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Dew, Vinita C. – Journal of Chemical Education, 1987
Described are infrared windows made from Tupperware and polyethylene coffee can lids that provide acceptable spectra for low-frequency infrared. (RH)
Descriptors: Chemical Analysis, Chemistry, College Science, Laboratory Equipment

Owen, Noel L.; Wood, Steven G. – Journal of Chemical Education, 1987
Described is a quick, easy, and cheap, but effective method of obtaining infrared spectra of solids and nonvolatile liquids by Fourier transform infrared spectroscopy. The technique uses tissue paper as a support matrix. (RH)
Descriptors: Chemical Analysis, Chemistry, College Science, Laboratory Equipment

Wenzel, Thomas J.; Russett, Mark D. – Journal of Chemical Education, 1987
Described is an alternative method to infrared spectroscopy for the quantification of xylene mixtures. The method employs nuclear magnetic resonance spectroscopy. (RH)
Descriptors: Chemical Analysis, Chemistry, College Science, Laboratory Equipment

Glasser, L. – Journal of Chemical Education, 1987
This paper explores how Fourier Transform (FT) mimics spectral transformation, how this property can be exploited to advantage in spectroscopy, and how the FT can be used in data treatment. A table displays a number of important FT serial/spectral pairs related by Fourier Transformations. A bibliography and listing of computer software related to…
Descriptors: Chemical Analysis, Chemical Reactions, Chemistry, College Science

Lipkowitz, K. B.; Mooney, J. L. – Journal of Chemical Education, 1987
Described is a laboratory exercise that uses nuclear magnetic resonance to monitor enantiomeric excess in asymmetric reductions. The laboratory exercise has been used successfully with undergraduate organic chemistry students. (RH)
Descriptors: Chemical Analysis, Chemistry, College Science, Laboratory Experiments

Leggett, D. J. – Analytical Chemistry, 1981
Reports results of a survey in which 110 universities were selected to respond to questions regarding approximate age and cost of the instruments used in three major areas: separations, spectroscopy, and electroanalysis. Respondents (N=41) also indicated which pieces of equipment were used in undergraduate courses or were used for research. (CS)
Descriptors: Chemical Analysis, Chemistry, College Science, Higher Education

McGregor, David A.; And Others – Analytical Chemistry, 1988
Addresses solution nonmetal determinations on a fundamental level. Characterizes research in this area of chemical instrumentation. Discusses the fundamental limitations of nonmetal atomic spectrometry, the status of nonmetals and atomic spectroscopic techniques, and current directions in solution nonmetal determinations. (CW)
Descriptors: Atomic Structure, Chemical Analysis, Chemistry, College Science

Kinard, W. Frank – Journal of Chemical Education, 1980
Describes the use of infrared and atomic absorption spectrometry in an introductory chemical oceanography course to introduce students to carbonate mineralogy by having them determine both the crystal structure and the magnesium content of seashells that they have collected. (Author/JN)
Descriptors: Chemical Analysis, Chemistry, College Science, Higher Education

Cotter, Robert J. – Analytical Chemistry, 1988
Discusses the history and development of Plasma Desorption Mass Spectrometry to determine molecular weights and structures of proteins and polymers. Outlines theory, instrumentation, and sample preparation commonly used. Gives several examples of resulting spectra. (ML)
Descriptors: Biochemistry, Chemical Analysis, Chemistry, College Science