A team led by Professor Ludmilla Aristilde found that two versions of one enzyme act as “traffic controllers” for carbon in bacteria — a discovery that could help engineers turn waste like plant matter or plastics into useful chemicals and fuels.
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ALT A team led by Professor Ludmilla Aristilde found that two versions of one enzyme act as “traffic controllers” for carbon in bacteria — a discovery that could help engineers turn waste like plant matter or plastics into useful chemicals and fuels.
Link to the article "Glyceraldehyde-3-phosphate dehydrogenase homologs as bifunctional gatekeepers of metabolic segregation in Pseudomonas putida": pnas.org/doi/10.1073/pnas.25…
@AristildeLab joins Nanoscape to discuss how microbes and minerals work together to recycle waste, nutrients, and even plastics. Hear how her nanoscale discoveries are helping shape the future of sustainability.
Listen at iinano.org/podcast or on your favorite platform.
How do soil bacteria balance energy metabolism with carbon #metabolism in using #lignin carbons? Check out our @CommsBio article on how we figure out the "traffic jams" and "stoplights" in Pseudomonas metabolic reactions in lignin carbon conversion. Link: nature.com/articles/s42003-0…
ALT Soil bacterium tunes metabolic network for lignin carbon processing. Credit: Aristilde Research Group
Finally time to share! I am promoted to Full Professor at Northwestern McCormick School of Engineering, in the Department of Civil and Environmental Engineering, with courtesy appointments in Chemical and Biological Engineering, and Earth, Environmental, and Planetary Sciences
Thank you to all the colleagues, mentors, friends, and family who provided support along the way. To all former and current members of the Aristilde Research Group, all your incredible contributions made this possible.
Many years ago, I decided to follow in the footsteps of my parents who were both educators: my mother, a kindergarten teacher; my father, a school principal. I so wish they were both still around to celebrate this milestone!
Growing up in Haiti, my love of science started from being curious about how do soils make plant grow. Now, my research group studies the molecular chemistry and biochemistry of minerals and bacteria from soils that benefit agriculture, biotechnology, and sustainability.
Curious about how certain soils can retain moisture for a long time? Checkout recent @AristildeLab article in @PNASNexus on how organic matter facilitates trapping of water in soil mineral nanopores. Funded by @NSF@IINanoNU
Article link: academic.oup.com/pnasnexus/a…
ALT Illustration of water trapped as molecular bridges at carbohydrate-clay interfaces. Image by the Aristilde Research Group
In this period of uncertainty, the University will fund research that is subject to stop-work orders or the federal funding freeze, President Schill and Board of Trustees Chair Peter Barris announced today.
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Concrete is a climate problem, and this breakthrough could help fix it.
Professors Alessandro Rotta Loria and Jeffrey Lopez have developed a carbon-negative material that makes cement and concrete more sustainable without compromising strength.
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ALT Concrete is a climate problem, and this breakthrough could help fix it.
Professors Alessandro Rotta Loria and Jeffrey Lopez have developed a carbon-negative material that makes cement and concrete more sustainable without compromising strength.
Today I’m joining 30 colleagues in taking an unusual step: calling for a halt to a line of research I was excited about, the long-term effort to build “mirror life”.
We’re sharing our findings in a @ScienceMagazine paper:
science.org/doi/10.1126/scie…
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Growing up in Haiti, @AristildeLab saw the effects of environmental disasters. Now, she’s leading a team harnessing microbes to break down plastics in rivers. Join the fight for a sustainable future!🌱 bit.ly/4fnTP2R#Sustainability#Innovation