peer-reviewed publications. He is also interested in developing educational paradigms that allow undergraduate and entry-level graduate students to participate in rigorous computational intelligence research. Polikar is an Associate Editor of IEEE Transactions on Neural Networks and Learning Systems.Dr. Kevin D. Dahm, Rowan University Kevin Dahm is an Associate Professor of chemical engineering at Rowan University. He received his B.S. from WPI in 1992 and his Ph.D. from MIT in 1998, and joined Rowan in 1999. He has received the Joseph J. Martin Award, the Raymond W. Fahien Award, the PIC-III Award, the Corcoran Award and the Mid-Atlantic Section Outstanding Teaching Award from ASEE.Dr. Ying Tang, Rowan University
) coil, f) BNC, alligator and bananacables, g) HTC Vive Controller, h) capacitor on breadboard, i) hand replacement for controller.Figure 3 shows a close up of the oscilloscope, capacitor, and function generator to provide anexample of the detail viewable in the VR experience.Figure 3. Close-up of oscilloscope panel, capacitor/breadboard, and function generator panel.Not to scale. Figure 4 shows a screenshot of the second prototype experiment. This experiment is usedto investigate the tensile strength and stress-strain response of materials.Figure 4. Screenshot of the VRILE for investigating tensile strength of materials. a) tensiletesting machine, b) DAQ computer monitor, c) instructional tablet d) polymer specimen, e)reflective tape, f
)IntroductionIt is typical for an introductory undergraduate course in geotechnical engineering to exposestudents to the subjects of lateral earth pressure and bearing capacity. An understanding ofbearing capacity and lateral earth pressure is essential for the design of foundations, retainingwalls, and anchoring systems. This paper describes ongoing work to develop equipment,software, and hands-on teaching activities that apply Digital Image Correlation (DIC) to enhancea student’s first exposure to lateral earth pressure and bearing capacity. The approach describedherein enables students to observe the relationship between load acting on the soil and structuraldisplacement for conditions similar to those of a loaded footing, retaining wall, or
course. Theseactivities were unique because they focused on entrepreneurial mindset (EM) principles and thealumni’s current careers, rather than directly on course material. Their careers consisted ofconsulting, water treatment, enzyme manufacturing, and data science/project management. Thejigsaw activities provided a way for students to be more engaged in class, develop their criticalthinking skills, and collaborate with their classmates in a low-stakes atmosphere on an ungradedactivity. Student feedback indicated appreciation for real-world problems, as well as learningabout economic factors and decision-making in industry. Additionally, survey results throughoutthe semester showed a growth in students' EM, suggesting that jigsaw activities
Copyright 2002, American Society for Engineering Education”However, in a classroom there will always be a mixture of people who find themselves related toboth ends of every dimension, which indicates that the activities designed by the instructor mustaddress every type of student. This also makes indispensable that the instructor becomes awareof his own styles and preferences, because those are usually favored by him, to accommodate amore varied mixture of styles in the design of the class. DIMENSION PREFERENCE FOR THE INSTRUCTOR... Sensing Emphasize in applications and connections to the real world. Preferred Type Hands-on work following algorithms. Facts and
, itsimpact on lower-GPA students remains uncertain, warranting further research into differentiatedinstruction and support systems.Beyond contextualized instruction, factors such as teaching style, grading practices, and studentdemographics may have influenced outcomes. Future research should examine how instructionalmethods and assessment alignment impact student performance. Additionally, qualitativeanalysis—using student reflections or automated sentiment analysis—could provide deeperinsights into engagement with contextualized learning.Acknowledgement:This material is based upon work supported by the National Science Foundation under Grant No.1801039.References[1] M.-T. Wang and J. L. Degol, "Gender Gap in Science, Technology, Engineering, and
Paper ID #21414Implementing Best Practices and Facing Facilities Realities: Creation of aNew University MakerspaceMadeleine F. Jennings, Texas State University Madeleine Jennings is an undergraduate researcher at Texas State University studying Manufacturing Engineering. Her research interests include ferrous metallurgy, ferrous continuous casting process im- provement, women and minority retention in STEM fields, and the effects and implications of university maker spaces. She has published at AISTech, Iron & Steel Technology, and ASEE, and is interested in pursuing graduate studies in Materials Science &
quality constraints. A plan was developed to preparetechnicians with skills such as: design, materials, manufacturing processes, project management,quality, and logistics and supply chain management. This plan took the form of a certificateprogram at the Houston Community College. Courses in the certificate program could be usedfor some of the requirements of an Associates of Applied Science degree in ManufacturingEngineering Technology. The program could also lead to a Bachelors of Science degree inManufacturing and Mechanical Engineering Technology at Texas A&M.The need for additional STEM personnel has been [1-3] well established. This is especially truein manufacturing which has in the past had negative perceptions associated with it
. 1. Support mechanisms such as the existence of a water board, a partnership with a local NGO, and strong personal relationships with community members can contribute greatly to sustaining a small-scale project. 2. Engagement in hands-on projects in a real-world environment helps students to better understand the engineer's role in society and transition to a successful professional career. 3. Student reflections show how these experiences have enhanced their education beyond the traditional classroom experience.AcknowledgmentsThe authors would like to thank the Tufts University School of Engineering, the Tufts Institute for GlobalLeadership, and the Jonathan M. Tisch College of Citizenship and Public Service
topics such as production design and, mechanics,engineering material, finite element analysis, mold design, enterprise CAD managementand others.As one example, first-semester students initially learn CAD techniques in a basic servicecourse taught by the Computer Graphics department. They subsequently migrate toProduction Design and Specifications where they polish 3D skills as they learn about fits,tolerances and other aspects of design for manufacturing and design for assembly.In Applied Strength of Materials and Experimental Mechanics, students utilize the sameCAD application to initially construct 3D models and then analyze those models using avariety of analytical techniques.Similar to capstone experience, students later in CAD in the
were created based on the synthesized content above. Duringthe follow-up meeting with the advisory board, each course was reviewed to observe any gaps ormissing topics from an industry perspective, and the board members’ feedback was collected oncourse topics and hands-on lab tools and objectives. Nearly all advisory board members were inattendance to gather synchronous feedback, and two met with the project team separately toprovide additional time for a deeper analysis and overall feedback. The meeting served severaloutcomes to improve course outlines, develop course and lab objectives, and refine studentlearning outcomes.Faculty reviewed the workload of each course to define the scope and ensure a balance betweencourse materials and hands
-level engineers when encountering electromagnetics material. Thispreliminary study focuses on electrostatics content in a junior level electromagnetism course inan Electrical Engineering (EE) program. Students find electromagnetism to be one of the mostdifficult courses in the upper-level EE curriculum. Electromagnetics is difficult for students tolearn due to the required competency with vector calculus. Topics are especially challenging toteach without tangible applications [3].The authors created an active learning environment within a junior-level Electromagneticscourse by utilizing in-class tutorials with an electronic response system. The intent was toincrease student’s ability and confidence in performing vector calculus required to
the Advisory Board, who approved adopting the a-i ABET Student Outcomesdescribed in the Engineering Technology Accreditation Commission Criteria for 2013-146 asProgram Outcomes. A program specific PO was added to express outcomes related to thephotonics and laser technology field: Program Outcome j. “graduates will demonstrateknowledge of and hands-on competence with various optical components and lasers, and theirapplication to the safe building, testing, operation, and maintenance of laser and electro-opticalsystems”.The courses in the curriculum were fleshed-out next to provide students the fundamentalknowledge in the discipline followed by applications and current technology examples. The PIhas consulted for this purpose with grant
; Wunsch, D. (2009, June),Technology Applications and Research (T STAR) LLC with Introducing Robots Paper presented at 2009 Annualsome funding provided by NSF ITEST grant (award number Conference & Exposition, Austin, Texas.1614496) and lab donation grants from Texas Instruments. https://peer.asee.org/4581 References [4] Mataric, M., & Fasola, J., & Feil-Seifer, D. (2008,[1] Porter, J. R., & Morgan, J. A., & Johnson, M. (2017, June), Robotics As A Tool For Immersive, Hands On June), Building Automation and IoT as a Platform for Freshmen Engineering Instruction Paper presented at Introducing STEM Education in K-12 Paper presented
postdoctoral researcher in Engineering Education at Arizona State University. She graduated with her Ph.D from North Carolina State University in the Fall of 2020. She is pursuing a career supporting socially just causes. Her research interests include raising awareness for and supporting students, faculty, and staff with gender-expansive, romantic, and sexual minority identities.Adam Kirn (Associate Professor) TBDKelly J Cross (Assistant Professor) Dr. Kelly J. Cross is a data-informed, transformational mission-focused culturally responsive practitioner, researcher, and educational leader. She earned her Bachelors of Science in Chemical Engineering from Purdue University in 2007 and Masters of Science in Materials Science
Classroom: A Win-Win-Win Strategy for Teaching with TechnologyAbstractAs costs of higher education soar and many universities face uncertain funding models,institutional pressures have increased to improve instructor efficiency. At the same time, U.S.industry leaders and leading educators have called for improvements in engineering educationbased on more interactive, hands-on student learning experiences. Although many efforts havebeen made to take advantage of technology to either improve student learning or to maintainstudent learning while increasing instructor efficiency, few approaches have been shown toimprove both learning and efficiency. A teaching method is proposed to improve studentlearning and increase student satisfaction
the well-defined expectations of manyteacher-centered classrooms to the open-ended expectations of a project-centered environment.IntroductionWhen I was a sophomore taking engineering physics, the following equations were carved into mydesk: Engineering = Physics + Common Sense Physics = Engineering – Common SenseWhile I’ll avoid comment on the second equation, I believe the first equation describes thechallenge of contemporary undergraduate engineering education. Engineering students must learnthe necessary scientific content that supports their chosen discipline. But in order to effectivelyand successfully perform as engineers, students need to graduate with some “common sense”when
(European Association of Universities in Marine Technology). It was found that the TU Delftoffered a much broader focused bachelor and master programme than the other memberinstitutes. Therefore, the decision was taken to focus on a small number of programmes thatoffer more similar content to enhance the relevance of the benchmark. The following fourprogrammes were selected based on the fact that these studies are the most closely relatedones to our own programme. Each teaches a mix of marine engineering and naval architecturein a programme of a similar duration: 1. Ship Design at the Norwegian University of Science and Technology (NTNU) 2. Naval Architecture and Marine Engineering at the National Technical University of Athens (NTUA) 3
withtheir target industries. There was an obvious need for faculty to remain cognizant and betterunderstand the work assignments that their students would be expected to perform and industryexpectations that their graduates were expected to meet. Also, new criteria for meeting TAC ofABET standards for our Engineering Technology programs included an inherent requirement forfaculty to have a greater understanding of the expectations of technicians and technologistsemployed in today's industries.This paper will illustrate how one school department has changed its program by bettermanaging classrooms such that students supplement more traditional assignments with hands-ontraining. It will emphasize improved training provided by instructors willing to
Jersey, and New York. At the time of theinterviews, the women lived across the United States, from Maine to Florida, Michigan toTexas, and New York to Washington.The women included 20 who had received an undergraduate STEM degree and two otherswho received their first undergraduate degree in theater design and later worked ininformation technology. The undergraduate STEM degrees included: Chemical Engineering (8) Electrical Engineering (3) Math and Computer Science (2) Industrial Design (2) Mechanical Engineering (1) Metallurgy and Material Science (1) Psychology (1) Chemistry (1) Physics (1)In addition, details on each woman’s life were documented including advanced degrees,marriages, and
properties, as a function of formulation and pH,will be examined. Students performing this experiment have the opportunity to vary thehydrogel structure in attempt to optimize the hydrogel for oral insulin delivery. Through thisexperiment, students will gain hands-on experience in an environment that mimics anundergraduate research experience. They will practice identifying important design variables, inthis case, for drug delivery. The students will also practice translating quantitative laboratorymeasurements into data that can be used to evaluate a design. Lastly, they will learn aspects ofpolymer design and characterization, which is translatable to other areas of material science andengineering
Wildfire Firefighting Resources.....................................................................1Emerging Paradigms in Engineering and Science Education ........................................................ 19Critical Thinking Pedagogy in Teaching Computer Hardware Design Course .............................. 28Engaging Community College Students in Earthquake Engineering Research on Real-Time HybridSimulation ..................................................................................................................................... 38Teaching Machine Design Using HILTI Machine Tools Industry/University Collaborative Project
is a Professor and Chair in the Engineering Sciences and Materials (CIIM) Department at the University of Puerto Rico, Mayag¨uez Campus (UPRM). Dr. Santiago earned a BS and MS in Industrial Engineering from UPRM and Ph.D in Engineering Education from Purdue University. Dr. Santiago has over 20 years of experience in academia and has been successful obtaining funding and publishing for various research projects. She’s also the founder and advisor of the first ASEE student chapter in Puerto Rico. Her primary research interests include investigating students’ understanding of difficult concepts in en- gineering sciences, especially for underrepresented populations. She also works in the development and evaluation
in a Problem-Based Learning Environment. Instructional science, 35(1):41–72, 2007. [8] Nicola Yelland and Jennifer Masters. Rethinking Scaffolding in the Information Age. Computers & Education, 48(3):362–382, 2007. [9] Susanne P Lajoie. Extending the scaffolding metaphor. Instructional Science, 33(5-6):541–557, 2005.[10] Penny L Beed, E Marie Hawkins, and Cathy M Roller. Moving learners toward independence: The power of scaffolded instruction. The Reading Teacher, 44(9):648–655, 1991.[11] Agnes Germaine d’Entremont and Juan Abell´o . Creating problem taxonomies for webwork in mechanical engineering. In ASEE Annual Conference, 2018.[12] Katie Evans and Paul Hummel. Assessing the Effect of Online Homework on Student
asked to make a recommendation as to which ofthe chosen cache organizations yields the best performance for the benchmarks under studyin terms of average miss rates based on the simulation analysis. Page 6.745.10Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright c 2001, American Society for Engineering Education6.3 EvaluationsThe authors have surveyed students that had been exposed to Web-based experiments withtools in computer architecture classes. The survey consists of two questionnaires handed out Figure 3: Parallel speedup plot of the SMP educational module
industry.2. Provide students with a strong foundation for graduate studies in ME or AE and related fields.3. Provide students with experience in using computers and information technology in problem solving and learning.4. Provide students with hands-on experience through laboratory courses.5. Develop students’ ability to communicate and work effectively in teams.6. Develop students’ understanding of multicultural and global perspectives, as well as ethical choices inherent in the engineering profession. Supporting Outcomes of the BSME and BSAE ProgramsGraduates of these Programs will:1. Have an ability to apply knowledge of mathematics, science and engineering.2. Have an ability to design and conduct experiments, as
, graduate student enrollment in engineering and computer science has increased 25% while at the same time becoming more selective. As a faculty member, his principal research activities focus on the development of microstructurally-informed, continuum-level models to predict behavior and durability of materials and structures subjected to complex conditions. To support these activities, he has accumulated funding from sources such as: NSF, ONR, ARO, AFRL, NASA, and numerous industrial partners. Ali is a four-time awardee of the Air Force’s Summer Faculty Fellowship with on-going collaborations with colleagues at AFRL in Wright-Patterson, Ohio. He and his students have authored over 150 peer-reviewed technical articles and
) and the work of Mazur at Harvard has shown how thecombination of an electronic classroom communication system and learning methodologyinvolving a series of questions and feedback can enhance understanding and motivation inlarge classes.By building on the developments in the US, the Mechanical Engineering Department at theUniversity of Strathclyde (UK) has for the past 4 years been exploring the use of interactiveteaching techniques. The implementation of the techniques was introduced over a significantnumber of classes within the Department of Mechanical Engineering and in a re lativelyformal manner. The difficulties associated with the teaching and learning of Thermodynamicsand Fluid Mechanics was regarded as a good challenge for the
can apply them to problem-solving andprogramming.historic commitment and record of service in meeting the educational needs of Los Angeles’sdiverse communities. Aligned with the University’s commitment, one of the goals that theCollege of Engineering, Computer Science, and Technology (ECST) at California StateUniversity, Los Angeles has set is increasing the percentage of women to 25% by 2025. TheECST currently has a female enrollment of only 15%, and the department of computer sciencehas less than 12% of female students, which is below the national average of 20% [9]. To reachits goal, California State University Los Angeles has been making proactive efforts to broadenparticipation in Engineering and Computing.These efforts include the
and minute papers. The version of kinesthetic learningconsidered here is a sub-set of active learning where students will be out of their seatsand quite literally active. Second, the term “kinesthetic learning” is in common use insome education circles. Within those circles, the focus is typically on learning a manualskill or refining muscle coordination. Engineers must learn to build physical structures,often using their hands to perform complex tasks. While a great deal of learning takesplace in becoming competent at wire wrapping and soldering a circuit board, connectingand sealing tubes in a flow loop or drilling a precise hole in a section of sheet metal, thelearning is largely a fine tuning of muscle memory. In most curricula, these