equipment are relying on computers to control system parameters. Al- though embedded computers are powerful and flexible tools for industry, these very advantages have contributed to a corresponding increase in system complexity. In order to adequately prepare today’s computer science, computer engineering, and electrical engineering students for their future careers, the special problems with embedded sys- tems development must be adequately addressed in their education. In this paper, we report on our multi-pronged approach to curriculum development that specifically incorporates embedded systems into a suite of relevant courses: software engineering, operating systems, digital system design, and computer system
10 Graduate School,” Equity Excell. Educ., vol. 47, no. 2, pp. 167–186, Apr. 2014, doi: 10.1080/10665684.2014.900394.[15] E. Ramirez, “Unequal socialization: Interrogating the Chicano/Latino(a) doctoral education experience,” J. Divers. High. Educ., vol. 10, no. 1, pp. 25–38, Mar. 2017, doi: 10.1037/dhe0000028.[16] R. Winkle-Wagner, D. L. McCoy, and J. Lee-Johnson, “Creating Porous Ivory Towers: Two-Way Socialization Processes that Embrace Black Students’ Identities in Academia,” in Socialization in Higher Education and the Early Career: Theory, Research and Application, J. C. Weidman and L. DeAngelo, Eds., in Knowledge Studies in Higher Education. , Cham: Springer International Publishing
White B.A. in Education Male Jim 2 21 21 0 Career engineering teacher White B.S., M.A. in Social Male SciencesNotes: ateacher names are pseudonyms to protect confidentiality.Data Sources The project utilized teacher interviews, classroom observations, and implementationsurveys to explore STEM-ID implementation. Each of these data sources are described below.Classroom Observations Researchers conducted observations in purposively selected teachers’ classrooms eachsemester of the 2022-23 school year and during
. Judging by the significant success of manyinterventions, we would like to point to some that should be considered as a permanent changefor future Statics courses in general. For example, reflective practices such as the ones seen inGoldberg et al. (2015) and Goldberg et al. (2021) can provide healthy lifestyle changes tostudents that benefit them well in their student careers. The significance of the results mentionedis easy to assume and is only further established within the paper. We believe that implementingthese interventions more regularly can provide easier communication between students andteachers and future testing can better show this in other courses as well.Group work has shown mixed results and even the significant ones are not
. Typically, engineering study many timesonly consists of abstract mathematical book work, giving little preparation for working inindustry besides providing students relevant mathematics or physics knowledge. The OEMPshapes the student-authors’ experiences by allowing them to develop problem solving skillsnecessary for a career in industry while integrating the knowledge gained from these abstractproblems. The second author goes on to explain a direct relationship between the OEMP and anexperience they had while working an internship at a local engineering firm: Jayden: Further, I had an internship with a local engineering company this past summer and obviously when it comes to industry, there are no textbooks or answers keys, so I had
at MIT. Her work includes the development and running of MOOCs and the development of digital education tools. Prior to joining MIT, she worked in industry at an original equipment manufacturer.Prof. Nicholas Xuanlai Fang, University of Hong Kong Professor Nick Fang recently moved to HKU to continue his passion for optical and acoustic research after nearly two decades of academic career in US. As an example of his public outreach effort, A 3D printing module has been successfully developed through the partnership with the NSF Center for Nanoscale Chemical-Electrical-Mechanical Manufacturing Systems, and engaged students and teachers from more than 10 high schools, showcased at the Illinois State Capitol
. ● 2021 Grad - [instructor] did a good job of prepping us for the real world in Heat Transfer. It was a really hard class because of how it was structured, but it is a whole lot more real world. ● 2021 Grad - [instructor] taught me how to present information and work in teams. ● 2022 Grad - Heat Transfer was one of the hardest classes in my college career and taught me how to ask good questions and figure things out on my own. ● 2022 Grad - [instructor] helped us problem solve, form groups, learn complex material, and really wanted to help us learn. ● 2023 Grad - [instructor] encouraged a lot of development of independent learning, thinking, and problem solving. ● 2023 Grad - [instructor’s] course structure
Due Reading a research paper [10-16] No class for Fall Break 6 Hwk 6 Due Journal club: 5 min student presentations about [17-19] published research papers 7 Hwk 7 Due Guest lecture from staff at career center, [20-22] graduate college, writing center, or fellowships office: Personal statements for graduate school and scholarship applications 8 Hwk 8 Due How to give a scientific presentation using the [23-26] assertion-evidence approach 9 Virtual class due How to give
unnoticed in the CAD model, suchas comparing improper physical sizing to real-world objects like their hands or ID cards.Many students felt gratified in having produced a final 3-D printed part for Project 1. Studentswho 3-D printed the ID badge holder still wear it with their intern work IDs or wallet cards.Having a unique, physical final product gave students pride in their effort and served as anexcellent conversational piece during career fairs and engineering job interview processes. Onestudent wore their badge holder to the career fair and used it as a talking point!Time management is always a major concern for student projects. Many students ran out of timeand only could print once. Some did not get to “see” how good a re-design can turn out
about school and not have these other worries on your mind. Like, I havenever actually experienced it.Something I found challenging in my program is the expectation from professors who measuresuccess in a class by how much effort you put into it. I personally have always worked other jobsthroughout my entire university career. A lot of the times when my professors had office hoursor tutoring, they directly coincided with my work schedule. The only advice they give you if youneed help is that you have to go to tutoring or to come to office hours. I've been lucky to havesome accommodating Professors, but I think that culture, in the beginning, discouraged me morethan anything to seek out help. I knew since I wasn't able to meet expectations of
through a degree program include knowledge of critical sources andrelying on expertise and guidance from faculty advisors and others in mentorship roles [2], [3],[4]. Students must know enough about the epistemic paradigms, method modality, and existingdogma within their fields and disciplinary neighbors to be able to communicate, navigate, andcollaborate with others in their field [5], [6], [7] To develop novel information and push the fieldforward, students must be willing to challenge previously held beliefs and dismiss any taken-for-granted views of the world around them [8]. Kent and colleagues [9] contended that those in theearly stages of their research careers are prime catalysts and change agents in shifting systemicnorms in research
committee of prominent educators, researchers and industry leaders from public, privateand non-profit organizations, investigated the preparation of K-12 engineering educators,professional pathways for K-12 engineering educators and the role of higher education inpreparing and supporting K-12 engineering educators in mostly formal, not informal, education.They discerned 4 goals of K-12 engineering education, stating that “all teachers of K-12engineering should be able to teach to the goal of engineering literacy” [5]:1. develop engineering literacy;2. improve mathematics and science achievement through the integration of concepts and practices across the STEM fields;3. improve college and career readiness; and,4. for a small percentage of
graduate students most of whom havecompleted an undergraduate engineering degree requiring the completion of a capstone teamdesign project. This experience can be pivotal in the transition from the role and identity of anengineering student to that of an engineer in training [20]. Metacognitive skills and experiencesfacilitate student development as students reflect on their experiences and make sense of it.Metacognitive skills and experience play a pivotal role in the liminal space where identitytransitions occur. GTAs have made a transition from undergraduate engineering student toengineer in training, engineer and/or graduate student depending on their career arc. Irrespectiveof their stage of engineering identity development, they are in the
-centered approach, and remind me to consider how important it is to be inclusive and equitable within STEM.” (AFS) ● “I think of why things were made the way they are and how certain people are favored over others when creating different systems.” (WGS) ● “This class has made me more aware of the many different ways technology affects society (and vice versa) and I will keep that in mind when pursuing my career in engineering so I am less likely
instructor’sperspective regarding the course content, learning objective of homework assessments, andstudent learning behavior.Student Baseline Survey: The primary objective of the baseline survey was to seek informationabout various aspects of academic background, motivation, programming, and mathematicalabilities before exposure to quantum concepts and activities. For those who encounteredquantum concepts, the survey measured their familiarity with 9 key concepts of QIS. Participantswere asked about their likelihood of pursuing a quantum-related career. The baseline survey alsoexplored, research interest, a listing of three topics that they were most interested in learning inthe EEE 4423 course, inquiring about any specific areas of quantum computing
ability to flexibly handle difficult decision-makingproblems in engineering activities. In the University’s training objectives, it is explicitlystipulated that students majoring in science and engineering not only need to master scientificknowledge such as mathematics and chemistry, as well as basic engineering techniques, butalso need to understand the development trends of modern engineering [7]. To ensure that theyhave moral integrity and a sense of responsibility in their future careers, and can consciouslyprotect the environment and achieve sustainable development while considering economic andsocial benefits. The University also provides technical ethics and personal value orientationeducation to engineering students, requiring future
ChatGPT by first year studentson coding assessments, as well as students’ reasoning about why they choose to use (or not use)AI within an introductory engineering course. Future work could continue to characterizeproductive and unproductive usage of AI by first year students, or by students throughout theiracademic careers. As AI becomes increasingly prevalent in our daily lives, student proficiencywith the tool will likely change, inviting more study. Additionally, research could explorecurricular interventions to teach students how to use AI as a learning aid. We are also curiousabout the long-term impacts of ChatGPT usage on student learning trajectories (e.g. do studentsthat use ChatGPT for coding get hired at the same rate, how do they
as Research Engineer at Korea Electronics Technology Institute (KETI) from 1993 to 1997. He received the NSF CAREER award in 2004 and was given the WCU (World Class University) Visiting Professorship under the Ministry of Education, Science and Technology, Korea in 2009. He is currently leading the NSF-supported HSI Implementation and Evaluation Project: Enhancing Student Success in Engineering Curriculum through Active e-Learning and High Impact Teaching Practices (ESSEnCe).Michelle Taub, University of Central Florida Michelle Taub, Ph.D., is an Assistant Professor of Learning Sciences and Educational Research and Core Faculty of the Faculty Cluster Initiative’s Learning Sciences Cluster at the University of
CDIO initiative in aerospace engineering, contextualization isfound to be a compelling learning approach that goes beyond the regular educationalenvironments: “The evidence for adopting a contextual learning approach is compelling. This approach encourages students to choose specific careers and remain in their respective career preparation programs. Learning environments and experiences set in professional contexts open students’ minds, enabling them to become more thoughtful, participative members of society and the workforce. Moreover, a contextual learning approach assists students in learning how to monitor their own learning so that they can become self-regulated learners.”52 As a point of
“in my opinion, the learningcurve in practice is shorter when folks have the additional education.” Several noted that supportof this policy will require a monetary commitment from employers to help defray the costs ofobtaining additional formal education. Lastly, three of the practitioners pointed out that moreemphasis needs to be placed on the “experience” requirement of Policy Statement 465.18 One ofthem highlighted the importance of “…mentorship and apprenticeship under experiencedprofessionals (on the job training).”Students considering a career in geotechnical engineering should expect the field to grow at thesame pace as the general civil engineering field. To improve their employability upongraduation, they should obtain internships
withmicrocontrollers does not mean that students will respond positively. Instructors used the “buzz”about the Arduino to motivate students, by indicating that the students were using a new andpopular technology. Instructor observations of student reaction showed that students were notuniversally inspired by or interested in the technology. This makes sense because the definitionof “cool” is not uniform for engineering students. Assessment was performed with an end-of-term survey of student attitudes toward thecourse and how it affected their career plans. Students were asked whether the use of theArduino platform changed their attitude toward computer programming and electromechanicalsystems. The complete survey is included in Appendix B. Results from
), or to pursue a career in academia, or to become a specialized researcher in agiven field (a doctoral degree). While this is true of many individuals, there is also an emerginggroup of ―adults in America today – and [potentially] even more so in the future – [who] cannotstop learning‖ 4. In many cases these are individuals who have been working professionally formany years before returning for advanced degrees for a variety of reasons – the desire forprofessional advancement, a career change for personal reasons, or a need for retraining causedby a shift in the labor market – yet there is a dearth of research regarding what these returningstudents bring with them to graduate programs. It is probable that professional non-traditionalstudents
statements and presentation outlines). Student responses indicated that theworkshop content could be informed and improved both by better tailoring the content to thecourse and assignment and by improving the instructor‟s (librarian‟s) approach to delivering thecontent. It was determined that more opportunity for students to do hands-on exploration andactive learning, at the likely cost of imparting less content in a lecture format, would beappropriate for a delivery design change. Respondents nearly unanimously agreed that the kindsof skills covered in the workshop were going to be of moderate importance or very importantboth in their academic careers and in their future professional careers, irrespective of their levelof satisfaction with the
individual schools and programs have begun to demonstrate the feasibility andthe benefit of integration, and many have been showcased at the Symposium on E&LE.63, 121Next steps are to provide tools that empower more faculty to act, to create a national communityof practice, and to demonstrate how the integration of E&LE elevates engineering students’capacities for innovative and entrepreneurial careers.3. EXAMPLES OF INTEGRATION OF E&LEExperiences and activities presented in this section all represent existing integrative activities.They illustrate ways to leverage expertise from non-engineering disciplines into importantcomponents of the engineering education spectrum. Study of these successful activities will leadto the insights and
. Page 22.429.2In terms of context, our approach is focused on leveraging the relatively young, sometimesreferred to as game-changing, paradigms of mass career customization, mass collaboration, openinnovation, and crowd sourcing. From an educational and instructional perspective, ourapproach is anchored in the theory of collaborative/collective learning, the paradigm of masscustomization applied to course design, and the concept of competency-based learning.2. Globalization 3 and the world of near tomorrowOver the past two decades web-based technologies have brought about revolutionary changes inthe way organizations conduct business. Organizations are increasingly transforming intodecentralized supply and demand networks. According to Friedman
Page 22.469.4somewhere in the student’s academic career and its limits must be determined. As an old Welshproverb says: An early stumble saves a later fall. Open-ended design problems provide motivation and an opportunity for students to develop good judgment and confidence in theirabilities as an engineer. Table 3. Learning Objectives – Design Methodology for Mechanical Engineers 1) Instill the philosophy that real engineering design is often an open‐ended, ill‐defined process 2) Provide students with in‐depth practice in design and the use of a structured approach to design 3) Develop and practice teamwork, critical thinking, creativity, and independent learning 4) Develop and practice communication skills
objectives. It has aninterdisciplinary content that relates General Chemistry principles to other fields because theprojects are developed from topics related to the disciplines representing the career goals of thestudents in the course. Particular emphasis is placed on students working collaboratively onopen-ended investigations which do not have predetermined procedures or outcomes. Thus apremium is placed on development of decision-making ability and understanding of chemicalconcepts necessary to solve a problem. Faculty from the chemistry and engineering departmentshave assisted in designing these projects and have been guest lecturers in the course. Thesefaculty will be drawn into a reflective discourse about the teaching and