Climate Science for Change

MIT scientists have pioneered efforts to understand the essential dynamics of global climate change and its effects across land, atmosphere, oceans, and ice sheets.

The climate crisis affects everyone. And in many parts of the world, those who are least equipped to handle their changing environment will be disproportionately impacted by it. Much can and must be achieved with existing technologies and policy approaches, including at MIT.

The Climate Project at MIT is a new, whole-of-MIT initiative to respond to the multiple challenges of global climate change. Through this project MIT seeks to become, within a decade, one of the world’s most prolific and collaborative sources of technological, behavioral, and policy solutions — solutions that will change the expected trajectory of global climate outcomes for the better. MIT School of Science researchers will produce the fundamental research needed to accelerate the project.

EAPS Professor Andrew Babbin co-leads mission to restore atmosphere, protect land and oceans

The Climate Project will expand and accelerate MIT’s efforts to both reduce greenhouse gas emissions and respond to climate effects such as extreme heat, rising sea levels, and reduced crop yields. At the urgent pace needed, the project will help the Institute create new external collaborations and deepen existing ones to develop and scale climate solutions.

How much carbon can the ocean absorb and how much more it can take?

Researchers propose launching a fleet of oceangoing drones that would continuously monitor the flux of carbon dioxide between the atmosphere and ocean, helping to inform next-generation visualizations and models of the global carbon cycle.

Can we predict sea-level rise from the physics of ice sheets?

Brent Minchew, the Cecil and Ida Green Career Development Professor in the Department of Earth, Atmospheric and Planetary Sciences (EAPS), wants to more fully understand the most fundamental processes that govern rapid changes in glacial ice, and to use that understanding to build next-generation models that are more predictive of ice sheet behavior as they respond to, and influence, climate change.

Read it at MIT News →