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Institution: University of Nottingham Unit of Assessment: Uoa 8 (Chemistry) A
Environment template (REF5) Institution: University of Nottingham Unit of Assessment: UoA 8 (Chemistry) a. Overview: The School is returning 42 category A researchers (100% of eligible staff), including 25 Professors (two FRSs$), 8 Associate Professors, 4 Lecturers and 5 fixed-term Research Fellows (denoted*). Our research, impact and industry engagement has attracted international recognition in the following overlapping thematic areas: • Theoretical and Computational Chemistry: Besley, Bichoutskaia, Hirst, Robinson*, Teale*, Wheatley. • Molecular Structure and Spectroscopy: George, Jones, Powis, Reid, Sarre, Stace$, Wright. • Chemical and Structural Biology: Dowden, Oldham, Searle, Soultanas, Thomas. • Sustainable Synthesis and Catalysis: Denton, Hayes, Kays, Lam, Licence, Liddle, Lygo, McMaster, Moody, Moses, Poliakoff $, Stockman, Woodward. • Functional Materials and Nanosciences: Blake, Champness, Gibson*, Gimenez-Lopez*, Howdle, Khlobystov, Mokaya, Schröder, Titman, Walsh, Yang*. b. Research strategy b1: Achievement of strategic aims stated in RAE2008: 1. Achieving a Sustainable Research Environment. Our aims since 2008 have been to strengthen our research at the interfaces between Chemistry and other physical sciences, the life sciences and engineering. We have built upon our strong research base and have ensured the sustainability and vitality of our environment by the strategic allocation of resources, major investments in instrumentation and infrastructure to provide world-class facilities (see d), and by nurturing Early Career Researchers (ECRs, see c1). The School has exploited new research opportunities and driven national research priorities by engagement in EPSRC Portfolio Shaping, membership of SATs and boards of UK facilities (see e3). We have strengthened our knowledge exchange activities with industry (see e2) and the public to increase research impact, and have built critical mass in research and training (see e1). -
U DLCR Records of the Liquid Crystals and Advanced 1929-2015 Materials Research Group, University of Hull
Hull History Centre: Liquid Crystals & Advanced Materials Research Group, University of Hull U DLCR Records of the Liquid Crystals and Advanced 1929-2015 Materials Research Group, University of Hull Accession number: 2014/04(1-4); 2014/05 Historical Background: The Liquid Crystals Research Group at the University of Hull Chemistry Department The Beginnings - The 1930s-1940s The beginnings of the Liquid Crystals Research Group at the University of Hull are to be found in the 1930s with the research of Brynmor Jones (later Sir Brynmor Jones, Chancellor of the University of Hull) into liquid crystal materials. Having joined the University of Hull from Sheffield University's chemistry department, Jones began to establish a strong basis for research into this emerging area. George William Gray - The 1950s-1960s The mantle of liquid crystal research passed to George William Gray after he joined the Department of Chemistry in 1946 and completed his PhD thesis in 1953. Gray's first papers were published in collaboration with Jones but during the 1950s and 1960s it was his own interest and personal drive that kept research alive at a time when liquid crystals were less than fashionable and could attract little funding. In these decades the focus of Gray's research was the extension of earlier studies of the relationships between molecular structure and liquid crystal properties. This research centred on studies of alkoxy-aromatic carboxylic acids derived from benzene, biphenyl, naphthalene, fluorene, fluorenone and anthracene, and also studies -
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 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. -
The Application of Measurement Science to Environmental Analytical Chemistry for Air Quality Studies
The Application of Measurement Science to Environmental Analytical Chemistry for Air Quality Studies Dr Richard J. C. Brown ARCS DIC CChem CSci EurChem FRSC Analytical Science Division National Physical Laboratory Submitted for the award of the Doctor of Science degree from Imperial College London February 2012 Contents Page no. Contents 2 Curriculum vitae 3 Preface 5 List of publications submitted 7 D.Sc. statement: The Application of Measurement Science to 10 Environmental Analytical Chemistry for Air Quality Studies - Sub-area: Mercury vapour measurement in ambient air 10 - Sub-area: The chemical composition of particulate matter in ambient air 14 - Sub-area: Novel measurement and data analysis techniques 17 - Summary of personal contributions 19 Reprints of publications submitted 20 Annex: Peer-reviewed publications list a - j Page 2 of 20 Curriculum Vitae Name: Dr Richard J. C. Brown ARCS DIC CChem CSci EurChem FRSC Date of Birth: 14th December 1975 Employer: National Physical Laboratory Position: Head of Trace Chemical Analysis & Principal Research Scientist Section: Analytical Science Division E-mail: [email protected] Direct line: 020 8943 6409 Mobile: 07718 195299 Higher Education: 1994-1997 B.Sc. Chemistry (1st class), Imperial College, London. Awarded the Governors’ Prize in Chemistry for the top 1st class degree. Associate of the Royal College of Science. 1997-2000 PhD Physical Chemistry, Imperial College, London. Awarded the Final Year Research Prize. Diploma of Imperial College. Summary of professional experience, responsibilities and achievements: National Physical Laboratory (NPL) career history and internal awards: 2000 Joined the Environmental Standards Section at NPL 2002 Promoted to Senior Research Scientist 2004 Promoted to Principal Research Scientist (fastest ever promotion to this position) 2004 Appointed Head of Trace Chemical Analysis • Winner of the Rayleigh award for NPL’s best peer-reviewed paper (2003), & three times runner-up (2006, 2007 & 2010). -
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 -
Page Mahesh Hariharan Professor, School of Chemistry
Mahesh Hariharan Professor, School of Chemistry, Indian Institute of Science Education and Research Tel: 91-471-2778101 Thiruvananthapuram (IISER TVM), Maruthamala P. O., Vithura, Kerala, India 695551 Fax: 91-471-2597427 Research Website: http://www.iisertvm.ac.in/faculties/mahesh.phpx Email: [email protected] Education Ø B.Sc., 1998, The Cochin College, Mahatma Gandhi University, Kottayam, Kerala. Ø M.Sc., 2000, Sacred Heart College, Mahatma Gandhi University, Kottayam, Kerala. Ø Ph.D., 2006, National Institute for Interdisciplinary Science and Technology, Trivandrum, Kerala (Title: “Design of Photoactivated DNA Cleaving Agents: Synthesis and Study of Photophysical and Photobiological Properties of Bifunctional Organic Ligands” Supervisor: Dr. Danaboyina Ramaiah). Appointments Jan 2020-present Professor, IISER Thiruvananthapuram, Kerala, India June 2016-July 2018 Head, School of Chemistry, IISER Thiruvananthapuram, Kerala, India Nov 2016 Visiting Professor, University of Würzburg, Germany Sept 2014-Dec 2019 Associate Professor, IISER Thiruvananthapuram, Kerala, India June 2014-Sept 2014 Visiting Professor, Montana State University, Montana, USA May-July 2010, July 2013 Visiting Fellow, Northwestern University, Illinois, USA July 2009-Sept 2014 Assistant Professor, IISER Thiruvananthapuram, Kerala, India March 2007-July 2009 Postdoctoral Fellow, Northwestern University, Illinois, USA Mentor: Prof. Frederick D. Lewis Honors and Awards Ø Lectureship Award for Asian and Oceanian Photochemist Sponsored by Eikohsha 2020 Ø Chemical Research -
How Can Machine Learning and Autonomy Accelerate Chemistry?
F O NH O O NH NH O NH CHEMICAL SCIENCEO SYMPOSIUM 2020 O How can machine learning and autonomy accelerate chemistry? 29 – 30 SeptemberF 2020 Online event O O NH NH O O NH O O NH O Fundamental questions Elemental answersNH F O Meeting Information Meeting Information Chemical Science Symposium 2020: How can machine learning and autonomy accelerate chemistry? is organised and hosted online by the Royal Society of Chemistry. This e-book contains abstracts of the posters presented at the Chemical Science Symposium 2020. All abstracts are produced directly from typescripts supplied by authors. Copyright reserved. All sessions, including the posters, are available to access via the virtual lobby. Further information on how to join the meeting and best practice for an online event is detailed in the joining instructions. Networking sessions There will be regular breaks throughout the meeting for socialising, networking and continuing discussions started during the scientific sessions. During the networking sessions you will be able to join existing networking rooms or initiate one-to-one chats. Existing networking rooms will be visible from the virtual lobby. To create a one-to-one chat, simply click on the name of the person you would like to speak to and select if you would like to have a private or public conversation. For a public conversation, other delegates can join your chat room. On the web version, you can only be in one session at a time (this includes networking rooms). Posters Posters have been numbered consecutively. The posters will be available to view throughout the discussion by clicking on the link in the virtual lobby. -
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. -
Biography Biography Qualifications Employment Research Outputs
Professor. George Koutsantonis School of Molecular Sciences Postal address: The University of Western Australia (M313), 35 Stirling Highway, Room 311, Bayliss Building, Perth campus 6009 Perth Western Australia Australia Email: [email protected] Phone: +61 8 6488 3177 Biography George Koutsantonis is a synthetic chemist with an interest in functional materials that contain metals. He is a graduate of the University of Adelaide where he obtained his BSc(Hons) and PhD degree, the latter, under the supervision of Michael Bruce. He began his scientific life studying the coordination properties and reactions of alkynes and often returns to this fascinating area. He undertook a postdoctoral position at the University of Kentucky. In Lexington, he continued his work with alkynes, more specifically investigating metathesis reactions with metalloalkynes. After a fruitful period in the USA, he returned to Australia on an inaugural ARC Postdoctoral Fellowship at Griffith University in 1991. In Brisbane, still essentially an inorganic chemist, worked with Main Group hydrides of Group 13. He was appointed to the staff at the University of Western Australia in 1995 where he remains. In Perth, he established an independent research programme in organometallic and inorganic chemistry. His work in this area was recognised by the joint award of the RACI Organometallic award in 2004 Biography 2010-2016 Professor (Level D) University of Western Australia 2009-2010 Associate Professor University of Western Australia 2002-2008 Senior Lecturer University -
Organic Molecules of Intrinsic Microporosity
Published online: 2020-01-23 20 Organic Materials McKeown Short Review Organic Molecules of Intrinsic Microporosity Neil B. McKeown*a a EaStCHEM School of Chemistry, University of Edinburgh, David Brewster Road, Edinburgh EH9 3FJ, United Kingdom [email protected] porous molecular crystals.6 A large proportion of molec- Received: 08.10.2019 ular crystals are based on cages7 or macrocycles, both of Accepted after revision: 20.11.2019 which act as prefabricated pores,8 but others are simply DOI: 10.1055/s-0039-3402512; Art ID: om-19-0016-rev organic molecules that pack inefficiently but with a 9 License terms: crystalline order. For all of these crystalline materials, the porosity is only revealed on the removal of the solvent © 2020. The Author(s). This is an open access article published by Thieme under the terms of the Creative Commons Attribution-NonDerivative-NonCommercial-License, of crystallization, a process often termed activation, permitting copying and reproduction so long as the original work is given appropriate which needs to occur without the structural collapse of credit. Contents may not be used for commercial purposes, or adapted, remixed, transformed or built upon. (https://creativecommons.org/licenses/by-nc-nd/4.0/). the crystal. Despite the understandable fascination with well-ordered porous materials—many of which have Abstract Organic molecules of intrinsic microporosity (OMIMs) are aesthetically appealing crystal structures—wholly amor- rigid molecules with an awkward shape that are designed to pack space phous materials can also be highly porous as demon- inefficiently in the solid state maximizing free volume and thereby stratedbythecommerciallyubiquitousactivated generating apparent microporosity as determined by gas adsorption. -
Chemistry Explored Issue 7
Issue 7 bristol.ac.uk/chemistry MAKING MOLECULES PLUS: WITH LIGHT BLUECRYSTAL 4: HOW A START-UP COMPANY BRISTOL’S SUPERCOMPUTER IS DOING GROUNDBREAKING HERBILICIOUS: WORK AT BRISTOL THE SCIENCE OF ROSEMARY In this issue... Welcome News Here at Bristol we’re Scientist elected to Royal Society 03 looking forward to Upfest, Lessons from the past, Science in action 04 another exciting Celebrating success, Outreach 2016–17 05 year in the School of Chemistry. In this issue Features we give you a taste Bristol Laser Spectroscopy research 06 of the latest stories Students take on air pollution 07 and successes we’re Where are they now? 08 building upon. Molecules made with light 10 Continuing the School’s award- From toxic waste to green matter 11 winning streak, staff and students have BlueCrystal 4 supercomputer 12 been recognised for their outstanding Picture It… 14 achievements, with some travelling all Inside View: Simon Osborne 15 the way to Canada to celebrate with their peers, while others have shared their 10 14 knowledge with schools closer to home during Bristol’s science festival season. Our industry connections go from strength to strength, with a new start-up company that’s working with pharma, a multi-million pound extension to Bristol's supercomputing facility, and insights from our long-term partnership with local company Edwards. Last but by no means least, turn to the feature on our technical manager Simon Osborne, who makes sure that University of Bristol Production Editor Steve O’Brien School of Chemistry Art Editor Elaine Knight-Roberts everything works in the building and a Cantock’s Close, Bristol BS8 1TS, UK Editorial Director Dan Linstead Account Manager Clair Atkins Tel +44 (0)117 928 8201 With thanks to Chris Adams, Kevin Booker-Milburn, great deal more besides.