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Peer reviewedWoods, Donald R. – New Directions for Teaching and Learning, 1996
Two McMaster University (Canada) chemical engineering courses enrolling 30-50 students incorporate problem-based learning (PBL). Issues addressed in implementation included overcoming faculty and student resistance, integrating PBL methods within a predominantly conventional curriculum, developing PBL problems and objectives, and using tutorless…
Descriptors: Achievement Gains, Alumni, Chemical Engineering, Classroom Techniques
Asunda, Paul A.; Hill, Roger B. – National Center for Engineering and Technology Education, 2007
The purpose of this study was to describe a process of preparing technology education teachers to teach engineering design concepts in the context of technology education. This process was identified through a study of professional development activities that were organized and conducted by technology teacher education partner universities of the…
Descriptors: Engineering, Faculty Development, Video Technology, Technology Education
Ubuz, Behiye – International Journal of Mathematical Education in Science and Technology, 2007
This present study investigated engineering students' conceptions and misconceptions related to derivative, particularly interpreting the graph of a function and constructing its derivative graph. Participants were 147 first year engineering students from four universities enrolled in first year undergraduate calculus courses with or without the…
Descriptors: Misconceptions, Mathematical Concepts, Engineering, Diagnostic Tests
Rasteiro, Maria G.; Bernardo, Fernando P.; Saraiva, Pedro M. – Chemical Engineering Education, 2005
The question addressed here is how to integrate computational tools, namely interactive general-purpose platforms, in the teaching of process units. Mathematica has been selected as a complementary tool to teach distillation processes, with the main objective of leading students to achieve a better understanding of the physical phenomena involved…
Descriptors: Case Studies, Teaching Methods, Units of Study, Science Process Skills
Greene, Ronald L. – Physics Teacher, 2006
Recent years have seen widespread adoption of automatic grading of physics homework problems. Although first-generation homework management systems provide feedback and assign scores based only on the answers, problem-solving performance on exams seems to be no worse for students using these systems than for those who receive detailed comments…
Descriptors: Grading, Physics, Homework, Feedback (Response)
Korn, Harold A.; Wise, Lauress L. – 1966
It is felt that an important source of information in engineering education is ofte n overlooked - the differential impact of the learning process on each student. Currently, the only measure of this sort is the final grade. This research involved (1) developing techniques for assessing various aspects of a student's class performance, and (2)…
Descriptors: Academic Achievement, College Science, Educational Objectives, Engineering Education
PDF pending restorationRushton, Erik; Ryan, Emily; Swift, Charles – 2001
This introductory activity explores the advantages of different roof shapes for different climates or situations. It addresses questions such as "When you walk or drive around your neighborhood, what do the roofs look like?" and "What if you lived in an area with a different climate, how would that affect the style of roof that you might find?"…
Descriptors: Climate, Creative Thinking, Critical Thinking, Early Childhood Education
Reisslein, Jana; Atkinson, Robert K.; Reisslein, Martin – Association for Educational Communications and Technology, 2004
This study investigated whether it was more beneficial to provide the learners in computer-based learning environments access to on demand (self-regulated) help after they committed an error in problem solving or for the learning environment to externally regulate the presentation of instructional help. Furthermore, two different resentational…
Descriptors: Educational Environment, Engineering, Computer Assisted Instruction, Problem Solving
Peer reviewedElkins, J. – Australian Mathematics Teacher, 1973
Descriptors: Engineering Technology, Information Theory, Instruction, Mathematical Applications
Peer reviewedDeVito, Alfred – Science and Children, 1974
Descriptors: Educational Resources, Elementary School Science, Engineering, General Science
Dorsey, B. R. – Eng Educ, 1969
Points to need for engineers with broader educational backgrounds who can join other professionals to deal with modern social and environmental problems. Adapted from address delivered to Engineering College Administrative and Research Councils at 77th Annual ASEE Conference, June 24, 1969. (WM)
Descriptors: Educational Background, Engineering Education, Higher Education, Interdisciplinary Approach
Wagner, G. R.; McCants, M. M. – Journal of Engineering Education, 1972
Describes a highly user-oriented conversational linear programing package for simulated laboratory experiences. The system allows easy problem entry, solution and changes, accepting free form statements of the problem and a few key words to describe each kind of input. (Author/TS)
Descriptors: Computer Assisted Instruction, Computer Programs, Engineering Education, Instruction
Stager, Robert A.; Wales, Charles E. – Journal of Engineering Education, 1972
Describes how guided design is applied to a freshman engineering course so that professional and social concerns are integrated into a problem-solving approach. (PR)
Descriptors: College Science, Course Organization, Discussion Groups, Engineering Education
Black, James H. – Journal of Engineering Education, 1971
Describes a course at the University of Alabama for non-engineers. The course emphasizes interrelationships and differences between engineering and science and the role of engineering in solving society's problems from ancient times to the present day. (Author/TS)
Descriptors: College Science, Course Descriptions, Curriculum Development, Engineering Education
Porush, David; Benzon, William – ADE Bulletin, 1983
Defends the role of humanities instruction in the education of engineering undergraduates in the areas of problem solving, risk taking, and the synthesis of metaphors and symbols. (AEA)
Descriptors: Cognitive Processes, Curriculum Design, Decision Making, Engineering Education

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