Individual Members

Keith Tyo

Keith E.J. Tyo is associate professor of Chemical and Biological Engineering and (by courtesy) Microbiology and Immunology at Northwestern University and founding member of the Center for Synthetic Biology. Keith received his undergraduate degree from West Virginia University, PhD from Massachusetts Institute of Technology and was a NIH National Research Service Award Postdoctoral Fellow at Chalmers University, Sweden.

Keith’s research interests are at the intersection of Synthetic Biology, Sustainability, and Global Health. His group is focused on understanding and engineering microbial metabolism to make fuels and chemicals from renewable and waste carbon sources. His group uses genetics, metabolomics, and computational tools to guide these efforts. His second focus is on engineering protein-based biosensors that enable low-cost, point-of-care detection of important clinical biomarkers in impoverished, rural settings. His work has been published in Science and Nature Biotechnology, and has been received the NSF CAREER award.

Milan Mrksich

Cătălin Voiniciuc

y research in Vancouver (Canada), Jülich (Germany) and Versailles (France) identified novel plant genes controlling the structure of extracellular matrix polysaccharides. After moving to Düsseldorf in May 2016, I applied yeast Synthetic Biology (SynBio) to reconstruct plant polysaccharides. From January 2019 to February 2022, I led an independent research group at IPB Halle to gain further mechanistic insight into the synthesis of matrix polysaccharides. In March 2022, I joined the University of Florida to lead its Plant SynBio efforts and further the Designer Glycans mission.

Sheela Vemu

Associate Professor at Biology, Waubonsee Community College, IL. I am a Bio QUEST curriculum consortium fellow, contributor to the development of the Scientific Teaching Course from the National Institute of Scientific Teaching (NIST) and Editorial Board member for CBE-Life Sciences Education (LSE) journal.My doctoral training is in Pharmacology and Molecular biology. Recently, my scholarship has shifted to science education. I enjoy working with all students, especially freshman/sophomores from diverse backgrounds in biology education research projects in the aspects of effective study strategies and metacognition. I am passionate about implementing Course -Based Undergraduate Experiences (CUREs) with the lens of a quantitative data literacy to foster inclusion in a community college classroom. I continue to use project based assignments and data interpretation modules with scientific contributions of scientists who are members of historically excluded groups. Teaching is the way I connect with people, especially young people. I learn so much from them in trying to figure out how to help them learn.I enjoyed co-leading the first ASCN Inclusive STEM Teaching Project ASCN Learning community in 2021. In my workings with various groups, I learned the skills of building learning communities to foster shared common goals and attitudes while promoting an equitable participation of all members. It gave me a platform to bring the voices of the community college landscape with STEM practitioners from other institution types. The opportunities to be informed by the lived perspectives from different stakeholders, led me to ponder about the aspects of implementing and scaling change. I see myself as a change agent at the grassroots level.

Kaitlin Dailey

I am a Research Instructor at the University of Nebraska Medical Center’s Eppley Institute for Cancer Research, hosted by the labs of Dr. Michael (Tony) Hollingsworth (cancer biology, immunology) and Dr. Ken Bayles (bacterial genetics, microbiology). During my doctoral studies, I became fascinated with the many advantages oncolytic bacteria have over traditional therapeutics. As a result, I pursued specific training in genetic engineering and anaerobic bacteria. I performed ground-breaking studies, accomplishing the first CRISPR-mediated modification of Clostridium novyi-NT and established methodologies that have added to the field of biologic therapeutics. I chose post-doctorate studies at UNMC to further my training in immunology, cancer models, bacterial genetics, and microbiology. My long-term career goal is to establish a diverse and equitable academic research lab focused on genetically engineering single celled organisms for pharmaceutical and biofuel development. Additionally, I ascribe to the teacher/scholar model and intend to use my expertise to generate graduate and undergraduate courses as well as to mentor students in a laboratory setting – while fostering inclusive environments in both circumstances.

Devin Camenares

I have been interested in synthetic biology for over a decade – it has motivated much of my academic career and is highlighted by involvement in iGEM. Attending the Jamboree in 2006, I returned as a volunteer in 2013 and 2014, after completing a PhD in Molecular Biology (Studying trans-translation in E. coli under Dr. Wali Karzai at Stony Brook University). I have been the primary mentor for teams at the two institutions where I taught; Kingsborough Community College (2016, 2017) and Alma College (2019 to present). I have also participated in the iGEM community in other ways, acting as a judge in 2017 and 2018, and an After iGEM committee member working on the EduHall project and, most recently, the SynBio-101 project. In addition to iGEM and other synthetic biology research, I have active research in bioinformatics, self-taught in Java and other languages.
When I am not in the lab, meetings, or teaching, I am either spending time with my wife or daughter, or I am on the tennis courts or at the chess board (I used to be a USCF rated expert and still an avid player).

Jorge Marchand

Dr. Jorge Marchand is an Assistant Professor at the University of Washington in the Department of Chemical Engineering. He did his PhD work at the University of California, Berkeley in the research group of Michelle Chang, where he worked on the discovery of biosynthetic pathways for making terminal alkyne amino acids. His postdoctoral work was done at Harvard Medical School with the George Church group. Here, he focused on engineering translation and developing new sequencing technologies to study tRNA. He now runs an independent research group that aims to utilize fundamental approaches in synthetic biology, chemical biology, biosynthesis, and biomolecular engineering for reprogramming life at the nucleic acid level.

Ania-Ariadna Baetica

Dr. Ania-Ariadna Baetica is an Assistant Professor in the Department of Mechanical Engineering and Mechanics at Drexel University. She received her BA degree from Princeton University in 2012 and her PhD from California Institute of Technology in 2018. Following her degrees, she was a postdoctoral scholar at the University of California San Francisco.

Dr. Baetica’s group leverages control theory along with systems biology, synthetic biology, and computational science to solve biotechnological and medical challenges. Her group designs robust and modular synthetic biological circuits by incorporating layered feedback mechanisms.

Ian Ehrenreich

My lab studies how genomes encode organisms’ phenotypes. To do this, we use techniques from genetics, molecular systems biology, and synthetic biology. In the area of synthetic biology, we have developed new approaches for building synthetic chromosomes from natural DNA.

Chelsea Hu

I’m a new faculty at Texas A&M studying synthetic biology and control theory. Before moving to Texas, I completed four years of postdoctoral training in the Richard Murray Group at Caltech. I received my Ph.D. in Chemical and Biomolecular Engineering from Cornell University in 2018, advised by Julius B. Lucks.

Samuel MD Oliveira

I am a Research Assistant Professor at the Department of Electrical and Computer Engineering (ECE) and the director of the Oliveira Lab (www.oliveiralab.me), a recently created research group at Boston University (BU). In addition, I am the Senior Manager of the DAMP lab (www.damplab.org) at BU.

The Oliveira lab investigates the emergence of microbial community complexity and their underlying interactions in varying environmental contexts and studies microbial community design principles and metrics to help build novel collective behaviors. We hope that breakthroughs in computational and synthetic biology methods will accelerate our knowledge of the links between genetic sequences and intercellular communication to study and engineer the spatiotemporal behavior of biological networks. Among my key collaborators: i) Prof. Chris Voigt (MIT) for improving the predictive DNA design automation tool named Cello (Genetic Circuit Design Automation with Cello 2.0. Nature Protocols).

In my early career, I have published more than 30 articles in journals, conference proceedings, and book chapters, acted as the guest Editor for JoVE, and as a reviewer for Nat. Comm., ACS Synth. Biol., Synth. Biol. J., among others. In addition, I have directly supervised and co-supervised 7 research staff, 7 graduate students (none of whom received their Ph.D. with me), 3 master’s students, and over 14 undergraduates. I was one of the recipients of the Sao Paulo Foundation’s Best Innovative Biotech Product Award in 2019. Based on that, I co-founded a commercial synthetic biology, automation-based company named Doroth (www.doroth.com.br) in Brazil.

Currently, with the support from a $1.4M NSF grant, BU’s Professor Douglas Densmore (co-PI), Prof. Andrews (PI) from UMass Amherst, and my team (technical lead support) are teaming up on an ambitious effort to create microscopic, programmable “living devices” which can detect and neutralize specific toxic contaminants found in drinking water.

Yogesh Goyal

Yogesh Goyal is an Assistant Professor of Cell & Developmental Biology at the Feinberg School of Medicine, Northwestern University. Yogesh received his B.Tech. with Honors in Chemical Engineering from the Indian Institute of Technology Gandhinagar, and his Ph.D. in Chemical and Biological Engineering focusing on quantitative developmental biology from Princeton University. Yogesh pursued postdoctoral work in single-cell systems and synthetic biology in Bioengineering at the University of Pennsylvania. Yogesh’s major honors include Burroughs Wellcome Fund CASI Award, Schmidt Science Fellowship, STAT Wunderkind, and the Jane Coffin Childs Fellowship. Yogesh’s group combines theory, computation, and single-cell resolved experiments to track and control cellular plasticity and fate choices in developing tissues and cancer.

Caroline Ajo-Franklin

Caroline Ajo-Franklin earned a B.S. in chemistry from Emory University in Atlanta, GA in 1997 and a Ph.D. in chemistry from Stanford University in Palo Alto, CA in 2004. She trained as Postdoctoral Fellow with Prof. Pam Silver in the Department of Systems Biology at Harvard Medical School in Cambridge, MA from 2005-2007. From 2007-2019, she was a Staff Scientist within the Molecular Foundry at Lawrence Berkeley National Laboratory in Berkeley, CA. In 2019, she joined the faculty of Rice University in Houston, TX as a Professor of BioSciences with joint appointments in Bioengineering and Chemical and Biomolecular Engineering. Her strongly interdisciplinary, highly collaborative research program focuses on exploring the interface between living organisms and non-living materials and engineering this interface for applications in energy, environment, and biomedicine. Prof. Ajo-Franklin was named as a recipient of the Women@ the Lab award in 2018 and as Cancer Prevention and Research Institute of Texas (CPRIT) Scholar in 2019. She is on the Editorial Board of ACS Synthetic Biology and is an Editor at mSystems.

Jimmy Gollihar

I am a Scientist and Head of the Laboratory of Antibody Discovery & Accelerated Protein Therapeutics (ADAPT) at the Houston Methodist Research Institute (HMRI). My work encompasses a broad range of engineering biology, from the design of simple genetic “parts” and circuits to protein engineering and industrial biomanufacturing. I use a foundation in synthetic biology to domesticate non-model organisms and then use these tools and chasses to engineer proteins or biosynthetic pathways with therapeutic and industrial potential. I use a holistic approach to protein engineering by employing concepts in directed evolution, rational design, and artificial intelligence to create biological countermeasures, diagnostics, and vaccine candidates. Over the last few years, my group has been involved in the genomic surveillance and characterization of SARS-COV-2, B-cell repertoire mining for neutralization and protection assays, and the engineering of enzymes for use in mRNA vaccine manufacturing.

I also spent the last four years as a DoD scientist. In that time, I designed and built the Army’s Biological Foundry co-located at the University of Texas at Austin. This work increased DoD capability in the field of synthetic biology for early-stage research efforts. From 2019 to 2021, I also served as the government CTO of the Bioindustrial Manufacturing Innovation Institute– BioMADE. As the technical architect of the institute, I led the creation of a public-private partnership to develop innovations at scale for biological production of non-medical products. Prior to that, I led an in-house R&D effort in the private sector.

Benjamin Woolston

Dr. Woolston joined the NEU Chemical Engineering department as an Assistant Professor in January 2020. As an NSF Graduate Research Fellow, Dr. Woolston received his PhD in Chemical Engineering in 2017 from MIT under the guidance of Prof. Greg Stephanopoulos, where his research focused on the development of genetic tools to enable metabolic engineering in anaerobic CO2-fixing microbes, and the establishment of a methanol utilization pathway in the model organism Escherichia coli. While at MIT, he was an inaugural Fellow of the Chemical Engineering Communication Lab, where he provided peer tutoring and department-wide workshops to assist students and post-docs with aspects of scientific communication. His Post-doctoral work was conducted in the laboratory of Prof. Emily Balskus in the Chemistry & Chemical Biology department at Harvard University, where he studied microbial metabolic pathways and enzymes that contribute to the stability of health-associated Lactobacilli in the human vaginal microbiota. At Northeastern, his research program combines approaches from his previous research training in metabolic engineering, synthetic biology, biochemistry and microbiology to engineer microbes for biofuel & biochemical production, and as diagnostics and therapeutics in the Human gut microbiota. His lab team currently consists of five PhD students and five undergraduates. Since joining NEU, Dr. Woolston has taught the Biochemical Engineering senior elective (CHME 5630) and the graduate course in Kinetics & Reactor Design (CHME 7340). He was the winner of the 2020 IMES Jay Bailey Award young investigator award, as well as the 2021 Biotechnology & Bioengineering Daniel I.C. Wang award.

Devaki Bhaya

Keith Yamamoto

Dr. Keith R. Yamamoto is vice chancellor for science policy and strategy, director of precision medicine, and professor of cellular and molecular pharmacology at UCSF. After earning his PhD from Princeton University, Yamamoto joined the UCSF faculty in 1976. His research has focused on signaling and transcriptional regulation by nuclear receptors; he uses mechanistic and systems approaches to pursue these problems in pure molecules, cells and whole organisms. He has led or served on numerous national committees focused on public and scientific policy, public understanding and support of biological research, science education, and diversity, equity, inclusion and anti-racism; he currently chairs the Coalition for the Life Sciences, co-chairs the NASEM Roundtable on Aligning Incentives for Open Science, and sits on the Board of Directors of the Public Library of Science, the Board of Directors of Rapid Science, the Governing Board of the California Institute for Regenerative Medicine, the Board of Counselors for the Radiation Effects Research Foundation, and the Advisory Board for Lawrence Berkeley National Laboratory. He has chaired or served on many committees that oversee training and the biomedical workforce, research funding, and the process of peer review and the policies that govern it at NIH. He was elected to the National Academy of Sciences, the National Academy of Medicine, the American Academy of Arts and Sciences, and the American Academy of Microbiology, and is a fellow of the American Association for the Advancement of Science.

Nathan Crook

Jeff Nivala

I’m Jeff Nivala, a Research Assistant Professor in the Allen School of Computer Science and Engineering at the University of Washington. I work closely with other faculty and students as part of the Molecular Information Systems Lab. My scientific interests are focused on technology development with molecular and synthetic biology. My post-doctoral work was performed in George Church’s lab at Harvard Medical School. I was a graduate student fellow of the California Institute for Quantitative Biosciences (QB3) as a PhD student in the UCSC Nanopore Group with Mark Akeson, and a Washington Research Foundation Fellow in David Baker’s lab during my undergraduate work.

Gregory Koblentz

Gregory D. Koblentz is an Associate Professor and Director of the Biodefense Graduate Program at George Mason University’s Schar School of Policy and Government. The Biodefense Graduate Program is a multidisciplinary research and education program designed to prepare students to work on issues at the nexus of health, science, and security. He also directs the Summer Workshop on Pandemics and Global Health Security at the Schar School and is the Editor-in-Chief of The Pandora Report. Dr. Koblentz is a member of the Scientist Working Group on Biological and Chemical Security at the Center for Arms Control and Non-Proliferation in Washington, DC. He serves as a pro bono advisor for the Open Society Justice Initiative and DARPA, as a consultant for the Stimson Center on their cheminformatics program, and is a member of the Biothreat Advisory Board of Heat Biologics. Dr. Koblentz is the author of Strategic Stability in the Second Nuclear Age (Council on Foreign Relations, 2014) and Living Weapons: Biological Warfare and International Security (Cornell University Press, 2009) and co-author of Mapping Maximum Biological Containment Labs Globally (London: King’s College London, May 2021), Editing Biosecurity: Needs and Strategies for Governing Genome Editing (George Mason University and Stanford University, 2018), and Tracking Nuclear Proliferation: A Guide in Maps and Charts (Carnegie Endowment for International Peace, 1998). His research and teaching focus on understanding the causes and consequences of the proliferation of nuclear, biological, and chemical weapons to state and non-state actors and the impact of emerging technologies on international security. He received a PhD in political science from MIT and a MPP from the Harvard Kennedy School.

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