National Academy of Sciences
Jacqueline K. Barton - 2019 NAS Award in Chemical Sciences
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Kathryn J. Moore, Jean and David Blechman Professor of Cardiology, and Director, Cardiovascular Research Center, New York University Grossman School of Medicine
Human Skin Color as a Biocultural Adaptation, and More
Nina G. Jablonski, Evan Pugh University Professor of Anthropology, The Pennsylvania State University
Reimagining a World without Breast Cancer
Olufunmilayo (Funmi) I. Olopade, Walter L. Palmer Distinguished Service Professor of Medicine and Human Genetics, and Director, Center for Clinical Cancer Genetics & Global Health, The University of Chicago
Materials, Energy, Environment, And Life: Research At The National High Magnetic Field Laboratory
Gregory S. Boebinger, Professor of Physics, Florida State University and Director, National High Magnetic Field Laboratory
Active Transport and Self-Organization in Living Cells
Michael Shelley, Director, Center for Computational Biology, Flatiron Institute, and Lyttle Professor of Applied Math, Courant Institute, New York University
Something New, Something Old – Antibody Therapy at a Time of COVID
Arturo Casadevall, Bloomberg Distinguished Professor, Alfred and Jill Sommer Professor and Chair of Molecular Microbiology and Immunology, Johns Hopkins Bloomberg School of Public Health
The Stress Buffering Power of Parents (Until Adolescence)
Megan R. Gunnar, Regents Professor, Distinguished McKnight University Professor, and Distinguished Teaching Professor, Institute of Child Development, University of Minnesota
Biodiversity and Autonomous Pest Control in Agroecosystems
Ivette Perfecto, James E. Crowfoot Collegiate Professor of Environmental Justice, School for Environment and Sustainability, University of Michigan
Force, Direction and Persistence: How Cells Crawl
Julie A. Theriot, Professor, University of Washington; Investigator, Howard Hughes Medical Institute; Chief Scientific Advisor, Allen Institute for Cell Science
Analyses from Near (Meteorites) and Far (Spacecraft): Complementary Approaches to Planetary Exploration
Harry Y. McSween, Jr., Chancellor's Professor Emeritus, Department of Earth and Planetary Sciences, University of Tennesse
Gravity’s Fatal Attraction: Black Holes at the Centers of Galaxies
Chung-Pei Ma, Judy Chandler Webb Professor in Physical Sciences, University of California at Berkeley
Human Microbiome: Finding Friends Amongst the Foes
Julie Segre, Senior Investigator, National Human Genome Research Institute, National Institutes of Health
Over his career, Bryan’s work has aimed to improve our understanding of ocean sciences. His work established the foundations for numerical modeling in ocean and climate science, providing insights into how the ocean works, focusing particular attention on the ocean’s role in the earth climate system and its anthropogenically induced changes.
Bryan’s research, through his own contributions and those of his students and collaborators, has enormously influenced ocean and climate scientists worldwide.
Mitrovica’s research explores the structure, dynamics, and evolution of the Earth system through a combination of advanced theoretical work, numerical modeling, and data analysis.
He has developed models to better predict changes in sea level in response to glacial melting, with particular emphasis on critical events in ice age climate and on the sea-level fingerprints of modern polar ice sheet collapse. His work covers a range of topics including the connection of mantle convective flow to the geological record, the rotational stability of the Earth and other terrestrial planets, and ice age geodynamics.
Mitrovica is not only a renowned lecturer and public speaker, but also serves as a mentor and inspiration for the next generation of critical thinkers.
By developing new instrumentation and missions, taking measurements with novel techniques and of previously unexplored regions of the solar system, and innovatively analyzing and publishing these observations, McComas has made numerous and wide-ranging discoveries that have significantly advanced our knowledge and understanding of the global structure and evolution of the solar wind and revolutionized our understanding of its interaction with the local interstellar medium (LISM).
He has led or leads the TWINS, IBEX, and IMAP NASA missions as well as space instruments for numerous other missions including the Parker Solar Probe, the ACE composition explorer, the New Horizons mission to Pluto, Juno to Jupiter, and Cassini to Saturn.
McComas’ contributions include a deep commitment to international collaboration and dedication to mentoring and training the next generation of space physics explorers.
Fusing ideas from different scientific disciplines and industry, Hess’s work ranges from developing novel new forms of microscopy to refining existing microscopy technologies for the purpose of revealing new physical or biological attributes. Early in his career, Hess conceived, developed, and demonstrated forced evaporative cooling in magnetic traps, a technique later used by others to achieve Bose-Einstein condensation of atomic gases. Switching fields he developed various forms of low temperature scan probe microscopy, which enabled imaging of vortices in superconductors, electrons, and electronics states, as well as quanta of luminescence in semiconductors. The latter presented foundational observations that, in part, inspired photo-activated localization microscopy, or PALM a decade later.
Hess advanced electron microscopy by innovating from his experience in the semiconductor and hard disk drive industry of high throughput inspection, and by applying it to biology. This enabled much larger 3D volumes of tissue to be imaged such as whole cells, extended neurons and even brain circuitry with enhancements to Focused Ion Beam Scanning Electron Microscope. He also created an interferometric version of super-resolution optical microscopy called IPALM to bring optical resolution to the level approaching that of electron microscopy.
Hess’s prolific and impactful career has influenced and created new technologies that both the physics and biology community have adopted and continue to apply to advance scientific understanding.
Vidick’s research is at the interface of theoretical computer science, quantum information and cryptography. His work has led to the proof that the class of languages in which membership may be established by quantum multiprover interactive proof systems is equal to the class of recursively enumerable languages.
His contributions to quantum cryptography include the first proof of security of device-independent quantum key distribution. Vidick is also known for developing the first polynomial-time algorithm for computing ground states of gapped one-dimensional quantum spin systems.
Zeng’s groundbreaking contributions have led to a better understanding of neuronal diversity and neural circuits. Her research includes the development of transgenic mouse lines for marking and manipulating specific neuronal types; analysis of connectivity among brain areas with particular emphasis on connections between thalamus and cortex; and the use of single cell molecular methods to classify and characterize neurons and non-neuronal cells in cortex and other parts of the brain.
Zeng is the Director of the Allen Institute for Brain Science where she leads the creation of large-scale, open-access datasets and tools instrumental to accelerating neuroscience discovery. She has organized and led multidisciplinary teams to build the Allen Mouse Brain Connectivity Atlas, the Common Coordinate Framework (CCF), and the transcriptomic and multimodal cell type taxonomy, which have been widely held as high-quality standards in the field.
Monje and her team investigate the role of neuronal activity over the control of both physiological and pathological processes of brain development, maturation, and oncogenesis, with particular focus on both the origins of pediatric brain tumors and the consequences of cancer treatment. Her groundbreaking findings showed that neuronal activity promotes adaptive myelination important for cognition and that neuronal activity drives malignant glioma progression through neuron-to-glioma synapses and paracrine factors.
As both a physician and researcher, Monje plays an active role in bringing her findings into clinical settings. In collaboration with other labs, she identified a molecule on the surface of gliomas to target with CAR T-cell therapy, resulting in the virtual elimination of the tumors in mice. She is currently leading clinical trials for these and other treatment methods.
Her work has focused on the evolution and biology of intimate symbiosis between insect hosts and bacteria. Combining methods from molecular biology, genomics, experimental biology and evolutionary theory, Moran has demonstrated the evolutionary origins of symbioses, their ubiquity in the organismal world, and the consequences of intimate symbiosis in the evolution and ecology of symbionts and hosts.
Moran and her research group have also characterized the distinctive gut communities in honeybees, providing a new and useful model system for understanding more complex communities of microbes that impact organismal health.
Buschman’s research combines cutting-edge experimental and theoretical approaches to provide a deeper understanding of how cognition arises from the dynamic interactions of populations of neurons.
He has provided unique insight into the neural and computational mechanisms that are of central importance to cognitive psychology models of working memory, attention, and goal-directed behavior. In parallel to this work, Buschman and his research team are also making pioneering discoveries about principles of neural coding that underlie high-level cognition.
Her research examines changes in brain systems that support motivated learning and memory, unveiling developmental shifts in the cognitive computations that underlie adaptive, goal-directed behavior.
Hartley’s groundbreaking research has looked at how neurodevelopmental changes bias which learning systems govern decisions. She has also conducted impactful research exploring how we learn about threats and control threat reactions. These lines of research have important implications for educational practices, understanding both adolescent risk-taking and the developmental emergence of psychopathology.
Zhou’s work examines animal and poultry genomes to better elucidate genetic disease resistance to bacterial and viral infections such as avian influenza, Newcastle disease, and Salmonella. His discoveries have generated critical insights into genetic mechanisms associated with increased productivity and resilience to heat stress and disease in livestock and informed genetic improvement in poultry to address food insecurity in low- and middle-income countries.
Zhou is the Program Director of USAID-sponsored project Feed the Future Innovation Lab for Genomics to Improve Poultry, serving as a mentor for next-generation scientists in areas of need in the U.S. and developing countries.
Matyjaszewski is globally recognized for his atom transfer radical polymerization (ATRP) technique, which can be used to form polymers via radical mechanisms with unprecedented control of molecular weight and molecular architecture. Matyjaszewski and his group continue to innovate and develop new technologies through research on controlled radical polymerization, bioconjugates, hybrid materials, and catalysis.
Throughout his career, Matyjaszewski has also served as a scientific leader and inspiration to others as a mentor, author, and inventor.
McLellan pioneered the use of atomic-resolution structures to guide design of effective vaccines. These structural studies of proteins from human viral pathogens illuminate infection mechanisms while directly informing design of vaccines and therapeutics. His work has been instrumental to the development of successful vaccines against respiratory syncytial virus (RSV) and SARS-CoV-2 and are playing a key role in the development of vaccines and therapeutics targeting an array of additional pathogens.
Timken has been instrumental in leading the development and commercialization of Chevron’s ionic liquid-based ISOALKYTM Technology, which can be used by hundreds of oil refineries worldwide to improve process safety and reduce environmental impacts of fuel production. This technology has substantially decreased risks associated with gasoline production while providing more efficient conversion of petroleum to fuels.
Shokat, a professor at both the University of California, San Francisco, and the University of California, Berkeley, and a Howard Hughes Medical Institute Investigator, has established an innovative and productive interdisciplinary research program that has produced an array of powerful chemical methods for studying cell biology. Early in his career, Shokat developed orthogonal kinase-substrate pairs, powerfully demonstrating how useful chemogenetic tools could be in dissecting complex signaling pathways in vivo.
Shokat’s recent discovery of inhibitors targeted to the commonly mutated cancer oncogene, K-Ras, has led to the discovery of the first drugs against a target previously considered undruggable. This breakthrough has led to a revolutionary new approach to cancer treatment that is already having a major medical impact.
Coates has made contributions to important new high-performance materials including the design of new polymeric materials for safe and practical energy conversion and storage applications. He continues to innovate with his most recent work on the development a novel multiblock polymer that could revolutionize the recycling of plastic waste.
In this Day Prize Lecture, Dr. Lindy Elkins-Tanton will explain how the NASA mission came to be, who is working on her team, and how far they've come in building this spacecraft and preparing to launch in 2023.
Lindy Elkins-Tanton, recipient of the 2020 Arthur L. Day Prize and Lectureship, is the lead of the NASA Psyche mission, Arizona State University Vice President of the Interplanetary Initiative, and co-founder of Beagle Learning, a tech company training and measuring collaborative problem-solving and critical thinking.
00:00 Wolfgang Baumeister, Alexander Hollaender Award in Biophysics
02:43 Mahzarin Rustum Banaji, Atkinson Prize in Psychological and Cognitive Sciences
6:27 Dan Jurafsky, Atkinson Prize in Psychological and Cognitive Sciences
8:41 Samuel Harvey Moseley, Jr., James Craig Watson Medal
10:51 John A. Rogers, James Prize in Science and Technology Integration
12:33 Drew Weissman and 14:50 Katalin Karikó, jointly received the Jessie Stevenson Kovalenko Medal
16:57 Barney S. Graham, John J. Carty Award for the Advancement of Science
19:14. Camillo De Lellis, Maryam Mirzakhani Prize in Mathematics
20:03 Amit Sahai, Michael and Sheila Held Prize
22:20. Esther S. Takeuchi, NAS Award in Chemical Sciences
24:30 Mary L. Droser, NAS Award in Early Earth and Life Sciences - Charles Doolittle Walcott Medal
26:54 Carrie Partch, NAS Award in Molecular Biology
29:04 Nancy Kanwisher, NAS Award in the Neurosciences
31:08. David Lobell, NAS Prize in Food and Agriculture Sciences
32:42 Edward Chang, Pradel Research Award
34:50 Leah Somerville, Troland Research Award
Watch the full NAS159 awards ceremony: youtu.be/PGAwa32NKgs
Learn more about NAS awards: http://www.nasonline.org/programs/awards/2023.html
Giulia Galli, Liew Family Professor of Electronic Structure and Simulations, Pritzker School of Molecular Engineering, The University of Chicago and Argonne National Laboratory
Materials are enablers of innovation and have brought about revolutionary changes to society: familiar examples are silicon used in transistors and metal oxides in batteries, devices that have become omnipresent in our daily lives. In this talk we explore how the fundamental understanding of the way atoms interact in materials leads to predicting forms of matter that enable next generation technologies. We achieve such insights by combining quantum mechanics, high performance computers and an ever-growing amount of data. Two outstanding challenges have recently inspired my work: the design of cheap and easily fabricated materials that efficiently capture solar energy, and the discovery of radically novel sensors and computers to swiftly move into the quantum information age. Elected in 2020, Galli represents the Academy’s section on Applied Physical Sciences.
Paula T. Hammond, Institute Professor and Department Head, Chemical Engineering, Massachusetts Institute of Technology
Electrostatically charged macromolecules -- polyelectrolytes -- are particularly interesting for drug delivery and biomedical imaging because their ionic nature enables water solubility for stealth properties in the blood stream, and charge behavior that guides their surface interactions with certain cells and tissues. Along with surface charge, hydrogen bonding and hydrophobic interactions can lead to nanoparticles that bind with strong affinity for certain target tissues. Polyelectrolyte nanolayers that have specificity for ovarian tumor cell types can aid in transforming a ‘cold’ immune environment to an active one for immunotherapy, and a macromolecular carrier can be designed to present positive charge in combination with charge shielding groups to yield nanocarriers capable of ‘sticky’ transport deep within cartilage for sustained treatment of osteoarthritis. Elected in 2019, Hammond represents the Academy's section on Engineering Sciences.
Ana Maria Cuervo, Professor of Developmental and Molecular Biology, co-director of the Institute for Aging Research, Albert Einstein College of Medicine
Advances in our understanding of the drivers of aging has revealed intracellular quality control as a central protective mechanism against the loss of function and increase vulnerability to disease associated with aging. Cuervo investigates autophagy, a cellular process responsible for removal and recycling of any damage or non-functional cellular component. Cuervo discusses how failure of autophagy with age is on the basis of severe age-related diseases, such as neurodegenerative disorders and metabolic conditions of aging. Lastly, she comments on the gerotherapeutic potential of targeting autophagy in these conditions. Elected in 2019, Cuervo represents the Academy's section on Medical Physiology and Metabolism.
Pamela C. Ronald, Distinguished Professor, Department of Plant Pathology and the Genome Center, University of California, Davis
A major goal for food and agricultural research is to increase the resiliency of agricultural systems in the face of climate change. Ronald will describe how genetic approaches are being used to generate the next generation of rice crops that can tolerate environmental stress and resist disease. These approaches are helping farmers thrive in challenging conditions. Elected in 2019, Ronald represents the Academy's section on Plant, Soil, and Microbial Sciences.
Suzanne Staggs, Henry deWolf Smyth Professor of Physics, Princeton University
Measurements of its remnant radiation reveal a surprisingly simple picture of the primordial universe when it was a few hundred thousand years old. Cosmologists have used them to define a cosmological model that describes the large scale properties of the universe and their evolution over time. By extrapolating the model forward a few billion years, its predictions for the present-day universe can be compared to more local astrophysical measurements to see if it breaks. Staggs will describe some recent advances, in the context of her work building instruments to measure the so-called cosmic microwave background radiation. Elected in 2020, Staggs represents the Academy's section on Physics.
Adrian R. Krainer, St. Giles Foundation Professor, Cold Spring Harbor Laboratory
Messenger RNA (mRNA) is now a commonplace term, thanks to the wide deployment of Covid vaccines. mRNA-vaccine development involves enzymatic synthesis of mRNA in a test tube. In contrast, natural mRNA is produced in the cell’s nucleus as a precursor that then undergoes several editing steps. One such step is RNA splicing, which involves cutting and pasting to remove non-coding segments, before each mature mRNA is exported to the cytoplasm to serve as a template for the synthesis of a protein. Krainer discusses how short synthetic nucleic acids, called antisense oligonucleotides, can be designed to modulate the RNA-splicing process to make effective drugs. Elected in 2020, Krainer represents the Academy's section on Biochemistry.
June will share the discovery of CAR T cells, a promising new form of therapy of cancer that offers the prospect of curing cancer using the immune system. The notion of using the immune system to fight cancer is an old idea. Over a century ago bacteria were ground up and injected into patients with late-stage cancers. However, we now have precise tools like CRISPR/Cas9 to rewrite the DNA code, offering the possibility to improve the immune system over what has evolved in a Darwinian fashion. June will discuss the promises and challenges faced by the evolving CAR T cell industry. Elected in 2020, June represents the Academy's section on Immunology and Inflammation.
Harmit S. Malik, HHMI Investigator; Professor, Division of Basic Sciences, Fred Hutchinson Cancer Research Center
Harmit Malik studies the causes and consequences of genetic conflicts that take place between different genomes (e.g., host-virus interactions) or between components of the same genome (e.g., chromosomal competition at centromeric regions). He is interested in understanding these "molecular arms races" and how they drive recurrent genetic innovation, from the perspective of both evolutionary biology and human disease. His host-virus studies have led to evolution-guided approaches to study and augment antiviral responses, and reveal an ancient history of viruses and virus-driven innovation (‘paleovirology’). His chromosomal studies reveal how competitions during meiosis may drive the evolution of genomes and even the origin of species. Elected in 2019, Malik represents the Academy's section on Genetics.
Bryna R. Kra, Sarah Rebecca Roland Professor of Mathematics, Northwestern University
A fundamental question in mathematics is when objects have rigid structure and when they are completely disordered. Kra studies this question in the context of dynamical systems, describing invariants that characterize long term changes in a system. While these results describe the evolution of mathematical systems, Kra uses them to show the existence of structures in seemingly static problems and proves that certain infinite patterns exist in any sufficiently large subset of integers. Elected in 2019, Kra represents the Academy's section on Mathematics.
Marilyn A. Brown, Regents Professor and Director, Climate and Energy Policy Lab, School of Public Policy, Georgia Institute of Technology
Avoiding costly climate change necessitates actions at every political scale and across all sectors of the economy. The climate countdown has begun, but progress is slow. One reason is that we lack localized roadmaps that provide people at all scales of society a set of solutions that they can enthusiastically support. The research underpinning the “Drawdown Georgia” project illustrates how robust place-specific plans for climate action can be derived from foundational global and national work. Its replicable methodology advances the science of carbon abatement by incorporating solution interdependencies, by spanning both carbon sources and sinks, and by emphasizing beyond-carbon societal costs and benefits. By focusing on the 2030 timeframe, Drawdown Georgia highlights pathways for immediate action that can help put jurisdictions and states on a road toward net-zero emissions by mid-century. While the specifics of this research are unique to Georgia, our approach is generalizable. It can easily be replicated around the world, because solutions happen locally and they scale in real life against the backdrop of day-to-day issues that matter to people and communities. Elected in 2020, Brown represents the Academy's section on Human Environmental Sciences.
Robert B. Cialdini, Regents' Professor Emeritus, Departments of Psychology and of Marketing, Arizona State University
Social norms are remarkably powerful in directing human action. Communications that use social norms-based appeals for environmental action have proven significantly more persuasive than those that use traditional appeals. But, this motivating power is often used incorrectly or even counterproductively. Cialdini explains how to avoid THE BIG MISTAKE of social norms messaging and how, instead, to maximize its positive impact. Elected in 2019, Cialdini represents the Academy's section on Psychological and Cognitive Sciences.
Anna K. (Kay) Behrensmeyer, Research Curator and Senior Scientist, National Museum of Natural History, Smithsonian Institution
Nearly all organisms that have ever lived were recycled into new life rather than becoming fossilized. Although fossils provide fascinating windows into the history of life on Earth, what we see through these windows depends on ecological, chemical, and geological processes that controlled destruction versus preservation of organic remains. Taphonomy is the study of these processes and the special conditions that allow some remains to be preserved, helping us to decode the limited samples in the fossil record. In human evolution, taphonomy provides evidence for how our ancestors lived and died, what they ate, and how their ecological roles changed over millions of years. In paleontology, taphonomy allows more accurate understanding of evolution, extinction, and ecology through earth history and is even contributing to the search for life on Mars. Elected in 2020, Behrensmeyer represents the Academy's section on Anthropology.


