Publication Date
In 2025 | 0 |
Since 2024 | 1 |
Since 2021 (last 5 years) | 1 |
Since 2016 (last 10 years) | 2 |
Since 2006 (last 20 years) | 10 |
Descriptor
Source
Advances in Engineering… | 10 |
Author
Linsey, Julie | 2 |
Acevedo, Miguel F. | 1 |
Connor, Jeffrey | 1 |
Conor Walsh | 1 |
Ellis, Darin | 1 |
Erik Siggelkoe | 1 |
Fasse, Barbara Burks | 1 |
Ferri, Aldo A. | 1 |
Ferri, Bonni H. | 1 |
Forest, Craig R. | 1 |
Garcia, Oscar N. | 1 |
More ▼ |
Publication Type
Journal Articles | 10 |
Reports - Research | 9 |
Reports - Descriptive | 1 |
Education Level
Higher Education | 9 |
Postsecondary Education | 9 |
High Schools | 2 |
Secondary Education | 2 |
Elementary Secondary Education | 1 |
Junior High Schools | 1 |
Middle Schools | 1 |
Two Year Colleges | 1 |
Audience
Location
Georgia | 2 |
Texas | 2 |
Colorado | 1 |
Massachusetts | 1 |
New Jersey | 1 |
Virginia | 1 |
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
Erik Siggelkoe; Conor Walsh; Holly M. Golecki – Advances in Engineering Education, 2024
While participation in undergraduate research has many benefits for students including increased confidence and persistence in engineering, community college students do not have the same access to research as students at four-year institutions. To address this disparity, we developed a soft robotics-focused undergraduate research lab at a…
Descriptors: Community Colleges, Undergraduate Students, Student Research, Robotics
Shreiber, David I.; Moghe, Prabhas V.; Roth, Charles M. – Advances in Engineering Education, 2015
Research Experiences for Undergraduates (REU) sites widely serve as the first major research gateway for undergraduates seeking a structured research experience. Given their lack of prior research skills, and the highly compressed duration of the REU programs, these students frequently encounter barriers to a seamless transition into a new…
Descriptors: Undergraduate Students, Acceleration (Education), Interdisciplinary Approach, Engineering Education
Ferri, Bonni H.; Ferri, Aldo A.; Majerich, David M.; Madden, Amanda G. – Advances in Engineering Education, 2016
This paper examines the effects of hands-on learning in an undergraduate circuits class that is taught to non-majors; i.e., students outside of electrical and computing engineering. The course, ECE3710, is taught in a blended format facilitated by the video lectures prepared for two Massive Open Online Courses developed for the Coursera Platform.…
Descriptors: Outcomes of Education, Hands on Science, Science Laboratories, Large Group Instruction
Gorlewicz, Jenna L.; Kratchman, Louis B.; Webster, Robert J., III – Advances in Engineering Education, 2014
The haptic paddle is a force-feedback joystick used at several universities in teaching System Dynamics, a core mechanical engineering undergraduate course where students learn to model dynamic systems in several domains. A second goal of the haptic paddle is to increase the accessibility of robotics and haptics by providing a low-cost device for…
Descriptors: College Instruction, Laboratory Equipment, Undergraduate Students, Engineering Education
Forest, Craig R.; Moore, Roxanne A.; Jariwala, Amit S.; Fasse, Barbara Burks; Linsey, Julie; Newstetter, Wendy; Ngo, Peter; Quintero, Christopher – Advances in Engineering Education, 2014
Creativity, invention, and innovation are values championed as central pillars of engineering education. However, university environments that foster open-ended design-build projects are uncommon. Fabrication and prototyping spaces at universities are typically "machine shops" where students relinquish actual fabrication activities to…
Descriptors: Engineering Education, Intellectual Property, Studio Art, Creativity
Lohani, Vinod K.; Wolfe, Mary Leigh; Wildman, Terry; Mallikarjunan, Kumar; Connor, Jeffrey – Advances in Engineering Education, 2011
In 2004, a group of engineering and education faculty at Virginia Tech received a major curriculum reform and engineering education research grant under the department-level reform (DLR) program of the NSF. This DLR project laid the foundation of sponsored research in engineering education in the Department of Engineering Education. The DLR…
Descriptors: Engineering Education, Educational Change, Spiral Curriculum, Curriculum Development
Zarske, Malinda S.; Yowell, Janet L.; Ringer, Heidi L.; Sullivan, Jacquelyn F.; QuiƱones, Patricia A. – Advances in Engineering Education, 2012
This paper describes the longitudinal impacts of a partnership between the University of Colorado Boulder's K-12 Engineering Education initiative and the St. Vrain Valley School District. Together, university and high school educators created a replicable pre-college engineering model in a nine-school feeder system, which serves many Colorado…
Descriptors: Engineering Education, Engineering, College School Cooperation, Partnerships in Education
Ssemakula, Mukasa; Liao, Gene; Ellis, Darin – Advances in Engineering Education, 2010
Industry has consistently identified lack of experience in manufacturing processes as one of the key competency gaps among new engineering graduates. This paper discusses a laboratory-based course that provides realistic hands-on manufacturing experiences to students. The course uses team-based projects that help students gain hands-on experience…
Descriptors: Engineering Education, Engineering Technology, Achievement Gap, Manufacturing
Garcia, Oscar N.; Varanasi, Murali R.; Acevedo, Miguel F.; Guturu, Parthasarathy – Advances in Engineering Education, 2011
We analyze and study the beginning of a new Electrical Engineering Department, supported by an NSF Departmental Level Reform award, within a new College of Engineering in the 21st Century and also describe the academic approach and influences of an innovative cognitive-based approach to curriculum development. In addition, the approach taken…
Descriptors: Engineering Education, Electrical Occupations, Engineering, Departments
Linsey, Julie; Talley, Austin; White, Christina; Jensen, Dan; Wood, Kristin – Advances in Engineering Education, 2009
Active learning enhances engineering education. This paper presents rationale, curriculum supplements, and an approach to active learning that may be seamlessly incorporated into a traditional lecture-based engineering class. A framework of educational theory that structures the active learning experiences and includes consideration of learning…
Descriptors: Engineering Education, Active Learning, Mechanics (Physics), Educational Innovation