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Early-stage energy research projects, funded by the MIT Energy Initiative, focus on ammonia as a hydrogen carrier and battery management for electric vehicles.

Seven innovative energy research projects, focusing on ammonia as a hydrogen carrier and electric battery management, have been granted funding by the MIT Energy Initiative.

Seven pioneering energy research projects, focusing on ammonia as a hydrogen carrier and electric...
Seven pioneering energy research projects, focusing on ammonia as a hydrogen carrier and electric vehicle battery management, are backed by the MIT Energy Initiative.

Early-stage energy research projects, funded by the MIT Energy Initiative, focus on ammonia as a hydrogen carrier and battery management for electric vehicles.

In a significant stride towards a greener future, the MIT Energy Initiative (MITEI) has awarded over $1.2 million in grants to support seven groundbreaking energy research projects. This year's winning projects, which address transportation, power infrastructure, recycling, and more, are expected to play a pivotal role in overcoming critical technical barriers and advancing clean energy and decarbonization goals.

One of the key projects focuses on **ammonia as a hydrogen carrier**, led by Assistant Professor Andreea Bobu in Aeronautics and Astronautics and CSAIL. The project aims to tackle the high energy cost associated with decomposing ammonia (NH3) into hydrogen (H2) and nitrogen (N2). Ammonia is a promising alternative due to its high hydrogen storage capacity, energy density, and relatively lower liquefaction and transport costs compared to hydrogen gas. However, large-scale use is currently hindered by energy-intensive decomposition reactions. The research aims to lower the overall decomposition reaction temperature by selectively providing energy to the kinetic energy of incident ammonia molecules, enhancing efficiency and viability for ammonia as a hydrogen carrier.

Another significant project is the **electric vehicle (EV) battery management** initiative led by Professor Sylvia Ceyer in Chemistry. This project aims to address the challenges faced by the EV market, including lengthy charging times, limited lifespans, and safety concerns. The team is developing fast-charging protocols and fault prognostic methods to manage battery packs efficiently and reliably. The approach includes creating digital twins—detailed computational models replicating the variations among individual cells within battery packs—to monitor and manage these variations in real-time during EV operation.

The projects "Accelerating grid planning for the data center era", led by Professors Saurabh Amin and Deepjyoti Deka, and "Separation and recycling of rare earth elements", led by Professor Martin Bazant, aim to develop DecarbAI, a software framework for optimizing energy planning for data centers, and an electrosorption process for separating rare earth elements, respectively. The project "Robotics for efficient infrastructure maintenance", led by unspecified researchers, aims to make renewable energy systems more reliable and scalable by using robotics for infrastructure maintenance. The project "Electric-field enhanced CO capture", led by Assistant Professor Zachary Smith, focuses on developing microporous semiconductors for electric-field enhanced CO capture.

The "Sustainable energy pathways for Africa" project aims to create a framework for evaluating decarbonization and energy transition pathways for Africa. All projects will receive $175,000 in funding over the span of two years. These studies are foundational efforts that are expected to be instrumental in overcoming critical technical barriers in hydrogen storage/transport and battery performance, which are central to advancing clean energy and decarbonization goals.

Over the past four cycles, the largest concentration of projects awarded funding have been related to batteries and energy storage. The Seed Fund Program supports early-stage clean energy research at MIT, contributing to the institution's ongoing efforts to drive innovation in the clean energy sector.

The electric vehicle (EV) battery management project, led by Professor Sylvia Ceyer in Chemistry, aims to tackle the challenges in the EV market, including lengthy charging times, limited lifespans, and safety concerns, by developing fast-charging protocols and fault prognostic methods to manage battery packs efficiently and reliably. In the finance and technology sectors, a significant project is the development of DecarbAI, a software framework for optimizing energy planning for data centers, led by Professors Saurabh Amin and Deepjyoti Deka. This project signifies a pivotal step in the industry of energy, contributing to advancing clean energy goals.

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