Publication Date
In 2025 | 0 |
Since 2024 | 0 |
Since 2021 (last 5 years) | 4 |
Since 2016 (last 10 years) | 18 |
Since 2006 (last 20 years) | 27 |
Descriptor
Source
Technology and Engineering… | 27 |
Author
Bartholomew, Scott R. | 3 |
Hughes, Andrew J. | 3 |
Merrill, Chris | 3 |
Asunda, Paul A. | 2 |
Ernst, Jeremy V. | 2 |
Mativo, John | 2 |
Mitts, Charles R. | 2 |
Strimel, Greg | 2 |
Andrew J. Hughes | 1 |
Bartholomew, Scott | 1 |
Byrd, Vetria | 1 |
More ▼ |
Publication Type
Journal Articles | 27 |
Reports - Descriptive | 26 |
Guides - Classroom - Teacher | 1 |
Reports - Research | 1 |
Education Level
Audience
Teachers | 5 |
Location
Massachusetts | 1 |
New Jersey | 1 |
North Carolina | 1 |
Ohio | 1 |
Laws, Policies, & Programs
Assessments and Surveys
National Assessment of… | 1 |
What Works Clearinghouse Rating
Andrew J. Hughes – Technology and Engineering Teacher, 2022
The intention of this article is to provide Technology and Engineering Educators (T&EEs) with a more thorough understanding of implementing the product realization process (PRP) to help manage the design and development processes in their classrooms. The product realization process (PRP) innately involves a practical combination of knowledge,…
Descriptors: Engineering Education, Design, High School Students, Skill Development
Han, Jung; Park, Hyeong Kyun; Kelley, Todd R. – Technology and Engineering Teacher, 2023
Engineering design has been central to technology education. Currently, online collaborative platforms for designers are widely used as digital forms of an engineer's notebook. However, traditional forms are still valued as the medium of engineering design during the conceptual phase of design since a paper notebook and pen or pencil allow…
Descriptors: Engineering Education, Notetaking, Design, Creative Thinking
Hughes, Andrew J.; Merrill, Chris – Technology and Engineering Teacher, 2021
Technology and Engineering Education (T&EE) includes "engineering design challenges" to establish a connection to designing and problem-solving indicative of being an Engineer. Engineering design challenges involving bridges (or towers) have been a common feature of the discipline. These bridge design challenges ask students to…
Descriptors: Design, Engineering Education, Teaching Methods, Problem Solving
Hughes, Andrew J.; Merrill, Chris – Technology and Engineering Teacher, 2020
The basic concepts inherent to statics, including unbalanced and balanced forces and instability and stability of physical systems, have traditionally been covered in middle and high school physical science courses (Physical Science as indicated in "Next Generation Science Standards"). Yet, these concepts are covered using a physical…
Descriptors: Technology Education, Engineering Education, Transfer of Training, Theory Practice Relationship
Hughes, Andrew J.; Merrill, Chris – Technology and Engineering Teacher, 2020
As the authors are proponents for engineering education that is done well, they have provided an explanation of truss design using the Method of Joints that combines the application of practical hands-on learning with sound mathematical and scientific theory. The Method of Joints will allow students to design trusses to meet specified criteria…
Descriptors: Engineering Education, Structural Elements (Construction), Experiential Learning, Mathematical Models
Bartholomew, Scott; Strimel, Greg; Byrd, Vetria; Santana, Vanessa; Otto, Jackson; Laureano, Zach; DeRome, Brian – Technology and Engineering Teacher, 2020
By exposing students to the concept of digital agriculture earlier in their lives, they will be able to develop the proper mindset to advance the field further when they enter the professional world. Engaging students in activities such as the one described here, which center on the Grand Engineering Challenges and socially relevant contexts, may…
Descriptors: Data Use, Agriculture, Agricultural Occupations, Agricultural Production
Bartholomew, Scott R.; Ruesch, Emily Yoshikawa – Technology and Engineering Teacher, 2018
Research has shown that once a potential solution to a problem has settled into one's mind, it can be difficult to break from the original idea and move in a different direction (Cardoso & BadkeSchaub, 2009; Jansson & Smith, 1991). When designers are given examples (whether as models, photographs, sketches, or drawings), they often fixate…
Descriptors: Design, Creative Thinking, Creativity, Problem Solving
Loveland, Thomas – Technology and Engineering Teacher, 2019
In order to be prepared for future college or careers, 21st century students should have critical thinking in their arsenal of soft skills. Most teachers and schools feel that critical thinking skills are important to teach, but unfortunately they have a lack of understanding of what critical thinking is and what strategies are best utilized to…
Descriptors: Technology Education, Engineering Education, Personal Autonomy, 21st Century Skills
Yuhyun Choi; Euisuk Sung; Seungwon Lee – Technology and Engineering Teacher, 2022
The International Technology and Engineering Educators Association's (ITEEA's) "Standards for Technological and Engineering Literacy" ("STEL") describes design thinking as an approach that allows students and educators to integrate other content areas by considering relevant contextual information to guide design and making…
Descriptors: Design, Engineering Education, Thinking Skills, Context Effect
Strimel, Greg J.; Morehouse, Abby; Bartholomew, Scott R.; Swift, Colin; Woessner, Jonathan – Technology and Engineering Teacher, 2019
Computational thinking is a problem-solving technique traditionally employed by computer scientists to develop computer applications. However, computational thinking practices are now believed to be applicable to other fields (Google for Education, 2018), specifically those related to engineering and technology. Accordingly, the Advancing…
Descriptors: Computation, Thinking Skills, Assistive Technology, Technology Uses in Education
Moye, Johnny J. – Technology and Engineering Teacher, 2019
Today's world is shaped by technology and products engineered to serve society's needs and wants. The knowledge and skills required to develop and use these products are changing at an exponential rate (NASE&M, 2017; NRC, 2011). In order to understand and meet future challenges, it is vital that the United States produce technology- and…
Descriptors: Technology Education, Engineering Education, STEM Education, Problem Solving
Bartholomew, Scott R.; Zhang, Liwei – Technology and Engineering Teacher, 2019
Although there are over 320,000 health and fitness apps available on major app stores, there is scant evidence that they actually promote a healthier lifestyle, assist users in exercising, or promote weight loss. This article presents a lesson plan using an Arduino for integrating computational thinking and game design with middle school students…
Descriptors: Technology Education, Engineering Education, Relevance (Education), Physical Fitness
Mitts, Charles R. – Technology and Engineering Teacher, 2016
The International Technology and Engineering Educators Association (ITEEA) defines STEM as a new transdisciplinary subject in schools that integrates the disciplines of science, technology, engineering, and mathematics into a single course of study. There are three major problems with this definition: There is no consensus in support of the ITEEA…
Descriptors: STEM Education, Technology Education, Engineering Education, Intellectual Disciplines
Swinson, Ronnie; Clark, Aaron C.; Ernst, Jeremy V.; Sutton, Kevin – Technology and Engineering Teacher, 2016
Today's engineers, designers, and technologists are often thrust into the role of problem solver, from the initial design phase of a product or process all the way to final development. Many engineers in manufacturing environments are tasked with solving problems and continuously improving processes to enhance company profitability, efficiency,…
Descriptors: Technology Education, Engineering Education, Simulation, Problem Solving
Ward, Brandt – Technology and Engineering Teacher, 2015
In an environment of rapid and unpredictable change determined and directed by technologies that are constantly changing, the assumption that being technologically literate is the key to being a sustained, contributing life-long learner is well founded. However, technological literacy is seldom referred to or considered in academic arguments as a…
Descriptors: Problem Solving, Technological Literacy, Models, Definitions
Previous Page | Next Page ยป
Pages: 1 | 2