of this paper is to present a set of hands-on modules that utilizes mathematical andgeometric modeling as educational activities in a facade design course. The proposed modulescan be utilized in various courses such as facade design, capstone design/ thesis, or independentstudy in architecture and/or interior design undergraduate or graduate programs. 3The proposed design modulesThe process of pattern modeling and design of pattern-based responsive facades can beconsidered a valuable learning experience in an interdisciplinary process that includes research,design, simulation, performance evaluation, optimization, testing, and documentation.The proposed hands-on modules have been designed to
, and graphs, and to use related algorithms to solve social science problems.● ENGR 122. Data Technology introduces students to R with an emphasis on data frames and data analysis. Content includes basic statistics, linear and non-linear curve fitting, clustering, natural language processing, neural networks, databases, Structured Query Language (SQL), and data cleaning and management.● ENGR 195E. As a capstone project course, students apply computing skills acquired in the minor to solving problems or generating insights in their chosen area of study. Students work in self-selected teams and define their own project topics.Student ProfileA demographic profile of students enrolled in ENGR 120 (the first course in the minor) andENGR 195E
Drinking Water Treatment Process.ASEE Annual Conference, 2004.9. Chauhan, R., Rajaram, G., Pai, D. Illustrating Engineering Concepts With A Household WaterFilter Pitcher. ASEE Annual Conference, 2005.10. Gude, V. G., Truax, D. D. Project-based Learning of Environmental Engineering Principles.ASEE Annual Conference, 2015.11. Read-Daily, B. Using Backpacking Water Purification Systems as a Means of IntroducingWater Treatment Concepts to an Introduction to Environmental Engineering Course. ASEEAnnual Conference, 2016.12. Husanu, I. N. C., Mauk, M. G., Gold, P. B., Orfanelli, N. T. From Capstone Student-ledProject to Experiential Learning Module: Design and Manufacturing of an Integrated System ofPico-Hydroelectric Generator and Water Filtration. ASEE
introductory materials engineering, polymers and composites, and capstone design. His research interests include evaluating conceptual knowledge, mis- conceptions and technologies to promote conceptual change. He has co-developed a Materials Concept Inventory and a Chemistry Concept Inventory for assessing conceptual knowledge and change for intro- ductory materials science and chemistry classes. He is currently conducting research on NSF projects in two areas. One is studying how strategies of engagement and feedback with support from internet tools and resources affect conceptual change and associated impact on students’ attitude, achievement, and per- sistence. The other is on the factors that promote persistence and
initiatives at an interdisciplinary research institute called the Institute for Critical Technology and Applied Science (ICTAS) at Virginia Tech. He is the founding director of an interdisciplinary lab called Learning Enhanced Watershed Assessment System (LEWAS) at VT. He received a Ph.D. in civil engineering from VT. His research interests are in the areas of computer-supported research and learning systems, hydrology, engineering education, and international collaboration. He has served as a PI or co-PI on 16 projects, funded by the National Science Foundation, with a $6.4 million research funding participation from external sources. He has been directing/co-directing an NSF/Research Experiences for Undergraduates (REU
Education at Arizona State University, and Director of the Division of Curriculum and Instruction. He received his Ph.D. in Educational Psychology from the University of Wisconsin-Madison in 1992, where he also served in the National Center for Research on Mathematical Sciences Education as a postdoctoral scholar.Prof. Stephen J. Krause, Arizona State University Stephen Krause is professor in the Materials Science Program in the Fulton School of Engineering at Arizona State University. He teaches in the areas of introductory materials engineering, polymers and composites, and capstone design. His research interests include evaluating conceptual knowledge, mis- conceptions and technologies to promote conceptual change. He
suggested). Following this Introduction is a descriptionof the process followed to execute the program. The program itself is then described. Finally, theprogram highlights the projects that have thus been funded through the grant program. Thearticle concludes with a summary of the key benefits and challenges of an academic / industrypartnerships in operating a grant program.Description of ProcessThe idea to develop an outreach effort within the CSS started several years before the programbegan to materialize. Casual discussions of implementing an outreach program were generallymet with positive agreement, but serious discussions never succeeded without a specific personbeing tasked with executing the ideas. Professional organizations that comprise
Engineering (Ph.D. UCLA 2002), and she has several years’ experience in hands-on informal science education, including working at the Lawrence Hall of Science at UC Berkeley. While at Cal Poly Pomona, she taught the first year engineering course, mentored student capstone re- search projects, and introduced nanoHUB simulation tools into the undergraduate curriculum in materials science and engineering and electrical engineering courses. Much of her work has focused on introducing STEM concepts to broad audiences and encouraging students, including women and others in traditionally under-represented groups, to consider graduate school. Four of her former research students are currently in, or have completed, Ph.D. programs
. - Communicate geotechnical engineering recommendations by composing professional written and graphical documents.The PBL began with students being introduced to the arena construction project with pictures ofthe site prior to construction, pictures of the current state of the excavation (at the time of thePBL), and renderings of the complete facility. The primary purpose of the introductorypresentation was to provide students with an understanding of the magnitude of the excavation.The students were then shown a demonstration where moist sand was transferred from one cupto another of identical size. Despite fitting perfectly into the first cup, the soil overflows from thesecond cup, due to particle rearrangement and a change in void space
. Sirinterlikci, K. G. Jr. Moran, C. S. Kremer, B. A. Barnes, J. Cosgrove, and S. A. III Colosimo, “A Capstone Project on Design and Development of a Digital Light Processing 3D Printer, 2015 American Society for Engineering Education Annual Conference and Exposition Proceedings, Seattle, WA, June 14-17, 2015. Paper ID 14128[33] N. Jaksic, “MAKER: 3-D–Printing Evolution in Engineering Education: The Things We Make,” 2016 American Society for Engineering Education Annual Conference and Exposition Proceedings, New Orleans, LA, June 26-29, 2016. Paper ID 16253[34] Anon, Thingiverse, Accessed on Feb. 4, 2018. from https://www.thingiverse.com/[35] A. Bandura, Self-Efficacy: The Exercise of Control, W. H. Freeman and Company, NY, 1997.
, 2018Leveraging the power of Matlab, SPSS, EXCEL and Minitab for Statisticalanalysis and inferenceAbstractFor many undergraduate and graduate engineering technology students, data collectionand data analysis—including methodology, statistical analysis, and data preparation—is the most daunting and frustrating aspect of working on capstone senior projects andmaster’s theses. This paper provides an introduction to a number of statisticalconsiderations, specifically statistical hypotheses, statistical methods, appropriateanalytic techniques, and sample size justifications. Statistical analysis of data utilizingstatistical software packages, including MATLAB, SPSS, Minitab, EXCEL, and R,will be shown for scientific applications, quality assurance, corporate
assignment concluded with presentations at a local high school andthen completing a reflection assignment based on that experience. This crossover activity incorporates many learning theories and proven pedagogicalteaching and learning strategies including. Interdisciplinary Experiential Collaborative Service-learning (for the nanotechnology students)At its core, the rationale for creating the assignment was to enhance engagement with the coursecontent, create deeper learning, and develop lasting appreciation for the fields.Pedagogical Background Engineering students encounter new technologies in capstone projects, in theircoursework, and in internships. The current technologies
activity for Applied Mechanics courses. She is coordinator and advisor for capstone projects for Engineering Technology.Kevin Frank, Drexel University Drexel University student studying Mechanical Engineering Technology. Currently on CO-OP and work- ing on the Unity3D implementation portion of this project.Ms. Ayanna Elise Gardner, Drexel University After graduating with her associate’s degree in Engineering Technology from Delaware County Commu- nity College in 2018, Ayanna transferred to Drexel University to continue her undergraduate career. Her interest in the hands-on applications of the Engineering Technology field was sparked during her time as an organizational-level helicopter mechanic for the United States
engineering curriculum has long been recognized.However, students often do not complete a hands-on, comprehensive design project until theirsenior year capstone design course. While this is obviously a very valuable and appropriatelearning experience, students benefit from and desire earlier and more frequent real-world designexperiences12. One reason design experiences are often delayed is that students do not have thetechnical breadth early in their academic careers necessary to complete a comprehensive designproject. While students in the first-year course, Fundamentals of ECE, do not have the breadthand depth to successfully carry out a completely open-ended design project with a level ofsophistication expected from senior students, they do have
, graphic arts, politics, music, and computer technology have always been Preston Jay Mendoza’s main interests. His undergraduate years have been a long filtration of those many interests, which ulti- mately led him to enroll in the Computer Information Systems program at National University. From this program, he further enhanced his business and computer skills in project management and data manage- ment systems. These skills were used to develop the capstone project, which includes the corresponding paper. Page 25.865.1 c American Society for Engineering Education, 2012
results achieved in the Minor in EngineeringStudies Program at Iowa State. The project goal is to develop the concepts and resources tosupport model minors which can be adopted efficiently and widely within American highereducation. To facilitate adoption by other institutions, flexibility is a key objective of theintended guidelines. Since the appropriateness of using the name engineering in the context of aminor is subject to debate, the specific name of minor should be part of that flexibility. Thesedegrees do not focus on teaching specific engineering technical content but on teaching studentshow to think like an engineer. The minor aims to develop the broad understanding and practicaltechnological competence outlined by the National Academy
Paper ID #8705Automated Process Control Laboratory Experience: Simultaneous Temper-ature and Level Control in a Continuously Stirred Tank Reactor SystemDr. Joshua A. Levinson, Lafayette College Levinson is an Assistant Professor in the Department of Chemical & Biomolecular Engineering at Lafayette College. His teaching interests are in senior capstone design, integrated chemical engineering laboratory, transport, and thermodynamics. His research interests are in semiconductor processing technology, mi- crofluidics, transport phenomena, chemical kinetics, and chemical engineering pedagogy.Dr. Eric L. Maase, University of
the advisor for OSU’s student chapter of the Architectural Engineering Institute. Professor Ramming recently co-authored Civil Engineering & Architecture: Workbook for Project Lead the Way which provides curriculum for sci- ence, technology, engineering, and mathematics education used in middle and high schools. She was also named the Outstanding Faculty Member from the College of Engineering, Architecture and Technology by the The Panhellenic Council and Interfraternity Council in 2010 and 2012 and awarded the Halliburton Young Teaching Award in the College of Engineering, Architecture and Technology in 2013.Prof. John J Phillips P.E., Oklahoma State University John Phillips, a registered engineer and
Paper ID #6565Bending Moments to Business Models: Integrating an Entrepreneurship CaseStudy as Part of Core Mechanical Engineering CurriculumDr. Mark Schar, Stanford University MARK SCHAR works in the Center for Design Research - Designing Education Lab at Stanford Univer- sity. He is also a member of the Symbiotic Project of Affective Neuroscience Lab at Stanford University and a Lecturer in the School of Engineering. Dr. Schar’s area of research is ”pivot thinking” which is the intersection of design thinking and the neuroscience of choice where he has several research projects underway. He has a 30 year career in
Engineering and will soon complete his Ph.D. research in thearea of internet agent support for electronic commerce. Mr. Eskil has been instrumental in developments in theCollege of Engineering freshman gateway course in computational tools.An academic specialist in the MSU Mechanical Engineering Department, Timothy Hinds teaches undergraduatecourses in machine design and statics as well as advises senior engineering student teams working onindustrially sponsored capstone design projects. He also teaches a senior-level undergraduate internationaldesign project course and has taught graduate-level courses in innovation and technology management.Mark Urban-Lurain is Director of Instructional Technology Research and Development in the Division ofScience
curriculum.Coordinated Spiral CurriculumAlthough the curriculum had just passed a rigorous review by its accrediting agency, the facultybelieved that there was always room for improvement. The faculty decided to step back andexamine the entire curriculum with fresh eyes. The faculty threw off the shackles of mundanementality and looked afresh at curriculum. If we the faculty could start with a clean slate, whatwould we create? The faculty determined that the curriculum must have the following keyfeatures: • Satisfy accreditation criteria • Provide breadth and depth of curriculum content • Include a projects thread through the program to develop professional skills • Incorporate a just-in-time curriculum content flow • Produce
engineering curriculum was initiated at the freshmen level,faculty felt that integration should also be undertaken for our engineering students further along in theireducation. After faculty discussion, it was agreed that a single lecture would be prepared and delivered tomechanical, electrical and industrial engineering students enrolled in a fall semester course preparing for themfor their capstone senior design projects in the spring, called Professional Awareness, ME 439, EE 439 and IE439. This class included 39 engineers from the mechanical, electrical and industrial engineering disciplines.This paper summarizes the results of a first formal attempt by faculty in the School of Engineering at WNECto educate students on this difficult yet
Alumni Surveys • Employer Surveys • Capstone Design Report Review • Graduate Placement Data • Annual Student Meeting/SurveyII. Pre-Graduation Assessment ToolsPre-graduation indicators can include transcript data (courses attempted by students andcorresponding grades)6, student portfolios (multiple courses), and course portfolios(individual courses). Course portfolios are currently being used at several institutions.The theory behind the use of portfolios is that by accumulating a student’s work overtime one can demonstrate whether or not a student is progressing towards and achievingeducational goals7. However, at least one school that began using
of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ©2002, American Society for Engineering Educationwould endorse, probably as the prime duty of the engineer. If engineers have any duty to society as awhole, and the authors would argue that we do, then protecting them by our decisions should be one ofour prime duties. A problem could develop when a project might hurt a few people, but help manymore. An example might be a major dam project in the southwestern United States. Is our prime dutyto the few who might be displaced, or the many who might be helped by readily available water andcheaper electricity?A utilitarian approach might approve of this policy as being
• TECH 443 - Engineering Economy • TECH 484 – Energy Management • TECH 496 - Industrial Project Management (Capstone experience) • Three Technical Electives related to energy and the environmentIt should be noted that the Technology degree was not developed with the intent of obtainingeither ATMAE or ABET accreditation, however, in the future this may be an option with minoralterations to the program. In addition to the three major curricular paths that were developed,the group also developed two undergraduate minors; however, other minors are planned or incurrent process. The goals of the minors are introduce students from various unrelated majors tothe area of energy and the environment or “green
consulting, he currently teaches engineering design at the cor- ner and capstone levels. His research focus in on scaling innovative engineering pedagogies to suit large classes, and his teaching integrates the theories of Vygotsky, Kolb, Papert, Perry, and Pugh.Dr. Robert Irish, University of TorontoMs. Patricia Kristine Sheridan, University of Toronto Patricia Kristine Sheridan is a Ph.D. candidate with the Institute for Leadership Education in Engineering at the University of Toronto. She holds a B.A.Sc. and M.A.Sc. in mechanical engineering from the University of Toronto. She is a member of the teaching team and a course developer for the Praxis cornerstone design courses
Wichita State University. He received his B.S., M.S., and Ph.D. degrees from Oklahoma State University. In his 38-year teaching career, he has taught a wide range of industrial engineering courses and currently directs the department’s capstone design experience. His research interests are in systems engineering, decision analysis, and engineering education. Page 25.1263.1 c American Society for Engineering Education, 2012 Team Decision Skills Development with MBTI © Step IIAbstractAs part of an Engineer as Leader course, students learn to dynamically take leadership
Paper ID #41936Board 304: Improving Engineering Mechanics Self-efficacy by Focusing onAbstracting the Physical World as a Precursor to AnalysisDr. Nigel Berkeley Kaye, Clemson University Professor of Civil EngineeringDr. Lisa Benson, Clemson University Lisa Benson is a Professor of Engineering and Science Education at Clemson University, and the past editor of the Journal of Engineering Education. Her research focuses on the interactions between student motivation and their learning experiences. Her projects include studies of student perceptions, beliefs and attitudes towards becoming engineers and scientists, and their
theintermediate concept maps would provide added data to potentially show (a) the value ofhaving multiple micromoments that can build off each other and (b) the importance of one typeof micromoment activity over another in terms of improving students’ technical knowledgeand their ability to apply that knowledge. Follow up mini projects that enable students to engagein hands-on design and/or testing would (a) enable students to make additional connectionsbetween the micromoment activities, concept mapping exercises, and, ultimately, the EMframework, and (b) further extend this work from a lecture-only class to a laboratory course ora capstone design course, depending on the activities undertaken following each micromomentand intermediate concept map
. FieldView provides extensive visualization and analysis capabilities. Students learn the software quickly with very little instruction. The online manuals and tutorials are easy to follow. 4. Since the software is seamless and easy to use, students use it in other courses (such as capstone design) and for extracurricular activities (such as the AIAA Design/Build/Fly project). Figure 3. FieldView window upon completion of Overflow calculation.Despite its apparent success, the package does have certain disadvantages. These include: 1. The Overflow source code is ITAR restricted and thus not universally available. The package that was installed on student-accessible machines consisted only of the