Chemistry-Study and teaching; Chemistry, Inorganic; Transition metals; Solid state chemistry; Materials science
An annotated bibliography of Inorganic Chemistry, with links to sources of chemical data on the World Wide Web involving general information, non-transition metals, transition metals, solid-state chemistry and materials science.
Chemistry-Study and teaching; Molecules-Models; Lewis dot structures; Molecular structure
Experiment designed to acquaint a student with selected but instructive techniques of molecular modeling. It involves using computational methods to answer chemical questions.
Chemistry-Study and teaching; Atomic structure; Molecular structure; Examinations; Atomic orbitals; Questions and answers; Lewis dot structures; Chemical bonds
Questions and answers for the third midterm examination of Fall 1999, involving six multi-step problems covering atomic and molecular structure.
Chemistry-Study and teaching; Handouts; Homework; Problem solving; Chemical bonds; Quantum theory; Molecular orbitals; Molecules-Models
Three multi-part questions with the goal of applying the theory of quantum mechanics and methods of molecular modeling to a diatomic molecule and the polyatomic molecule. It deals with molecular orbital theory and chemical bonding.
Chemistry-Study and teaching; Homework; Molecules-Models; Chemical bonds; Quantum chemistry; Dimers
Exercise in which the task is to perform calculations and alter structures relating to dimerization reactions and analyze the results of data similarities and differences.
Chemistry-Study and teaching; Homework; Molecular orbitals; Chemical bonds
Introduction: In class we applied molecular orbital theory to a few simple examples with the goal of understanding the nature of the chemical bond. The qualitative approach is complemented by numerical calculations and the interpretation of these...
Chemistry-Study and teaching; Examinations; Questions and answers; Molecular structure; Chemical bonds
Image used as the answer to part of the first question on the examination. It shows the molecular structure of caffeine, indicating where single, double or triple bonds are located as well as lone pairs of electrons.
