-based team projects, andcommitting to matching funds from funding agencies such as NSF and SME.The successful partnership between local schools on one side and industry on the other hasled to the success of the 2+2+2 program. Our consortium of schools has been aninvaluable connection for getting faculty and administrators from different schoolstogether to look at how the curriculum at each educational level builds to the next.Through intensive discussions we have been able to identify target courses for articulationand develop a process for implementing changes. In the areas where the educationalprograms fail to match up, we were able to provide resources for course refinement andprogram enhancement.Our industry partners also played a key role
++ capabilities. We have used the VC++ AppWizard executable form for our windows programsincluding the Document/View architecture. In this format, VC++ creates a program/projectstructure which serves as a template for the programmer’s application. If the six step AppWizardstart up process is followed, accepting all defaults for creating an AppWizard project, twenty fivefiles of C++ code are created by the AppWizard alone. Without any added code, the resultingproject can be compiled and linked producing additional files including an executable file. Whenexecuted, it will create a normal looking but blank window on the screen where nothing happens.Basically all of the VC++ prewritten code is used to put the blank window on the screen andprovide the
courses and course sections that would be necessary to offer the program annually. 3. A plan for using a combination of current tenure-track faculty members, new tenure track Page 25.1077.4 faculty members, lecturers and part-time instructors to staff the referenced courses. 3 4. A description of any specialized laboratories, equipment or any other significant new resources that will be necessary to offer the program.1.1. Assessment and Projected Enrollment ProjectionsTo assess the demand for the proposed degree surveys were conducted of current UMBCfreshman engineering students and
physicalprototype, then making full use of the prototype to learn is essential. The redesign step in adouble cycle is an authentic way to focus students to learn from the prototype.Class Structure and Design Projects in this StudyThis study was conducted in a Mechanical Engineering design class of 29 students working onfour-person design teams. Three separate design projects, each utilizing a double design-protocycle, were completed during the semester. To fit the six design/fabricate/test cycles into the 15-week semester, quick fabrication techniques were set by the instructor. The first two designprojects spanned the first four weeks of the semester. During the first two projects supplementaldesign topics were presented in lecture and applied to the
), to develop a comprehensive adaptive filtering projectsuch as noise cancellation, and to demonstrate their working projects in class.In this paper, we will describe the course prerequisites, course topics, and outline learningoutcomes. With a focus on adaptive filtering techniques, we will describe our teaching pedagogy,MATLAB simulations, and hands-on real-time DSP labs and projects. Finally, we will examinethe course assessment according to our collected data from the course evaluations, studentsurveys and course work, and then we will address possible improvement based on ourassessment.II. Learning Outcomes and LaboratoriesThe adaptive filter techniques are covered in our advanced DSP course (ECET 499) offeredduring the senior year
provideseparate technical writing or speaking courses, which may run concurrently with certain requiredtechnical courses. Another way to provide communication instruction in the technical classroomarises when student projects are sponsored by industry. Here, the industrial sponsor receiveswritten and oral reports and suggests modifications to the students based on experience with thenorms of communication in a particular field 6,7,8. Unfortunately, these approaches to communication instruction do not solve theintegration problem so much as they reproduce it. When technical students are sent to consultwith writing center tutors, for example, that tutor may be placed at an information disadvantageand may deliver writing instructions that are colored
Session Number: 2315 Mentoring Models in an A/E/C Global Teamwork e-Learning Environment Renate Fruchter, Sarah Lewis Stanford UniversityAbstractUnderstanding the goals and constraints of other disciplines are key to working well incross-disciplinary Problem-, Project-, Product-, Process-, People-Based LearningTM(P5BL) teams. Education programs rarely offer learners opportunities to participate inauthentic cross-disciplinary P5BL experiences in a global teamwork e-Learningenvironment. This paper reports on models of mentoring in cross-disciplinary learning inStanford University’s P5BL program. It addresses Architecture/Engineering/Construction(A/E/C) industry’s needs to broaden the
working-through therelationships among societal considerations and the possible physical designs. For this studio, weworked on projects for which our culture’s habituated physical design responses are unsuited.This will call taken-for-granted assumptions into question.The design project acts as a vehicle to pull together a diverse number of philosophical issues,technical concerns, and basic theoretical knowledge. By using a number of modes of inquiry aswell as faculty from various disciplines, we can ask students to consider many thingssimultaneously and juggle many ways of investigation at the same time.The first studio had two main projects, as well as a series of continuing exercises in computing,drawing and technology. We began the semester
technical topics forsenior theses required of all undergraduate students; to develop a focused area for a recentlydeveloped co-op program in the engineering school; to provide a team focused competitiveexperience in ICAR that was being formed at the time.To accomplish these goals, UVA has initiated two courses in motorsports engineering toaugment its newly revised engineering curriculum and compliment an existing mechanicalengineering technical elective, Automotive Engineering. Several students have held summeremployment with professional race teams, including two NASCAR Winston Cup teams and aPro Tour truck racing team. Two graduating students are employed by Ford Racing. Nearly adozen senior thesis projects related to motorsports have been
has been focused on decentralized control and fault diagnosis techniques in microgrids, renewable energy systems, mechatronics, and aerospace. ©American Society for Engineering Education, 2024 Portable Solar-Powered Wireless Display BoardAbstractIn this industry-sponsored senior design project, a light-weighted low-consumption portabledigital display is designed and developed for outdoor use with the capability to be charged bysolar energy. A Raspberry Pi microprocessor controls the data display process and provides thelive data tracking functionality through a mobile application. The custom-built display board isdesigned by arranging LED light strips into a matrix formation that is ultra
, this pedagogy often takes a form illustrated by a Modelof Project-Based Community Engagement [4] and has been growing in popularity for capstonedesign courses and other applications [5,6]. Previous findings have shown significant benefits fromcommunity-engaged learning experiences in developing a broad range of skills that are critical forengineers [7], including teamwork and communication [8], becoming self-directed and life-longlearners [9], and developing design skills [10]. However, there have also been calls for additionalresearch on the perspectives of community partners as well as holistic assessments of programs[11].Within this space, Engineers Without Borders USA (EWB-USA) is one of the largest players, with5,600 student participants
AC 2011-225: THE STUDIES OF EFFECTIVE TEACHING AND LEARN-ING METHODS IN CHINESE ENGINEERING EDUCATIONFanyu F Zeng, Indiana Wesleyan University FANYU ZENG is an assistant professor in Business Information Systems at Indiana Wesleyan University. His research interests include software development, programming, database, software project manage- ment, teaching methods, and international cultures in high education. Page 22.1503.1 c American Society for Engineering Education, 2011 The Studies of Effective Teaching and Learning Methods in Chinese Engineering
education-oriented research, her research interests include wireless networking, queuing and scheduling in high-speed switches and routers, network modeling and simulation, and network performance analysis. Page 22.1641.1 c American Society for Engineering Education, 2011 Using Tablet PCs in Electrical/Computer Engineering Classrooms: Lecturing and In-class ActivitiesAbstract This project has been implemented in our department since Fall 2007. Tablet PC-basedteaching materials were developed and implemented in four undergraduate Electrical orComputer Engineering courses
school and pursue a PhD in Bioengineering.Lisa A Pruitt, University of California, Berkeley Professor Lisa Pruitt has been on the faculty of Mechanical Engineering at UC Berkeley since 1998. Her research is focused on structureproperty relationships in orthopedic tissues, biomaterials and medical polymers. Her current projects include the assessment of fatigue fracture mechanisms and tribological performance of orthopedic biomaterials, as well as characterization of tissues and associated devices. At- tention is focused on wear, fatigue, fracture and multiaxial loading. Retrievals of orthopedic implants are characterized to model in vivo degradation and physiological loading. She uses medical implant analysis for
AC 2011-958: DEVELOPING SYSTEMS ENGINEERING GRADUATE PRO-GRAMS ALIGNED TO THE BODY OF KNOWLEDGE AND CURRICU-LUM TO ADVANCE SYSTEMS ENGINEERING (BKCASE(TM)) GUIDE-LINESAlice F Squires, Stevens Institute of Technology Alice Squires has nearly 30 years of professional experience and is an industry and research professor in Systems Engineering at Stevens Institute of Technology in the School of Systems and Enterprises. She is a Primary Researcher for the Body of Knowledge and Curriculum to Advance Systems Engineering (BKCASE) and Systems Engineering Experience Accelerator projects. She has served as a Senior Sys- tems Engineer consultant to Lockheed Martin, IBM, and EDO Ceramics, for Advanced Systems Support- ability
appropriatetechnology movement in shaping our purpose and the role of service-learning in shaping ourprogram. The paper concludes with the case study of an international service-learning project ofMessiah College Engineering.I. Responsible EngineeringPersons outside of the profession, and sometimes engineers themselves, do not understand thenature of engineering work very well. Ron Howard’s film about the troubled Apollo 13 moonshot depicts the response of engineers to crises. In one scene, the astronauts’ lives are injeopardy as carbon dioxide accumulates in a disabled spacecraft. Ground crew engineersworking under severe time constraints, and using only those supplies available to the astronauts,must make square filtration canisters work in round
purely technical solutions, is beginning to be critiqued in the light of rapid globalisation,and an increasing acceptance of the need for graduate engineers to locate technical requirementswithin their social, economic and environmental context. Problems do not know disciplinaryboundaries and engineers as well as other professionals of tomorrow will need to learn newmultidisciplinary approaches to problem solving which incorporate thinking from disciplinesusually associated with the social sciences and humanities. This paper reports on a largemultidisciplinary project supported by the Australian Learning and Teaching Council, to researchappropriate curricula and explore and implement pedagogies, which work towards EngineeringEducation for Social
development of our contest infrastructure—a specially developed simulationsoftware package and a web-based judging system. We briefly describe the implementation ofthe contest and present a comprehensive assessment of the extent to which it is accomplishing itsgoals. The assessment results serve as the basis for conclusions about the viability of IT-enabledengineering outreach.GoalThe principal goal of this project is to increase awareness of and interest in engineering among alarge, diverse population of middle-school and high-school students. By making engineeringaccessible to a broad audience, we seek to overcome students’ common misperception thatengineering is an endeavor for the “technically elite.” 1We suggest that this goal can be achieved by
-learning, students become involved in a project that meets specific educational objectives Page 10.216.1while providing a needed service to the community. Service-learning can range from a singleProceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Educationcollege course where the students are required to do some community service to multi-year,service projects that are fully integrated into the curriculum. Service-learning has been found tohelp students develop technical and non-technical skills, make connections
Educationvarying degrees of success. Examples of various types of freshman courses can be found inRefs. 1 through 13. Even Introduction to Engineering courses often emphasize topics that arepresented in a dry fashion to students, emphasizing such topics as how to study, computer usage,technical writing, etc. What are needed are project-type courses that excite the students and givethem an overview of what an interesting engineering project can be. This paper describes such aproject that has been used at the University of Massachusetts Lowell for five years, and, based onstudent evaluations of the course, has been found extremely motivating for the students.II. Freshman course format The College of Engineering has experimented with different types of
, technical, or sociocultural topics thatcan be or are conjoined with a segment related to sustainability. The topic at hand, while notinherently focused around sustainability, can include a conversation relating that topic tosustainability to enhance the quality of education received for that topic.C-Tier courses have a primary focus on some engineering, technical, or sociocultural topic with amajor component of the course being a project through which sustainability could be applied.The course itself includes enough flexibility that a professor or students with significant interestin sustainability can delve into projects or assignments related to sustainability should theychoose.D-Tier courses are general courses which many students encounter or
developed which will provide a sustainable method for students towork with the new CTech IncUBator and its businesses while gaining college credit and experience. Studentexcellence and entrepreneur teams (E-Teams) will either work with the incubator to develop and commercializetheir own ideas or they will develop products with existing businesses (both inside and outside of the IncUBator).The project develops the necessary business and education structures to make a sustainable business relationshipbetween UB students and the IncUBator and its associated companies.Keywords: entrepreneurship, commercialization, prototype INTRODUCTIONThe process of taking a new product from concept to commercialization can
classes and with other non-engineering communities at on-campus events thatpromoted environmental sustainability and awareness of California water challenges.IntroductionWater has been cited as the most valuable resource of California 6. Agriculture is a majorindustry that consumes from 52% to 70% of the total water demand in the Southwestern regionof California1. Southern California’s agriculture depends on water availability to produce foodproducts for the country. While approximately two-thirds of the residents of California live inthe Southern California area, only one-third of the water consumed comes from local sources.The remaining water demand is met by water imported from the Colorado River, the OwensValley, and the State Water Project
. Eva Schiorring, EduData4Action Eva Schiorring has almost two decades of experience in research and evaluation and special knowledge about STEM education in community colleges and four-year institutions. Ms. Schiorring presently serves as the external evaluator for three NSF-funded projects that range in scope and focus from leadership de- velopment to service learning and experimentation with alternative delivery, including online lab courses. Ms. Schiorring is also evaluating a project that is part of the California State University system’s new ini- tiative to increase first year persistence in STEM. In 2014, Ms. Schiorring was one of the first participants in the NSF’s Innovation-CORPS (I-CORPS), a two-month
, Computer Science California State University Chico sbsiewert@csuchico.edu Associate Professor Adjunct, Computer Engineering University of Colorado Boulder siewerts@colorado.edu Rishab Shah Masters Student, Embedded Systems Engineering University of Colorado Boulder Rishab.Shah@colorado.eduAbstractStudent projects for “Real-Time Embedded Systems”, a course taught at University of ColoradoBoulder and online with Coursera, stresses ability to put
grant project teams in planning and development, through external eval- uation, and as publication support. Most of his work is on STEM education and advancement projects and completed for Minority-Serving Institutions. He also conducts research regarding higher education focused on the needs and interests of underserved populations and advancing understanding of Minority- Serving Institutions.Dr. Breanna Michelle Weir Bailey P.E., Texas A&M University - Kingsville I am a licensed Professional Engineer in the State of Texas. I have been employed at Texas A&M University-Kingsville since 2006. I currently serve as Chair of the Department of Civil and Architec- tural Engineering.Dr. David Hicks, Texas A&M
Effectiveness Assessment process and supports assessment of academic programs and administrative departments. She also designs statistical studies to provide information about student engagement, institutional conditions that enhance student learning outcomes, progression, and retention to provide actionable reports to decision makers to include upper administration, faculty and staff. Dr. Lancey has served as the outside evaluator for several NSF funded grant projects. Prior to this, she held positions at Johns Hopkins School of Public Health, Westat, Inc., University of Alabama, and Palm Beach Community College. She presents papers and workshops for faculty and administrators on educational
designers’ beliefs about design character. These studies have highlighted the importance of cross-disciplinary skills and student engagement in large-scale, real-world projects. Dr. Exter currently leads an effort to evaluate a new multidisciplinary degree program which provides both liberal arts and technical content through competency-based experiential learning.Ms. Iryna Ashby, Purdue University Iryna Ashby is a Ph.D student in the Learning Design and Technology Program at Purdue University with the research interests focused on competency-based education and assessment, micro-credentialing, and program evaluation. She is also part of the program evaluation team for the Transdisciplinary Studies in Technology – a
of the project description, listed below. 1. Describe the problem that is being solved, and provide a justification for using Mohr’s Circle as an appropriate approach to solve this problem. 2. Determine the necessary equations to convert the strain rate rosette to stress (in any system of coordinates). Identify key assumptions and limitations. 3. Determine the principal stress and principal planes with respect to the global system of coordinates xy, and plot the Mohr’s Circle by providing to the special MATLAB function the center and radius of the circle. 4. Implement the equations in MATLAB and comment the code accordingly. 5. Complete the provided table (see Appendix A) by following the considerations detailed
Education. He served as 2004 chair of the ASEE ChE Division, has served as an ABET program evaluator and on the AIChE/ABET Education & Accreditation Committee. He has also served as Assessment Coordinator in WPI’s Interdis- ciplinary and Global Studies Division and as Director of WPI’s Washington DC Project Center. He was secretary/treasurer of the new Education Division of AIChE. In 2009 he was awarded the rank of Fellow in the ASEE, and in 2013 was awarded the rank of Fellow in AIChE.Dr. John Andrew Bergendahl, Worcester Polytechnic Institute John Bergendahl is an Associate Professor in the Department of Civil and Environmental Engineering at Worcester Polytechnic Institute. He has six years experience as a