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Daniel A. Mak; Sebastian Dunn; David Coombes; Carlo R. Carere; Jane R. Allison; Volker Nock; André O. Hudson; Renwick C. J. Dobson – Biochemistry and Molecular Biology Education, 2024
Enzymes are nature's catalysts, mediating chemical processes in living systems. The study of enzyme function and mechanism includes defining the maximum catalytic rate and affinity for substrate/s (among other factors), referred to as enzyme kinetics. Enzyme kinetics is a staple of biochemistry curricula and other disciplines, from molecular and…
Descriptors: Biochemistry, Kinetics, Science Instruction, Teaching Methods
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Rodriguez, Jon-Marc G.; Hux, Nicholas P.; Philips, Sven J.; Towns, Marcy H. – Journal of Chemical Education, 2019
This work seeks to add to the growing body of chemistry education research that emphasizes the teaching and learning of advanced topics, focusing on students' understanding of enzyme kinetics. The data corpus relevant to this study involved 14 second-year undergraduate students enrolled in an introductory biochemistry course taught in a chemistry…
Descriptors: Graphs, Introductory Courses, Biochemistry, Science Instruction
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Rodriguez, Jon-Marc G.; Towns, Marcy H. – Chemistry Education Research and Practice, 2019
Student understanding regarding topics in upper-division courses, such as biochemistry, is not well represented in the literature. Herein we describe a study that investigated students' reasoning about Michaelis-Menten enzyme kinetics and enzyme inhibition. Our qualitative study involved semistructured interviews with fourteen second-year students…
Descriptors: Science Instruction, Scientific Concepts, Logical Thinking, Concept Formation
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Ault, Addison – Journal of Chemical Education, 2009
Gibbs-energy profiles are often introduced during the first semester of organic chemistry, but are less often presented in connection with enzyme-catalyzed reactions. In this article I show how the Gibbs-energy profile corresponds to the characteristic kinetics of a simple enzyme-catalyzed reaction. (Contains 1 figure and 1 note.)
Descriptors: Organic Chemistry, Biochemistry, Science Instruction, Teaching Methods
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Halkides, Christopher J.; Herman, Russell – Journal of Chemical Education, 2007
We describe a computer tutorial that introduces the concept of the steady state in enzyme kinetics. The tutorial allows students to produce graphs of the concentrations of free enzyme, enzyme-substrate complex, and product versus time in order to learn about the approach to steady state. By using a range of substrate concentrations and rate…
Descriptors: Kinetics, Biochemistry, Computer Uses in Education, Graphs
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Yap, William T.; And Others – Journal of Chemical Education, 1977
Describes a method for determining the rate constants of enzyme reactions involving two substrates with the use of double reciprocal plots. (MLH)
Descriptors: Biochemistry, Chemistry, College Science, Graphs
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Howard, David R.; Herr, Julie; Hollister, Rhiannon – American Biology Teacher, 2006
Trypsin and soybean trypsin inhibitor (Kunitz inhibitor) can be used in a relatively simple and inexpensive student exercise to demonstrate the usefulness of enzyme kinetics. The study of enzyme kinetics is essential to biology because enzymes play such a crucial role in the biochemical pathways of all living organisms. The data from enzyme…
Descriptors: Science Instruction, Biochemistry, Kinetics, Science Activities
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Gelpi, Josep Lluis; Domenech, Carlos – Biochemical Education, 1988
Describes a program which allows students to identify and characterize several kinetic inhibitory mechanisms. Uses the generic model of reversible inhibition of a monosubstrate enzyme but can be easily modified to run other models such as bisubstrate enzymes. Uses MS-DOS BASIC. (MVL)
Descriptors: Biochemistry, Chemical Reactions, College Science, Computer Graphics