andstakeholders at various levels have expressed a high level of interest in participating in theprogram. An added advantage is the development of closer relations between PRIME academicpartners, area industry, and area K-12 systems.III. PRIME ActivitiesThe creation of the PRIME partnership has involved activities at each institution as well as thosethat have been undertaken as a coalition. Each partner institution has undertaken work in thefollowing common areas:· Developed or modified curricula and facilities to address the competency gaps identified by industry4,5· Transformed industry advisory committees into joint faculty-industry steering committees to guide and continuously improve the curriculum· Developed articulation agreements amongst
Sustainable development of infrastructures using underground spaces: role of academia By: Pooyan Asadollahi and Ahmet Zeytinci Department of Civil and Mechanical Engineering, the University of the District of ColumbiaAbstractThis paper presents how placing infrastructures under the ground can improve living conditionsand minimize environmental impacts. Status of tunneling education in the USA has beeninvestigated and compared with the industrial needs. Adjustments to the current CivilEngineering programs have been proposed. Furthermore, a curriculum has been suggested for aMS program in Tunnel Engineering. Finally, the paper briefly presents some examples thatacademic research
designs they create in IMD to determine whether they function as predicted.Ultimately, the two courses will create a first year experience that gives students a hands-onintroduction to a wide range of Mechanical Engineering activities.AcknowledgementsThis course was developed under the support of an RIT Provost’s Learning Initiative Grant.References[1] Eggert, R., Bunnell, D., and Tennyson, S., “Dsigning Across the Curriculum: Linking Sophomores to Mechanical Engineering”, Proceedings of the American Society for Engineering Education Annual Conference and Exposition, Seattle, WA, June 1998.[2] Bryden, Kenneth M., Flugrad, Donald R., “Implementing a Program of Continuous Assessment and Improvement for a New Sophomore Design Course
programs. Typically theseprograms are resource intensive and only reach a fraction of students. However, it may bepossible to develop some attributes of global competence without travel through cross-cultural,virtual design experiences which take place via video conferencing and internet-basedcollaboration and engineering software tools. This paper presents some of the issues associatedwith this approach. Preliminary observations are made about the effectiveness of an advancedCAD modeling course which involved virtual teams.IntroductionThe NSF summit on the globalization of engineering education called on educators to “integrateglobal education into the engineering curriculum to impact all students, recognizing globalcompetency as one of the
proposed by Perry [25] that the intellectual models of collegestudents lie on spectrum spanning a dualistic understanding (position 1) of the world to a morenuanced relativistic world view (position 9). In light of what engineers are expected to do, onecould therefore safely predict that the experience of an engineering curriculum should developstudents’ tolerance of an ambiguous problem space, and acceptance of a solution space that admitsmultiple solutions. However, this does not seem to be the case. It has been shown [26], [27] ascited in [28] that undergraduate engineering students did not develop beyond an average of 2.8 onthe Perry’s scale. This is in contrast with the result of Perry’s sample of liberal arts students whowere in position 7
. Bioengineering has among the highest rates of female undergraduate enrollmentamong engineering disciplines (nearly 50%) and the inclusion of such a module may helpincrease female student interest. The authors propose two new SEEK curriculum modules inbioengineering. One module was developed to emphasize the skills and methodology thatbioengineers employ, such as computer-aided design, circuitry, and programming, using the freeTinkerCAD website. To reinforce the development of these skills in the context ofbioengineering, students design and build their own thermometer for testing. The second moduleemphasizes the engineering design cycle, focusing on prototyping, testing and iteration bylearning about anatomy and physiology, and iteratively designing a
their preparation at IRE had impacted their transition to the workplace. Themajority of graduates reported on the advantages of the similarity between the IRE projects andtheir workplace engineering problem solving activities, their developed ability to applymetacognitive strategies to engineering problem solving, and their openness to the uncertainty ofproblem solving in real-world settings. While the prior study reported results from IRE alumni,this paper/poster focuses on the development of self-directed learning skills of IRE students.The Iron Range Engineering ProgramThe IRE program is a completely problem-based learning curriculum for upper-division (juniorand senior) students. Rather than take lecture-based courses about engineering, IRE
, communications, power and electricalmachinery.The Electrical Engineering Technology program has developed a Program Outcomes assessmentprocess to fulfill ABET accreditation requirements. The Assessment Process adopted ABET’sprogram outcomes and grouped them into three categories; Design and Troubleshoot ability,Depth of Technical Knowledge, and Professional Practice. A set of assessment tools has beenidentified which include both direct and indirect assessment tools For each category.2. EET Program OutcomesThe EET Program Outcomes capture the desired attributes that the EET program at School ofTechnology (SoT) aspires to impart to its students through both the curriculum and academicexperience. The desired outcomes of the EET program were adopted from
machining center which was capable of near micron parts, part and machineaccuracy was an area which needed to be enhanced. Using metrology techniques, the students,working with the faculty members, developed methods of measurement and providing accuracyfor the machine and parts that were cut.Technology-Based Micromachining Curriculum This low-cost micro-machine was developed for use in the classroom, where many institutionscould not afford a high priced machine. In order to instruct students on the operation of this new realm or Page 14.855.8machining, a new micromachining course had to be developed. This course is a lab/lecture
Paper ID #23209Engagement in Practice: Developing a Sustainable K-12 Outreach STEMProgramDr. Joan B. Schuman, Missouri University of Science & Technology Dr. Joan Schuman is an Associate Teaching Professor in the Engineering Management and Systems Engineering Department at Missouri S&T. She earned her Bachelor of Science degree in Mechanical Engineering from University of Arkansas and completed her Ph.D. in Polymer Science and Engineering from the University of Southern Mississippi. Schuman is a Project Management Professional (PMP) certified through the Project Management Institute. She worked for several years
component of the nations’ innovation infrastructure. Althoughboth academic and industry professionals agree on the importance of providing students theopportunity to work on multidisciplinary teams, many institutions struggle to create theseopportunities within their curriculum. This paper will examine the benefits and challenges ofcreating a multidisciplinary senior capstone course from the perspective of engineering faculty.IntroductionMost engineering educators support the idea of a multidisciplinary capstone course in concept,3, 4but long-standing obstacles have limited the development and long-term success of suchprojects.5, 6 Saunders4 noted that work experience involving both engineers and non-engineersenhances the preparation as engineers
to help build the pool of IPv6 talent through high quality, certified IPv6 courses.The IPv6 Security course is the second in a series of three IPv6 courses we plan to deliver atECU. In summer 2012, we delivered an IPv6 Fundamental course which met with great success.In summer 2013, we will offer both the IPv6 Fundamentals course and the newly developed IPv6Security course. During the 2013 Summer Semester, we will solicit student feedback on theneed for a third course that will cover “advanced” service provider centric IPv6 topics. We willalso continue to work with the Nephos6 academy to develop academic curriculum tocomplement the courses and the lab assignments.Bibliography1. Brustoloni, C. 2006 Laboratory Experiments for Network
deliverables, which are often well beyond thescope of a one- or two-semester project. Projects that provide sufficient funding for students(undergraduate and graduate) offer the best way to provide the sophisticated results that manysponsors expect. Having students continue the momentum developed in the in their class project-based learning experience often results in a corresponding step increase in their productivitywhen the summer project begins. The EAP team accomplished a significant amount of work asmeasured by the number of chapters, appendices and references completed, and the responses ofthe sponsor during regular project reviews. This approach to the key project-based portion of our curriculum has become a model forhow solicit and scope
students[13, 15, 16]. Yet the paperspresenting how to develop ECE curriculum concentrated renewable energy lab activities are hardto find. Therefore, we took the approach to develop our own lab activities to match with thelecture content while try to utilize the existing lab equipment as much as we could. The labactivities were developed gradually throughout the years while the course was offering. Thestudents enrolled in this course have been contributing to the design, purchasing and fabricatinglab test benches as well.The lab activities are integrated parts of the course that focuses on “how to integrate differenttypes of renewable energy into electric power system and the impact on the electric powersystem. The course also stresses the
has made an effort to integrate it from the freshmen to the senior year. Thispaper describes three courses that have been developed and are “Issues in sustainabledevelopment” for the freshmen year, sophomore engineering clinic, and junior and senior clinicwhere the students get to address issues of sustainability in a design forum. The structure of theengineering clinic will be described in more detail here to give the reader a better understandingof the sustainability projects that are conducted under the purview of the clinics.Background on Engineering Clinics at Rowan UniversityRowan University is developing an innovative engineering curriculum that will produceengineers that are suited to meet the needs of a challenging workplace in the
Session 2333 Development of a Four-Course Sequence in Building Electrical Power Distribution John Wheeldon, Glenn Wrate Milwaukee School of EngineeringAbstractThis paper discusses the four-course sequence in building electrical power distribution systemsoffered in the Architectural Engineering program at the Milwaukee School of Engineering(MSOE). The design specialty that allows MSOE to offer this sequence when other universitiesare eliminating their only course in electrical power systems is discussed first. The goals,objectives, and
The Development of an Alternative Energy Minor at Robert Morris University Tony Kerzmann Assistant Professor Robert Morris University 6001 University Boulevard, Moon Township, 15108 Gavin Buxton Assistant Professor Robert Morris University 6001 University Boulevard, Moon Township, 15108 Maria V. Kalevitch University Professor of Biology &Dean of the School of Engineering Mathematics and Science Robert Morris University 6001 University Boulevard, Moon Township, 15108
lifelong learning process that aims to enhanceindividuals on their cognitive, social-emotional, and behavioral dimensions. It also encompassesthe entire learning process such as the content, teaching method, and the learning environmentitself [1]. Traditional teaching methods often focus on passive learning, memorization, and/orverbatim regurgitation of information. This leaves students with a limited understanding andimplication of the United Nations Sustainable Development Goals (UNSDG). The currentcurriculum emphasizes the need for innovative teaching approaches and mode of deliveries thatcreate an immersive and realistic environment for learning and engaging with the UNSDG [1]. Toinclude the UNSDG in the curriculum educational institutions are
life-long learning and training, mentoring, continuous assessments and improvementfeedbacks, research and external funding, grant writing, seed money for research, internationalactivities and collaborations, and increased conference participations and journal publications.The VEE model consists of three fundamental interwoven components: curriculum andmentoring; industry, government and community partnerships; and research and funding. TheVEE faculty development initiative was successful implemented in a collaborative programbetween Alabama Agricultural and Mechanical University (AAMU) and Brookhaven NationalLaboratory (BNL). The results and outcomes for science, technology, engineering andmathematics (STEM) faculty members include increased
Development of Simulation Models for Power Converters – Undergraduate Research Experience Peter Idowu Penn State University – Harrisburg, Middletown, PAAbstract – The value of early exposure of engineering undergraduates to research has drawnmuch attention over the past decade, and a wide array of creative options have been explored.This paper discusses the process and challenges of guiding a group of engineeringundergraduate seniors through a research project that holds the potential of exposure torealistic engineering problems, and a motivation for students to pursue advanced studies.Index Terms – Undergraduate research, power
Session Number 2209 Interdisciplinary Skills Development in the Biomedical Engineering Laboratory Course Dmitri E. Kourennyi § and John M. Sankovic§@§ Department of Biomedical Engineering, Case Western Reserve University, Cleveland, OH @ Space Administration, John H. Glenn Research Center, Cleveland, OHAbstractA biomedical laboratory course has been an important part of the undergraduate curriculum in theDepartment of Biomedical Engineering, CWRU for several decades. It has undergone numerousmodifications and adjustments, always following the contemporary trends and
AC 2008-1750: PRELIMINARY EXPERIENCE OF USING A LEARNING ANDKNOWLEDGE MANAGEMENT SYSTEM FOR AN SE-1 COURSEJ. Scott Hawker, Rochester Institute of Technology Dr. Hawker is an Assistant Professor of Software Engineering at the Rochester Institute of Technology (RIT). He graduated with a B.S. and M.S. in Electrical Engineering from Texas Tech University. He graduated with a Ph.D. in Electrical Engineering from Lehigh University. He has over 15 years of industry experience developing large-scale, multi-agent information and control systems for diverse applications including manufacturing, combat pilot mission decision support, robotics, and surveillance. In these areas, he developed and
of C.E. Technology appeared to be just around the corner, because graduates fromsuch programs would no longer have the opportunity to seek registration as ProfessionalEngineers. The ASCE “raise the bar” initiative has finally developed real forward momentum,and is still moving forward. However, several recent events have shown that there are otherviews in the civil engineering industry which also want to be heard. There has been less thanpositive reaction by some members of state boards of registration to the 2006 NCEES decision.A consequence has been the decision by NCEES in the August 2008 annual meeting to delay theformal adoption date of the BSCE+30 criteria to be 20204. Furthermore, an initiative for furtherstudy was enacted by NCEES to
that encompasses both theoretical analysis and experimental investigations such as designing and testing of propulsion systems including design and development of pilot testing facility, mechanical instrumentation, and industrial applications of aircraft engines. Also, in the past 10 years she gained experience in teaching ME and ET courses in both quality control and quality assurance areas as well as in thermal-fluid, energy conversion and mechanical areas from various levels of instruction and addressed to a broad spectrum of students, from freshmen to seniors, from high school graduates to adult learners. She also has extended experience in curriculum development. Dr Husanu developed laboratory activities for
in electronics, andadded modern software engineering courses such as software system design, management,development, and testing.More recently, MOEC and the computer science education community in Chinese highereducation started a new initiative named “New Engineering Education” in which computingrelated education sees a new era of development. In 2015, the ACM China Committee onEducation published the translated Chinese version of ACM Computer Science Curriculum 2013[10], an indication that the Chinese computer science education community starts to pay closeattention to the commonly accepted standard in the U.S. Also started in 2015, finished by 2016,MOEC and a working group created a set of guidelines for undergraduate curriculum of
AC 2008-354: TEACHING BASIC MATERIALS ENGINEERING DESIGN TOENGINEERING TECHNOLOGY STUDENTS USING STRINGED INSTRUMENTTOP DESIGNKathleen Kitto, Western Washington University Kathleen L. Kitto is the Associate Dean for the new College of Sciences and Technology at Western Washington University. Previously, she was Associate Dean for the College of Arts and Sciences and served as Chair of Engineering Technology Department from 1995-2002. Since arriving at Western Washington University in 1988, her primary teaching assignments have been in the Manufacturing Engineering Technology program and in the development of the communication skills of engineering technology students; her research interests
engineering, and developing a community of practice of faculty around global virtual learning and short-term faculty led programs. Meredith is involved with the management of the double degree and exchange program with the ZJUI-UIUC Joint Institute, hosting over 200 Chinese exchange students each year. Meredith and her team recently launched a Global Engineering Ambassador Program, helping Grainger Engineering exchange students connect with local students during their time as well as serve as a resource for promoting study abroad across the college. Meredith is also collaborating with the Grainger First Year Experience to implement the Cultural Intelligence assessment into the first year curriculum, allowing engineering
, especially for underserved and underrepresented populations. She is currently a Professor of Education and Engineering at Penn State University where she focuses on developing research-based, field-tested curricula, professional development, and research. For sixteen years, she worked as a vice president at the Museum of Science where she was the Founding Direc- tor of Engineering is Elementary, a groundbreaking program that integrates engineering concepts into preschool, elementary, and middle school curriculum and teacher professional development. Her recent book, Engineering in Elementary STEM Education, describes what she learned. Cunningham has previ- ously served as director of engineering education research at the
implement. Once design models arecompleted, it will help to improve development and reduce the programming tasks. Thirdly, theimplementation can help improve the design models by identifying some unrevealed issues orerrors (partially).System Validation It is very important for the developer to know how to validate the program and ensure thequality of software (intensive) systems. It has been not easy job to express the concepts ofsoftware testing in the current computer science curriculum. Even though right now, manycomputer science departments or programs does not have software testing courses offered forundergraduate curriculum, where Alabama A&M University computer science program is one ofthem. © American
Engineering Depart- ment at ASU. His interests include student pathways and motivations into engineering and developing lab-based curriculum. Recently, he has developed an interest in non-traditional modes of content delivery including online classes and flipped classrooms.Dr. Haolin Zhu, Arizona State University Dr. Haolin Zhu earned her BEng in Engineering Mechanics from Shanghai Jiao Tong University and her Ph.D. in Theoretical and Applied Mechanics from Cornell University, with a focus on computational solid mechanics. After receiving her Ph.D., Dr. Zhu joined Arizona State University as a full time Lecturer and became part of the freshman engineering education team in the Ira A. Fulton Schools of Engineering. She