Fuel terminals, bioprocessing, on-site power generation, and infrastructure for new marine fuels could form the foundation of an energy cluster near the Port of Pivdennyi. Over a horizon of more than ten years, its competitiveness will depend on logistics costs, access to feedstock and energy, and long-term customer contracts.
Ukraine’s reconstruction creates an opportunity to rethink the role of seaports in meeting the country’s energy needs. A port hub could combine fuel imports, storage, and distribution with biofuel production, industrial energy supply, and exports of higher-value products.
Pivdennyi merits consideration as a location for this model. However, the investment concept must account for existing assets, opportunities to cooperate with them, and competition from alternative supply routes.
Why This Matters
Energy resilience. An additional maritime route and fuel reserves could reduce dependence on individual land border crossings and suppliers.
Reconstruction demand. Construction, freight transport, agriculture, and industry will generate demand for fuel, electricity, and heat.
Processing Ukrainian feedstock. Fuel production offers an opportunity to retain in Ukraine some of the added value currently captured by processors abroad.
New export markets. European demand for certified low-carbon fuels creates an additional sales opportunity.
Phased investment. Logistics and utility infrastructure can be established first, with production facilities added once orders are secured.
Dependence on imported fuel is already a practical challenge. In March 2026, Reuters reported that Naftogaz was negotiating increased LNG and diesel supplies via Greece following the destruction of Ukrainian refining capacity.
Why a Fully Integrated Hub Has Yet to Emerge
It would be inaccurate to suggest that Pivdennyi has no energy infrastructure. The area already has facilities for handling liquid bulk cargo, including the Pivdennyi marine oil terminal.
Several interconnected factors have held back the development of an integrated cluster. Before the war, new facilities had to compete with established routes and existing infrastructure. During the war, the risk of attack, shipping disruptions, insurance, and financing costs became decisive.
Another challenge is aligning the interests of landowners, terminal operators, energy companies, railway operators, and prospective manufacturers. Transport access, utility capacity, permits, and secured throughput must all be available.
An end to the war could significantly improve investment conditions, although investors will still assess long-term security, asset protection, and the reliability of maritime transport.
Energy Opportunities to Consider Over a Horizon of More Than Ten Years
| Opportunity | Role within the hub | Investment priority |
|---|---|---|
| Refined petroleum products terminal and tank farm | Imports, storage, component blending, and dispatch by rail and road | Initial priority for feasibility assessment, backed by trader contracts |
| LPG — propane and butane | Storage and distribution of automotive and industrial fuel | A separate module, subject to confirmed demand |
| Bioethanol and biodiesel | Agricultural feedstock processing for domestic sales and exports | High priority where production costs are competitive |
| HVO and SAF — renewable diesel and sustainable aviation fuel | Products for road transport and aviation | A second phase, backed by certified feedstock and a committed buyer |
| Gas-fired cogeneration, energy storage, and a local power network | Electricity and heat for industrial users, and peak-load management | Core infrastructure sized to the needs of resident businesses |
| Biomethane and bio-LNG | Use of organic residues, gaseous fuel production, and exports | Selective opportunities; production is often better located near feedstock sources |
| Bunkering, methanol, and shore power | Vessel refuelling and energy supply | Phased development aligned with the fleet mix |
| LNG terminal with regasification | Seaborne natural gas imports | A strategic option subject to enabling conditions |
| Hydrogen, low-carbon ammonia, and synthetic fuels | Industrial feedstock and exports | A long-term option requiring energy supplies and offtake contracts |
| A new conventional oil refinery | Processing imported crude oil | A separate large-scale project requiring a particularly strong business case |
1. Fuel Logistics as the First Phase
The first opportunity to assess is a facility for receiving, storing, and distributing refined petroleum products. A tank farm, loading racks, laboratory, and marine berths could serve multiple customers and generate revenue from infrastructure services.
The key question is the total delivered cost to the end customer. Large seaborne shipments may reduce procurement and transport costs, but those savings could be absorbed by insurance, port charges, delays, and onward delivery within Ukraine.
Tanks and pipelines should be designed for specific products, including provisions for adaptation to biofuel components or methanol.
Bioprocessing as a Source of Added Value
For bioethanol and biodiesel, a port location makes sense if savings on finished-product exports and component supplies outweigh the cost of transporting feedstock. Some production facilities may be more economically located in agricultural regions, leaving storage, blending, and export operations at the port.
HVO and SAF open up a different market segment but require more sophisticated technology, hydrogen, and a controlled feedstock supply chain. Processing rapeseed or sunflower oil does not automatically ensure compliance with aviation fuel requirements. The European Commission defines eligible SAF categories and sustainability criteria, while ReFuelEU Aviation provides for a gradual increase in SAF’s share of aviation fuel supply.
Rotterdam offers a practical example of port-based bioprocessing. In January 2026, the port authority reported that Neste’s plant was being expanded to an annual capacity of 2.7 million tonnes of renewable products, with completion scheduled for 2027.
Gas and Electricity: Keeping Industry Operational
Cogeneration can supply industrial users with electricity, steam, and hot water. Energy storage can cover short-term peaks and support critical loads. Solar installations should primarily be considered for rooftops and ancillary areas, with their value assessed against the industrial use of expensive land near the port.
A battery does not replace an energy source during a prolonged outage. Generation capacity and stored energy must be sized according to actual consumption profiles, while cogeneration also requires steady demand for heat.
Biomethane could complement this system. According to the IEA, Ukraine began exporting biomethane to the EU in 2025 using existing gas infrastructure. A port-based biomethane project must therefore demonstrate a logistics advantage: transporting large quantities of wet organic waste to the coast could cost more than producing gas near the feedstock source.
LNG: An Opportunity Dependent on the Route
An LNG terminal, potentially using a floating storage and regasification unit (FSRU), could diversify gas supplies. Its economics, however, depend first on the feasibility of regular LNG carrier passage through the Turkish Straits.
Middle East Eye reported Turkish objections to this route on safety grounds. This should not be interpreted as a blanket legal prohibition, but building a business without confirmed passage arrangements would be risky.
An FSRU also requires marine infrastructure, a connection to the gas transmission system, supply contracts, and capacity bookings. The project must be compared with the alternative of receiving regasified gas through other European countries.
New Marine Fuels and Industrial Gases
Future development should allow for bunkering with biofuel blends, bio-LNG, and methanol. FuelEU Maritime requires a gradual reduction in the carbon intensity of energy used by vessels within its scope calling at European ports. This creates demand for suitable fuels and related services.
Hydrogen and ammonia should be considered at a later stage, subject to the availability of substantial volumes of competitively priced low-carbon electricity and long-term buyers. Alongside bioethanol or biogas production, there may also be opportunities to purify and liquefy biogenic CO₂ for industrial users or synthetic fuel production.
A service base for offshore energy and future offshore oil and gas production is another option, providing equipment storage, repairs, and port services. Its development should be tied to specific field development programmes or energy projects.
Is a New Oil Refinery Needed?
Restoring domestic refining has strategic value for Ukraine. However, the viability of a new refinery will depend on crude oil supplies, capacity utilisation, energy costs, environmental requirements, and competition from large overseas producers.
Economic Benefits for the Country and Investors
An energy hub in a Ukrainian port area could deliver economic benefits through lower logistics costs, diversified supplies, reserve stocks, jobs, tax revenue, and exports of processed products.
An illustrative calculation shows the potential scale: if a new route delivers 1 million tonnes of fuel annually and reduces total logistics costs by $10–20 per tonne, aggregate savings would amount to $10–20 million a year. Both figures are assumptions used for illustration, not a forecast.
For investors, potential revenue streams include storage, cargo handling, leases of prepared sites, energy services, and processing.
A Land Base for a New Specialisation
A 100-hectare land portfolio near the Port of Pivdennyi, presented by InVenture and offering water access and rail connectivity, could provide a practical basis for developing this concept.
The portfolio comprises several sites of 3, 4, 14, 23, and 56 hectares. This gives investors an opportunity to configure a future hub around their own business model — from a fuel terminal to an integrated combination of logistics, processing, and energy services.
