laboratory. The goal is to develop a strongfoundation for both students’ future academic work and professional career. Successfulstudents will be able to do the following: produce engineering drawings and models both byhand and using the SolidWorks CAD package, visualize objects in three dimensions, work inteams to perform various elements of engineering design, and demonstrate effective technicalcommunication skills. In the syllabus, “Engineering design is more than just tinkering; it isthe logical application of scientific principles to a tangible design. It involves creativity,dedication, thought, research, ingenuity, and work. It may well be your first experience in"real world" engineering.” are put special emphasis. According to the topics
physical location that works as a meeting space for makers and houses thecommunity’s design and manufacturing materials [4]. This place provides access and trainingfor students to realize their ideas and serves as a compliment to the theoretical curriculumalready in place. A study indicates that creativity values of students increase after workingand learning in a makerspace. Also, the majority of the students state that the technologylearned is useful and will benefit their future career as engineers [5], [6].China, the world’s factory, is trying to transfer its economy from low-cost, labor-intensivemanufacturing to innovation and design-led production. With the wave of innovation andentrepreneurship education, an increasing number of Chinese
to their military experience or in engineering; however, their narratives illuminate howthey conceptualize engineering identity as central to their experiences; and (4) althoughparticipants did not indicate that gender was central to their identities and experiences, nearly allof them discussed relational elements, including the significance of relationships and caregivingto their educational experiences. That is, family roles (e.g., daughter, wife, sister) were central totheir identity, even if the women did not say that gender, per se, was salient.Our initial results offer insights into the unique experiences of women who served in the militaryand who then chose to advance their careers and education in engineering. Policies and
prepareengineering students for their future professional career and to foster and develop theaforementioned skills and qualities, fundamental aspects of the engineering curriculum should betaken into consideration. It can be argued that the primary skill needed by engineers throughout their professionalcareer is the ability to solve problems. Engineers, by definition, regularly tackle complex problemsand attempt to find the best solutions to those given problems with the resources available to them.However, throughout a student’s studies in undergraduate engineering courses, they are mostfrequently asked to solve well-structured problems. In university settings, engineering students areusually asked to solve well-structured problems as part of their
. During his military career he spent over 10 years on the faculty at the US Military Academy at West Point teaching civil engineering. He also served as the Director, Graduate Professional Development at Northeastern University’s College of Engineering.Lt. Col. Jakob C Bruhl P.E., U.S. Military Academy Lieutenant Colonel Jakob Bruhl is an Assistant Professor in the Department of Civil and Mechanical Engineering at the United States Military Academy, West Point, NY. He received his B.S. from Rose- Hulman Institute of Technology, M.S. Degrees from the University of Missouri at Rolla and the University of Illinois at Urbana/Champaign, and Ph.D. from Purdue University. He is a registered Professional Engineer in Missouri
c American Society for Engineering Education, 2018 Paper ID #22994is currently serving as the executive director of MnCyber. He is also the co-founder and executive memberof Minnesota Cyber Career Consortium (MNC3) whose mission is to address Minnesota’s cybersecurityworkforce needs and to help assist Minnesota businesses in handling cyber risks.Dr. Kaleem has established a solid track record in teaching and has received numerous awards includingthe best professor and the best course awards (cybersecurity) from various graduating cohorts. Dr. Kaleemis an advisory board member to various organizations as well as the faculty advisor for the
use the machinesand hold team design meetings in the makerspace. These teams employ collective learning,which can increase design self-efficacy, as they form their own small communities [2]. To assessdesign self-efficacy, a modified version of the instrument created by Carberry et al will bedeveloped in the future [11].References[1] Dukart, K. (2017, June), Creating Meaningful Experiences Through Extracurricular Project-Based ExperientialLearning Paper presented at 2017 ASEE Annual Conference & Exposition, Columbus, Ohio.[2] Gerber, E. M., Marie Olson, J., & Komarek, R. L. (2012). Extracurricular design-based learning: Preparingstudents for careers in innovation. International Journal of Engineering Education, 28(2), 317.[3
reliability and maintainability of complex systems. He has been selected as both a NASA and an ONR Faculty Fellow. He regularly teaches courses in Ma- rine Engineering and in Maintained Systems. Most recently Dr. Dean was on the Headquarters Staff the American Society of Naval Engineers. He received his Ph.D. from the Department of Engineering Management and Systems Engineering, and a B.S. in Nuclear Engineering Technology, from the Batten College of Engineering and Technology at Old Dominion University. Additionally, Dr. Dean received an MBA from the College of William and Mary. Prior to is academic career Dr. Dean was Director of Operations and Business Development for Clark-Smith Associates, P.C., and served as an
proposed solution. • Individual Reflections: Student journals serve as a working record of course materials and activities. The reflection serves as a reference and benchmark to support future evolution of student critical thinking, goal setting, and career exploration related to sustainability. At the minimum, the journal must have seven reflections. Typically required topics include a personal definition of sustainability, five reflections discussing topics or observations learned during course, and a final reflection on group project commenting on the integrated design process and team dynamics. • Personal Mission Statement: Students fill out a short questionnaire and write a vision outlining, “What
sophomores we held a special session in a follow-on ChE class to address theseissues. Two ChE faculty not associated with this project and two of the authors (outside of ChE)facilitated a presentation and discussion among all the ChE sophomores. We addressed topics such asthe relative safety of the chemical industry, and the importance of understanding consequence,conducting a rigorous risk analysis, making informed career decisions, and the need for including humanaspects with their technical work. We did not do a formal evaluation of the session but our sense wasthat it was successful in providing closure and addressing some of concerns we saw in the surveys. Thestudents who spoke up during this session seemed interested in thinking ahead about
providing equal opportunities to students from all backgrounds.Mr. Alisan Oeztuerk , German ArmyMr. Ben Servoz, Dartmouth College c American Society for Engineering Education, 2018 Data-Driven Curricular Decisions in Introductory Computing Classes1. IntroductionComputer programming has become an essential skill in young people’s trajectories foracademic success in STEM, entry into STEM professions, and increasingly across a broaderspectrum of career choices. Yet, drop-out rates remain high in overcrowded introductoryprogramming courses. At the same time, recruiting and retention of a diverse student body,particularly women and students from underrepresented populations, into computing and STEMcareers remains a
interesting to note that AAU will be launching a BME PhD program in partnership with universities in Finland and South Africa. • Challenges for the BME field in Ethiopia ‐ Regulations: medical devices are categorized as a type of pharmaceutical in Ethiopia which require a medical license to operate. BMEs are not currently equipped with these licenses and therefore are not allowed to operate, service or sell these types of devices. ‐ National awareness of biomedical engineering ‐ Salary and benefits for biomedical engineers ‐ Career trajectory of BMEs ‐ Training required to be a BME • Conclusion ‐ The need for BMEs in Ethiopia
using a variety ofcommunication instruments extended throughout all four years of the program.Conrad and Pfeiffer,4 among others, noted a growing problem in engineering education, which is amismatch between the writing students complete in their academic programs and the writing theyare expected to produce in the workplace. A 2010 survey of the Engineering Advisory board atthe University of Southern Indiana, had similar findings. Board members were asked to score boththe frequency and importance of various types of technical communications. The survey resultsare summarized in Table 1. The results affirm the importance and need for improvement in thecommunication skills of early career engineers. They expressed a desire for employees to
in Engineering Division, the Educational Research and Methods Division, and the Design in Engineering Education Division. She is also a member of the Society of Women Engineers (SWE) and is the Faculty Adviser for SWE at VT. c American Society for Engineering Education, 2018 Developing a Coding Rubric for Students Visualization StrategiesAbstractThere are many calls for increasing the number and diversity of students pursuing STEM careers.Equally important is retaining those students who initially express interest in these careers. Oneof the myriad of factors that influences students’ success in a STEM major is their spatialvisualization ability. Fortunately, research has shown that spatial ability
from multiple departments into a single stream.Creation of cybersecurity clusters provides opportunities for lateral collaborations among facultyacross departments. For example, students from computer science background may not getexposure to criminal law and justice, thereby not appreciate the value of digital forensics whenthey are merely exposed to forensic tools and techniques. Interdisciplinary degree programsprovide a holistic view of the cybersecurity space and also provide opportunities for students topursue niche career paths due to the exposure to such breadth and depth of topics. Theknowledge provided by faculty from varied disciplines also help students gain insights throughthe lens of each discipline.5. Observations and
. Improve your oral and written communication skills for use throughout your engineering career. 3. Create a technical design proposal that satisfies the project sponsor needs. 4. Learn the role of engineering management skills and their applications in a structured design process. 5. Experience the life cycle of a typical design and build project in a structured interdisciplinary team environment.SLO #1 is met through the fact that these projects require implementation of the latesttechnology to be realized, with challenges on both the mechanical and electrical sides.While the projects are not industry-sponsored, the client (in this case, the NRMdepartment) mimics this role for the students, and there is no
most of her career. c American Society for Engineering Education, 2018 Effectiveness of Freshman Level Multi-disciplinary Hands-on Projects in Increasing Student Retention Rate and Reducing Graduation Time for Engineering Students in a Public Comprehensive UniversityAbstractThis complete Evidence-based Practice paper describes the effects of hands-on multidisciplinaryprojects on the retention and graduation rates of engineering majors in California StateUniversity, Fullerton (CSUF), a public comprehensive university. The US national trend showsthat undergraduate students in engineering majors have lower retention rates and take longer tograduate compared to other majors. Declaring an engineering
-school girls in computer programming. Will has been an active member of ASEE throughout his professional career, serving as an officer in his local section from 2002-2007 (Chair in 2005) and attending and publishing at national and sectional conferences. c American Society for Engineering Education, 2018 Effects of Service-Learning Projects on Capstone Student MotivationAbstractMany engineering programs incorporate project-based, service learning into traditional classesand capstone experience. These projects focus on service-related challenges that impact the local,national, or international community and could be described as “humanitarian” or “for thegreater good”. While these projects have shown
of this study suggest several different paths forward. To begin, it would be helpful tointroduce students explicitly to the growth mindset at an early point in their academic career andto continue to reinforce the principles of this mindset throughout a student’s college career.Although this study introduced the mindsets in an academic setting, these mindsets areapplicable in all areas of life and learning. Even if interventions such as the one in this studydon’t affect all students’ mindsets, there are still many students for whom learning about growthmindset will make a difference. In order to more robustly investigate the question of shiftingmindsets, it would be necessary to carry out the study on a larger sample of students. It
succeeding in CS career [5], and the further they go, the moreThe gender parity in the field of computer science (CS) is evident insecure they feel. This anomaly only grows by indirectly forcingin education, workforce and research. This study, explores the women in CS to quit CS due to the struggles they encounter. Someintroductory computer science class in an attempt to understand the researchers have found female graduate students in CS to lack self-low retention of women in CS. As means to encourage the retention confidence when compared to men [5]. This stereotype also playsof women in this class in the department of computer science at the a role in pushing women away from CS at young ages [2]. ThisUniversity of Minnesota
] undergraduatemajor.” The same survey also indicates that more than 75% of those surveyed say they wantmore emphasis on five key areas including: critical thinking, complex problem solving, writtenand oral communication, and applied knowledge in real-world settings.As part of the larger goal to better prepare students for career success and personal development,improving students’ critical thinking ability has been a significant initiative of the University ofHartford’s strategic plan since 2014. In the fall semester of 2017, we implemented a coordinatedlarge-scale project that aimed to promote students’ critical thinking through a series of newly-designed troubleshooting exercises embedded in all fundamental DC electric circuits labs forengineering
Program, the authors invited many of ourcolleagues to join us in creating an interdisciplinary class experience. We have drawn on severaldepartments in the School of Engineering, not only to bring in other fields of knowledge but alsodifferent approaches to pedagogy. We have exploited some interesting new initiatives within theSchool of Engineering, such as the “Smart Cities” project developed by the Department of Civil,Construction and Environmental Engineering. We also encourage guest speakers to tell thestudents a little about their education and career choices, as we feel this provides valuablemodels for our students, most of whom are in their first or second year of studies and havelimited interaction with engineering faculty.In planning
disciplines.We hope that this reflective paper is helpful to other summer camps and outreach programs thataim to broaden participation in engineering. We look forward to learning more from theengineering education community.References 1. Chen, K.C., Schlemer, L.T., Scott, H.S. & Fredeen, T. (2011), Evolving a Summer Engineering Camp through Assessment. ASEE Annual Conference Proceedings 2011 2. Chen, K.C., & Belter, D., & Fredeen, T., & Smith, H., & Magnusson, S. (2009), Inspiring A Diverse Population Of High School Students To Choose Engineering As A Career Path. ASEE Annual Conference Proceedings 2009 8Appendix I
creating designs that last: Participant 3: I guess to incorporate sustainability and resiliency into my future career I would, you know, be designing things to last. Uhm, not designing to just fix the problem, but also designing it to fix the problem and, you know, keep fixing the problem 10 years down the road.For Participant 2, the inclusion of sustainability in the civil engineering code of ethics providedevidence of the importance of sustainability to the work of practicing engineers. He said: It’s in there, it’s in the code of ethics. You’re supposed to think about your sustainability and as long as we practice those fundamental cannons, that’s what you’re supposed to look into all the time and make
, basketball, guitar, etc.) and Value Symbolic Images (e.g., sketches to depict the USnational flag, institution mascot). Over these two typologies, participants demonstrated thegreatest degree of intersection focusing their drawings on the hobbies that best inform theirindividual identities as well as the symbols that represent the institutions, disciplines, andmetacognitive reflections. While most of these depictions did not explicitly connect toengineering, much of the discipline-specific symbolic drawings were images of mathematicalsymbols and computers. These particular symbols may be related to the educational componentsthat inform students’ major and career choices. Without longitudinal evidence, however, makinginferences about student interest
by the Office of Naval Research. Dr. Nelson is a 2010 recipient of the NSF CAREER Award. She is a member of Phi Beta Kappa, Tau Beta Pi, Eta Kappa Nu, and the IEEE Signal Processing, Communications, and Education Societies.Dr. Margret Hjalmarson, George Mason University Margret Hjalmarson is an Associate Professor in the Graduate School of Education at George Mason University and currently a Program Officer in the Division of Research on Learning in Formal and Infor- mal Settings at the National Science Foundation. Her research interests include engineering education, mathematics education, faculty development and mathematics teacher leadership. c American Society for Engineering
development students.Dr. Shane A. Brown P.E., Oregon State University Shane Brown is an associate professor and Associate School Head in the School of Civil and Environmen- tal Engineering at Oregon State University. His research interests include conceptual change and situated cognition. He received the NSF CAREER award in 2010 and is working on a study to characterize prac- ticing engineers’ understandings of core engineering concepts. He is a Senior Associate Editor for the Journal of Engineering Education.Mr. Benjamin David Lutz, Oregon State University Ben Lutz is a Postdoctoral Scholar in Engineering Education at Oregon State University. His research in- terests include innovative pedagogies in engineering design
[14]. Studentsperformed proficiently in the course and felt much more confident in their computing abilities,and felt the course was important and useful to both current studies and future careers. Tilburydeveloped web-based MATLAB learning materials in the domain of automatic controls; thelearning materials were coupled with MATLAB homework [15]. Tilbury found that studentbehavior while working on MATLAB homework included frequent quick references to thelearning material.Researchers have also analyzed student learning and usage of small auto-graded coding exercisesin introductory programming courses that are not based on MATLAB[6][7][8][9][10][11][12][13]. Edgcomb found that students completed 25% of assigned exerciseswhen no points were
research can have a variety of models asillustrated by [18]. Despite the normal perception of one-on-one (faculty/student) mentoringprogram, student’s perception of how they are best supported appears to include a multi-mentoring approach, with a network of people who take interest in the student’s success [18]. Inaddition to understanding what students perceive as supportive mentoring, whether one-on-oneor the multi-person, successful mentoring must be detailed to include five components:communication, psychosocial support, career/professional development, science integrity, andresearch development [19]. However, in order to achieve such outcomes during a summerSURE program, then an interdisciplinary/multi mentor approach would seem most
to thestudents; keeping the number of students limited meant that the instructor could provide one-on-one help to each student beyond what would be available in a lecture or flipped class.Students were given a brief description (included as an appendix here). Ten students wereselected to fill out two teams of five students. The students included eight men and two women,nine sophomores and one junior, with intended careers of Aerospace Engineering (2), AppliedMathematics (1), Computer Engineering (1), Mechanical Engineering (4), and NuclearEngineering (2). Neither student grade-point averages nor prerequisite grades were available asthis pilot was intended as a proof-of-concept learning opportunity and did not include studentadvisors or