Physical Organic Chemistry Applies Physical Principles (Such As Thermodynamics, Kinetics, And Quantum Mechanics) To The Study Of Chemical Reactions That Involve Organic Compounds. In Particular, Physical Organic Chemists Are Interested In The Mechanisms That Govern The Transition Of Reactants To Products And To Predict The Outcome Of Reaction Profiles.
Computational Organic Chemistry Is A Branch Of Organic Chemistry That Uses Computer Techniques To Solve Typical Problems In Organic Chemistry Such As Molecular Structure, Reactivity, Transition State, And Solvation. This Field Combines Computational Techniques Such As Monte Carlo, Molecular Dynamics, And Quantum Mechanical Calculations With More Traditional Methods Including Spectroscopy And X-Ray Crystallography. By Combining These Methods, Chemists Can Gain A Deeper Insight Into The Organic Chemistry Of A Particular Compound. Furthermore, With The Availability Of Powerful Computers, Chemists Can Now Predict The Possible Outcomes Of Reactions That Could Occur In The Laboratory, As Well As Design New Molecules Tailored To Meet Specific Tasks. The Combination Of Physical And Computational Organic Chemistry Is An Important Part Of Modern Organic Research. By Using Both Methods, Chemists Can Better Understand The Dynamics Of A Given Molecule, Predict Its Behavior Under Different Conditions, And Design New Molecules. Furthermore, Some Research Projects In Organic Chemistry Are Being Designed To Use Both Physical And Computational Organic Approaches In Order To Gain A Deeper Understanding Of A Given Molecule Or Reaction. For Example, In An Effort To Understand The Molecular Basis Of Enzyme Inhibition, Chemists Have Used Both Physical And Computational Organic Techniques To Better Understand How Small Molecules Can Block The Active Site Of An Enzyme. In Conclusion, Physical Organic Chemistry And Computational Organic Chemistry Are Both Important Fields In Organic Research. By Combining Both Methods, Chemists Can Obtain Deeper Insights Into The Nature Of Organic Compounds And Chemical Reactions. With Further Advancements In Technology, The Use Of Both Methods Together Is Becoming Increasingly Important In Organic Research.
Title : Rational design of battery cathode materials
Kyeongjae Cho, University of Texas at Dallas, United States
Title : Pharmaceutical chemistry studies of novel biologics and drugs for chronic obstructive pulmonary disease
Yong Xiao Wang, Albany Medical College, United States
Title : Theoretical modeling in organic nanophotonics: Processes and devices
Alexander Bagaturyants, Retired, Israel
Title : Hot atom chemistry - Past, present and future
Shree Niwas Chaturvedi, Centre for Aptitude Analysis and Talent Search, India
Title : Chemical engineering of vanadium, titanium or chromium zeolites for application in environmental catalysis
Stanislaw Dzwigaj, Sorbonne Université, France
Title : Distal functionalization via transition metal catalysis
Haibo Ge, Texas Tech University, United States