The energy transition is entering a new phase. While investments in renewable energy continue to grow, the sector’s agenda is no longer limited to adding new generation capacity.
When electricity is generated, how it is stored, under what conditions it is fed into the grid, and how it is used in emerging areas of demand such as transportation are becoming increasingly important.
In some European electricity systems, drought conditions are putting pressure on hydropower generation, increasing the role of solar energy in balancing the system. Austria is reassessing its solar energy incentives alongside storage and energy management solutions. Meanwhile, emerging battery technologies such as iron-air are attracting investment in long-duration energy storage, while global manufacturers are bringing new gigawatt-hour-scale production capacity online.
In Türkiye, the rapid growth of electric vehicles and charging infrastructure is adding a new and increasingly significant demand profile to the electricity system.
The key question is no longer simply how to generate more electricity, but how to integrate the electricity we produce into a more flexible, efficient and resilient energy system.
Electric Mobility Is Creating a New Area of Energy Demand in Türkiye
The growing adoption of electric vehicles is rapidly strengthening the connection between Türkiye’s energy and transportation sectors.
According to July 2026 data from the Energy Market Regulatory Authority (EMRA), the number of fully electric vehicles in Türkiye reached 464,873, while the total number of charging points rose to 46,665. Approximately 3.33 million charging sessions were carried out nationwide during July. Another notable indicator was that 65% of these sessions took place at green charging stations certified under YEK-G, Türkiye’s Renewable Energy Guarantee of Origin system.
This growth demonstrates that electric mobility is no longer an issue concerning the automotive industry alone.
As the number of electric vehicles increases, the installed capacity of charging stations, distribution grid capacity, fast-charging systems, load management, energy storage and renewable energy integration are becoming part of the same investment equation.
In particular, the expansion of high-power DC charging points and, in the coming years, heavy-duty commercial electric vehicles will make it increasingly important to plan electricity distribution infrastructure around new demand profiles.
As e-mobility expands, it is therefore creating new investment and business opportunities not only in the vehicle market but also in charging equipment, transformers, energy storage systems, power electronics, smart grids and energy management software.
Solar Energy Is Helping Offset Lower Hydropower Generation in Some European Electricity Systems
Europe’s energy balance during the summer of 2026 provided a striking example of why renewable-based electricity systems require greater flexibility.
Between 1 June and 15 August 2026, across ten European electricity systems with comparable hydropower and solar data, hydropower generation fell to 31.65 TWh, its lowest summer level in seven years, while solar power generation reached 84.44 TWh.
This picture highlights the growing contribution of solar energy to electricity systems during a period in which drought conditions significantly affected hydropower generation.
However, the shift is not limited to total generation volumes.
Because solar generation is concentrated around midday, it is also influencing the operating patterns of reservoir-based hydropower plants. Shifting reservoir hydropower generation away from peak solar hours toward periods of higher evening demand, while directing pumped-storage charging cycles toward midday, illustrates how different energy sources can be operated in a complementary way.
Expanding generation capacity alone is not enough. What is needed is a flexible electricity system in which different energy sources can complement one another.
Energy Storage Is Moving to the Center of Incentive Policies
One notable example of this transition is emerging in Austria.
Austria’s Federal Ministry for Economic Affairs and Energy is working on a new approach to solar energy policy that expands the focus beyond adding new photovoltaic capacity to include storage, energy management and grid integration.
According to the initial findings of a storage study commissioned by the ministry, up to 8 GW of market-driven battery capacity could be economically beneficial by 2030. The 8 GW figure represents the potential identified in the study rather than a finalized national capacity target.
Under the new approach, greater support for battery storage systems, energy management solutions and the retrofitting of storage systems to existing solar power plants is under consideration.
The underlying principle is straightforward: store electricity generated during periods of high solar output and return it to the system when demand requires it.
This development signals an important shift in renewable energy policy. In the emerging energy system, the focus is increasingly moving beyond simply asking “how many megawatts of renewable capacity have been installed?” toward assessing how much flexibility and system value that capacity can provide to the grid.
As a result, battery storage systems are evolving from complementary technologies for renewable energy into key infrastructure components of the electricity system.
Gigawatt-Hour-Scale Battery Manufacturing Is Becoming a New Area of Competition
Alongside the race to develop new technologies, major investments in manufacturing capacity are also continuing.
LG Energy Solution’s battery facility in Lansing, Michigan, has started production. Once fully operational, the facility is expected to have an annual production capacity of more than 35 GWh.
The plant will manufacture LFP battery cells for energy storage systems as well as NMC cells for electric vehicles. This will allow the same manufacturing infrastructure to serve both the energy storage and electric mobility markets.
The company also plans to establish more than 50 GWh of LFP/ESS manufacturing capacity in North America by the end of 2026.
This scale demonstrates that energy storage is no longer a niche technology segment but has become one of the major growth areas of the global battery industry.
Battery manufacturing facilities are evolving into strategic production hubs that bring together automotive, renewable energy, electricity grid and industrial investments within the same supply chain.
However, a growing market also means stronger competition.
The German battery manufacturer Varta’s application in July 2026 to initiate insolvency proceedings under self-administration highlighted this aspect of the market. The company cited a structural financing gap expected from 2027 onward, weakening demand, deteriorating market conditions, currency effects and the termination of cooperation by a major customer among the factors contributing to the situation.
The growth of the storage market therefore does not mean that every manufacturer will benefit equally. Technology costs, production scale, customer portfolios, financing capacity and positioning within the global supply chain are becoming increasingly decisive.
Hybrid Energy Models Are Transforming Existing Power Plants in Türkiye
Another reflection of the search for greater flexibility in Türkiye’s energy system can be seen in hybrid energy projects.
ASUNIM has completed and commissioned a 7.79 MWp auxiliary-source solar PV project at Akenerji’s 904 MW Erzin natural gas combined-cycle power plant. ASUNIM also reports that it has delivered more than 150 MW of hybrid solar PV projects integrated with wind, hydropower and natural gas power plants to date.
The project, which integrates solar generation into existing power generation infrastructure, demonstrates how different generation technologies can operate together within the same power plant ecosystem.
Hybrid energy investments are emerging as an important option for making more effective use of existing energy infrastructure.
Combining existing power plant sites, grid connections and electrical infrastructure with different generation sources demonstrates that the next phase of energy investment will not rely solely on building entirely new power plants from the ground up.
The New Concept Shaping the Energy Transition: System Flexibility
When recent developments are considered together, system flexibility is becoming increasingly prominent in the energy sector’s new investment landscape.
The expansion of variable renewable energy sources such as solar and wind is increasing the need for energy storage. Advances in battery technologies are making it possible to store electricity across different timeframes, while the growing adoption of electric vehicles is introducing a new demand profile to the grid.
Hydropower, natural gas, solar energy, battery storage, EV charging infrastructure and smart energy management are increasingly being considered as parts of the same integrated system.
As a result, investment decisions in the emerging energy system are increasingly bringing together generation + storage + grid infrastructure + electrification + digital energy management.
This transformation is also increasing the importance of the electrical equipment industry. From transformers and inverters to high-voltage systems and cables, and from EV chargers and energy management software to battery systems, a broad technology value chain is becoming the backbone of the new energy infrastructure.
ICCI: Where the Energy Transition Comes Together
The transformation of the energy sector is no longer just about building new power plants.
Energy storage systems, smart grids, electric mobility, power electronics, electricity transmission and distribution infrastructure, digital energy management and hybrid energy solutions are increasingly operating within a more integrated system.
ICCI – International Energy and Environment Fair and Conference gathers the different players across the energy value chain around this transformation. These include energy producers, electrical equipment manufacturers, energy storage companies, EPC firms, technology providers and investors.
The 30th ICCI will bring renewable energy, energy storage, grid and transmission technologies, electrical equipment, smart grids, digital energy, automation, hydrogen and e-mobility solutions together on a single platform. It will connect industry professionals with the technology and investment needs of the new energy system.
Meet Us at ICCI on 20–22 January 2027
The 30th ICCI – International Energy and Environment Fair and Conference takes place on 20–22 January 2027 at Yenikapı – Eurasia Show and Art Center, Istanbul. Join us there to see first-hand the technologies, investments and partnerships shaping the future of energy.
The past, present and future of energy meet at ICCI.