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Stierle, Rolf; Fischer, Matthias; Braun, Thorsten; Gross, Joachim – Chemical Engineering Education, 2023
How is it possible to create and continuously improve a quality learning environment for our students? We present our one-year course on engineering thermodynamics as a case study in which we investigate the learning environment based on a competency model from the students' perspective. Based on the analysis of our course structure and exam…
Descriptors: Engineering Education, Thermodynamics, College Students, Student Attitudes
Sulma Paola Vera-Monroy; Sandra Rodriguez; Manuel Alfredo Figueredo – International Journal of Mathematical Education in Science and Technology, 2024
This study evaluates the implementation of a collaborative/game-based learning strategy on final year B.Sc. students focused on reinforcing the Taylor theorem (a mathematical concept previously learned, usually forgotten over time and widely used in chemical engineering) and analyses its effect on their academic performance. To this end, the…
Descriptors: Undergraduate Students, Engineering Education, Game Based Learning, Teaching Methods
Lauri J. Partanen; Liisa Myyry; Henna Asikainen – Chemistry Education Research and Practice, 2024
We explored chemical engineering students' approaches to learning, study-related burnout, and perceptions of peer and self-assessment in a challenging physical chemistry thermodynamics course. Cluster analysis revealed three learning profiles based on students' approaches to learning: students who scored high in both organised studying and the…
Descriptors: Chemistry, Burnout, Peer Evaluation, Self Evaluation (Individuals)
Mabley, Seren; Ventura-Medina, Esther; Anderson, Anthony – European Journal of Engineering Education, 2020
Future global challenges that engineering graduates face have placed demands on engineering education and how graduates develop competency in collaborative problem-solving. Such demand has seen an increase in the use of pedagogies like problem-based learning (PBL) that provide opportunities for developing collaborative problem-solving skills. PBL…
Descriptors: Teamwork, Problem Based Learning, Engineering Education, Cooperative Learning
Zhao, Feng-qing; Yu, Yi-feng; Ren, Shao-feng; Liu, Shao-jie; Rong, Xin-yu – Journal of Chemical Education, 2014
Practical education in chemical engineering has drawn increasing attention in recent years. This paper discusses two approaches to teaching and learning about experiments among upper-level chemical and pharmaceutical engineering majors in China. On the basis of years of experience in teaching chemical and pharmaceutical engineering, we propose the…
Descriptors: Foreign Countries, Pharmaceutical Education, Engineering Technology, Majors (Students)
Lachance, Russ; Biaglow, Andrew – PRIMUS, 2012
This article examines the symbolic algebraic solution of the titration equations for a diprotic acid, as obtained using "Mathematica," "Maple," and "Mathcad." The equilibrium and conservation equations are solved symbolically by the programs to eliminate the approximations that normally would be performed by the student. Of the three programs,…
Descriptors: Equations (Mathematics), Algebra, Programs, Computation
Lucas Yagüe, Susana; Coca Sanz, Mónica; González Benito, Gerardo; Cartón López, Ángel; Urueña Alonso, Miguel Ángel; García Cubero, Mª Teresa – Journal of Technology and Science Education, 2011
The new reorganization of university education has involved relevant changes in teaching and learning methodologies in order to help students to learn more effectively and to develop important skills and competences demanded by the professional world. In this sense the new configuration of the degree in Chemical Engineering required the…
Descriptors: Questionnaires, Chemical Engineering, Science Instruction, Teaching Methods
Fraser, Duncan; Linder, Cedric – European Journal of Engineering Education, 2009
Contemporary learning research and development that is embedded in primary and secondary schooling is increasingly acknowledging the significance of a variation approach for enhancing the possibility of learning. However, the variation approach has so far attracted very little attention in higher education, but where it has, the results have been…
Descriptors: Higher Education, Computer Simulation, Physics, Chemical Engineering

Douglas, J. M.; Kirkwood, R. L. – Chemical Engineering Education, 1989
Discussed is a method to teach undergraduate students how to complete a conceptual design. Presents three tools to use: (1) how to use order-of-magnitude arguments to simplify problems, (2) how to derive design heuristics, and (3) how to decompose large problems into a set of small, simple problems. (Author/MVL)
Descriptors: Chemical Engineering, College Science, Course Content, Engineering
Case, Jennifer; Marshall, Delia – Studies in Higher Education, 2004
This article describes two approaches to learning (in addition to the classic deep and surface approaches) identified in studies of student learning in engineering contexts. The first study identified the 'procedural deep' approach in a group of engineering foundation programme students in the UK, while the second study identified the 'procedural…
Descriptors: Problem Solving, Learning Strategies, Higher Education, Engineering Education

Fernandez-Norte, Felix; And Others – European Journal of Engineering Education, 1997
Discusses a methodology for developing an environmental load balance which can be the means for conducting a life cycle inventory. The methodology described can be taught at the same level of chemical engineering fundamentals at which basic mass and energy balances are introduced. (DDR)
Descriptors: Chemical Engineering, Chemistry, College Curriculum, Course Content

Kauffman, Kenneth J. – Chemical Engineering Education (CEE), 1997
Outlines some techniques to increase student participation, interest, and learning that involve asking better questions and waiting an appropriate amount of time for the student response. Also explains the need for a good questioning technique that yields sufficiently difficult questions. (DDR)
Descriptors: Academic Achievement, Chemical Engineering, Educational Strategies, Engineering Education

Helfferich, Friedrich G. – Chemical Engineering Education, 1989
Points out a different and much simpler approach for the study of equilibria of multiple and heterogeneous chemical reactions. A simulation on coal methanation is used to teach the technique. An example and the methodology used are provided. (MVL)
Descriptors: Chemical Engineering, Chemical Equilibrium, Chemical Reactions, Coal

Barabino, Gilda A. – Chemical Engineering Education, 2003
Presents effective strategies for teaching in chemical engineering. (Author/NB)
Descriptors: Chemical Engineering, Higher Education, Instructional Effectiveness, Learning Strategies
Case, Jennifer; Gunstone, Richard – Research in Science Education, 2006
A series of studies were conducted to investigate students' metacognitive development in a second year chemical engineering course. The first of these was an exploratory study involving observation together with some limited interviewing. This was followed by a major study with two phases, the first of which involved a series of individual…
Descriptors: Metacognition, Cognitive Development, Chemical Engineering, Interviews
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