Montenegro’s wind sector is entering a different stage of development. What began with two relatively isolated projects at Krnovo and Možura is gradually becoming a more important component of the country’s electricity system, with state utility Elektroprivreda Crne Gore (EPCG) now directly involved in wind generation and a wider pipeline of projects emerging across the mountainous interior and coastal hinterland.
The underlying resource is one of Montenegro’s structural advantages. The meeting of Mediterranean and continental weather systems, combined with steep terrain and exposed mountain plateaus, creates strong wind corridors across parts of the country. The Krnovo plateau north-east of Nikšić has already demonstrated the commercial potential of high-altitude locations, while Možura, between Bar and Ulcinj, captures a different wind regime influenced by the Adriatic and temperature differences between the sea and inland areas.
For years, however, wind remained a relatively small part of an electricity system dominated by the Perućica and Piva hydropower plants and the Pljevlja lignite-fired power station. That structure left Montenegro highly sensitive to hydrology. Poor rainfall and low reservoir levels can rapidly turn a relatively balanced system into one dependent on imported electricity precisely when regional prices may be elevated.
Wind is beginning to change that risk profile.
Montenegro’s first two large operating wind farms are Krnovo, with 72 MW, and Možura, with 46 MW. The addition of EPCG’s 54.6 MW Gvozd project takes the country’s large-scale wind fleet to roughly 172.6 MW. The significance of Gvozd extends well beyond its capacity: it is the first major wind asset directly integrated into EPCG’s generation portfolio, meaning the state utility is no longer merely buying electricity from privately developed wind farms but is becoming a wind producer itself.
Gvozd has already demonstrated why this diversification matters. The wind farm produced approximately 26 GWh during its first three months of operation after its launch in May 2026. EPCG estimated that the electricity was worth around €2.43 million at prevailing Montenegrin market prices and that the additional production reduced the company’s electricity deficit by about 8.5% during the period. Annual production is expected to reach approximately 150 GWh.
This is particularly valuable during dry summer periods. Montenegro’s hydroelectric fleet represents the majority of EPCG’s installed generation capacity, meaning drought does not only affect renewable output — it directly influences the company’s trading position and electricity import requirement. Wind cannot eliminate weather risk, but it changes its composition. Weak hydrology does not necessarily coincide with weak wind conditions, providing EPCG with another source of domestic generation during periods when reservoir production is constrained.
The next phase is already taking shape. EPCG plans to add Gvozd II, a further 21 MW expansion being developed with turbine manufacturer Nordex under a contract worth around €26 million. Once completed, the combined Gvozd complex would reach about 75.6 MW, with expected annual generation exceeding 210 GWh. Both phases have been backed by financing from the European Bank for Reconstruction and Development, reinforcing the role international lenders are likely to play in Montenegro’s next renewable investment cycle. (SeeNews)
The broader pipeline suggests that Gvozd is unlikely to remain an isolated expansion. Montenegro’s spatial planning documents have identified several additional wind areas, including Bijela, with an indicated capacity of around 94 MW, Korita at approximately 79 MW, and Brajići, where earlier planning assumptions envisaged around 100.8 MW. These numbers remain subject to project development, environmental studies, permitting, grid studies and final investment decisions, but together they demonstrate the scale of the theoretical next generation of wind capacity.
If even part of that pipeline moves into construction, Montenegro’s electricity system could change materially during the next decade.
The opportunity, however, is not simply to install turbines wherever average wind speeds are attractive. The critical issue is increasingly the integration of wind into the power system. Transmission capacity, connection points, forecasting accuracy, balancing resources and the ability to manage periods of simultaneous renewable production will determine how much capacity Montenegro can economically absorb.
Wind generation is variable, and the system therefore needs better forecasting and greater flexibility as penetration rises. Montenegro has some natural advantages in this respect. Hydropower can potentially provide valuable balancing capability, while the country’s connection with neighbouring electricity systems and the submarine interconnector to Italy gives it access to a much larger regional market. But these assets need to be coordinated with new transmission investments and increasingly sophisticated electricity-market operations.
This changes the economics of wind development. A project can no longer be assessed only through turbine capacity, expected annual production and construction cost. Developers increasingly need to understand grid availability, congestion risk, balancing exposure, production profiles, merchant electricity prices, corporate PPAs and potentially battery storage.
For Montenegro, wind therefore represents not simply another source of renewable megawatt-hours but a route towards a more diversified electricity portfolio.
There is also a potentially important regional-development dimension. Many of the country’s strongest wind resources are located on plateaus, mountain passes and sparsely populated areas that have experienced decades of demographic decline. Wind projects require substantial civil works: access roads must be constructed or widened, bridges strengthened, turbine foundations built and electricity infrastructure extended into areas that may previously have had relatively weak connections.
That infrastructure can produce economic effects beyond the wind farm itself.
Improved roads can make remote agricultural land more accessible. Better electricity and telecommunications infrastructure can support rural businesses. Mountain and eco-tourism projects can benefit from improved transport connections. Local contractors can participate in civil works, transport, security, maintenance and other services.
The long-term employment effect should nevertheless be treated realistically. Wind farms create considerable activity during construction but require significantly fewer workers once operational. Their strongest permanent contribution to local economies may therefore come from a combination of skilled technical employment, land arrangements, municipal taxes and fees, infrastructure investment and the indirect commercial activity created around projects.
That makes the design of benefit-sharing mechanisms increasingly important. Communities hosting turbines and transmission infrastructure are more likely to support new renewable investment when they can see tangible economic benefits — upgraded local roads, municipal revenue, employment opportunities, community infrastructure or direct arrangements with landowners.
Environmental constraints will remain equally important. Montenegro’s most attractive wind areas often overlap with landscapes valued for biodiversity, tourism, traditional agriculture or cultural significance. Large-scale wind development therefore cannot be separated from environmental impact assessment, bird and bat studies, noise modelling, landscape considerations and consultation with local communities.
The next phase of Montenegro’s wind market will consequently be more demanding than the first.
Krnovo and Možura demonstrated that utility-scale wind generation could operate commercially in Montenegro. Gvozd demonstrates something different: that wind can become a strategic asset inside EPCG’s own portfolio and reduce the utility’s exposure to hydro variability and imported electricity.
The projects that follow will have to prove that Montenegro can scale this model while simultaneously managing grid capacity, environmental constraints, permitting, financing and local acceptance.
If that can be achieved, wind could become one of the main pillars of Montenegro’s post-coal electricity system. The combination of hydropower, wind, expanding solar generation, stronger transmission links and eventually storage would give the country a fundamentally different generation mix from the hydro-and-lignite system on which it historically depended.
The real measure of Montenegro’s wind potential therefore lies less in the theoretical strength of the wind crossing its mountain passes than in how effectively the country converts that resource into bankable projects, flexible electricity-system capacity and long-term economic value.
With approximately 172.6 MW of large wind capacity already established or entering the operating portfolio and another generation of projects being prepared, that transition is no longer theoretical. Montenegro is moving from proving that wind works to deciding how large a role it should play in the country’s energy economy.
