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Dailey, Debbie – Gifted Child Today, 2017
With the release of the Next Generation Science Standards and the adoption of the standards by many states, teachers are encouraged to use the engineering design process (EDP) as an instructional approach to teaching science. However, teachers have limited time to teach science and will often neglect science in favor of mathematics and literacy…
Descriptors: Elementary School Students, Engineering Technology, Gifted, Talent
Llewellyn, Douglas; Pray, Sandra; DeRose, Rob; Ottman, William – Science and Children, 2016
This column presents ideas and techniques to enhance science teaching. In this month's issue an upper elementary Science, technology, engineering, and math (STEM) challenge brings an engineer into the classroom while emphasizing cooperation, communication, and creativity. STEM activities come in various shapes and sizes. Some are quite involved…
Descriptors: Science Instruction, Teaching Methods, Elementary School Science, Engineering Technology
Ward, Lauren; Lyden, Sarah; Fitzallen, Noleine – Australian Mathematics Teacher, 2016
Context based learning (CBL) is a powerful tool that utilises areas of student interest framed in meaningful contexts to foster development of new skills and understanding. For middle school students, engineering activities that relate to real-world problems provide suitable CBL contexts for acquiring conceptual scientific and mathematical…
Descriptors: Engineering Education, Engineering Technology, Middle School Students, Teaching Methods
Cook, Kristin Leigh; Bush, Sarah B.; Cox, Richard – Science and Children, 2015
The power of 3D printing technology has grown exponentially in just the past few years--people around the world are using 3D printers to prepare food, create tailored clothing, build cars and homes, and advance the medical field in ways that never seemed possible. In classrooms across the nation, 3D printers have become increasingly common because…
Descriptors: Elementary School Science, Engineering Technology, Printing, Grade 4
Turner, Mathew J.; Webster, Rustin D. – American Journal of Engineering Education, 2017
This paper describes a student-centered approach to a power engineering technology course using the flipped or inverted classroom as well as active learning in the form of group discussions and team problem solving. The study compares student performance and perceptions of a traditional, teaching-centered classroom to two different flipped…
Descriptors: Comparative Analysis, Student Centered Learning, Engineering Technology, Power Technology
Baele, Loren C. – ProQuest LLC, 2017
This multiple methods (Denzin, 1978) study investigated two instructional approaches, traditional module and electronic Problem-Based Learning instruction (e-PBL), used within a middle school engineering classroom focused on the variables of engagement, content knowledge, student self-assessment and teacher assessment of problem solving solutions.…
Descriptors: Middle School Students, Engineering Technology, Problem Solving, Teaching Methods
Tseng, Kuo-Hung; Chang, Chi-Cheng; Lou, Shi-Jer; Hsu, Pi-Shan – International Journal of Technology and Design Education, 2013
The purpose of the study was to explore that using creative problem solving can promote students' performance of concept mapping (CMPING). Students were encouraged to use creative problem solving (CPS) in constructing nanometer knowledge structure, and then to promote the performance of CMPING. The knowledge structure was visualized through…
Descriptors: Concept Mapping, Problem Solving, Creative Activities, Creative Teaching
Mitts, Charles R. – Technology and Engineering Teacher, 2013
This design/problem-solving activity challenges students to design a replacement bridge for one that has been designated as either structurally deficient or functionally obsolete. The Aycock MS Technology/STEM Magnet Program Virtual Bridge Design Challenge is an authentic introduction to the engineering design process. It is a socially relevant…
Descriptors: Problem Solving, Facility Planning, Design, Engineering Education
Jonassen, David H. – National Center for Engineering and Technology Education, 2011
Are there different kinds of design problems? Jonassen (2011) argued that problems vary in terms of structuredness, complexity, and context. On the structuredness and complexity continua, design problems tend to be the most ill-structured and complex. Brown and Chandrasekaran suggest that design problems may vary along a continuum from…
Descriptors: Instructional Design, Problem Solving, Instructional Development, Design Requirements
Householder, Daniel L., Ed. – National Center for Engineering and Technology Education, 2011
Since its initial funding by the National Science Foundation in 2004, the National Center for Engineering and Technology Education (NCETE) has worked to understand the infusion of engineering design experiences into the high school setting. Over the years, an increasing number of educators and professional groups have participated in the expanding…
Descriptors: Engineering, Instructional Design, Technology Education, Science Curriculum
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

Elkins, J. – Australian Mathematics Teacher, 1973
Descriptors: Engineering Technology, Information Theory, Instruction, Mathematical Applications
Thomas, Walter E. – Engineering Education, 1977
In this article, some of the essential factors to a good technical program are identified. Seen as three major factors are: (1) teaching students to define problems; (2) teaching students that most engineering problems have more than one solution and contain trade-offs; (3) instilling a desire for continuous education. (MA)
Descriptors: Cognitive Processes, Decision Making Skills, Engineering Education, Engineering Technology
Morrison, Faith A. – Chemical Engineering Education, 2005
A need has emerged in the curriculum for more teamwork experience, for the development of better communication and critical thinking skills, and for the acquisition of specialized knowledge. A focus on the processes by which problems are solved has served our discipline well and can continue to serve us if in the classroom we make appropriate…
Descriptors: Engineering Education, Engineering Technology, Educational Practices, Educational Change

Rodriguez-Ramos, Walter E. – Engineering Design Graphics Journal, 1987
Advances four propositions in an effort to provide a frame of reference for a new generation of interactive engineering graphics scholars. Suggests the integration of traditional engineering graphics with new production tools such as computer-aided design drafting. Proposes that graphics problem-solving educational opportunities be maximized. (CW)
Descriptors: College Science, Computer Graphics, Computer Uses in Education, Drafting
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