SPIRAL Design-Oriented Laboratories in the First-Year Mechanical Engineering CurriculumAbstractAs a primary part of realizing a Student-driven Pedagogy of Integrated, Reinforced, ActiveLearning (SPIRAL) throughout our Mechanical Engineering curriculum, we are implementingnew laboratory experiences in the first and second years of our program. This paper will focus onthe laboratories for our new, required first-year course sequence, in which the traditional topicsof design methodology and computer programming are taught in the context of robotic andmechatronic systems. The laboratories encompass engineering software, mechanical andelectrical hardware, and manufacturing, with content driven by the semester-long team
Session 2213 Raising the Level of Questioning in the Undergraduate ChE Curriculum Anthony J. Muscat Department of Chemical and Environmental Engineering University of Arizona Tucson, AZ 85721AbstractPlanned class discussion based on the Socratic method was used to teach undergraduate chemicalengineering thermodynamics and chemical reactor design courses at the University of Arizona.The primary objective of the class discussions was to develop critical thinking skills. Acombination of
made and "mid-course" corrections that were used to get the programrefocused when necessary.I. IntroductionLouisiana Tech University is a state university in north Louisiana with an engineering college ofabout 1,600 students and about 110 faculty. About 5% of the in-coming engineering students areready for calculus, 50% are ready for pre-calculus and 45% start below pre-calculus in CollegeAlgebra. Learning from recent developments in engineering coalitions such as the FoundationCoalition1,2, Louisiana Tech has implemented an integrated curriculum for the first two years ofstudy in engineering (cf. Tables 1 and 2). Page 6.466.1“Proceedings
undergraduate program. That is, rather than complain about the lack of students, money, space, and administrative support, the department initiated reform efforts in areas that it identified as most in need of change. • A challenging, but supportive and encouraging undergraduate program that includes a well-developed curriculum, advising and mentoring, an undergraduate research participation program, and many opportunities for informal student- faculty interactions, enhanced by a strong sense of community among the students and faculty. • Strong and sustained leadership within the department and a clear sense of the
fourth andsubsequent assessment accesses do not count for credit.As the learning is self-directed, progress and the rate at which it occurs is the responsibility ofthe individual student. There are no immediate consequences for an inadequate rate ofprogression, and while some measures are taken to signal adequate progression to encouragestudents to stay on track [4], some students still lag. Lindsay & Morgan [3] observed that thisleads to the emergence of two sub-cohorts – one who was up to date, and one that was wellbehind and unlikely to complete the course.The challenge for the teachers at CSU Engineering is to develop metrics of behavior that supportunderstanding effective study behavior in this unique curriculum. This paper presents
gapbetween the professional skills of recent engineering graduates and the expectations ofemployers [8, 9]. These studies suggest that more traditional coursework and individualassignments do not adequately address some of the most important skills for practicingengineers. These project assignments are designed to offer additional opportunities for studentsto develop teamwork skills, positioning them for success both in their capstone design coursesand in their professional careers after graduation.Methods: Curriculum-Wide Chemical Process ProjectThe Haber-Bosch process for ammonia synthesis was implemented in the courses indicated inbold in Table 1. Table 1: The 14 required upper division chemical engineering courses (excluding electives
learning environment for the student.”6 At North Carolina State University (NCSU), engineering librarians have been workingsince 2001 to fully integrate instruction into the engineering curriculum and have worked withfaculty in seven of eleven departments in the NCSU College of Engineering. One of the earlysuccess stories was with the Department of Chemical and Biomolecular Engineering whereinformation competencies developed by Nerz and Weiner were used to create assignments foreach year of undergraduate study.13 The assignments are detailed as follows:Connecting in the Freshman Year: E101 Approximately 1200 first year engineering students take E101, Introduction toEngineering and Problem Solving, in sections of about 40 students
Paper ID #25676Programmable Logic Controllers: What Every Controls Curriculum Needsto CoverDr. Kelvin T. Erickson, Missouri University of Science & Technology Dr. Kelvin Erickson is a Professor of Electrical & Computer Engineering at Missouri S&T. He was Department Chairman of ECE from 2002 to 2014. He has 35 years experience with programmable logic controller (PLC) and distributed control systems (DCS). He was a software design engineer at Fisher Controls for 6 years prior to joining the faculty of S&T in 1986. At S&T, his area of expertise has been manufacturing and process control. In 1997, he was on a
activities to the UW community and local K-12 students involving toy adaptation for children with disabilities. Dianne holds a PhD in Genetics from Duke University, and BS in Molecular Biology and BA in Psychology from the University of Texas at Austin.Celina Gunnarsson, Massachusetts Institute of TechnologyCamille Birch, University of Washington Camille Birch is a graduate of the Bioengineering and Computer Science departments at the University of Washington. She developed curriculum concerning the interplay of diversity and ethics for undergrad- uate engineering students at UW and is interested in the power of education to enact change in future generations of engineers. She currently works for Microsoft in the Bay Area
helped create the Integrated, First-Year Curriculum in Science, Engineering and Mathematics at Rose-Hulman Institute of Technology. His current interests are learning and faculty development.Charles Glover, Texas A&M University Charles Glover is Associate Head for Undergraduate Studies in the Artie McFerrin Dept. of Chemical Engineering where he has served on the faculty since 1977. Previous educational efforts included development of a sophomore year engineering program founded on the integrating principles of the conservation laws framework. Page 12.662.1© American Society for
served as the EET Curriculum Coordinator from 1993 to 1997, during which time thecurriculum modifications discussed in this paper were developed. Professor Etchison is currently Chair of theElectronics Engineering Technology Department at OIT. Page 3.182.5
Paper ID #28071Probability and Statistics – Early Exposure in the Engineering CurriculumDr. Roger J Marino P.E., Drexel University Roger Marino is an Associate Teaching Professor in the College of Engineering at Drexel University, Philadelphia Pennsylvania. His home Department is Civil Architectural and Environmental Engineering. Dr. Marino has 30+ years of field experience, and is licensed as a Professional Engineer in the State of New Jersey. His primary focus at Drexel is in the Freshman and Sophomore curriculums teaching courses across all disciplines.Prof. Christopher M Weyant, Drexel University (Eng. & Eng
experimentoffers an excellent opportunity for students to learn more about the engineering problems andchallenges associated with micro-positioning systems, which are not typically covered in classicmechanical engineering curriculum. The experimental setup introduced in this paper was used ina project in advanced dynamic systems and controls course. In this project, the students appliedinput shaping feedforward techniques to control the vibrations of piezoelectric tube whensubjected to input step excitation. The success of the vibration reduction controllers was verifiedusing the data acquired from two fiber optic displacement sensors. In addition, the experimentexposed the students to essential experimental principles such as calibration, data
semiconductor and telecommunications industries, I worked in the following technologies: Mobile phone integrated systems, high-speed optical/copper LAN/WAN Ethernet, Storage Area Networks, Optical Transmission Networks, IP telephony, Cable-TV, Cable Networks architectures, Analog Broadcast Video, Voice/Data Network, Hard Disk Drive technology, etc. I am co-inventor of nine US patents, and I have an additional US patent application pending, the areas of invention include Optical networks, Storage Area Networks (SAN), SONET, Ethernet, and Hard Disk Drives/read-channel technologies, etc. Four years ago I joined the fac- ulty of the Metropolitan State University and I have developed curriculum for the following courses: Dig
should, in principle, be within the power of those actors to achieve.” 2. “A course of action or inaction chosen by public authorities to address a problem.” 3. “A system of laws, regulatory measures, courses of action, and funding priorities concerning a Page 12.1150.6 given topic promulgated by a governmental entity or its representatives.” 4. Your own definition. 1.1. Quantitative Research - SurveyThe results of our interviews served to inform the structure and content of a survey wesubsequently developed. The interviews highlighted a number of issues regarding the inclusionof public policy in an engineering curriculum
projects for developing world hospitals. Page 11.799.1© American Society for Engineering Education, 2006 Integration of Diverse Laboratory Experiences throughout the Biomedical Engineering CurriculumAbstractLaboratory instruction is crucial in bioengineering curricula to introduce biological andphysiological measurements as well as to foster an understanding of the complex nature ofbiological systems. Traditionally, stand-alone bioengineering laboratory courses providedstudents an opportunity to learn the function and operation of instrumentation as well as toanalyze data by applying theories learned
design program.ConclusionsThe University of Idaho new undergraduate curriculum in electrical energy subjects is designedto meet observed needs and interests of the students effectively. The key to this new three-levelapproach to the electric power and energy curriculum is understanding that student interests canbe grouped into three categories: taking only a single course for breadth, expressing a secondaryinterest in power and energy systems that includes understanding how to interface and work withthese systems as a customer, or interface, and planning to seek employment as power and energyspecialists. Recognizing that these three categories exist led to development of a curriculum thatbalances breadth and depth of study within an established
undergraduate orgraduate core courses, especially in the discipline of industrial engineering. In addition, most Page 5.379.2textbooks used in industrial engineering classes contain no references to industrial ecologyconcepts.Providing industrial ecology instruction for engineering students will aid future efforts in pollutionprevention. The format for this instruction may take one of two forms: an industrial ecologycourse and integration of industrial ecology into existing core curriculum. In the next two sections,both of these two approaches are discussed.3. An Industrial Ecology Course with an Industrial Engineering PerspectiveThe author developed
, institutional goal of reducing the number of hours for graduation in large- hour programs like engineering.Considering those three factors, we developed a set of guidelines for change. The following fourprinciples, that we came to over time, channeled the evolution of the new curriculum:1. A student should be able to graduate in four years without taking enormous overloads or attending summer sessions; we want the quarterly load to be light enough to allow students time to think and learn, not just stagger from midterm to midterm.2. There should be more flexibility built into the program, allowing electives from a wide Page 3.568.2 variety
AC 2011-2787: A COMBINED CURRICULUM IN AEROSPACE AND OCEANENGINEERING38 YEARS LATERLeigh S McCue, Virginia TechJoseph A Schetz, Virginia Tech Dr. Joseph A. Schetz is currently the Holder of the Fred D. Durham Chair in Aerospace and Ocean Engineering at Virginia Tech, in Blacksburg, Virginia. Dr. Schetz was born and raised in New Jersey and then attended Webb Institute of Naval Architecture in New York receiving a BS in 1958. The launch of Sputnik in 1957 caused him to change directions and enter the aerospace field. He went on to receive his MSE (1960), MA (1961) and PhD (1962) in Mechanical Engineering from Princeton University. He started his professional career at General Applied Science Lab. in New York in 1961
AC 2011-2742: ARCHITECTURAL ENGINEERING CURRICULUM: IN-TEGRATION OF ARCHITECTURE AND ARCHITECTURAL ENGINEER-INGAhmed Cherif Megri, University of Wyoming Dr. Ahmed Cherif Megri, associate professor of architectural engineering at the University of Wyoming (UW), teaches several HVAC and energy courses. Dr. Megri is also teaching a course titled ”Compre- hensive Performance of Building Envelope and HVAC Systems” for Summer School at UW, and ”Smoke and Fire Dynamics” during summer session at Concordia University, Canada. His research areas include airflow modeling, zonal modeling, energy modeling, and artificial intelligence modeling using the support vector machine learning approach. Prior to his actual position at UW
ETD 355 Introducing Remote Troubleshooting for the Marine Engineering Technology Curriculum David Satterwhite California Maritime AcademyAbstractA well-rounded Marine Engineering Technology curriculum enables graduates to utilize theirinvaluable skillset, comprised of modern techniques and experiential knowledge to design,install, troubleshoot, and repair systems related to the marine industry. However, the perpetualsearch for improved marine powerplant efficiency and reduced personnel aboard ship has led toincreasingly sophisticated power
Paper ID #31340Health Stress and Support System Narratives of Engineering StudentsDr. Greg Rulifson PE, USAID Greg is currently a Science and Technology Policy Fellow at USAID. Greg earned his bachelor’s degree in Civil Engineering with a minor in Global Poverty and Practice from UC Berkeley where he acquired a passion for using engineering to facilitate developing communities’ capacity for success. He earned his master’s degree in Structural Engineering and Risk Analysis from Stanford University. His PhD work at CU Boulder focused on how student’s connections of social responsibility and engineering change
managed various educational enterprises. c American Society for Engineering Education, 2018 Work in Progress: Redesigning Curriculum to Foster Student SuccessMotivationFor years various organizations and institutions like The National Academy of Engineering [1],the National Science Foundation [2], and the American Society of Engineering Education [3],have called for curriculum reform in engineering education. On group called Big Beacon, whichwas formed by faculty at Olin College and Illinois Foundry for Innovation in EngineeringEducation developed the Big Beacon manifesto which points out that the best students of today“come to school in search of the excitement of creating cutting edge technology or
and modeling (http://www.engr.iupui.edu/˜jz29/) c American Society for Engineering Education, 2019 Integration of 3D printed Drone Project in General Engineering CurriculumAbstractWe recently developed a new project-based 3D printing module in general engineeringcurriculum. Specifically, students are required to make a drone using 3D printed components.The revised engineering course with the new module has received extensive interests andpositive feedback from students. They learned how to apply the fundamentals, applications, andimplications of 3D printing or additive manufacturing (AM) in a real-world project.1. Introduction With technology getting better every year, it is imperative that students
Integration of Virtual Instrumentation into a Compressed Electricity and Electronic Curriculum Arif Sirinterlikci Ohio Northern UniversityBackgroundOhio Northern University Technological Studies Department has a Technology Program thatoffers Industrial Technology curriculum under its Industry Track. Students in this track, takeonly two technology courses (TECH 261: Fundamentals of Electricity and Electronics,TECH 362: Digital Electronics: Concepts and Applications) relating to electricity andelectronics before taking higher-level courses with automation and robotics emphasis. Thecurriculum is very compressed and it is a challenge for the
Session Impact of ABET EC 2002 on a Chemical Engineering Curriculum Sean Clancey, Nam Kim, and Gerry Caneba Department of Chemical Engineering Michigan Technological University 2003 ASEE Annual Conference Nashville, TennesseeIntroductionAssessment of the curriculum in the Chemical Engineering Department at MTU has been ongoingsince 1995. Over the following seven years, eight assessment tools have been developed andpartially
Session 2520 Computer Exercises to Incorporate Energy Concepts into the Electrical Engineering Curriculum R. G. Jacquot, J. W. Pierre, and J. C. Hamann/B. H. Chowdhury University of Wyoming/ University of Missouri-RollaAbstractThe authors report on a sponsored project to incorporate power concepts into non-power courses.Reported here are efforts to build computer exercises to accomplish a portion of this task.1. IntroductionIn 1997 the National Science Foundation funded university programs to enhance electric powereducation in the United States in light of a perceived shortage of competent
Paper ID #37700Teaching, Learning, and Understanding of Thermodynamicsin a Mechanical Engineering CurriculumEmmanuel K. Glakpe (Professor) Dr. Emmanuel Glakpe is a professor in the Mechanical Engineering Department at Howard University in Washington DC and a registered professional engineer. He received BSc., M.S., and Ph.D. degrees from the University of Science and Technology, Ghana, Stanford University, CA, and University of Arizona, AZ., respectively. A Fellow of ASME, Dr. Glakpe teaches classes in the Fluid/Thermal Sciences thread of the curriculum in both the undergraduate and graduate programs in the Department
Sciencedegree. Also, there are many online teaching platforms dedicated to this subject. However, there is noclear consensus on what knowledge students need in order to be able to accomplish the tasks thatemployers are expecting. We are in the process of developing a comprehensive curriculum tailored toteaching students the necessary Data Mining theory and skills in our institution.Our proposed curriculum is influenced by data gathered from syllabi of courses taught in the area of DataMining at different institutions of higher education across the United States. Each syllabus was used togather information for the topics taught in the class, the textbook and reading materials, the primarylanguage used to teach students the concepts, and the frequency of