At the University of Houston, we focus on hands-on learning in our curriculum. We begin byintroducing Arduino and Matlab in our freshmen introductory level course, ECE 1331: Computerand Problem Solving. In spring 2016, students have the opportunity to program Arduino usingMatlab in conjunction with an LED matrix to design a game as other institutions [1-4] have alsoused Arduino in their classrooms with great success. Although Dr. Marpaung has received apositive feedback in regards to using a Zumo bot in classroom [5], he believes that he can alsoenhance students’ hands-on learning experience by offering them a different set of projectsinvolving an LED matrix. Lab Assignments Laboratory assignments are
academic-industrycollaboration partner with a global support system and pedagogy to teach supply chainmanagement through case studies and simulations. The academic alliance is used to promotepractical and future-oriented education while providing access to the latest ERP software anddata analytic technology. Case studies integrating enterprise management software providehands-on experience, conceptual development, and an understanding of key business processoften impacted by engineering initiatives. A manufacturing simulation is also used to engagestudents in key supply chain management concepts including demand planning, productionplanning, materials requirement planning, bill of materials management, and managerialaccounting. The simulation
as a hardware design engineer, from 1997- 2002, and by vLogix as chief hardware design engineer, from 2002-2004. Dr. Alaraje’s research interests focus on processor architecture, System-on- Chip design methodology, Field-Programmable Logic Array (FPGA) architecture and design methodol- ogy, Engineering Technology Education, and hardware description language modeling. Dr. Alaraje is a 2013-2014 Fulbright scholarship recipient at Qatar University, where he taught courses on Embedded Systems. Additionally, Dr. Alaraje is a recipient of an NSF award for a digital logic design curriculum re- vision in collaboration with the College of Lake County in Illinois, and a NSF award in collaboration with the University of New
-Physical Systems (CPS) Linda Laird, Nicholas Bowen Stevens Institute of Technology Hoboken 07030, USA linda.laird@stevens.edu nicholas.bowen@stevens.edu Abstract— In the fall of 2015, Stevens Institute of Technology welcomed the first freshmen into a newly launched Software Engineering Undergraduate Program based largely on the most recent ACM and IEEE-CS guidelines for undergraduate software engineering programs [1]. This is the first such program in the US that also has an ABET accredited general engineering curriculum. Students will receive a B.E. in Software
, thus far, only three students have transferred into e+ from outside of theengineering college. Prerequisite “gatekeeper” courses most efficiently taken early in the collegeexperience (such as three semesters of calculus and differential equations) could be keepingpotentially interested non-engineering students away. It is hoped that, over time, the curricularflexibility and free electives inherent in the e+ curriculum make the program the engineeringcollege’s most navigable in-migration destination—and thus an increasingly important strategyto broaden participation in engineering by young adults interested in divergent, non-traditionalfutures in non-governmental organizations (NGOs), politics, finances, etc., built upon the solidtechnological
area ofconcentration in an effective, ethical, and clearly communicated way. Tying all the subjects ofan engineering education together into a professional toolset, however, is difficult. ABET, the higher education accrediting body that helps set an engineering student onto theroad towards professional licensure, puts forward several criteria that help shape the student’sexperience and make it more likely they will be successful in their chosen field. Specifically,ABET General Criterion 3 (Student Outcomes) and General Criterion 5 (Curriculum) outline aneducation grounded in math, science, and engineering that is capped with an all-encompassingdesign experience.2 Crucially, this design experience helps the student make the
sophomores. Collaborative relationships among faculty and students at the twoinstitutions ensure the transition to be as seamless as possible. This paper provides an overviewof the governing articulation agreements under which the program operates before sharing detailsregarding how the two programs align and integrate specific course curriculum, manage logisticssuch as course scheduling and equipment sharing, and provide overall continuity in the studentexperience. We also share some initial enrollment demographics data that indicates the programis helping the WSU BSME program extend its reach to serve historically underrepresentedstudent populations.IntroductionIncreasing numbers of engineering students are starting their higher education at a
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
the community and if applicable, community NGOpartner. However, while the online resources assist students in gaining an understanding of the local context,they are not able to directly interact with the community. With over 7,000 participants in Australia andNew Zealand alone this would be too much of a burden on the community partner. In order to simulatethis interaction EWB hosts a student discussion forum on the EWB Challenge website where studentscan post any questions regarding the design projects and local context. These questions are answered byEWB with consultation with the community partner, thus allowing students an avenue to interact withand explore the local context.Course Integration One area where the implementation
Survey of Student ExperienceAbstractThis paper is a report on evidence-based practice in a first year engineering program forMechanical Engineering Students. We adapted a year-long curriculum called Living with the Lab(LWTL) that uses a project-based, hands-on instruction to introduce students to engineeringfundamentals, programming, sensors, controls and engineering design. While adhering to thespirit and much of the content of the original curriculum, we added material, created newhands-on projects, introduced a flipped instructional model for the first course in the sequence,and experimented with an alternative final project model. We briefly describe our key innovationsto the LWTL curriculum.Introduction of this curriculum has coincided with
cooperative, informal bank for the poor, institutionalized bank for the poor).In engineering, examination of case studies could shed light on what it means to beentrepreneurial in purely technical and conceptual contexts. Such an examination calls fortranslational activities that help unearth the mechanisms that embody the entrepreneurial method.These translational activities should synthesize and integrate entrepreneurship concepts intolarger frameworks, and illustrate how entrepreneurial principles apply across contexts.In this light, this paper provides a framework of entrepreneurship as a design philosophy, shownin Figure 1. Such a perspective describes entrepreneurship as a set of principles that areapplicable to multiple fields and problem
improving the intervention, and gaining insights thatcan lead to shared theories with implications for designing other interventions [25].Two objectives of the research project are: (1) create new student learning materials andstrategies which vertically integrate a conceptual or pedagogical approach on digital systemdesign into sequences of courses in electrical and computer engineering (ECE) and computerscience (CS) curriculums, and (2) contribute to knowledge on undergraduate student attitudes onthe use of video games as a motivator for pursuing or persisting in an ECE or CS major, and theeffect on student performance, especially those from underrepresented groups. The effectivenessof the game is assessed using a comprehensive array of
thecurriculum. We wanted to ascertain whether they would like to have “mini-capstone” projectsincorporated into the curriculum in order to give them experience with solving practicalproblems earlier in their degree program. Finally, we wanted to know whether they would beinterested in having a series of project presentations by industry professionals integrated into themain-capstone course. The survey that we distributed to the students is found in Appendix A.Presenter Survey: We also conducted another survey in which we distributed a questionnaire tothe project presenters (see Appendix B). This survey was designed to gain an industryprofessional’s perspective on the following issues:1. The level of preparedness that fresh engineering graduates have
as an option and instead sold some capital items and then invested all the earnings on one financial stock. This raised the stock value from $15 to $30 per share and saved the 11company. This type of thinking was described as integrative thinking and was used to solve a complex problem. Cognitive misfit of problemsolving style at work: A facet of personorganization fit and Creativity and the finding and solving of realworld problems gave 6 14further insight in current use of problemsolving in the industrial setting. Recent developments in applied creativity approaches techniques that can be used to solve complex problems
school programs where the cultural sensitivity is integrated into thedisciplinary content. Consideration of the successful foreign expertise will definitely be ofhigh practical value for both countries. Theoretical background together with the modernpractical approaches can bring the possibilities together and lead to the creation of jointcourses that will be of great demand in global intercultural platform and attract new studentsfor participation.AcknowledgementThe research was funded by Russian Foundation for Humanities grant, project #15-16-16003Bibliography1. James A. Banks Cultural Diversity and Education Foundations, Curriculum and Teaching Fourth Edition(2001)2. “Global Awareness – An Integrated Worldview”,UDEMY, https://blog.udemy.com
the areas of computer-supported research and learning systems, hydrol- ogy, engineering education, and international collaboration. He has led several interdisciplinary research and curriculum reform projects, funded by the National Science Foundation, and has participated in re- search and curriculum development projects with $4.5 million funding from external sources. He has been directing/co-directing an NSF/Research Experiences for Undergraduates (REU) Site on interdisciplinary c American Society for Engineering Education, 2016 Paper ID #17016water sciences and engineering at VT since 2007. This site has 66
teachers and pre-service teachers joinedother professionals in the region in an immersive materials “boot camp” facilitated by ASM priorto the start of their research experience. Field trips, guest speakers and group work that producedK-12 curriculum complemented the teams’ research experience. During the culminatingactivities, the groups presented the STEM curriculum developed, the final laboratory projectresults and provided regular guided reflections regarding their efforts during the six-weekprogram. Local System Change (LSC), Mathematics Teaching Efficacy and Beliefs Instrument(MTEBI) and Science Teaching Efficacy and Beliefs Instrument (STEBI) surveys wereadministered to identify changes in attitudes, beliefs and practices. Results of the
)," Toyota Public Affairs Division, Japan, May 2003. [Online]. Available: http://www.evworld.com/library/toyotahs2.pdf. [Accessed 20 February 2013].[2] E. W. Constans, J. Kadlowec, K. K. Bhatia, H. Zhang, T. Merrill and B. Angelone, "Integrating the Mechanical Engineering Curriculum using a Long-Term Green Design Project: Part 1: The Hybrid Powertrain," ASEE Annual Conference, 2012.[3] E. W. Constans, M. S. Acosta, K. K. Bhatia, H. Zhang and J. Kadlowec, "Development and Implementation of a Control Strategy for a Hybrid Power Train System in a Classroom Setting," ASEE Annual Conference, 2014.[4] M. S. Acosta, E. W. Constans, K. K. Bhatia, J. Kadlowec, T. Merrill, H. Zhang and B. Angelone, "Integrating the Curriculum using a
educators on social and economic pillars, itdoes not provide sufficient insight into where to begin this shift toward a more balancedperspective on sustainability. In this study, we endeavor to address this gap in the literature firstby both (a) exposing which topics and challenges in the environment are neglected byengineering students in speaking to environmental sustainability, and (b) which social andeconomic aspects of sustainability do indeed make it onto the radar screen forstudents. Knowing (a) provides implicates for what needs to be added to existing stand-aloneand integrated models of sustainability in the engineering curriculum; knowing (b) gives someinsight into an appropriate starting point to connect to student interests in social
Science andTechnology, the IEEE Society on the Social Implications of Technology, and the Society forthe History of Technology in this area of knowledge which often takes place in schools out-side of engineering as for example the departments of philosophy in universities in theNetherlands. “A person who is technologically literate might have a knowledge of the systems of an automobile such as engine, power train, and brakes along with the basic principles underlying the functioning of these systems. This is knowledge of the product. Engineering literacy would include knowledge or ability to design, analyse or otherwise create the constituent components of the automobile.” “An integrated circuit is a technological device. A person who is
Society for Engineering Education Annual Conference & Exposition, 2002. 4. Gibson, J.D., Brackin, M.P., “Techniques for the Implementation and Administration of Industrial Projects for Engineering Design Courses,” Proceedings of the 1999 American Society for Engineering Education Annual Conference & Exposition, 1999. 5. Noble, J. “An Approach for Engineering Curriculum Integration in Capstone Design Courses,” International Journal of Engineering Education, 14(3), 197-203, 1998. 6. Vila-Parrish, V., Raubenheimer, D., “Integrating Project Management & Lean-Six Sigma Methodologies in an Industrial Engineering Capstone Course,” Proceedings of the 2012 American Society for Engineering Education
businesses and projects ranging from a $100M innovative business to an over $3B annual revenue portfolio of projects. In his 30+ years at IBM he worked with clients in Government, Aerospace, Automotive, Electronics, Communications, and the Architecture/Engineering/Constructions industries across North America, Europe and Asia. He was a key leader of R&D transformation during the turnaround of IBM in the mid-1990s. Today Sta´s teaches various courses in Senior Leadership, Program Management, System Engineering, and Governance, and is a consultant to numerous clients in the complex systems integration business. He is also actively involved in developing new courses and innovative course delivery methods.Ms. Judith G
. Starting in 2000, Alan began to focus on supporting higher education partners in projects that address broadening participation in the sciences, graduate student development, curriculum innovation, instructional technology, teacher professional development and other education reforms. For the past five years, Alan has been the lead evaluator for Epicenter, an NSF-funded STEP Center focused on infusing entrepreneurship and innovation into undergraduate engineering education.Mr. Emanuel Costache, SageFox Consulting Group Since joining SageFox in 2009, Emanuel has worked on the evaluation team for a variety of NIH- and NSF-funded projects, including the National Center for Engineering Pathways to Innovation (Epicenter
to solve problems. They also call for students to make physical system modelsthat demonstrate their learning and understanding [9, 10]. PBL as an instructional practicemeets these objectives and can result in a novel curricular approach that include flexiblystructured activities and learning objectives around distinct learning standards in mathematics,science, engineering, or computer science.Research also indicates that using an interdisciplinary or integrated curriculum providesopportunities for more relevant, less fragmented, and more stimulating experiences forlearners [11]. Recently, there has been a particular interest in finding the overlap betweenengineering education and science, mathematics, and even the social sciences. While
and liberal educationalgoals within the context of engineering education.This paper provides an overview of contemporary work in digital humanities involving makingactivities and the potential of this work to inform engineering education making activities in away that bridges technical and humanistic concerns. It highlights how making practicesthemselves can be understood as a form of inquiry, with modalities drawing on—but distinctfrom—traditional engineering and humanities epistemologies. The paper draws on a largerresearch-and-teaching initiative at Rensselaer titled, “Making as Critical Inquiry,” which iscurrently being integrated into our interdisciplinary undergraduate Programs in Design andInnovation (PDI). PDI has a well-established
Paper ID #17176Towards a Sustainable Engineering Entrepreneurship EducationDr. Benedict M. Uzochukwu, Virginia State University Benedict M. Uzochukwu is an Associate Professor of Technology at the Virginia State University. His research interests include Human Factors and Ergonomics, Sustainment, Logistics, Supply Chain Man- agement, Life cycle Systems, Systems Integration and Management of technology systems. He has a Ph.D. degree in Industrial Engineering from the North Carolina A & T State University, Greensboro and has several peer reviewed publications to his credit. He belongs to a number of professional
practice in an integrated, real worldenvironment that a systems engineer can develop the necessary insights and wisdom to becomeproficient. Systems engineering educators are struggling to meet the growing educationaldemands for a workforce able to solve problems driven by accelerating technology, rapidlyevolving needs, and increasing systems complexity [1-3]. At the same time, there is a wideninggap in industry between the need and the availability of systems engineering practitioners withthe necessary experience to address these challenges [4].The Systems Engineering Experience Accelerator (SEEA) project was designed as a response tothese critical needs and challenges [5]. The project goals are to: assess the feasibility of an immersive
in the lecture course, generally the “Introductionto Materials Science and Engineering”. A survey of university department syllabi found themajority of sophomore laboratories at these universities to be focused on a few techniques andtools, mainly related to mechanical behavior of materials. In the survey undertaken, no universitymaterial science departments were found to offer a course related to sustainable materials.Within the MSE Department at UF, laboratories are central to the MSE student experience. Aspart of an ongoing redesign of curriculum within the department, in 2013 the Junior Laboratorycourses were redesigned to support the core content courses that all MSE students take in theirjunior year. Additionally, the laboratory
, N. W., Jones, S. A., Bernstein, H. M., & Gudgel, J. (2009). The business value of building information modeling: Getting building information modeling to the bottom line, McGraw-Hill, New York. 12. Sabongi, F. J. (2009). “The integration of BIM in the undergraduate curriculum: An analysis of undergraduate courses.” Proc., Annual Conf. of the Associated Schools of Construction, Windsor, CO, 1–6. 13. Becerik-Gerber, B., Gerber, D. J., & Ku, K. (2011). “The pace of technological innovation in architectural, engineering, and construction education: Integrating recent trends into the curricula.” J. Inform. Technol. Constr., 16(1), 411–431. 14. Clevenger, C., Ozbek, M., Glick, S., & Porter, D. (2010
school webpage administrator, TIVA Board Member, e2it3 Presi- dent, robotics/engineering club head sponsor, Gay Straight Alliance sponsor and SkillsUSA Texas District 7 Director. Currently working on an Ed.D. in Curriculum and Instruction at Texas A&M University in the Department of Teaching, Learning and Culture in College Station, TX. Plans are to pursue furthering a career in education at the district or university level as well as increasing experience in public and motivational speaking.Dr. Sheng-Jen ”Tony” Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is a Professor in the Dwight Look College of Engineering at Texas A&M University. He holds a joint appointment with the Department of