Socit Chimique De France 2014 Prize Winners
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University at Buffalo, Chemical and Biological Engineering February 2, 2021
University at Buffalo, Chemical and Biological Engineering February 2, 2021 CURRICULUM VITAE Gang Wu, Ph. D., Professor Department of Chemical and Biological Engineering University at Buffalo (UB), The State University of New York (SUNY), Buffalo, New York, USA E-mail: [email protected]; Phone: 716-645-8618 (office) ; 803-338-4924 (cell) Web: www.cbe.buffalo.edu/wu Education • 2004. Ph.D.: Environmental Engineering, Harbin Institute of Technology, Harbin, China. • 1999. M.S.: Applied Chemistry, Harbin Institute of Technology, Harbin, China. • 1997. B.S: Electrochemical Engineering, Harbin Institute of Technology, Harbin, China. Employment History • Aug 2020- present, Professor, University at Buffalo, SUNY, USA • Aug 2018-Aug 2020, Associate Professor, University at Buffalo, SUNY, USA • Aug 2014-Aug 2018, Assistant Professor, University at Buffalo, SUNY, USA • May 2010-Aug 2014, Staff Scientist, Los Alamos National Laboratory (LANL), USA • Jan 2008-May 2010, Postdoc, Los Alamos National Laboratory, USA • Feb 2006-Jan 2008, Postdoc, University of South Carolina, USA • Jan 2004-Jan 2006, Postdoc, Tsinghua University, Beijing, China Major Research Interest • Electrochemical Science and Engineering for Energy Technologies; • Electrocatalysis and photocatalysis for clean energy conversion: fuel cells, electrolyzers, CO2 reduction; electrosynthesis; • Electrochemical energy power sources for energy storage: batteries and supercapacitors; • Renewable fuel: NH3 (electrosynthesis, oxidation, and carking for H2 generation). Key Achievements and Recognition • Dr. Wu is internationally recognized as the leading researcher in the field of fuel cells and other sustainable electrochemical energy technologies. • Awarded more than $5.0 M in grant funding from federal agencies (DOE and NSF) since joining UB in August 2014. Those 14 projects (3 NSF and 11 DOE) focus on the development of advanced materials for electrochemical energy conversion and storage technologies such as fuel cells, water splitting, batteries, and renewable fuel (e.g., NH3). -
Annual Report: CY2018 Chempubsoc Europe
1 Annual Report: CY2018 ChemPubSoc Europe Growth, change, awards, and sponsorship More scientists, more publications, more competition. As in the past, growth continued unabated worldwide in 2018 and is also reflected in the performance metrics of the ChemPubSoc Europe / Wiley-VCH publishing program, which now consists of 16 titles. The most recent product, ChemSystemsChem, was announced in Fall 2018. In 2018, the journals that are co-owned by ChemPubSoc Europe societies published nearly 9,000 articles (excluding contributions to the online publication ChemViews Magazine). Compared to the previous year, manuscript submissions grew by 12%, and the number of published articles rose by approximately 5%. A record number of full-text downloads, >8.9 million, was witnessed for the ChemPubSoc Europe journals, with increases in usage compared to the same time last year; notable among them ca. +20–30% for ChemCatChem, ChemElectroChem, ChemMedChem, and ChemPlusChem; and ca. +70% for ChemistrySelect and ChemPhotoChem. Approximately 3% of articles published in ChemPubSoc Europe's hybrid journals in 2018 were open access: ca. 10% at ChemBioChem and ca. 5% at ChemCatChem, Chemistry—A European Journal, ChemMedChem, and ChemPhysChem, respectively. ChemPubSoc Europe's gold open access journal, ChemistryOpen, experienced a ca. 47% growth in submissions compared to 2017. Generational change After the retirement of Peter Gölitz in November 2017, additional responsibility was taken on by Guido Herrmann (VP, Co-Managing Director Wiley-VCH, since April 1, 2017), Eva Wille (VP, Executive Director Wiley-VCH), Neville Compton (Editor-in-Chief of Angewandte Chemie and publisher for the GDCh journals), Haymo Ross (Editor-in-Chief of Chemistry—A European Journal and publisher of the ChemPubSoc Europe journals), Theresa Kueckmann (Editor-in-Chief of Chemistry—An Asian Journal and publisher for the Asian Chemical Editorial Society (ACES) journals), and Greta Heydenrych (development of new journals). -
A Nobel Synthesis
MILESTONES IN CHEMISTRY Ian Grayson A nobel synthesis IAN GRAYSON Evonik Degussa GmbH, Rodenbacher Chaussee 4, Hanau-Wolfgang, 63457, Germany he first Nobel Prize for chemistry was because it is a scientific challenge, as he awarded in 1901 (to Jacobus van’t Hoff). described in his Nobel lecture: “The synthesis T Up to 2010, the chemistry prize has been of brazilin would have no industrial value; awarded 102 times, to 160 laureates, of whom its biological importance is problematical, only four have been women (1). The most but it is worth while to attempt it for the prominent area for awarding the Nobel Prize sufficient reason that we have no idea how for chemistry has been in organic chemistry, in to accomplish the task” (4). which the Nobel committee includes natural Continuing the list of Nobel Laureates in products, synthesis, catalysis, and polymers. organic synthesis we arrive next at R. B. This amounts to 24 of the prizes. Reading the Woodward. Considered by many the greatest achievements of the earlier organic chemists organic chemist of the 20th century, he who were recipients of the prize, we see that devised syntheses of numerous natural they were drawn to synthesis by the structural Alfred Nobel, 1833-1896 products, including lysergic acid, quinine, analysis and characterisation of natural cortisone and strychnine (Figure 1). 6 compounds. In order to prove the structure conclusively, some In collaboration with Albert Eschenmoser, he achieved the synthesis, even if only a partial synthesis, had to be attempted. It is synthesis of vitamin B12, a mammoth task involving nearly 100 impressive to read of some of the structures which were deduced students and post-docs over many years. -
SCIENCE CITATION INDEX EXPANDED - JOURNAL LIST Total Journals: 8631
SCIENCE CITATION INDEX EXPANDED - JOURNAL LIST Total journals: 8631 1. 4OR-A QUARTERLY JOURNAL OF OPERATIONS RESEARCH 2. AAPG BULLETIN 3. AAPS JOURNAL 4. AAPS PHARMSCITECH 5. AATCC REVIEW 6. ABDOMINAL IMAGING 7. ABHANDLUNGEN AUS DEM MATHEMATISCHEN SEMINAR DER UNIVERSITAT HAMBURG 8. ABSTRACT AND APPLIED ANALYSIS 9. ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY 10. ACADEMIC EMERGENCY MEDICINE 11. ACADEMIC MEDICINE 12. ACADEMIC PEDIATRICS 13. ACADEMIC RADIOLOGY 14. ACCOUNTABILITY IN RESEARCH-POLICIES AND QUALITY ASSURANCE 15. ACCOUNTS OF CHEMICAL RESEARCH 16. ACCREDITATION AND QUALITY ASSURANCE 17. ACI MATERIALS JOURNAL 18. ACI STRUCTURAL JOURNAL 19. ACM COMPUTING SURVEYS 20. ACM JOURNAL ON EMERGING TECHNOLOGIES IN COMPUTING SYSTEMS 21. ACM SIGCOMM COMPUTER COMMUNICATION REVIEW 22. ACM SIGPLAN NOTICES 23. ACM TRANSACTIONS ON ALGORITHMS 24. ACM TRANSACTIONS ON APPLIED PERCEPTION 25. ACM TRANSACTIONS ON ARCHITECTURE AND CODE OPTIMIZATION 26. ACM TRANSACTIONS ON AUTONOMOUS AND ADAPTIVE SYSTEMS 27. ACM TRANSACTIONS ON COMPUTATIONAL LOGIC 28. ACM TRANSACTIONS ON COMPUTER SYSTEMS 29. ACM TRANSACTIONS ON COMPUTER-HUMAN INTERACTION 30. ACM TRANSACTIONS ON DATABASE SYSTEMS 31. ACM TRANSACTIONS ON DESIGN AUTOMATION OF ELECTRONIC SYSTEMS 32. ACM TRANSACTIONS ON EMBEDDED COMPUTING SYSTEMS 33. ACM TRANSACTIONS ON GRAPHICS 34. ACM TRANSACTIONS ON INFORMATION AND SYSTEM SECURITY 35. ACM TRANSACTIONS ON INFORMATION SYSTEMS 36. ACM TRANSACTIONS ON INTELLIGENT SYSTEMS AND TECHNOLOGY 37. ACM TRANSACTIONS ON INTERNET TECHNOLOGY 38. ACM TRANSACTIONS ON KNOWLEDGE DISCOVERY FROM DATA 39. ACM TRANSACTIONS ON MATHEMATICAL SOFTWARE 40. ACM TRANSACTIONS ON MODELING AND COMPUTER SIMULATION 41. ACM TRANSACTIONS ON MULTIMEDIA COMPUTING COMMUNICATIONS AND APPLICATIONS 42. ACM TRANSACTIONS ON PROGRAMMING LANGUAGES AND SYSTEMS 43. ACM TRANSACTIONS ON RECONFIGURABLE TECHNOLOGY AND SYSTEMS 44. -
Publications Citing Vapourtec
Publications Citing Vapourtec Total publications as of July 2021: 736 2021 Year total as of July 2021: 44 [736] N. Amri and T. Wirth, “Flow Electrosynthesis of Sulfoxides, Sulfones, and Sulfoximines without Supporting Electrolytes,” The Journal of organic chemistry, 2021. [735] J. Baker, C. Russell, J. Gilbert, A. McCluskey and J. Sakoff, “Amino alcohol acrylonitriles as broad spectrum and tumour selective cytotoxic agents,” RSC Medicinal Chemistry, 2021. [734] Z. Bao, J. Luo, Y. Wang, T. Hu, S. Tsai, Y. Tsai, H. Wang, F. Chen, Y. Lee, T. Tsai, R. Chung and R. Liu, “Microfluidic synthesis of CsPbBr3/Cs4PbBr6 nanocrystals for inkjet printing of mini- LEDs,” Chemical Engineering Journal, vol. 426, p. 130849, 2021. [732] M. Baumann, C. Bracken and A. Batsanov, “Development of a Continuous Photochemical Benzyne-Forming Process,” SynOpen, vol. 05, no. 01, pp. 29-35, 2021. [731] M. Baumann, T. Moody, M. Smyth and S. Wharry, “Interrupted Curtius Rearrangements of Quaternary Proline Derivatives: A Flow Route to Acyclic Ketones and Unsaturated Pyrrolidines,” The Journal of organic chemistry, 2021. [730] A. Benítez-Mateos, M. Contente, D. Roura Padrosa and F. Paradisi, “Flow biocatalysis 101: design, development and applications,” Reaction Chemistry & Engineering, 2021. [729] F. Dedè, O. Piccolo and D. Vigo, “Dimethyl Fumarate: Heterogeneous Catalysis for the Development of an Innovative Flow Synthesis,” Organic Process Research & Development, vol. 25, no. 2, pp. 292-299, 2021. [728] L. Dell'Amico, T. Duhail, T. Bortolato, J. Mateos, E. Anselmi, B. Jelier, A. Togni, E. Magnier and G. Dagousset, “Radical alpha-Trifluoromethoxylation of Ketones by Means of Organic Photoredox Catalysis,” ChemRxiv, 2021. [727] K. -
GEORG WITTIG Heidelberg, Federal Republic of Germany Translation from the German Text
FROM DIYLS TO YLIDES TO MY IDYLL Nobel Lecture, 8 December 1979 by GEORG WITTIG Heidelberg, Federal Republic of Germany Translation from the German text Chemical research and mountaineering have much in common. If the goal or the summit is to be reached, both initiative and determination as well as perseverance are required. But after the hard work it is a great joy to be at the goal or the peak with its splendid panorama. However, especially in chemical research - as far as new territory is concerned - the results may sometimes be quite different: they may be disappointing or delightful. Looking back at my work in scientific research, I will confine this talk to the positive results (1). Some 50 years ago I was fascinated by an idea which I investigated experi- mentally. The question was how ring strain acts on a ring if an accumulation of phenyl groups at two neighboring carbon atoms weakens the C-C linkage and predisposes to the formation of a diradical (for brevity called diyl) (Fig. 1). Among the many experimental results (2) I choose the synthesis of the hydrocarbons 1 and 4 (3), which we thought capable of diyl formation. Starting materials were appropriate dicarboxylic esters, which we transformed into the corresponding glycols. While these were obtained under the influence of phenylmagnesium halide only in modest yield, phenyllithium proved to be superior and was readily accessible by the method of K. Ziegler, using bromobenzene and lithium. The glycolates resulting from the reaction with potassium phenylisopropylide formed - on heating with methyl iodide - the corresponding dimethyl ethers, which supplied the equivalent hydrocarbons 1 and 4 by alkali metal splitting and demetalation with tetramethylethylene dibromide. -
The Emergence of the Structure of the Molecule and the Art of Its Synthesis
Total Synthesis DOI: 10.1002/anie.200((will be filled in by the editorial staff)) The Emergence of the Structure of the Molecule and the Art of Its Synthesis K. C. Nicolaou* At the core of the science of chemistry lie the structure of the molecule, the art of its synthesis, and the design of function within it. These attributes elevate chemistry to an essential, indispensable, and powerful discipline whose impact on the life and materials sciences is paramount, undisputed, and expanding. Indeed, today the combination of structure, synthesis, and function is driving many scientific frontiers forward, including drug discovery and development, biology and biotechnology, materials science and nanotechnology, and molecular devices of all kinds. What connects structure and function is synthesis, whose flagship is total synthesis, the art of constructing the molecules of nature and their derivatives. The power of chemical synthesis at any given time is reflected and symbolized by the state of the art of total synthesis, and as such the condition and sophistication of the latter needs to be continuously nourished and advanced. In this review the understanding of the structure of the molecule, the emergence of organic synthesis, and the art of total synthesis are traced from the nineteenth century to the present day. 1. Introduction other sciences, technologies, and engineering, and how did it come to be so advanced and enabling? The power of chemistry is The celebration of Angewandte Chemie’s 125th anniversary in primarily derived from its ability to understand molecular structure, 2013 gives us the opportunity to reflect on both the past and the synthesize it, and build function within it through molecular design future of the central, and yet universal and ubiquitous, science of and synthesis. -
The Ziegler Catalysts Serendipity Or Systematic Research?
GENERAL ARTICLE The Ziegler Catalysts Serendipity or Systematic Research? S Sivaram Fifty-four years after the Nobel Prize was awarded to Karl Ziegler and Giulio Natta for the polymerization of olefins by complex organometallic catalysts, the field continues to elicit enormous interest, both from the academia and the indus- try. Furthermore, this chemistry and technology occupy a high ground in the annals of 20th-century science. The el- S Sivaram is currently a egance and simplicity of Ziegler’s chemistry continue to as- Honorary Professor and tound researchers even today, and the enormous impact this INSA Senior Scientist at the chemistry has had on the quality of our life is truly incred- Indian Institute of Science Education and Research, ible. Polyethylene, produced using Ziegler’s chemistry has Pune. Prior to this, he was a touched every aspect of common man’s life, so much so that, CSIR-Bhatnagar Fellow today it is impossible to imagine life on this planet without (2011–16) and Director of polyethylene. Equally fascinating is the story of how Ziegler CSIR-NCL (2002–10). Apart from pursuing research in stumbled on this most impactful discovery. Ziegler’s disci- polymer chemistry, Sivaram pline and rigor in systematically following every lead in the is a keen student of history of laboratory, however trivial it seemed, and his penchant for science and the origin and understanding the basics of science culminated in 1954, with evolution of thoughts that drive the scientific enterprise. a simple reaction for converting ethylene to polyethylene, the (www.swaminathansivaram.in) quintessential carbon-carbon (C-C) bond forming reaction. -
Image-Brochure-LNLM-2020-LQ.Pdf
NOBEL LAUREATES PARTICIPATING IN LINDAU EVENTS SINCE 1951 Peter Agre | George A. Akerlof | Kurt Alder | Zhores I. Alferov | Hannes Alfvén | Sidney Altman | Hiroshi Amano | Philip W. Anderson | Christian B. Anfinsen | Edward V. Appleton | Werner Arber | Frances H. Arnold | Robert J. Aumann | Julius Axelrod | Abhijit Banerjee | John Bardeen | Barry C. Barish | Françoise Barré-Sinoussi | Derek H. R. Barton | Nicolay G. Basov | George W. Beadle | J. Georg Bednorz | Georg von Békésy |Eric Betzig | Bruce A. Beutler | Gerd Binnig | J. Michael Bishop | James W. Black | Elizabeth H. Blackburn | Patrick M. S. Blackett | Günter Blobel | Konrad Bloch | Felix Bloch | Nicolaas Bloembergen | Baruch S. Blumberg | Niels Bohr | Max Born | Paul Boyer | William Lawrence Bragg | Willy Brandt | Walter H. Brattain | Bertram N. Brockhouse | Herbert C. Brown | James M. Buchanan Jr. | Frank Burnet | Adolf F. Butenandt | Melvin Calvin Thomas R. Cech | Martin Chalfie | Subrahmanyan Chandrasekhar | Pavel A. Cherenkov | Steven Chu | Aaron Ciechanover | Albert Claude | John Cockcroft | Claude Cohen- Tannoudji | Leon N. Cooper | Carl Cori | Allan M. Cormack | John Cornforth André F. Cournand | Francis Crick | James Cronin | Paul J. Crutzen | Robert F. Curl Jr. | Henrik Dam | Jean Dausset | Angus S. Deaton | Gérard Debreu | Petrus Debye | Hans G. Dehmelt | Johann Deisenhofer Peter A. Diamond | Paul A. M. Dirac | Peter C. Doherty | Gerhard Domagk | Esther Duflo | Renato Dulbecco | Christian de Duve John Eccles | Gerald M. Edelman | Manfred Eigen | Gertrude B. Elion | Robert F. Engle III | François Englert | Richard R. Ernst Gerhard Ertl | Leo Esaki | Ulf von Euler | Hans von Euler- Chelpin | Martin J. Evans | John B. Fenn | Bernard L. Feringa Albert Fert | Ernst O. Fischer | Edmond H. Fischer | Val Fitch | Paul J. -
Spotlights on Our Sister Journals: Chem. Asian J. 10/2016
On these pages, we feature aselection computer,click on any of the items to of the excellent work that has recently read the full article. Otherwise please been published in our sister journals. see the DOIs for easy online access If you are reading these pages on a through Wiley Online Library. Anion Recognition M. Albrecht,* H. Yi,O.Kçksal, G. Raabe, F. Pan, A. Valkonen, K. Rissanen CF3:AnElectron-Withdrawing Substituent for Aromatic Anion Acceptors?“Side-On” versus“On-Top” Binding of Halides The place to be! Asubtle interplay of electronic effects at the aro- matic system and at aromatic Hatoms in connection with the polar- izability of the anion controlsthe position of anions in respecttoCF3 substituted aromatics. Chem. Eur.J. DOI: 10.1002/chem.201600249 Protein-Protein Interactions A. López, F. Herranz-Trillo, M. Kotev,M.Gairí, V. Guallar,P.Bernadó, O. Millet, T. Tarragó, E. Giralt* Active-Site-DirectedInhibitors of Prolyl Oligopeptidase Abolish Its Conformational Dynamics Aspoke on the wheels:Acombined approach based on NMR and SAXS experiments complemented by MD simulations has shown that active-site-directed inhibitors of prolyl oligopeptidase (POP) abolish the open/closed conformationalequilibrium. Probably,abol- ishing conformational dynamics by inhibitors causes significant alter- ations to molecular recognition events of POP. ChemBioChem DOI: 10.1002/cbic.201600102 Nanocrystals N. Pradhan* Red-Tuned Mn d–d Emission in Doped Semiconductor Nanocrystals Iprefer it in red:Emissiontuned from yellow to red can be ob- tained from Mn2+-doped semiconductor nanocrystals. By changing the environmentofthe Mn dopant in the crystal lattice,the Mn con- centration and the surfaceligands,the ligand-field splitting, and ChemPhysChem therefore also the Mn d–d emission, can be tuned. -
History of Organometallic Chemistry 7
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A Review of Battery Materials As CDI Electrodes for Desalination
water Review A Review of Battery Materials as CDI Electrodes for Desalination Yuxin Jiang 1, Sikpaam Issaka Alhassan 1, Dun Wei 1 and Haiying Wang 1,2,3,* 1 Department of Environmental Engineering, School of Metallurgy and Environment, Central South University, Changsha 410083, China; [email protected] (Y.J.); [email protected] (S.I.A.); [email protected] (D.W.) 2 Chinese National Engineering Center for Control and Treatment of Heavy Metals Pollution, Changsha 410083, China 3 Water Pollution Control Technology Key Lab of Hunan Province, Changsha 410083, China * Correspondence: [email protected]; Tel.: +86-0731-8883-0511 Received: 15 September 2020; Accepted: 19 October 2020; Published: 28 October 2020 Abstract: The world is suffering from chronic water shortage due to the increasing population, water pollution and industrialization. Desalinating saline water offers a rational choice to produce fresh water thus resolving the crisis. Among various kinds of desalination technologies, capacitive deionization (CDI) is of significant potential owing to the facile process, low energy consumption, mild working conditions, easy regeneration, low cost and the absence of secondary pollution. The electrode material is an essential component for desalination performance. The most used electrode material is carbon-based material, which suffers from low desalination capacity (under 15 mg g 1). However, · − the desalination of saline water with the CDI method is usually the charging process of a battery or supercapacitor. The electrochemical capacity of battery electrode material is relatively high because of the larger scale of charge transfer due to the redox reaction, thus leading to a larger desalination capacity in the CDI system.