University Dr. Gene Hou is a Professor in the Department of Mechanical and Aerospace Engineering of Old Domin- ion University (ODU). He received his PhD in Mechanical Engineering from University of Iowa in 1983 and joined Old Dominion University since then. His expertise is in computational mechanics, multidis- ciplinary design optimization and system integration and risk management. He is the co-director of the Marine Dynamics Laboratory. During his tenure, he has the privilege of developing 3 new undergraduate and 6 new graduate courses in the areas related to computational methods and design. c American Society for Engineering Education, 2017 An Integrated Curriculum for Technical Writing
Paper ID #18361UAS Curriculum for Students Using an Active Learning ApproachDr. Michael C. Hatfield, University of Alaska, Fairbanks Michael C. Hatfield is an assistant professor in the Department of Electrical and Computer Engineering at the University of Alaska Fairbanks, and Associate Director for Science & Education, Alaska Center for Unmanned Aircraft Systems Integration. He earned a B.S. in electrical engineering from Ohio Northern University; an M.S. in electrical engineering from California State University Fresno, and a Ph.D. in Electrical/Aeronautical Engineering from the University of Alaska Fairbanks.Dr
Paper ID #20913Instilling Entrepreneurial Mindset by Vertical Integration of Engineering ProjectsShankar Ramakrishnan, Arizona State University, Polytechnic campus Dr. Shankar Ramakrishnan received his PhD in Electrical Engineering from Arizona State University. He is currently part of the engineering education team in the Ira A. Fulton Schools of Engineering at Arizona State University. Currently he designs the curriculum for the freshman engineering program at the Polytechnic campus of the Arizona State University. He also designs and teaches engineering design courses in the first and sophomore years at ASU. His interests
meet the challenge of integrating STEM disciplines in a manner that supports teach- ing and learning across multiple disciplines. More recently, her research has focused on using literacy to support scientific inquiry, engineering design, and STEM integration.Mrs. Elizabeth Gajdzik, Purdue University, West Lafayette (College of Engineering) Elizabeth Gajdzik is the Assistant Director of the INSPIRE Research Institute for Pre-College Engineering in the School of Engineering Education at Purdue University. She received both her B.S. in Interdisci- plinary Studies with a specialization in mathematics and M.S.Ed. in Curriculum and Instruction with an emphasis in mathematics education from Baylor University. Prior to her
enough to field morecontemporary issues as well. A recent contemporary issue addressed in the course issustainability in design, one of the newest curriculum criteria established by the AccreditationBoard for Engineering and Technology (ABET) for civil engineering programs.The purpose of this paper is to propose a way of integrating and assessing the new ABET civilengineering program curriculum criteria of sustainability in design, specifically through theassessment of a project-based learning experience in an infrastructure engineering course. Theproject consists of an investigation and assessment of a proposed site with existing infrastructureas a potential base of operations in the aftermath of a catastrophic event. This paper outlines
pillars of sustainable design in theircurriculum to better equip civil engineering students in their decision making to considersustainability issues. The three pillars of sustainable development are social development,economic development and environmental restoration. A major challenge to this integration isadding to the workload of the existing curriculum. In some cases, introducing the new conceptsrequires the loss of essential course material. Consequently, many civil engineering departmentshave successfully integrated sustainable design principles through course modules, and projectbased learning3. A recent study by Litchfield and Javernick-Will compared the career interestsand experiences of students and practicing engineers who
integrated EML into the curriculum: GLY 2805Geology for Engineers, CEE 2105 Mechanics I, and CEE 2106 Mechanics II. CEE 2105 andCEE 2106 are part of a three course mechanics sequence (i.e. CEE 2105 Mechanics I, CEE 2016Mechanics II, and CEE 3107 Mechanics III)9. Within the CEE curriculum, this is the most robustyear for EML integration.GLY 2805 Geology for EngineersGeology for Engineers (GLY 2805) is a required course for Civil Engineering students. Thethree credit class meets twice a week for 75 minutes. The course is taught in two sections withapproximately 30 students in each section. Over the last two years, GLY 2805 has beenconverted from a traditional lecture format to an inverted (flipped) format. These significantchanges to the course
Paper ID #20414Development of an Integrated Electro-mechanical Energy Conversion Systemto Support Undergraduate Electrical Engineering CurriculumDr. Kenan Hatipoglu, West Virginia University Insttitute of Technology Kenan Hatipoglu is an assistant professor at Department of Electrical and Computer Engineering at West Virginia University Institute of Technology. He completed his Master of Science degree in Electrical Engineering at University of Louisville, Kentucky in 2008 and joined Tennessee Tech University in 2009 to pursue his Ph.D. in Electrical (Power) Engineering. He completed his graduate study in August 2013
department-wide changes in curriculum with emphasis on project- and lab-based instruction and learning. His research interests are in the areas of engineering education, semiconductor device characterization, design and simulation, signal integrity and THz sensors. He is a member of IEEE and ASEE. c American Society for Engineering Education, 2017 Session W1A Work-in-Progress - An Introductory Course in Electrical Engineering: Lessons Learned and Continuing Challenges Melinda Holtzman and Branimir Pejcinovic
(written, oral, and graphical forms) (ABET SLO G, SLO K) 3. Function effectively on a team (ABET SLO E, SLO I)The Senior Design course draws upon all prior courses by exposing the student to an integrated,capstone design experience. The course is a critical component of the curriculum and providesthe student with a comprehensive opportunity to utilize the skills and abilities obtained throughthe MET program core material as well as the incorporated engineering design content. Inaddition, this course represents a major design experience and allows students to demonstratethat they have the ability to work in teams to design, develop, implement and improve integratedproducts and systems. Senior Design course is not a lecture-based course
them on the project requirementsproved to be a significant challenge. This could be resolved by the department including the IDP as acompulsory project within the second year curriculum. Alternatively, if over time the IDP appeals to enoughof the professors within the department, then perhaps the inclusion of the IDP will occur naturally.Moreover, it is recommended to establish an elevated level of communication amongst the instructors forall integrated courses to optimize the execution of the IDP, minimizing the conflicts and maximizing thevalue to the students. It is recommended to plan for the IDP well in advance (e.g., in the preceding term).This is to combat the challenge involving the communication and scheduling difficulties between the
Paper ID #18104Connected Mechanical Engineering Curriculum through a Fundamental Learn-ing Integration PlatformMr. Thomas A. Feldhausen, Kansas State University Thomas Feldhausen is an instructor for the Mechanical and Nuclear Engineering Department at Kansas State University. He received his M.S. in Mechanical Engineering from Kansas State University in May of 2017. As well as being an instructor, he works at Honeywell Federal Manufacturing and Technologies as a process engineer in Kansas City.Dr. Bruce R. Babin, Kansas State University, Department of Mechanical and Nuclear Engineering Dr. Babin is an instructor in the
. She earned a Ph.D. in chemical engineering from Polytechnic University (now NYU Polytechnic School of Engineering), an SM in Chemical Engineering Practice from the Massachusetts Institute of Technology and a BS in Chemistry from the University at Albany of the State University of New York. Dr. Brown is a registered professional engineer in New York State. c American Society for Engineering Education, 2017 Incorporating Undergraduate Research Experiences in an Engineering Technology Curriculum Benito Mendoza, Manuel Sairitupa, and Pamela Brown New York City College of Technology {bmendoza
Paper ID #18886Formalizing Experiential Learning Requirements in an Existing Interdisci-plinary Engineering CurriculumDr. Harold R. Underwood, Messiah College Dr. Underwood received his Ph.D. in Electrical Engineering at the University of Illinois at Urbana- Champaign (UIUC) in 1989, and has been a faculty member of the engineering Department at Messiah College since 1992. Besides teaching Circuits, Electromagnetics, and Communications Systems, he su- pervises engineering students in the Communications Technology Group on credited work in the Inte- grated Projects Curriculum (IPC) of the Engineering Department, and those who
) introduce young students to a range ofengineering careers. Co-designed with science education faculty, the E2 curriculum aims toprovide fun and engaging content with easy integration into formal and informal science learning(Colston, Thomas, Ley, Ivey, & Utley, 2017). An activity guide for facilitators assists in theintegration of the video lessons (exploration and explanation with the engineer) with hands-onclassroom activities and follow-up challenge activities (engagement and elaboration with ateacher or facilitator). The instructional videos, materials list, and activity guide can be found at:http://www.engineeringiseverywhere.com/. E2 video lessons and hands-on activities aim to increase interest and excitement aboutengineering
current engineering curricula lacks thehuman-centered design. The students will be introduced ability to prepare their students for the following:to a five-step design process originally developed by human-elements of designEngineering for Change. A fundamental aspect of this real-world problem-solvingdesign process is its iterative nature and its inherent focuson the human at the center of the problem-solving This paper outlines an initial attempt to address these twoexperience. The design process will be presented to the main concerns in the engineering curriculum at Lipscombstudents through three interactive experiences. University. By
activities were crafted forstudents to gain insight into the morphology and size of MWCNTs, and how that knowledgewould influence their incorporation into a fresh mortar mixture. These simple but effectivehands-on activities were integrated into a research presentation on the results of manufacturingand physical testing of MWCNT-reinforced cement mortar prototypes, which were performed atUSC as part of an ongoing USDOE funded project. Discussion of student learning from thisPBL module can be found in Haggard et al. (2017).ECIV 350: Introduction to Environmental Engineering(junior year, required course)This course was chosen as the cornerstone for this thematic curriculum project, such thatnanotechnology was more fully integrated into the course
2017 ASEE International Forum:Columbus , Ohio Jun 28 Paper ID #20723Investigation of Effect of Curriculum Change on Students’ Performance inKnowledge-building and Knowledge-integration SubjectsDr. U. P. Kahangamage, The Hong Kong Polytechnic University Udaya Kahangamage is a Teaching Fellow in the Department of Mechanical Engineering at The Hong Kong Polytechnic University. He received his PhD from University of Bristol, UK. Currently, he teachers courses related to Engineering Design, Product Design and Manufacturing. His interest includes innova- tive teaching pedagogies for
inspired by theneeds of creating meaningful hands-on DSP lab experiments in the allotted one term period (tenweeks) and by the goal of improving student success in implementing DSP-based culminatingprojects that meet desired goals within realistic constraints. The benefits of integrating the MCUtools in the DSP course are very promising. It permits more practical DSP laboratories and DSP-based capstone projects that render richer design experiences and makes meeting realistic designconstraints feasible. Furthermore, it provides an integrated laboratory curriculum structurebetween embedded microcontroller and DSP courses which reduces students’ unnecessary effortof learning new tools in different courses. Consequently, students can focus more on
mandatory course (core curriculum) – MET 421, 422 and 423. The syllabus foreach sequence is attached. The course involves developing a comprehensive project during these3 quarters; including a demonstration of a working prototype (a physical product rather than acomputer based model or data from experiments/process/procedure). Students must develop anew or improved product or technology during their senior design sequence. Each project will bedeveloped by a team of 3 to 4 students. Usually teams are a mix of both mechanical andelectrical engineering technology concentrations.This course is an excellent capstone experience, which requires both teamwork and individualskills to solve a modern industrial problem. Senior design project seminars in fall
Paper ID #19636Redesign of Calculus Curriculum in EngineeringDr. Hui Ma, University of Virginia Hui Ma received her Ph.D. in applied mathematics from the University of Alabama at Birmingham in 2012. Her current research focuses on the Errors-In-Variables (EIV) model and fitting geometric curves and surfaces to observed data points. Before joining the University of Virginia (UVA), she worked as an assistant professor at Black Hills State University for two years. In her current role as an APMA faculty member at UVA, she teaches applied math courses to engineering students. Her goals in teaching are to help students
Paper ID #19538A Journey to Integrate Spatial Visualization into Community College Engi-neering and Technology Programs to Increase Student Diversity and Reten-tionMr. Kenneth Paul Grimes, Tidewater Community College Kenny Grimes is an Associate Professor of Engineering at Tidewater Community College in Virginia Beach, VA. TCC’s Associate of Science in Engineering program produces transfer students that comprise nearly half of the Old Dominion University engineering undergraduate population. Mr. Grimes’ TCC position is a culmination of diverse prior experiences from careers as a powertrain control system engineer at
, urban school districts with research experiences and shared activities designed to increase their understanding of the challenges and demands of nanotechnology, collaborative research, and college/career opportunities in STEM fields. Lead participants in the creation of 15 hands-on, inquiry-based teaching modules (5 per year) which integrate multiple STEM disciplines, convey scientific-process skills, and align with Indiana State Standards and Next Generation Science Standards (NGSS) Introduce teaching modules and classroom assessment strategies into targeted school districts in an effort to cultivate a positive image of, and greater interest in, STEM fields among urban secondary students, many of whom are from underrepresented
University of Dayton such as student-centered learning, active learning, co-teaching,problem/project based learning, entrepreneurial mindset learning, flipped classroom, etc.,are largely focused on undergraduate classes but not in graduate classes comparatively. Thispaper documents a teaching model where the homework, projects, activities, lectures andindependent studies are all integrated on a single platform (portfolio) in an endeavor tomotivate graduate students to practice sustainable learning (long-term learning) andpromote critical thinking skills. The author implemented this model for the first time in agraduate compressible flow aerodynamics class with the “portfolio” as a platform ofintegration. The paper also discusses the application of
also expanded their role and has served as the client for capstone projects,particularly those focused on emerging technologies.Although StudioG accepts projects in various stages of commercialization, the ideal capstoneproject transitioning to StudioG is expected to have a minimum of a working prototype capableof yielding reliable data and/or results. Thus, capstone projects that have been validated throughtesting and external feedback within the AIS are given high priority.Preliminary ResultsDuring the 2016 calendar year, the capstone integration project has effectively consulted a totalof twenty-three capstone projects. These numbers show an increase of 256% when compared tothe number of capstone projects consulted during the 2015 school
). Reaching students at an early age is key in the attempt to encourage them to pursue STEMfields. Efforts can start by targeting middle school students, with an integrated approach, drawingsupport from various entities, to increase student confidence and interests in STEM. Morespecifically, with programs like the CCSU NSTI, a curriculum with more hands-on activities andsmall group competitions can suit young people's learning styles and preferences, stimulatinggreater interests in STEM fields and careers.Acknowledgement: We wish to thank the Federal Highway Administration for funding the CCSU NSTI programfor multiple years.References: 1. Nadelson, L. S. & Callahan J. (2011) A Comparison of Two Engineering Outreach Programs for
Paper ID #18117Research Initiation: Effectively Integrating Sustainability within an Engi-neering ProgramDr. Paul Gannon, Montana State University Paul Gannon is an Associate Professor of Chemical Engineering at Montana State University in Bozeman, MT USA.Dr. Ryan Anderson, Montana State UniversityDr. Carolyn Plumb, Montana State University Carolyn Plumb is the recently retired Director of Educational Innovation and Strategic Projects in the College of Engineering at Montana State University (MSU). Plumb has been involved in engineering education and program evaluation for over 25 years, and she continues to work on externally
Paper ID #20359Lessons Learned in Teaching Science using an Integrative Approach that usedthe Engineering Design ProcessDr. John M. Mativo, University of Georgia Dr. John Mativo is Associate Professor at the University of Georgia. His research interest lies in two fields. The first is research focusing on best and effective ways to teaching and learning in STEM K- 16. He is currently researching on best practices in learning Dynamics, a sophomore engineering core course. The second research focus of Dr. Mativo is energy harvesting in particular the design and use of flexible thermoelectric generators. His investigation
Technology (CIT) at Purdue University. She has been with the University since 2007 and is responsible for teaching database fundamentals courses and introductory technology courses. Laux has 10 years of industrial experience in the information technology field, and her research area of interest includes technology readiness, the social impacts of technology, and increasing interest in the field of computing. c American Society for Engineering Education, 2017 An Evaluation of STEM Integration Effectiveness by Artifact AnalysisAbstractImproving the learning experience is the purpose of integrating curricula and providing studentswith explicit connections between disciplines. However, the mainstream
Paper ID #19285A Practitioner Account of Integrating Macro-ethics Discussion in an Engi-neering Design ClassDr. Ayush Gupta, University of Maryland, College Park Ayush Gupta is Assistant Research Professor in Physics and Keystone Instructor in the A. J. Clark School of Engineering at the University of Maryland. Broadly speaking he is interested in modeling learning and reasoning processes. In particular, he is attracted to fine-grained models of learning (based in microgenetic analysis, or drawing on interaction analysis). He has been working on how learners’ emotions are coupled with their conceptual and