maximum effectiveness, this integration oftenrequires development of higher education institutions offering educational programs orcoursework. A growing number of institutions have started investing on 3-D printers of variouskinds and integrate them into their engineering or technology education curriculum throughoutsystematic coursework that focuses on the main principles of the technology, so that theirstudents can receive instruction and experience on the design principles for 3-D printing, properselection of printing materials as well as proper operation techniques of the 3-D printingmachines and corresponding modeling and slicing software tools [5].This paper presents one such effort of integrating 3-D printing technology into
Century, who will “think outside the box” and will create solutions toour Energy Challenge.This short paper presents the curriculum that has been adopted by the faculty of the newDepartment of Mechanical and Energy Engineering. The curriculum has been designed toprovide the students basic, fundamental knowledge of the Mechanical Engineering disciplinewith emphasis on the energy subjects that are elements of the discipline. Armed with thisknowledge and the ability to learn by themselves, graduates of the program will be able to trainthemselves in the future, in order to master future technological developments, to be alwayswell-informed in their subjects and to be productive throughout their professional careers.Development of the Mechanical and
AC 2008-2016: INCORPORATING HDL BASED DESIGN FLOW IN EETCURRICULUMMADDUMAGE KARUNARATNE, University of Pittsburgh - Johnstown Dr. Maddumage Karunaratne - Assistant Professor of Electrical Engineering Technology at the University of Pittsburgh at Johnstown. Dr. Karunaratne earned a Bachelor of Science degree from the University of Moratuwa, a Master of Science from the University of Mississippi, and a Ph.D. from the University of Arizona. He has extensive industry experience working in the Semiconductor industry in software development, Application Engineering, Design, Testing and Verification of IC components. His research and teaching interests include Semiconductor Testing and Verification, Low Power Design
AC 2007-14: ASSESSMENT OF ETHICS MODULES IN AN ENGINEERINGCURRICULUMMysore Narayanan, Miami University DR. MYSORE NARAYANAN obtained his Ph.D. from the University of Liverpool, England in the area of Electrical and Electronic Engineering. He joined Miami University in 1980 and teaches a wide variety of electrical, electronic and mechanical engineering courses. He has been invited to contribute articles to several encyclopedias and has published and presented dozens of papers at local, regional , national and international conferences. He has also designed, developed, organized and chaired several conferences for Miami University and conference sessions for a variety of organizations. He is a
Advanced Programming in the Mechanical Engineering Curriculum B.D. Coller Department of Mechanical Engineering Northern Illinois University DeKalb, Illinois 601151. IntroductionWe are in the process of developing an advanced computing and programming trackwithin the undergraduate mechanical engineering curriculum at Northern IllinoisUniversity (NIU). We are introducing our mechanical engineering students to conceptssuch as object oriented programming, data structures, complexity analysis, and elementsof software design that are normally taught to computer scientists. Rather than ship ourengineering students to
Session 1606 An Integrative Curriculum in Architectural Engineering Technology Daniel Davis, James Fuller, Elizabeth Petry University of HartfordAbstractIn an effort to improve the Architectural Engineering Technology curriculum at the University ofHartford, educators and practitioners are working in collaboration. As design professionals, weare approaching the challenges of an integrative curriculum as we would an architectural designproject. The goals of the ‘new’ design curriculum are to improve student learning througheffective implementation of practice. The curriculum promotes
Session ____ Incorporating Biotechnology in the Chemical Engineering Curriculum Nada M. Assaf-Anid and Helen C. Hollein Chemical Engineering Department Manhattan College, Riverdale, NY 10471Abstract: The projected growth of the biotechnology industry in the coming decades warrantschanges in traditional chemical engineering curricula. To meet this new challenge, ManhattanCollege has implemented curriculum changes that aim at preparing graduates to meet thedemands of the food and pharmaceutical industry with a basic knowledge of biology andbiochemistry for
Designing Curriculum for Digital-native Architecture Students Andrzej Zarzycki New Jersey Institute of Technology andrzej.zarzycki@njit.eduIntroductionThis paper discusses a pedagogical approach toward teaching the first-year curriculum in anarchitectural program. It focuses on two courses. The first is a design studio, a 5- to 6-creditclass, taught in a small group of 12 to 15 students with a high number of contact hours, usuallyaround 12 hours per week. The other course, also geared toward first-year students, is offered ina lecture format with 30 to 36 students and covers the relationship between digital tools andconcepts
Designing Curriculum for Digital-native Architecture Students Andrzej Zarzycki New Jersey Institute of Technology andrzej.zarzycki@njit.eduIntroductionThis paper discusses a pedagogical approach toward teaching the first-year curriculum in anarchitectural program. It focuses on two courses. The first is a design studio, a 5- to 6-creditclass, taught in a small group of 12 to 15 students with a high number of contact hours, usuallyaround 12 hours per week. The other course, also geared toward first-year students, is offered ina lecture format with 30 to 36 students and covers the relationship between digital tools andconcepts
Paper ID #16979Promoting Safety Throughout the Design-Build-Test CurriculumMr. Michael M. Umbriac, University of Michigan Michael Umbriac is a lecturer in the Mechanical Engineering department at the University of Michigan, where he teaches the sophomore and junior design-build-test classes.Mrs. Amy Hortop, University of Michigan c American Society for Engineering Education, 2016 WORK IN PROGRESS: Promoting Safety Throughout the DesignBuildTest Curriculum Abstract The undergraduate mechanical engineering curriculum at the University of Michigan has a unique teambased
INTEGRATING ETHICS INTO THE ENGINEERED CONSTRUCTION CURRICULUM Sunil K. Sinha, Assistant Professor, Civil & Environmental Engineering, 231 Sackett Building, Pennsylvania State University, University Park, 16802. H. Randolph Thomas, Professor, Civil & Environmental Engineering, 206 Sackett Building, Pennsylvania State University, University Park, 16802. John R. Kulka, President, HRI, Inc., 1750 West College Avenue, State College, Pennsylvania, 16804
Session 1526 Drug Delivery Experiments in the ChE Curriculum Stephanie Farrell, Robert P. Hesketh, Mariano J. Savelski, and C. Stewart Slater Department of Chemical Engineering Rowan UniversityAbstract Drug Delivery is a burgeoning field that represents one of the major research anddevelopment focus areas of pharmaceutical industry today, with new drug delivery system salesexceeding 10 billion dollars per year [ 1]. Chemical Engineers play an important and expandingrole in this exciting field, yet
Session 3268University of Michigan’s Aerospace Engineering Curriculum 2000 ’ K. Powell, V. Coppola, J. Eisley, D. Hyland, A. Messiter, A. Waas and B. Cosgrove Abstract This paper summarizes a two-part curriculum reform that is well underway in the University of Michigan Aerospace Engineering Department. The first part of the reform was developed by a college-wide task force, and addressed the overall structure of the thirteen Bachelor’s of Science in Engineering (BSE) programs across the College, and the courses
semester, physics in the second), and a one-credit engineeringcourse. The goals of the curriculum are to provide (1) motivation and context for the fundamental materialtaught in the first-year mathematics and science courses; (2) a realistic and positive orientation to theengineering profession, and (3) training in the problem-solving, study, and communication skills that correlatewith success in engineering school and equip individuals to be lifelong learners. IMPEC is one of a number of integrated engineering curricula being developed around the country.In contrast to many of the other programs in which courses in different disciplines are simply coordinated,IMPEC features full integration. The curriculum is taught by a multidisciplinary
faculty at the US Naval Academy and the University of Lancaster, UK. Received both B.Sc. and Ph.D. from Sheffield University. Much of my recent scholarly activity has been in the area of STEM education focusing on preparation and retention, and on initiatives for more relevant applied mathematics education in the high school - college transitional years.Michael W. Ramsdell, Physics Dept. Clarkson University Michael Ramsdell is an Assistant Professor of Physics and Director of First Year Physics at Clarkson University. He has over ten years of experience in the design, implementation, and assessment of lab- oratory curriculum within introductory physics courses. He has also developed, refined and taught a Pre-Freshman
than twelve percent of the total aerospace work force [1]. The squeakywheel comprising airplane and space engineering graduate demands overshadows the missilecommunity needs wheel for specialized expertise in missile system design engineering.The paucity of missile engineering degree programs at universities within the United Statessuggests that the development of a model graduate missile engineering system design curriculumwould be of interest to both academe and industry. Accordingly, a model graduate missileengineering system design curriculum is presented for discussion.A model curriculum can be expected to provide a template for what should be an idealspecification of learning behaviors required in a given field of endeavor. These
catalysis, reactor design, and steady-state isotopic transient kinetic analysis.Michael McMahonHseen Baled ©American Society for Engineering Education, 2023 Process Control Laboratory Projects: Technical Training, Team Development and Global CollaborationAbstractProcess Control has been established as a core course for the formation of chemical engineers.Very often, it is the only course dealing with the analysis of transient (time dependent)phenomena and conditions. It relies on difficult concepts requiring intensive mathematicalapproaches and simulations based on differential equations and Laplace transform. It iscommonly criticized for its level of abstraction and
Paper ID #34212 classroom environments and lived experiences. Prior to starting the Learning Sciences program, Robert, worked as a student affairs professional in higher education focusing on residential curriculum, social justice advocacy and awareness, and Intergroup Dialogue.Mr. Shuyu Huang American c Society for Engineering Education, 2021 Developing Two-Year College Student Engineering Technology Career Profiles1. IntroductionThere is little research on curricular differences between two- and four-year programs, careerdevelopment of engineering technology (ET) students, and professional preparation for ET earlycareer professionals [1
≠ Industrial Tooling, Machines, Automation, Manufacturing≠ Industrial/Agricultural Equipment (graders, tractors, etc) ≠ Transportation≠ Systems Integrators ≠ IT Services (Technology)≠ Industrial Chemicals and Supplies ≠ Energy/Utilities≠ Contractors and HVAC SuppliersThe Industrial Engineering committee reviewed the companies that were hiring COE graduates for sales and marketing positions.Prior ISU graduates at these companies, or companies in similar industries, were asked to participate on an engineering salesadvisory board which would assist in developing the curriculum for the course. The industry advisory board, selected by
Session 2793 Integration of Computational Tools in Engineering Thermodynamics Curriculum Kyaw Aung Department of Mechanical Engineering Lamar University, Beaumont, Texas 77710 Abstract Computational tools have become readily available to assist in solving many engineeringproblems. Thus, it is important for engineering educators to incorporate computational tools intheir curriculum so that students will have first-hand knowledge and hands-on experience
Session 2793 Integration of GIS in Civil Engineering Curriculum M. Saleh Keshawarz, Donald Leone, David Pines, Beatrice Isaacs Department of Civil and Environmental Engineering University of HartfordAbstractGeographical Information System (GIS) has traditionally been used in geography and naturalresources curricula in the United States. The University of Hartford is among a few institutionsthat early on recognized the impact of the new GIS technology on Civil Engineering programs.GIS technology is rapidly expanding into most areas of Civil Engineering. As part of a
. During the visit,university representatives meet with the student to discuss the student‟s job responsibilities andtheir applicability to curriculum. Students are expected to assist in the scheduling of the visit asan assignment. They must prepare for the visit by making a presentation of their work. Facultyco-op coordinator, university co-op director, and industry supervisors guide students in theirefforts to construct meaning from their experiences, develop personal and professional insightsand future goals. The site visit is critical to:1. The success of cooperative education experienceMany employers in northeast Indiana and northwest Ohio sponsor cooperative educationopportunities for our ME students. The mechanical engineering co-op faculty
Paper ID #37094Introducing Data Analytics into Mechanical EngineeringCurriculumXiyuan Liu (Assistant Teaching Professor) Xiyuan Liu is currently an assistant teaching professor in the Department of Mechanical and Aerospace Engineering in College of Engineering. She received B.S. in Electrical Engineering in China in 2009 and then completed her M.S. in Mechanical Engineering at Clemson University. She received her PhD degree in Mechanical Engineering at Michigan State University. Her PhD work mainly focused on developing biosensing, lab-on-a-chip systems for the emerging applications in clinical diagnosis, wearable
and retention13,14,15,16.Ethics education may improve if multiple methods of disseminating ethics, including activelearning, are used throughout the civil engineering curriculum.To improve understanding of the many ethical issues students may face as practicing engineers,we developed ethics modules in four civil engineering classes at the University of Portland (UP).Some modules involved active learning, whereas others were traditional writing assignments. As 1 a result, students receive some sort of ethics instruction at least one time per year throughout their four years at UP. This paper evaluates the effectiveness of integrating ethics across the civil engineering curriculum at UP
having created a web page, at least as a user ofthe web. It turned out that about half of the students had done some HTML work prior to takingthis class and this was a popular area with the students.VI. First Iteration FeedbackOne of our goals from the beginning of this course was to develop an assessment process thatwould enable us to evaluate the value of teaching this course to all students. The Curriculum 21study panel was clear that their recommendations applied to all of our graduates, regardless oftheir major. As a result, we instituted several plans for evaluation of the course. The first methodinvolved a short-term evaluation; we tested the students with a generic technology quiz on thefirst day of class. We gave the same quiz on the
and development, world-wide. Hehas visited many countries including Taiwan, Japan, Saudi Arabia, Zambia, Zimbabwe, Ghana, Senegal,Belgium, Germany, Austria, Italy, France, and he lived in the United Kingdom for more than 12 years.He is married with two children. Page 23.994.2 c American Society for Engineering Education, 2013Project-Based Curriculum for Renewable Energy Engineering Technology Undergraduate ProgramAbstract: This paper presents a novel approach of instruction for the Renewable EnergyEngineering Technology program, emphasizing design and implementation techniques
Session T3A3 Promoting Program Outcomes Early in the Engineering Curriculum Ronald E. Barr, Thomas J. Krueger, and Ted Aanstoos Mechanical Engineering Department University of Texas at Austin AbstractProgram outcomes are the knowledge, skills, and abilities that students should be able todemonstrate at the end of a degree program. ABET requires that accredited engineeringdepartments must define a set of program outcomes, publicize them broadly to all constituents,and put into place a process for
and features. By incorporating the ship power system activities into theclassroom, faculty member are able to expose students to the varied challenges between thesesystems and traditional utility systems. As part of the curriculum update, our activities includeupgrading our graduate education classes to allow current engineers within the shipbuildingcommunity to retool in ECE classrooms to provide the background and support of futureshipbuilding design and engineering needs. By collaborating with shipbuilders within the state,curriculum improvements are helping with state economic development as well as providing aworkforce with a more diverse background.IntroductionThe power engineering field has seen many changes over the last twenty years
basic elements were the object of the instruction. The workshop wasto develop and evolve this idea and to help bring it to fruition.We examined ways to initiate, maintain, and assess this process consistent with ABET. By intent,the process would accommodate all disciplines that teach fluid mechanics and still respectinstitutional differences. The primary questions and issues addressed were: 1. What are the educational outcomes desired? 2. What is the expected level of student achievement? 3. What curriculum pedagogy should we deliver? 4. How do we measure outcomes? Page 6.568.1
AC 2010-1804: PROJECT-BASED CURRICULUM FOR THERMAL-SCIENCECOURSESBrandon Field, University of Southern IndianaDavid Ellert, University of Southern Indiana Page 15.993.1© American Society for Engineering Education, 2010 Project-Based Curriculum for Thermal Science CoursesAbstractThe incorporation of semester-long projects into two different courses are discussed in thispaper, one project in a senior-level Fluid/Thermal Design course (F/TD) in the Engineeringcurriculum and two projects in a junior- or senior-level Thermodynamics and Heat Transfercourse (T-HX) for the Industrial Supervision/Advanced Manufacturing curriculum. The contentof both of these courses has been