Developing sustainable bioeconomy solutions to generate carbon negative biochemicals, biomaterials, bioenergy, and food products.


In a world with too much CO2 already in the atmosphere and more accumulating every year, reversing climate change requires rapid development of industries that remove and use CO2 at a gigaton scale.  For more than three billion years, photosynthesis has been removing tens of gigatons of CO2 per year from the atmosphere, forming the foundation of a food and energy web that has sustained life on Earth.  For a few dozen centuries, humans have harnessed photosynthesis through agriculture and forestry, producing raw materials for our food, fiber, and energy industries.  We have now begun to consider ways to reconfigure those industries to solve the climate challenge. 

Bioenergy and biomaterials can substitute coal and petrochemical products to reduce fossil carbon emissions, as well as sequester carbon in long-lived wood products, bioplastics, and other biomaterials.  Organic wastes can be composted, digested or converted to biochar and returned to soils to increase soil carbon storage, while waste CO2 from bioprocessing can be pumped underground to massive geologic storage reservoirs or upcycled to fuels and polymers.

Growing and transforming a new Bioeconomy

Developing industries and products that carbon negative offers remarkable potential for both rural economic development and environmental sustainability.  At a global scale, the annual CO2 captured by the photosynthesis of forests, agricultural crops and grasslands exceeds fossil fuel emissions by a factor of ten.  Converting just a few percent of that photosynthesis to carbon negative bioenergy and biomaterials can play a critical role in reversing climate change and generate millions of jobs and hundreds of billions of dollars of new economic activity.  However, there are a range of technical, social, economic, and policy barriers to realizing that vision.  The initiative aims to catalyze the development of integrated innovative processes rooted in systems approaches that ensure the viability and long-term sustainability of the solutions.


Juliana Vasco-CorreaPh.D.
Assistant Professor of Agricultural and Biological Engineering

Tom L. RichardPh.D.
Professor of Agricultural and Biological Engineering
Director of Penn State Institutes for Energy and the Environment
Bioenergy and Bioresource Engineering

Associated Members


Mary Ann Bruns*
Associate Professor, Soil Microbiology & Biogeochemistry

Melik Demirel
Huck Chair & Professor of Biomimetics

Paul Esker*
Assistant Professor, Epidemiology & Field Crop Pathology

Lara Fowler*
Sr. Lecturer, Assistant Director of IEE

Michael Jacobson

Heather Karsten*
Associate Professor, Crop Production/Ecology

Judd Michael
Professor, Agricultural and Biological Engineering

Matthew Royer
Assistant Research Professor, Director Agriculture & Environment Center

Robert Weaver
Professor of Agricultural Economics


Charles Anderson
Associate Professor of Biology

Rachel Brennan*
Associate Professor, Environmental Engineering

Stephen Chmely*
Assistant Professor, Agricultural and Biological Engineering

Wayne Curtis
Professor, Chemical Engineering

Lauren Greenlee
Associate Professor, Chemical Engineering  

Zhen Lei
Associate Professor, Energy & Environmental Economics

Bruce Logan
Kappe Professor, Environmental Engineering

Andrew Read*
Director, Huck Institutes of the Life Sciences

Phillip Savage
Professor & Department Head, Chemical Engineering

Hilal Ezgi Toraman
Assistant Professor, Energy & Mineral Engineering & Chemical Engineering

Meng Wang
Assistant Professor, Environmental Systems Engineering

Hoaje Yi
Assistant Research Professor

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