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Showing 1 to 15 of 20 results Save | Export
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Christopher Greer; Devon Eichfeld; Sara Sattarzadeh; Siu Ling Leung – Advances in Engineering Education, 2024
When engineering students are unable to evaluate the validity of their solutions, they are unprepared to solve complex, real-world engineering problems that require decomposition or knowledge transfer. A proper framework is key to successful implementation and can encourage more institutions to adopt problem-solving engineering labs. This paper…
Descriptors: Problem Solving, Engineering Education, Learning Laboratories, Scientific Concepts
Anu Singh – ProQuest LLC, 2024
Critical thinking is one of the most desired skills in the workplace, as it assists an individual in solving complex problems and making informed decisions, resulting in their workplace success. Argumentation is one instructional approach that provides students an opportunity to engage in higher-order thinking and improve their communication…
Descriptors: Undergraduate Students, Engineering Education, Persuasive Discourse, Critical Thinking
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Price, Argenta; Salehi, Shima; Burkholder, Eric; Kim, Candice; Isava, Virginia; Flynn, Michael; Wieman, Carl – International Journal of Science Education, 2022
The ability to solve authentic real-world problems in science, engineering, and medicine is an important goal in post-secondary education. Despite extensive research on problem solving and expertise, the teaching and assessing of advanced problem-solving skills in post-secondary students remains a challenge. We present a template for creating…
Descriptors: Student Evaluation, Evaluation Methods, Accuracy, Problem Solving
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Fowler, Whitney C.; Ting, Jeffrey M.; Meng, Siqi; Li, Lu; Tirrell, Matthew V. – Journal of Chemical Education, 2019
Collaborations and partnerships across disciplines are becoming increasingly recognized as valuable endeavors toward solving emerging global challenges in our rapidly changing world. Thus, it is crucial to create STEM educational strategies that infuse diverse and interconnected perspectives among scientists, policymakers, and the general public.…
Descriptors: Systems Approach, Teaching Methods, Chemistry, Technology Education
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Martínez, Yolanda García; Velázquez, Claudia Alvarado; Castillo, Rolando Delgado – Universal Journal of Educational Research, 2016
This paper pursues to define the pillars for designing the specific (SC) and optional curricula (OC) of Unit Operations and Processes (UOP) Discipline in the Chemical Engineering Program. To achieve this objective a methodology was developed, which was characterized by the participation of every member in the educational process: professors,…
Descriptors: Chemical Engineering, Engineering Education, Program Descriptions, Foreign Countries
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Yelamarthi, Kumar – Journal of STEM Education: Innovations and Research, 2016
Many interesting research and design questions occur at the intersections of traditional disciplines, yet most coursework and research programs for undergraduate engineering students are focused on one discipline. This leads to underutilization of the potential in better preparing students through multidisciplinary projects. Identifying this…
Descriptors: STEM Education, Robotics, Engineering Education, Technology Education
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Ranade, Saidas M.; Corrales, Angela – European Journal of Engineering Education, 2013
The importance of intrapersonal and interpersonal intelligences has long been known but educators have debated whether to and how to incorporate those topics in an already crowded engineering curriculum. In 2010, the authors used the classroom as a laboratory to observe the usefulness of including selected case studies and exercises from the…
Descriptors: Foreign Countries, Curriculum Design, Case Studies, Problem Solving
Corbett, Krystal Sno – ProQuest LLC, 2012
Engaging pedagogics have been proven to be effective in the promotion of deep learning for science, technology, engineering, and mathematics (STEM) students. In many cases, academic institutions have shown a desire to improve education by implementing more engaging techniques in the classroom. The research framework established in this…
Descriptors: Engineering, STEM Education, Curriculum Design, Futures (of Society)
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Koszalka, Tiffany A.; Wu, Yiyan – Quarterly Review of Distance Education, 2010
Changes in engineering practices have spawned changes in engineering education and prompted the use of distributed learning environments. A distributed collaborative engineering design (CED) course was designed to engage engineering students in learning about and solving engineering design problems. The CED incorporated an advanced interactive…
Descriptors: Engineering Education, Instructional Design, Design, Science Course Improvement Projects
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Ritz, John M. – Journal of Technology Education, 2009
To develop meaningful instructional programs for technology education, goals need to be in place to direct the outcomes of curriculum development and teaching. Goals are program terminal outcomes that focus curriculum writers or teachers who structure content for learners. Goals provide direction so content can be delivered for long-term impact to…
Descriptors: Curriculum Development, Literacy, Technological Literacy, Technology Education
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Henry, Holly R.; Tawfik, Andrew A.; Jonassen, David H.; Winholtz, Robert A.; Khanna, Sanjeev – Interdisciplinary Journal of Problem-based Learning, 2012
This qualitative case study examines the initial implementation of a problem-based version of an undergraduate course in materials science for the purpose of identifying areas of improvement to the curriculum prior to a planned second implementation. The course was designed around problems that students work in small teams to solve under the…
Descriptors: Undergraduate Students, Participant Satisfaction, Student Attitudes, Science Materials
Yin, Alexander C. – ProQuest LLC, 2009
Cooperative education (co-op) and internships are forms of experiential education that allow students to complement their classroom experiences with work experience. This study examines the influence of co-op and internships on engineering problem-solving skills by answering the following research questions: (1) Does experience in cooperative…
Descriptors: College Students, Student Attitudes, Learning Activities, Programs
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Neville, David O.; Britt, David W. – Foreign Language Annals, 2007
Problem-based learning (PBL) is an instructional methodology placing primary emphasis on students solving realistic problems in a team-oriented environment. In this article, authors discuss using PBL to integrate a language for specific purposes (LSP) track into an undergraduate biological engineering curriculum as a way to prepare students for an…
Descriptors: Teaching Methods, Language Skills, Problem Based Learning, Undergraduate Students
Bailie, R. C.; Wales, C. E. – Engineering Education, 1975
Describes an approach which integrates experiential learning with the study of subject matter. The foundation of this program is a systems design called SAM, Self-Actualized Model. Presents design details of the program and an initial evaluation. (GS)
Descriptors: Curriculum Design, Curriculum Development, Engineering Education, Higher 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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