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Faculty of Science Handbook, Session 2017/2018

               values, Zeeman interaction, hyperfine coupling, hyperfine  and rearrangements of carbocations; tandem and cascade
               anisotropy, applications                       cyclizations.  Mechanistic  details  of  selected  classes  of
               Multinuclear  NMR:  Introduction,  theoretic  background,  organic  reactions  such  as  nucleophilic  substitution,
               applications                                   hydrolysis,   polar  rearrangements,   electron-transfer
                                                              reactions,  photochemical  reactions.  Pericyclic  reactions:
               Non-spectroscopic techniques:                  molecular  orbitals;  conservation  of  orbital  symmetry  in
               Concept of magnetic dipoles and magnetic susceptibility,  concerted reactions; theory (frontier orbital method, use of
               Ideal  paramagnets  (Curie  Law)  and  weakly  interacting  correlation  diagrams,  aromatic  transition  state approach)
               paramagnets (Curie-Weiss), types of magnetic response,  and  applications  of  electrocyclic  reactions,  sigmatropic
               experimental  techniques  of  magnetic  susceptibility  rearrangements, and cycloadditions, including tandem and
               measurements in solution and solid state.      cascade processes, in organic synthesis.
               Other  related  methods,  eg.  xray  diffractometry,  PXRD,
               mass spectrometry.                             Assessment Methods:
                                                              Practical:           25%
               Assessment Methods:                            Continuous assessment:  15%
               Practical:            25%                      Final examination:   60%
               Continuous assessment:  15%
               Final examination:    60%                      Medium of instruction:
                                                              English
               Medium of instruction:
               English                                        Soft skills:
                                                              CT1 – 3
               Soft skills:
               CT1 – 3                                        References:
                                                              1. Francis  A.  Carey  and  Richard  J.  Sundberg, Advanced
               References:                                     Organic  Chemistry,  Part  B:  Reactions  and  Synthesis,
               1.C.  M.  A.  Brett  and  A.  M.  O.  Brett,  Electrochemistry  4 . Ed., Plenum Press, New York & London, 2002.
                                                                th
                 Principles, Methods and Applications, Oxford Uni. Press  2. E.L. Eliel, S.H. Wilen, L.M. Mander, Stereochemistry of
                 Inc., 1993.                                   Organic Compounds, John Wiley & Sons Canada, Ltd.,
               2.P. T.  Kissinger  and  W.  R.  Heinemmen,  Laboratory  1994.
                 Techniques  in  Electroanalytical  Chemistry,  Marcel  3. T.H. Lowry, K.S. Richardson, Mechanism and Theory in
                 Dekker Inc., 1984.                            Organic  Chemistry,  3 rd  Ed.,  Benjamin-Cummings
               3.D. Pletcher and F.C. Walsh, Industrial Electrochemistry,  Publishing Company, 1987.
                 Blackie Academic and Professional, 1993.     4. J.M. Harris and C.C. Wamser, Fundamentals of Organic
               4.D.  B.  Hibbert,  Introduction  to  Electrochemistry,  Reaction Mechanisms, Wiley & Sons, 1976.
                 MacMillan Press Ltd., 1993.
               5.K.  B.  Oldham,  J.  C.  Myland,  A.  M.  Bond,
                 Electrochemical   Science   and   Technology:  SID3003 ADVANCED PHYSICAL CHEMISTRY
                 Fundamentals  and  Applications,  John  Wiley  &  Sons,
                 Ltd, 2011.                                   Molecular Quantum Mechanics
                                                              Approximate  methods:    variational  method  and  time
                                                              independent  Perturbation  theory;    Electronic  structure  of
               SID3002 ADVANCED ORGANIC CHEMISTRY             molecules:  Born-Oppenheimer  approximation,  molecular
                                                              orbital  theory,  valence-bond  theory,  Huckel  molecular
               Brief introduction to organic synthesis: disconnections and  orbital  theory,  electron  configuration,  Slater  determinant,
               retrosynthetic analysis.                       angular  momentum  coupling,  molecule  terms,  spin-orbit
                                                              and  other  interactions,  symmetry,  molecule  spectra  and
               Use of compounds incorporating main group elements (B,  selection rules; Hartree-Fock self-consistent-field method,
               S,  Si,  P,  mainly;  and,  Sn,  Se,  Al)  in  organic  functional  other ab initio methods and hybrid systems.
               group transformations;
               Use of transition metals in C-C bond formation (e.g., Heck,  Molecular Approach to Thermodynamics
               Suzuki,  Stille, Negishi,  Sonogashira,  Kumada,  McMurry,  The  fundamentals  of  statistical  mechanics  from  the
               etc.); Alkene metathesis.                      definitions of molecular interactions giving a set of energy
                                                              levels  for  N-molecule  systems.    Statistical  treatment  to
               Stereochemistry:  Introduction  to  asymmetric  synthesis,  obtain  a  distribution  of  the  most  probable  energy
               axial  chirality,  importance  of  enantiopure  compounds,  configuration or    Boltzmann distribution.  Introduction to
               chiral  pool;  selected  examples  of  asymmetric  synthesis  partition  function  of  molecules  containing  all  the
               including hydroboration, hydride reduction, hydrogenation,  information  on  N-molecule  systems.    Ensemble  concept,
               epoxidation, dihydroxylation, and aminohydroxylation, use  incorporated  partition  function  and  its  relation  to
               of  chiral  auxiliaries  in  enolate  alkylation,  crossed-aldol  thermodynamic  properties.  Intermolecular  forces  for
               additions, and Diels-Alder cycloaddition, etc.  various systems including liquid and soft matters. Simple
                                                              applications of this method in various chemical problems.
               Selected  total  syntheses  of  biologically-active  natural
               products  of  contemporary  significance  (e.g.,  taxoids;  Application
               macrolides, e.g.,  epothilones; Catharanthus bisindoles;   Chemical  Kinetics  and the  Dynamics  of  Reactions
               prostanoids; steroids; etc.).                   Diffusion controlled reactions.  Activated complex theory
                                                               and  reactions  in solutions.  The  dynamics  of molecular
               Reactive  intermediates  in  organic  chemistry  including  collisions.   The   kinetics   of   fast   reactions.
               carbocations,  free  radicals,  carbenes,  nitrenes,  and  Thermodynamics and kinetics of adsorption. Structure,
               radical-ions.  Chemistry  of  free  radicals:  reactions  and  Stability  and  reactivity  in  different  state  of matter. The
               mechanisms  of  free  radicals  including  abstraction,  properties of nonequilibrium.
               addition,  rearrangement,  cyclization  and  fragmentation;
               applications  of  radical  reactions  in  organic  synthesis;   Photochemistry
               reactions  of  carbenes,  carbenoids,  nitrenes,  and  ion-  Kinetics of photophysical and photochemical processes.
               radicals, and applications in synthesis. Formation, stability,  Timescales  of  photophysical  process,  quantum  yield,


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