In a world of growing geopolitical volatility, economic capability increasingly translates into strategic power. What is at stake is no longer climate progress only. It is industrial leadership, economic resilience, and energy security.

Europe’s Innovation Paradox

Europe has never lacked cleantech innovation. The continent produces 27% of global cleantech patents, yet only 7% of the products that reach the global market. Europe excels at generating ideas. However, others are turning those ideas into factories, supply chains, and jobs.

Across the continent, startups are producing world-class technologies–from advanced batteries and hydrogen solutions to grid optimization and industrial electrification. Yet many of these innovations encounter the same barrier when they reach the next stage: scaling.

Clean technology has become a strategic asset. In an increasingly fragile world, the countries that lead in large-scale industrial deployment will ultimately lead the energy transition–and shape the balance of economic power that comes with it.

Bianca Dragomir at Energy Tech Summit 2025. This year, she will moderate the panel “A New Global Order: Make or Break in Europe’s Cleantech Policy” at Energy Tech Summit 2026 (April 15-16, Bilbao).

The “Made in Europe” Wake-Up Call

Europe’s emerging “Made in Europe” manufacturing strategy is a wake-up call. Recent initiatives such as the Net-Zero Industry Act, the Clean Industrial Deal, and the Industrial Accelerator Act all point in the same direction: strengthening Europe’s industrial base so that innovation can translate into manufacturing and deployment.

Yet one structural gap remains unresolved: the financing of first-of-a-kind projects.

These projects transform promising technologies into real industrial infrastructure–the first commercial hydrogen plants, large-scale energy storage facilities, industrial electrification projects, or advanced manufacturing lines. They prove that technologies work at scale, unlock private capital, and strengthen supply chains.

These are also the hardest projects to finance. First-of-a-kind projects sit in the difficult space between venture capital and traditional project finance. They require large amounts of capital while relying on technologies that lenders often consider too new. As a result, many promising European clean technologies stall just before reaching industrial deployment.

The Resilience Premium

Addressing this gap requires acknowledging a crystal clear reality: industrial resilience carries a cost.

Energy systems, supply chains, and critical technologies have become strategic priorities. Therefore, governments increasingly need to be willing to pay a resilience premium in order to secure domestic industrial capacity and reduce strategic dependencies.

This shift is already visible across many advanced economies. For instance, Australia has created a National Reconstruction Fund to support strategic industries and higher-risk industrial innovation. Around the world, governments are stepping in where markets hesitate to absorb early deployment risk.

However, the central challenge is not simply mobilizing more capital. It is ensuring that public and private finance work together to turn technological leadership into industrial leadership.

Beyond Technological Promise

Too often, public programs evaluate projects primarily on technological promise or emissions impact. Yet real deployment depends on additional key factors: engineering maturity, permitting clarity, credible execution plans, and bankable offtake agreements.

Without these elements, Europe risks falling into a familiar trap: death by pilot.

What Europe needs now is a shift from scattered pilots to scaling entire cleantech value chains.

Financial tools must evolve as well. Grants remain important, but capital-intensive industrial projects require a broader and more flexible set of instruments. Specifically, loans, guarantees, and blended finance structures can reduce risk, lower the cost of capital, and attract private investment that would otherwise remain on the sidelines.

Without such instruments, Europe risks remaining at a persistent disadvantage compared with regions where massive strategic “investments”–rarely called subsidies–actively support emerging technology champions.

From Commitment to Deployment

Time discipline also matters. Projects frequently receive funding commitments but struggle to reach Final Investment Decision because timelines drift or approval processes remain uncertain. Clear milestones and predictable pathways toward FID help ensure that announced capital becomes deployed capital.

Moreover, public institutions need clarity about the risks they are prepared to absorb. First-of-a-kind projects integrate technological, market, and execution risks. Public actors are often the only institutions able to take on part of that uncertainty, yet mandates are not always explicit. When risk tolerance remains ambiguous, projects stall even when funding exists.

Iberia Leading by Example

This shift from innovation to deployment is already visible in some regions. Spain and Portugal have started to lead by example.

The Iberian Peninsula combines abundant clean energy resources, strong industrial capabilities, and a rapidly expanding cleantech ecosystem. In 2025, cleantech investment in the region reached €768.8 million, the highest level ever recorded. This reflects growing investor confidence and ecosystem maturity.

Nevertheless, turning this momentum into industrial scale will require significantly larger investment. Estimates suggest Iberia will need up to €50 billion per year in additional public and private capital by 2030 in order to remain competitive in Europe’s clean industrial transition.

Policy momentum is beginning to reflect the scale of this challenge. In Spain, initiatives such as the España Crece sovereign fund aim to mobilize €120 billion in investment to accelerate industrial deployment and attract private capital into strategic clean technologies, with green reindustrialization at their core.

If aligned with Europe’s broader industrial strategy, initiatives like these could position Iberia as Europe’s hub for deploying and manufacturing the next generation of clean technologies.

Europe cleantech Policy at Energy Tech Summit 2026

These challenges–and the urgency of addressing them–will be central to Energy Tech Summit 2026 (April 15-16, Bilbao). The summit’s Climate Policy track brings together the policymakers, investors, and industrial leaders who are shaping Europe’s response to the cleantech scaling challenge.

Bianca Dragomir will moderate the panel “A New Global Order: Make or Break in Europe’s Cleantech Policy,”examining how European policy must evolve to turn innovation leadership into industrial leadership. The session will address the financing gaps, regulatory frameworks, and strategic decisions that will determine whether Europe scales cleantech domestically or continues to watch others build the factories of the future.

Energy Tech Summit 2026 convenes the stakeholders driving this transformation–from cleantech investors and startup founders to utilities, corporates, and government officials. For those working to bridge Europe’s innovation-to-deployment gap, tickets are available.

About the Author

Bianca Dragomir is Director of Cleantech for Iberia, a coalition of leading cleantech investors, innovators, incubators, banks, universities, and philanthropies working to make the Iberian Peninsula Europe’s next cleantech industrial leader. The initiative is powered by Cleantech Group and supported by Bill Gates-founded Breakthrough Energy.

She has advised the European Commission’s High-Level Industrial Roundtables and was the first woman named ‘European Cluster Manager of the Year.’ Prior to Cleantech for Iberia, Bianca was CEO of the Valencian Clean Technologies Cluster for over a decade, where she launched Spain’s first cleantech startup accelerator.

Bianca was recently included in the Forbes 100 Most Creative People in Business.

The post Europe Must Scale Clantech or Watch Others Build the Future appeared first on Energy Tech Summit.

According to the World Economic Forum, AI-driven energy efficiency measures could generate up to $1.3 trillion in economic value by 2030. Furthermore, artificial intelligence in energy has the potential to reduce global greenhouse gas emissions by 5-10%–equivalent to the annual emissions of the entire European Union. In this article, we explore how it is transforming operations across grid management, renewable integration, and market trading–and why the technology’s own energy demands are driving innovation in both directions.

Grid Optimization: AI Applications in Energy Infrastructure

The power grid is aging and increasingly complex. Traditional grid management cannot keep pace with the rapid integration of distributed energy resources, electric vehicles, and renewable generation. Therefore, artificial intelligence applications in energy infrastructure are becoming essential for stability and reliability.

AI-powered predictive tools anticipate grid disruptions caused by extreme weather or equipment failures. Specifically, machine learning models analyze sensor data in near real-time to detect anomalies before they cascade into outages. As a result, operators can reduce downtime by up to 15% and cut operational costs significantly.

Load forecasting is another critical application. AI improves demand prediction accuracy even with limited or missing data. This allows utilities to optimize generation dispatch and minimize the need for expensive peaking plants. Additionally, predictive maintenance powered by AI in the power industry identifies optimal times for equipment servicing. This minimizes costs and prevents failures that could destabilize the network.

Renewable Energy Integration

Integrating solar and wind power presents unique challenges. Generation from these sources varies with weather conditions, making grid balancing difficult. However, artificial intelligence in renewable energy is solving this problem through advanced forecasting and real-time optimization.

Machine learning models analyze weather data, historical generation patterns, and grid conditions to predict renewable output hours or days in advance. Consequently, grid operators can adjust conventional generation and storage dispatch to accommodate variable supply. This reduces curtailment–the practice of turning off renewable generators when supply exceeds demand–and maximizes clean energy utilization.

Furthermore, it extends to battery storage systems. AI algorithms optimize charging and discharging schedules based on price signals, grid conditions, and renewable availability. For instance, systems can store excess solar generation during midday and discharge during evening peak demand. This improves both economics and grid stability.

AI applications span the entire energy value chain—from predicting renewable output to optimizing market trading and coordinating consumption across electricity, heat, and transport.

How AI Is Rewriting Power Markets

Energy and AI convergence is particularly visible in power trading. Energy markets generate vast amounts of data–weather forecasts, historical prices, generation schedules, and consumption patterns. Artificial intelligence excels at processing this information to improve trading strategies and market efficiency.

Neural networks and machine learning models analyze historical data to forecast price movements and demand fluctuations. As a result, traders can optimize bidding strategies and reduce exposure to price volatility. Additionally, AI helps utilities manage demand response programs. Systems can predict when consumers will adjust usage in response to price signals or grid conditions.

Moreover, AI is enabling new market participants. Virtual power plants–aggregations of distributed energy resources–use artificial intelligence to coordinate generation, storage, and demand across thousands of small assets. This creates a single, dispatchable resource that can participate in wholesale markets. Consequently, smaller players can access revenue streams previously available only to large utilities.

The evolution of AI-powered trading will be central to Energy Tech Summit 2026 (April 15-16, Bilbao). The panel “Trading the transition: how AI is rewriting power market models and creating a new wave of energy traders” brings together practitioners navigating this shift. Speakers include Helena Chao from Bank of America, Michel Hunsicker from EDF, and innovators working at the intersection of markets and technology.

The Paradox: Data Centers and Power Demand

Here’s the challenge: while artificial intelligence in the energy sector optimizes grids and reduces waste, it itself consumes enormous amounts of power. A single AI-powered query uses approximately 10 times the energy of a traditional Google search. As AI adoption accelerates, this creates unprecedented demand.

By 2030, global power demand from data centers–primarily driven by AI–could increase by 18-20% annually, reaching over 1,000 terawatt-hours (TWh). This is nearly a quarter of current U.S. power demand. Consequently, the energy industry faces a dual mandate: meet AI’s growing power needs while simultaneously decarbonizing the grid.

Energy Tech Summit 2026 addresses this directly. The panel “Powering giga-scale data centers: centralized vs. decentralized approaches and hardware and software innovations” features Hussein Shel from AWS, Troy Harvey from PassiveLogic, and Paul Bogers from GE Vernova. They will examine infrastructure strategies that balance AI’s computational needs with grid constraints and sustainability goals.

Startups are responding with innovation. Energy Tech Challengers 2026 features two dedicated tracks reflecting this bidirectional relationship. The “AI for Energy” track includes finalists like Boson Energy, CarbonForge, LAVA, Noon Energy, and Oriole–companies using AI to optimize energy systems. Meanwhile, the “Energy for AI” track showcases Heimdall Power, Splight, Decentral AI, Dyneo Technologies, and others developing solutions to power AI infrastructure sustainably.

Why AI x Energy Is Centre Stage at Energy Tech Summit 2026

The complexity of integrating AI across the energy value chain requires cross-sector expertise. Therefore, Energy Tech Summit 2026 has made AI x Energy a central theme. Three dedicated panels bring together the practitioners, investors, and innovators shaping this convergence.

Beyond the trading and data center panels, “Simulate to decarbonize: scaling physics-informed AI for energy and industry” explores how AI can model complex energy systems before physical deployment. Speakers include James Lockyer from Microsoft’s Climate Innovation Fund, Andreas Aepli from Reverion, and Irena Spazzapan from Systemiq Capital. The session examines how simulation accelerates the transition while reducing capital risk.

The summit brings together the full spectrum of stakeholders driving AI applications in energy–from technology providers like AWS and Microsoft to utilities like EDF, financial institutions like Bank of America, and industrial players like GE Vernova. Additionally, the Energy Tech Challengers competition connects emerging innovators with the capital and partnerships needed to scale their solutions.

A panel from Energy Tech Summit 2025 exploring how hyperscalers like Google are leveraging AI to accelerate clean energy innovation and unlock new market opportunities—a preview of the conversations coming to ETS 2026 in Bilbao.

Challenges of AI in Energy Industry

Despite rapid progress, significant barriers remain. Challenges of artificial intelligence in energy industry include data fragmentation, integration costs, cybersecurity risks, and workforce skill gaps.

Many energy systems operate on legacy infrastructure with limited data interoperability. For instance, grid operators, utilities, and market participants often use incompatible data formats. This makes it difficult to deploy AI solutions that require comprehensive, real-time information flows. Furthermore, integrating artificial intelligence into existing energy infrastructure requires substantial upfront investment. Smaller utilities and developing markets may lack the capital or technical expertise to adopt these technologies at scale.

Cybersecurity presents another challenge. AI systems rely on vast networks of connected devices and sensors. Each connection point represents a potential vulnerability. As energy grids become more digitalized and AI-dependent, protecting against cyberattacks becomes increasingly critical.

However, these challenges are driving collaboration. Industry forums, standardization efforts, and public-private partnerships are developing shared frameworks for data exchange and security protocols. Energy Tech Summit 2026 provides a platform for these conversations–connecting utilities, technology providers, regulators, and innovators to address implementation barriers collectively.

The Road Ahead

The future of AI in energy sector lies in physics-informed models, sector coupling, and real-time optimization at unprecedented scale. Physics-informed AI combines machine learning with established scientific principles. This approach improves model accuracy while reducing data requirements–particularly valuable in energy systems where physical laws constrain outcomes.

Sector coupling represents another frontier. How artificial intelligence is used increasingly spans electricity, heat, and transportation. AI can optimize across these domains simultaneously. For example, systems can coordinate electric vehicle charging with building heating schedules and renewable generation forecasts. This creates efficiencies impossible to achieve when managing sectors independently.

The economic opportunity is substantial. AI-driven energy solutions could generate $1.3 trillion in value by 2030 through improved efficiency, reduced waste, and optimized resource allocation. Moreover, AI can help the energy sector accommodate its own growing computational demands. By 2030, electricity consumption for AI-driven technologies could multiply by a factor of 3.6. Meeting this demand sustainably requires the very optimization capabilities AI provides.

Ultimately, the convergence of energy and AI represents both challenge and solution. The investors, operators, and innovators navigating this duality will be in Bilbao in April.

Tickets for Energy Tech Summit 2026 are available here.

Q&A: AI in Energy Sector

Q1. What are the challenges of AI in the energy industry?

Challenges include data fragmentation, high integration costs, cybersecurity vulnerabilities, and workforce skill gaps. Furthermore, AI’s own energy consumption is creating unprecedented power demand that the sector must accommodate sustainably.

Q2. What AI x Energy topics will be covered at Energy Tech Summit 2026?

Energy Tech Summit 2026 features three dedicated AI x Energy panels covering AI-powered energy trading, giga-scale data center infrastructure, and physics-informed AI for decarbonization. The summit brings together speakers from AWS, Microsoft, EDF, Bank of America, GE Vernova, and Systemiq Capital alongside startups solving both AI for energy and energy for AI challenges.

Q3. How does Energy Tech Challengers address the AI-energy relationship?

Energy Tech Challengers 2026 features two dedicated tracks. The “AI for Energy” track showcases startups like Boson Energy, LAVA, and Noon Energy using AI to optimize energy systems. The “Energy for AI” track highlights companies like Heimdall Power, Splight, and Decentral AI developing solutions to power AI infrastructure sustainably.

Q4. What is the future of AI in the energy sector?

The future involves physics-informed models, sector coupling across electricity-heat-transport, and real-time optimization at scale. Additionally, AI will be essential for managing the technology’s own energy demands, which could reach 1,000 TWh by 2030.

The post How is AI in Energy transforming the sector? appeared first on Energy Tech Summit.

The energy transition has a new urgency in 2026. Clean energy investment hit record levels in 2025. Specifically, the International Energy Agency estimates over $2.2 trillion flowed into clean energy technologies–two thirds of every dollar spent on energy globally. As a result, governments are building factories, laying transmission lines, and competing for clean power capacity at a speed the sector has never seen.

Four areas defining renewable energy investment in 2026 – from solar and storage reaching cost competitiveness to grid infrastructure emerging as the decade’s critical bottleneck.

Renewable Energy Investment: Capital Meets Execution

Industrial policy has become the primary driver of sustainable energy investment. In particular, tax credits, local content rules, and subsidies are determining where capital flows–and which markets move fastest. China leads, spending nearly as much on clean energy as the US and EU combined. Meanwhile, Europe is responding with the Net-Zero Industry Act, targeting 40% domestic manufacturing of key net-zero technologies by 2030. Similarly, India is moving fastest on integration. The Dhirubhai Energy Complex, scheduled to begin operations in 2026, will house gigafactories for solar panels, batteries, and electrolyzers under one roof.

As a result, greentech investment decisions are driven less by technology risk–which has largely been de-risked–and more by execution capacity. For example, permitting timelines, grid access, supply chain depth, and workforce availability now define competitive advantage. Therefore, investors who understand these constraints at a market level are finding opportunities that pure technology analysis misses.

AI and the Surge in Green Energy Investment

Artificial intelligence is one of the most powerful forces driving green energy investment in 2026. Specifically, data center energy demand is expected to grow by at least 130% by 2030. As a result, power access has become the defining constraint for the entire tech sector.

Utility-scale solar energy has been a direct beneficiary. It is fast to deploy, cheap to build, and increasingly paired with storage to deliver firm capacity. Additionally, nuclear, geothermal, and gas are attracting parallel investment as operators seek baseload solutions. Consequently, the result is a broader investable universe across the energy mix.

Meanwhile, virtual power plants and demand-side management are gaining traction as cost-effective complements to new generation capacity. In many markets, furthermore, the fastest source of new power comes through more efficient use of existing infrastructure. This dynamic is reshaping how sustainable energy investment funds evaluate opportunities across the value chain.

Solar Energy and Storage: The Investment Backbone

Solar energy remains the foundation of the energy transition. Specifically, deployment timelines are shorter than any other major generation source. Furthermore, costs continue to fall and the technology attracts institutional capital at scale. In 2026, therefore, solar energy investment increasingly pairs with storage to deliver the firm capacity grid operators require. Both short-duration battery systems and emerging long-duration technologies are part of this shift.

Sustainable energy investment funds are reflecting this evolution. For instance, battery storage and solar-plus-storage projects now command premium valuations in competitive markets. Additionally, Generate Capital, Breakthrough Energy Ventures, and Energy Impact Partners represent the range of capital strategies emerging across the value chain–from project finance to early-stage venture.

Clean energy ETFs are evolving in parallel. As a result, index providers are weighting storage and grid technology alongside pure-play solar and wind. For institutional investors, therefore, the composition of these indices signals where long-term renewable energy investment value is accumulating.

Grid Infrastructure: The Critical Greentech Investment Gap

Generation capacity is growing. However, grid infrastructure is not keeping pace. Specifically, transmission bottlenecks, interconnection delays, and aging networks are constraining renewable deployment across every major market. Consequently, they are also creating some of the most significant greentech investment opportunities of the decade.

Smart energy management platforms and flexible transmission technologies are attracting growing capital. Additionally, virtual power plants and distributed energy resource orchestration offer cost-effective alternatives to traditional grid expansion. This is particularly relevant, furthermore, in markets where new transmission permitting stretches into the late 2020s.

Grid investment decisions made today will determine deployment capacity for the rest of the decade. Moreover, getting them right requires cross-sector expertise that rarely sits in one room. For example, utilities, investors, developers, policymakers, and technology providers each hold a piece of the puzzle.

Why Green Infrastructure Is Centre Stage at Energy Tech Summit 2026

The complexity of grid infrastructure investment benefits from open, expert debate. In particular, balancing cost, reliability, and decarbonization across utility-scale and distributed models requires perspectives from across the sector. Therefore, at Energy Tech Summit 2026 (April 15-16, Bilbao, Bizkaia), two dedicated panels bring together the practitioners making these decisions firsthand.

“New models for grid infrastructure: planning wind, solar, transmission, and storage to balance cost, reliability, and decarbonization” features Julien Cristiani, Jutta Wuebken, and Jørgen Festervoll–moderated by Andrew Beebe. Specifically, the panel examines how developers and operators are rethinking infrastructure planning in constrained grid environments. Additionally, “Utility-scale vs. distributed energy: who wins on cost, speed, and decarbonization?”, featuring Vincent Gregoir, Phillip Twiddy, and Matthew Plante, tackles the strategic question every energy investor is weighing right now.

Beyond the panels, the summit brings together the full spectrum of stakeholders shaping green energy investment. For instance, institutional capital from KKR, JP Morgan, Morgan Stanley, and UBS attends alongside energy operators like Iberdrola, Octopus Energy, and Fortum. Furthermore, specialist climate funds including Breakthrough Energy Ventures, Galvanize Climate Solutions, and Systemiq Capital will be present. Ultimately, these are the investors, operators, and innovators whose decisions will determine where renewable energy investment flows over the next five years.

One of the key panels at Energy Tech Summit 2026—bringing together investors, financiers, and operators to tackle the grid infrastructure decisions that will shape renewable energy deployment for the rest of the decade.

Energy Tech Challengers: Sustainable Energy Investment Meets Innovation

Startups are addressing the hardest problems in the energy transition. As a result, Energy Tech Summit 2026’s Energy Tech Challengers competition features a dedicated Green Energy Infrastructure track. Specifically, it is designed for climate innovators developing low-carbon infrastructure that delivers reliable, resilient, and scalable energy systems.

Applicable technologies include grid stabilization innovations, flexible transmission and HVDC technologies, virtual power plants, smart energy management platforms, and EV fleet integration. In addition, the track connects founders directly with investors seeking clean energy solutions–including SET Ventures, Zouk Capital, Galvanize Climate Solutions, and Systemiq Capital.

For startups, the competition offers direct access to Europe’s most concentrated gathering of greentech investment capital. For investors, meanwhile, it provides early visibility into infrastructure solutions before they reach later funding rounds.

The Road Ahead for Renewable Energy Investment

2026 may mark a historic milestone. Specifically, energy-related global emissions could peak this year for the first time. This would happen as renewable deployment outpaces new fossil fuel demand. Furthermore, solar energy and storage are now cost-competitive without subsidies across most of the world. As a result, the economics have reached a tipping point that policy shifts alone cannot reverse.

However, the pace of deployment depends on solving harder problems. For instance, grid capacity, long-duration storage, flexible transmission, and financing structures all need to advance together. Nevertheless, these are solvable challenges. The capital is available and the technology is maturing. Moreover, the policy direction–despite regional variation–is broadly supportive of sustainable energy investment at scale.

Ultimately, for those deploying renewable energy investment capital, the frontier has moved from proving clean energy works to executing at the speed the transition demands. The investors, operators, and innovators doing that work will be in Bilbao in April. Tickets for Energy Tech Summit 2026 are now available.

Q&A: Renewable Energy Investment in 2026

Q1. Where is renewable energy investment growing fastest in 2026?

Renewable energy investment is growing fastest in grid infrastructure, long-duration storage, and solar-plus-storage projects. Additionally, markets with regulatory predictability–including the Nordics, Iberia, and parts of Asia Pacific–are attracting disproportionate capital.

Q2. How is AI driving green energy investment?

Data center energy demand is expected to grow by over 130% by 2030. As a result, green energy investment in utility-scale solar, nuclear, and grid infrastructure is accelerating across every major market.

Q3. What are sustainable energy investment funds focusing on in 2026?

Sustainable energy investment funds are prioritizing grid infrastructure, storage, and energy management platforms. Furthermore, they are moving beyond traditional solar and wind as generation capacity requires parallel investment in flexibility and transmission.

Q4. Are clean energy ETFs a reliable indicator of renewable energy investment trends?

Clean energy ETFs now include storage, grid technology, and energy management companies alongside solar and wind. Therefore, their composition offers institutional investors a useful proxy for where renewable energy investment value is accumulating.

Q5. What role do startups play in greentech investment?

Startups are addressing the hardest infrastructure problems in greentech investment–from grid stabilization to long-duration storage. Additionally, Energy Tech Summit 2026’s Energy Tech Challengers Green Energy Infrastructure track connects the most promising founders with investors shaping the sector.

Q6. What makes Energy Tech Summit 2026 relevant for renewable energy investors?

Energy Tech Summit 2026 brings together Europe’s most concentrated gathering of renewable energy investmentcapital. Moreover, the summit’s Green Energy Infrastructure theme and Energy Tech Challengers competition make it the premier platform for deal-making in the energy transition.

The post Where Renewable Energy Investment Is Heading in 2026 appeared first on Energy Tech Summit.

According to the IEA Greenhouse Gas Programme, AI now supports every stage of the carbon-capture, utilization, and storage (CCUS) value chain – from modeling and process control to monitoring and verification. The question is no longer if AI can help, but how quickly it can make carbon capture scalable, affordable, and verifiable.

Smarter Capture: AI and Carbon Capture Efficiency

Capturing CO₂ remains the costliest and most energy-intensive part of CCUS. AI is changing that by enhancing carbon capture efficiency through dynamic process optimization and data-driven materials research.

AI-powered models now predict how sorbents behave under different temperatures and pressures, helping engineers fine-tune systems in real time. Insights from recent McKinsey Carbon Management reports suggest process-optimization algorithms can reduce capture costs by 15–25%.

From Carbon to Value: Utilization and Conversion

Turning captured CO₂ into new products – fuels, building materials, or industrial feedstocks has become a frequent practise. The growing field of carbon utilization with AI applies machine learning to control chemical reactions, improve catalyst performance, and cut energy input in conversion systems.

Projects highlighted at Energy Tech Summit have demonstrated how AI helps balance reaction conditions in real time, significantly improving efficiency and reducing waste. This shift transforms carbon from a liability into an asset – a cornerstone of the emerging circular-carbon economy.

Transporting CO₂: Efficiency and Safety

Building a reliable CO₂ transport network is essential to scaling CCUS. Pipelines, hubs, and terminals demand 24/7 safety oversight – and that’s where AI excels.

AI-driven analytics can predict faults before they occur, optimize routing, and improve energy use across the network. Operators now combine sensor data with predictive algorithms to detect anomalies instantly, enhancing both safety and cost control. As regional carbon-transport corridors expand across Europe and Asia, these tools will be key to secure and efficient carbon flows.

Storage Safety: AI for Carbon Storage Site Selection

Selecting and maintaining storage sites is one of CCUS’s biggest technical challenges – and one where AI for carbon storage site selection is proving invaluable.

Predictive models integrate geological, seismic, and geomechanical data to identify stable formations with minimal leakage risk. The Global CCS Institute reports that AI-enhanced analysis can reduce site-screening time by up to 50%.

In large-scale demonstration zones, AI systems monitor pressure, temperature, and microseismic activity to ensure long-term stability – helping build confidence among regulators and investors.

How AI strengthens each stage of the carbon cycle – from smarter capture systems to secure long-term storage.

Scaling Challenges: What’s Next for AI in Carbon Storage

Despite accelerating progress, several barriers remain: fragmented datasets, inconsistent reporting frameworks, and limited interoperability between monitoring systems.

That’s why innovators featured at Compute Challengers  and Energy Tech Challengers are developing open-data and explainable-AI models to create a trusted digital backbone for CCUS. Their solutions focus on measurement, reporting, and verification (MRV) – essential steps for scaling investment and policy adoption.

The future of AI in carbon storage will depend on these transparent, connected systems that allow stakeholders to monitor captured CO₂ in real time and prove storage permanence.

The Road Ahead

Even with major technical progress, AI-driven CCUS still faces practical challenges: fragmented datasets, inconsistent monitoring standards, and high deployment costs. These gaps limit interoperability and make it harder to verify carbon storage performance at scale.

To address this, innovators showcased at Compute Summit – and its startup competition Compute Challengers– are developing next-generation computational frameworks that make large-scale modeling and real-time analytics more accessible to carbon management projects. Meanwhile, Energy Tech Challengers finalists are building open-data and explainable-AI tools to strengthen monitoring, reporting, and verification (MRV) for CCUS systems.

These conversations will advance at Energy Tech Summit 2026 (April 15–16, Bilbao), where leaders from Google, Microsoft, Shell, ABB, Iberdrola, and Breakthrough Energy Ventures will join investors such as Generate Capitaland Energy Impact Partners, alongside innovators like Thorizon, Vertoro, and Reverion. Together, they’ll explore how AI, carbon capture, and compute infrastructure are accelerating the path to large-scale decarbonization.

The future of AI in carbon storage will hinge on these cross-sector collaborations – combining computational power, data transparency, and industrial deployment to turn CCUS into a scalable climate solution.

Q&A: Understanding AI’s Role in Carbon Capture and Storage

Q1. How is AI improving carbon capture efficiency?
AI optimizes plant operations and material performance, dynamically adjusting conditions to maximize absorption rates and lower costs. This leads to measurable gains in carbon capture efficiency across both industrial and pilot-scale projects.

Q2. What is carbon utilization with AI?
Carbon utilization with AI refers to using intelligent models to convert CO₂ into fuels, chemicals, and building materials more efficiently – turning emissions into valuable commodities.

Q3. How does AI support carbon storage site selection?
AI for carbon storage site selection integrates vast datasets to identify safe, high-capacity geological formations while predicting long-term stability and potential risks.

Q4. What are the main challenges in scaling AI for CCUS?
Data fragmentation, interoperability, and high upfront costs remain key hurdles. Industry initiatives and forums such as Compute Summit are advancing shared standards to close these gaps.

Q5. What does the future of AI in carbon storage look like?
The future of AI in carbon storage lies in real-time, automated verification and transparent MRV systems – helping financiers and policymakers trust CCUS performance at scale.

The post From Capture To Storage: AI Transforming The Carbon Cycle appeared first on Energy Tech Summit.

Extreme weather events, cyber risks, and surging digital-infrastructure loads are testing the limits of legacy grids. To adapt, utilities and policymakers are rethinking design principles – focusing on decentralization, digital control, and intelligent storage solutions that provide both flexibility and stability.

Decentralization of Future Grid Resilience

Centralized energy production is giving way to a distributed model. Microgrids, rooftop solar, and community-level assets now form a network of connected generation points that make systems less vulnerable to single failures.

According to the European Commission’s Smart Grids initiative, distributed infrastructure improves efficiency and resilience while giving consumers greater control over their energy supply. The Baltic grid synchronization project – linking Baltic states to Continental Europe – illustrates how regional integration and decentralization can enhance security and balance fluctuating renewable output.

Digitalization: The Smart Grid Backbone

The modern grid depends on digital systems that provide real-time visibility and predictive management. Utilities are deploying smart grid technology – combining sensors, AI-driven forecasting, and digital twins – to anticipate equipment failure and optimize power flows.

The International Energy Agency (IEA) reports that digital infrastructure now accounts for over 15% of total grid investment worldwide, reflecting its role as a core operational layer.

Back in 2023, Christoph Frei of Emerald Technology Ventures outlined this shift at Energy Tech Summit, describing digitalization as the foundation for grid intelligence. Two years later, utilities across Europe are running large-scale digital-twin programs and predictive-maintenance systems once considered experimental. This evolution demonstrates how early ideas are being translated into practical engineering.

Christoph Frei, Partner, Emerald Technology Ventures AG at Energy Tech Summit 2023

Decarbonization: Integrating Renewables Without Compromise

Renewables are reshaping grid operation. The IEA Renewables 2024 report projects renewable generation to reach 42% of global electricity by 2030. Yet integration remains a technical challenge: fluctuating solar and wind output must align with stable demand.

Hybrid systems combining generation with energy storage for grid stability are closing that gap. In Spain, grid-scale battery hubs now provide multi-hour balancing for solar peaks, while the UK’s wind-plus-storage clusters supply reserve capacity for system reliability. These projects prove that renewable integration in grid planning can maintain both sustainability and performance.

Communication Infrastructure: Strengthening the Grid’s Nerve System

A resilient grid depends on fast, secure communication. Dr Peter Sobotka of Corinex has long stressed that modern energy systems are as much information networks as electrical ones.

Advanced communication layers enable operators to coordinate distributed assets, detect faults instantly, and maintain system integrity during high demand or cyber incidents. The European Union’s current smart-meter rollout aims to connect over 200 million meters by 2030, providing the data foundation for future grid resilience.

The seven key building blocks shaping the resilient energy grid of the future.

Flexibility: Balancing a Dynamic Energy Landscape

Flexibility converts volatility into stability. Automated demand-response programs, dynamic pricing, and distributed storage give operators tools to balance the grid in real time.

According to McKinsey & Company, flexible systems could reduce renewable curtailment by up to 30%. Utilities are adopting integrated control platforms to dispatch aggregated home batteries, EV chargers, and industrial loads – creating a more adaptive operating model for the resilient energy grid.

Regulation: The Hidden Lever of Innovation

Technology evolves quickly; policy often does not. Updating market design, metering standards, and data-sharing frameworks is critical to accelerate modernization.

The World Bank’s RISE framework shows that countries with adaptive regulation attract significantly more private investment in grid infrastructure. Regulators in markets such as the Netherlands and Denmark are already piloting flexibility markets that reward storage and balancing services – practical steps toward future grid resilience supported by clear economic signals.

Building the Grid of the Future

Progress depends on coordination across sectors. Utilities, technology developers, and investors must align technical standards and project financing to deploy solutions at scale.

At Energy Tech Summit 2023, Dr Peter Sobotka described collaboration as “the single biggest enabler of resilience.” That principle now defines many cross-border initiatives: shared data platforms for grid monitoring, joint pilot projects for digital twins, and multi-utility alliances advancing AI-based forecasting.

The Energy Tech Summit community continues to foster these partnerships through its curated networking formats, connecting innovative technologies with capital and policy support.

Founders working on grid innovation can also apply to Energy Tech Challengers – the global startup competition spotlighting breakthrough solutions in storage, digitalization, and grid modernization.

What’s Next for the Resilient Energy Grid

The 7th edition of Energy Tech Summit 2026 – April 15–16, Bilbao, Spain – will explore how AI, long-duration storage, and advanced system planning can reinforce resilience. Sessions will address practical implementation: digital-twin deployment, regulatory coordination, and financing for large-scale upgrades.

Buy your ticket to join more than 1,500 leaders defining the future of global energy infrastructure.

FAQ: Building a Resilient Energy Grid

Which technologies support future grid resilience?
Distributed generation, smart grid technology, storage, and communication systems that enable real-time coordination.

Why is renewable integration critical for reliability?
Renewable integration in grid operations, supported by energy storage for grid stability, ensures consistent supply as clean-energy capacity expands.

What role does policy play in grid resilience?
Adaptive regulation and transparent data frameworks unlock private investment and accelerate deployment of innovative infrastructure.

Where can I learn more?
Visit the Energy Tech Summit 2026 in Bilbao to see how industry leaders are implementing these solutions.

The post Resilient Energy Grid: How Technology Builds Future Grid Resilience appeared first on Energy Tech Summit.

Both battery and hydrogen energy storage systems are emerging as essential players in the clean energy landscape. They share one goal – balancing the intermittency of renewables – but differ in approach, scalability, and long-term potential.

According to the IEA’s Renewables 2024 report, renewable energy is expected to supply 42% of global electricity by 2030, driving exponential demand for long-duration energy storage technologies to stabilize grids and decarbonize hard-to-abate sectors.

Learn more about how the energy transition is evolving at the Energy Tech Summit 2026.

Battery Energy Storage Systems: Efficiency Meets Flexibility

Lithium-ion batteries currently dominate the storage landscape – thanks to decades of R&D, economies of scale, and rapid cost declines. Between 2015 and 2023, battery pack prices fell nearly 90%, according to BloombergNEF.

Modern battery energy storage systems (BESS) boast round-trip efficiencies of 85–95%, enabling rapid response and short-duration balancing for solar and wind. The IEA projects global battery storage capacity to reach 1,200 GW by 2030, a 12-fold increase from today’s level.

However, batteries face challenges in energy density and duration. While ideal for fast grid balancing and EVs, they struggle with seasonal storage – a gap hydrogen may fill.

Lithium-ion batteries offer 85–95% efficiency but are limited to 4–8 hours of storage, while hydrogen systems provide multi-day or seasonal storage with lower efficiency (~35–50%).

Hydrogen Energy Storage

Hydrogen stands out as the energy-dense, long-duration counterpart to batteries. It stores energy as a fuel – ideal for heavy industry, transport, and balancing seasonal fluctuations in renewables.

According to the International Renewable Energy Agency (IRENA), clean hydrogen production could reach 38 Mt annually by 2030, up from just 1 Mt today. The technology can provide weeks or even months of energy storage, far beyond what batteries can currently achieve.

However, efficiency remains a challenge: electrolysis converts electricity to hydrogen at ~70–80%, and fuel cells return only ~50–60%, yielding an overall round-trip efficiency of 35–45%. Despite this, falling electrolyzer costs and expanding green hydrogen infrastructure are closing the gap.

The IEA estimates global electrolyzer manufacturing capacity will surpass 50 GW per year by 2030, signaling a strong industrial push.

Energy Density: Hydrogen vs Battery

When it comes to energy density hydrogen vs battery, hydrogen wins by an order of magnitude. Per kilogram, hydrogen stores around 120–142 MJ/kg, compared to just 0.5–1 MJ/kg for lithium-ion batteries.

This makes hydrogen ideal for heavy-duty transport, aviation, and shipping – sectors where battery weight remains a critical barrier. Batteries, however, dominate in light mobility and short-haul logistics, where compact systems and charging infrastructure are rapidly improving.

Long-Duration Energy Storage: A Shared Mission

The clean energy transition requires both technologies. As renewable penetration grows, hybrid systems – batteries for fast response, hydrogen for seasonal balancing – are emerging as the most resilient approach.

IEA’s Renewables 2024 forecasts global electricity storage demand to quadruple by 2030, with both lithium-ion and hydrogen-based systems expanding rapidly across Europe, Asia, and North America. 

What’s Next?

The 7th edition of Energy Tech Summit 2026 – April 15–16 in Bilbao – will bring together over 1,500 leaders from energy, finance, and technology to explore this balance.

Expect discussions on hydrogen energy storage, battery manufacturing scale-up, and the infrastructure needed to integrate them into modern grids. Whether you’re an innovator, investor, or policymaker, this is where the roadmap for the future of energy storage takes shape.

Buy your ticket to join the global conversation.

FAQ: Battery vs Hydrogen in the Future of Energy Storage

1. Which is more efficient – battery or hydrogen energy storage?
   Batteries achieve 85–95% round-trip efficiency, while hydrogen systems are 35–45% efficient. However, hydrogen offers unmatched long-duration and seasonal storage capabilities.
2. Is hydrogen energy storage scalable?
   Yes. The IEA projects global electrolyzer capacity to exceed 50 GW annually by 2030, with major growth in Europe and Asia.
3. What role do batteries play in the future energy system?
   Batteries are critical for short-term flexibility – stabilizing grids, supporting EVs, and integrating renewables into daily operations.
4. Where can I learn more about storage innovations?
   Join the Energy Tech Summit 2026 or explore cutting-edge startup pitches at Energy Tech Challengers.

The post Battery vs Hydrogen: What Will Power the Future of Energy? appeared first on Energy Tech Summit.

AI for Energy Efficiency and Grid Optimization

From AI in renewable energy integration to smarter grid balancing, the potential for efficiency gains is enormous. At Energy Tech Summit 2025, Ingrid Capacity and SET Ventures highlighted how digitization allows real-time monitoring and automated power distribution – reducing waste and improving reliability.

Utilities like Exnaton are already deploying platforms that cut legacy inefficiencies and bring real-time intelligence into billing and operations. These are not pilot projects; they are operational systems proving how AI in the energy industry is maturing.

AI-driven forecasting can reduce grid balancing costs by up to 15% (IEA, Digitalisation & Energy), while predictive maintenance can cut downtime by as much as 50% (PwC, Sizing the Prize). These efficiency gains highlight the tangible impact of artificial intelligence in the energy sector.

AI in the Energy Value Chain: From Renewables to Consumption

AI’s role extends across the entire energy value chain – from forecasting wind and solar output, to balancing transmission loads, to empowering consumers with real-time efficiency insights.

From generation to consumption, AI enhances every layer of the energy system. It improves renewable forecasting (+5–10% utilization, World Economic Forum), automates transmission grids (−10–15% balancing costs, IEA), reduces downtime (−30–50%, PwC), and enables smarter energy use at the consumer level.

Scaling AI: From Energy to Compute

But here’s the challenge: AI doesn’t run on thin air. Every application – from predictive grid analytics to demand-response optimization – requires compute capacity. And the surge in AI workloads is driving record demand for data centers, processors, and networking.

According to McKinsey report, global demand for data center capacity is set to grow 19–22% by 2030. This has direct implications for both the energy industry and the compute industry:
– AI models need hyperscale compute clusters with low latency
– Data centers must expand sustainably to avoid undermining net-zero goals
– Cooling, edge, and modular designs are becoming essential to efficiency

Energy Tech Summit 2026: Building on Global Momentum

The 7th edition of Energy Tech Summit (April 15–16, 2026, Bilbao) builds on a track record of convening leading corporations, startups, financial institutions, and investors across energy and climate tech. Confirmed companies include:

Google, Microsoft, AWS, Shell, ENGIE New Ventures, Fortum, Iberdrola, Octopus Energy, ABB, SAP, JP Morgan, Morgan Stanley, Bank of America, UBS, and more.

This ecosystem makes the Energy Tech Summit one of the most influential stages for energy innovation in Europe. Now, the same formula is being applied to compute infrastructure.

Delegates networking during Energy Tech Summit — one of Europe’s leading stages for energy and climate tech.

Compute Summit 2026: Where Compute Meets Energy

Spinning out of Energy Tech Summit’s “Growth Meets Infrastructure” track, Compute Summit 2026 (March 17–18, Barcelona) will address the new frontier: how hyperscale compute, AI acceleration, and sustainable energy strategy come together.

Themes include:
– Hyperscale strategy and global investments
– AI infrastructure and acceleration
– Compute optimization, cooling, and efficiency
– Data center design and operations
– Emerging compute technologies (photonics, edge, modular systems)

The audience spans hyperscalers, infra investors, co-location operators, big tech, and digital infra innovators – the people building the physical and digital backbone of AI.

Already confirmed attendees include: Dell Technologies, Equinix, Schneider Electric, KKR, UBS, J.P. Morgan, Santander, Morgan Stanley, IBM, Ferrovial, Ardian, I Squared Capital, and Virtus Data Centres – alongside regulators, energy companies, and innovators.

Growth Meets Infrastructure side event at Energy Tech Summit 2025, the precursor to today’s Compute Summit.

Conclusion

The intersection of AI and energy is no longer a distant vision. From AI in renewable energy to predictive analytics in utilities, the gains are tangible. Yet, scaling these breakthroughs depends on building sustainable, next-generation compute infrastructure.

The convergence of AI in renewable energy and compute infrastructure is reshaping how energy systems operate and how digital infrastructure scales. Capturing the benefits – lower costs, higher reliability, and accelerated decarbonization – depends on aligning these two domains.

If you’re in the sector, don’t miss the chance to connect with peers, meet the industry’s decision-makers, and explore partnerships that will define the next decade.

Join the leaders shaping this future at Energy Tech Summit 2026 and Compute Summit 2026.

FAQ: AI in Energy and Compute Infrastructure

1. How is AI used in the energy industry today?
AI in the energy industry is already applied in renewable forecasting, predictive maintenance, and grid optimization. For example, AI-driven forecasting can reduce grid balancing costs by up to 15% (IEA), while predictive maintenance can cut downtime by up to 50% (PwC).

2. What is the role of AI in renewable energy?
AI helps integrate variable renewable sources like wind and solar into the grid more effectively. By predicting generation patterns and automating resource allocation, AI can increase renewable utilization by 5–10% (World Economic Forum).

3. Why attend Energy Tech Summit and Compute Summit?
These events gather the full ecosystem—energy companies, hyperscalers, investors, big tech, policymakers, and startups. Energy Tech Summit 2026 (Bilbao) focuses on energy and climate innovation, while Compute Summit 2026 (Barcelona) tackles compute power, AI infrastructure, and sustainable digital systems. Attendees gain access to decision-makers, curated networking, and the latest innovations driving the sector.

4. Where can I buy tickets for Energy Tech Summit or Compute Summit?
You can secure your place directly on the official websites: Energy Tech Summit tickets and Compute Summit tickets. Early booking is recommended for discounted rates and guaranteed access to networking opportunities.

The post AI in Energy and Compute Infrastructure: Driving Efficiency and Sustainability appeared first on Energy Tech Summit.

And here’s a treat: the innovators behind some of these technologies will share their insights at Energy Tech Summit 2025. But before you meet them there, have a look at the solutions paving the way to a cleaner, greener world. Starting with…

Capturing carbon straight from the air

Imagine pulling CO₂ straight from the air, like capturing ghosts before they wreak havoc. That’s what Direct Air Capture (DAC) technology does. Climeworks, a global DAC leader, is making this real at its Orca plant in Iceland, where CO₂ is drawn from the atmosphere and safely stored underground, where it mineralizes. This pioneering process lets both businesses and individuals take a real step toward net-zero goals.

Curious about how Climeworks is scaling this breakthrough? At ETS2025, CFO Andreas Aepli will discuss the keys to securing growth capital for decarbonization, from hitting major milestones to attracting institutional investment.

Harnessing nature’s power with ERW

What if the key to shrinking your carbon footprint was right under your feet? Enhanced Rock Weathering (ERW) takes a natural process – rock weathering – and kicks it into high gear to capture CO₂ from the atmosphere. Here’s how it works: silicate rocks are finely ground and spread over land, where they react with CO₂ and transform it into stable carbonates, locking that carbon away for the long haul. Beyond tackling greenhouse gasses, ERW also enriches the soil and boosts crop yields, making it a win-win for climate action and agricultural health.

Green Mining for a Sustainable Future

Mining for metals like platinum, copper, and iridium has long been an energy guzzler, leaving a hefty carbon footprint behind. But startups like pH7 Technologies, one of our standout attendees, is transforming the game with a zero-emission extraction process. Using a closed-loop technology, they recover metals from recycled sources, cutting energy use by a staggering 90% and eliminating wastewater altogether. This  approach is redefining sustainable mining and moving us closer to clean energy transition.

Join us for more innovations at #ETS2025

This April major industry players will gather in Bilbao at Energy Tech Summit to explore paths to clean energy. With sessions covering everything from decarbonizing aviation to securing funding, the thrilling possibilities for a sustainable world will be examined from every angle. And, let’s not forget the epic pitch battle, where startups will showcase their tech solutions to tackle the haunting carbon capture challenges. Here’s how you can participate:

Sign up for the startup battle: https://energytechchallengers.com?utm_source=socials&utm_medium=LinkedIn&utm_campaign=decarbonisation_efforts

Get your attendee pass: https://energytechsummit.com?utm_source=socials&utm_medium=LinkedIn&utm_campaign=decarbonisation_efforts

Explore other options: https://energytechsummit.com/sponsor/

The post How to shrink your carbon footprint before it becomes a monster appeared first on Energy Tech Summit.

So, how do you make the case for your boss to invest in your attendance? Here’s a little guide:

Highlight the wide range of topics

This two-day conference is packed with insights from founders, C-level executives, and directors who gather to explore the trends shaping the industry. With a robust agenda designed with the help of a top-notch advisory board, you’ll engage in sessions and panels covering a wide range of critical topics, including green energy, AI, financing, and the future of green jobs.

This is the platform for your team to gather insights and ideas that will equip you with actionable strategies to propel your organization forward in the ever-evolving tech landscape.

For the full agenda click here.

Mention side events for networking

Attending Energy Tech Summit 2025 is also a strategic investment for your company that could propel it to its next milestone. At ETS2025, you won’t just attend sessions – you’ll network with leaders. Participate in our exclusive side events, like Growth Meets Capital and Growth Meets Industry, which are designed as closed-door curated networking events for corporate innovation leaders, growth investors and entrepreneurs. Explore a dynamic expo area and keep the conversations flowing at our iconic afterparty taking place at the Guggenheim Museum. Plus, enjoy morning runs, yoga sessions, and city tours for a more relaxed networking setting.

Tell them about Energy Tech Challengers

We also host an annual pitch competition that provides a platform for new partnerships to flourish. At Energy Tech Challengers, 70 of the brightest industry startups showcase their game-changing solutions to 100+ investors. It’s a chance for investors to spot the next big thing and for startups to gain visibility, secure investments and build new connections.

P.S. Applications for Energy Tech Challengers are still open. Startups have until January 20th to submit their entry, so there’s plenty of time left to craft a pitch and apply: energytechchallengers.com

If that’s not enough to convince them…

At Energy Tech Summit, we’re redefining the conference experience. So, forget about endless panels – this summit is all about fueling your business growth. Your team will benefit from invaluable insights, networking opportunities, and an atmosphere that includes unique venues, Michelin-star cuisine, and exciting activities. It’s not just about taking notes – it’s about creating lasting memories, building meaningful connections, and gathering a wealth of innovative ideas. Your team will leave inspired, connected, and ready to make waves in the energy sector.

So, once your boss gives the green light, grab tickets here: energytechsummit.com

The post How to get your boss to say “yes” to Energy Tech Summit 2025 appeared first on Energy Tech Summit.

In this newsletter, we’re giving you a sneak peek into three topics from this year’s agenda that should already be on your radar. Whether you’re a leader, investor, or startup looking to make waves, these sessions are an absolute can’t-miss.

Closing the climate funding gap: financing the scale-up of decarbonization technologies

Decarbonization technologies often face hurdles when transitioning from pilot stages to full-scale deployment, with funding being one of the main obstacles. In this session, we’ll explore how to overcome these barriers and fast-track the journey from concept to large-scale impact. Learn about innovative financing models, strategic partnerships, and other solutions that can accelerate the deployment of game-changing technologies and help drive the global shift toward a more sustainable future.

China’s cleantech surge: what the US and Europe can learn and adapt from its achievements in batteries, renewables, and clean energy innovation

China is quickly positioning itself as a global leader in cleantech, reshaping the landscape of renewable energy. In this session, we’ll dive into the strategies driving China’s clean energy dominance and explore what this means for the rest of the world. Join us to uncover the opportunities and challenges for global innovation in response to China’s rapid advancements in sustainable technology.

Balancing incentives and regulations: crafting climate policies for sustainable impact

Achieving lasting sustainability hinges on finding the right balance between positive incentives and strict regulations. But how do we strike this balance effectively? In this session, industry experts will dive deep into the challenge of designing climate policies that skillfully combine “carrots” and “sticks” to encourage environmental responsibility. From fostering innovation through rewards to enforcing accountability with regulations, they’ll share insights on how to craft policies that drive real, long-term climate action.

Stay in the loop

These topics are just a teaser of what’s in store at the Energy Tech Summit. So, go ahead and dive into the full preliminary agenda to uncover even more discussions we’ll be unpacking.

Got industry knowledge you’re ready to share with the world? We’re all ears! Speaker applications are open until October 14, and we’d love to have you join us on stage.

Not a fan of the spotlight? No worries – just grab your ticket and lock in your spot at Europe’s #1 industry event: https://energytechsummit.com/

And don’t forget to subscribe to The Latest Buzz for insider insights and all the must-know updates about the industry and Energy Tech Summit.

The post 3 topics you can’t miss at ETS2025 appeared first on Energy Tech Summit.