Course for Engineering StudentsAbstractFor Spring 2011, a senior-level robotics course (first taught in Spring 2010) had been revisedaccording to principles for “Smart Teaching” described in the book “How Learning Works”.Homework, laboratory sessions and anchor projects had been redesigned to provide betterscaffolding for students with 2 different but complementary engineering backgrounds, and alsofor a better flow towards the theme of humanoid robotics. The e-portfolio tool EMMA wasintegrated into this course as a collaboration and feedback tool between instructor and students tohelp improve student algorithm development work, but EMMA was not found to be responsiveenough nor useful for this kind of use.IntroductionIn the Summer 2010, the
leveraged in such a way that the students produce, as a final project, anengaging, interactive demonstration of a basic ECE concept; many of thesedemonstrations have already found their way into the classroom in other courses. Theresult is a course with dual, complementary goals: teaching Java-based programmingconcepts and developing computer-enhanced educational courseware.I. MotivationEngineering topics, especially those in Electrical and Computer Engineering, are oftentaught by first presenting the underlying equations and then, by exploring thoseequations, revealing the topic’s fundamental principles. This approach, while common,has the unfortunate effect of postponing intuitive understanding of the topic until wellinto the process, when the
submitted a proposal in the Spring of 1996. We were selected as oneof the top 30 teams to compete in Sunrayce 97. The solar car project gave our students aunique learning experience in areas such as Engineering Mechanics, Machine Design andcomposite fabrication. It also provided an opportunity to apply their theoreticalknowledge to practical situations, gain hands-on experience, and at the same time, getcredit for their work. The project has been a great success and we are looking forward tocompeting in the race in June, 97. Introduction Middle Tennessee State University (MTSU) is located in Murfreesboro, about30 miles to the south of Nashville. MTSU, which was founded in 1911, is the fastestgrowing
AC 2010-2310: EMPHASIZING MULTIDISCIPLINARY TEAMWORK ANDENHANCING COMMUNICATION SKILLS THROUGH DEVELOPMENT OF ACONCEPTUAL BUSINESS PLANMohamad Ahmadian, Eastern New Mexico University Mohamad H. Ahmadian, Eastern New Mexico University Mohamad H. Ahmadian is a professor of Electronics Engineering Technology at Eastern New Mexico University. He also serves as ABET/TAC program evaluator for electronics and computer engineering technology programs. He received his B.S., M.S., and Ph.D. in Electrical Engineering from the University of Missouri-Columbia. Before starting Ph.D. work, he worked three years as a project engineer.Tom Brown, Eastern New Mexico University Tom Brown, Eastern New Mexico University Tom
Natascha Trellinger Buswell is an associate professor of teaching in the department of mechanical and aerospace engineering at the University of California, Irvine. She earned her B.S. in aerospace engineering at Syracuse University and her Ph.D. in engineering education at Purdue University. She is particularly interested in inclusive teaching conceptions and methods and graduate level engineering education.Jacqueline L. Huynh, University of California, Irvine ©American Society for Engineering Education, 2024 Preparing the Future Aircraft Design Workforce: Filling Knowledge Gaps Using Engineering Design ToolsAbstractUpholding the current and projected growth in the aerospace industry
motivation, computer programming pedagogy, and faculty pedagogical development.Dr. Ashley Joyce Mont, Rutgers, The State University of New Jersey Dr. Ashley Joyce Mont is an Assistant Teaching Professor in the Office of Undergraduate Education in the School of Engineering at Rutgers University. She received her BS in Biomedical Engineering from Rutgers University and her PhD in Biomedical Engineering from the New Jersey Institute of Technology. Dr. Mont teaches first-year engineering courses that emphasize data-driven design, computational thinking, and technical communication. She assisted with the course development of a two-course sequence for first-year students centered on hands-on projects, MATLAB programming, 3D
linear or sequential processfollowing basic research as portrayed in 1945. Rather, creative engineering projects in industryfrequently drive the need for directed strategic research efforts at universities when necessary oranticipated in order to gain a better understanding of the natural phenomena involved.New technology is brought about by a very purposeful and systematic practice of engineeringinvolving the deliberate recognition of meaningful human needs and the deliberate engineeringcreation of new ideas and concepts to effectively meet these needs though responsible leadership.Engineering practice and its resulting outcome technology have been redefined for the 21stcentury.1 Engineering must no longer be misconstrued as “applied science
awareness of each other’s thinking and shareddecision making associated with their design process and final reporting. What an effective teamneeds are executive skills for managing a design process that transitions their ideas into a plan,research, build, test and refine cycle. Project management tools can support the processes ifteam leaders know how to track and facilitate the process. One of the goals of this first yearengineering course is to develop these skills in the team members so they can effectively usethem for future design activities like senior design and multidisciplinary projects in industry. In this paper, we present results from a qualitative analysis of student responses to open-ended questions designed to elicit their
groups and providing learning opportunities to those whomay otherwise be overlooked.Although we have been working toward these goals for some time, our department has beenparticularly active in these endeavors over the last year. We are currently participating in aNational Science Foundation funded program titled Transforming Engineering Culture toAdvance Inclusion and Diversity (TECAID), to implement and investigate culturaltransformation projects in mechanical engineering departments. We believe our faculty, staff,and students can benefit from increased awareness of and empathy for others, and we believethat participating in this program will help us achieve our desired atmosphere of inclusion. In thispaper, we will present our efforts in
the students’enrollment, number of students dropping the courses, students’ satisfaction with their courses, andtheir access to the laboratories, machine shop, and technology resources. Students were surveyed atthe end of each course. Problem-based and project-based courses from third and fourth-yearengineering are selected for this study. Courses include select junior and senior level courses andcapstone senior design from the mechanical, civil/environmental, and electrical engineering programs.The pandemic situation with its challenges has provided the faculty with a unique opportunity to learnbest practices in promoting students learning and engagement in such situations.Keywords: COVID-19; face-to-face, hyflex, and online instruction
pedagogy in introductory engineering [3], design skilldevelopment in courses between introductory cornerstone and final capstone [4], and even uniteclinical and engineering students [5]. Some universities are exploring the best ways toencourage faculty to incorporate makerspaces in their curricula. This may take as simple a formas pop-up “inreach/outreach” demonstrations that expose faculty and staff to makerspaceequipment [6]. For those seeking a higher intensity experience, B-Fab, a fabrication workshoporganized by Bucknell University, trains faculty to use equipment often found in a makerspacewhile exposing them to related pedagogical theory and example makerspace STEM projects [7].Carnasciali and coauthors surveyed faculty given three
) [12],Problem-Based Learning (PBL) [13], Project-Based Learning (ProjBL) [14] and Game-BasedLearning (GBL) [15] have gained more prominence and national recognition in higher education.One of the successful evidence-based designs for teaching science and engineering courses is theProblem-Based Learning (PBL). PBL is a pedagogical model in which students are the centerof the learning process. Students become the active learner who connect domain knowledge toreal-world challenging problems, and work collaboratively toward their solutions. The instructorprovides resources and mentorship to students on how to tackle the problem, not the solutiondirectly. The major advantages of PBL include deepening students’ critical thinking, stimulatingstudents
taught in a semester double-period blockschedule.Standards & Guiding Principles: • Next Generation Science Standards • Career and Technical Standards • National Research Council’s Framework for K-12 Science Education, Practices, Crosscutting Concepts, and Core Ideas • Common Core Math and English Language Arts StandardsActivities/Tutorials: Activities/tutorials are methods by which students are provided with the“just in time” knowledge, procedures and/or skills that are required to complete a project orproblem. The concept of just in time means that the activity/tutorial is provided right when thestudent needs it; the optimal teaching and learning moment. An activity/tutorial is a means to anend, not an end in itself. Properly
examples of how data analytics has beenapplied in the field of mechanical engineering. The course content arrangement is based on the dataanalytics lifecycle: problem discovery – data understanding – data preparation – data visualization –model building – conclusion/decision making. Statistical concepts related to each stage are introducedto the students along with the corresponding programming basics in R-studio. Parallelly, the semester-long project is assigned to the student groups from the first day of lecture. Each group is required toselect a real-world dataset and complete the data analysis using data cleaning, data preparation, datavisualization, regressions, and several machine learning algorithms. To help the student bettercomplete the
contributions in developing hybrid 3D bioprinting process, antimicrobial implantable devices, lab-on-a-chip, and fouling- resistant water filtration systems. He is also leading a cross-institutional education project at TTU focusing on transformative pedagogical strategies for biomedical innovation to catalyze the interdisciplinary col- laboration between engineering students and medical students. To date, Dr. Tan has published over 50 refereed research papers and 2 book chapters. He has secured over $1.2 million in federal grants including the NSF CAREER Award. He is the faculty advisor of the IISE student chapter at TTU.Sampa HalderDr. Luke LeFebvre, University of Kentucky Luke LeFebvre (PhD, Wayne State University, 2010
Sustainable Energy Research Group at ISU. Dr. Jo is an honors graduate of PuAllison Antink-Meyer, Illinois State University Allison Antink-Meyer is a pre-college science and engineering educator at Illinois State University.Dr. Matthew Aldeman, Illinois State University Matt Aldeman is an Associate Professor of Technology at Illinois State University, where he teaches in the Renewable Energy and Engineering Technology programs. Matt joined the Technology department faculty after working at the Illinois State University Center for Renewable Energy for over five years. Previously, he worked at General Electric as a wind site manager at the Grand Ridge and Rail Splitter wind projects. Matt’s experience also includes service
skills needed for responding innovatively and responsibly to today’s challenges. Her technical background in electrical and com- puter engineering and experience in industry coupled with her teaching experience in computing and human-centered design have informed her scholarship, which centers on advancing how engineers design concepts and products that are both innovative and aligned to actual needs through empathic formation.Alissa Burkholder Murphy, Johns Hopkins University Prof. Alissa Burkholder Murphy: Alissa is the founder and director of the Multidisciplinary Design Pro- gram at Johns Hopkins, where engineering students from various disciplines collaborate to tackle design challenges with project partners in
circuits from scratch throughprototyping, soldering surface mount electronic components, testing and troubleshooting, calibration andanalyzing error in measurement and propagation of uncertainty. In addition, students will utilize dataacquisition and analog to digital conversion techniques with Arduino microcontrollers and custom shieldsto read and save data collected during the trip to an SD card. Among many other skills, students will learnand practice teamwork skills, project management, planning, cost analysis, risk management, failureanalysis, project documentation, as well as professional reporting and presentation. Along with theselearning outcomes, students will analyze the collected data and compare results to theoretical values,when
is the ESP8266 Wi-Fimodule, which implements the IEEE 802.11 family of protocols. These devices are inexpensive andsuitable for embedded applications in a wireless communications systems course. The CommunityEdition of PyCharm is available for free and can be used as the software development environment.The goal of this paper is to introduce a series of labs, utilizing the Digi XBee3 module, that can beused within a variety of courses, including a wireless communications systems course. Possibletopics for lab projects include: network connectivity, analog-to-digital conversion, sensor datacollection, pulse-width modulation (PWM), digital input/output, Universal AsynchronousReceiver/Transmitter (UART) communication, and inter-integrated
has been achieved in successfully chairing ten or more graduate student culminating projects, theses, or dissertations, in 2011 and 2005. He was also nominated for 2004 UNI Book and Supply Outstanding Teaching Award, March 2004, and nominated for 2006, and 2007 Russ Nielson Service Awards, UNI. Dr. Pecen is an Engineering Tech- nology Editor of American Journal of Undergraduate Research (AJUR). He has been serving as a re- viewer on the IEEE Transactions on Electronics Packaging Manufacturing since 2001. Dr. Pecen has served on ASEE Engineering Technology Division (ETD) in Annual ASEE Conferences as a reviewer, session moderator, and co-moderator since 2002. He served as a Chair-Elect on ASEE ECC Division in
Paper ID #30487WIP: A One-Page Ethical Checklist for EngineersDr. Elizabeth A. DeBartolo, Rochester Institute of Technology (COE) Elizabeth A. DeBartolo, PhD is the Director of the Multidisciplinary Senior Design Program at the Rochester Institute of Technology, where students from Biomedical, Computer, Electrical, Industrial, and Mechanical Engineering work together on multidisciplinary teams to complete their 2-semester design and build capstone projects. She received her graduate degree in Mechanical Engineering from Purdue University and has worked at RIT since 2000.Prof. Wade L. Robison, Rochester Institute of
machine that employsone or more methods of destroying or disabling their robot competitor. This robot isremotely controlled with an RF device and has been designed to meet all of thespecifications and requirements of the combat robot event, as outlined in thecompetition manual. For Phase I of the design project, the team has researched pastevents and the contest manual to come up with the most important constraints anddesign decisions for the project. For Phase II, the team has proposed three preliminaryconceptual designs and has chosen which design to develop further, analyzing thestrengths and weaknesses of design alternatives. The next phase, Phase III includedfabrication, testing, and optimization of multiple subsystems, like the
to use several entrepreneurial mindset concepts withengineering design principles in order to come up with our new product calledGreenAuto. The idea behind this project was to create a system that receives a feed ofdata from people’s cars which will be turned into feedback to drivers so they can drivemore efficiently. In turn, this will allow them to save money on gas, drive more safely,and be more environmentally friendly. We were able to build on this by going throughthe customer discovery process. We conducted about 40 interviews with potentialcustomers. We created customer segments based off of these interviews anddeveloped a minimum viable product (MVP). We took everything we learned from thediscovery phase to in designing our product
Finding course - a Junior level course, which incorporates service learning initiatives toidentify relevant problems suitable for engineering solutions which can then be pursued in theSenior Design course.The Clinical Observations course introduces students to the technical, professional, and ethicalresponsibilities of a biomedical engineer in the context of engineering product design anddevelopment. Students engage in team-based projects that they identify after completing clinicalrotations in local medical facilities, clinics or hospitals. In the course of these projects, studentsengage the full scope of the engineering design process, with particular attention to clinical needsfinding, problem definition, and preliminary design. Issues related
Paper ID #19183MAKER: Vehicle Unlocking SystemDr. Hugh Jack P.E., Western Carolina University Dr. Jack is not the author. The abstract has been submitted on behalf of Mrinal D.Kawale, Neha D.Sharma - MACS College, Pune, India. c American Society for Engineering Education, 2017 Vehicle Unlocking SystemAuthorsMrinal D.Kawale, Neha D.SharmaMACS College, Pune, IndiaAbstract In vehicle unlocking system project, we have implemented a new level of security forvehicles based on biometric identification using fingerprint scanner. Whenever a person givesa fingerprint, the
the different ways in orderto protect them. Security is primary concern everywhere and for everyone. This project describesthe designing of an electronic gadget for the security of Tirumala pilgrims using Arduinomicrocontroller. This is a simple and useful security system. Gadget is tied up with a set ofsmart sensors like PIR sensor and Pulse rate sensor. A PIR sensor is interfaced to the controllerto detect the presence of an animal in the forest area and immediately the gadget will send amessage to the security team by using GSM technology and also a buzzer alert is given tosecurity team and other people about the presence of an animal. A Pulse rate sensor is alsopresent in the gadget to find the increase in pulse rate and inform the family
Paper ID #19190MAKER: Team UAV QuadcoptersDr. Hugh Jack P.E., Western Carolina University Dr. Jack is not the author. This abstract has been submitted on behalf of Rishav Roy Chowdhury, Sachin Vidyasagaran, Ritin Raveendran, Pulkit Khemka - VIT University, Vellore, India. c American Society for Engineering Education, 2017 Team UAV QuadcoptersAuthorsRishav Roy Chowdhury, Sachin Vidyasagaran, Ritin Raveendran, Pulkit KhemkaVIT University, Vellore, IndiaAbstractThe main aim of the project is to build a quadcopter which can autonomously performfunctions such as surveying, aerial
computer simulations in this class in a team-baseddesign approach. Past work has shown that incorporating team-based design projects into first-year engineering courses is beneficial since it increases motivation and improves retention [1-3].In this work, a computer simulation is defined as a program that accepts inputs and performscalculations based on a mathematical model of a system with the intent of understanding thebehavior of said system [4-5]. In our freshman-level course, students used SolidWorks three-dimensional (3D) CAD software to simulate kinematic motion, structural integrity, fluid flowand heat transfer processes (conduction and convection). These types of computer simulationsare often introduced in courses taken later in a typical
frontiers of research and innovation. EFRI Office provides opportunities in interdisciplinary areas at the emerging frontiers of research and innovation that (a) are transformative, (b) address national needs/grand challenges, and (c) will make ENG unrivaled in its global leadership. EFRI- In One Slide• MANDATE - Serve a critical role in helping the Directorate for Engineering focus on important emerging areas in a timely manner. – COMMUNITY DRIVEN - Engages the research community (through DCL) and ENG/NSF PDs to identify and fund a portfolio of projects in strategic emerging interdisciplinary areas that may not be supported with current NSF programs and in which ENG researchers
from industry. All senior design projects at NSU are project-basedand done in collaboration with industry. This presentation will focus on the implementation ofQuality Enhancement Plan (QEP) which has been recently adopted by the NSU and focuses onexperiential learning in all disciplines. The Experiential learning in the ET department has setan excellent example at NSU. Examples from different aspects of experiential learning will bepresented and discussed in detail.PresenterDr. Jafar Farhan Al-Sharab is the Head of Engineering Technology Department at Northwestern State University.He received BS In Industrial Engineering from the University of Jordan, and PhD from VanderbiltUniversity/Nashville, TN. Prior joining NSU, Dr. Al-Sharab was an