complex concepts and use highlysophisticated information tools. While universities around the world have rapidly implementedfirst year courses to help students bridge their transition into the information systems of highereducation, Penn State Berks has chosen to combine these trends into a distinct first yearexperience specifically for first year engineering students that teach important skills for boththeir collegiate and professional careers. It was observed that first year engineering students come with enthusiasm ready to tackledifficult concepts. They come ready to do engineering. This program consists of a semesterlong first year course. Initially the students are given a selection of faculty research projects tochoose from. From
officialpolicy or position of William Beaumont Army Medical Center, Department of the Army,Defense Health Agency, or the US Government.Introduction This project will advance middle school student math and sciences progress through itsinnovative use of non-invasive personal and familial data collection and analysis. Usingaccessible technologies such as: non-contact infrared thermometers with memory function, pulseoximeters with Bluetooth that painlessly clip on to your finger, electronic digital calipers, andhousehold tools including tape measures, students will learn to collect and analyze their personaland familial health-data. Using laptops and tablets with MS Excel software, students will uploadtheir data and explore it with simulation and
compare the previous course’s finalproject with the new final project. The methods and tools used to ensure the new course andlesson objectives align with the course assessments, the institutional outcomes, and subsequentcore engineering courses will be described. Preliminary findings from the assessment data willbe presented, and plans for a more robust assessment of the changes will be discussed. 2022 ASEE Annual Conference & ExpositionBackground & MotivationThe mission of the United States Air Force Academy (USAFA) is “to educate, train and inspiremen and women to become officers of character motivated to lead the United States Air Forceand Space Force in service to our Nation [1].” This mission sets the
mining courses. Our course has been team taughtfour times by a computer science and a mathematics professor. We developed a mathematics anda computer science version of the data mining course that are identical except that the computerscience version requires the course project to have an interactive data-driven website as one of thedeliverables. We describe how the topics covered in the courses have evolved. We also discuss thelearning outcomes we have developed for the courses and methods we use to assess whetherstudents have achieved these learning outcomes.IntroductionThe growing availability of large data sets has led to a steady increase in data mining relatedcourses in mathematics and computer science departments. Sanati-Mehrizy et al
had a positive impact in recent yearsin Paraguay, especially with the launch and placement into the orbit of the CubeSat style theGuaraníSat1 in 2021 (AEP, 2021), being one of the most significant technological achieve-ments in the country. This experience developed a series of hands-on classes on the applica-tion of a didactic module in the assembly and operation of this nanosatellite.The here referred CubeSat is a didactic module prototype. This was designed for the develop-ment of nanosatellites whose main objective is to apply space science in the education sectorthrough a project-based learning methodology.Previous research was carried out in Paraguay, such as a CanSat project (Kurita et al, 2020),where high school instructors were
Cara Margherio is the Assistant Director of the UW Center for Evaluation & Research for STEM Eq- uity (CERSE). Cara manages the evaluation of several NSF- and NIH-funded projects. Her research is grounded in critical race and feminist theories, and her research interests include community cultural wealth, counterspaces, intersectionality, and institutional change.Dr. Elizabeth Litzler, University of Washington Elizabeth Litzler, Ph.D., is the director of the University of Washington Center for Evaluation & Research for STEM Equity (UW CERSE) and an affiliate assistant professor of sociology. She has been at UW working on STEM Equity issues for more than 15 years. Dr. Litzler is a member of ASEE, incoming chair
]. Working in contexts outside oftraditional mechanical engineering applications, students may have to reconcile multiplerepresentations of concepts that they previously perceived more narrowly [5]. Previous researchalso shows that team projects can facilitate deeper conceptual growth when individual membershave to contribute parts to a whole. When teams delegate the design of different sub-systems todifferent members, to be successful, each individual must understand how their parts contributeto the whole and how they interface with all other parts [6]. Teamwork also presents anopportunity for collaborative knowledge construction as students work together to make sense ofunexpected results.In this qualitative case study, we investigate the range of
. Throughout his career, Dr. Kerzmann has advised over eighty student projects, some of which have won regional and international awards. A recent project team won the Utility of Tomorrow competition, outperforming fifty-five international teams to bring home one of only five prizes. Additionally, he has developed and taught fourteen different courses, many of which were in the areas of energy, sustainability, thermodynamics, dynamics and heat transfer. He has always made an effort to incorporate experiential learning into the classroom through the use of demonstrations, guest speakers, student projects and site visits. Dr. Kerzmann is a firm believer that all students learn in their own unique way. In an effort to reach
State University , Pennsylvania Jul 28 Full Paper: Tackling Real-World Problems in First-Year Electrical Engineering ExperiencesAbstractThis paper details how a spectrophotometer design project was scaffolded into a first-yearintroductory electrical engineering course to model the engineering design process for students,and to motivate students to practice their design skills and contribute to the project by testingdesign variations. The goal of the project is the creation of a low-cost, portable, reliable waterquality measurement device to support people working to address water quality contaminationissues around the world. While much of the design was ultimately the responsibility of key ECEand Chemistry
integrator, as projectcoordinator or project manager. Mechatronics engineers also tend to work with applications, withsystems rather than components and with synthesis and design rather than analysis.In the perspective of globalization the skills required of the mechatronics engineer has to be validon an international market, and “international skills” ought to be included in the curriculum. Thisarticle presents experiences from different modes of integration of international skills intocapstone courses and curriculum in mechatronics at KTH, the Royal Institute of Technology inStockholm, Sweden.In conclusion, international collaboration in the settings described can provide experiences ofworking in a global setting in order to prepare students for
AC 2007-1733: LEARNING ABSTRACT INFORMATION THEORY ON VISUALDATA: AN INTEGRATED COURSE ON WAVELET-BASED IMAGECOMPRESSIONThomas Richter, Technische Universitat BerlinSven Grottke, Technische Universitat Berlin Page 12.1007.1© American Society for Engineering Education, 2007 Learning Abstract Information Theory on Visual Data: An Integrated Course on Wavelet-Based Image CompressionAbstractWe describe the implementation of and our experiences with a capstone course on wavelet basedimage compression held at the University of Technology Berlin in the years 2002 to 2006. Thiscourse has been designed as an “integrated project”, which means that it combines
AC 2008-2241: LARGE-SCALE PHOTOVOLTAIC SYSTEM DESIGN: LEARNINGSUSTAINABILITY THROUGH ENGINEERING CLINICSPeter Mark Jansson, Rowan UniversityUlrich Schwabe, Rowan University Ulrich Schwabe is a graduate student at Rowan UniveristyAndrew Hak, Rowan University Andrew Hak is a senior in electrical and computer engineering at Rowan University Page 13.837.1© American Society for Engineering Education, 2008 Large-Scale Photovoltaic System Design: Learning Sustainability through Engineering ClinicsI. AbstractWorking on cutting edge technology projects with industry is a key component of RowanUniversity’s engineering
’ – BASED MANUFACTURING EDUCATION1. IntroductionThe Learning Factory (LF) model was first developed as part of the TRP/NSF fundedManufacturing Engineering Education Partnership with the goal of developing a practice-basedengineering curriculum that balances analytical and theoretical knowledge with integratedphysical facilities for product realization in an industrial-like setting1-2. The model has beensuccessfully implemented in several other institutions3. However, full implementation of the LFmodel can be expensive. In 2002, Wayne State University was awarded an NSF grant to developan adaptation of the LF model that would be less costly to implement. This goal was achieved byintroducing the use of coordinated hands-on projects
adapted from common appliances such as hand drillsand hot melt glue guns to emulate common industrial processes. The work cell can be easilyduplicated at low initial cost and ongoing maintenance. Undergraduate student teams wereintegrated with graduate students to design and build the system.IntroductionThis work was sponsored through the Graduate Fellowship Program of the Oregon NASA SpaceGrant Consortium. At the onset of this project the Mechanical and Manufacturing Engineering(MMET) department at the Oregon Institute of Technology had just a handful of functioningrobots, even fewer robotic work cells, and none which were fully capable of simulatingmanufacturing assembly processes. This scenario left the MMET department with few real-worldtools
. Page 14.938.1© American Society for Engineering Education, 2009 Pair Programming in a CAD Based Engineering Graphics CourseAbstractPair programming was introduced into a course in engineering graphics that emphasizes solidmodeling using SolidWorks. In pair programming, two students work at a single computer, andperiodically trade off roles as driver (hands on the keyboard and mouse) and navigator (discussstrategy and design issues). Pair programming was used in a design project, and in a subsequentyear in a design project and several smaller special projects. Student outcomes for two yearswere compared with a previous year in which pair programming was not used. Improvementswere seen in design
Session 1626 Computer Graphics and Image Processing Laboratory for Undergraduate Instruction. Dr. Dennis Mikkelson University of Wisconsin-Stout The ILI funded laboratory and curriculum development project described in this paperprovided UNIX workstations for undergraduate courses in computer graphics and image processingat the University of Wisconsin-Stout. Prior to this project, the computer graphics course wastaught on 80286 class personal computers using an implementation of the Graphical Kernel System
is built on a prerequisite laboratory in which characterization methods wereintroduced through the evaluation of metals in a semester-long evaluation project. In the courseunder discussion, various processing methods were taught in the first few weeks, after which aseven-week design project based on one or more of these techniques was developed by teamsconsisting of three to five students. The problem presented to the students was to develop aproject that illustrated the impact of processing on the properties of the materials. Teams wererequired to design both the technical and managerial aspects of the project. The teams wereevaluated through the use of two written reports, periodic class presentations (evaluated by boththe students and the
Foroudastan’s teaching experience, he also has performed extensive research and published numerous technical papers. He has secured more than $2 million in the form of both internal and external grants and research funding. Foroudastan is the faculty advisor, coordinator, and primary fundraiser for EVP teams entering national research project competitions such as the Formula SAE Collegiate Competition, the Baja SAE Race, the SolarBike Race, the Great Moonbuggy Race, and the Solar Boat Collegiate Competition. For his concern for and dedication to his students, Foroudastan received MTSU awards such as the 2002-03 Outstanding Teaching Award, the 2005-06 Outstanding Public Service Award, and the 2007 Faculty Advisor of the
Paper ID #25081Solar Powered Aquaponics: Modeling Real World Solutions through Engi-neering TechnologyMr. Sean Glen Wood, University of Houston, Downtown Glen earned his bachelor’s degree in Controls and Instrumentation Engineering Technology with a minor in Sustainability from the University of Houston-Downtown, Houston, Texas, in 2018, graduating Summa Cum Laude. Glen was heavily involved in the Center for Urban Agriculture and Sustainability at the University, participating in multiple research projects that emphasized sustainable technologies in the urban setting. He is currently working for Shell as a member of the
) have beenincorporated with AIRSPACES (Autonomous Instrumented Robotic Sensory Platforms toAdvance Creativity and Engage Students) project supported by Maryland Space GrantConsortium. Broad goals of the project are aligned with USDA’s “environmentally friendlyagriculture” and NASA’s “earth science” mission objectives.As part of the AIRSPACES project, the UMES team has developed and integrated autonomousplatforms such as autonomous boats, autonomous ground robots, as well as unmanned aerialsystems, to advance sustainable agricultural practices.Farmbot, a small autonomous farming machine, has been recently acquired by the “SmartFarming” and “AIRSPACES” project team at UMES for conducting precision farming fieldexperiments on a small scale. The
Washington University Todd Morton has been teaching the upper level embedded systems and senior project courses for Western Washington University’s Electronics Engineering Technology(EET) program for 25 years. He has been the EET program coordinator since 2005 and also served as department chair from 2008-2012. He is the author of the text ’Embedded Microcontrollers’, which covers assembly and C programming in small real-time embedded systems and has worked as a design engineer at Physio Control Corporation and at NASA’s Jet Propulsion Laboratory as an ASEE-NASA Summer Faculty Fellow. He has a BSEE and MSEE from the University of Washington. c American Society for Engineering Education, 2017A
class projects. Cross-disciplinary experiences betweenengineering and education students have shown potential to help students developcommunication skills [3, 4]. In addition, students develop self-efficacy in their discipline throughparticipating in cross-disciplinary experiences [5]. Cross-disciplinary experiences also helpstudents learn to value expertise outside their area of study and appreciate the limitations andconstraints of information in other fields [6]. Course instructors can also benefit from sharingresponsibility for a course and learning about other disciplines [7].The unfamiliarity of cross-disciplinary activities can lead to frustrations despite their manybenefits. Students often struggle to connect topics from other
Waste Technologies, and Environmental Engineering Seminar. LTC Starke has published over 10 peer reviewed research arti- cles and has presented his research at national and international meetings (most recently Portugal). Most recently, he led a service learning project with 5 students to build a latrine-based biogas system in west- ern Uganda for an elementary school of 1400 students. LTC Starke is a registered Professional Engineer (Delaware), member of several professional associations, and is a member of the National Council of Examiners for Engineers and Surveyors (NCEES).Lt. Col. Phil Dacunto P.E., U.S. Military Academy LTC Phil Dacunto is an Assistant Professor of Environmental Engineering at the United States
Page 26.147.1 c American Society for Engineering Education, 2015 Active-learning for Physics (Electromagnetism) teachers in an Engineering Course ABSTRACTStudents of Engineering have difficulties in the assimilation of the concepts explored inElectromagnetism and Waves. These difficulties begin with a lack of abstraction, especiallywhen seeking to understand the Electromagnetism concepts. Many active learningmethodologies and cases are presented in the literature for Classical Mechanics, but there arefew references to Electromagnetism and Waves. This study presents a PBL—Problem BasedLearning and a Project Based Learning—practice
Paper ID #16950Network Analysis of Interactions between Students and an Instructor duringDesign MeetingsDr. Kathleen Quardokus Fisher, Oregon State University Dr. Kathleen Quardokus Fisher is a postdoctoral scholar at Oregon State University. She is currently participating in a project that supports the use of evidence-based instructional practices in undergraduate STEM courses through developing communities of practice. Her research interests focus on understanding how organizational change occurs in higher education with respect to teaching and learning in STEM courses.Dr. Laura Hirshfield, University of Michigan
, 2019 Work In Progress: Best Practices in Teaching a Chemical Process Design Two-course Sequence at a Minority Serving UniversityIntroductionStudents complete their capstone design experience in the Chemical Process Design II and IIIsequence of courses in chemical engineering at Texas A&M University-Kingsville (TAMUK), aHispanic-serving institution (HSI). Three principle objectives of this process design coursesequence are to instruct students in the development of a complete chemical process usingprocess simulators as a primary tool, to complete this project in a team-oriented environment,and to communicate effectively with their peers and instructors. These three principle objectivesare directly related to the ABET student
Learning, Agility, and a Focus on the individual.These values are related to the program mission as the program is built around the concept ofengaged learning: discovery-based education and learning by doing. Classrooms are defined notas lecture halls but as engineering studios. Courses are delivered not as lengthy exercises intheory but as integrated opportunities to apply knowledge in real-world projects. The expectedoutcome of the program is an agile engineer, a lifelong learner with a comprehensive set of skillsappropriate to the needs of today and tomorrow. Agility also characterizes the program itself:streamlined, purposeful and flexible in adapting to changes in pedagogy, knowledge or the needsof its stakeholders. We also express the brand
with bus schedules, real-time bus location and delayinformation so they can plan trips accordingly, and to provide useful information to thetransportation center for management purpose. The developed system has been tested anddemonstrated successfully.IntroductionThe presented work is the outcome of an undergraduate capstone project. Students in theComputer Engineering Technology (CET) major at Central Connecticut State University arerequired to finish a capstone project in their senior year study. The capstone project isaccomplished by successful taking two consecutive courses, Capstone Project I and CapstoneProject II. The Capstone Project I course is 1-credit in which students research, propose andfinalize project ideas. The Capstone
; in fact it is an old idea.The capstone experience in the Manufacturing Engineering program at UW-Stout is a two-semester course sequence. In the first course students experience the engineering design processby designing realistic products for manufacture. Design projects are managed by teams ofstudents, industry contacts and faculty advisors. The final detailed design is used in the secondcourse, where an automated manufacturing system is developed to produce the product.IntroductionUniversity of Wisconsin-Stout was founded on the educational principle that people learn best bydoing. In 1891 James H. Stout, a wealthy lumber baron, established the Stout Manual TrainingSchool to provide training and education “through which young people of
fuel cell course has three 1-hour lecture periods per week and one 3-hour lab period perweek to make a 4 credit-hour course. One lecture period per week is devoted to discussion ofrelevant papers, which serves to reinforce the technical content and facilitate discussion of thebroader social, economic, and technical issues. The lab periods are used alternately for additionalclassroom instruction, experiments, recitation time, and modeling or project work. This adds adegree of flexibility to administering the course and provides the students with extra time toengage and reflect on what they are learning.Student learning assessment is based on homework, experimental lab write-ups, a midterm exam,a nonlinear dynamic fuel cell model, and student