of new, innovative, life-saving technologies. Specifically, the objectivesare: 1) expand the base of expertise needed and available to address the most pressing problemsin global health by developing trans-institutional, problem solving-based research trainingprograms in biomedical engineering that bring together widely diverse experts who worktogether on research problems in Global Health; 2) Stimulate new knowledge, approaches andsolutions in Global Health by putting “innovation” in the Global Health context; and 3) IntegrateGlobal Health research communities within and among institutions by raising awareness andbuilding interdisciplinary biomedical engineering capacity where it is needed the most, in thiscase, sub-Saharan Africa.The theme
, foreign companies and transnational corporations (over 130). The HSE israpidly developing university which actively perceives the most advanced ideas. So it waswith software engineering.Software engineering is a relatively young scientific discipline. For the first time, the term“Software Engineering” was proposed in 1968 at the NATO conference at Garmisch-Partenkirchen devoted to the so-called “software crisis” that has arisen with the developmentof computers of the third generation, allowing the realization not previously implementedsoftware projects. There was a need for new technologies and methods of management for thedevelopment of complex large software systems. In Russia, the HSE in 2006 began to developfirst domestic standard on software
Luegenbiehl on global moral issues for engineers. His research and teaching interests include engineering ethics, philosophy of tech- nology, Chinese philosophy, political philosophy, and science, technology, and society studies. Rockwell completed his PhD at Purdue University, West Lafayette, MA at the Katholieke Universiteit, Leuven, Belgium, and BA at Fordham University, New York.Dr. Gang Zheng, University of Michigan-Shanghai Jiao Tong University Joint Institute Dr. Gang Zheng is the Associate Dean for Undergraduate Education of the UM-SJTU Joint Institute. He is also a faculty member in Electrical and Computer Engineering. He has been leading and/or participating in curriculum development, program assessment
2016 ASEE International ForumTriple-Helix and International Collaboration to Design and Implement anOutcomes Based Engineering Curriculum to Better Serve Stakeholders in Valparaíso, ChileAbstractFollowing an approach that has been pursued by many engineering programs that areoutcomes based accredited, this paper describes the process of designing and implementingthe curricula in the College of Engineering of the Universidad de Valparaíso in Chile, using abackwards design approach and also focusing on addressing stakeholders’ needs throughstudents’ outcomes. Driven by the Chilean government through funding from MINEDUC (itseducational development branch), this University has undertaken the task to completelyrevamp its
Science concentration: Fundamentals of Regulatory Affairs course that is anoverview of the role of ethical clinical research in new product development; or, Medical DeviceDevelopment and Regulation course, that explores the regulatory framework for the design,development, approval, and marketing of medical devices.It should also be noted that certain programs, such as University D and University E, that havemore general degrees, such as Biotechnology/Biomedical Engineering, in addition to a separateMasters in Regulatory Science, also had a wide range in price. For example, at University E, afull-time, in-person graduate degree in Biotechnology or Biomedical Engineering costs a studentover $70,000. A Regulatory Compliance graduate degree provided
program is projected to grow into the community of teachersand students outside Hunter B. Andrews through the mobility of TimeOut4U Inc. partnership. Hampton University teamed up with TimeOut 4U, Inc. (www.timeout4u.org) - a non-profitfocused on engineering programs for youth that strives to diversify the 21st century workforceby broadening STEM exposure and career readiness to minorities and other underrepresentedyouth during early academic years to explore other funding opportunities. The National Societyof Black Engineers (NSBE) student chapter at Hampton University has also volunteered to helpwith the program. During the first year, a program curriculum was developed in collaborationwith TimeOut 4U, Inc. The curriculum breakdown included
at GD, Senior Engineering Manager at LM, and Advisory Engineer/Scientist at IBM. Dr. Squires is a contributing author and editor to the Systems Engineering Body of Knowledge (sebokwiki.org) and the Graduate Reference Curriculum for Systems Engineering (bkcase.org/grcse). She is certified by PMI as a Project Management Professional, and by INCOSE as a Certified Systems Engineering Practitioner, including in Acquisition. Dr. Squires is a lifetime member of the Beta Gamma Sigma, Tau Beta Pi, and Eta Kappa Nu Honor Societies. She is a Senior Member of the IEEE, a member of and Director on the Systems Engineering Division board of ASEE, and a member of the ASEM, NDIA, INCOSE, and PMI. Degrees earned include a BSEE from
. Therefore, there is no financial penaltyfor “freeloading” any classes each semester by staying registered without attending.Following the traditional Japanese lecture approach (high coupling/high hierarchy) in Englishwill result in too much supply of knowledge to the Japanese students with too littleunderstanding. A professor’s teaching will quickly reach saturation without any feedbackfrom the students through active participation. Hence, the interactive classroom is vital notonly for effective learning by the students, but also for effective pacing by the professor.U.S. engineering education can also benefit from Japanese educational norms. The top-downsocial influence and tight coupling in Japanese universities with respect to graduation rates
University of Georgia, Athens and B.S. in Agricultural Engineering from the University of the West In- dies, Trinidad. Dr. Gray is a seasoned engineer and educator who has lived, studied and worked in various countries around the world. Prior to arriving at The Lincoln University, she managed the global curriculum portfolio for over a hundred and twenty programs in sixteen countries at Arcadia University and was instrumental in successfully developing and implementing study abroad opportunities and exchanges for undergraduate engineers from institutions across the country, while internationalizing the engineering curriculum through cooperation, consortia and curriculum integration.Ms. Constance Loretta Lundy
”, ICEE2011 - August 2011, Belfast, North Ireland, UK.5. Friesel,A., Avramides, K., Cojocaru, D.: “Identifying how PELARS-project can support the development of new curriculum structures in engineering education”, The Experimental International Conference 2015 (exp.at'15), June, 2015, University of Azores, Ponta Delgada, São Miguel Island, Azores, Portugal.6. Krumm, A.E.; Waddington, R.J.; Lonn, S.; Teasley, S.D. :” Increasing Academic Success in Undergraduate Engineering Education using Learning Analytics: A Design-Based Research Project”; Annual Meeting of the American Educational Research Association. Vancouver, BC, Canada, 2012-04 ; . http://hdl.handle.net/2027.42/1060327. Dragon, T., Mavrikis
profession. The challenge for many engineering education programs ishow to include this global dimension in the curriculum. The most common and traditionalapproach is study abroad programs, however, a limited number of students can afford themdue to financial and other reasons. Thus, universities try to find other opportunities for the so-called ‘internationalization at home’3 e.g. cross-cultural communication trainings2. Acomparative analysis of the engineering curricula at the US and Russian leading researchuniversities shows that only few of them succeed in developing a global mindset of theirgraduates. This process requires a new generation of faculty who are globally engagedthemselves13.An approach described in our previous paper16 focuses of
consequence, educators have includedpractical projects in their software development course designs, recognizing the need tolearn about the human (i.e. cognitive and social) aspects of software engineering.9 Thesepractical projects are able to complement lectures and teach a different set of skills. Kroppand Meier11 introduced the Agile Competence Pyramid model, differentiating various levelsof these agile skills and rating them in importance. Agile values are considered to be mostimportant in their model by being on the top of the pyramid. However, the authors notethat this level of the model “is mostly completely neglected” in current course programs.In order to address this issue in an integrated approach, we have developed the softwareengineering
to perform professionalactivities; the ability to plan, organize, and supervise the work of subordinates; makemanagerial decisions. Despite the existing difficulties in the process of adopting a competence-based approach inthe Russian Education System12, changes in the traditional educational paradigm and arevision of the content of education continue. One of the challenges in the process is to designthe fundamentally new activity-focused techniques aimed at developing these competences. As an example, we present the experience of Kazan National Research TechnologicalUniversity (KNRTU), where the "Workforce Psychology" course has been a part of theundergraduate engineering curriculum for several years now. Over 2,500 KNRTU
working with other Universities from Tanzania, Malta and the UK. Until recently Jane was Director for Undergraduate Teaching and Learning where she led an initiative to design a new engineering curriculum. Her work has been acknowledged internationally with Fellowships from the UK’s Institute of Engineering and Technology and the Institution of Professional Engineers New Zealand. Jane continues to be recognised for her work in engineering education and is currently engaged with advising NZ’s Tertiary Education Commission on introducing degree apprenticeships.Dr. Lizzie Miles, Coventry University UKDr. Anh Lan Ho Tran, Coventry University Dr Anh Tran is a Senior Lecturer of Humanitarian Engineering at Coventry
knowledge about our world. TheSchool of Engineering of the University of Bridgeport provides comprehensive educationand research opportunities to a diverse community in engineering, sciences, and theapplication and management of technology. The School prepares students for leadership andtechnology positions in industry, government, and academia and significantly contributes tothe profession and community locally, nationally, and globally. The School offers adistinctive education in fundamental and emerging disciplines through its faculty andinstitutional partners. The education features an application-oriented approach tointerdisciplinary issues and opportunities that balances theory with real world state-of-the-artpractices. As of Spring 2016, the
around problem/design activities, Team-based learning/collaborating learning in classroom seminars, Teaching and learning assessment/evaluation processes. Figure 2: WUST students in Deakin-led classes.The main goal of teaching and learning through a design-focused curriculum is to increase studentlearning through problem solving, active/collaborative learning, student-directed learning and analyticalthinking. This DBL approach is different from traditional teaching. The School of Engineering at DeakinUniversity has always tried to improve its course delivery method to enrich the student experience andto produce capable job-ready engineering graduates. To this end, it has explored new teaching
Increasing undergraduate student learning in an environmental engineering course through use of technology and industry partnershipAbstractAs New Zealand’s education system, NCEA, does not mandate chemistry learning in uppertwo standards of higher secondary education for the admission to engineering, it posessignificant challenges for the academic staff involved in environmental engineering coursesas environmental chemistry is an integral part of the curriculum. It was evident from pastexperiences and course evaluations that New Zealand’s domestic, undergraduate students,without adequate knowledge of high school chemistry, get easily dispirited by the coursecontent if taught with the traditional approach. Hence, to
.SummaryThe college of engineering has implemented a strategy to increase the number of engineeringstudents participating in international experiences. First, we have introduced faculty-led summerstudy abroad programs that are integrated with the curriculum and satisfy degree requirementsfor our students. Second, we have recruited student ambassadors to increase awareness ofvarious opportunities that exist. We have developed a new minor in Global EngineeringLeadership as an incentive for students while simultaneously helping to better prepare them towork effectively in a global marketplace. Finally, the college and the university have been ableto develop scholarships so students from all financial backgrounds have the opportunity to gainvaluable
addition Paul has assisted with engineering service projects in Uganda and Bolivia. Paul received a BSCE from Virginia Military Institute in 1993, an MSCE from West Virginia University in 1995, and a PhD in Civil Engineering from Virginia Tech in 2014.Dr. Tim Moore P.E., Virginia Military Institute A 1997 graduate of VMI, I earned my PhD in Environmental Engineering from Virginia Tech in 2009. I believe that research and new technologies greatly enhance the overall learning experience, and that envi- ronmental engineers have a social responsibility. Therefore, I have established new research and initiatives to advance instruction at VMI through the development of VMI Keydets Without Borders (VMI-KWB), a research and
offeredcommunity college faculty a nine-week experience that integrated individual hands-on researchwith team-based curriculum development to enable new research concepts to be introduced incommunity college classrooms in the context-based approach. Closely aligned with project-based learning and inquiry-based science education, the context-based approach was selected toprovide the participants a pedagogical method that brings their research experience alive in thecommunity college classroom by tying the teaching with applications that students can relate toin their lives.12 The context-based approach has been shown through assessments to enhance thestudents’ interest in STEM and has been applied successfully in college teaching, particularly tothe
Qualifying Project” (MQP), generally completed during astudent’s fourth year of study. The MQP is similar to senior design projects implemented at otheruniversities, focusing specifically on developing engineering solutions to technical problems; assuch, student teams are generally major-specific.The IQP is in many ways the cornerstone of the WPI Plan; whereas in 1970 there were otherschools that had capstone design and humanities projects as a part of their STEM curriculum, thefaculty observed a need for a project in which engineering skills would be built in a societalcontext. This was due primarily to the failure of post-war technological progress to deliver on theutopian promises of the 1950s: despite incredible scientific breakthroughs
leadership is a process to encourage leaders and teammembers to achieve common goals that cannot be accomplished otherwise by working alone[3] . According to Nation Society of Professional Engineers, leadership consists of a number ofcapabilities which are crucial at a professional level to contribute to public health, safety andwelfare [4]. In summary, engineering leadership is a set of integrative capabilities coveringdiverse aspects such as effective communication, active participation in teamwork andcapabilities to influence others.Considering the crucial role of engineering leaders in affecting change, leadership hasbecome a new standard in cultivating future engineers. Engineers with leadership skills gain acompetitive edge in labor market
Board and on Massachusetts Metro North Regional Employ- ment Board; She was recently appointed a Co-Chair for the Global STEM Education Sub-Committee and also serves on Diversity in STEM Education Sub-Committee, MA Governor’s STEM Education Advisory Council. Larisa received a Catalyst Award from the Science Club for Girls and Distinguish Service Award New England Regional ASEE. She holds BS and MS in Petroleum Engineering & MS in Computer Sci- ence. Prior to moving to Massachusetts, USA, where she and her family residing now, they have lived in Russia, India, and Africa.Dr. Russell Faux, DSRA Russell Faux, Ed.D. studied philosophy at the Universities of Chicago and Wisconsin before turning to education and
in universities in Russia, Singapore, Chile, Costa Rica, and Mexico. She is the author of ”Integrating Writing Strategies in EFL/ESL University Contexts: A Writing-across-the-Curriculum Approach.” She is a co-author of ”Learning to Communication in Science and Engineering: Case Studies from MIT”, a book that was the 2012 winner of the CCCC’s Advancement of Knowledge award. c American Society for Engineering Education, 2016TEACHING ORAL COMMUNICATION AT A RUSSIAN UNIVERSITY:HELPING ENGLISH LANGUAGE LEARNERS PRESENT THEIRENGINEERING DESIGNSJennifer Craig1Department of Comparative Media Studies/WritingMassachusetts Institute of TechnologyABSTRACT:A writing-across-the-curriculum approach was used to
internationalengineering education program. I had international PBL (project-based leaning) courses withIndian students twice times. Those PBL aims to learn as follows: (1) Intercultural anddiversity mind, (2) Project Management, (3) Design Thinking, (4) Engineering knowledgeand skills. To make suggestion for a new instructional method, I analyzed the daily reportsand final reports whom Japanese participants of two courses write as Design Based Research(DBR). DBR is the one of the research method for learning. According to BARAB andSQUIR (2004)[1], Design Based Research is “a series of approaches, with the intent ofproducing new theories, artifacts, and practices that account for and potentially impactlearning and teaching in naturalistic settings”. Reeves(2006