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Peer reviewedGillespie, Ronald J.; And Others – Journal of Chemical Education, 1996
Presents suggestions for alternative presentations of some of the material that usually forms part of the introductory chemistry course. Emphasizes development of concepts from experimental results. Discusses electronic configurations and quantum numbers, experimental evidence for electron configurations, deducing the shell model from the periodic…
Descriptors: Atomic Structure, Chemistry, Higher Education, Inquiry
Peer reviewedJohnson, Kristin A.; Schreiner, Rodney – Journal of Chemical Education, 2001
Flame tests are used for demonstration of atomic structure. Describes a demonstration that uses spray bottles filled with methanol and a variety of salts to produce a brilliantly colored flame. (Contains 11 references.) (ASK)
Descriptors: Atomic Structure, Chemistry, College Science, Demonstrations (Science)
Peer reviewedBolton, Ed; Richter, Mark M. – Journal of Chemical Education, 2001
Electrochemiluminescence involves the production of light near an electrode surface by generating species that can undergo highly energetic electron transfer reactions. Presents a demonstration that uses Ru(bpy)32+ (bpy = 2,2'-bipyridine) as the light-emitting molecule and tri-n-propylamine (C9H21N) as a coreactant. (Contains 25 references.) (ASK)
Descriptors: Atomic Structure, Chemistry, College Science, Demonstrations (Science)
Peer reviewedGillespie, Ronald J.; And Others – Journal of Chemical Education, 1996
Presents an alternative approach to bonding and geometry--the electron domain model--which avoids some of the problems with the conventional approach. Discusses difficulties with the orbital model at the introductory level, electron spin and the Pauli exclusion principle, electron pair domains, nonequivalent domains, multiple bonds, and origins…
Descriptors: Atomic Structure, Chemical Bonding, Chemistry, Higher Education
Peer reviewedSpencer, James; And Others – Journal of Chemical Education, 1996
Shows how ionization energies provide a convenient method for obtaining electronegativity values that is simpler than the conventional methods. Demonstrates how approximate atomic charges can be calculated for polar molecules and how this method of determining electronegativities may lead to deeper insights than are typically possible for the…
Descriptors: Atomic Structure, Chemical Bonding, Chemistry, Higher Education
Peer reviewedAllan, Michael – Journal of Chemical Education, 1987
Discusses electron-loss spectroscopy and the experimentally observed excitation energies in terms of qualitative MO theory. Reviews information on photoelectron spectroscopy and electron transmission spectroscopy and their relation to the occupied and unoccupied orbital levels. Focuses on teaching applications. (ML)
Descriptors: Atomic Structure, Chemistry, College Science, Higher Education
Peer reviewedRappon, Manit; Greer, John M. – Journal of Chemical Education, 1987
Describes how a Polaroid camera can be modified for spectroscopic experiments. Reviews experimental procedures and discusses results that students can obtain within one normal laboratory period. Suggests additional experiments for investigating emission from other sources. (ML)
Descriptors: Atomic Structure, Chemical Analysis, Chemistry, College Science
Peer reviewedLacey, Anthony R. – Journal of Chemical Education, 1987
Describes a classroom experiment designed to teach students the fundamentals underlying the normal coordinate analysis procedure of a polyatomic molecule. Uses a reverse procedure from traditional experiments of this type by providing the values for the force field and working backwards. (TW)
Descriptors: Atomic Structure, Chemical Bonding, Chemistry, College Science
Peer reviewedCiparick, Joseph D. – Journal of Chemical Education, 1988
Demonstrates a variety of electrical phenomena to help explain atomic structure. Topics include: establishing electrical properties, electrochemistry, and electrostatic charges. Recommends demonstration equipment needed and an explanation of each. (MVL)
Descriptors: Atomic Structure, Atomic Theory, Chemistry, Instruction
Peer reviewedEnemark, John H. – Journal of Chemical Education, 1988
Presents the organization of a one-semester graduate course in structural chemistry including lectures and problems. Discusses the coverage of diffraction from real crystals and structure determination. Summarizes experiments on real crystals conducted by students in the X-ray laboratory. (CW)
Descriptors: Atomic Structure, Chemistry, College Science, Course Content
Peer reviewedReiss, Eugene – Journal of Chemical Education, 1988
Discusses a method to use several diffraction gratings at one time with one hydrogen bulb. Describes the experimental set up, background, and results. (CW)
Descriptors: Atomic Structure, Chemical Analysis, Chemistry, Instructional Materials
Peer reviewedMurch, G. E. – American Journal of Physics, 1979
Describes the phenomenological and microscopic aspects of solid-state diffusion in an electric field and presents a Monte Carlo method which is used to stimulate an atomistic model of diffusion in an electric field. The Nernst-Einstein relation is also discussed. (HM)
Descriptors: Atomic Structure, College Science, Demonstrations (Educational), Electricity
Peer reviewedRoth, Wolff-Michael – Journal of Science Teacher Education, 1992
Compared the effects of participation in six extra credit activities for teaching the concept of matter on female preservice elementary school teachers (n=9) to a control group (n=8). Pre- and posttests to assess changes in the students' understanding of phenomena associated with matter indicated significant changes in experimental students'…
Descriptors: Atomic Structure, Chemical Reactions, Chemistry, Concept Formation
Orna, Mary Virginia, Ed.; And Others – 1994
ChemSource is designed as a strategy to help preservice and inservice high school chemistry teachers promote student learning more effectively. Its major premise is that well-designed laboratory investigations are an important avenue for cultivating student interest, engagement, and meaningful learning in chemistry. The SourceBook component of…
Descriptors: Atomic Structure, Biochemistry, Chemical Bonding, Chemical Reactions
Peer reviewedLoehlin, James H.; Norton, Alexandra P. – Journal of Chemical Education, 1988
Describes a crystallography experiment using both diffraction-angle and diffraction-intensity information to determine the lattice constant and a lattice independent molecular parameter, while still employing standard X-ray powder diffraction techniques. Details the method, experimental details, and analysis for this activity. (CW)
Descriptors: Atomic Structure, Chemistry, College Science, Crystallography
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