026 (Picture source: Fire Point) 

The facility is planned near Skridstrup Air Base, where Denmark operates its fleet of F-35A Lightning II fifth-generation fighter aircraft. This proximity is not incidental; it situates the plant within a secure military-industrial environment and facilitates coordination with Danish defense structures. According to statements made by CEO and CTO Iryna Terek in an interview published by Defender Media on March 17, 2026, the permitting process has proven more complex than in Ukraine, particularly due to environmental and safety requirements, although it remains manageable within the accelerated framework adopted by Danish authorities.

Danish authorities had previously taken an unusual step in September 2025 by temporarily suspending more than twenty regulatory provisions to accelerate the project. These exemptions cover planning, environmental protection, and hazardous materials oversight, reflecting the classification of the facility as critical to national defense under emergency provisions. Fire Point has notably received authorization to bypass certain regulations governing the control of major-accident hazards linked to hazardous substances, highlighting both the sensitivity and urgency of the industrial activity involved.

The production site is designed as a multi-stage industrial complex. The first phase, expected to come online in 2026, will focus on establishing core manufacturing capabilities, while the main production phase is projected for 2027. The plant will not only produce solid rocket fuel but also manufacture engine casings, structural interfaces, and integrate propulsion systems. This vertical integration reduces dependency on external suppliers and shortens production cycles, a constraint that the Ukrainian industry has faced since the beginning of the full-scale war.

This video features an interview with Fire Point co-founder Denys Shtilerman discussing Ukraine’s missile development, including testing methods and mobile launch strategies. (Source: Ukrainian Army)

Solid rocket fuel remains a critical component in several Ukrainian missile systems. Fire Point’s production is intended to support propulsion units for the Flamingo cruise missile as well as the FP-7 and FP-9 ballistic missile programs. The Flamingo cruise missile is designed to operate with a launch booster using solid propellant to achieve initial acceleration before transitioning to sustained flight. Such boosters deliver high thrust over a short duration, enabling rapid departure from launch platforms and improving survivability against counter-battery or air defense systems.

The FP-7 operational-tactical ballistic missile has already entered early flight testing, with launches conducted in late February and again on March 14, 2026. The system is reported to have a range of up to 200 kilometers, reaching maximum speeds of around 1,500 meters per second, with a circular error probable (CEP) of approximately 14 meters. Its 150-kilogram warhead is designed for precision strikes against operational targets, while its maximum flight duration of about 250 seconds reflects a short-range ballistic profile optimized for rapid engagement. The missile is launched from a ground-based platform and is intended for the destruction of medium-range targets within the operational depth of the battlefield.

The FP-9, which is expected to undergo testing in early summer 2026, extends this capability into a longer-range category. It is described as having a range of up to 855 kilometers, a speed of approximately 2,200 meters per second, and a payload capacity reaching 800 kilograms. With a maximum flight altitude of around 70 kilometers and an accuracy estimated at 20 meters CEP, the system is designed to strike targets deep behind enemy lines. This places it within a category of systems capable of affecting strategic infrastructure, including command nodes and logistical hubs.

Engine casings produced at the Danish facility will likely involve composite or high-strength metallic structures capable of withstanding internal pressures generated during combustion, which can exceed several tens of bars depending on motor design. Additionally, the integration of docking interfaces suggests a modular approach, allowing different payload sections or guidance units to be attached depending on mission requirements. This modularity aligns with current trends in missile engineering, where adaptability and production scalability are prioritized.

The availability of domestically produced solid rocket fuel enhances Ukraine’s capacity to sustain a high tempo of missile launches. Systems such as the FP-7 enable rapid and precise engagement of tactical and operational targets, while the FP-9 extends the strike envelope to deeper, higher-value objectives. The reliance on solid-fuel propulsion allows for reduced launch preparation time and increased survivability of launch units, particularly when deployed on mobile ground platforms. In parallel, cruise missile systems like Flamingo benefit from booster-assisted launches that expand deployment flexibility and complicate adversary air defense planning.

The Danish Ministry of Defence is also examining the potential integration of this fuel into the Precise and Universal Launch System (PULS), developed by Israel’s Elbit Systems. The PULS is a modular multiple rocket launcher capable of firing a wide range of munitions, from unguided rockets to precision-guided missiles with ranges exceeding 300 kilometers depending on the configuration. Its open architecture allows for the integration of locally produced ammunition, which could create a pathway for European-based production of compatible rocket systems using Ukrainian-developed propellants.

This industrial expansion carries broader implications beyond immediate battlefield requirements. By relocating part of its production capacity to Denmark, Fire Point reduces vulnerability to strikes on Ukrainian territory while embedding itself within the European defense industrial base. At the same time, Denmark’s regulatory flexibility signals a shift in European defense policy, where peacetime norms are adjusted to accommodate urgent military-industrial needs. This convergence of Ukrainian operational experience and European industrial capacity may reshape supply chains for missile production across the continent, with potential long-term effects on NATO interoperability and deterrence posture.

Written By Erwan Halna du Fretay - Defense Analyst, Army Recognition Group
Erwan Halna du Fretay holds a Master’s degree in International Relations and has experience studying conflicts and global arms transfers. His research interests lie in security and strategic studies, particularly the dynamics of the defense industry, the evolution of military technologies, and the strategic transformation of armed forces.