Paper ID #39239Engineering pedagogical content knowledge for undergraduate engineeringand technology programs: Accelerating graduates’ preparedness for the4IR geospatial industryDr. Huiran Jin, New Jersey Institute of TechnologyDr. Laramie Potts, New Jersey Institute of Technology Dr. Laramie Pottsˆa C™ is an associate professor of Engineering Technology at NJIT and serves as the program coordinator of the Surveying Engineering Technology (SET) program at NJIT. He has been working as an educator, consultant, and researcher in geoinfo ©American Society for Engineering Education, 2023 Engineering
learning outcomes, including retention, persistence and completion, and • close performance gaps.“When I Am in the ITLP, I Feel Like an Engineer.” (Student)In our 34,000 square feet of lab space, the ITLP team of full-time engineers, manufacturingspecialists, and student staff offers approximately 1,000 skill-building workshops each year toover 8,000 non-unique participants. The workshops span over 20 unique topics related toprototyping, manufacturing, mechanical and electronic CAD, materials testing, and electronics.Every year, the team supports over 3,000 unique students, 50 courses, and 150 sections of thosecourses across ten departments and programs. Through carefully designed curriculum andcurated resources, we offer lab modules and skill
. James C. O’Brien, Villanova University Professor Jim Oˆa C™Brien is a tenured Faculty member in the College of Engineering of Villanova University. At Villanova he has won numerous awards for teaching including the Lindback Award, the Farrell Award, and the Engineering Teacher of the Year Award. ©American Society for Engineering Education, 2024 Integrating Engineering Design in Laboratory Sessions for Second Year Mechanical Engineering StudentsAbstractEngineering design fosters students' capacity to apply technical knowledge towards innovativesolutions. While design has gained visibility in engineering education through programs likeentrepreneurship, freshman design, and
, 2023Prioritizing learning outcomes for chemical engineering laboratory coursesAbstractChemical engineering laboratory courses allow students to work hands-on with equipment theymay see in industrial positions. These courses often account for learning outcomes related toexperimentation, teamwork, and communication skills, among others. To work towardsalignment of laboratory courses with industrial needs, it is necessary to understand 1) thelearning outcomes currently addressed in laboratory courses and 2) how key stakeholdersperceive the importance of specific laboratory learning outcomes. Therefore, three surveys weredesigned based on thirteen proposed learning outcomes for engineering laboratory courses thatwere identified in the literature [1]. The
Mechanical Engineering at Worcester Polytechnic Institute. Anand’s research interests lie in combining hands-on Maker skills with an entrepreneurial mindset and value creation, aiming to develop practical solutions for real-world problems. He is enthusiastic about innovation in engineering education, design thinking, prototyping, program development, crafting inter- active curricula, and bringing ideas to fruition. With over 8 years of experience in Mechanical and Mechatronics Engineering, Anand possesses a solid background in Innovation and Entrepreneurship education, Additive Manufacturing, and Digital Fabri- cation technologies. He has taught lectures and workshops on advanced subjects to more than 1000
as a nuclear-trained submarine officer.Kyle Ryan Parker, US Naval Academy - Submarine Officer Lieutenant Parker is a native of Vacaville, California. He earned a Bachelor of Science in both Mechanical and Civil Engineering from California State University Chico and a Master of Science in Coastal and Ecological Engineering from Louisiana State University. He was commissioned in the Navy through the Nuclear Propulsion Officer Candidate Program in November of 2015. He graduated with distinction from Naval Nuclear Power School and upon completion of Prototype and Submarine School reported to the USS Alabama (SSBN 731). Aboard the USS Alabama Lieutenant Parker served as the Chemical and Radiological Controls Assistant
Asian American ▢ Biracial or Multiracial ▢ Black or African American ▢ Jewish ▢ Latino/a/x/e or Hispanic ▢ Pacific Islander or Native Hawaiian ▢ White or Caucasian ▢ Race/ethnicity not listed here (please specify): __________________________________________________ ▢ Prefer not to answerWhich option best describes you? o Undergraduate student in chemical engineering or related field o Faculty member in chemical engineering or related field o Non-academic/industry o Other (please describe) __________________________________________________What university do you attend? ________________________________________________________________What is the name of your major/degree program? o Chemical Engineering or closely
System. The School of Engineering, a part of the Collegeof Science, Technology, Engineering, and Mathematics (CSTEM), hosts five undergraduate BSprograms: Industrial Engineering (IE), Mechatronics Engineering (ME), Civil Engineering (CE),Civil Engineering Technology (CET), and Construction Management (CM), as well as two MSprograms, one in Mechatronics Engineering (MSME) and one in Industrial and SystemsEngineering (MSISE). The series of projects described here (a multiyear theme on UAVs) includesmostly students from the ME and the MSME.The four-year Bachelor of Science in Mechatronics Engineering (BSME) program includes 3semester credit-hours of technical electives (this may include research and/or independent studiescourses), the Senior
concepts together with a pen and paper approach towards problem solving. Yet, the practicalapplication of these principles and concepts undergoes testing during the design thinking aspectof project or laboratory components within the courses. In addition to this many traditionaluniversity programs need to evolve their teaching methods to equip students with the innovative,creative, and integrated engineering-business skillsets that thrive in today's technology-drivenglobal economy. The entrepreneurial skillset is highly desirable by the companies todayespecially those employed in R&D7,8,9. Most of the labs which are integrated into the engineeringcourses have some common themes as their objectives engage students in activities related to
engineering education and telehealth practices. Her work in promoting diversity, equity, and inclusion in higher education led to the successful building and passing of the religious accommodation law in the State of Washington, which provides alternative exam testing accommodations for students due to religious observances. Dr. Hussein is the recipient of the 2021 Innovative Program Award from the Electrical and Computer Engineering Department Head Association (ECEDHA), for founding the RHLab, as well as the 2022 IEEE Region 6 Outstanding Engineering Educator, Mentor, and Facilitator in the Area of STEM Award, recognizing her contributions to advancing students’ success, mentorship, empowering under-represented
more statistics into the curriculum of the Biological Engineering program insubsequent courses.Despite these results, there are some limitations that will be considered and incorporated as webuild and study other TDA experiences. For instance, a pre-lab/post-lab comparison doesn’tfully demonstrate the effectiveness of TDA in relation to standard practice. Thus, we willintegrate a “true” control to better understand the impact of TDA in the teaching and learningenvironment. Additionally, this short-term study did not assess longitudinal retention of skills insubsequent courses. If self-efficacy is what we are truly trying to achieve, longer term studiesshould be incorporated to fully assess reinforcement and impact. [12]ConclusionThe TDA
,” Comput. Educ., vol. 98, pp. 14–38, Jul. 2016, doi: 10.1016/j.compedu.2016.03.010.[6] V. Potkonjak et al., “Virtual Laboratories for Education in Science, Technology, and Engineering: a Review,” Comput. Educ., vol. 95, pp. 309–327, Apr. 2016, doi: 10.1016/j.compedu.2016.02.002.[7] G. S. Coutinho, A. S. Mello, A. J. Magana, V. Dias, and V. Cortes, “Developing Virtual Equipment to Enhance Learning of Structures and Material Science in an Aeronautics and Astronautics Engineering Program,” Glob. J. Eng. Sci., vol. 4, no. 4, pp. 1–6, 2020, doi: 10.33552/GJES.2020.04.000593.[8] D. M. Gilbuena, F. A. Kirsch, and M. D. Koretsky, “Use of an authentic, industrially situated virtual laboratory project to
engineering education suitable for the 21st century.Deborah Moyaki, University of Georgia Deborah Moyaki is a doctoral student in the Engineering Education and Transformative Practice program at the University of Georgia. She holds a bachelor’s degree in Educational Technology and is excited about the possibilities technology offers to the learning experience beyond the formal classroom setting. Her research focuses on improving the educational experience of engineering students using virtual reality labs and other emerging technologies.Dr. Adurangba Victor Oje, University of Georgia Dr. Victor Oje holds a B.Eng in Electrical/Electronics Engineering and a doctorate in Engineering from the University of Georgia. His
technical solutions.The integrated bridge project represents a significant enhancement in the alignment with ABET'sstudent outcomes compared to the traditional bridge experiment. This advanced project alignswith six distinct ABET student outcomes, as outlined in the ABET Criteria for AccreditingEngineering Programs (2023) [8], marking a considerable expansion from the two outcomesaddressed by the previous experiment. This alignment is detailed in Table 2, illustrating thebroader educational impact of the integrated project.ABET Student Outcome #1: An ability to identify, formulate, and solve complex engineeringproblems by applying principles of engineering, science, and mathematics.ABET Student Outcome #2: An ability to apply engineering design to
importance of relying on real-world behavior to guide understandingand engineering design.One of the guiding principles for the design of lab activities for this project was that lab activitiesare most effective if they align closely with concepts and principles taught in class. In addition,lab activities should allow students to visualize, experience, and clarify confusing concepts. Tothis end, equipment should be as simple as possible so that students don’t get lost in aspects ofthe experiment that are not at the core of the phenomena studied. Unnecessary programs, gad-gets, tools, or assembly should be avoided when possible. Further, sufficient equipment needs tobe provided so that students can all conduct experiments first-hand, rather than
Paper ID #42556Bridging the Gap: At-Home Experiments Connecting Theory and Practicein Chemical Engineering EducationDr. Gautom K Das, University of Maryland, Baltimore County Dr. Gautom Das is a Lecturer in the Chemical, Biochemical and Environmental Engineering at UMBC. Before joining UMBC, he was a Lecturer and Research Scientist in the Chemical and Biomolecular Engineering at Rice University. Dr. Das received post-doctoral training at the University of California, Davis; he earned his PhD in Chemical and Biomolecular Engineering from the Nanyang Technological University (NTU), Singapore. His research journey has taken
Experiments and Blended Learning in Engineering Education: A Framework for AssessmentAbstractThis paper presents a comprehensive framework for refining desk-scale experiments andimplementing an impactful blended learning curriculum within the realm of chemical engineeringeducation. The primary focus is on evaluating the influence of these enhancements on studentlearning outcomes and the overall success of educational transformation initiatives. The studyaddresses two central research questions. The first question centers on improving the studentunderstanding of topics related to graphical flow characterization by using a desk-scaleexperimental module. We consider critical factors such as ease of installation, safe to operate, andability to
fieldsuffer from poor spatial visualization skills. Spatial visualization or reasoning skills are definedas “visualizing three-dimensional objects and perceiving what they will look like from differentviewpoints or what they would look like if they were rotated or transformed in space” (Sorby etal., 2013). The aid of spatial visualization is imperative in larger engineering projects thatinvolve designing 3D objects in computer programs such as CAD and MATLAB.Water Chemistry is a required upper-level course at University of Colorado Boulder, wherestudents build on previous chemistry knowledge and focus on the fundamentals of inorganicaqueous compounds and contaminants. This course was selected as a case study forimplementation of the AR/VR. Water
sensors. A low floor, wide walls, and high ceiling signature-thinking hands-oncourse project involving Arduino is required. The students may select any project topic thatsatisfies the following conditions: (i) It is either useful or fun and (ii) It has to include a digitaldisplay and a sensor or a motor. In addition, the project must have a signature-thinkingcomponent, i.e., some aspects of the project must be original.This paper details how the course was redesigned, the newly added lab activities involvingArduino, and the efforts the instructor put in to ensure the success of the course projects. Itshould help the engineering programs that do not offer a microcontroller course incorporateArduino into their curriculum. This paper will also
% 9 4%3.2 Analysis results of the assignments3.2.1 Lab’s learning objectives in the assignmentTable 5 related the educational lab learning objectives in Table 2 with the expectations providedin the syllabus, laboratory experiment instructions, and/or manuals for each course. Mostcourses included learning objectives 1, 2, 3, 4, 8, 10, and 12. All the labs in this study areintroductory engineering labs offered at the beginning of students’ programs of study. Often,they are the students’ first engineering lab courses; therefore, instructors want to focus oninstrumentation, models, experiment, data analysis, psychomotor, communication, and ethics inthese courses. The data also shows that most courses devoted less focus to
Paper ID #42124Impact of Learning Transfer-focused Lab Writing Modules to the WritingInstructional Materials by Engineering Lab InstructorsDr. Dave Kim, Washington State University, Vancouver Dr. Dave Kim is Professor and Mechanical Engineering Program Coordinator in the School of Engineering and Computer Science at Washington State University Vancouver. His teaching and research have been in the areas of engineering materials, fracture mechanics, and manufacturing processes. In particular, he has been very active in pedagogical research in the area of writing pedagogy in engineering laboratory courses. Dr. Kim and his
methods extensively used in the NLM’s Open-i Search Engine for biomedical literature. Dr. Rahman has good expertise in the fields of Computer Vision, Image Processing, Information Retrieval, Machine Learning, and Data Mining and their application to retrieval of biomedical images from large collections. Since joining Morgan, Dr. Rahman also has been actively involved in basic educational and instructional research by infusing several interactive and active learning techniques in classroom to teach introductory programming courses with a goal to improve the retention rate in the CS department. Dr. Rahman has published a book, two book chapters and around seventy articles in peer-reviewed journals and conference
Paper ID #39484Lab Safety Awareness in Incident and Near-miss Reporting by StudentsParticipating in Engineering Societies: A Case StudyAudrey Erin ConcepcionRyan HekkerDr. Ean H. Ng, Oregon State University Ean H. Ng is an assistant professor of Industrial Engineering at Oregon State University. She received her Ph.D. in Systems and Engineering Management from Texas Tech University. Her research interests include engineering economic analysis, high reliability organization, safety engineering, peer effects in workplace safety, and performance measurement.Chukwudiebube AtagbuziaThomas L Doyle, Oregon State UniversityJenette K
project- and problem-based learning (PBL). He is a fellow of the American Society of Civil Engineers (F.ASCE), a member of the American Society for Engineering Education (M.ASEE), and a Board-Certified Environmental Engineer (BCEE) from the American Academy of Environmental Engineers and Scientists (AAEES). He is also an ABET EAC and ETAC Program Evaluation Volunteer (ABET EAC PEV) for civil engineering, environmental engineering, and environmental engineering technology programs.Dr. Youngguk Seo, Kennesaw State University Youngguk Seo is interested in the characterization of multi-phased transportation materials such as asphalt concrete, Portland cement concrete, and foundation soils. Research tools include
talent shortage.Recruiting the young generation to STEM and inspiring them to pursue related careers is crucial,but it is equally important to retain current STEM students and help them complete theirbachelor’s degrees successfully. In [1], two academic factors are identified that impact studentretention in engineering programs, namely: (1) difficulty of the curriculum and (2) poor teachingand advising. Engineering is known to be a difficult discipline. For the Accreditation Board forEngineering and Technology (ABET) accredited engineering programs, students are expected toachieve several learning outcomes including an ability to identify, formulate, and solve complexengineering problems by applying principles of engineering, science, and
exercises described here utilize the Pythonlanguage. The intent in using Python is to accommodate a broader variety of studentbackgrounds. It is anticipated that this will expand the potential use of the toolkit to includestudents from additional engineering disciplines such as mechanical engineering or industrialengineering where IoT technology plays an increasingly important role [9]. It could also enablethe use of the toolkit beyond traditional engineering education programs to include a broadercollection of STEM related disciplines.IoT Toolkit Components: The initial IoT learning toolkit developed during the project was abasic one. Due to supply chain issues at the time, it was based on a simple processor board, theRaspberry Pi [12]. The kit
groups and write reports on experiments performed [1],[2].Historically, the emphasis on laboratory in engineering education has varied [1] and relativelyless literature is available on laboratory. A review of the Journal of Engineering Educationliterature shows that during the first five years of the journal’s history (1993-1998) only 6.5percent of the papers used laboratory as a keyword. This number reduced to an even lower 1percentage of 5.2 in the next five years (1998-2002) [3]. Laboratory curricula are often designedwith the goals of 1) relating theory to practice [4-8] and 2) increasing the motivation of studentsto pursue engineering education [9,10]. One method of assessing laboratory goals
Paper ID #39597Redesigning a multi-disciplinary measurement lab and statistics course:An approach for navigating competing prioritiesDr. Nick A. Stites, University of Colorado Boulder Nick Stites is the Director of the Integrated Teaching and Learning Program at CU Boulder and an in- structor with the Integrated Design Engineering program. Dr. Stites is the principal investigator (PI) of the Denver-Metro Engineering Consortium , which is a partnership between local community colleges and universities to support engineering pathways for transfer students. He is also a co-PI for TeachEngi- neering.org, which provides no-cost
began with15 a modest transi on to allow students learn STEM concepts through hands-on scien fic team16 experimenta on. Year-by-year advancements have transformed the course to a predominantly project-17 based learning approach with minimal tradi onal lectures. Through such transforma ons, this course18 meets all ABET student outcomes criteria 1 through 7, as well as, the 6 key characteris cs of a successful19 problem-based learning experience provided by HQPBL organiza on. With the re-establishment of the20 Petroleum engineering bachelor’s degree program in 2015, Petroleum engineering freshmen joined the21 Analysis course. In fall 2023, Chemical and Petroleum engineering freshmen were combined for an22 Introduc on to Chemical
). Use of information technology in engineering education. In A. Johri & B. M. Olds (Eds.), Cambridge Handbook of Engineering Education Research (pp. 445- 466). Cambridge, UK: Cambridge University Press.3. ABET. (2022-2023). Criteria for Accrediting Applied and Natural Science Programs. Retrieved from Criteria for Accrediting Applied and Natural Science Programs, 2022- 2023 | ABET (last accessed 11/04/2022)4. Pollock, M. (n.d.). Glossary, Terminology, Definitions, Keywords. EngineerInclusion.com. Retrieved from https://engineerinclusion.com/what- vocabulary do-i-need-to-know-related-to-diversity-equity-and-inclusion/ (last accessed 11/04/2022)5. Atienza, F., & Hussein, R. (2022). Student perspectives on remote