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Brian J. Esselman; Nicholas J. Hill; Kimberly S. DeGlopper; Aubrey J. Ellison; Ryan L. Stowe; Cara E. Schwarz; Niall J. Ellias – Journal of Chemical Education, 2023
We have developed a curriculum for the organic chemistry laboratory in which students draw on authentic usage of spectroscopy, spectrometry, and computational chemistry to explain chemical phenomena. This curriculum, which has been continuously refined over a decade, has been explored by many thousands of students and is scalable to small and…
Descriptors: Organic Chemistry, Science Education, Science Laboratories, Authentic Learning
Robert D. Milligan; Donald J. Wink – Journal of Chemical Education, 2024
A key part of the practice of chemistry is the analysis of chemical composition, including through gravimetric analysis and spectrophotometry. However, the complexity of doing multiple calculations to obtain analytical evidence, such as that required to determine an empirical formula, presents a challenge if such analytical methods are to be…
Descriptors: Student Attitudes, Scientific Attitudes, Science Process Skills, Spectroscopy
Stelz-Sullivan, Eleanor J.; Marchetti, Barbara; Karsili, Tolga – Education Sciences, 2022
Computational and atmospheric chemistry are two important branches of contemporary chemistry. With the present topical nature of climate change and global warming, it is more crucial than ever that students are aware of and exposed to atmospheric chemistry, with an emphasis on how modeling may aid in understanding how atmospherically relevant…
Descriptors: Computation, Chemistry, Science Education, Simulation
Schaller, Chris P.; Graham, Kate J.; McIntee, Edward J.; Peterson, Alicia A.; Strollo, Christen M.; Jakubowski, Henry V.; Fazal, M. A.; Johnson, Brian J.; Jones, T. Nicholas; Raigoza, Annette M. – Journal of Chemical Education, 2018
A novel laboratory curriculum is presented, developed around some common tasks of a laboratory researcher in chemistry: purification, synthesis, and measurement. The capstone of the sequence is an integrated laboratory, leading to a more independent research experience. Students who have completed this laboratory curriculum appear to perform…
Descriptors: Chemistry, Science Instruction, Science Laboratories, Science Curriculum
Mabbott, Gary A. – Journal of Chemical Education, 2014
Modern microcontroller boards offer the analytical chemist a powerful and inexpensive means of interfacing computers and laboratory equipment. The availability of a host of educational materials, compatible sensors, and electromechanical devices make learning to implement microcontrollers fun and empowering. This article describes the advantages…
Descriptors: Science Instruction, Chemistry, College Science, Computer Assisted Instruction
Bonjour, Jessica L.; Hass, Alisa L.; Pollock, David W.; Huebner, Aaron; Frost, John A. – Journal of Chemical Education, 2017
Development of benchtop, portable Fourier transform nuclear magnetic resonance (NMR) and infrared (IR) spectrometers has opened up opportunities for creating university-high school partnerships that provide high school students with hands-on experience with NMR and IR instruments. With recent changes to the international baccalaureate chemistry…
Descriptors: Organic Chemistry, Spectroscopy, Measurement Equipment, Science Education
Logan, Jennifer L.; Rumbaugh, Craig E. – Journal of Chemical Education, 2012
"The Chemistry of Perfume" is a lab-only course for nonscience majors. Students learn fundamental concepts of chemistry through the context of fragrance, a pervasive aspect of daily life. The course consists of laboratories pertaining to five units: introduction, extraction, synthesis, characterization, and application. The introduction unit…
Descriptors: Nonmajors, Chemistry, Student Attitudes, Science Curriculum
Peer reviewedShaw, Roosevelt; Severin, Ashika; Balfour, Miguel; Nettles, Columbus – Journal of Chemical Education, 2005
Two Diels-Alder reactions are described that are suitable for a MORE (microwave-induced organic reaction enhanced) experiment in the organic chemistry laboratory course. A second experiment in which the splitting patterns of the vinyl protons in the nuclear magnetic resonance (NMR) spectra of two MORE adducts are used in conjunction with molecular…
Descriptors: Organic Chemistry, Science Experiments, Spectroscopy, Molecular Structure
Peer reviewedPersinger, Jared D.; Hoops, Geoffrey, C.; Samide, Michael J. – Journal of Chemical Education, 2004
A simple, qualitative experiment is developed for implementation, where the gas chromatography-mass spectrometry (GC-MS) plays an important role, into the laboratory curriculum of a chemistry course designed for nonscience majors. This laboratory experiment is well suited for the students as it helps them to determine the validity of their…
Descriptors: Laboratory Experiments, Chemistry, Spectroscopy, Science Curriculum

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