The chemistry of sovereignty: Ukraine’s struggle to manufacture solid rocket fuel
By Matthew Parish
Wednesday 28 October 2026
The development of modern missile technology is often imagined as a triumph of mathematics, aerodynamics and electronic engineering. We picture sophisticated guidance systems, advanced computers and ingenious military scientists designing weapons of extraordinary precision. Yet one of the most significant obstacles confronting Ukraine’s ambitions to develop an independent missile industry is something considerably less glamorous: the industrial chemistry required to manufacture reliable solid rocket propellants. Without these substances, even the most sophisticated ballistic missile remains an expensive collection of machinery incapable of fulfilling its purpose.
Ukraine’s difficulties in this field are particularly striking because the country inherited one of the world’s most sophisticated aerospace industries from the Soviet Union. Her engineers helped design and manufacture intercontinental ballistic missiles, launch vehicles and an extraordinary variety of military technologies. Yet the inheritance of scientific expertise is not the same thing as the possession of a functioning industrial ecosystem. More than three decades of economic disruption, the fragmentation of Soviet supply chains and the destructive consequences of Russian aggression have exposed the difference between knowing how to design a rocket and being able to manufacture thousands of reliable rocket motors.
The term solid-state rocket fuel is frequently employed in popular discussion, although the more precise expression is solid rocket propellant. Unlike liquid-fuelled rocket engines, which generally depend upon separate supplies of fuel and oxidiser, a solid-propellant rocket motor contains its energetic material in a prepared solid form. This arrangement offers important military advantages, particularly in storage, transport and readiness for use. However it also imposes demanding requirements upon the consistency, stability and reliability of the materials used, because the propulsion system cannot be adjusted or repaired once the missile has been launched.
The first fundamental bottleneck is therefore not the design of rockets but the availability of a sophisticated chemical industry capable of producing specialised materials to exceptionally demanding standards. Solid rocket propellants depend upon carefully controlled industrial chemicals whose manufacture requires facilities, quality assurance and technical expertise quite different from those found in ordinary chemical factories. Supplies are concentrated amongst a relatively small number of specialist manufacturers, while international trade is complicated by export controls, hazardous-material regulations and the growing worldwide demand for missile production. Ukraine cannot simply purchase unlimited quantities of these materials on the international market, irrespective of how much money its government or foreign supporters might be prepared to spend.
This is a problem of industrial depth rather than merely commercial availability. A country may possess excellent metallurgical facilities, skilled chemical engineers and advanced university laboratories without having the complete industrial infrastructure necessary for large-scale production of highly specialised energetic materials. The existence of a scientific capability to manufacture a substance does not establish that it can be produced economically, consistently and safely in quantities appropriate for a sustained national manufacturing programme. This distinction has become particularly important as Ukraine seeks to move from the production of experimental missiles to the much more demanding undertaking of serial manufacture.
A second bottleneck concerns the factories themselves. Solid rocket propellant manufacturing belongs to an unusual category of industrial activity in which the consequences of an accident may be catastrophic, requiring exceptional attention to workplace safety, environmental regulation and industrial quality control. A new facility cannot simply be established inside an abandoned warehouse or conventional engineering works merely because the appropriate machinery can be purchased. The construction, certification and operation of specialist industrial premises require substantial capital expenditure, experienced personnel and a regulatory framework capable of reconciling the urgent demands of national defence with the protection of workers and surrounding communities.
The historical centre of Ukrainian solid-propellant manufacture was the Pavlohrad Chemical Plant in Dnipropetrovsk oblast, part of the broader Soviet aerospace and defence-industrial inheritance. Alongside the famous Pivdenne design bureau and Pivdenmash manufacturing enterprise, it belonged to an industrial world in which rocket production was supported by enormous state investment and an integrated network of specialised suppliers. The collapse of the Soviet Union left Ukraine with fragments of this system, but without the procurement budgets, uninterrupted manufacturing programmes or complete commercial relationships upon which its continued operation had depended. The subsequent war has made the preservation and development of this industrial inheritance considerably more difficult.
There is an important economic lesson in this history. Highly specialised defence industries cannot be maintained indefinitely through occasional research contracts and intermittent government orders. They require a continuing flow of investment, predictable demand and a workforce whose practical knowledge is renewed through successive generations. Once such an industry contracts, recovering the lost expertise can prove far more expensive than maintaining it would have been. Ukraine’s predicament illustrates how quickly a country’s strategic capabilities can diminish when an elaborate industrial system is permitted to deteriorate over several decades.
The third bottleneck is human capital. Manufacturing reliable rocket propulsion systems requires more than the employment of talented chemists and mechanical engineers. It depends upon accumulated experience amongst production specialists, materials scientists, quality-control personnel, safety engineers and industrial managers who understand the demanding culture of precision manufacturing. Some of this expertise can be taught in universities, but much of it is acquired through prolonged practical experience. Ukraine possesses an impressive reservoir of technical talent, yet wartime mobilisation, emigration, the destruction of industrial institutions and competition from more immediately profitable sectors have placed additional pressure upon the availability of experienced personnel.
There is also the question of the wider industrial environment. A rocket motor does not exist independently of the structure surrounding it, the equipment that ensures its proper operation or the testing and certification systems upon which military reliability depends. Advanced materials, precision engineering, specialised manufacturing equipment and dependable subcontractors all form part of the necessary ecosystem. A shortage of one seemingly unremarkable component can delay the completion of a far more expensive finished weapon. This is why the expansion of missile manufacturing cannot be measured simply by counting the number of assembly lines available to install the final components.
Ukraine is not alone in confronting these problems. The United States and its European allies have discovered that the dramatic increase in demand for missiles since Russia’s full-scale invasion has exposed severe limitations in their own industrial capacity. Decades of relatively modest procurement volumes encouraged consolidation amongst defence manufacturers, while specialist subcontractors often survived within remarkably narrow commercial markets. The result has been an international industry whose production capacity cannot respond immediately to enormous increases in military demand. Even wealthy states with powerful industrial economies have discovered that money alone cannot instantly purchase additional rocket motors.
A fourth and particularly Ukrainian difficulty is the vulnerability of industrial investment during a war in which Russia deliberately attacks the country’s productive capabilities. The construction of an expensive factory represents a long-term commitment of capital, skilled labour and technical resources, but all of these investments must operate within an environment of continuing physical danger. The destruction or interruption of industrial facilities can impose consequences extending far beyond the immediate loss of buildings and equipment. Production schedules are disrupted, investors become more cautious and the accumulation of manufacturing expertise becomes more difficult when continuity of operations cannot be guaranteed.
The development of Ukraine’s indigenous ballistic missiles demonstrates the practical consequences. The long-running Sapsan programme has embodied Ukrainian ambitions to recover an independent tactical ballistic missile capability, but publicly verifiable evidence of extensive serial production remains limited. The newer FP-7 and FP-9 projects developed by Fire Point represent a different generation of Ukrainian defence enterprise, characterised by greater private-sector involvement and an ambition to bring new weapons into service with exceptional speed. On 1 October 2026 President Volodymyr Zelenskyy announced the first combat use of the FP-7 tactical ballistic missile, a significant milestone for Ukrainian engineering. Nevertheless, a successful operational launch is not equivalent to the establishment of a mature production industry capable of manufacturing such weapons continuously in large numbers.
The distinction matters because military innovation and industrial expansion operate according to very different timescales. A determined team of talented engineers may overcome formidable obstacles in developing a functioning prototype, particularly when motivated by the existential pressures of war. Reproducing the same technology repeatedly to a consistent standard requires an entirely different kind of organisation, combining industrial management, stable suppliers, dependable financing and rigorous quality assurance. Ukraine’s remarkable achievements in unmanned aerial systems have sometimes encouraged the impression that comparable advances in ballistic missile manufacturing should follow almost automatically. Unfortunately, the industrial realities of specialised chemical propulsion make the comparison misleading.
Perhaps the clearest illustration of these difficulties is Fire Point’s decision to establish a solid rocket propellant manufacturing operation in Denmark. The project represents an unusual form of European defence-industrial cooperation, in which Ukrainian entrepreneurial expertise is combined with the financial resources, regulatory institutions and relative security of a NATO member state. The original timetable envisaged production beginning during 2026, but the discovery that the proposed premises were unsuitable for the necessary industrial operations forced a substantial reconsideration of the project. By August 2026 its anticipated cost had reportedly increased from approximately €50 million to more than €150 million, while the expected commencement of operations had been postponed until late 2027.
On 21 October 2026 the Danish government announced a state-backed loan guarantee of 750 million Danish kroner for Fire Point’s Danish subsidiary. The intervention was necessary because the Ukrainian company’s exposure to the war made ordinary commercial financing difficult to obtain. This development illustrates an additional bottleneck that is sometimes overlooked in discussions of defence manufacturing: even where the technology exists and a friendly government supports a project, private capital markets may be unwilling to accept the financial risks associated with wartime industrial expansion.
The Danish example also exposes a tension between European regulatory traditions and Ukraine’s urgent military requirements. Ukrainian engineers and industrialists have become accustomed to operating under conditions in which time is extraordinarily precious, while European governments must reconcile defence priorities with established obligations concerning safety, environmental protection and financial accountability. It would nevertheless be mistaken to regard all regulatory requirements as unnecessary bureaucracy. When the industrial activity involves potentially catastrophic hazards, proper precautions are not an optional luxury. The challenge is to establish institutions capable of making legitimate decisions rapidly without abandoning the standards that protect workers, investors and the public.
There is a wider geopolitical dimension to this problem. Europe’s post-Cold War defence economy was organised largely around the assumption that major industrial warfare on the continent had become improbable. Defence manufacturers consequently concentrated upon technologically sophisticated systems produced in relatively limited numbers, while governments became accustomed to maintaining comparatively modest reserves. Russia’s invasion of Ukraine has invalidated many of these assumptions. The return of prolonged industrial warfare has demonstrated that military power depends not merely upon technological sophistication but upon the capacity to replace equipment and ammunition at the pace at which modern conflict consumes them.
Ukraine is now helping Europe rediscover an older principle of strategic economics: sovereignty depends upon manufacturing capacity. A country that can design advanced weapons but cannot produce their essential materials remains dependent upon the willingness and industrial capabilities of others. That dependency may be manageable in peacetime, when foreign suppliers can be approached through ordinary commercial relationships. It becomes much more dangerous during a major war, when every friendly government has its own competing military requirements and established manufacturers must divide limited output amongst several increasingly urgent customers.
What, then, does the future hold for Ukraine’s solid rocket propellant industry? The prospects are considerably more promising than the immediate difficulties might suggest, although the transformation is unlikely to occur as quickly as political announcements sometimes imply. Ukraine possesses an exceptional concentration of wartime engineering experience, a substantial inherited aerospace tradition and a growing private defence sector whose commercial incentives are closely aligned with urgent national requirements. Its European partners are also beginning to recognise that investing in Ukrainian defence manufacturing is not simply an act of assistance to a country at war. It is an investment in Europe’s own long-term industrial and military resilience.
Recent agreements with France and Germany concerning missile defence and associated industrial cooperation illustrate this changing relationship. The emergence of the European Freyja anti-ballistic initiative, together with proposals for licensed manufacturing and broader collaboration, suggests that Ukraine may increasingly participate in European defence-industrial programmes rather than remaining exclusively a recipient of imported weapons. Such arrangements cannot remove every technological or commercial constraint, and defensive interceptor missiles are not interchangeable with tactical ballistic weapons. Nevertheless, the development of shared industrial capacity could reduce the vulnerability created by dependence upon a small number of suppliers.
Over the longer term, the most important change may be institutional rather than technological. The Ukrainian government and its European partners will need procurement arrangements that reward sustained production capability instead of concentrating exclusively upon the announcement of ambitious new weapons. Multi-year purchasing commitments, credible financing and industrial relationships extending beyond the immediate emergency would provide manufacturers with greater confidence to undertake expensive investments whose benefits may only become apparent after several years. Equally important will be the cultivation of technical education and the preservation of practical industrial expertise, so that Ukraine’s current generation of engineers can pass its knowledge to successors.
Technological innovation will undoubtedly contribute to this process. Improved industrial automation, digital quality-control systems and more efficient manufacturing management offer the possibility of reducing costs and improving reliability across the defence sector. But technological advances should not be confused with the abolition of physical constraints. A computer can help an engineer design a better rocket, yet it cannot conjure specialist industrial materials, qualified manufacturing personnel or a safe production facility into existence merely because military necessity demands them.
It is therefore possible that Ukraine’s greatest contribution to European missile technology will be to force a fundamental reconsideration of how the continent organises its defence industry. The war has demonstrated the shortcomings of an economic model in which sophisticated weapons are designed by a handful of major contractors and manufactured through vulnerable international supply chains maintained only at the level of ordinary peacetime demand. A more resilient European system would involve broader industrial participation, long-term investment in specialist chemical manufacturing and closer cooperation between governments that recognise their security interests as increasingly inseparable.
There is a certain historical irony in Ukraine’s position. A country that once formed one of the principal centres of Soviet strategic rocket production now finds itself struggling to reconstruct essential elements of that same technological inheritance in order to defend its independence from Russia. Yet the difficulty should not obscure the scale of what has already been achieved. Ukraine has developed a remarkably innovative military technology sector under conditions that would have paralysed many wealthier and more secure countries, and its first operational successes with new ballistic weapons suggest that the underlying engineering ambition is being translated into practical results.
The coming years will determine whether these achievements can be converted into a durable industrial capability. Success will depend less upon the announcement of ever more ambitious missile projects than upon the patient reconstruction of chemical manufacturing, technical expertise, dependable financing and international industrial partnerships. These are not the elements of military power that attract the most dramatic headlines, but they are amongst the foundations upon which national independence ultimately rests.
Ukraine has already demonstrated that she possesses the scientific imagination and determination to challenge a much larger military power. The next task is to ensure that her industrial economy can sustain that achievement. The future of Ukrainian rocketry may therefore depend as much upon chemical factories, universities and financial institutions as upon the celebrated engineers who design the missiles themselves. In the twenty-first century, as in the twentieth, the most advanced military technology remains inseparable from the unglamorous industrial foundations that make it possible.
