Mellon College of Science
EXPERTS
- Associate Professor
- Physics
- Associate ProfessorPhysics
I am an assistant professor in the High Energy Physics group at Carnegie Mellon University. I work on the CMS experiment at the Large Hadron Collider (LHC).
Previously, I was postdoc at the University of Chicago, and I received my PhD from the University of Pennsylvania.I am an assistant professor in the High Energy Physics group at Carnegie Mellon University. I work on the CMS experiment at the Large Hadron Collider (LHC).
Previously, I was postdoc at the University of Chicago, and I received my PhD from the University of Pennsylvania.- Pittsburgh
- 7 Affordable and Clean Energy
- Professor
- Chemistry
- ProfessorChemistry
Bruce was born in Niagara Falls (NY) and raised in Lewiston (NY), a few miles downstream from the Falls. He attended the University of Rochester and received his Bachelor's of Science degree in Chemistry in 1988. He performed undergraduate research with Professor David G. Whitten, studying photochemical reactions in organized media such as reversed micelles and lipid bilayers. Bruce also spent two summers working in the labs of Drs. Samir Farid and Ian Gould at Eastman Kodak Company, studying the relationship between the thermodynamics and the kinetics of electron transfer reactions within the Marcus inverted region.
Bruce performed his Ph.D. work at the University of Arizona, studying photoinduced electron transfer, energy transfer and polymerization reactions within lipid bilayers under the supervision of Professor David F. O'Brien. After completing his Ph.D. in Chemistry in 1993, he joined Professor Gary B. Schuster's group at the University of Illinois as a postdoctoral fellow, working on the design of new DNA photocleavage agents.
Bruce moved to Georgia Tech with the Schuster group in 1995 to continue this work. Bruce then spent the summer of 1997 in Denmark, working in the labs of Professors Peter E. Nielsen and Henrik Nielsen at the University of Copenhagen, studying the interactions between peptide nucleic acid (PNA) oligomers and RNA.
In August of 1997, Bruce moved to Carnegie Mellon University as an Assistant Professor of Chemistry. He was promoted to Associate and then Full Professor of Chemistry, with courtesy appointments in the Departments of Biological Sciences and Biomedical Engineering. In 2007, Bruce co-founded the Center for Nucleic Acids Science and Technology, which he co-directs with John Woolford of the Department of Biological Sciences. In 2011, Bruce and Danith Ly co-founded PNA Innovations, Inc, a biotechnology startup company that is commercializing gammaPNA technology under an exclusive license from Carnegie Mellon.
Bruce takes great pleasure in teaching undergraduate organic chemistry and graduate courses in medicinal chemistry and sensors. Bruce’s current research interests include the use of PNA for sequence-specific recognition of DNA and RNA and the development of new fluorescence imaging and sensing reagents, as described in the Research section of this website.Bruce was born in Niagara Falls (NY) and raised in Lewiston (NY), a few miles downstream from the Falls. He attended the University of Rochester and received his Bachelor's of Science degree in Chemistry in 1988. He performed undergraduate research with Professor David G. Whitten, studying photochemical reactions in organized media such as reversed micelles and lipid bilayers. Bruce also spent two summers working in the labs of Drs. Samir Farid and Ian Gould at Eastman Kodak Company, studying the relationship between the thermodynamics and the kinetics of electron transfer reactions within the Marcus inverted region.
Bruce performed his Ph.D. work at the University of Arizona, studying photoinduced electron transfer, energy transfer and polymerization reactions within lipid bilayers under the supervision of Professor David F. O'Brien. After completing his Ph.D. in Chemistry in 1993, he joined Professor Gary B. Schuster's group at the University of Illinois as a postdoctoral fellow, working on the design of new DNA photocleavage agents.
Bruce moved to Georgia Tech with the Schuster group in 1995 to continue this work. Bruce then spent the summer of 1997 in Denmark, working in the labs of Professors Peter E. Nielsen and Henrik Nielsen at the University of Copenhagen, studying the interactions between peptide nucleic acid (PNA) oligomers and RNA.
In August of 1997, Bruce moved to Carnegie Mellon University as an Assistant Professor of Chemistry. He was promoted to Associate and then Full Professor of Chemistry, with courtesy appointments in the Departments of Biological Sciences and Biomedical Engineering. In 2007, Bruce co-founded the Center for Nucleic Acids Science and Technology, which he co-directs with John Woolford of the Department of Biological Sciences. In 2011, Bruce and Danith Ly co-founded PNA Innovations, Inc, a biotechnology startup company that is commercializing gammaPNA technology under an exclusive license from Carnegie Mellon.
Bruce takes great pleasure in teaching undergraduate organic chemistry and graduate courses in medicinal chemistry and sensors. Bruce’s current research interests include the use of PNA for sequence-specific recognition of DNA and RNA and the development of new fluorescence imaging and sensing reagents, as described in the Research section of this website.- Pittsburgh
- 7 Affordable and Clean Energy
Tags- Biochemistry and Cell Biology
- Medicinal and Biomolecular Chemistry
- Organic Chemistry
- Medical Biochemistry and Metabolomics
- Pharmacology and Pharmaceutical Sciences
- Professor
- Chemistry
- ProfessorChemistry
Stefan Bernhard started his chemistry career as a laboratory technician with Chocolat Tobler, which was followed by a degree in chemical engineering from the Ingenieurschule Burgdorf. Further endeavours, under Prof. Peter Belser at the Université de Fribourg, were rewarded with a diploma and a PhD in chemistry. These primarily synthetic studies were complemented by a laser spectroscopy project at Los Alamos National Laboratory with Dr Jon Schoonover and time in the Abruña group at Cornell University focused on electrochemistry. Stefan Bernhard’s first faculty appointment at Princeton University explored luminescent metal complexes for optoelectronic and solar conversion applications. He moved to Carnegie Mellon University in July 2009 where he was promoted to the rank of Professor in 2014.Stefan Bernhard started his chemistry career as a laboratory technician with Chocolat Tobler, which was followed by a degree in chemical engineering from the Ingenieurschule Burgdorf. Further endeavours, under Prof. Peter Belser at the Université de Fribourg, were rewarded with a diploma and a PhD in chemistry. These primarily synthetic studies were complemented by a laser spectroscopy project at Los Alamos National Laboratory with Dr Jon Schoonover and time in the Abruña group at Cornell University focused on electrochemistry. Stefan Bernhard’s first faculty appointment at Princeton University explored luminescent metal complexes for optoelectronic and solar conversion applications. He moved to Carnegie Mellon University in July 2009 where he was promoted to the rank of Professor in 2014.- Pittsburgh
- 7 Affordable and Clean Energy
- 13 Climate Action
Tags- Inorganic Chemistry
- Other Chemical Sciences
- Physical Chemistry (incl. Structural)
- Chemical Engineering
- Organic Chemistry
- Teaching Professor
- Biological Sciences
- Teaching ProfessorBiological Sciences
Associate Teaching Professor and Assistant Department Head for Graduate Affairs
I am advisor for The Sciences Teaching Club, NeuroSAC, and the Nu Rho Psi Honor Society.
In working with students to get them involved in understanding how scientists ask questions, think about problems, and communicate their results, I also serve as CMU's faculty advisor to a team of reviewers who work for IMPULSE: The Premier Undergraduate Neuroscience Journal. In working with undergraduate students, I help them to publish their results in IMPULSE or in other peer-reviewed journals.Associate Teaching Professor and Assistant Department Head for Graduate Affairs
I am advisor for The Sciences Teaching Club, NeuroSAC, and the Nu Rho Psi Honor Society.
In working with students to get them involved in understanding how scientists ask questions, think about problems, and communicate their results, I also serve as CMU's faculty advisor to a team of reviewers who work for IMPULSE: The Premier Undergraduate Neuroscience Journal. In working with undergraduate students, I help them to publish their results in IMPULSE or in other peer-reviewed journals.- Pittsburgh
- 10 Reduced Inequalities
- 4 Quality Education
- 5 Gender Equality
- 8 Decent Work and Economic Growth
Tags- Cognitive Sciences
- Neurosciences
- Psychology
- Professor
- Physics
- ProfessorPhysics
- Pittsburgh
- 7 Affordable and Clean Energy
- 16 Peace, Justice and Strong Institutions
Tags- Atomic, Molecular, Nuclear, Particle and Plasma Physics
- Astronomical and Space Sciences
- Quantum Physics
- Mathematical Physics
- Vice Provost for Education
- Biological Sciences
- Vice Provost for EducationBiological Sciences
Amy L. Burkert is Vice Provost for Education at Carnegie Mellon University. She is responsible for university-wide education initiatives at both the undergraduate and graduate levels.
Dr. Burkert has spearheaded the development of new pathways for science students to grow intellectually and personally, especially during their undergraduate years. She helped to create new interdisciplinary options (the Bachelor of Science and Arts degree and the Science and Humanities Scholars Program); the unified major in biological sciences and psychology; the biomedical engineering minor for non-engineering students; and the minor in health care policy and management. She also helped to develop the intercollegiate bachelor's degree and master’s degree programs in computational biology.
tudent advising has always been special focus for Dr. Burkert. She has participated in the CMU-wide Advising Task Force that has done much to professionalize the role of advisors on campus. She co-chaired a faculty committee on the Second Year Experience, and partnered with faculty and staff in the development of the Big Questions project for first-year students. She has been active in outreach and expanding diversity, participating as an instructor and advisor in the Pennsylvania Governor’s School for Science and the Summer Academy of Math and Science.
Dr. Burkert pioneered new courses in biological sciences, and collaborated with MCS colleagues to create EUREKA, a first-year seminar for MCS students that combines the disciplines of biological sciences, physics, chemistry, and mathematical sciences, and has championed the use of reflective writing for science students.Amy L. Burkert is Vice Provost for Education at Carnegie Mellon University. She is responsible for university-wide education initiatives at both the undergraduate and graduate levels.
Dr. Burkert has spearheaded the development of new pathways for science students to grow intellectually and personally, especially during their undergraduate years. She helped to create new interdisciplinary options (the Bachelor of Science and Arts degree and the Science and Humanities Scholars Program); the unified major in biological sciences and psychology; the biomedical engineering minor for non-engineering students; and the minor in health care policy and management. She also helped to develop the intercollegiate bachelor's degree and master’s degree programs in computational biology.
tudent advising has always been special focus for Dr. Burkert. She has participated in the CMU-wide Advising Task Force that has done much to professionalize the role of advisors on campus. She co-chaired a faculty committee on the Second Year Experience, and partnered with faculty and staff in the development of the Big Questions project for first-year students. She has been active in outreach and expanding diversity, participating as an instructor and advisor in the Pennsylvania Governor’s School for Science and the Summer Academy of Math and Science.
Dr. Burkert pioneered new courses in biological sciences, and collaborated with MCS colleagues to create EUREKA, a first-year seminar for MCS students that combines the disciplines of biological sciences, physics, chemistry, and mathematical sciences, and has championed the use of reflective writing for science students.- Pittsburgh
- Teresa Heinz Prof Of Green Chemistry
- Chemistry
- Teresa Heinz Prof Of Green ChemistryChemistry
A champion of sustainability science, Terry Collins is the Teresa Heinz Professor of Green Chemistry and the Director of the Institute for Green Science at Carnegie Mellon University. Collins invented "TAML® Activators", the first, full-functional, small molecule mimics of any of the great families of oxidizing enzymes. In the process, one of the great challenges of reaction chemistry has been solved—easy deployment of the mimicked efficient catalytic cycles of oxidative metabolism. Today, NewTAMLs are the best performers.
Collins learned of the insidious health damage caused by anthropogenic chemical pollutants in his native New Zealand. He launched his academic career by creating an iterative catalyst design protocol to explore whether biomimetic processes for disinfecting water could be developed to replace chlorine and avoid chlorinated disinfection products. TAML and NewTAML activators are the principal fruits, greatly outperforming the enzymes while enabling applications exhibiting or promising high technical, cost, health, environmental and fairness performances. Collins framed the argument that high health, environmental and fairness performances define sustainable chemicals and need to be integrated with comparable weight to the technical and cost performances that typically define commercial viability.
How does one build strong health, environmental and fairness performances into new chemicals? From what we understand today, the most important strategy consists of gaining precommercial confidence that a new chemical does not elicit low dose or low concentration (for aquatic life) adverse effects (lodafs or locafs) in living things—endocrine disruption is the best understood suite of underlying mechanisms. Endocrine disruptors (EDs) represent major health and environmental threats especially by eliciting developmental effects that permanently impair living things. ED dose-response curves are typically non-monotonic, confounding identification by assays that assume linear dose-responses as are typical of regulatory science.
Until recently, no one knew how to develop such confidence. Collins was a member of a team of 25+ environmental health scientists and green chemists who worked under private funding for 4 years to produce the Tiered Protocol for Endocrine Disruption (TiPED). The living TiPED was published in the journal "Green Chemistry" in January of 2013. It allows EDs to be identified at the highest levels of contemporary science. TAML activators have been subjected to TiPED assays supporting that commercially developed examples are not EDs toward the many examined endpoints.
Of importance to sustainability, TAML activators catalytically activate hydrogen peroxide to eliminate micro-pollutants and pathogens from water with superb technical performances while promising excellent environmental, fairness and cost performances. By mimicking oxidative metabolism, TAML processes rapidly destroy estrogens and many other EDs, active pharmaceutical ingredients, phenols including recalcitrant chloro and nitro-phenols, nitroaromatic explosives, pesticides, chemical warfare agents, and dyes. The hardiest of microbes, bacterial spores, are simply inactivated with an outstanding 7-log kill in 15-minutes. These discoveries are underpinning new technologies for treating diverse wastewaters and enabling other products.
TAML activators have been shown in multiple labs to selectively oxidize unactivated C–H bonds. They can be used catalytically or electrocatalytically to oxidize water giving clear-cut cases of water oxidation via the most earth abundant transition metal, iron. Many other application areas are being explored and others are likely to be discovered.
For over two decades, Terry Collins has been perfecting what is the first university course in Green Chemistry—today the class is entitled “Chemistry and Sustainability”. He has delivered over 600 public lectures and is an author on over 200 publications, mostly in peer-reviewed journals.
Collins earned his undergraduate and doctoral degrees from the University of Auckland. He joined the Carnegie Mellon faculty in 1987. Among his honors are the 2018 Carnegie Science Center Award for the Environment, the 2010 Heinz Award for the Environment, the inaugural Charles E. Kaufman Award of the Pittsburgh Foundation, the 2007 Award of The New York Metropolitan Catalysis Society, the USEPA’s 1999 Presidential Green Chemistry Challenge Award, the Pittsburgh Award from the American Chemical Society, Japan’s Society of Pure and Applied Coordination Chemistry Award, and many others. Collins is a Distinguished Alumni Award recipient from the University of Auckland where he is an Honorary Professor. He is a Fellow of the Royal Society of New Zealand (Hon), the ACS, and the Alfred P. Sloan Foundation, and he received a Dreyfus Teacher-Scholar Award.A champion of sustainability science, Terry Collins is the Teresa Heinz Professor of Green Chemistry and the Director of the Institute for Green Science at Carnegie Mellon University. Collins invented "TAML® Activators", the first, full-functional, small molecule mimics of any of the great families of oxidizing enzymes. In the process, one of the great challenges of reaction chemistry has been solved—easy deployment of the mimicked efficient catalytic cycles of oxidative metabolism. Today, NewTAMLs are the best performers.
Collins learned of the insidious health damage caused by anthropogenic chemical pollutants in his native New Zealand. He launched his academic career by creating an iterative catalyst design protocol to explore whether biomimetic processes for disinfecting water could be developed to replace chlorine and avoid chlorinated disinfection products. TAML and NewTAML activators are the principal fruits, greatly outperforming the enzymes while enabling applications exhibiting or promising high technical, cost, health, environmental and fairness performances. Collins framed the argument that high health, environmental and fairness performances define sustainable chemicals and need to be integrated with comparable weight to the technical and cost performances that typically define commercial viability.
How does one build strong health, environmental and fairness performances into new chemicals? From what we understand today, the most important strategy consists of gaining precommercial confidence that a new chemical does not elicit low dose or low concentration (for aquatic life) adverse effects (lodafs or locafs) in living things—endocrine disruption is the best understood suite of underlying mechanisms. Endocrine disruptors (EDs) represent major health and environmental threats especially by eliciting developmental effects that permanently impair living things. ED dose-response curves are typically non-monotonic, confounding identification by assays that assume linear dose-responses as are typical of regulatory science.
Until recently, no one knew how to develop such confidence. Collins was a member of a team of 25+ environmental health scientists and green chemists who worked under private funding for 4 years to produce the Tiered Protocol for Endocrine Disruption (TiPED). The living TiPED was published in the journal "Green Chemistry" in January of 2013. It allows EDs to be identified at the highest levels of contemporary science. TAML activators have been subjected to TiPED assays supporting that commercially developed examples are not EDs toward the many examined endpoints.
Of importance to sustainability, TAML activators catalytically activate hydrogen peroxide to eliminate micro-pollutants and pathogens from water with superb technical performances while promising excellent environmental, fairness and cost performances. By mimicking oxidative metabolism, TAML processes rapidly destroy estrogens and many other EDs, active pharmaceutical ingredients, phenols including recalcitrant chloro and nitro-phenols, nitroaromatic explosives, pesticides, chemical warfare agents, and dyes. The hardiest of microbes, bacterial spores, are simply inactivated with an outstanding 7-log kill in 15-minutes. These discoveries are underpinning new technologies for treating diverse wastewaters and enabling other products.
TAML activators have been shown in multiple labs to selectively oxidize unactivated C–H bonds. They can be used catalytically or electrocatalytically to oxidize water giving clear-cut cases of water oxidation via the most earth abundant transition metal, iron. Many other application areas are being explored and others are likely to be discovered.
For over two decades, Terry Collins has been perfecting what is the first university course in Green Chemistry—today the class is entitled “Chemistry and Sustainability”. He has delivered over 600 public lectures and is an author on over 200 publications, mostly in peer-reviewed journals.
Collins earned his undergraduate and doctoral degrees from the University of Auckland. He joined the Carnegie Mellon faculty in 1987. Among his honors are the 2018 Carnegie Science Center Award for the Environment, the 2010 Heinz Award for the Environment, the inaugural Charles E. Kaufman Award of the Pittsburgh Foundation, the 2007 Award of The New York Metropolitan Catalysis Society, the USEPA’s 1999 Presidential Green Chemistry Challenge Award, the Pittsburgh Award from the American Chemical Society, Japan’s Society of Pure and Applied Coordination Chemistry Award, and many others. Collins is a Distinguished Alumni Award recipient from the University of Auckland where he is an Honorary Professor. He is a Fellow of the Royal Society of New Zealand (Hon), the ACS, and the Alfred P. Sloan Foundation, and he received a Dreyfus Teacher-Scholar Award.- Pittsburgh
- 11 Sustainable Cities and Communities
- 7 Affordable and Clean Energy
- 9 Industry, Innovation and Infrastructure
- 12 Responsible Consumption and Production
- 3 Good Health and Well Being
Tags- Inorganic Chemistry
- Other Chemical Sciences
- Physical Chemistry (incl. Structural)
- Chemical Engineering
- Organic Chemistry
- Professor
- Physics
- ProfessorPhysics
- Pittsburgh
- 14 Life Below Water
Tags- Astronomical and Space Sciences
- Atomic, Molecular, Nuclear, Particle and Plasma Physics
- Organic Chemistry
- Physical Chemistry (incl. Structural)
- Quantum Physics
- Professor
- Mathematical Sciences
- ProfessorMathematical Sciences
I am a professor at Carnegie Mellon University where I work in the Mathematical Sciences Department.
My main research interest is set theory and mathematical logic, and I am part of the CMU interdisciplinary program in logic.
When I'm not doing maths I enjoy reading, movies and travel. On the left those of you with graphical browsers can see a picture of me and my wife Julia Deems taken at the highly recommended Log Country Inn in Ithaca NY. Below you will find a few links to things I've done or been interested in over the last few years.I am a professor at Carnegie Mellon University where I work in the Mathematical Sciences Department.
My main research interest is set theory and mathematical logic, and I am part of the CMU interdisciplinary program in logic.
When I'm not doing maths I enjoy reading, movies and travel. On the left those of you with graphical browsers can see a picture of me and my wife Julia Deems taken at the highly recommended Log Country Inn in Ithaca NY. Below you will find a few links to things I've done or been interested in over the last few years.- Pittsburgh
Tags- Pure Mathematics
- Computation Theory and Mathematics
- Philosophy
- Applied Mathematics
- Professor Of Physics
- Physics
- Professor Of PhysicsPhysics
- Pittsburgh
- 7 Affordable and Clean Energy
Tags- Biochemistry and Cell Biology
- Physical Chemistry (incl. Structural)
- Theoretical and Computational Chemistry
- Materials Engineering
- Atomic, Molecular, Nuclear, Particle and Plasma Physics
- Professor and Director of McWilliams Center for Cosmology
- Physics
- Professor and Director of McWilliams Center for CosmologyPhysics
- Pittsburgh
- 7 Affordable and Clean Energy
- 10 Reduced Inequalities
- 8 Decent Work and Economic Growth
Tags- Astronomical and Space Sciences
- Atomic, Molecular, Nuclear, Particle and Plasma Physics
- Organic Chemistry
- Physical Chemistry (incl. Structural)
- Applied Mathematics
- Associate Teaching Professor
- Biological Sciences
- Associate Teaching ProfessorBiological Sciences
I primarily teach upper-level undergraduate biology lab courses that cover a wide range of subjects: Experimental Techniques in Molecular Biology, Experimental Cell and Developmental Biology, and Experimental Neuroscience.
During the summer I work with high school groups, including the Pennsylvania Governor's School for the Sciences (PGSS) and the Summer Academy for Math and Science (SAMS), where I typically lead team research projects involving neuroscience topics. I also work the with the Gelfand center to design and lead outreach for K-8 students.I primarily teach upper-level undergraduate biology lab courses that cover a wide range of subjects: Experimental Techniques in Molecular Biology, Experimental Cell and Developmental Biology, and Experimental Neuroscience.
During the summer I work with high school groups, including the Pennsylvania Governor's School for the Sciences (PGSS) and the Summer Academy for Math and Science (SAMS), where I typically lead team research projects involving neuroscience topics. I also work the with the Gelfand center to design and lead outreach for K-8 students.- Pittsburgh
- University Professor
- Mathematical Sciences
- University ProfessorMathematical Sciences
An internationally respected educator and researcher in applied mathematics; Irene Fonseca is the director of Carnegie Mellon's Center for Nonlinear Analysis (CNA).
In recognition for her contributions to the advancement of research in her area of expertise, Irene Fonseca was bestowed a knighthood in the Military Order of St. James (Grande Oficial da Ordem Militar de Santiago da Espada) by the then-President of Portugal, Jorge Sampaio, in 1997. For her teaching and research contributions to Carnegie Mellon University, Irene Fonseca was honored with the Mellon College of Science endowed chair in 2003 and named a University Professor in 2014. In 2012 she was elected President of the Society for Industrial and Applied Mathematics (SIAM), one of the largest organizations dedicated to mathematics and computational science in the world. In 2018 Irene Fonseca was installed as the first Kavčić-Moura University Professor of Mathematics.An internationally respected educator and researcher in applied mathematics; Irene Fonseca is the director of Carnegie Mellon's Center for Nonlinear Analysis (CNA).
In recognition for her contributions to the advancement of research in her area of expertise, Irene Fonseca was bestowed a knighthood in the Military Order of St. James (Grande Oficial da Ordem Militar de Santiago da Espada) by the then-President of Portugal, Jorge Sampaio, in 1997. For her teaching and research contributions to Carnegie Mellon University, Irene Fonseca was honored with the Mellon College of Science endowed chair in 2003 and named a University Professor in 2014. In 2012 she was elected President of the Society for Industrial and Applied Mathematics (SIAM), one of the largest organizations dedicated to mathematics and computational science in the world. In 2018 Irene Fonseca was installed as the first Kavčić-Moura University Professor of Mathematics.- Pittsburgh
- 7 Affordable and Clean Energy
Tags- Pure Mathematics
- Applied Mathematics
- Associate Professor with Tenure
- Mathematical Sciences
- Associate Professor with TenureMathematical Sciences
I am an Assistant Professor in the Department of Mathematical Sciences at Carnegie Mellon University. Before that I was an H.C. Wang Assistant Professor at Cornell University and a Ph.D. student at TU Berlin. During the Fall semester 2017 I was at MSRI in Berkeley.I am an Assistant Professor in the Department of Mathematical Sciences at Carnegie Mellon University. Before that I was an H.C. Wang Assistant Professor at Cornell University and a Ph.D. student at TU Berlin. During the Fall semester 2017 I was at MSRI in Berkeley.- Pittsburgh
Tags- Pure Mathematics
- Computation Theory and Mathematics
- Applied Mathematics
- Numerical and Computational Mathematics
- University Professor
- Mathematical Sciences
- University ProfessorMathematical Sciences
- Pittsburgh
- 14 Life Below Water
Tags- Computation Theory and Mathematics
- Pure Mathematics
- Statistics
- Applied Mathematics
- Numerical and Computational Mathematics
- Buhl Professor of Physics
- Physics
- Buhl Professor of PhysicsPhysics
- Pittsburgh
- 7 Affordable and Clean Energy
- 10 Reduced Inequalities
Tags- Atomic, Molecular, Nuclear, Particle and Plasma Physics
- Astronomical and Space Sciences
- Quantum Physics
- Mathematical Physics
- Assistant Professor
- Chemistry
- Assistant ProfessorChemistry
- Pittsburgh
- 7 Affordable and Clean Energy
- 9 Industry, Innovation and Infrastructure
- Professor
- Mathematical Sciences
- ProfessorMathematical Sciences
- Pittsburgh
- 10 Reduced Inequalities
- 14 Life Below Water
Tags- Pure Mathematics
- Computation Theory and Mathematics
- Philosophy
- Applied Mathematics
- Professor
- Chemistry
- ProfessorChemistry
Yisong (Alex) Guo currently works at the Department of Chemistry, Carnegie Mellon University. Alex does research in the fields of Bioinorganic Chemistry, Spectroscopy, Chemical Kinetics and protein Biochemistry. The group's main research focus is iron containing metalloproteins, in particular, small molecule (N2, H2, O2 etc.) activating enzymes, such as nitrogenases, hydrogenases, and oxygenases. Various advanced spectroscopic methods are utilized to gain information regarding iron center changes, both geometric and electronic, during enzyme catalytic cycles. Spectroscopic studies are coupled with Density Functional Theory (DFT) calculations to establish structural models and further identify reaction mechanisms. The ultimate goal of our research is to impact favorably on alternative energy research and human health.
Yisong (Alex) Guo currently works at the Department of Chemistry, Carnegie Mellon University. Alex does research in the fields of Bioinorganic Chemistry, Spectroscopy, Chemical Kinetics and protein Biochemistry. The group's main research focus is iron containing metalloproteins, in particular, small molecule (N2, H2, O2 etc.) activating enzymes, such as nitrogenases, hydrogenases, and oxygenases. Various advanced spectroscopic methods are utilized to gain information regarding iron center changes, both geometric and electronic, during enzyme catalytic cycles. Spectroscopic studies are coupled with Density Functional Theory (DFT) calculations to establish structural models and further identify reaction mechanisms. The ultimate goal of our research is to impact favorably on alternative energy research and human health.
- Pittsburgh
- 7 Affordable and Clean Energy
Tags- Inorganic Chemistry
- Physical Chemistry (incl. Structural)
- Biochemistry and Cell Biology
- Quantum Chemistry
- Reaction Kinetics and Dynamics
- Enzymes
- Synchrotrons; Accelerators; Instruments and Techniques
- Associate Research Professor
- Physics
- Associate Research ProfessorPhysics
- Linthicum
- 3 Good Health and Well Being
Tags- Biochemistry and Cell Biology
- Chemical Engineering
- Atomic, Molecular, Nuclear, Particle and Plasma Physics
- Condensed Matter Physics
- Physical Chemistry (incl. Structural)
- Teaching Professor and Director of Undergraduate Studies, Mathematical Sciences
- Mathematical Sciences
- Teaching Professor and Director of Undergraduate Studies, Mathematical SciencesMathematical Sciences
- Pittsburgh
Tags- Numerical and Computational Mathematics
- Associate Professor with Tenure
- Physics
- Associate Professor with TenurePhysics
- Pittsburgh
- 7 Affordable and Clean Energy
Tags- Condensed Matter Physics
- Physical Chemistry (incl. Structural)
- Professor
- Mathematical Sciences
- ProfessorMathematical Sciences
- Pittsburgh
- Masters Research or PhD student supervision
Tags- Applied Mathematics
- Pure Mathematics
- Statistics
- Probability Theory
- Partial Differential Equations
- Research Professor
- Physics
- Research ProfessorPhysics
- Pittsburgh
- 7 Affordable and Clean Energy
Tags- Astronomical and Space Sciences
- Atomic, Molecular, Nuclear, Particle and Plasma Physics
- Quantum Physics
- Organic Chemistry
- Physical Chemistry (incl. Structural)
- Assistant Professor
- Biological Sciences
- Assistant ProfessorBiological Sciences
I received my B.S. in Mathematics with a minor in Biology from the Massachusetts Institute of Technology in 2010. There, I began my career as a computational biologist while doing research with Bonnie Berger. I next went to graduate school at Stanford University, where I received my Ph.D. in Computer Science in 2017. At Stanford, I worked in Hunter Fraser and Anshul Kundaje's labs to develop methods to analyze novel high-throughput sequencing datasets to better understand the roles of DNA methylation and Cys2-His2 zinc finger transcription factor binding in transcriptional regulation. I then worked as a Lane Postdoctoral Fellow in Andreas Pfenning's lab in the Computational Biology Department at Carnegie Mellon University, where I developed methods to identify regulatory elements whose regulatory activity differences between species are associated with the evolution of neurological phenotypes. After that, I worked as a research scientist in Charles Gersbach's lab in the Center for Advanced Genomics Technologies at Duke University, where I helped experimentally test the effects of manipulating a candidate myosin gene enhancer on myosin gene expression and cardiomyocyte development. I started my lab in Carnegie Mellon University's Departments of Biological Sciences and Computational Biology in August 2024.
I received my B.S. in Mathematics with a minor in Biology from the Massachusetts Institute of Technology in 2010. There, I began my career as a computational biologist while doing research with Bonnie Berger. I next went to graduate school at Stanford University, where I received my Ph.D. in Computer Science in 2017. At Stanford, I worked in Hunter Fraser and Anshul Kundaje's labs to develop methods to analyze novel high-throughput sequencing datasets to better understand the roles of DNA methylation and Cys2-His2 zinc finger transcription factor binding in transcriptional regulation. I then worked as a Lane Postdoctoral Fellow in Andreas Pfenning's lab in the Computational Biology Department at Carnegie Mellon University, where I developed methods to identify regulatory elements whose regulatory activity differences between species are associated with the evolution of neurological phenotypes. After that, I worked as a research scientist in Charles Gersbach's lab in the Center for Advanced Genomics Technologies at Duke University, where I helped experimentally test the effects of manipulating a candidate myosin gene enhancer on myosin gene expression and cardiomyocyte development. I started my lab in Carnegie Mellon University's Departments of Biological Sciences and Computational Biology in August 2024.
- Pittsburgh
- 3 Good Health and Well Being
- Collaborative projects
- Masters Research or PhD student supervision
- Career advice
- Join a web conference as a panellist or speaker
Tags- Genomics
- Molecular Evolution
- Bioinformatics
- Epigenetics (incl. Genome Methylation and Epigenomics)
- Gene Expression (incl. Microarray and other genome-wide approaches)