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Alvarez-Montan~o, Victor E.; Farías, Mario H.; Brown, Francisco; Mun~oz-Palma, Iliana C.; Cubillas, Fernando; Castillon-Barraza, Felipe F. – Journal of Chemical Education, 2017
A good understanding of ternary phase diagrams is required to advance and/or to reproduce experimental research in solid-state and materials chemistry. The aim of this paper is to describe the solutions to problems that appear when studying or determining ternary phase diagrams. A brief description of the principal features shown in phase diagrams…
Descriptors: Science Instruction, College Science, Chemistry, Problem Solving
Gulacar, Ozcan; Eilks, Ingo; Bowman, Charles R. – Journal of Chemical Education, 2014
This paper reports a comparison of a group of higher-and lower-achieving undergraduate chemistry students, 17 in total, as separated on their ability in stoichiometry. This exploratory study of 17 students investigated parallels and differences in the students' general and domain-specific cognitive abilities. Performance, strategies, and mistakes…
Descriptors: Science Instruction, College Science, Undergraduate Students, Chemistry
Gulacar, Ozcan; Overton, Tina L.; Bowman, Charles R.; Fynewever, Herb – Chemistry Education Research and Practice, 2013
A coding scheme is presented and used to evaluate solutions of seventeen students working on twenty five stoichiometry problems in a think-aloud protocol. The stoichiometry problems are evaluated as a series of sub-problems (e.g., empirical formulas, mass percent, or balancing chemical equations), and the coding scheme was used to categorize each…
Descriptors: Stoichiometry, Protocol Analysis, Chemistry, Science Instruction
Tang, Hui; Kirk, John; Pienta, Norbert J. – Journal of Chemical Education, 2014
This paper includes two experiments, one investigating complexity factors in stoichiometry word problems, and the other identifying students' problem-solving protocols by using eye-tracking technology. The word problems used in this study had five different complexity factors, which were randomly assigned by a Web-based tool that we developed. The…
Descriptors: Science Instruction, Science Experiments, Eye Movements, Stoichiometry
Molnar, Jozsef; Molnar-Hamvas, Livia – Online Submission, 2011
The presented strategy of chemistry calculation is based on mole-concept, but it uses only one fundamental relationship of the amounts of substance as a basic panel. The name of LEGO-method comes from the famous toy of LEGO[R] because solving equations by grouping formulas is similar to that. The relations of mole and the molar amounts, as small…
Descriptors: Chemistry, Computation, Science Instruction, Teaching Methods
Gulacar, Ozcan; Bowman, Charles R.; Feakes, Debra A. – Science Education International, 2013
The problem-solving strategies of students enrolled in general chemistry courses have been the subject of numerous research investigations. In most cases, the investigators were interested in the specific areas or concepts that posed the greatest difficulty to a student's success in achieving the correct answer. However, the investigation reported…
Descriptors: Problem Solving, College Students, Chemistry, Science Instruction
Taasoobshirazi, Gita; Glynn, Shawn M. – Journal of Research in Science Teaching, 2009
A model of expertise in chemistry problem solving was tested on undergraduate science majors enrolled in a chemistry course. The model was based on Anderson's "Adaptive Control of Thought-Rational" (ACT-R) theory. The model shows how conceptualization, self-efficacy, and strategy interact and contribute to the successful solution of quantitative,…
Descriptors: Majors (Students), Self Efficacy, Chemistry, Problem Solving
Croteau, Joshua; Fox, William P.; Varazo, Kristofoland – PRIMUS, 2007
In beginning chemistry classes, students are taught a variety of techniques for balancing chemical equations. The most common method is inspection. This paper addresses using a system of linear mathematical equations to solve for the stoichiometric coefficients. Many linear algebra books carry the standard balancing of chemical equations as an…
Descriptors: Equations (Mathematics), Algebra, Mathematics Instruction, Stoichiometry

Tykodi, R. J. – Journal of Chemical Education, 1987
Presented are three methods for dealing with chemical problems involving reaction stoichiometry. (RH)
Descriptors: Chemical Reactions, Chemistry, College Science, Problem Solving
Karen L. Evans – ProQuest LLC, 2007
Background: The current mode of stoichiometry instruction employs a passive pedagogy that consists of students reading, listening, watching, and memorizing disembodied facts, procedures, and principles in preparation for future application. But chemistry students are often subsequently unable to apply this stoichiometry knowledge in equilibrium…
Descriptors: Stoichiometry, Science Education, Multimedia Materials, Teaching Methods

Alick, Bonita; Atwater, Mary M. – School Science and Mathematics, 1988
Discusses problem-solving strategies and the successful strategy used to solve stoichiometric problems in general college chemistry courses. Reports that rereading problems, recalling a related concept, and reasoning deductively/inductively are the most heavily used strategies among 13 categories. (YP)
Descriptors: Blacks, Chemistry, Cognitive Processes, College Science