students were certainly involved in the world of research, as described in moredetail below. The series has been successful in other ways too, such as producing publication-quality results and has initiated successful engineering careers for many of the students.In all, two research papers have resulted from these capstone projects which, in turn, includelinks to data repositories to enable others to build wireless sensor nodes from these projects’source code and hardware designs. Student teams showed clear improvement, year on year: afterYear 1, the fundamental components were present, but a cohesive demonstration was challengingand no paper could be written about the results. In Year 2, the project functioned but needed asummer student to fix
Reviews, 10(20), 2737-2744. Edwards, J. R., & Bagozzi, R. P. (2000). On the nature and direction of relationships between constructs and measures. Psychological Methods, 5(2), 155-174. Flynn, D. (2014). Baccalaureate attainment of college students at 4-year institutions as a function of student engagement behaviors: Social and academic student engagement behaviors matter. Research in Higher Education, 55(5), 467-493. https://doi.org/10.1007/s11162- 013-9321-8 Hu, S., & Wolniak, G. C. (2013). College student engagement and early career earnings: Differences by gender, race/ethnicity, and academic preparation. Review of Higher Education: Journal of the Association for the Study of Higher
Sandoval, Phuong TruongAbstract: Learning can be a daunting and challenging process, particularly in engineering. Whilecognitive models for learning such as Bloom's taxonomy have been developed since the 1950s andevidenced to be useful in designing engineering courses, these models are not commonly explicitlytaught in classrooms to help students manage and regulate their own learning. In highly demandingcurriculum such as engineering, ineffective strategies can lead to poor academic performance thatcascades throughout a student’s academic career. Feedback from traditional examinations often donot provide personalized and actionable changes to study habits (i.e., with suboptimal scores,students may know they need to study more, but whether “more
in educationin general--students do not achieve the scores they desire on homework, quizzes, and exams.Thus, the ability to navigate and respond to failure as an opportunity for growth and learning is akey component of the engineering enterprise. However, engineering education research is sparseon how students respond to failure.Research on response to failure has been extensive in workplace settings, in which there is a verywide range of negative and positive responses to failure, which include emotional responses(denial, anger, bargaining, depression, acceptance, shock, fear, renewed dedication, increasedsusceptibility to stereotypes, blame, shame, despair, changes in interest, reassessing career,reassessing self-perceived ability) and
Support for Blind or Low-Vision (BLV) Electrical and Computer Engineering (ECE) LearnersAbstractThere is a growing, yet relatively limited body of research exploring the experiences of learnerswith disabilities in introductory electrical and computer engineering (ECE) education. With theproven importance of introductory ECE education in influencing students’ undergraduateinterests and future career prospects in technology, the inaccessibility of the field to learners withdisabilities poses an inequitable access barrier that further marginalizes these learners, oftenpreventing them from exploring the field in the first place. In particular, as ECE largely relies onvisual cues for designing, building, testing, and debugging
project is very open-ended in nature. A key learning goal forCDC is that students develop a systematic approach to engineering design (ILO 5), a crucialcomponent of which is dealing with high levels of uncertainty. This uncertainty arises whenthere is not one clear solution to the problem at hand. Although this situation is the norm for aprofessional engineer, it is quite foreign to our students at this stage in their careers. Byencountering such an open-ended design problem, teams are forced to take a methodical reviewof possible approaches and make evaluations based on design criteria if they are to be successful.Finally, the CDC design project is a twelve-week, semester-long endeavor and thus must be ofsufficient scope to engage and challenge
also nurture critical thinking,teamwork, and self-directed learning skills vital for their success in engineering. This proposedmethodology represents an effective and holistic approach to empower engineering students withthe knowledge and skills they need to excel in their studies and future careers.2 Description of the Course and Project DesignThe course ECE 8743 Advanced Robotics serves as a graduate-level course for electricalengineering, computer engineering, and other related engineering students. The course entailstwo 75-minute lectures per week. With the rapid advancements in computing hardware and theaffordability of memory chips, computational intelligence — an integral part of artificialintelligence — is gaining prominence in
findings in Sec 3.1, as students gain electrical skills and realize the impact that learning theseskills can have in their careers and on the world.One reason that seems responsible for this development is the complexity of and emphasis on thelaboratory work. Students seem to take ownership of their projects, and are genuinely proud ofthe results they achieve. This shift from “do a laboratory assignment and characterize someaspects of electrical engineering” to “build a real-world, complex device” makes students realizethat they are capable of much more than a traditional course in electrical engineering would havethem believe. And this makes all the difference. Anecdotally, the author has seen students whoare barely able to wire a simple circuit
Electrical Engineering at Morgan State University.Mr. Pelumi Olaitan Abiodun, Morgan State University Pelumi Abiodun is a current doctoral student and research assistant at the department of Civil Engineering, Morgan State University, Baltimore, Maryland. Pelumi got his BSc and MSc degree in Physics from Obafemi Awolowo University, where he also served as a research assistant at the Environmental Pollution Research unit, in Ile-Ife, Nigeria. As part of his contribution to science and engineering, Pelumi has taught as a teaching assistant both at Morgan State University and Obafemi Awolowo University. With passion to communicate research findings and gleaned from experts in the field as he advances his career, Olaitan has
education spans a variety of fields, including electronic hardware, software,and signals and systems. Therefore, the diverse learning outcomes of an undergraduate educationin ECE lay a strong foundational base that enables students to pursue lucrative careers intechnology in a variety of technical disciplines where there still exists a gap between the numberof engineering graduates and the increasing demand for talent by the growing technologyindustry [1] – [3].There have been significant efforts to improve undergraduate ECE education using holistic aswell as specialized approaches. The Revolutionizing Engineering and Computer ScienceDepartments (RED) grant by the National Science Foundation has supported efforts introducingsystem-wide curricular
) Reaching out to students with individual emails requested by the departmentTo further increase student engagement, in Spring 2022, the department requested that instructorsof all base courses reach out to students with a copy of the email to each student’s assigneddepartmental Undergraduate Academic & Career Advisor regarding missed graded events. Thesuggested note is: “Dear Student (insert name here), I was reviewing the grades in ECE XXXX and noticed that you were not able to complete assignment XXX. Is there anything our support team for the class can do to help you keep on track in the class? I am happy to have you in this class and want to see you succeed. I understand that we all face demands outside of
. This lab plays asignificant role in preparing students for such upper-level courses with more practicalprojects such as courses on “Embedded Systems”, “Testing of Digital Circuits”, but mostimportantly, students take a great deal of experience from the lab and apply it to their seniorcapstone projects, as well as, in their future careers.3.1 Course Content and Outcomes The following lists some of the educational goals and the students’ acquired knowledge and skills upon completion of our digital logic laboratory course: o Design and implementation of logic circuits: theory, simulation, physical circuit o Introduction to TTL Gates o Design with small-scale integration (SSI) and medium-scale integration (MSI