. Some studies have shown out-of-class activities were shown to have apositive positive influence on student academic success. These positive activities range fromliving in a residence hall, academic clubs and faculty-related research projects. Other out-of-classactivities, such as athletics, full-time work and involvement in social Greek life may havenegative outcomes on student success 8,9.More recently, research has been conducted specifically on engineering students factors forparticipation in co-curricular and extra-curricular activities as well as positive and negativestudent outcomes 5,6,9. Lack of time is the top cited factor that prevents students participating inco-curricular activities, followed by cost and lack of knowledge about co
Emulator20. Figure 7 – Results for Open Loop, Auto, and Manual Tuning Using Do-more PLC EmulatorPlanned Implementation of the Do-more PLC Emulator Software within the MechanicalEngineering Controls CurriculumThis section of the paper details how this software will be embedded into the course structureand how the software will be used in online classes. The paper presented herein is the outline ofthe framework for use of the Do-more PLC as was the subject of a senior project and a casestudy for how to realize on-line teaching resources for teaching Industrial Controls. The Do-morePLC PID tuning on-line base experiential learning presented herein is planned to be incorporatedinto a semester based technical elective ME 4990/L “Industrial Controls
Developing an Innovative Mobile and Wireless Networks Course Hetal Jasani Assistant Professor School of Technology Michigan Technological UniversityAbstractAll over the world, mobile and wireless courses become increasingly popular in colleges(including community colleges) and universities. This paper discusses about developing theinnovative course of mobile and wireless networks using laboratory activities. It elaboratesinnovative projects that are suitable for laboratory work in network engineering (includingtechnology) curriculum. It explores both hardware and software components that are
AN INTERNATIONAL PROGRAM IN RAILROAD ENGINEERING Pasi T. Lautala and William J. Sproule Department of Civil and Environmental Engineering Michigan Technological UniversityIntroductionThe railroad industry has identified a need for engineers as many will be retiring over thenext few years and freight traffic is projected to increase. The challenge for railroads isfinding engineers when careers in railroad engineering have been forgotten on mostuniversity campuses. Michigan Tech University saw a unique opportunity for a six-creditsummer program that includes an introductory course in railroad engineering, a course ina foreign language and culture, and a study abroad component
sequence are briefly described.NDSU ECE ENGR 780Course DetailsThe present offering is a 3-credit class, offered alternate fall semesters. The course format has beentraditional lectures, supplemented with in-class or in-lab computer demonstrations. The main text hasbeen Numerical Techniques in Electromagnetics, (2nd Ed.), by M.N.O. Sadiku, (CRC Press, 2001),but material is taken from a variety of sources. There are typically 5 to 7 extensive homeworkassignments (which often include writing computer code to solve a given problem), one “paperproject” and one “computer project”. In the “paper project” students are asked to select, read, andwrite a report on a recent journal article dealing with computational electromagnetics. These aretypically
. Notably, inthis project, the self-imposed podcast display constraint was a student watching anepisode on a video iPod. As such, considerable design effort was required for the slides(in this case Keynote was used, but Powerpoint would be similarly constrained). Someimportant design findings include:• Minimum font size: 72 point• Minimum line thickness (for figures): 10 points• Maximum lines of text: 4• Photos: simple, close-ups only Proceedings of the 2007 ASEE North Midwest Sectional Conference.• Diagrams/graphs/schematics: simple, conceptual onlyAdditionally, high contrast and simple background/text designs work best. For mostepisodes created in this project, past class slides were re-designed according to thesedesign rules
fear- and incentive-based controlmechanisms to achieve desired educational goals and outcomes. These control mechanisms canachieve results but may also undermine classroom cohesion, encourage an adversarialatmosphere, and be less effective than alternate approaches such as those based on leadershiptraining and research. This paper reconsiders engineering education through a leadershipperspective where teachers voluntarily relinquish control, seek influence over authority, nurturecooperation over compliance, pursue projects and activities in partnership rather than inisolation, and work to establish an environment of mutual trust. These characteristics ofleadership-based education are highly compatible with many current trends in
York Institute of Technology. Subsequently, Professor LoPiccolo earned a Postgraduate Diploma in Building Construction Management from New York University and Passive House Designer Certification from the Passivhaus Institut, Germany. She has private sector architecture and construction project management experience in both Dublin, Ireland and New York, and she has over 10 years of public sector experience as an architect and a Community Development Project Supervisor with the Town of Islip. In addition, Professor LoPiccolo was an adjunct assistant professor in the School of Architecture and Design at NYIT for five years. She is an active member of numerous on and off campus committees including: FEC (chair), ASC
stipulates: Student Outcome:5. An ability to understand ethical and professional responsibilities and the impact of technical and/orscientific solutions in global, economic, environmental, and societal contexts. 6. An ability to functioneffectively on teams that establish goals, plan tasks, meet deadlines, and analyze risk and uncertainty. Theobjective of this project is to develop new and refine available tools for assessing some of the soft skillsthat would fulfill ANSAC requirements. It is expected to finalize a set of tools, as outcomes, and havethem tested in the classrooms by the end of the project.Introduction and BackgroundConstruction is an interconnected process. The construction engineers and managers work cooperativelywith many
(1)which indicates that whatever energy is not reflected (S11) is transmitted through the filter (S21). Studenta told to plot both sets of curves to illustrate this effect and to also note that the two curves cross at the –3dB point, indicating one-half of the power is reflected and transmitted.Figure 4. a) Fabricated microstrip board for 20 MHz filter; b) comparison of measurements and simulations [5].The culminating design project for the course is to design, simulate, fabricate, and measure amicrostrip transmission line filter (no lumped elements) for use at 700 MHz, which is in thefrequency range of Bands 12, 13 and 17 in the United States use for LTE cellular operations.Students are assigned one of the following filter types for the
, D. B., Ro, H. K. & Novoselich, B. J., “Supporting the development ofEngineers’ interdisciplinary competence”, Journal of Engineering Education, 106, 71-97.Lehmann, M., P. Christensen, X. Du, and M. Thrane, "Problem- orientated and project-basedlearning (POPBL) as an innovative learning strategy for sustainable development in engineeringeducation", European Journal of Engineering Education, Vol. 33, No. 3, June 2008, 283-295.Klein, J.T., Interdisciplinarity: History, Theory, and Practice, Detroit, Mich: Wayne StateUniversity Press, 1990.Krippendorff. K., Content analysis: an introduction to its methodology, 2 ed., Sage Publications,Inc., 2004.Mahmud, M. N., Interdisciplinary Learning in Engineering Practice: An Exploratory Multi
and was also afforded the opportunity to lead an impactul Project Lead the Way (PLTW) Principles of Engineering (PoE) course which is a project-based learning survey of the engineering discipline. Since the Summer of 2015 I have been privileged to work with the Texas A and M Sketch Recognition Lab (TAMU SRL) to evaluate a couple of online tutorial tools (Intelligent Tutoring Systems (ITS)) cur- rently under development, Mechanix and Sketchtivity, that provide immediate constructive feedback to the students and student-level metrics to the instructors. I presented on this work at the state and national PLTW Conventions and at CPTTE in 2016. I also spent 5 semesters beginning the Fall of 2015 taking online
also afforded the opportunity to lead an impactul Project Lead the Way (PLTW) Principles of Engineering (PoE) course which is a project-based learning survey of the engineering discipline. Since the Summer of 2015 I have been privileged to work with the Texas A&M Sketch Recognition Lab (TAMU SRL) to evaluate a couple of online tutorial tools (Intelligent Tutoring Systems (ITS)) currently under development, Mechanix and Sketchtivity, that provide immediate constructive feedback to the stu- dents and student-level metrics to the instructors. I presented on this work at the state and national PLTW Conventions and at CPTTE in 2016. I also spent 5 semesters beginning the Fall of 2015 taking online courses
. The heat transfercourse is delivered in an asynchronous modality. The heat transfer book by Bergman et el. [5] is usedfor the class and learning modules are developed to cover the contents of the course with reference tothe book. Each module includes a series of short lectures in the form of voice over PowerPoint,followed by hand derivations that are recorded using a document camera [6]. Calculations are alsoperformed in spreadsheets and delivered as voice over live screen capture. ANSYS-Fluent is used forthe class project, which is an extension of a previous version of the project (Fadda [7]). A learningmodule is developed for teaching the basics of this software using voice over live screen capture. Thescreen recording software, Camtasia [8
thecomplete network. When finished, the total number of completed activities will automatically bedetermined allowing the instructor is able to provide proper feedback to students.Riverbed Modeler is a simulation tool that is built on C++ programs for implementing andmodeling computer networks. It is comprised of a suite of protocols and technologies andfeatures three hierarchical modeling abstraction editors (project, node, and process) to supportdifferent development levels. In the perspective of wireless network functionality, RiverbedModeler delivers Wireless Local Networks (WLAN) based on IEEE 802.11 and ZigBee based onIEEE 802.15.4. After installation, it equips with examples of WLAN and Zigbee that comprisedifferent scenarios. The examples not
, and Production Economics. He has been a principal investigator in sponsored projects from the National Science Foundation, the National Security Agency, the US Department of Labor, and Venture Well. Dr. Konak currently teaches courses on Database Management Systems, Cybersecurity, Agent Based Modelling, and Entrepreneurship. He is a member of IISE, INFORMS, and IEEE. c American Society for Engineering Education, 2017Fostering Interest and Knowledge in the Information Security Industry for K- 12 Students Using Virtual Machines Ethan Adams, Patrick Scanlon, Joseph Torres, Emilio Gonzales, Tricia Clark, Abdullah Konak Penn State
American Society for Engineering Education, 2017 The Development of a Sustainable Technology for 3D Printing Using Recycled Materials Jason Lehrer1 and Dr. Marietta Scanlon1 1 Division of Engineering, Penn State BerksAbstractAs part of an undergraduate research project, a study was undertaken to determine the feasibilityof extruding recyclable plastic into usable filament to create a sustainable technology for 3-Dprinting. An extrusion process was developed using Polyethylene Terephthalate Glycol (PETG)pellets to establish a baseline that would be used when investigating recyclable plastics.Modifications were done to allow for higher temperature extrusion to accommodate the
CUNY.Prof. Tak Cheung, CUNY Queensborough Community College Tak Cheung, Ph.D., professor of physics, teaches in CUNY Queensborough Community College. He also conducts research and mentors student research projects. c American Society for Engineering Education, 2018 Improving critical thinking through the cognitive loading control of working memory in introductory physics class Vazgen Shekoyan, Sunil Dehipawala, George Tremberger, Raul Armendariz, David Lieberman and Tak Cheung CUNY Queensborough Community College Bayside NY 11364 USAAbstractThe critical thinking process in physics problem solving has been observed to relate to workingmemory
University of Rhode Island with research work done at Rhode Island Hospital. Previously, he was an assistant di- rector at Massachusetts General Hospital (a teaching affiliate of Harvard Medical School) in Boston. He has also held faculty appointments in Illinois, Miami and Singapore. At NTU in Singapore, he was the founding director of the BME Research Center and the founding head of the Bioengineering division. He was the Principal Investigator for several Biomedical Engineering projects. He also worked in R&D at Coulter Electronics in Miami and in hospital design and operations management at Bechtel for healthcare megaprojects. He has served in the National Medical Research Council in Singapore. His research in
Paper ID #242602018 CoNECD - The Collaborative Network for Engineering and ComputingDiversity Conference: Crystal City, Virginia Apr 29First-Year Experience (FYrE@ECST): Pre-Physics Course (WIP)Ni Li, California State University Los AngelesDr. Gustavo B Menezes, California State University, Los Angeles Menezes is an Associate Professor in Civil Engineering Department at CalStateLA. His specialization is in Environmental and Water Resources Engineering. Since becoming part of the faculty in 2009, Menezes has also focused on improving student success and has led a number of engineering education projects. He is currently the PI
various field in engineering for over 30 years. Aimee received her degrees in Mechanical Engineering and Masters in Business Administration from Ohio State. She began her career as a packaging equipment engineer at Procter and Gamble, then moved to Anheuser-Busch where she worked for over 27 years. She worked as project manager, engineering manager, utility manager, maintenance manager, and finally as the Resident Engineer managing all technical areas of the facility. During her tenure, the brewery saw dramatic increases in productivity improvement, increased use of automation systems, and significant cost reductions in all areas including utilities where they received the internal award for having the best utility
through a CAR-based mentoring program is now being investigated.The CAR involved is staffed by full-time non-faculty scientists and engineers researching topicalsubjects. Students involved in the CAR research projects have access to ancillary services,facilities and support staff. Besides gaining laboratory experience, students working at the CARreceive credit towards a degree and/or compensation. In addition, students gain authorship injournal articles, attend scientific conferences to present their results, and participate in a numberof outreach efforts. The CAR offers student researchers a supportive environment, as studentsexperience a sense of permanence and community in the organization.Goals of CAR-based mentoring: The CAR-based mentoring
engineering global preparedness and engineering innovation. She also has research expertise in STEM K-12 and in STEM assessment. She chairs USC’s STEM Consortium.Dr. Cheryl Matherly, Lehigh UniversityDr. Lisa Benson, Clemson University Lisa Benson is a Professor of Engineering and Science Education at Clemson University, with a joint appointment in Bioengineering. Her research focuses on the interactions between student motivation and their learning experiences. Her projects involve the study of student perceptions, beliefs and attitudes towards becoming engineers and scientists, and their problem solving processes. Other projects in the Benson group include effects of student-centered active learning, self-regulated
of final year), although no formal credential is offered atthis point. Details of this program are available elsewhere [Morgan & Lindsay, 2015]. For thepurposes of this paper, it is sufficient to note that the program relies heavily on Project BasedLearning and Work Integrated Learning.Engineering Integrated Standards and the CSU Engineering Course Design ProcessThe goal of the CSU course design process is to ensure that students receive integrated,coherent learning experiences that contribute towards their personal, academic andprofessional learning and development. Course design begins with selecting a course teamthat includes Course Directors, academic staff and Educational Designers to ensure anappropriate range of disciplinary
mentoringprimarily suited to only one of their multiple hats. Given their limited resources, this is also aconcern for formal faculty development programs. In this section, we will show how the primaryskill sets from Arreola et al.'s "Meta-Profession" project [12] are orthogonal to and illustratesome of the available sources of faculty mentoring and faculty development programs across themultiple hats faculty wear. Part of our choice of the Meta-Profession project is rooted in itsorigins: the concept grew out of the need to define the role of teaching in a comprehensivefaculty evaluation program [13]. As such, the skills sets described below are formed for use asmentoring/development prompts, a part of faculty evaluation, and a means to supporting
support teams to transition the concepts into the marketplace (NSF, I-Corps, 2012).I-Corps Sites share the principles of the I-Corps Curriculum and the teams at each site aremodeled after the composition of I-Corps Teams (NSF, I-Corps, 2012). Start-ups founded byparticipants are the main vehicle for commercialization activities, and the projects will beprepared for business formation.NSF recognizes that the transitioning of technologies out of an academic laboratory requires skillsets and knowledge that differ from those necessary for basic research. NSF’s I-Corps programwill develop entrepreneurial skills and knowledge in the new generation of scientists andengineers. An innovative ecosystem will develop if NSF’s past, current, and future
Paper ID #18049Work in progress: First-Year Students’ Definitions of Engineering PracticeMrs. Teresa Lee Tinnell, University of Louisville Terri Tinnell is a Curriculum and Instruction PhD student and Graduate Research Assistant for the Speed School of Engineering and College of Education and Human Development at the University of Louisville. She received a Bachelors in Mathematics and Physics and Masters in Teaching STEM education from the University of Louisville. She is a prior Project Lead the Way Master Teacher and Secondary Educa- tion Engineering Instructor, leading the creation of two engineering programs for
Industrial Engineers (IIE). She is currently the chair-elect of American Society for Engineering Education (ASEE) Mid-Atlantic Section. She has been a principle investigator in sponsored projects from National Science Foundation (NSF) and Venture Well. sadan@psu.edu. c American Society for Engineering Education, 2017 What Affects Engineering Students’ Global Competency? Trent Williams, Kyle Shuman, and Sadan Kulturel-Konak Penn State Berks AbstractThe world is more globalized today than it has ever been before, and globalization continues tobe at the heart of business around the world. This trend
Great Pyramid of Giza, the only remaining wonder of theseven wonders of the ancient world is still standing in Egypt in good shape after thousands ofyears of being exposed to the elements. Egypt has also a remarkable array of modern wondersincluding the largest earth dam in the world, the Suez Canal that connects the Mediterranean andRed Seas, subways, roads, bridges, tunnels, and huge energy generation facilities, water storage,massive irrigation, and giant land reclamation projects. Faced with an explosion of populationincrease, the effort of upgrading existing infrastructure and constructing a new one for the manynew cities presently under construction is unparallel. Furthermore, for its beautiful nature, mildweather, endless sand beaches
elementary,middle and high school levels. Thanks to strong support from the industrial sector, Texas A&MUniversity at Qatar has been successful in executing an array of outreach initiatives for studentsin grades 5–12. In particular, programs for students in grades 7–12 highlight the role ofengineering toward Qatar’s grand challenges, and integrated, problem-based learning is at thecenter of projects and activities designed to educate, enrich and stimulate young minds towardSTEM studies and careers, especially in areas of Qatar’s greatest need and demand.Literature ReviewRecent research indicates that an experience with STEM learning on a university campus can bea “decision point” for prospective STEM students. A study conducted in Norway found