DOCSLIB.ORG

A Review of Nanostructured Non-Titania Photocatalysts and Hole Scavenging Agents for CO2 Photoreduction Processes

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
A Review of Nanostructured Non-Titania Photocatalysts and Hole Scavenging Agents for CO2 Photoreduction Processes Heriot-Watt University Research Gateway A review of nanostructured non-titania photocatalysts and hole scavenging agents for CO2 photoreduction processes Citation for published version: Tan, JZY & Maroto-Valer, MM 2019, 'A review of nanostructured non-titania photocatalysts and hole scavenging agents for CO photoreduction processes', Journal of Materials Chemistry A, vol. 7, no. 16, pp. 9368-9385. https://doi.org/10.1039/C8TA10410G2 Digital Object Identifier (DOI): 10.1039/C8TA10410G Link: Link to publication record in Heriot-Watt Research Portal Document Version: Publisher's PDF, also known as Version of record Published In: Journal of Materials Chemistry A General rights Copyright for the publications made accessible via Heriot-Watt Research Portal is retained by the author(s) and / or other copyright owners and it is a condition of accessing these publications that users recognise and abide by the legal requirements associated with these rights. Take down policy Heriot-Watt University has made every reasonable effort to ensure that the content in Heriot-Watt Research Portal complies with UK legislation. If you believe that the public display of this file breaches copyright please contact [email protected] providing details, and we will remove access to the work immediately and investigate your claim. Download date: 06. Oct. 2021 Journal of Materials Chemistry A View Article Online REVIEW View Journal | View Issue A review of nanostructured non-titania photocatalysts and hole scavenging agents for CO Cite this: J. Mater. Chem. A,2019,7, 2 9368 photoreduction processes Jeannie Z. Y. Tan * and M. Mercedes Maroto-Valer The imperative for the development of sustainable energy technologies to alleviate the heavy reliance on fossil fuels as well as to mitigate the serious environmental issues associated with CO2 emission has fostered the development of solar fuels through CO2 photoreduction. The well-documented TiO2 and modified TiO2-based photocatalysts have been shown to photoreduce CO2 into hydrocarbons. Meanwhile, there is also an increasing interest in the utilisation of non-titania based materials, namely metal sulphides, oxides, oxynitrides and nitrides, for CO2 photoreduction. Distinct from other published Received 29th October 2018 reviews, we discuss here recent progress made in designing metal sulphide, oxide, oxynitride and Accepted 18th December 2018 nitride photocatalysts for CO2 photoreduction through morphological changes, aiming at providing DOI: 10.1039/c8ta10410g Creative Commons Attribution 3.0 Unported Licence. a systematic summary of non-titania based materials for CO2 photoreduction. Furthermore, the rsc.li/materials-a introduction of hole scavengers in order to maximise the CO2 photoreduction efficiency is also reviewed. 1. Introduction concentrated mainly on modelling or process development. The use of TiO2 as a photocatalyst for CO2 reduction has been – Fossil fuels are currently unrivalled for energy generation, and extensively studied and has been reviewed elsewhere.6 10 our existing infrastructure is built to handle fossil fuels for However, the lack of systematic studies of non-TiO2 semi- transportation, heating and electricity.1 Our heavy reliance on conducting materials, namely metal sulphides, oxides, oxy- This article is licensed under a 2 fossil fuels results in annual emissions of 32 Gt of CO2. This is nitrides and nitrides, for CO2 photoreduction (CO2PR) has likely to increase to 36–43 Gt by 2035, subject to policies gov- inhibited the development of these photocatalysts compared to erning CO2 emissions and energy use, even with increasing titania-based photocatalysts. 3 ff Open Access Article. Published on 01 April 2019. Downloaded 4/16/2019 2:36:42 PM. renewable energy sources. To mitigate these environmental Although di erent photocatalysts (i.e., titania and non-titania issues as well as alleviate our dependence on fossil fuels, har- based semiconductors) have been proposed in the literature, the vesting the seemingly innite solar energy and storing it in the overall CO2PR conversion remains low especially under sunlight form of chemical fuels hold signicant promise to address irradiation, making the CO2PR system not practical for commer- ffi current and future energy demands. Moreover, the chemical cialisation. To further increase the e ciency of CO2PR, the industry and a vast amount of chemical products rely heavily on introduction of scavenging agents into the CO2PR system has been using fossil fuel feedstock. This further motivates the develop- proposed. However, so far, the introduction of hole scavenging ment of sustainable processes to generate fuels and chemical agents has not been systematically studied, though studies started feedstock from water and CO2 using solar energy. Such in the last century. Therefore, the necessity to systematically a process is akin to photosynthesis in nature, and therefore, it is scrutinise the recent development of non-TiO2 photocatalysts and referred to as the articial photosynthesis. hole scavenging agents for CO2PR is of great demand. Photoelectrocatalytic reduction of CO2 in aqueous suspen- There are enormous scienti c and technical challenges sions using semiconducting powders was rst proposed by involved in making even the simplest fuel, H2, and even more so 4 Inoue et al. in 1979. Later in 1987, the photocatalytic reduction for carbon-based fuels by means of CO2 photoreduction. Similar of CO2 to CH4 in the presence of H2O was proposed by Thampi to other photocatalytic processes, solar-driven photocatalytic 5 et al. Since then, an increasing number of studies on the conversion of CO2 in the presence of H2O to hydrocarbon fuels photo(electro)catalytic reduction of CO2 have been conducted uses semiconducting materials to harvest solar energy and (Fig. 1). Among these studies, almost 50% focused on the provides active sites to allow the photocatalytic conversion materials employed as photocatalysts for conversion of CO2 process to occur. The basic steps of the photocatalytic process under UV and/or visible irradiation. The rest of the studies can be summarised as follows: (1) generation of charge carriers (electron–hole pairs) by Research Centre for Carbon Solutions (RCCS), Heriot-Watt University, Edinburgh semiconducting materials upon absorption of photons with EH14 4AS, UK. E-mail: [email protected] appropriate energy from the irradiation of light, 9368 | J. Mater. Chem. A,2019,7,9368–9385 This journal is © The Royal Society of Chemistry 2019 View Article Online Review Journal of Materials Chemistry A (2) separation of charge carriers and their transportation to the hybrid organic–inorganic materials34–37) and other inorganic surface of the photocatalyst, and transition or main group metal oxides, sulphides, oxynitrides, (3) chemical redox reactions between the charge carriers and and nitrides. Since the use of carbon-based semiconductors for 30,34,38,39 the reactants. CO2PR has been reviewed elsewhere, these photo- CO2PR with H2O into fuels is illustrated in Fig. 2. TiO2 was catalysts are not be discussed herein. 5 the rst material used for CO2PR, and since then it has been Inorganic semiconductors, namely metal oxides, sulphides, widely used because of its abundance, availability, high chem- oxynitrides and nitrides, are among the rst semiconductors ical stability, low cost and non-toxicity.12 Despite the great effort made in the CO PR using TiO and its derivative materials, the 2 2 Prof M. Mercedes Maroto-Valer efficiency of the process remains low,7 mainly attributed to the (FRSE, FIChemE, FRSC, and following factors: FRSA) is the Assistant Deputy (a) Rapid recombination of photogenerated electron–hole Principal (Research & Innova- pairs;10 tion) and Director of the Research (b) Mild reducing power; Centre for Carbon Solutions The potential of the conduction band electrons is only (RCCS) at Heriot-Watt Univer- slightly more negative than the multi-electron reduction sity. She leads a multidisci- potentials of CO , thus providing a very small driving force, 2 plinary team of over 50 whereas the potential of the valence band holes is much more researchers developing novel positive than the water oxidation potential.7 solutions to meet the worldwide (c) Limited visible light absorption due to the wide bandgap demand for energy. Her team's (3.0–3.2 eV) of TiO .13,14 2 expertise comprises energy Strategies including doping,15,16 coupling with semi- Creative Commons Attribution 3.0 Unported Licence. generation, conversion and industry, carbon capture, conversion, conductors,17–19 dye sensitizing,20,21 surface modication22,23 etc. transport and storage, emission control, low carbon fuels, and low- have been extensively used to improve TiO photocatalysts and 2 carbon systems. She has over 450 publications, of which she edited are summarised elsewhere.9,14,24,25 However, the two most 4 books, and 32% of her publications are among the top 10% most commonly used methods for extending the absorption range to cited publications worldwide. Her research portfolio includes visible light, namely sensitization or doping, do not fully projects worth £35m, and she has been awarded a prestigious address the optical issue of wide bandgap materials. Sensitizing European Research Council (ERC) Advanced Award. She obtained agents (e.g., dyes or quantum dots) oen degrade when exposed a BSc with Honours (First Class) in Applied Chemistry in 1993 and to UV light and photogenerate oxidizing holes in TiO .7 Dopant 2 then a PhD in 1997 at the University of Strathclyde
Load more

Recommended publications
  • The Grand Challenges in the Chemical Sciences
    The Israel Academy of Sciences and Humanities Celebrating the 70 th birthday of the State of Israel conference on THE GRAND CHALLENGES IN THE CHEMICAL SCIENCES Jerusalem, June 3-7 2018 Biographies and Abstracts The Israel Academy of Sciences and Humanities Celebrating the 70 th birthday of the State of Israel conference on THE GRAND CHALLENGES IN THE CHEMICAL SCIENCES Participants: Jacob Klein Dan Shechtman Dorit Aharonov Roger Kornberg Yaron Silberberg Takuzo Aida Ferenc Krausz Gabor A. Somorjai Yitzhak Apeloig Leeor Kronik Amiel Sternberg Frances Arnold Richard A. Lerner Sir Fraser Stoddart Ruth Arnon Raphael D. Levine Albert Stolow Avinoam Ben-Shaul Rudolph A. Marcus Zehev Tadmor Paul Brumer Todd Martínez Reshef Tenne Wah Chiu Raphael Mechoulam Mark H. Thiemens Nili Cohen David Milstein Naftali Tishby Nir Davidson Shaul Mukamel Knut Wolf Urban Ronnie Ellenblum Edvardas Narevicius Arieh Warshel Greg Engel Nathan Nelson Ira A. Weinstock Makoto Fujita Hagai Netzer Paul Weiss Oleg Gang Abraham Nitzan Shimon Weiss Leticia González Geraldine L. Richmond George M. Whitesides Hardy Gross William Schopf Itamar Willner David Harel Helmut Schwarz Xiaoliang Sunney Xie Jim Heath Mordechai (Moti) Segev Omar M. Yaghi Joshua Jortner Michael Sela Ada Yonath Biographies and Abstracts (Arranged in alphabetic order) The Grand Challenges in the Chemical Sciences Dorit Aharonov The Hebrew University of Jerusalem Quantum Physics through the Computational Lens While the jury is still out as to when and where the impressive experimental progress on quantum gates and qubits will indeed lead one day to a full scale quantum computing machine, a new and not-less exciting development had been taking place over the past decade.
    [Show full text]
  • CHAD A. MIRKIN, PH.D. Northwestern University
    CHAD A. MIRKIN, PH.D. Northwestern University, Department of Chemistry 2145 Sheridan Road, Evanston, IL 60208-3113 Phone: 847-491-2907 Fax: 847-467-5123 Email: [email protected] Education 1991 NSF Postdoctoral Fellow in Chemistry, Massachusetts Institute of Technology, Cambridge, MA 1989 Ph.D. in Inorganic & Organic Chemistry, The Pennsylvania State University, State College, PA 1986 B.S. in Chemistry (Phi Beta Kappa), Dickinson College, Carlisle, PA Professional Experience 2008-present Director, International Institute for Nanotechnology; George B. Rathmann Professor of Chemistry, Medicine, Materials Science & Engineering, Biomedical Engineering, Chemical & Biological Engineering, Northwestern University 2004-2008 Director, International Institute for Nanotechnology; George B. Rathmann Professor of Chemistry, Medicine, and Materials Science & Engineering, Northwestern University 2000-2004 Director, Center for Nanofabrication and Molecular Self-Assembly and George B. Rathmann Professor of Chemistry, Northwestern University 1997-2000 Charles E. and Emma H. Morrison Professor of Chemistry, Northwestern University 1995-1997 Associate Professor, Department of Chemistry, Northwestern University 1991-1995 Assistant Professor, Department of Chemistry, Northwestern University Awards and Honors (selected, over 230 national and international total) 2020 ACS Division of Colloid and Surface Science Award for Outstanding Achievement in Nanoscience; AAAS Philip Hauge Abelson Award 2019 Kabiller Prize in Nanoscience and Nanomedicine; SCI Perkin
    [Show full text]
  • The Rapid Evolution of Highly Efficient Perovskite Solar Cells
    Energy & Environmental Science View Article Online REVIEW View Journal | View Issue The rapid evolution of highly efficient perovskite solar cells Cite this: Energy Environ. Sci., 2017, 10,710 Juan-Pablo Correa-Baena,†*a Antonio Abate,*b Michael Saliba,*c Wolfgang Tress,c d c a T. Jesper Jacobsson, Michael Gra¨tzel and Anders Hagfeldt Perovskite solar cells (PSCs) have attracted much attention because of their rapid rise to 22% efficiencies. Here, we review the rapid evolution of PSCs as they enter a new phase that could revolutionize the photovoltaic industry. In particular, we describe the properties that make perovskites so remarkable, and the Received 21st November 2016, current understanding of the PSC device physics, including the operation of state-of-the-art solar cells with Accepted 30th January 2017 efficiencies above 20%. The extraordinary progress of long-term stability is discussed and we provide an DOI: 10.1039/c6ee03397k outlook on what the future of PSCs might soon bring the photovoltaic community. Some challenges remain in terms of reducing non-radiative recombination and increasing conductivity of the different device layers, rsc.li/ees and these will be discussed in depth in this review. Broader context Perovskite-based solar cells have emerged as a promising technology for highly efficient and low-cost photovoltaics. Using low-temperature solution processing, the high efficiencies so far reported go beyond 20% and start approaching their practical limitations. This unprecedented rise in efficiency, with the added advantage of low-cost processing, has made perovskite solar cells an exciting field of study. In this review, we summarize some of the major developments in the perovskite field related to thin film material processing, solar cell physics and long-term stability, which are key to commercialization of this exciting technology.
    [Show full text]
  • John F. Hartwig Henry Rapoport Professor of Chemistry
    John F. Hartwig Henry Rapoport Professor of Chemistry Department of Chemistry, University of California Berkeley 718 Latimer Hall MC# 1460, Berkeley, CA 94720-1460 Email: [email protected] http://www.cchem.berkeley.edu/jfhgrp/ Personal Born August 7, 1964 in Elmhurst, IL Employment 2011-present University of California, Berkeley Henry Rapoport Professor of Chemistry. 2011-present Lawrence Berkeley National Laboratory, Berkeley Senior Faculty Scientist. 2006-2011 University of Illinois Urbana-Champaign Kenneth L. Reinhart Jr. Professor of Chemistry. 2004-2006 Yale University, New Haven, CT Irénée DuPont Professor of Chemistry. 1998-2004 Yale University, New Haven, CT Professor of Chemistry. 1996-1998 Yale University, New Haven, CT Associate Professor of Chemistry. 1992-1996 Yale University, New Haven, CT Assistant Professor of Chemistry. Appointment commenced July 1, 1992. 1990-1992 Massachusetts Institute of Technology, Cambridge, MA American Cancer Society Postdoctoral Associate. 1986-1989 University of California, Berkeley, CA Graduate Student Instructor. Taught organic chemistry to undergraduate students and inorganic chemistry to graduate students. 1985 Monsanto Japan Ltd., Kawachi, Japan Worked among an all-Japanese staff for three months on an agricultural and surface science research project. 1984 General Electric Research and Development, Schenectady, NY Synthesis of novel monomers, ionomers and polymer blends. Education 1990-1992 Massachusetts Institute of Technology, Cambridge, MA Postdoctoral Advisor: Prof. Stephen J. Lippard Studied the Pt-DNA adducts formed by an orally active platinum antitumor drug and the ability of these adducts to block DNA replication and bind cellular proteins. Designed, synthesized, and analyzed a platinum antitumor drug possessing a fluorescent ligand for in vivo monitoring. 1986-1990 University of California, Berkeley, CA Ph.D., Chemistry.
    [Show full text]
  • Annual Review 2011
    Annual Review 2011 www.rsc.org Contents 01 Welcome from the President 02 A message from the Chief Executive 03 Supporting a strong membership 07 Leading the global chemistry community 11 Engaging people with chemistry 15 Influencing the future of chemistry 19 Enhancing knowledge 23 Summary of financial information 24 Contacts Professor David Phillips CBE CSci CChem FRSC We championed the cause of chemical sciences with pride and conviction throughout the International Year of Chemistry. ‘‘ Welcome from the President When the United Nations announced that 2011 would be designated the “International Year of Chemistry” (IYC), we knew immediately that the year would bring countless opportunities to promote, expand and evolve both the RSC and the chemical sciences more broadly. We needed to make it a year to remember. I’m delighted to say we rose to the challenge. In a year marked with natural disasters, economic uncertainty and adverse conditions affecting the chemical sciences in ways never seen before, we still led the UK in being perhaps the most active country in the world throughout IYC. Our members did us proud, arranging hundreds of IYC events across the globe. Perhaps most visible was the Global Water Experiment, an international effort to map global water quality using data collected by school pupils. A national media campaign, including an outing on BBC TV’s One Show, led to widespread awareness of the experiment. Dedicated and enthusiastic UK teachers then inspired a sensational number of their pupils to take part, and as a country we contributed more data to the experiment than any other.
    [Show full text]
  • KAREN L. WOOLEY W. T. Doherty-Welch Chair in Chemistry
    KAREN L. WOOLEY W. T. Doherty-Welch Chair in Chemistry University Distinguished Professor Presidential Impact Fellow Texas A&M University, Department of Chemistry 3255 TAMU, P. O. Box 30012, College Station, Texas 77842-3012 Tel. (979) 845-4077, Fax (979) 862-1137, e-mail: [email protected] www.chem.tamu.edu/faculty/wooley http://orcid.org/0000-0003-4086-384X http://www.researcherid.com/rid/D-4399-2015 Born July 9, 1966, Oakridge, Oregon, USA Education: Ph. D., Cornell University, Polymer/Organic Chemistry, August 1993 Advisor: Professor J. M. J. Fréchet, Dissertation Title: "Design, Synthesis and Properties of Dendritic Macromolecules" B. S., Oregon State University, Chemistry, May 1988 Professional History: Presidential Impact Fellow, Texas A&M University, 2017 – Lifetime Professor of Materials Science & Engineering, Texas A&M University, 2014 – present University Distinguished Professor, Texas A&M University, 2011 – present W. T. Doherty-Welch Chair in Chemistry; Professor of Chemistry; Professor of Chemical Engineering, Texas A&M University, 2009 – present; Professor of Biotechnology Program, 2014 – present James S. McDonnell Distinguished University Professor of Arts & Sciences, Washington University, 2006 – 2009 Professor, Washington University, School of Arts & Sciences, Department of Chemistry, 1999 – 2009 Professor, Washington University, School of Medicine, Department of Radiology, 2007 – 2009 Faculty member in the Division of Biological and Biomedical Sciences, Chemical Biology Program, Washington University, 1996 – 2005 Faculty member in the Center for Materials Innovation, Washington University, 2003 – 2009 Assistant Professor, Washington University, Department of Chemistry, August 1993 – 1999 Teaching: Texas A&M University. Chem228 Organic Chemistry II; Chem466 Polymer Chemistry; Chem470 Industrial Chemistry; Chem491 Research; Chem689 Special Topics: Nanomedicine; Chem690 Theory of Chemical Research; Chem691 Research Washington University.
    [Show full text]
  • 3000 Darwin Skeptics
    3000 Darwin Skeptics rae.org/essay-links/darwinskeptics Darwin Skeptics A Select List of Science Academics, Scientists, and Scholars Who are Skeptical of Darwinism Compiled by Jerry Bergman PhD. It is commonly claimed that no scientist rejects macroevolution or Darwinism (by which is meant evolutionary naturalism, or the view that variation caused by mutations plus natural selection accounts for all life forms). For example, Dr. Steve Jones, Professor of Genetics at University College of London, wrote that “no scientist denies the central truth of The Origin, the idea of descent with modification… plants, animals and everything else descended from a common ancestor” (Jones, 2000, pp. xvii, xxiii). Other writers avoid the words “all” or “no scientist” and claim instead that “almost no scientist” rejects Darwinism as defined above. In an article refuting “wiccan creationism,” the author claimed that evolutionary theory has been confirmed to such a high degree and has such great explanatory power that it is the central organizing principle of the biological sciences today. Modern biology is basically unthinkable outside of the context of evolution and that is why it is accepted without reservations by pretty much every working scientists [sic] in the life sciences. It also isn’t really questioned in the other natural sciences, either, like physics or chemistry. The author then makes the following absolutist statement: Evolution is taken as a fact—and while there might be disagreements about some of the details of how evolution proceeds, there are no disagreements about the idea that it does occur and that it is the explanation for the diversity of life on our planet.
    [Show full text]
  • POSTGRADUATE GRADUATION 2017 Postgraduate Graduation 2017
    Imperial College London College Imperial POSTGRADUATE GRADUATION 2017 GRADUATION POSTGRADUATE POSTGRADUATE GRADUATION 2017 Wednesday 3 May Royal Albert Hall, London Postgraduate Graduation 2017 PRESIDENT’S WELCOME CONTENTS 01 President’s welcome Welcome to the Imperial College London Postgraduate Graduation. 02 Chair’s welcome My colleagues and I are pleased 03 Senior staff at Imperial to be here to celebrate your accomplishments as our postgraduate 04 About the day degree recipients and honorees 06 Imperial’s past and future and award winners. We hope that you enjoy the ceremony and the 08 World-leading research celebration as much as we do. at Imperial We share the honour of celebrating your achievements 10 Honorary degree with all of those who have supported you on your journey. We know that pursuing graduate study 12 Imperial College Medals requires dedication and the steadfast support of family and friends, and we salute them too today. 14 President’s Medals Faculty mentors and doctoral advisors are also here to celebrate with us. Their guidance has been 19 Regius Professorship pivotal in graduates’ accomplishments and we thank them for being excellent teachers, academic leaders 20 Outstanding Student and role models. Achievement Awards You, our graduates, have worked long and hard 24 Imperial College Business for this distinction. You have followed your passion School and School of and become experts in your chosen fields. You have demonstrated the ability to think rigorously, to explore, Professional Development to question. We are inspired by the great breadth of your accomplishments and we know that you all join 38 Faculty of Natural Sciences the ranks of some 190,000 very distinguished alumni and Faculty of Medicine who bring prestige to Imperial’s name.
    [Show full text]
  • Curriculum Vitae
    Curriculum Vitae Dr J Fraser Stoddart / Board of Trustees Professor of Chemistry / Northwestern University Born May 24, 1942, Edinburgh, Scotland Nationality US Email [email protected] Telephone 847-491-3793 Fax 847-491-1009 Group Website Stoddart.northwestern.edu Address Department of Chemistry, Northwestern University, 2145 Sheridan Road, Evanston, IL 60208, USA Academic Career 2018– Visiting Professor of Chemistry at University of New South Wales / Australia 2014– Thousand Talent Scholar at Tianjin University / China 2014– ChieF Technical OFFicer at CycladeX 2014– ChieF Technical OFFicer and Board Member at PanaceaNano 2010–2017 Director of the Center For the Chemistry of Integrated Systems at Northwestern University 2008– Board of Trustees Professor of Chemistry at Northwestern University 2003–2007 Fred Kavli Chair in NanoSystems Sciences at University of CaliFornia, Los Angeles 1997–2003 Saul Winstein Chair in Organic Chemistry at University of CaliFornia, Los Angeles 1993–1997 Head of School of Chemistry at University of Birmingham, UK 1990–1997 Professor of Organic Chemistry at University of Birmingham, UK 1981–1990 Reader in Chemistry at University of ShefField, UK 1978–1981 On secondment to ICI Corporate Laboratory, Runcorn, UK 1970–1978 Lecturer in Chemistry at University of Sheffield, UK 1970 ICI Research Fellowship in Chemistry at University of Sheffield, UK Advisor: David Ollis FRS (deceased) 1967–1970 NRC Postdoctoral Fellowship at Queen’s University, Kingston, Canada Advisor: Ken Jones FRS (deceased) 1964–1966 DSIR
    [Show full text]
  • Emily A. Carter CV (PDF)
    10/26/2020 CURRICULUM VITAE EMILY ANN CARTER PROFESSIONAL ADDRESS Office of the Chancellor 2147 Murphy Hall, Box 951405 University of California, Los Angeles Los Angeles, CA 90095-1405 email: [email protected] tel: (310) 825-2052 Web page: https://research.seas.ucla.edu/carter/ EDUCATION 1987 California Institute of Technology Pasadena, CA . Degree: Ph. D. in Physical Chemistry Advisor: William A. Goddard III 1982 University of California, Berkeley Berkeley, CA . Degree: B.S. (high honors) in Chemistry PROFESSIONAL POSITIONS 2019-present Executive Vice Chancellor and Provost, University of California, Los Angeles As chief academic and operating officer, works with the Chancellor and leadership team to guide strategic planning, policy, and process development, define budgetary and advancement priorities, and support strategic initiatives across campus and beyond. 2019-present Distinguished Professor in Chemical and Biomolecular Engineering, University of California, Los Angeles 2019-present Gerhard R. Andlinger Professor in Energy and the Environment, Emeritus, Professor of Mechanical and Aerospace Engineering and Applied and Computational Mathematics, Emeritus, and Senior Scholar in Mechanical and Aerospace Engineering, Princeton University 2016-2019 Dean of the School of Engineering and Applied Science, Princeton University Oversaw 10 academic units comprising six departments and four interdisciplinary centers/institutes, 12 undergraduate certificate programs, as well as school-wide administration of undergraduate and graduate student affairs;
    [Show full text]
  • See Teri's CV
    TERI W. ODOM Department of Chemistry 847-491-7674 (phone) Northwestern University [email protected] 2145 Sheridan Road www.odomgroup.northwestern.edu Evanston, IL 60208-3113 EDUCATION AND TRAINING 2018 – Chair, Department of Chemistry 2015 – Charles E. and Emma H. Morrison Professor of Chemistry, Northwestern University 2016 – 2018 Associate Director, International Institute for Nanotechnology, Northwestern University 2011 – 2015 Board of Lady Managers of the Columbian Exposition Professor of Chemistry, Northwestern University 2011 – Professor of Materials Science and Engineering, Northwestern University 2008 – 2010 Dow Chemical Company Research Professor, Northwestern University 2007 – 2011 Associate Professor of Chemistry, Northwestern University 2007 – 2011 Associate Professor of Materials Science and Engineering, Northwestern University 2002 – 2007 Assistant Professor of Chemistry, Northwestern University 2001 Postdoctoral Fellow, Harvard University 2001 Ph.D. Chemical Physics, Harvard University 1996 B.S. Chemistry, Stanford University MAJOR PROFESSIONAL INTERESTS Nanoscience; plasmonics and nanophotonics; optical properties of nanomaterials; imaging; large-area nanofabrication; materials chemistry; cancer therapeutics HONORS AND AWARDS 2020 Royal Society of Chemistry (RSC) Centenary Prize 2020 American Academy of Arts and Sciences (AAAS) Member 2020 Crain’s Chicago Business 2020 Notable Women in STEM 2020 American Chemical Society (ACS) Award in Surface Chemistry 2019 Optical Society of America (OSA) Fellow 2018 American Physical
    [Show full text]
  • Prêmio Nobel De 2016: Química E Física +*
    DOI: http://dx.doi.org/10.5007/2175-7941.2017v34n2p479 Prêmio Nobel de 2016: Química e Física +* José Maria Filardo Bassalo1 Academia Paraense de Ciências Belém – PA Robson Fernandes de Farias2 Universidade Federal do Rio Grande do Norte Natal – RN Resumo Neste artigo, trataremos dos Prêmios Nobel de 2016: Química e Física, pois eles estão relacionados com o mesmo tema: as nanoestrutu- ras/máquinas moleculares (concepção, fabricação e explicação teórica topológica). Palavras-chave: Prêmio Nobel de Química de 2016; Stoddart; Sauvage; Feringa; Máquinas moleculares; Prêmio Nobel de Física de 2016; Thouless; Haldane; Kosterlitz; Transições de fases topológicas. Abstract In this article, we will deal with the 2016 Nobel Prizes: Chemistry and Physics, since they are related to the same theme: nanostructures / mo- lecular machines (conception, fabrication and topological theoretical explanation). Keywords: 2016 Chemistry Nobel Prize; Stoddart; Sauvage; Feringa; Molecular machines; 2016 Physics Nobel Prize; Thouless; Haldane; Kosterlitz; Topological phase transitions. + The 2016 Nobel Prize: Chemistry and Physics * Recebido: março de 2017. Aceito: abril de 2017. 1 E-mail: [email protected] 2 E-mail: [email protected] Caderno Brasileiro de Ensino de Física, v. 34, n. 2, p. 479-508, ago. 2017. 479 I. Introdução Iniciemos este artigo com o Prêmio Nobel de Química de 2016 (PNQ/2016) que foi dividido entre os químicos, o escocês Sir James Fraser Stoddart (n.1942), o francês Jean- Pierre Sauvage (n.1λ44), e o neerlandês ψernard (“ψen”) Lucas Feringa (n. 1λ51) – pela con- cepção e fabricação de máquinas moleculares –, segundo o Comitê Nobel (CN). Registre-se que (com colaboradores) Sauvage inventou o catenano (1984); Stoddart, o rotaxano (1991); e Feringa, o motor molecular (1999).
    [Show full text]