beyond ethical reasoning,engineering educators need fundamental knowledge about engineers’ moral formation. Toinvestigate engineers’ moral formation, the first author has begun a dissertation project that hasthree parts. The first part is a mixed-methods study of the influence of organizational culture onthe moral formation of practicing engineers. The second part is a similar mixed-methods study ofengineering students. The third part is an educational intervention whose content will be informedby the results of the first two parts. This work-in-progress paper describes the dissertation project,with specific details about the quantitative phase of the first mixed-methods study.IntroductionAccording to recent research, current engineering
Paper ID #243582018 ASEE Mid-Atlantic Section Spring Conference: Washington, District ofColumbia Apr 6Identifying Boolean Logic Processes via the Basis of a NACA 2415 AirfoilAlexander T Wray, Purdue University Northwest Alexander Wray is a Masters-seeking Mechanical Engineer enrolled at Purdue University North Central. He conducts research into dynamic system modelling and CFD modal systems for the purpose of mod- elling arduous or complex systems. As well, he presents and assists with teaching projects to classes in Solid Mechanics, Thermodynamics, and Fluid Mechanics in undergraduate courses.Prof. Nuri Zeytinoglu P.E., Purdue
, c. Provide academic, professional, and personal support for students through the vast network of alumnae/i and professional connections, d. Provide resources and support to engineering student organizations that support the mission of the school and promote the inclusion of minority groups in engineering. Currently, these groups include student chapters of the National Society of Black Engineers (NSBE), the Society of Hispanic Professional Engineers (SHPE), the Society of Women Engineers (SWE), the Association of Computing Machinery – Women’s Chapter (ACM-W), and Women in STEM. 2. Establish structured project and lab teams. Defining
theory and reflective practice. Projects supported by the National Science Foundation include exploring disciplines as cultures, liberatory maker spaces, and a RED grant to increase pathways in ECE for the professional formation of engineers.S Masters, Virginia Polytechnic Institute and State University S. Masters is a doctoral student and Graduate Research Assistant at Virginia Polytechnic Institute and State University. Masters received a B.S. in Mechanical Engineering from University of Delaware and is currently pursuing a Ph.D. in Engineering Education at Virginia Tech. Masters’ research interests include equity and social justice in engineering with particular attention to the experiences of women & LGBTQ
sections; and inappropriate/poor design projects. These problems were directlyaddressed as we developed the new course, as outlined below.Implementation of Design PracticumThe new freshman engineering design course, Design Practicum, is a 2 credit hands-on, team-based introduction to engineering design. The class meets once per week for three hours, withlecture the first hour, and lab the second two hours. Students are introduced to design via theinvention, fabrication and testing of a device that solves a problem proposed by a real client.These projects cover a variety of engineering disciplines including bioinstrumentation,biomechanics, mechanical, and civil and environmental. Lectures address information retrievaltechniques, specification
; Other S&T ≈ 30% Narrow ≈ 8% Current Fleet/Force Fleet/Force in Development Future Fleet/Force Portfolio is balanced across near, mid and long term S&T investments 6 Discovery & InventionDiscovery & Invention S&T is the essentialfoundation required for advanced technology• Focused on 5-20 years out• Basic Research and early Applied Research• All research maps to the Naval S&T Strategic Plan; the projects are the building blocks for
Compatibility & Coatings Research Lab • Materials Degradation Test Facility • Materials Test and Evaluation Laboratory • FLC representative: Phone: 9372555669 Email: Gregory.McGath@wpafb.af.mil 10 What’s possible in a partnership? • Equipment donations • Facilities usage (free or at negotiated rates) • Personnel exchanges (both directions) • Data exchanges • Thesis/dissertation committee participation • Events to encourage STEM enrollment 11 What’s possible in a partnership? Joint proposal submissions & project execution • Depends upon the terms of the Broad Agency
Compatibility & Coatings Research Lab • Materials Degradation Test Facility • Materials Test and Evaluation Laboratory • FLC representative: Phone: 9372555669 Email: Gregory.McGath@wpafb.af.mil 10 What’s possible in a partnership? • Equipment donations • Facilities usage (free or at negotiated rates) • Personnel exchanges (both directions) • Data exchanges • Thesis/dissertation committee participation • Events to encourage STEM enrollment 11 What’s possible in a partnership? Joint proposal submissions & project execution • Depends upon the terms of the Broad Agency
design courses [3]. The Milwaukee Schoolof Engineering BME program has traditionally followed the latter approach. The approach wasefficient, requiring no additional course credits, and it was effective in targeting mature studentswho had some appreciation for the importance of the topics. However, data collected fromstudents through surveys conducted in the design courses and at the time of graduation revealedseveral disadvantages of the approach, including: 1. Coverage of the topics was not always timely in its application to design projects, because projects progress at different paces. 2. Students struggled to remain attentive to lectures that focused on the background and theoretical application of these topics. 3
Engineers. She serves on the editorial board of the Bioelectromagnetics Society.Dr. Adam Kirn, University of Nevada, Reno Adam Kirn is an Assistant Professor of Engineering Education at University of Nevada, Reno. His re- search focuses on the interactions between engineering cultures, student motivation, and their learning experiences. His projects involve the study of student perceptions, beliefs and attitudes towards becoming engineers, their problem solving processes, and cultural fit. His education includes a B.S. in Biomedical Engineering from Rose-Hulman Institute of Technology, a M.S. in Bioengineering and Ph.D. in Engineer- ing and Science Education from Clemson University.Dr. Jennifer R Amos, University of
Motivation in STEM Using Culturally Relevant ContextsIntroductionThe purpose of this multi-year National Science Foundation (NSF) project is to design, implement,and evaluate integrated culturally relevant (CR) model-eliciting activities (MEAs) usingcommunity issues as the context for learning. To ensure cultural and career relevance the design ofthe CR MEAs is driven by societal challenges connected to community issues, to engageunderrepresented minority (URM) middle school students in CR MEAs that will develop theirlevel of community engagement, career exploration, STEM knowledge, and literacy. Teacherprofessional development was conducted to prepare teachers to utilize integrated CR MEAs in theirclassrooms as a context for learning.This project
Paper ID #23476Student Learning Trajectories from Making and Engineering ActivitiesDr. Micah Lande, Arizona State University Micah Lande, Ph.D. is an Assistant Professor in the Engineering and Manufacturing Engineering pro- grams and Tooker Professor at the Polytechnic School in the Ira A. Fulton Schools of Engineering at Arizona State University. He teaches human-centered engineering design, design thinking, and design innovation project courses. Dr. Lande researches how technical and non-technical people learn and apply design thinking and making processes to their work. He is interested in the intersection of
Compatibility & Coatings Research Lab • Materials Degradation Test Facility • Materials Test and Evaluation Laboratory • FLC representative: Phone: 9372555669 Email: Gregory.McGath@wpafb.af.mil 10 What’s possible in a partnership? • Equipment donations • Facilities usage (free or at negotiated rates) • Personnel exchanges (both directions) • Data exchanges • Thesis/dissertation committee participation • Events to encourage STEM enrollment 11 What’s possible in a partnership? Joint proposal submissions & project execution • Depends upon the terms of the Broad Agency
Session ETD 445 Industrial Collaboration to Develop an Energy Assessment Course Dr. David W. Goodman Indiana University-Purdue University Indianapolis (IUPUI)AbstractA new graduate course is addressing the growing demand for employees that can solveenergy-related problems, assess mechanical and electrical energy systems, and make abusiness case for implementing energy-related improvements. The course stresses hands-onapplication by using USDOE software, touring local industries, and performing onsite energyassessment projects. The course was developed in
Session ETD 455 Drone Use in the Construction Industry Leads to Integration into the Current Civil and Construction Engineering Technology Curriculum Joseph S. Sanson Youngstown State UniversityAbstract:The last few decades Unmanned Aerial Vehicle-systems (UAVs) or Drones have becomerelevant in the Construction and Engineering Industry. Drones are being used in the Constructionand Engineering industry in many aspects, such as project development, project management,construction surveying, construction safety, construction inspection
Session ETD 525 Improving Engineering Management Graduate Student Success through Advisory Board Partnerships Dr. Saeed D. Foroudastan, Carey Snowden Middle Tennessee State UniversityAbstractThe Engineering Management concentration of the Master of Science in Professional Science(MSPS) degree program at Middle Tennessee State University (MTSU) was designed to provideMiddle Tennessee’s booming manufacturing industry with skilled graduates trained both in bothengineering methodologies–including PMI Project Management, Six Sigma, and leanmanufacturing–and in business
2. Problem Statement and Supportbuild prototypes [4], or studying the cooling effects of crushed An initial value problem is selected for this activity.or solid ice [5], or other experiments. Numerical assignments A sphere is specified to have a given diameter and initialusing Excel are used [6]. Numerical and experimental projects temperature. It is subjected to constant convection cooling andare also presented [7] where ANSYS was used for the numerical cools to room temperature over time following a temperaturesimulations. The benefit of these activities are in enhancing the versus time chart similar to the one shown in Fig. 1.student’s understanding [8] or in repairing
members of the West Point Steel Bridge Team arefive undergraduate seniors working to design and build a enrolled in a fall and spring semester course designed tosteel bridge for the annual ASCE Steel Bridge Competition. provide them with an opportunity to apply and synthesizeThe purpose of our group’s research is to discover how their knowledge of structural engineering, constructionmultidisciplinary teams perform in academically management and engineering economics in an open-ended,competitive environments. This project provides a unique realistic, semester-long, capstone design experience. Theopportunity in the field of multidisciplinary collaborative remaining member, a junior, is only enrolled
, interdisciplinary experiments.Due to the evolutionary advances in computers, sensors, and actuators, the need exists to teachall engineers to use electronics, to program computers for real-time control, to design controlsystems, and then to integrate all into the design process. In countries like Japan and Koreadegrees are offered in mechatronics. Although this is not the intent at the moment, we should atleast introduce our students to the reality of the workplace. Even if mechanical engineersworking on a team project do not design the electrical components, they will at least be able tocommunicate with the electrical engineers effectively, and the electrical engineers will havesome knowledge of mechanical systems.Control systems are inherently multi
probability versus bit energy to noise power ratio. Trade-offs forthe different parameters such as intersymbol interference (ISI) which should be zero, andthe appropriate choice of pulse-code modulation (PCM) waveform type that is used forbaseband transmission to yield the performance metric can be effected to achieve thedesired result6. Page 12.871.4Educational ImplicationsThis project is planned to be a student project and students of Kwame NkrumahUniversity of Science and Technology (KNUST) will be involved in the project.Considering the different activities involved, the project in divided initially into threephases. The first phase will involve
and study guides such as Schaum’s Outline series,online tools such as MIT’s OpenCourseWare3, and archived online lectures. Online lectures arefrequently accessible only to enrolled students, but some schools provide complete archivedlectures free of charge, for example, the EECS 40 circuit analysis course at UC Berkeley4.However, students have limited time to devote to any particular class, and searching throughhours of archived lectures for the single needed example relevant to the problem at hand is notfeasible. A single “one-stop shopping” web-based repository of worked examples accompaniedby expert explanation would be a valuable resource.We have developed Project CLEO (Circuits Learned by Example Online) as a comprehensive
AC 2007-1342: BUILDING AS A POWER PLANT: MODELING AND SELECTIONOF A COMBINED HEAT AND POWER SYSTEM FOR AN ADVANCEDCOMMERCIAL BUILDINGBrendan Egan, Milwaukee School of EngineeringStephen Dechant, Milwaukee School of EngineeringChristopher Damm, Milwaukee School of Engineering Assistant Professor of Mechanical Engineering Page 12.330.1© American Society for Engineering Education, 2007 Building as a Power Plant: Modeling and Selection of a Combined Heat and Power System for an Advanced Commercial BuildingAbstractIn this Mechanical Engineering senior project, combined heat and power (CHP) systems wereevaluated based on their effectiveness in supplying the
changes and provide the most updated equipment forstudents and faculty. In order to start integrating cutting edge classroom technology, changes andupdates needed to be made. First, there were components that had to be integrated in the room tomaximize the program’s technological classroom with an updated laboratory facility and add anew addition of portable computer tablets would provide excellent instructional environment forthe students and faculty.The planning of this project incorporated the present needs while considering the maximumnumber of students for various classes and laboratories that may use the room in the future.Enhancing the traditional “lecture only” classroom environment included purchasing Tablet PCs.They were incorporated
challenge students at a timewhen they are particularly vulnerable to nonacademic distractions. LaPREP, which takesplace on the LSU-Shreveport campus seven weeks a summer over two consecutivesummers, emphasizes abstract reasoning, problem solving and technical writing skills,mainly through mathematics enrichment courses and seminars. Class assignments,laboratory projects and scheduled exams are integral parts of LaPREP. The faculty isdrawn from LSU-Shreveport and the local school system. Proceedings of the 2003 ASEE Gulf-Southwest Annual Conference The University of Texas at Arlington Copyright © 2003, American Society for Engineering EducationLaPREP targets bright students who
and streamlinedmanufacturing. It is a type of micro-controller with integrated design environment that includes bothcode-free and high level language programming modes in one package. This feature eliminates thenecessity for students to program micro-controllers and only keep their focus on the over all systemblocks. Students can start building their projects in a drag-and-drop visual design mode and thendepending on the complexity of their assigned projects they can move to the code-based design in Clanguage to customize their projects. These features of PSoC allow one to future-proof theirproducts by enabling firm-ware based changes during design, validation, production and in thefield which in turn shortens the design cycle time. A single
for I/O.2.3 Laboratory ExercisesIn companion with the lecture, there is a three-hour weekly laboratory section for this course inwhich students will gain hands-on experience with various operating system topics discussed inthe lecture class. Other than having students do kernel development projects [2] or examine OSperformance on a virtual simulator [3], we created lab assignments allowing students to focus onapplication development projects by efficiently using OS resources. Most of these labs areperformed in UNIX and Windows XP environments. The following eight lab exercises wedeveloped for this course are as follows. A. Lab one is have students be familiar with UNIX operating system, and get hands-on experience with UNIX system
AC 2009-967: THE DEVELOPMENT OF USER-FRIENDLY INFORMATIONRESOURCES IN RAPID PROTOTYPINGIsmail Fidan, Tennessee Tech University Ismail Fidan is a Professor of Manufacturing and Industrial Technology at Tennessee Tech University. His teaching and research interests are in the field of rapid prototyping, electronics manufacturing, CAD/CAM and engineering education.Geoff Bennett, Tennessee Tech University Geoff Bennett is a Research Assistant of the Center for Energy Systems Research at Tennessee Tech University. He works as a webmaster for the Rapid Prototyping Instructional Delivery Support Project
Page 1.58.1 .-z .. ~figti~ 1996 ASEE Annual Conference Proceedings ‘.,+,yyy%,:laboratory setups should be versatile and flexible to allow students toexplore their ideas and thoughts. Second, the method of learning shouldrel~ primarily on personal discovery and synthesis. Third~ laboratoryactivity should emphasize students’ active participation throughout theentire process. Finally, the laboratory experience should include a designcomponent to enhance creative application of knowledge. The active learning environment is implemented through two phases,namely, inquiry-based learning and project-based learning. These two phasesare designed to provide students opportunities for
cross-listing .wit~w Performance Computing. 400-level courses are senior level courses and the 500-leveldesignation denotes graduate courses.AERSP/HPCOM 497B, 597GThis course has been taught in a new technology classroom using the latest IBM RS/6000 UNIXworkstation and high quality projection equipment. The most recent offering of this course is in newUNIX based classroom established with support from IBM under the Selected University Research(SUR) program. The configuration of these classrooms is described below. A massively parallel CM-5(at NCSA) and a 62-node IBM SP2 (at Penn State) are integral parts of the course. Numerousprogramming
. Unfortunately, this course is not integrated withthe remainder of the curriculum. For instance, after taking this course, an EE or ME major rarely sees thetools employed in a sequel course within his major. This issue has been addressed by a multi-university project funded by the National ScienceFoundation [1]. Tasks accomplished by this coalition during the period 1991 - 1992 include thefollowing: (i) Integration of economic principles in a Thermosystems Design Analysis course, (ii)Development of a economic design simulator for estimating cost to manufacture for various thermalcomponents, (iii) Development of case studies focusing on economic principles in design, and (iv)Development of course materials for a course entitled Economics of