ID PCE MFGE EE Premajor Major Nat. Avg.Statistics: Brian L. Yoder, Engineering by the Numbers. ASEE 2016-2018https://datausa.io/profile/cip/industrial-product-design#demographics Access to Facilities & EquipmentPre-major engineering + design students did not have access tolab facilities or work space outside of scheduled class time. Skill Development Student Engagement Sense of Belonging Student SuccessFall 2019: WWUEngineering & Designmakerspace opens Students working on projects in the back of the teaching classroom Broad Goals• Create inclusive and equitable learning environments for WWU engineering
the best paper in the Journal of Engineering Education. He was awarded an IEEE-USA Professional Achievement Award in 2013 for designing the nation’s first BS degree in Engineering Education. He was named NETI Faculty Fellow for 2013-2014, and the Herbert F. Alter Chair of Engineering (Ohio Northern University) in 2010. His research interests include success in first-year engineering, engineering in K-12, introducing entrepreneur- ship into engineering, and international service and engineering. He has written texts in design, general engineering and digital electronics, including the text used by Project Lead the Way.Mr. Joshua Alex´ei Garc´ıa Sheridan, Virginia Polytechnic Institute and State University
and an Assistant Professor of Environmental Engineering(who is also Olin’s GCSP Director), with significant input from students. It was another exampleof a co-creation process in which a few faculty leaders made final decisions based onengagement with students. The resulting course, taught for the first time in spring 2019, used acombination of individual and group projects, analytical and reflective assignments, readings,and discussions to address learning objectives of critical thinking and reflection, identitydevelopment, communication [4], and pluralism (i.e., embracing many ways of knowing andbeing, inspired by [5]). To continue the cycle of student co-creation, one of the small projectswithin the course asked students to reinvent
recent projects have explored career self-efficacy and critical race consciousnessinterventions.Sarah OrtonDr. Orton is an associate professor in Civil Engineering and is an active member of the AmericanConcrete Institute and the American Society of Civil Engineers. Dr. Orton also serves as theDirector of Undergraduate Studies for the Civil and Environmental Engineering Department atthe University of Missouri. She has participated in several programs aimed at improvingundergraduate education. Her research projects have involved the use of carbon fiber reinforcedpolymers to strengthen structures, analysis and testing for reinforced concrete frames underdisproportionate collapse, and risk and reliability analysis of bridges and offshore structures
program to allow RET participants to(1) have a better understanding of current analytics research from participating mentors and (2)better connect teachers’ needs in standards-based modules with potential research projects andapproaches. The team held several virtual presentations for the teachers to engage with mentorsand the curriculum coach team. In fact, the participants went through three rounds of mentormatching. The helped ensure both parties would be able to contribute to the module development.Participants brainstormed during these meetings potential connections to standards to start thinkingabout how the research projects would connect to the required classroom content. © American Society for Engineering
. Mahnas Jean Mohammadi-Aragh, Mississippi State University Dr. M. Jean Mohammadi-Aragh is an assistant professor in the Department of Electrical and Computer Engineering at Mississippi State University. Dr. Mohammadi-Aragh investigates the use of digital sys- tems to measure and support engineering education. Current projects include leveraging writing to support programming skill development, using 3D weather visualizations to develop computational thinking skills for K-12 students, and exploring how instructors impact attention in large, computer-infused lectures. Dr. Mohammadi-Aragh also investigates fundamental questions about community, identity, messaging, and diversity, which are all critical to improving
part of his research, he has explored Colombian chemical engineers’ social representations about science and technology and the conceptions and attitudes about chemical engineering and their identity as chemical engineers. He belonged to Colombian educational formal and informal ambits like a pedagogic consultant at the Plane- tarium of Bogot´ for the project ”Centers of Interest in Astronomy”; innovation, science, and technology a instructor and consultant at the science and technology museum Maloka; and school teacher in Chem- istry. As part of his research interests, he looks for the integration between the arts and engineering to foster social justice and critical thinking, and the
materials. He participates in multiple projects, including the Development of a Model for The Metal Laser Powder Bed Fusion Additive Manufacturing Process. Dr. Ahmed Cherif Megri is currently the chair of the NCAT CAM’s Education subcommittee. He contributed to the outreach CAM since 2015.Dr. Sameer Hamoush, North Carolina Agricultural and Technical State University Professor and Chair of Civil and Architectural Engineering DepartmentDr. Taher M. Abu-Lebdeh P.E., North Carolina Agricultural and Technical State University Dr. Abu-Lebdeh is a Professor of Civil Engineering, Chair of R&D for the NNSA/ MSIPP Consortium, and an Associate Editor for the American Journal of Engineering and Applied Sciences. His research
– knowing how databases interact with servers inbuilding IoT products, for example.The Agile Experiment (History of the Course)To meet these challenges, we established three project objectives. Our first objective was to findmore agile and sustainable processes to develop and continuously improve engineeringcurriculum. The second objective was to improve our pedagogical methods to make theclassroom learning experience more engaging [1]. The third objective was to develop a newlearning experience for our students that produced measurably better learning outcomes.An essential idiom that emerged from student, faculty, industry, and professional surveys was thewidespread use of agile methodologies. Since these methods are part of the curriculum we
hands-on,project-based engineering tasks, and 3) connect young people to engineering-based summerlearning opportunities including industry exposure. In the face of the global pandemic,professional development opportunities for educators and informal learning experiences forstudents demanded new adjustments to content delivery unseen before. We discuss ourleadership team’s adjustments to online content delivery and school educator’s efforts to createand sustain a virtual STEM club through reflexive practices. Specifically, we transitioned a10-day, in-person professional development during the summer to a 5-day, blended professionaldevelopment, where asynchronous and synchronous activities were led by CISTEME365 staff.Additionally, we adjusted
objectives that are unique and personalizedwhile also contributing to their team’s innovation project. With such diversity of student work,applying a single grading rubric is impractical. Another problem occurs in evaluating theinnovation itself. How can instructors consistently rank the novelty and value of such diversestudent work? To tackle these problems, a grading scheme that involves multiple expertassessments of both the value and the impact of a student’s innovation needed to be developed.This work presents and describes the development of the Innovative Impact Scale and how it hasbeen integrated alongside Webb’s Depth of Knowledge levels as metrics to assess the innovativelearning outcomes of students enrolled in an IBL course. Data on
, Dr. Lord spent a sabbatical at Southeast University in Nanjing, China teaching and doing research. She is on the USD team implementing ”Developing Changemaking Engineers”, an NSF-sponsored Revolutionizing Engineering Education (RED) project. Dr. Lord is the 2018 recipient of the IEEE Undergraduate Teaching Award.Prof. Gordon D. Hoople, University of San Diego Dr. Gordon D. Hoople is an assistant professor and one of the founding faculty members of integrated engineering at the University of San Diego. He is passionate about creating engaging experiences for his students. His work is primarily focused on two areas: engineering education and design. Professor Hoople’s engineering education research examines the ways
discussed in the Assessment Methods section of this paper.For all of the projects in the sequence, there is a heavy component of background research andcoordination that must be performed before designs are finalized at the end of the Fall semesterfollowed by prototyping and testing in the Spring semester. The complex nature of the maritimeenvironment means that beyond the typical research into existing solutions, the students must doadditional research to find out the constraints for their projects. For example, the waterfrontcleaning robot in 2018-2019 needed to filter out garbage of the correct size based on whatcommon garbage is found in the water. At the same time, it needed to be powerful enough tomove the filtration system to overcome local
highly visual, interactive format. Graduated from Washington State University with a B.S. degree in Chemical Engineering in 2017 and an M.S. degree in 2019 with a focus on biosensing.Kitana Kaiphanliam, Washington State University Kitana Kaiphanliam is a doctoral candidate in the Voiland School of Chemical Engineering and Bio- engineering at Washington State University (WSU). Her research focuses include miniaturized, hands-on learning modules for engineering education and bioreactor design for T cell manufacturing. She has been working with Prof. Bernard Van Wie on the Educating Diverse Undergraduate Communities with Affordable Transport Equipment (EDUC-ATE) project since Fall of 2017.Aminul Islam Khan, Washington
a Professor of Chemical and Biomedical Engineering at the University of South Florida’s College of Engineering . Richard is the Co-PI for an NSF grant that supports FLATE, Advanced Techno- logical Education in Florida ,the the NSF Center of Excellence, which was founded through substantial funding from NSF. FLATE, now funded by the NIST MEP program and the Florida Department of Ed- ucation, addresses curriculum, professional development, and outreach issues to support the creation of Florida’s technical workforce. Richard has over 30 years of experience working with the K-14 education community. Other funded efforts include projects for the NIH and the US Department of Education. The latter was for the
changes with reasoning. Thesegoals are consistent with a subset of the NGSS and other frameworks for elementary engineeringeducation [1], [11], [12]. They specifically align with the NGSS practices of identifyingproblems, designing solutions, and engaging in argument from evidence. We refer to thiscollection of practices in this work as students’ engineering design thinking.Over the course of the project, we revised and administered this assessment several times. Thisstudy presents data from the administration of the final version of the assessment before and afterone of the integrated science and engineering curriculum units we developed as part of thisproject. We coded student responses to the assessment task and examined frequency of codes
engineering experience through evaluating preparation in areas, such as mathematics and physics, evaluating engineering identity and its impact on retention, incorporating non-traditional teaching methods into the classroom, and engaging her students with interactive methods. American c Society for Engineering Education, 2021Bringing Aerospace to K-12 Students Using Non-Traditional ApplicationsAbstractThere is a growing need to increase gender and ethnic diversity within science, technology, engineeringand mathematics (STEM) related fields, and aerospace in particular. The intent of this project is to showthat early STEM exposure, along with the
civil engineering.2. Innovative in the integrated design of civil engineering projects.3. Adept at using modern engineering tools and software to support engineering design.Similar to the University of Louisville program, the ABET accredited Master of ArchitecturalEngineering (MAE) degree at the University of Nebraska-Lincoln is a one-year addition to theaccredited BS architectural engineering degree where students specialize in one of three optionareas (building structural systems, building mechanical systems and acoustics, or buildinglighting and electrical systems) and learn “professional practice topics that architecturalengineers need later in their careers” [35]. The MAE program did not specify additional learningoutcomes beyond the
research. She is on the USD team implementing ”Developing Changemaking Engineers”, an NSF-sponsored Revolutionizing Engineering Education (RED) project. Dr. Lord is the 2018 recipient of the IEEE Undergraduate Teaching Award.Dr. Matthew W. Ohland, Purdue University at West Lafayette (COE) Matthew W. Ohland is Associate Head and the Dale and Suzi Gallagher of Professor of Engineering Edu- cation at Purdue University. He has degrees from Swarthmore College, Rensselaer Polytechnic Institute, and the University of Florida. His research on the longitudinal study of engineering students, team assign- ment, peer evaluation, and active and collaborative teaching methods has been supported by the National Science Foundation and
as Project Lead the Way [3]. Project Lead theWay is a well-established program providing an engineering-specific curriculum and training tohigh school educators.This program can also be seen as a school-university partnership; however, most partnershipsfocus on teacher professional development. Brady describes that some of these partnershipsinclude supervision and mentoring, collaborative teaching initiatives, action research, jointprofessional development, shared planning, and school enrichment and support [4]. This programis a partnership focused on students.Ultimately, this program is innovative, as it is a university offering a high school class. The courseis unique to the university’s community. The course material is essentially the
have been made over the past two decades. Of particular interest is the use ofaugmented-reality (AR) headsets to deliver the captions directly into the user’s line-of-sight asopposed to a separate display set to the side (e.g., Jain, 2018). Along these lines, AR headsetsthat project American Sign Language (ASL) interpreters onto the lens have also been exploredwith promising results (e.g., Miller, 2017), including commercialization (SignGlasses,www.signglasses.com). However, these systems are designed for use in controlled environments(e.g., the classroom) with the captioning or interpreting service paid for by an institutionalaccommodations office. However, in post-secondary settings a significant portion of a student’seducational experience
formal definition of sustainable Explain how the three integral dimensions of Define the Net Present Value of and development. sustainable development can operate in engineering project. balance. Where and when the topic of sustainable Why engineering for sustainable Explain how the engineer in charge of an development began being into context? development is a multidisciplinary area. urban development project can incorporate in the project design process severe weather
understanding the limitation of humans. At MichiganTech, we teach PSY4120 Human Factors Psychology and PSY4100 EnvironmentalPsychology on an alternate year schedule. The Human Factors psychology courseintroduces students, regardless of major, to the basic psychological concepts critical tothe proper design of human-machine systems. Although there is some discussion ofdesign, the focus is more directed on understanding the role of the human operator in asystem. We have, however, in the past taken on design projects, including one that led topublished work (Helton et al., in press). The environmental psychology course is broadlyabout the role of humans in environmental systems, but has a strong emphasis on howenvironmental variables, such as noise
engineeringresearch; therefore a course in the application of DEM was designed and offered. Thecourse is unique because this is one of the few courses in the nation and DEM is anemerging technology in numerical methods. This course is also innovative due to theextensive faculty-students interaction during the lectures, computer lab work, and studentprojects. In addition, the DEM application in student research projects has been verysuccessful in the past few years. The DEM was applied in soil compaction, aggregatecompaction, and asphalt mixture modeling simulation. The research work at otheruniversities was reviewed and summarized. In order to introduce the advances of theDEM to the graduate curriculum, some materials such as soil, sand, and asphalt
University,took on a project to invigorate and expand the airworthiness talent pool, to define commoncurricula for Airworthiness Engineering programs and to define professional levels based onexperience and responsibility. This effort would ensure and improve airworthiness complianceand safety for civil and military aerospace systems and embed the airworthiness discipline as partof the design and development life cycle of aircraft. As demands for certification of newaircraft-type entrants, such as UAS and advancements in Advanced Air Mobility (AAM), therewill be an increase in demand for airworthiness professionals employed by both the FAA andaircraft designers / manufacturers to process aircraft certifications. Legislation is in place toleverage
, propulsion, structures, launch and recovery, mission planning, weapons and sensor payloads, materials, and ground and airborne system data links; introduction to and application of fundamentals of unmanned aerial vehicle design, construction, testing, and operation; application of numerical tools, computer-aided design tools, and common engineering planning tools (e.g. MATLAB®, SIMULINK®, SolidWorks®, Solid Edge®, MS Project®, and others); exposure to effective mathematical methodologies and computational techniques for solving technological problems; providing a knowledge basis from which students may identify academic pathways related to UAS; preparing students for personal research and/or career
through discussions,projects, problem-solving, role plays, case studies, etc. [7]. Widely used teaching pedagogies thatpromote active learning include project-based learning [8], problem-based learning [9], game-based learning [10], flipped classroom [11], team-based learning [12], experiential learning [13].With the help of technology, instructors can use effective methodologies to translate the theoreticalconcepts into engaging learning materials. Background and Literature ReviewLocated in Central-East Texas, the University of Texas at Tyler established its College ofEngineering in 1996, and the first classes were taught in summer 1997. The Department ofElectrical Engineering at UT Tyler is one of the oldest
several moresemesters. This version has been used from Fall semester of 2019. Figure 1 shows a customlaboratory kit that has been used in this course. This show a recent version of the laboratory kit, andits name is BH EDU board kit9. Students can mount their MSP432 launchpad boards on the BH EDUboards. Students will learn about various aspects of the MSP432 applications using this BH EDUboard kit. After the completion of the Fall semester of 2019, to provide better education for thestudents for the following semester, the author decided to compile the lecture contents and to publisha book regarding this MSP432 application course. The detailed process of this textbook project hasintroduced in the next section. Proceedings of
classroom theory, CAD design, and hands-on measurement experience.The first semester course consists of lectures in basic RF/microwave theory and passive circuitscombined with weekly hands-on and computer-aided design laboratory experiences. The secondsemester course consists of lectures on active RF/microwave circuits and provides theculmination of the sequence with an amplifier design project. The course has provided aneffective means of training students both in theory and practical working knowledge in thesubject, while efficiently utilizing the microwave faculty of the department. IntroductionSignificant demand has been generated throughout the years from employers in the radio-frequency (RF) and
classroom theory, CAD design, and hands-on measurement experience.The first semester course consists of lectures in basic RF/microwave theory and passive circuitscombined with weekly hands-on and computer-aided design laboratory experiences. The secondsemester course consists of lectures on active RF/microwave circuits and provides theculmination of the sequence with an amplifier design project. The course has provided aneffective means of training students both in theory and practical working knowledge in thesubject, while efficiently utilizing the microwave faculty of the department. IntroductionSignificant demand has been generated throughout the years from employers in the radio-frequency (RF) and