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Teaching crystallography to undergraduate physical chemistry students

Teaching goals, laboratory experiments and homework assignments are described for teaching crystallography as part of two undergraduate physical chemistry courses. A two‐week teaching module is suggested for introductory physical chemistry, including six to eight classroom sessions, several laborato...

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Published in:Journal of applied crystallography 2010-10, Vol.43 (5-2), p.1139-1143
Main Author: Pett, Virginia B.
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Language:English
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description Teaching goals, laboratory experiments and homework assignments are described for teaching crystallography as part of two undergraduate physical chemistry courses. A two‐week teaching module is suggested for introductory physical chemistry, including six to eight classroom sessions, several laboratory experiences and a 3 h computer‐based session, to acquaint undergraduate physical chemistry students with crystals, diffraction patterns, the mathematics of structure determination by X‐ray diffraction, data collection, structure solution and the chemical insights available from crystal structure information. Student projects and laboratory work for three to four weeks of an advanced physical chemistry course are presented. Topics such as symmetry operators, space groups, systematic extinctions, methods of solving the phase problem, the Patterson map, anomalous scattering, synchrotron radiation, crystallographic refinement, hydrogen bonding and neutron diffraction all lead to the goal of understanding and evaluating a crystallographic journal article. Many of the ideas presented here could also be adapted for inorganic chemistry courses.
doi_str_mv 10.1107/S0021889810028384
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subjects Chemistry
College students
Crystal structure
crystallographic education
Crystallography
Diffraction patterns
Education
Mathematical models
Neutron diffraction
Physical chemistry
Students
Teaching
teaching materials
title Teaching crystallography to undergraduate physical chemistry students
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