Universidad Andres Bello in Santiago, Chile, where currently collaborates with the Educational and Academic Innovation Unit, UNIDA (for its acronym in Spanish), as an instructor in active learning methodologies. Her research interest topics involve university education in STEM areas, faculty and continuing professional development, research-based methodologies, community engagement projects, evaluation tools and technology, and gender issues in STEM education. https://orcid.org/0000- 0002-0383-0179 ©American Society for Engineering Education, 2024Bridging Theory and Practice: Case Studies for Construction Engineering SeniorsAbstractMany researchers advocate integrating
paper is to examine a collaboration between secondary (high school)and post-secondary (college or university) education institutions and construction industryprofessionals aimed at boosting the construction workforce. The paper seeks to address theshortage of skilled workers in construction and to drive an increase in the construction workforceby connecting faculty and industry to provide students with practical, real-world experience andto ensure that the skills they learn are relevant and in-demand in the industry. Wyoming added5,672 jobs in 2018, with the construction industry accounting for more than half of the increase.This positive feat may be unsustainable going forward due to a projected decrease in high schoolgraduates between 2020
) Participatory Action Research (PAR) project, a practice-research collaboration that provides customized faculty de- velopment support for 26 RED project teams. Williams’ publications on academic change, assessment, engineering and professional communication, tablet PCs, and ungrading have appeared in the Journal of Engineering Education and IEEE Transactions on Professional Communication, among others. She has been awarded grants from Microsoft, HP, the Engineering Communication Foundation, and National Science Foundation. She has received numerous awards, including the 2015 Schlesinger Award (IEEE Professional Communication Society) and 2010 Sterling Olmsted Award (ASEE Liberal Education Divi- sion).Dr. Eva Andrijcic
students.Students therefore often struggle to identify with the profession and are not ready for theworkforce when they graduate. This NSF PFE: RIEF project examines a unique experiencewhere a student-faculty-industry integrated community is created to help bridge the gap betweenindustry needs and the competencies developed within chemical engineering programs.The project's main goal is to better understand how implementing contemporary industryproblems into one of the sophomore chemical engineering courses impacts students’ engineeringidentity formation and self-efficacy development. To analyze the impacts of the intervention, thisproject employs design-based research (DBR) approach to guide the development,implementation, and evaluation of materials and
community and engineering design projects, andgain exposure to CEEC/CM professions. Specific objectives are to increase the sense ofbelonging among students and between students and faculty, as well as increase retention in thefirst two years. Through biweekly meetings, participants in CCB build connections withfreshman CEEC/CM peers, upper level CEEC/CM undergraduate students, CEEC graduatestudents, and CEEC/CM faculty. Participants also engage in the engineering design process andcompete in a national engineering design challenge geared toward freshman and sophomorestudents.This paper describes the first one-and-three-quarter years of CCB implementation of a five-yeargrant. We present the program structure, challenges, changes, and successes
- facts. Her outreach work focuses on creating resources for K-12 educators to support engineering edu- cation in the classroom. She is also the founder of STOMP (stompnetwork.org), LEGOengineering.com (legoengineering.com) and the Teacher Engineering Education Program (teep.tufts.edu).Jessica Watkins, Vanderbilt University Jessica Watkins is Assistant Professor of Science Education at Vanderbilt University.Dr. Rebecca D. Swanson, Tufts Center for Engineering Education and Outreach Dr. Swanson is a postdoctoral research associate studying teacher learning in an online graduate-level engineering education program at Tufts University. Prior to joining the CEEO at Tufts, Dr. Swanson worked on research projects studying
engineering, and industrial engineering programs. According to stu- dents’ feedback for this course, as well as similar courses offered at different engineering programs, the course is time-intensive, involves no critical thinking, requires limited class participation, and is not well connected with real-world manufacturing problems. The suggested teaching approach is developed to include several computer-based learning com- ponents that can help in creating an active/passive/constructive learning environment for the students. A simulation-based project is used to
) provide a focused application of RDM to activevitally important since they are in a special position to inspire research projects. These goals were then separated into indi-future students with the excitement and understanding of vidual learning objectives as reflected in the assessment, below.cyberinfrastructure-enabled scientific inquiry and learning.”[9] One recommended textbook was used for the course: DataFaculty studies concluded that researchers felt that some form Management for Researchers by Kristen Briney.[15] Additionalof data information literacy was needed for their students.[2] resources for the course included DMPtool[16] and the Data Graduate student education on RDM has generally taken
for Engineering Education, 2019 Using Computer Based Simulation to Improve Learning Experience in Mechanical Behavior of Materials ClassAbstractTraditionally, the study of Mechanical Behavior of Materials class relies on solving analyticalsolution using a piece of paper and pen. With the advance of computer simulations, both hardwareand software, there is a need to advance the education with adoption of advanced computertechnologies. In this project, we recently developed a new project-based finite element modelingmodule in Mechanical Behavior of Materials class. Specifically, students are required to identifya project which requires to using a commercial finite element software package to simulate themechanical
still-new Ingram School of under the guidance of an advisory council made up ofEngineering. During work on an NSF funded grant, nanotechnology experts from academia and industry.we were able to infuse ethics related modules in 13 One important goal of the project was to recruit,different courses, across three colleges and at all engage, prepare, and encourage students fromlevels of undergraduate study. Three members of our traditionally underrepresented groups into careers inteam (Hanks, Tate, Trybula) were PIs or Senior Science and Engineering. In our third year we revisedPersonnel on the NSF grant project, and the fourth the curricula in the introductory course to
software-based engineeringtools, it is required to have validation of the implementation. In order to do so with the proposedCAD-based tool it was necessary to apply reverse engineering techniques. Towards this end, as aCapstone Design Project, a testing fixture to have wheel/suspension components was built and adigitizing arm was utilized for the accurate collection of key points before and after operationscenarios. The students received the experience of working on an industry-sponsored project,where design, implementation, redesign and adjustment phases were included. The results from Page 12.1582.2this project demonstrate the importance of
integration arechallenges, introducing wireless sensor network technology into undergraduate research can helpattract and prepare future engineers. To achieve this goal, we started with individualized researchexperiences.The multi-disciplinary program involves faculty from two colleges and three departments; the 10projects ranges from smart material based transducer, to networking protocol development,information security of the wireless networking, and wireless sensor network in biomedicalapplications. The program is designed to provide opportunities for promising undergraduates inEngineering and Engineering Technology to engage in interdisciplinary research projects duringa 10 week summer period. It is hosted by the Engineering Technology
for Entrepreneurship and Information Technology (CEnIT).Patricia Brackin, Rose-Hulman Institute of Technology Dr. Patricia Brackin is Professor of Mechanical Engineering at Rose-Hulman University. Her research interests are engineering design and assessment. Page 14.619.1© American Society for Engineering Education, 2009 The Facilitation of Lifelong Learning Skills through a Project- Based Freshman Engineering CurriculumAbstractEngineering accreditation criteria, as well as the Engineer of 2020 report, list lifelong learning asa critical attribute of future engineers. While exercises
paramount for U.S. engineers and researchers to develop the skills and backgroundnecessary to effectively work, communicate and innovate on an international scale and to be ableto collaborate on complex engineering and research projects with colleagues and collaboratorsacross the world. Countries such as China and India, by virtue of their size, are graduating everincreasing numbers of engineers and scientists each year and are making great strides inscientific research. The effects of the globalization of science, engineering and manufacturinghave been particularly felt in rust-belt states such as Michigan and Ohio where the loss of marketshare by the big three U.S. automakers has resulted in large job losses and a migration of agrowing number of
size of the world and significantly reduce the technical difficulties and complexitiesassociated with forming international project teams. Consequently, companies in many industriesnow face a need to cooperate and work with people from other cultures and value systems inorder to remain competitive.Although many of the physical challenges related to globalization have been overcome, socialchallenges including communication and cultural, economic, and political differences remain.The skills required to deal with such challenges have generally been overlooked by traditionalengineering education, which has focused primarily on teaching the technical skills necessary forstudents to be successful engineers. Communication, leadership, teamwork, and
1-2 3-4 5-6 7-8 Prescribed Courses (9 credits) EE 408 (1x2) Leadership Seminars for Engineers x x EE 409 (3) Leadership Principles for Engineers x STS 460 (3) Science, Technology, Society & Public Policy x EE 495 (1) Internship Project x EE 407 (3) Technology Based Entrepreneurship x Page 1.457.2
used y the authors in an learning.introductory chemical engineering course, Massand Energy Balances, at the Chemical The authors tried the cooperativeEngineering (ChE) Department of the learning strategy in the Mass and EnergyUniversity of Puerto Rico at Mayagiiez Balances course at the Chemical Engineering(UPRM). This teaching/learning strategy was Department of the University of Puerto Rico atpart of a multi-institutional NSF-funded project Mayaguez. As in many ChE departments, this isthat aims at increasing the graduation rate of the first course in the program. At UPRM,students in science, engineering and engineering is a five-year program
2006-1279: INNOVATION AND IMPROVEMENT OF A MULTIDISCIPLINARYENGINEERING DESIGN COURSE: INCREASING INTERDISCIPLINARYINTERACTIONSteven Northrup, Western New England College Page 11.766.1© American Society for Engineering Education, 2006 Innovation and Improvement of a Multidisciplinary Engineering Design Course: Increasing Interdisciplinary InteractionAbstractInnovations to a multidisciplinary team design experience have been made with the objective ofincreasing the level of interdisciplinary design required for successful project completion. Theproject required teams of four to five students to design, machine
, he developed the capstone course sequence in the newly-formed Bio- engineering department and has been responsible for teaching it since. Todd also serves as a Director for the UTDesign program, which facilitates resource sharing and corporate sponsorship of projects for all engineering disciplines at the university. He attended the Capstone Design Conference in 2014 and 2016, and is an active member of IEEE and EMBS.Prof. Margaret Garnett Smallwood, University of Texas, Dallas I am a Senior Lecturer II in the Jindal School of Management at the University of Texas at Dallas. I teach three business communication courses to undergraduate students. I have an MBA in international management and marketing from UTD and
to be reified. A broaderdefinition of Making, one that acknowledges that all communities and cultures have beenengaged in design and generative practices throughout history and circumstance, could lead tomore inclusive, welcoming, and interesting making experiences for all learners.The Making Connections project seeks to contribute to this conversation around making withinthe engineering education community by challenging common definitions and perceptions of“what counts” as making. As a partnership between a large Midwestern science and technologycenter and several local communities of color, Making Connections explores culturally-embedded making practices and provides a platform to potentially expand and revise what isconsidered making
. Grygiel, Junior Callie Ann Jakuszeit, Senior Joseph Briski, Senior Paul F. Penko, Faculty Advisor Baldwin Wallace University AbstractPurpose of this project is to develop a practical, working fuel cell that utilizes naturally occurringbacteria that decomposes organic material producing hydrogen ions that combine with oxygen inair to produce electrical power. A laboratory model was built and tested for purposes ofunderstanding how a device could be designed for practical use in a sewage-treatment plant,cesspool or manure pond and how it would have to be scaled to
on thefaculty members involved. In this work, we propose to apply traditional project managementtechniques to the accreditation process. Project management is a field that has been studiedextensively but it is usually applied to large scale projects with well-defined product deliverables(e.g. software or hardware systems). We argue that the principles of project management can bereused and applied to a process where the deliverable or end product is less tangible, but thestakes are as high – the successful attainment of ABET accreditation status. One of the most challenging aspects of establishing and forming a program that is ready foraccreditation is faculty buy-in. Take for example one of the most important areas of programcontinuous
projectwould be to create a simulated electrical schematic of the PLC sorting by height layout. Communication between ladder logicsystem in operation using LabVIEW. This schematic would and a simulation such as Factory IO is easy to do, so the newsimulate ladder logic from Siemens TIA Portal and a physical part we are bringing into this communication is with an addedsimulation with Factory I/O. This would create a full simulation communication with National Instruments LabVIEW.with all three phases of the PLC. Overall this project would LabVIEW will be used to create a fully simulated electricalprovide a basis for others to recreate what we will do for their schematic of the system. When all
-Perry Witmer has brought to the classroom her experience working on drinking water projects with communities in the developing world. Ms. Witmer holds degrees in engineering, journalism and art history, and values the importance of developing a well- rounded understanding of the communities she serves. She has taught courses in international service design, as well as introductory engineering courses for freshmen, at the University of Illinois since 2013.Mr. Matthew Tan, University of Illinois at Urbana-Champaign Matthew Tan is an undergraduate student in Civil and Environmental Engineering at the University of Illinois at Urbana-Champaign. He has a passion for working on international service projects which led him
instruction and associate director of BME’s undergraduate program. In this role, she will strengthen the department’s connection with the local medical community, both in clinical and industrial settings, in order to foster undergraduate design projects as well as internship and employment opportunities for our students.Dr. Sarah Ilkhanipour Rooney, University of Delaware Sarah I. Rooney is an Assistant Professor in the Biomedical Engineering department at the University of Delaware, where she seeks to bring evidence-based teaching practices to the undergraduate curriculum. She received her B.S.E. (2009) and M.S.E. (2010) in Biomedical Engineering from the University of Michigan (Ann Arbor) and her Ph.D. (2015) in
presents its habitat design to a panelof volunteer faculty members and classmates who critique both the design and the team’s oralpresentation.This paper provides insights into the project tasking; the roles and responsibilities of the differentdesign engineers; and the basic engineering considerations and computations required of the finaldesign. It addresses typical conflict issues arising among team members and the means to theirresolution, and presents elements – both positive and negative – of the typical team presentation.Achievement of project learning goals and a summary of assessment results are also discussed.IntroductionThe Hex-Oid Habitat (H-O-H) Design Challenge is an academic exercise developed for theocean engineering program at the
design processskills are not unlike decision making skills employed in real-life. However, describingengineering to pre-college students in these foreign terms may be intimidating2 which mayinhibit students from pursuing engineering in college. Therefore, there is a need to advertiseengineering for what it is: implemented problem solving.Engineers are natural problem solvers and seek challenge. Allowing novice engineers (pre-college students) to practice and develop their problem solving skills through design allows themto connect concept with implementation and verification thereby enhancing understanding andinterest while reducing apprehension to “engineering”. As students achieve success in smalldesign projects, their confidence is increased3
University, West Lafayette Anna earned her M.S. Ed in School Counseling and PhD in Educational Psychology from Purdue Univer- sity. Her research interests are related to measurement and assessment in engineering education. Page 26.1054.1 c American Society for Engineering Education, 2015 Large-scale Research on Engineering Design in Secondary Classrooms: Big Learner Data Using Energy3D Computer-Aided DesignAbstractThrough a five-year collaborative project, the Concord Consortium and Purdue University areapplying a data-intensive approach to study one of the most fundamental research topics
buildrelationships with other scholars from diverse STEM disciplines. The seminar coursework iscentered on semester-long investigative projects designed and completed by teams, typicallymultidisciplinary ones. A small group of faculty oversees the seminar and selection of scholars.Our approach in this program is to provide faculty mentoring for the scholars while alsodeveloping stepping-stone peer-mentoring for professional development. This structure supportsstudents and helps them develop leadership qualities. The recipients, as defined by the programcriteria, are diverse: multiple majors (all eligible STEM majors are included), male, female, andnon-traditional students, as well as students with different ethnicities, religious affiliations,backgrounds
energy measurements and equipment efficiency. The Annual Energy Outlook 2004 (AEO2004) with projections to 2025 [2,3] presents acritical review of energy use of USA in the residential, commercial, industrial, transportationsectors for the period 1970 - 2025. The graphs from AEO2004 forecast an increase in energyconsumption in most sectors, and that primary energy use will exceed 136 quadrillion Btu peryear by 2025, 40 percent higher than the 2002 level. However, the forecast indicates that theincrease can stabilize as more efficient energy generation and consumption technologies offsetthe demand for more energy. Arkansas’s per capita energy use is similar to other states, with itsenergy use and savings dependent on the population and