Takeaways

• Future Energy Systems Center will fund six new research projects to accelerate a decarbonized future, with a total investment of $1.05 million.
• The projects explore key solutions such as sodium-metal batteries, long-duration energy storage, carbon capture, and grid optimization.
• Since 2021, the Center has supported 69 research projects, helping shape technology, policy, and economics in the evolving energy landscape.

The MIT Energy Initiative’s (MITEI) Future Energy Systems Center has announced funding for six new research projects aimed at supporting the transition to a decarbonized future. The selected projects will receive a combined total of $1.05 million, reinforcing MITEI’s commitment to advancing clean energy innovation through interdisciplinary collaboration.

The Future Energy Systems Center serves as MITEI’s industry research consortium, bringing together experts from diverse disciplines to analyze the technology, policy, and economic forces shaping the global energy transition. Since 2021, the Center has funded 69 projects led by MIT faculty and research scientists, producing 76 peer-reviewed publications and influencing further research in emerging energy technologies.

The latest funding round marks the Center’s eighth project selection cycle. Projects are chosen twice a year by a Steering Committee of MIT faculty, based on nominations from member companies, expected impact, and alignment with the Center’s research priorities. Kick-off meetings for the new projects are scheduled to take place during the Center’s Spring 2026 workshop.

Read More: Nvidia Faces Scrutiny for Lagging on AI Supply Chain Decarbonization

Supporting Smarter Building-Grid Integration

One project focuses on improving coordination between residential buildings and electricity grids, particularly as more homes adopt electric heating systems. Electrification can increase pressure on grid capacity and electricity prices, making better planning tools essential.

Researchers aim to develop practical solutions that limit demand spikes through improved building design, dual-fuel heating systems, and smarter electric vehicle charging and discharging systems. The team will also create a socio-techno-economic planning tool to help policymakers, homeowners, and utilities manage energy demand more efficiently.

Integrating Carbon Capture with Gas Power Plants

Another project explores the co-design of natural gas turbines and carbon capture systems. By developing integrated models that treat the power plant and capture technology as a single system, researchers aim to optimize performance while reducing emissions and costs.

The project will examine strategies such as heat integration and exhaust recycling to improve efficiency and provide practical design guidance for low-carbon power generation.

Improving Data for Industrial Carbon Capture

Carbon capture plays an important role in reducing emissions from hard-to-abate sectors such as cement, steel, and hydrogen production. This project seeks to develop more accurate cost and performance estimates using real-world project data.

Researchers will also build decision-support dashboards that highlight cost ranges, uncertainties, and key factors affecting deployment. The goal is to better align academic research, industry requirements, and policy discussions.

Advancing Direct Lithium Extraction Technologies

Lithium is essential for batteries that power electric vehicles and renewable energy storage. A new project will study direct lithium extraction technologies that recover lithium from brines, offering an alternative to traditional supply chains currently dominated by China.

The research will develop technoeconomic frameworks and interactive dashboards to help policymakers evaluate which lithium extraction methods are most viable in different regions.

Expanding Long-Duration Energy Storage Solutions

Long-duration energy storage (LDES) is critical for managing the variability of renewable energy sources such as wind and solar power. Researchers will create advanced models that examine performance limitations, degradation, and regulatory barriers affecting LDES deployment.

The study will also explore market challenges across U.S. electricity markets to determine the cost thresholds required for commercial viability.

Exploring Sodium-Metal Battery Innovation

The final project will investigate sodium-metal batteries as a potential alternative to lithium-based storage. These batteries offer the promise of lower costs and high energy density but require further research before commercialization.

Researchers will assess performance thresholds and simulate cost scenarios to identify the conditions under which sodium-metal batteries could become competitive.

Also Read: Carbon Capture Market Forecast: Policy Shifts Fuel Global Growth

Through these projects, MITEI aims to provide actionable insights that accelerate innovation and guide decision-making across industry and government. By supporting research across energy storage, carbon capture, and grid optimization, the Future Energy Systems Center continues to play a key role in shaping pathways toward a low-carbon global economy.

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Source: MITei