Seminar

Patten Seminar Series: Pierre-Thomas Brun, April 25

Anonymous — Sun, 19 Mar 2023 15:46:18 +0000

Patten Seminar Series: Pierre-Thomas Brun, April 25 Anonymous (not verified) Sun, 03/19/2023 - 09:46

Building with Fluids: A Lazy Approach to Fabrication

Speaker: Pierre-Thomas Brun, assistant professor, chemical and biological engineering, Princeton University

Tuesday, April 25, 2023 — 2:45 p.m., JSCBB A108

Abstract
In nature, organized arrays of elements arise spontaneously from the interactions between their component parts, e.g. reaction-diffusion problems, clustering colloidal particles and granular media, wrinkling surfaces, propagating cracks and flowing liquids. In the wake of biomimicry, I will discuss several strategies aiming to harness mechanical instabilities in flowing liquids, e.g. coiling, droplet formation, digitation, drainage, capillary suction, and use the regular shapes and universally self-organized patterns they naturally produce as templates for materials design. These flows are "frozen" as the liquids we use solidify into solids, e.g., through curing, cooling or evaporation. The shapes and patterns they form are universal and transcend the traditional divisions between scientific fields or even between living and inert matter. I will show that these similarities result from the mathematical analogies in the rules that govern pattern formation. In turn, I will demonstrate how to compose with these rules to augment our manufacturing capabilities, e.g. in soft robotics.

Biosketch
PT Brun received his bachelor’s degree in mechanical engineering from Ecole Polytechnique in 2008 and his master’s degree in advanced chemical engineering from the University of Cambridge in 2009. He then received his PhD in mechanical engineering from Sorbonne University in 2012 for work on the dynamics and instability of viscous and elastic threads. Brun was a postdoctoral fellow at EPFL, specializing in interfacial fluid mechanics and instabilities. In 2014, he joined MIT as an instructor in applied mathematics before moving to Princeton, where he has been a faculty member in the department of chemical and biological engineering since 2017. Brun is the recipient of the 2020 NSF CAREER Award and the 2023 APS Early Career Award in soft matter research. His curiosity-driven research combines experimental investigations and the quantitative modeling of fluid and elastic processes in soft materials. He is best known for his work on interfacial flows and pattern-forming instabilities in the context of solidifying liquids and his studies on elastic rods and morphing materials. While the epicenter of his work is fundamental, his research naturally connects to critical societal challenges, e.g., developing new manufacturing paradigms and facilitating the distribution of soft robots into our daily lives.

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Patten Seminar Series: Aditya Khair, Nov. 29

Anonymous — Mon, 12 Sep 2022 17:22:35 +0000

Patten Seminar Series: Aditya Khair, Nov. 29 Anonymous (not verified) Mon, 09/12/2022 - 11:22

Seminar: Nonlinear Electrophoresis of Colloidal Particles

Speaker: Aditya Khair, Professor of Chemical Engineering, Carnegie Mellon University

Host: Ankur Gupta

Seminar Abstract
The past decade has witnessed a surge of interest in nonlinear electrophoresis of charged colloidal particles in aqueous electrolytes. Here, the word "nonlinear" refers to the fact that the ratio of the electrophoretic speed of the particle to the magnitude of the applied electric field—the electrophoretic mobility—is not independent of field strength. This is in stark contrast to the vast majority of work on (linear) colloidal electrophoresis over the last century, where the mobility is assumed to be a material property dependent only on the particle-electrolyte combination. In this talk, Khair will first review various experimental measurements of the field-dependent mobility. He will then discuss theoretical approaches to predicting the nonlinear mobility, including asymptotic schemes in the common thin-Debye-layer limit and our own recent computations via direct numerical simulation of the full electrokinetic equations. Khair will conclude with suggestions for future work in this evolving area of colloid science.

Biosketch
Aditya Khair is a professor of chemical engineering at Carnegie Mellon University (CMU). He obtained an MEng in chemical engineering from Imperial College London in 2001. He received a certificate of advanced study in mathematics from the University of Cambridge in 2002. Later that year, he began a PhD in chemical engineering at the California Institute of Technology, under the supervision of John Brady. In 2007 he began a postdoc at UC Santa Barbara, working with Todd Squires. In 2010 he joined CMU. Khair's research utilizes applied mathematical techniques to investigate problems in fluid mechanics, rheology, colloid science, electrokinetics and electrochemistry. His work has been recognized by the AES Electrophoresis Society Mid-Career Award; Metzner Early Career Award from the Society of Rheology; the Camille Dreyfus Teacher-Scholar Award; the NSF CAREER Award; the Charles Kaufmann Foundation New Investigator Research Grant; and the Frenkiel Award of the APS Division of Fluid Dynamics.

If you go

Who: Everyone welcome

What: Aditya Khair, Professor of Chemical Engineering, Carnegie Mellon University; Patten Seminar Series

When: Nov. 29, 2022, 2:45- 3:45 p.m

Where: JSCBB A108

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Aditya Khair, professor of chemical engineering at Carnegie Mellon University will speak about "Nonlinear Electrophoresis of Colloidal Particles" on Nov. 29 as part of the department's Patten Seminar Series.

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Patten Seminar Series: Nick Carroll, Sept. 27

Anonymous — Mon, 15 Aug 2022 17:06:02 +0000

Patten Seminar Series: Nick Carroll, Sept. 27 Anonymous (not verified) Mon, 08/15/2022 - 11:06

Seminar: Programming Liquid-Liquid Phase Separation of Intrinsically Disordered Protein-Nucleic Acid Polymer Solutions

Speaker: Nick J. Carroll, assistant professor of chemical and biological engineering, University of New Mexico

Host: Wyatt Shields

Seminar Abstract
Aqueous multi-phase systems comprising immiscible biopolymer solutions are ubiquitous in biological cells. However, the structure-to-function relationship and the physics describing the behavior of these polymer systems are, in general, not well understood. For example, almost all proteins have a specific three-dimensional structure that maintains its specific activity in the cell. One class of phase separating proteins, which has flown under the radar for decades, do not. They are referred to as intrinsically disordered proteins (IDPs). Their role in the cell appears to be to spontaneously associate with other proteins and nucleic acids in phase separated compartments called ‘membraneless organelles’ to activate them collectively. This is an important function to include in the design of a synthetic cell and for integration with cellular regulatory systems.

Our work explores how we can leverage polymer physics combined with the blueprint provided by the cell to engineer synthetic membraneless organelles comprising phase separated protein/DNA/RNA components in microdroplets. Our experimental results characterizing the morphology and composition of these liquids are interpreted by simple mean field Flory-Huggins equilibrium thermodynamics combined with formalisms describing the dynamics of phase separation via Cahn-Hilliard and Lattice Boltzmann theories. Potential broader impacts of this work include understanding how these interactions affect the regulation of gene expression and cell metabolism, understanding how dysfunctional interactions are linked to neurodegenerative disorders, and the design of synthetic cellular systems to create membraneless organelles to control a variety of biological processes at the molecular level.

If you go

Who: Everyone welcome

What: Nick Carroll, Assistant Professor of Chemical and Biological Engineering, University of New Mexico; Patten Seminar Series

When: Sept. 27, 2022, 2:45- 3:45 p.m

Where: JSCBB A108

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Questions about this seminar

Biosketch
Nick Carroll received his BS and PhD in chemical engineering from the University of New Mexico. After his postdoctoral research at Harvard (applied physics) and Duke (biomedical engineering) universities, he took a position as an assistant professor of chemical and biological engineering at UNM in 2016. His research mainly focuses on liquid phase separation of intrinsically disordered proteins that bind nucleic acids to create condensed phase assemblies that recapitulate the structure and environmental responsiveness of membraneless organelles in living cells. In 2021, he received the NSF CAREER award, was selected as part of the 2021 Class of Influential Researchers by the American Chemical Society journal, Industrial & Engineering Chemistry Research (I&EC). Carroll has received $3.2 million in research dollars from NSF and DOE funding agencies.

Dr. Nick Carroll joins us from the University of New Mexico. His research focuses on liquid phase separation of intrinsically disordered proteins that bind nucleic acids to create condensed phase assemblies that recapitulate the structure and environmental responsiveness of membraneless organelles in living cells.

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Patten Seminar Series: Katrina Knauer, Oct. 11

Anonymous — Tue, 02 Aug 2022 01:10:00 +0000

Patten Seminar Series: Katrina Knauer, Oct. 11 Anonymous (not verified) Mon, 08/01/2022 - 19:10

Seminar: Plastic Deconstruction, Upcycling, and Redesign in the BOTTLE Consortium

Speaker: Katrina Knauer, CTO of the BOTTLE Consortium,
National Renewable Energy Laboratory (NREL)

Host: Tim White

Seminar Abstract
The plastic pollution crisis is also an energy crisis with an estimated 20 percent of fossil fuel consumption going towards plastic production by the year 2050. Current polymerization processes do not offer much potential for efficiency improvements and energy demand reduction. Additionally, only mechanical recycling is employed at scale, which has limited life cycles due to contamination and degradation of the polymer. Thus, the most promising decarbonization options for the U.S. plastic industry involve system-wide changes and the integration of a bio-/waste-based supply chain with a plastic-to-plastic circular economy loop based on innovative recycling techniques to recover the plastic waste. The Bio-Optimized Technologies to keep Thermoplastics out of Landfills and the Environment (BOTTLE™) Consortium is a U.S. Department of Energy multi-organization research consortium focused on developing new chemical upcycling strategies for today's plastics and redesigning tomorrow's plastics to be recyclable-by-design (RBD). This talk will highlight flagship BOTTLE technologies in low-energy plastic deconstruction, upcycling strategies for the waste intermediates, and promising RBD polymers that may challenge the current plastic industry.

Biosketch
Kat Knauer is a polymer scientist who has dedicated her scientific career to solving the plastic waste problem. She has a PhD in polymer science and engineering from the University of Southern Mississippi and completed the BASF PhD Leadership Development Program (LDP) in 2018 before taking a senior scientist role in BASF’s plastics division. Her research efforts focused on advanced recycling technologies which ultimately led her to leading materials innovation R&D at Novoloop (formerly BioCellection), a San Francisco Bay area chemical recycling startup. Recently, Knauer joined the National Renewable Energy Laboratory (NREL) as the chief technology officer of the Bio-Optimized Technologies to keep Thermoplastics out of Landfills and the Environment (BOTTLE) Consortium where she is developing sustainable technologies to chemically upcycle today’s existing plastic waste streams and develop new plastics for the future that are inherently recyclable by design.

If you go

Who: Everyone welcome

What: Katrina Knauer, CTO of the BOTTLE Consortium, National Renewable Energy Laboratory (NREL); Patten Seminar Series

When: Oct. 11, 2022, 2:45- 3:45 p.m

Where: JSCBB A108

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Patten Seminar Series: Enrique Iglesia, Oct. 4

Anonymous — Mon, 01 Aug 2022 22:21:47 +0000

Patten Seminar Series: Enrique Iglesia, Oct. 4 Anonymous (not verified) Mon, 08/01/2022 - 16:21

ChBE Patten Distinguished Lecturer
Seminar: Binding Sites and their Environment in Surface Catalysis

Speaker: Enrique Iglesia, Distinguished Professor and Theodore Vermeulen Chair in Chemical Engineering, University of California, Berkeley; Laboratory Fellow – Pacific Northwest National Laboratory

Host: Will Medlin

Seminar Abstract
The properties of molecular species that act as intermediates and transition states and of the surface sites that bind them act in concert to select reaction channels in chemical transformations mediated by surfaces. In acid-base and oxidation catalysis on oxides, theory and experiments have uncovered unprecedented details about site requirements and mechanisms, at the level of local architectures and elementary steps, respectively. On acids, the deprotonation energy of a solid and the proton affinity of the relevant analogs of transition states determine reactivity and selectivity, because such chemistries involve proton transfer and ion-pairs at transition states. Oxidation cycles on redox-active oxides occur via elementary steps reduce metal centers via H-abstraction from C-H bonds in reactants. The relevant transition states involve bound di-radical pairs with O-H and C-H bonds that are nearly formed and cleaved, respectively, thus making the energies of H-binding at surface O-atoms and of C-H homolysis the relevant surface and molecular descriptors of oxidation reactivity. In both types of reactions, more accurate descriptions, however, require assessments of how molecular species and sites interact and delocalize electron density in stabilizing intermediates and transition states, specifically ion-pairs and di-radicals in acid and oxidation catalysis, respectively. The environments that surround the active sites complement their binding properties through solvation effects that can stabilize specific bound intermediates and transition states through weak concerted van der Waals or H-bonding interactions. Such stabilization is particularly evident when sites reside within inorganic voids of molecular dimensions or exist in contact with dense phases, such as liquids or dense adlayers. These inner and outer sphere effects on reactivity and the fidelity brought forth by solids with well-defined atomic architectures are bringing us closer to the purposeful design of catalytic surfaces.

If you go

Who: Everyone welcome

What: Enrique Iglesia, Distinguished Professor and Theodore Vermeulen Chair in Chemical Engineering, University of California, Berkeley; Patten Seminar Series

When: Oct. 4, 2022, 2:45- 3:45 p.m

Where: JSCBB A108

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Biosketch
Enrique Iglesia is a distinguished professor and the Theodore Vermeulen Chair in Chemical Engineering at the University of California, Berkeley and a laboratory fellow at Pacific Northwest National Laboratory. He holds degrees from Princeton and Stanford and doctor honoris causa from the Universidad Politecnica de Valencia and the Technical University of Munich His research addresses the synthesis and the structural and functional characterization of porous inorganic solids as catalysts that enable the efficient production and use of energy carriers and chemicals and the mitigation of their environmental footprint. He is a member of the National Academy of Engineering, the American Academy of Arts and Sciences, the National Academy of Inventors and the Real Academia de Ciencias (Spain). His research has been recognized by the American Chemical Society (ACS) with the Olah, Somorjai, and Murphree awards, by the American Institute of Chemical Engineering (AIChE) with the Wilhelm, Alpha Chi Sigma, and Walker awards, and by chemical and catalysis societies in North America and Europe with the Emmett, Burwell, Boudart and Distinguished Service awards, as well as the Francois Gault and Cross Canada lectureships. He is the recipient of the ENI Energy Prize, the Kozo Tanabe Prize in Acid-Base Catalysis and the International Natural Gas Conversion Award. He has served as editor-in-chief of Journal of Catalysis and as president of the North American Catalysis Society. He is a fellow of ACS, AIChE and the Royal Society of Chemistry and an honorary fellow of the Chinese Chemical Society. His dedication to teaching has been recognized by several campus awards, including the Noyce Prize, the highest teaching award in the sciences at Berkeley.

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Patten Seminar Series Announcement: Taylor H. Ware

Anonymous — Mon, 24 Jan 2022 20:35:07 +0000

Patten Seminar Series Announcement: Taylor H. Ware Anonymous (not verified) Mon, 01/24/2022 - 13:35

Seminar: Shape-Morphing Elastomers and Engineered Living Composites

Speaker: Taylor H. Ware, Associate Professor, Biomedical Engineering, Materials Science, and Engineering
Texas A&M University

Host: Tim White

Tuesday, April 19, 2022 - 2:45 p.m
JSCBB A108

Seminar Abstract

Stimuli-responsive polymers respond to their environment without requiring motors, sensors, or power supplies. These materials can replace the functions of traditional machines in conditions or at scales, such as in the human body, where traditional actuators, electronics, and batteries are difficult to employ. Here, two orthogonal strategies, one non-living and one living, to create materials that respond in a complex manner to specific environmental conditions, such as exposure to light, will be discussed. First, we will discuss controlling molecular orientation, and therefore the stimulus-response, in liquid crystal elastomers. Using processing techniques, such as 3D printing, and materials formulation strategies, shape change, geometry, and activation temperature can be precisely controlled. We will discuss the potential applications of these materials as reconfigurable structures and as artificial muscles. We will also discuss the harnessing entanglement of many shape changing polymer structures to create 3D objects that self-assemble and then disperse on command. Notably, the stimulus-response of these and many other smart materials is derived wholly from physical properties, and as a result, these materials require powerful stimuli, such as heat, to induce shape change. By comparison, the stimulus-response of living organisms can be triggered by weak physical stimuli or specific biochemicals. To bridge the gap between living cells and engineered materials, we will discuss fabricating living Baker’s yeast –hydrogel composites capable of undergoing programmed shape change. As the cells are higher modulus (~100×) than the gel, cell proliferation results in a macroscopic shape change of the composite. Importantly, genetic manipulation of the yeast enables the stimulus that induces shape change to be controlled. For example, we will discuss composites where volume change on exposure to a single biochemical (L-histidine) is 14× higher than volume change when exposed to highly similar biochemicals (D-histidine and other amino acids). These living composites may enable new strategies for medical devices like autonomous drug-delivery systems.

Biosketch

Taylor Ware is an Associate Professor in Biomedical Engineering and Materials Science and Engineering at Texas A&M University. Prior to joining TAMU in August 2020, he graduated summa cum laude with his B.S. from the Georgia Institute of Technology (2009) and with his Ph.D. from the University of Texas at Dallas (2013) in Materials Science and Engineering. Taylor completed postdoctoral training at the Materials and Manufacturing Directorate at the Air Force Research Laboratory. Dr. Ware was an Assistant Professor from 2015-2020 at the University of Texas at Dallas. His research interests include biomaterials, liquid crystal materials, flexible electronics, and the interfacing of these technologies in medical devices. Dr. Ware was a recipient of the National Science Foundation Graduate Research Fellowship (2011), the Air Force Young Investigator Award (2017), the NSF CAREER award (2018), and the NIH Trailblazer Award (2019).

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Patten Seminar Series Announcement: Dionisios Vlachos

Anonymous — Fri, 14 Jan 2022 22:12:41 +0000

Patten Seminar Series Announcement: Dionisios Vlachos Anonymous (not verified) Fri, 01/14/2022 - 15:12

Seminar: Catalytic Upcycling Technologies for Sustainability and Circular Economy

Speaker: Dionisios Vlachos, Unidel Dan Rich Energy Chaired Professor of Chemical and Biomolecular Engineering, University of Delaware

Host: Will Medlin

Tuesday, April 12, 2022 - 2:45 p.m
JSCBB A108

Seminar Abstract

Climate change demands a paradigm change in the chemical industry and waste stream valorization. Biomass provides a means to renewable products with potentially enhanced performance over current products. We report the production of bio lubricant base oils from lignocellulosic biomass. Next, we discuss plastics upcycling. Single-use plastics impose an enormous environmental threat, but recycling, especially of polyolefins, has proven challenging. We report a direct method to selectively convert various polyolefins, including virgin materials, layered materials, and everyday plastics, to branched, liquid fuels including diesel, jet, and gasoline-range hydrocarbons, with high yields and at low temperatures in the melt. We discuss new mechanisms by which polyolefins depolymerize.

Biosketch

Dionisios (Dion) G. Vlachos is the Unidel Dan Rich Energy Chaired Professor of Chemical and Biomolecular Engineering, a Professor of Physics at the University of Delaware, and the Director of the University of Delaware Energy Institute (DEI) and of the Catalysis Center for Energy Innovation (CCEI), an Energy Frontier Research Center (EFRC). He is also a lead in the Process Intensification Fundamentals of the RAPID Manufacturing Institute. Professor Vlachos is the recipient of the R. H. Wilhelm Award in Chemical Reaction Engineering from AIChE, the Philadelphia Catalysis Club Award, the Irving Wender Award for Excellence in Catalysis from the Pittsburgh-Cleveland Catalysis Society, Exceptional Achievements in Catalysis Award of the Catalysis Science & Technology Division (CATL) of the ACS, and is an ExxonMobil ��ý�Ļ��Ʒing Chair Professorship at the National University of Singapore and an AAAS Fellow. He also received an NSF Career Award and an Office of Naval Research Young Investigator Award. His current research interests include catalysis and reaction engineering for a circular economy, renewable fuels and chemicals, plastics recycling, modular and distributed manufacturing, process intensification and electrification, multiscale modeling, data science, uncertainty quantification, and in silico prediction of catalysts.

Climate change demands a paradigm change in the chemical industry and waste stream valorization.

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Patten Seminar Series Announcement: Enrique Gomez

Anonymous — Fri, 14 Jan 2022 22:08:08 +0000

Patten Seminar Series Announcement: Enrique Gomez Anonymous (not verified) Fri, 01/14/2022 - 15:08

Seminar: Nanoscale Control of Density Inhomogeneity is Crucial to Optimize Polymer Membranes for Aqueous Separations

Speaker: Enrique D. Gomez, Professor of Chemical Engineering and Materials Science and Engineering, Pennsylvania State University

Host: Michael Toney

Tuesday, April 5, 2022 - 2:45 p.m. MT
JSCBB A108

Seminar Abstract

Reverse osmosis modules comprised of composite polymer membranes represent a leading technology in desalination and purification of brackish water. Nanoporous polymeric membranes are key for prefiltering of such reverse osmosis systems, as well as for purification of biopharmaceutical products, such as monoclonal antibodies. The field has relied on intricate control of membrane properties through systematic perturbations to membrane chemistries and processing, yet many fundamental questions remain on the mechanisms that govern water transport and separations. We have leveraged advances in multi-modal electron microscopy to generate new insights on membrane structure and function. For example, we have combined the focused ion beam with scanning electron microscopy through serial sectioning to reconstruct a 3D representation of ultrafiltration membranes using for virus removal from biopharmaceutical streams. In addition, we have combined energy-filtered transmission electron microscopy with electron tomography from scanning transmission electron microscopy images to map the variation in density of polyamide films used in reverse osmosis membranes. Quantitative analyses of imaging products are key to extract mechanistic details that govern water transport and separations. Furthermore, we image membranes challenged with model and common foulants, to ascertain initial conditions and mechanisms for degradation of filtration performance.

Biosketch

Enrique D. Gomez received a B.S. in Chemical Engineering from the University of Florida in 2002, received a Ph.D. in Chemical Engineering from the University of California, Berkeley in 2007, and spent a year and a half as a postdoctoral research associate at Princeton University. Dr. Gomez joined the faculty at the Pennsylvania State University in August of 2009, where he is now a Professor of Chemical Engineering and Materials Science and Engineering. He also serves as the Associate Head for Diversity, Equity and Inclusion in the Department of Materials Science and Engineering. Research activities of Dr. Gomez are focused on connecting the chemical structure soft materials to macroscopic properties. To this end, the Gomez group pushes the limits of X-ray scattering and electron microscopy to refine descriptions of the microstructure of soft materials. The current emphasis of his research group is on the relationship between microstructure and electrical properties in the active layers of organic thin film transistors and photovoltaics, on elucidating the key factors that govern aqueous transport through water filtration membranes, and in the development of microstructure control to enable sustainable materials. Enrique has received multiple awards, including a ��ý�Ļ��Ʒing Scientist Fellowship from the National Center for Electron Microscopy, the Ralph E. Powe Junior Faculty Award by the Oak Ridge Associated Universities, the National Science Foundation CAREER Award, the Rustum and Della Roy Innovation in Materials Research Award, the Penn State Engineering Alumni Society Outstanding Research Award, and the Arthur K. Doolittle Award of the American Chemical Society. He was also elected Fellow of the American Physical Society in 2021.

Reverse osmosis modules comprised of composite polymer membranes represent a leading technology in desalination and purification of brackish water.

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Patten Seminar Series Announcement: Christian Pester

Anonymous — Fri, 14 Jan 2022 22:01:07 +0000

Patten Seminar Series Announcement: Christian Pester Anonymous (not verified) Fri, 01/14/2022 - 15:01

Seminar: Design of Advanced Functional Surfaces Using Oxygen-Tolerant Photopolymerization

Speaker: Christian W. Pester, Thomas K. Hepler Early Career Professor in Chemical Engineering, The Pennsylvania State University

Host: Ryan Hayward

Tuesday, March 29, 2022 - 2:45 p.m.
JSCBB A108

Seminar Abstract

The covalent attachment of polymers has emerged as a powerful strategy for the preparation of multi-functional surfaces. Patterned, surface-grafted polymer brushes provide spatial control over a variety of physical properties and allow for fabrication of ‘intelligent’ substrates which selectively adapt to their environment. This presentation describes recent advances in our group in using photolithography to produce topographically and chemically patterned polymer brush surfaces via surface-initiated (SI) photoinduced electron/energy transfer (PET) reversible addition–fragmentation chain transfer (RAFT) polymerization. Using this oxygen tolerant approach, organic light emitting diodes (OLEDs), anti-microbial surfaces, and anti-fogging coatings are engineered to highlight facile pathways towards advanced functional surfaces. Oxygen tolerance, mild reaction conditions, and the use of visible light make this approach user-friendly in its application for the design of patterned and functional organic thin films.

Biosketch

Christian received his Diploma in Polymer and Colloidal Chemistry from the University of Bayreuth (Germany), before working for Prof. Alexander Böker at the DWI - Leibniz Institute for Interactive Materials (RWTH Aachen University, Germany). In 2013, he graduated summa cum laude and was awarded the Borcher’s Medal for his Ph.D. thesis on block copolymers in electric fields. He was then hosted by Profs. Edward J. Kramer and Craig J. Hawker at the University of California, Santa Barbara (USA) as an Alexander-von-Humboldt Feodor-Lynen Postdoctoral Fellow. Christian is currently the Thomas K. Hepler Early Career Professor in Chemical Engineering at the Pennsylvania State University and holds courtesy appointments in the Chemistry Department and the Materials Science and Engineering Department.

The covalent attachment of polymers has emerged as a powerful strategy for the preparation of multi-functional surfaces.

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Patten Seminar Series Announcement: Gregory Odegard

Anonymous — Fri, 14 Jan 2022 21:52:34 +0000

Patten Seminar Series Announcement: Gregory Odegard Anonymous (not verified) Fri, 01/14/2022 - 14:52

Seminar: US-COMP: Next Generation of Composite Materials for Crewed Deep Space Missions

Speaker: Gregory Odegard, John O. Hallquist Endowed Chair of Computational Mechanics, Michigan Technological University

Director, NASA STRI for Ultra-Strong Composites by Computational Design

Host: Hendrik Heinz

Tuesday, March 15, 2022 - 2:45 p.m. MT
JSCBB A108

Seminar Abstract

Current state-of-the-art composite materials are not light/strong enough for crewed missions to Mars and beyond. Structural components of deep space vehicles require lighter/stronger materials for fuel efficiency. The NASA Space Technologies Research Institute (STRI) for Ultra-Strong Composites by Computational Design (US-COMP) is focused on developing a new generation of composites for this purpose. US-COMP is using computational simulation to drive the material design in an efficient manner. By developing new simulation tools, experimental methods, and databases of material information, US-COMP is playing a central role in the national Materials Genome Initiative (MGI). The ultimate goals of US-COMP are to design, fabricate, and test composite panels that meet NASA’s requirements; and to train students to enter the advanced composite materials workforce.

Biosketch

Professor Gregory Odegard is the John O. Hallquist Endowed Chair in Computational Mechanics in the Department of Mechanical Engineering – Engineering Mechanics at Michigan Tech. He is the Director of the NASA Institute for Ultra-Strong Composites by Computational Design, which is focused on development the next generation of composites materials for manned deep-space missions. Before joining the faculty at Michigan Tech, Greg was a researcher at NASA Langley Research Center from 2000-2004. He received his PhD at the University of Denver in 2000. His research is focused on computational modeling of advanced material systems. According to Google Scholar, he has been cited over 8,900 times in the literature, and has an h-index of 41. He is a Fellow of ASME and an Associate Fellow of AIAA.

Current state-of-the-art composite materials are not light/strong enough for crewed missions to Mars and beyond.

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Seminar

Patten Seminar Series: Pierre-Thomas Brun, April 25

Building with Fluids: A Lazy Approach to Fabrication

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Patten Seminar Series: Aditya Khair, Nov. 29

Seminar: Nonlinear Electrophoresis of Colloidal Particles

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Patten Seminar Series: Nick Carroll, Sept. 27

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Patten Seminar Series: Katrina Knauer, Oct. 11

Seminar: Plastic Deconstruction, Upcycling, and Redesign in the BOTTLE Consortium

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Patten Seminar Series: Enrique Iglesia, Oct. 4

ChBE Patten Distinguished Lecturer Seminar: Binding Sites and their Environment in Surface Catalysis

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Patten Seminar Series Announcement: Taylor H. Ware

Seminar: Shape-Morphing Elastomers and Engineered Living Composites

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Patten Seminar Series Announcement: Dionisios Vlachos

Seminar: Catalytic Upcycling Technologies for Sustainability and Circular Economy

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Patten Seminar Series Announcement: Enrique Gomez

Seminar: Nanoscale Control of Density Inhomogeneity is Crucial to Optimize Polymer Membranes for Aqueous Separations

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Patten Seminar Series Announcement: Christian Pester

Seminar: Design of Advanced Functional Surfaces Using Oxygen-Tolerant Photopolymerization

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Patten Seminar Series Announcement: Gregory Odegard

Seminar: US-COMP: Next Generation of Composite Materials for Crewed Deep Space Missions

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ChBE Patten Distinguished Lecturer
Seminar: Binding Sites and their Environment in Surface Catalysis