Professor ofInformation Systems at NJIT where he began his teaching career as a TA in 1985. He is also a member of theGraduate Faculty - PhD Program in Management, Rutgers University.VLADIMIR BRILLERVladimir Briller received Ed.D. from Columbia University in 1995. He worked as an Associate Research Directorat Education Development Center International Department in New York and as a Research Project Director at VeraInstitute of Justice in New York evaluating various programs in the US and Europe. Currently he is a Director ofthe Outcomes Assessment at New Jersey Institute of Technology.ROBERT FRIEDMANRob Friedman is Director of Undergraduate Programs for the College of Computing Sciences at NJIT. His researchinterests focus on the integration of
with science to and even greater degree o More so for science then math, it did not appear that the math aspects were a focus, but an after thought o Most of the ETKs could incorporate math in an applied way that would be incredibly productive to learning. o How can these units be intro/or filter into another unit as a culmination experience o There are ways to integrate Language Arts / Literature and History as well Even if it isn’t included in your units teachers can adapt on their own Reading lists to link science and math to language arts and literatureWhat additional features should we include in the ETKs? For
rubrics have been tested by several evaluators for both associate andbaccalaureate level student work. Page 9.239.1 “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Education”Written Report RubricThis rubric (see Table 1) was developed some years ago to help assess TAC-ABET Criterion 1g,“an ability to communicate effectively.” “Effectively” is a term that must be defined in order todevelop a working rubric. The initial focus during the rubric’s development was workplacewriting, as apposed to academic writing. Of
soft skills. There are many forms of experiential learning including co-operative education andinternships, lab experiences, project based coursework, field trips and service-learning. Theconcept of service learning has been interpreted in many different ways ranging from a singlecollege course where the students are required to spend one afternoon doing community service(i.e., picking up trash in the neighborhood, giving blood, etc.) to multi-year, service projects thatare fully integrated into the curriculum and include opportunities for reflection and interactionwith the organization and/or people being served. The former extreme provides limitededucational benefits, but is very easy to implement. The latter extreme has
Paper ID #26061The Industry Scholars Mentorship Program: a Professional Industry Con-nection Experience for Engineering UndergraduatesDr. Breanne Przestrzelski, University of San Diego Bre Przestrzelski, PhD, is a post-doctoral research associate in the General Engineering department in the Shiley-Marcos School of Engineering, where she innovatively integrates social justice, humanitarian advancement, and peace into the traditional engineering canon. Before joining USD in August 2017, Bre spent 9 years at Clemson University, where she was a three-time graduate of the bioengineering program (BS, MS, and PhD), founder of
required to developand implement a test procedure to verify specification compliance. A modest budget wasprovided to allow the design teams to purchase materials. The campus machine shop is very wellequipped and staffed and was available to help fabricate custom parts. 3-D printing of parts wasalso an option for the teams to use. An instrumentation amplifier circuit board kit was availablefor the students to integrate into their design. The project provided a very good means ofunifying many aspects of the course. The fabrication experience gained through this project isalso a valuable component of the mechanical engineering curriculum. This paper presentsexamples of student accelerometer designs and data from prototype testing. Equipment
. Fabricating the plasma torch required the use of computer-aided design tools, and close interaction with the model makers who ran the computer numericalcontrolled milling machine.Anticipating the bizarre behavior of plasmas, the students integrated the ability to tweak theirdesign after the first operational tests. After the lengthy design process, the test-and-refine phaseproceeded quickly. Each student contributed to the understanding and improvement of theperformance, engendering a spirit of teamwork, appreciation for diversity, increased problemsolving ability, and an appreciation for the value of a thorough design phase. In this paper webriefly review the plasma torch biomass reactor concept, explain the lessons learned by thestudents, and
research and gender and culture in science education. Her research interests include girls’ participation in science and engineering; teacher’s engagement in action research; and science teachers’ integration of the engineering design process to improve science learning.James D. Lehman, Purdue University Dr. James D. Lehman is a Professor of Learning Design and Technology in the Department of Curriculum and Instruction and the Director of the Discovery Learning Research Center at Purdue University. He is member of the leadership teams of two current NSF-funded projects, Science Learning through Engineer- ing Design (SLED) and Professional Development for Computer Science (PD4CS). He holds a B.S. and M.S. in biology and
students, and able to be performed both at home and in a campus laboratory. A seriesof hands-on bioinstrumentation lab activities were developed to lead student exploration in basicelectrical circuits, dynamic signals, frequency filters, and amplifiers, culminating in a workingelectrocardiograph (ECG) instrument built from individual components and performingcomparably to commercial devices. Students explore their heart signals under various conditions,and add features such as heartbeat detection, sound, and light feedback. Labs require minimalresources, only an inexpensive Arduino-based electronic sensor kit (50 (student Starter USB cable 1
Paper ID #9343From the mouths of students: two illustrations of narrative analysis to under-stand engineering education’s ruling relations as gendered and racedDr. Alice L Pawley, Purdue University, West Lafayette Alice L. Pawley is an associate professor in the School of Engineering Education with affiliations with the Women’s, Gender and Sexuality Studies Program and Division of Environmental and Ecological En- gineering at Purdue University. She has a B.Eng. in chemical engineering (with distinction) from McGill University, and an M.S. and a Ph.D. in industrial and systems engineering with a Ph.D. minor in women’s
, curriculum theorists, instructional researchers, and specialists in testing and assessment led by Lorin Anderson, one of Bloom‟s former students, published an updated version of Bloom’s Taxonomy. The revised version modified terminology, structure, and emphasis of the original taxonomy (see Figure 1) to provide “ „a clear
test novel vehicle designs with the ultimate goal of competing on thenational and international level.The Solar Splash competition is comprised of various events providing unique challenges thattest each part of the vehicle’s construction and performance. These competitions allow MTSUstudents the opportunity to compete against top engineering schools from around the world.The Solar Boat project is an integral experiment in the professional development of MiddleTennessee State University (MTSU) students. These essential experimental vehicles projectsprovide a friendly environment in which S.T.E.M students to exercise their classroom knowledgein a real-world setting and learn essential leadership and team collaboration skills. The studentsare
Session 1566 Linking College Engineering Courses With High School Preparation Donald L. Goddard PhD PE The University of Texas at TylerAbstractA Report titled “Expanding the Technology Workforce”1 prepared by the Texas HigherEducation Coordinating Board found that : “…Texas Students are not being sufficiently informed nor prepared for some of the most interesting, challenging, and lucrative careers in the new economy”1 “The recruitment of top quality high school students to the engineering profession is an area
/selected and analyzed by the team members. The nextparagraphs describe the principle support frame details.Figure 1 also showed a component design example of Front Framing Support in the steeringsystem. The front framing support was designed in an effort to create maximum rigidity for theforces incurred by spring and turning functions. There were three areas of concern that couldpotentially affect the integrity of the member. The first one was the compressive force of thespring acting upwards on the center of the support. The second area of concern was due to lateralforces that may be put on the support due to turning or any shift from side to side that is mayencounter. The last area of concern was stresses that may be formed from impacts caused
with all faculty, other Scholars, and high school teachers/students and served the community to better pre- pare the students of the public schools to meet the high standards of the Science, Technology, Engineering, and Mathematics (STEM) disciplines colleges Worked as a liaison between Mathematics and Science departments providing guidance and direct assis- tance to the teachers of Calculus, Math, and Physics to build bridges between subject matters providing a professional learning environment Designed a laboratory manual for the physics course with several hands on activities and increased the science aptitude of teachers by providing some presentations in different science topics which had an immediate and
Paper ID #38151Lessons Learned from Collaborative Initialization ofMachine Learning Class and STEM Contest with Universityand Industry PartnershipHoo Kim Hoo Kim, Ph.D., P.E., is an Associate Professor in the School of Engineering and Engineering Technology at LeTourneau University. He received his B.S. and M.S. degrees from POSTECH, Pohang, South Korea, and his Ph.D. from the University of Texas at Austin. His professional interests include teaching in the area of electromagnetics and RF, integration of faith and engineering, and entrepreneurship in engineering. © American Society for Engineering
Paper ID #43844Assessing Student Engagement, Success, Leadership and Teamwork Skillswith Respect to Team Role Selection and ExecutionDr. Edward Latorre, University of Florida https://www.eng.ufl.edu/eed/faculty-staff/edward-latorre-navarro/ ©American Society for Engineering Education, 2024 Assessing Student Engagement, Success, Leadership and Teamwork Skills with respect to Team Role Selection and ExecutionAbstractThe importance of working in teams throughout the engineering education curriculum has beenwell documented in research. Therefore, most engineering curricula conclude with a team-basedcapstone design
bachelor studies such different subjects as Ultrasonic, Electromagnetic, Optical,Thermal, and other Methods of Testing during four years. In order to form necessary systemof knowledge and skills (see Fig. 2), connect fundamental and applied knowledge, we bringinto the curriculum a series of integrated subjects (see Appendix A). For example, they areNDT Systems, Microcontrollers in NDT Systems, Scanner Designing for NDT Systems, andothers. The content of these subjects helps students to find common features of the differenttesting methods compare and determine preference and disadvantage each of them, and findthe most appropriate field for application.In order to form students’ creative thinking we apply following system. The first-yearstudents get
for their intellectualdevelopment as engineers and incurs a lapse in interpersonal networking.Charlie directly referred to engineering and physics faculty as negatively influencing their studentexperience more than the other faculty they interacted with at their institution. These interactionsinfluenced Charlie’s development as an engineer, as they felt unable to create interpersonalrelationships with some of their engineering professors. Marra and colleagues [2] emphasized theimportance of classroom climate, the difficulty level of STEM curriculum, and teaching andadvising for student retention and success. Students’ inability to build connections with theirfaculty resemble classroom environments that are classified as “chilly” based on its
balances on the first day of the Statics course. First,describe problems associated with the design of buildings and bridges, and artificial limbs…"In our opinion, every lecture should begin with "why" students should study that topic. Real lifeapplications and connecting the topic to other courses in the curriculum increases studentmotivation and attention.3. Focus on student outcomes and critical content. Classroom materials for an individualcourse topic should be based on “critical content” (key points for desired student outcomes andhighlighting difficult material) and not on a philosophy that “more is better” (Danielson &Danielson, 1994; Wankat & Oreovicz, 1998). This approach also aligns with NSF’s initiativesfor systemic change in
introductory courses in semiconductor physics.Studies of introductory semiconductor courses have indicated that geometries, geometry-dependent properties of crystals, and an analysis of electrical, thermal, optical, orchemical energies in the electronics world, are among the common topics taught inintroductory courses in semiconductor physics. A review of available software tools forteaching and learning semiconductor geometries indicates that there is a lack of highlyeffective visualization methodologies for commonly used semiconductor materialstructures. The purpose of this paper is to describe a virtual environment tutorial that hasbeen developed to supplement a typical course in semiconductor physics
appreciation for what they are learning, but I am also providing them with practicable skills which will help prepare them for life. Key words: education innovation, experiential learning, spreadsheet modelingIntroduction—the West Point Way Undergraduate cadets at the United States Military Academy are required to demonstrateproficiency in six domains of knowledge: engineering and technology, math and science,information technology, history, culture, and human behavior. To ensure they acquire therequisite skills in these six domains, every cadet takes a number of prescribed courses thatconstitute the core curriculum. While the academic program is very structured, it is intended toprovide cadets with “a broad liberal education
submit a projectreport. One of these manufacturing processes is a CNC turning process. The turning project ofthis course has historically had extensive average time for completion. As such, it was deemednecessary that a way to improve the quality of a turning project be generated. Industrial QualityControl (IENG 316) is also taught as part of the industrial engineering curriculum, and it wasdetermined that the quality tools in this course should be used to evaluate the initial performanceof the turning project. An executive activities sheet has been developed for this IENG 303turning project to collect data about the time required to finish this project and to check if thatwas meeting the expectation or not. The turning projects of Spring 2021
practices that support learning and educational attainment for all students” (p.277). This principle guides computing education policies, standards, curriculum, and teachingmethods, driving initiatives like ”Computer Science for All” [3].Equity-enabling education research is research that supports the needs for achieving equity ineducation, including providing ...the evidence needed for decision-makers and educators to advocate, support, and deliver computing education in K-12 classrooms that lead to equitable access, participation, and experiences (and therefore outcomes) among all students. Equity-enabling education research, by its very nature and necessity, must meet quality standards to provide meaningful evidence for
paradigm of engineering curriculum towards a more well-roundededucation. The commonality among these three documents is improving students’ problemsolving techniques. The future will inevitably bring unanticipated crises; engineers will need toidentify the problems and collaboratively formulate innovative, feasible solutions. This researchhypothesizes that service-learning can serve as a mechanism that will allow students to developthe necessary problem solving skills. To investigate this hypothesis, an education assessmentinstrument is employed to examine whether students who have participated in service-learningprojects have stronger analytical, practical, and creative abilities than students who have onlybeen exposed to the conventional
NMSU (Las Cruces) and BS in mechanical engineering from BUET (Dhaka). His interest includes computer applications in curriculum, MCAE, mechanics, instrumentation & control, and fluid power. He is also a Registered Professional Engineer in the State of Ohio and affiliated with ASME, ASEE, SME and TAP. Page 22.1524.1 c American Society for Engineering Education, 2011 Three Dimensional Surface Model from Laser Scanning of Proving Ground RoadAbstract: This project goal is to creating a 3D surface model from scanning of an existing roadproving ground for
Session 1430 Creating a Catalog and Meta-Analysis of Freshman Programs for Engineering Students: Part 1: Summer Bridge Programs Matthew W. Ohland, Elizabeth R. Crockett General Engineering, Clemson University, Clemson, SC 29634AbstractSpecial programs and the curriculum itself are two primary ways to improve the freshman yearexperience for engineers. Following a SUCCEED-sponsored Freshman Engineering ProgramsBest Practices Conference held in Charlotte, NC, in May 2000, a catalog and meta-analysis offreshman programs for students in US engineering colleges is underway. This paper will
2006-1442: THE QUALITY OF SOLUTIONS TO OPEN-ENDED PROBLEMSOLVING ACTIVITIES AND ITS RELATION TO FIRST-YEAR STUDENT TEAMEFFECTIVENESSTamara Moore, Purdue University Tamara Moore is a doctoral student in Engineering Education at Purdue University. She received both her B.S. in Mathematics/Mathematics Education and M.S. in Mathematics Education from Purdue University in 1996 and 2001, respectively. Before pursuing her doctorate, Tamara taught high school mathematics for seven years. Her research interests include curriculum development, the learning of complex problem-solving, teamwork, integration of engineering into the K-12 classroom, and operations research.Heidi Diefes-Dux, Purdue University
. Before embarking on my doctoral journey, I worked as a science teacher and research assistant for several years. I made the decision to leave my teaching position to pursue a doctoral education, and I am currently serving as a research and teaching assistant for a STEM education course in my department. My research interests primarily lie in the fields of STEM education, quantitative methods, psychometrics, and large-scale data analysis. At present, I am actively engaged in a project focused on mentoring relationships between Ph.D. students and their advisors.Dr. Hsien-Yuan Hsu, University of Massachusetts, Lowell Dr. Hsien-Yuan Hsu is an Assistant Professor in Research and Evaluation in the College of Education at
dissertationwork. These findings provide a useful background for future graduate student developmentprograms, and outline the successful (and also less effective) components of this GK-12program.Bibliography1. Graduate STEM Fellows in K-12 Education. http://www.gk12.org/. Last accessed December 14, 2012.2. Mitchell-Blackwood, J., Figueroa, M., Kokar, C., Fontecchio, A., and Fromm, E. (2010), “Tracking middle school perceptions of engineering during an inquiry based engineering science and design curriculum.” Proceedings of the 2010 American Society for Engineering Education Annual Conference.3. S. Thompson, (2006). “Examining Change in Underrepresented Minority Students’ Perceptions of Engineering Sciences as a Result of a GK-12 Collaboration