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Jonathan Olanrewaju Fatokun; Mishack Thiza Gumbo – Cogent Education, 2024
This paper reports on a narrative review of the criticality of problem-solving and troubleshooting skills for undergraduate Electronics Engineering students and its significance for industry readiness. The review was undertaken to understand the problems and troubleshooting skills learned and possessed by the Electronics Engineering training…
Descriptors: Problem Solving, Troubleshooting, Undergraduate Students, Electronics
Abele, Stephan – Vocations and Learning, 2018
This article deals with a theory-based investigation of the diagnostic problem-solving process in professional contexts. To begin with, a theory of the diagnostic problem-solving process was developed drawing on findings from different professional contexts. The theory distinguishes between four sub-processes of the diagnostic problem-solving…
Descriptors: Problem Solving, Mechanical Skills, Hypothesis Testing, Motor Vehicles
Van De Bogart, Kevin L.; Dounas-Frazer, Dimitri R.; Lewandowski, H. J.; Stetzer, MacKenzie R. – Physical Review Physics Education Research, 2017
Developing students' ability to troubleshoot is an important learning outcome for many undergraduate physics lab courses, especially electronics courses. In other work, metacognition has been identified as an important feature of troubleshooting. However, that work has focused primarily on "individual" students' metacognitive processes…
Descriptors: Metacognition, Troubleshooting, Physics, Science Instruction
Van De Bogart, Kevin L. – ProQuest LLC, 2017
Instruction in analog electronics is an integral component of many physics and engineering programs, and is typically covered in courses beyond the first year. While extensive research has been conducted on student understanding of introductory electric circuits, to date there has been relatively little research on student learning of analog…
Descriptors: Electronics, Physics, Science Education, Engineering Education
Safadi, Rafi; Safadi, Ekhlass; Meidav, Meir – Physics Education, 2017
This study compared students' learning in troubleshooting and problem solving activities. The troubleshooting activities provided students with solutions to conceptual problems in the form of refutation texts; namely, solutions that portray common misconceptions, refute them, and then present the accepted scientific ideas. They required students…
Descriptors: Science Instruction, Physics, Group Discussion, Comparative Analysis
Dounas-Frazer, Dimitri R.; Lewandowski, H. J. – Physical Review Physics Education Research, 2017
In this exploratory qualitative study, we describe instructors' self-reported practices for teaching and assessing students' ability to troubleshoot in electronics lab courses. We collected audio data from interviews with 20 electronics instructors from 18 institutions that varied by size, selectivity, and other factors. In addition to describing…
Descriptors: Electronics, Science Laboratories, Laboratory Training, Science Instruction
Safadi, Rafi'; Yerushalmi, Edit – International Journal of Science and Mathematics Education, 2014
We compared the materialization of knowledge integration processes in class discussions that followed troubleshooting (TS) and problem-solving (PS) tasks and examined the impact of these tasks on students' conceptual understanding. The study was conducted in two sixth-grade classes taught by the same teacher, in six lessons that constituted a…
Descriptors: Problem Solving, Troubleshooting, Grade 6, Electronics
Radoyska, P.; Ivanova, T.; Spasova, N. – Journal of Educational Technology Systems, 2011
In this article we present a partially realized project for building a distributed learning environment for studying digital circuits Test and Diagnostics at TU-Sofia. We describe the main requirements for this environment, substantiate the developer platform choice, and present our simulation and circuit parameter calculation tools.…
Descriptors: Foreign Countries, Electronic Learning, Virtual Classrooms, Internet
Tough, David T. – ProQuest LLC, 2009
The purpose of this online study was to create a ranking of essential core competencies and technologies required by AET (audio engineering technology) programs 10 years in the future. The study was designed to facilitate curriculum development and improvement in the rapidly expanding number of small to medium sized audio engineering technology…
Descriptors: Delphi Technique, Curriculum Development, Educational Needs, Industry
An Exploration of Technical Troubleshooting Expertise in Design, Manufacturing, and Repair Contexts.

Flesher, Jeffrey W. – Journal of Industrial Teacher Education, 1993
Engineers and technicians completed a knowledge inventory and performed an electronics troubleshooting activity in three context groups (repair, design, production). Results showed general lack of troubleshooting preparation in all groups; common troubleshooting processes among experts; and deemphasis of theoretical knowledge among production and…
Descriptors: Design, Electronics, Manufacturing, Production Techniques
Katz, Sandra; Lesgold, Alan – 1992
Student modeling--the task of building dynamic models of student ability--is fraught with uncertainty, caused by such factors as multiple sources of student errors, careless errors and lucky guesses, learning and forgetting. Within the context of the Sherlock intelligent tutoring systems project, we have been experimenting with various ways of…
Descriptors: Artificial Intelligence, Computer Assisted Instruction, Computer Simulation, Electronics
EASTCONN Regional Educational Services Center, North Windham, CT. – 1989
This electromechanical technician curriculum covers the following general areas: (1) basic soldering; (2) reading diagrams and following schematics; and (3) repairing circuitry and mechanics common to major appliances, vending machines, amusement equipment, and small office machines. The manual includes the following sections: (1) course…
Descriptors: Appliance Repair, Course Descriptions, Electrical Occupations, Electromechanical Technology

Anoka-Hennepin Technical Coll., Minneapolis, MN. – 1994
This workbook is intended for students enrolled in a 3-day introductory course to electronics developed during a project to retrain defense industry workers at risk of job loss or dislocation because of conversion of the defense industry. The workbook begins with a course outline and is divided into three sections that parallel the following…
Descriptors: Adult Education, Adult Vocational Education, Behavioral Objectives, Competency Based Education
Matson, James; Stokes, Tad – 1993
This document contains 20 competency-based examinations with student and instructor manuals for electronics and instrumentation occupations. For each of the examinations, the student manual contains the following: the competency, the performance objective, directions, the materials and equipment needed, a space to note time started and time…
Descriptors: Competence, Competency Based Education, Computer Oriented Programs, Electronic Equipment
Slack, Don – 1990
This module is the seventh of 10 modules in the competency-based electronics series. Introductory materials include a listing of competencies addressed in the module, and a cross-reference table of instructional materials. Three instructional units cover: block diagrams; board-level repairs; and component-level troubleshooting. Each unit includes…
Descriptors: Behavioral Objectives, Competency Based Education, Electronics, Equipment Maintenance