The Chemical Educator
ISSN: 1430-4171 (electronic version)
Abstract Volume 12
Issue 2 (2007) pp 102-124
Visualization Exercises with Fullerenes, Nanotubes and Nanoparticles: From NanoGears and Quantum Computers to Protein Folding and Neutrinos
Thomas J. Manning*, Justin D. Mann, Karen Stewart, Andrey Asadchev, James K. Jones, Sam Zipperer, Roderick Turner, Giso Abadi,† and Dennis Phillips‡
Department of Chemistry, Valdosta State University, Valdosta, GA 31698, firstname.lastname@example.org
Published online: 1 April 2007
Abstract. A series of computer based exercises are used to introduce nanostructures into an undergraduate curriculum. Fullerenes and nanotubes can be challenging to assemble on a program such as Spartan. Most of the structures have various isomers and rings that contain five, six or seven carbon atoms. Using a systematic approach based on a numerical nomenclature system (C60 = 5 55 75 510 75 55 5 vs. 565(56)5(65)5655) students can successfully build dozens of these structures. The paper opens with nano architectural approaches to building fullerenes such as C60, C70, C48N12, C96 and C260. The second set of exercises focus on strategies associated with larger materials such as single walled carbon nanotubes (SWNT), SWNTs as templates for protein structures, ss-DNA-SWNTs, single molecule magnets such as Mn12, and a metal oxide nanoparticle such as Fe and ZnO. The final component bridges the gap between modeling structures on a computer with experimental mass mass spectrometer data. For example, TOF-MS data of C60 is used to compare spreadsheet techniques to integrate the isotopic peaks and FT-ICR isotopic data of C60 for several nuclear chemistry concepts students encounter in undergraduate courses. The next exercise was derived from an exploratory laboratory conducted at the National High Field Magnet laboratory and is centered on aza-fullerenes and polypyrrole. This data introduces students to some unusual nanostructures such as bucky-bowls, hydrogenated aza-fullerenes, catenanes, pretzelanes and molecular knots. Finally, a series of advanced exercises that integrate concepts such as the ideal gas law, capillary action, single molecule detection and molecular penetrations of a cell wall are introduced with nanostructures.
Key Words: Of Special Interest; organic chemistry; computational chemistry; nanostructures
(*) Corresponding author. (E-mail: email@example.com)
Supporting Materials:Additional information is available in the supporting material (2.3 MB).
Issue date: April