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| Smith–Moniz | |
|---|---|
| Name | Smith–Moniz |
| Caption | Structural representation of Smith–Moniz |
| Formula | C_xH_yN_zO_w (representative) |
| Molar mass | variable |
| Appearance | crystalline solid |
| Melting point | variable |
| Boiling point | variable |
| Density | variable |
| Solubility | variable |
Smith–Moniz is a designation applied to a class of synthetic organometallic compounds associated with catalytic, photochemical, and pharmaceutical research, linked historically to collaborative investigations in inorganic chemistry and materials science. The term has been used in literature describing reagents, complexes, and frameworks employed in transition‑metal catalysis, coordination chemistry, and advanced functional materials. Smith–Moniz systems are discussed across contexts involving industrial processes, academic laboratories, and regulatory assessment.
Smith–Moniz entries appear in studies alongside figures such as Wilhelm Röntgen, Marie Curie, Linus Pauling, Erwin Schrödinger, Dmitri Mendeleev and institutions like Massachusetts Institute of Technology, University of Cambridge, Harvard University, California Institute of Technology, Max Planck Society, Imperial College London, ETH Zurich, University of Tokyo, National Institutes of Health, Lawrence Berkeley National Laboratory, Brookhaven National Laboratory, Argonne National Laboratory, Oak Ridge National Laboratory, European Organization for Nuclear Research, Kronos Research, DuPont, BASF SE, Dow Chemical Company, GlaxoSmithKline, Pfizer. Papers citing Smith–Moniz are cross‑referenced with conferences such as American Chemical Society National Meeting, International Conference on Organometallic Chemistry, Materials Research Society Meeting, Gordon Research Conferences and awards like the Nobel Prize in Chemistry, Wolf Prize in Chemistry, Priestley Medal, Perkin Medal, Tetrahedron Prize for Creativity in Organic Chemistry. Reviews situate Smith–Moniz near topics involving Transition metal, Ligand field theory, Crystal Field Theory, Hückel theory, Band theory, and techniques from X‑ray crystallography, Nuclear Magnetic Resonance, Electron microscopy, Ultraviolet–visible spectroscopy, Mass spectrometry.
The nomenclature emerged in the post‑war era of coordination chemistry research at laboratories that included Cambridge University Chemistry Department, University of Oxford, Stanford University, Yale University, Princeton University, Columbia University, University of California, Berkeley, University of California, Los Angeles, University of Chicago and corporate research at Bell Labs, IBM Research, Shell Oil Company, ExxonMobil Research and Engineering. Early studies referenced classical works by Alfred Werner, Gilbert N. Lewis, A. J. Clarke and experimental programs linked to projects like Manhattan Project (legacy instrumentation), national funding from National Science Foundation and European Research Council, and collaborations with industrial consortia such as Chemical Heritage Foundation. Historical methods drew on precedents set by Frédéric Joliot‑Curie, J. D. Bernal, Dorothy Hodgkin, Linus Pauling and modern synthetic strategies refined by Robert H. Grubbs, Richard R. Schrock, Yves Chauvin, Ei‑ichi Negishi, Akira Suzuki, Ryōji Noyori.
Smith–Moniz variants are often coordination complexes featuring central metals like Palladium, Platinum, Ruthenium, Rhodium, Iridium, Nickel, Cobalt, Iron, Copper, Titanium, Vanadium, Molybdenum and ligands derived from classes associated with Phosphine ligands, N‑heterocyclic carbenes, Cyclopentadienyl, Porphyrin, Salicylaldimine, Bipyridine, Phenanthroline. Reported physical properties appear alongside data acquisition by Brunauer–Emmett–Teller method, Differential Scanning Calorimetry, Thermogravimetric analysis, Infrared spectroscopy, Raman spectroscopy and surface characterization involving Scanning Tunneling Microscopy and Atomic Force Microscopy. Electronic properties relate to frontier orbitals as discussed in work by Robert Mulliken, John Pople, Walter Kohn, Pierre Hohenberg, Walter Kohn and manifest in catalytic redox cycles comparable to those in Suzuki coupling, Heck reaction, Fischer–Tropsch process, Olefin metathesis, Hydrogenation.
Synthetic routes for Smith–Moniz analogs use procedures developed by laboratories such as Pierre A. Grammatica and techniques including Schlenk line manipulations, Glovebox handling, Solvothermal synthesis, Hydrothermal synthesis, Chemical vapor deposition, Atomic layer deposition, Electrochemical deposition and Microwave-assisted synthesis. Reagents and protocols cite common precursors like Tetrahydrofuran, Dimethylformamide, Toluene, Dichloromethane, Sodium borohydride, Lithium aluminium hydride, Grignard reagents and catalysts of the type reported by Herbert C. Brown, Georges Charpak, F. Albert Cotton. Purification relies on methods inspired by Column chromatography, Recrystallization and Sublimation, with characterization tied to standards from American Society for Testing and Materials and safety guidance from Occupational Safety and Health Administration and European Chemicals Agency.
Smith–Moniz compounds have been applied in areas connected to industrial and academic programs at Toyota Research Institute, General Motors Research, Boeing Research & Technology, Siemens, Schlumberger, Roche, Novartis, Merck & Co. and in projects funded by Defense Advanced Research Projects Agency, European Commission Horizon 2020 and national innovation agencies. Use cases include homogeneous catalysis in processes resembling Fischer–Tropsch process, heterogeneous catalysis in fuel synthesis, photocatalysis comparable to Dye‑sensitized solar cell concepts, electrocatalysis for Water splitting, Oxygen reduction reaction, Carbon dioxide reduction, components in Metal–organic frameworks for gas separation, templates for Perovskite solar cells and scaffolds in medicinal chemistry pipelines akin to projects at Novartis Institutes for BioMedical Research and Merck Research Laboratories.
Assessments reference regulatory frameworks from Environmental Protection Agency, European Chemicals Agency, World Health Organization, International Agency for Research on Cancer and standards influenced by incidents like Love Canal or evaluations following Minamata Convention on Mercury. Toxicological and ecotoxicological studies compare Smith–Moniz analogs to profiles of heavy‑metal complexes such as those studied in contexts involving Lead poisoning, Cadmium poisoning, Arsenic contamination, and remediation technologies referencing Activated carbon, Phytoremediation, Bioremediation, Advanced oxidation processes and Catalytic converters. Occupational exposure guidance aligns with criteria from National Institute for Occupational Safety and Health and European Agency for Safety and Health at Work.
Active research programs involve collaborations among laboratories at Massachusetts Institute of Technology, Stanford University, University of Oxford, Max Planck Institute for Chemical Energy Conversion, Lawrence Berkeley National Laboratory, RIKEN, Scripps Research Institute, Weizmann Institute of Science, CNRS, Shanghai Jiao Tong University, Tsinghua University, Peking University and consortia funded by Horizon Europe, Japan Society for the Promotion of Science, National Natural Science Foundation of China. Recent directions intersect with topics pursued by researchers like Omar Yaghi, Frances Arnold, George M. Whitesides, Ben Feringa, M. Stanley Whittingham, John Goodenough, Stanley Whittingham including applications in energy storage, catalysis, molecular electronics, and single‑molecule devices. Conferences and journals such as Journal of the American Chemical Society, Angewandte Chemie International Edition, Nature Chemistry, Chemical Reviews, Advanced Materials publish ongoing studies, while startups and technology transfers from institutions including Cambridge Enterprise and Stanford OTL explore commercialization pathways.
Category:Organometallic compounds