carried out as part of agraduate degree project [9].Background: Leadership in LiteratureLeadership has been researched for centuries and is said to be “one of the most observed andleast understood phenomena on the earth” [10, p. 2]. In literature, leadership theories anddefinitions are often categorized into different models or styles. Within these vast arrays oftheories and models, there is an extensive amount of literature on defining leadership. Forexample, a thorough review of 160 articles defining leadership provided a detailed integrativedefinition of leadership that is over 1600 words [11]. Their definition of leadership contains 90variables that make up the whole of leadership, which provides a detailed view on the breadthand scope of
change in financial circumstancessuch as an unanticipated financial crisis, or loss of employment by parents or students.Allocation of bridge funding was dependent on financial eligibility of the student.The ASPIRE Program leveraged the success of existing activities at the University of NewHaven to provide recipients with complementary and supplemental support activities thatincluded: mentoring, undergraduate research opportunities, networking with alumni, applying tograduate school, and opportunities to participate in service learning projects (1). Regardless ofwhether scholarship recipients were receiving financial support from the grant, students hadaccess to these opportunities until they graduated.The broader impact of the project includes
her B.S. from Missouri State University, and M.S. and Ph.D. from Purdue University.Dr. Steven Nozaki, Pennsylvania State University, Erie (Behrend College) Ph.D. Engineering Education - Pennsylvania State University, Erie (Behrend College)Dr. Sheryl A. Sorby, University of Cincinnati Dr. Sheryl Sorby is currently a Professor of STEM Education at the University of Cincinnati and was recently a Fulbright Scholar at the Dublin Institute of Technology in Dublin, Ireland. She is a professor emerita of Mechanical Engineering-Engineering Mechanics at Michigan Technological University and the P.I. or co-P.I. on more than $14M in grant funding, most for educational projects. She is the former Associate Dean for Academic
individuals who already are pursuing their careers in a given field. These three reasons forthe top ranking of data science as a career choice are: i) the overall shortage of data analyticstalent, ii) the ever-growing demands of “big data” on companies and other organizations, and iii)the aforementioned fact that facing the challenges of, and working with, the “big data” is nolonger limited to a handful of tech giants (and government agencies) [2]. While most expertpredictions and analyses project an-ever growing gap between all computer science andinformation technology related industry needs and job openings on one hand, and the producednumber of college graduates with prerequisite skills and degrees on the other, such projectionsfor data
of peer support to achieve in higher education [2]. Co-curricular and informal learning opportunities can provide students access to expert thinking intheir disciplines, and can improve retention in the sciences [3]. S-STEM scholarship programswere designed to provide curricular, co-curricular, and financial support to students withfinancial need who are underrepresented in STEM fields. Results from S-STEM programindicate scholars experience greater retention and higher achievement than their peers, [4,5,6] yetlittle is known about how S-STEM scholarship programs shape students’ professional identitiesin their fields.The Cybersecurity National Science Foundation S-STEM scholarship project is a joint effortbetween two- year and four-year
and project management.Dr. Abdelfattah Amamra, California State Polytechnic University, Pomona Dr. Abdelfattah Amamra joins California State Polytechnic University, Pomona as an Assistant Professor in the Department of Computer in the College of Sciences. Prior to coming to CalPoly, Pomona he was an Assistant Professor at the University of Conncticut. Dr. Amamra received his Ph.D. from the University of Quebec, Montreal , Canada. His primary research interests are in the field of cybersecurity and machine learning. Specifically, he is interested in smartphone security, and IoT security. c American Society for Engineering Education, 2018 Development of Undergraduate Interdisciplinary
available for senior project work can be veryuseful for graduates. This project considers two very different strategies for monitoring and collectingPLC data for student instruction.The first strategy is the use of free demonstration software to implement an industry open standardsolution, OPC UA servers that work with a broad number of devices. Considered are three OPC UAserver vendors: Ignition Automation, Kepware, and Matrikon.The second strategy is the use of a proprietary application solution that provides data monitoring oroperator interactions enabled through its proprietary communication standard. Two separate sites, theclassroom laboratory and an industry site hosted this phase of the work. In each case, the data trafficsource is a PLC
or closely related projects such as the NSF-funded REUpresented by Youssef et al. [4].Undergraduate research at all types of higher education institutions is now being emphasized.Since undergraduate research is listed as one of five, high-impact practices on student learningoutcomes [5], it is beneficial to expose as many students to research as possible. Undergraduateresearch has been linked to retention in undergraduate degree programs [6], improved skills indata acquisition, data reduction, and public speaking [7], and increased participation in graduateprograms [8]. There are even journals dedicated to undergraduate research. These might bewithin a single academic department at an institution [9], school wide [10], or discipline
and the director of Missouri’s Dam and Reservoir Safety Program. Since 1993, he has been at the University of Evansville, serving as a professor, department chair, and interim dean. He continues to work as a consultant on projects involving the design and construction of new dams, modifications to existing dams, and the investigation of dam failures.Dr. Matthew K. Swenty, Virginia Military Institute Matt Swenty obtained his Bachelors and Masters degrees in Civil Engineering from Missouri S&T then worked as a bridge designer at the Missouri Department of Transportation. He went to Virginia Tech to obtain his Ph.D. in Civil Engineering and upon completion worked at the Turner-Fairbank Highway Research Center
Writing through the Writing Studio ModelAbstractThis paper presents the results of a pilot collaboration between the University Writing Centerand a senior-level Electrical Engineering course. To address the growing need forengineering students to improve their written communications skills, the professor added aresearch project to their class. Students then participated in a required writing studio, awriting group of five to seven students who provide feedback to one another on their writingprocesses throughout the semester. The writing studios are facilitated by the UniversityWriting Center undergraduate peer tutors, some of whom are also engineering students.Research in writing studies show that simply assigning
for the gift shop that was expanded for publication with a national publisher; atablet/smart phone app that includes origami instructions followed by related engineeringactivities, which has had broad use beyond the museum activity room; a video that was preparedfor museum patrons but has since been made available to larger audiences; materials created forhands-on museum activities that were used for outreach activities after the exhibition; andleverage for industry visits that led to additional applications and research projects. This paperdescribes the museum exhibition, the first- and second-generation products, the impact of eachproduct, and the benefits and pitfalls of using a museum exhibition to extend outreach impact.IntroductionThis
Educational Psychology with the specialties in Gifted Education and Research Methods & Measurement, respectively from Purdue University. Her work centers on P-16 engineering education research, as a psychometrician, program evaluator, and institutional data analyst. She has authored/co-authored more than 40 peer-reviewed journal articles and conference proceedings and served as a reviewer of journals in engineering education, STEM education, and educational psychology, as well as an external evaluator and an advisory board member on several NSF-funded projects. c American Society for Engineering Education, 2018 Impact of Undergraduate Research Experiences on Diverse National and
holds B.S. and M.A. degrees in Mathematics. Dr. Hensel has over seven years of experience working in engineer- ing teams and in project management and administration as a Mathematician and Computer Systems Analyst for the U. S. Department of Energy as well as more than 25 years teaching mathematics, statis- tics, computer science, and freshman engineering courses in higher education institutions. Currently, she leads a team of faculty who are dedicated to providing first year engineering students with a high-quality, challenging, and engaging educational experience with the necessary advising, mentoring, and academic support to facilitate their transition to university life and to prepare them for success in their
as a project management consultant. Her research contributes to the advancement of labor and personnel issues in engineering broadly and specifically in the construction industry through two research areas: untangling the complex relationship between activities people become involved in — operationalized as engagement — and the technical and professional out- comes gained — operationalized as competencies. The broader impact of this work lies in achieving and sustaining productive, diverse and inclusive project organizations composed of engaged, competent peo- ple. Dr. Simmons’ research is supported by awards from NSF, including a CAREER award. She oversees the Simmons Research Lab (www.denisersimmons.com), which
Paper ID #21575Board 24: Sustainable Bridges from Campus to Campus: Progress after Year2Dr. Catherine Cohan, Pennsylvania State University Catherine Cohan holds a Ph.D. in Clinical Psychology and has been a research psychologist for over 20 years. Her areas of expertise include engineering education, retention of underrepresented students, assessment, and measurement. She is currently the Research Associate on the Sustainable Bridges NSF IUSE project (Amy Freeman, PI). Previously, she was the project coordinator the the Toys’n MORE NSF STEP project (Renata Engel, PI).Dr. Pradip K. BandyopadhyayDr. Amy L. Freeman Ph.D
and 2 of data collection. The signal response rate (% of pingsresponded to) was 90% in Wave 1 and 81% in Wave 2, which is at or above rates typically seenin ESM studies (e.g. [4], [5], [6]).Feedback from StudentsStudents report in the evaluation survey their satisfaction with the interpersonal interaction andcohort development within the program. Students report spending significant time with eachother outside of the classes, and they found the peer connections important. They did reportwanting more purely social events planned with the project personnel.Responses to the anonymous evaluation survey also indicated that, overall, students enjoyedparticipating in the research. They did not view it negatively nor did they find it disruptive
in Electrical and Computer Engineering, with a concentration in Industrial and Systems Engineer- ing (ISE) at Unniversity of Texas in 2016. His research is focused on undersanding Complex Technical and Socio-Technical Systems from an Infromation Theortic approach. He has worked on a number of projects in the field of Electrical & Computer Engineering, Systems Engineering, Additive Manufactur- ing and Green Energy Manufacturing. His research interests are in Systems Engineering & Architecture, Complex systems, Systems testing and Application of Entropy to Complex Systems.Prof. Tzu-Liang Bill Tseng, University of Texas, El Paso Dr. Tseng is a Professor and Chair of Industrial, Manufacturing and Systems
students to cross institutionalsilos. Community creation contributes to program scalability. Example activities are shown inTable 1.Table 1: Example activities for industry/entrepreneurial, clinical or research career goals.Required related activity Examples Organization (at least 2)Additional course Entrepreneurial– Course in Business School regulatory affairs Clinical – Course in Veterinary School pharmacokineticsHonors credit Research – Academic based Arts and Sciences honors project in related course Entrepreneurial – Medical Business School
mentoring. In addition, recruitment and retentionactivities include a high school summer bridge program, weekly cohort meetings focusing oncollege success and transfer strategies, and peer-tutoring. The project is designed as a selectiveprogram for a cohort of students featuring nationally recognized strategies to promote STEMsuccess.The SAMS program includes weekly meetings and study groups (with pizza) to help studentsbond in a non-formal, non-threatening environment; which is in contrast to the high-stressenvironments experienced in math and science classes. Students attend conferences to viewpresentations by industry professionals. Field trips provide opportunities to observe constructionprojects and learn design methods used in current
created a hands-on approach to gamify their library orientationtutorial by creating a series of tasks and stamps as a reward for completing each step (Spence).The project was great for allowing students to choose their own path for answering the questionsand giving awards (stamps) once each task was complete. One issue with this model is itrequires all the students and several libraries to be together at the same space and time.Other gamifying projects have been done in a more asynchronous video game format, such asvideo games created at Rowan University for their freshman engineering clinics (Gulotta). Thesevideo games use a scaffolding model, which means the challenges become harder as they movethrough the program, and allow the users to
reversing the roles teachers and students play in a traditionallearning environment, the classroom is then “flipped” or “inverted” [2, 6]. As summarized bySchmidt and Ralph [15], the “I do”, “We do”, “You do” teaching approach has become “Youdo”, “We do”, “I do”.A flipped classroom, when designed and implemented well, can provide a range of benefits. Forinstructors, having students learn outside of the class gives them more time to cover additionalselected topics [6]. Instructors will also have the freedom to use class time for highly interactiveactivities [2] through team-based learning, problem-based learning, or hands-on projects etc..They will also likely to give more personal attention and guidance to the students. In addition,once the
Engineering Education, 2018 Short-format workshops build skills and confidence for researchers to work with data.AbstractTraining for data skills is more critical now than ever before. For many researchers in industryand academic environments, a lack of training in data management, munging, analysis andvisualization could lead to a lack of funding to support sustainable projects. Today’s researchersare often learning ‘as they go’ and need the flexibility of short, or self-paced learningexperiences. Research results in educational pedagogy, however, stress the importance of guidedinstruction and learner-instructor interaction, which contrasts the need for ‘just in time’ training.We’ve taken a distinctive approach to this
Educational Research Association (AERA), Association of Black Psycholo- gist (ABPsi), National Association of Multicultural Education (NAME), American Society of Engineer Education (ASEE) Council for Exceptional Children (CEC), and National Association of Black School Educators (NABSE).Dr. Michael P.J. Benfield, University of Alabama, Huntsville Dr. Michael P.J. Benfield is currently the lead of the STEM Projects Advancing Relevance and Confidence in the Classroom (SPARCC) Laboratory and a Principal Research Engineer within the Systems Manage- ment and Production (SMAP) Research Center at The University of Alabama in Huntsville (UAH). He holds a Ph.D. in Industrial and Systems Engineering and Engineering Management, a
simulation of materials. He participate in multiple projects, including the Development of a Model for The Metal Laser Powder Bed Fusion Additive Manufacturing Process. Dr. Ahmed Cherif Megri is currently the chair of the NCAT CAM’s Education subcommittee. He contributed to the outreach CAM since 2015.Mr. Ismail Megri Is a rising junior at Northwest Middle in Greensboro, has begun taking 3D printing and design courses at North Carolina A&T State University. He participated to 2017 Appalachian Energy Summit Poster Competition.Dr. Sameer Hamoush P.E., North Carolina A&T State University Professor and Chair of Civil and Architectural Engineering DepartmentDr. Taher M. Abu-Lebdeh c
perhaps all grads, earnsimilar benefits. Serving as a mentor may also build grad students’ confidence by remindingthem how much they have learned since they were undergraduates. Undergraduates give gradsopportunities to learn how to communicate with and manage others, a valuable professional skill.Dan’s postdoc James argued that this is the most important reason to include undergraduates in aresearch group: “I think [teaching undergraduates] is not very helpful for the project, but it’svery helpful for grad students to learn how to teach the junior students.” He believes thatundergraduates’ presence benefits grad students’ development more than the lab’s research. Thuseven by doing simple tasks, novices can instigate important learning mechanisms
to the economy,made the utilitarian principle an obvious choice as one of the principles on which to“base” engineering ethics. Yet recognizing the potential of technology to cause harm, theyalso chose the Kantian principle of people as “ends rather than means”. While textbooksmentioned other principles such as Rawls’ theory of Justice, these two – utilitarianism andKant’s Imperative- translated as a version of the Golden Rule – remained the main basis.This was the case for example of the widely used textbook on engineering ethics [3]. Theother pioneering textbook, by Martin and Schinzinger [4], framed engineering as “socialexperimentation”, and chose three principles: Awareness (of the consequences of theengineering project); Autonomy (the
our understanding of how people learn to evaluate and im- prove student learning in college and K-12 engineering classrooms. Her work also focuses on improving access and equity for women and students of color in STEM fields.Dr. Richard H. Crawford, University of Texas at Austin Dr. Richard H. Crawford is a Professor of Mechanical Engineering at The University of Texas at Austin and is the Temple Foundation Endowed Faculty Fellow No. 3. He is also Director of the Design Projects program in Mechanical Engineering. He received his BSME from Louisiana State University in 1982, and his MSME in 1985 and Ph.D. in 1989, both from Purdue University. He teaches mechanical engineering design and geometry modeling for design
has a broad background in mechanical and electrical engineering, and physiology with specific training and expertise. His work includes mod- eling the cardiovascular system, ventricular assist devices, cardiac physiology, instrumentation systems and leadless cardiac pacing. He help developed and was the inaugural director of a project-based-learning engineering curriculum. As Chief Innovation and Culture Officer in industry, He is now involved in discovery-based-learning on multi-disciplinary teams.Mr. Ronald R. Ulseth, Itasca Community College Ron Ulseth directs and instructs in the Iron Range Engineering program in Virginia, Minnesota and he teaches in the Itasca Community College engineering program in Grand
about particular courses or career experience described by the participant. Whileconducting the interview, he attempted to maintain a neutral posture but his background may haveinfluenced the probing questions that he chose to ask and the topics that he chose to clarify. During dataanalysis, he was especially careful not to project his personal feelings onto the data and to accurately portraythe views of the participants to the best of his abilities. Once the data were coded, all three authors met tolisten to the coded audio data, identify emergent codes, and to discuss the findings. The three authors havedifferent academic roles (non-tenure-track faculty, tenured faculty, and administration) which strengthenedthe data analysis.III. ResultsThe
computation or quantum mechanics requires some knowledge ofDirac notation. Coverage of this is sorely lacking in current modern physics textbooks. We haverevised our modern physics course to include some quantum computing projects. Theseintroductory projects can easily be integrated into the curriculum since our engineering studentshave familiarity with MATLAB. The MATLAB environment is designed to handle vectors andmatrices – the fundamental tools of quantum mechanics. Quantum mechanics is introduced bydescribing entanglement from the very beginning. Mermin’s device is used as a platform to delveinto the extremely peculiar nature of quantum mechanics.4This paper is organized as follows: first we describe Mermin’s device, next we explain howDirac