Student Retention Study,” Journal of Engineering Education, Vol. 86, No. 1, 1997, pp. 7–16. 6. Y. Min, G. Zhang, R. Long, T. Anderson, M. Ohland, “Nonparametric Survival Analysis of the Loss Rate of Undergraduate Engineering Students”, Journal of Engineering Education, 100 (2), 349–373, 2011. 7. S. Habre and M. Abboud. “Students’ conceptual understanding of a function and its derivative in an experimental calculus course”, Journal of Mathematics Behavior, 25, 57–72, 2006. 8. J. Moore, “Undergraduate mathematics achievement in emerging ethnic engineers programme”, International Journal of Mathematical Education in Science and Technology”, 36(5), 529–537, 2005. 9. P.K. Subramaniam, M. Cates and G
. Moore began teaching Calculus- and Algebra-based Physics at Johnson C. Smith University in Charlotte, N.C. After two years as an Assistant Professor there, he began working at UAB in the School of Engineering, immediately addressing the leaky pipeline in the freshman and sophomore years by offering recitation courses in Calculus I, II, and III, while co-developing an Engineering Mathematics course with Dr. Gunter Stolz of the Mathematics Department. As the Co-Director for the Blazer BEST (Boosting Engineering, Science, and Technology) hub, he directly involves 800-1000 middle- and high-school students each year in the area of robotics. Educational Background: • B.S. in Physics • M.A. in Mathematics Education • Ph.D
Paper ID #8400NCAA Basketball Tournament Analysis for High School MathematicsDr. Adrian J Lee, Central Illinois Technology and Education Research Institute Dr. Adrian Lee received his Ph.D. in mechanical engineering from the University of Illinois at Urbana- Champaign in 2009, specializing in probability and risk analysis of aviation security systems. Dr. Lee served as a post-doctoral research engineer at Vishwamitra Research Institute, Center for Uncertain Sys- tems: Tools for Optimization and Management, and is currently President of Central Illinois Technology and Education Research Institute. Dr. Lee also holds an
AC 2010-2130: INCREASING STUDENT AND SCHOOL INTEREST INENGINEERING EDUCATION BY USING A HANDS-ON INQUIRY BASEDPROGRAMMING CURRICULUMGeoffrey Wright, Brigham Young University Geoff Wright is a Professor of Technology and Engineering Education at Brigham Young University. His scholarship centers on programming, multimedia pedagogy, and technological literacy. He has published and presented on these and many other technology and engineering related topics.Peter Rich, Brigham Young University Peter Rich is a Professor of Instructional Psychology and Technology at Brigham Young University. His areas of focus lie in the domains of programming, design, creativity, lateral transfer, and other
experience as a high school teacher at Colegio Bolivar. Her contributions in research in mathematics education, have focused mainly on the levels of difficulty associated with learning of school algebra, she has also led initiatives that contribute to inclusive curricular designs, based on the use of skills.Mrs. Ivonne Mar´ıa Su´arez, Universidad Icesi Mathematics of the National University of Colombia, Bogota D.C. and Master in Education, with Empha- sis in Research and Concentration in Education in Science, Technology, Engineering and Mathematics - (CTIM) of the Universidad de los Andes. I am characterized by being rigorous, autonomous and commit- ted to my work, I have ten years of experience in the education sector
technologies currently being developed hasprofound implications for engineering education. Our students have to face increasinglycomplex adaptive systems organized in recursive, nonlinear feedback loops. A morepronounced attention to nonlinear systems could thus enable our students to understand notonly the usefulness but also the limits of linearity, and facilitate the comprehension of morecomplex systems. This is especially true for mathematics, as differential equations play afundamental role in the modeling and analysis of complex systems.Courses in ordinary differential equations are part of the majority of undergraduateengineering curricula, and typically cover analytical solution methods for first-order andlinear higher-order differential
mathematical education in science and technology, vol. 42, no. 7, pp. 879–889, 2011.[10] J. Paterson, L. Sheryn, and J. Sneddon, “Student responses to team-based learning in tertiary mathematics courses”, in In proceedings of 15th annual conference on research in undergraduate mathematics education, vol. 2, 2013, pp. 619–626.[11] M. Awatramani and D. Rover, “Team-based learning course design and assessment in computer engineering”, in Frontiers in education conference (FIE), IEEE, 2015, pp. 1–9.[12] H. Murzi and O. P. Carrero, “Impact of team-based learning on promoting creative thinking in undergraduate engineering students”, in Frontiers in education conference (FIE), 2014 IEEE, IEEE, 2014, pp. 1–4.[13] L. K. Michaelsen, M. Sweet
Society for Engineering Education, 2020Introduction The National Council of Teachers of Mathematics [24] Technology Principle states that“[t]echnology is essential in teaching and learning mathematics; it influences the mathematics thatis taught and enhances student learning’’ (p. 24). Indeed, prior research suggests that integratingappropriate forms of technology into mathematics classrooms supports students’ learningexperiences [9, 11, 24], enhances student attitudes towards the subject of mathematics [2, 9] andbrings real-world problems into the classroom for students to explore and solve [18, 29]. This canbe done by creating an environment that promotes understanding, rather than memorization,through visualizations [5, 24], automated
of mathematics to complex systems is also a crucial aspect of engineering asdemonstrated by the Accreditation Board for Engineering and Technology (ABET) criteria: “Anability to apply a knowledge of mathematics, science, engineering, and technology toengineering technology problems that require limited application of principles but extensivepractical knowledge.” [7] These standards demonstrate the interdisciplinary nature ofengineering and the need to conceptually understand mathematics through problem-solving.The purpose of this study is to explore and discover what elements lead to good problem-solvingtasks in an active learning mathematics focused classroom. Elements were determined usinginterviews with mathematics instructors that
for the STEM Affinity Group, School of Natural Sciences and Mathematics, California State University, Bakersfield. Duties included teaching responsibilities in Undergraduate Biology. Additional duties included grant writing, manage- ment, and evaluation. RESEARCH INTERESTS: Include teaching and learning cognition skills, informal learning environ- ments and strategies, and science/technology curriculum design/implementation/evaluation. c American Society for Engineering Education, 2020 Lessons from a Lower Division Mathematics Co-Teaching SequenceAbstractStudents entering STEM programs at California State University, Bakersfield (CSUB) have alow level
contribute to improvingthe teaching of mathematics in university engineering programs.Engineering Courses in Brazil and in this particular case study In Brazil, the Ministry of Education (MEC) oversees engineering programs andeach engineering program consists of ten semesters, either from February to July orAugust to December. MEC’s National Curriculum Guidelines for the UndergraduateCourse in Engineering established that engineering programs should aim to providefuture professionals with three essential abilities: to apply mathematical, scientific,technological and instrumental knowledge to Engineering; to design and conductexperiments and interpret their results; and to identify, formulate and solve engineeringproblems. In 1995
Paper ID #25859A Systematic Review of Models for Calculus Course InnovationsDr. Mary Katherine Watson, The Citadel Dr. Mary Katherine Watson is currently an Associate Professor of Civil and Environmental Engineering at The Citadel. Prior to joining the faculty at The Citadel, Dr. Watson earned her PhD in Civil and Environmental Engineering from The Georgia Institute of Technology. She also has BS and MS degrees in Biosystems Engineering from Clemson University. Dr. Watson’s engineering education research focuses on tools for promoting cognitive flexibility, sustainable design thinking, and retention of diverse groups.Dr
AC 2009-141: INTERACTIVE INSTRUCTION, REMEDIATION, AND RESEARCHINMarilyn Reba, Clemson University Page 14.781.1© American Society for Engineering Education, 2009 Interactive Instruction, Remediation, and Research in Freshman Calculus via Pen-Technology and Web-based SoftwareAbstract Too many students in Freshman Calculus are unprepared for the pace at which new conceptsare introduced, are unable to implement prerequisite Algebra skills, and are unwilling to seekanswers to their questions in front of their classmates. We report on how the Department ofMathematical Sciences at Clemson University, through a
Sciences and director of the MuLF Center (Multimedia Center for Media in Education and Research at Berlin University of Technology (TU Berlin). Starting in 2001, her Berlin group has been a driving force behind the development of multimedia technologies at the university, implementing multimedia educational elements in the education of undergraduate students, in particular for engineering students. In May 2007, Sabina Jeschke has taken over a full professorship for Technology Services at the University of Stuttgart and is also acting as scientific and executive director (CEO) of the of Information Technologies of the University of Stuttgart. Additionally, she holds a co-professorship at the
is common practice to tailor such a traditional coursetowards an audience of engineering students. What becomes interesting, however, is teachingdifferential equations when only one section of this course is offered each semester and it ispopulated by students majoring in engineering, mathematics, chemistry, geology or evensociology.This paper discusses the methodology adopted to teach ordinary differential equations toundergraduate students at Lake Superior State University (LSSU). Since 2005 fall semester, the3-credit course has been team-taught by two instructors; one from the School of Mathematicsand Computer Science and one from the School of Engineering and Technology. The coursecovers traditional topics such as first-order equations
towards and beliefs about mathematics have been theorized to havesignificant impact on learning mathematics2-4. Various scholars have emphasized thatdispositions and beliefs must be studied in order to fully understand the development ofmathematical problem-solving ability5,6. Studies have shown that many K-12 and collegestudents come to believe that mathematics is a rule-driven, linear, solitary, school-only activity,in which problems have one correct solution that should be quickly evident and where trueunderstanding requires special talent 4,7. This counterproductive view can intimidate anddiscourage students and filter them out of science, technology, engineering, and mathematical(STEM) fields2,8,9. Acknowledging this problem, mathematics
them to teach mathematics for conceptual understanding. She currently coaches graduate students in the College of Education at Texas Tech University in their dissertation research and writing. c American Society for Engineering Education, 2016 Exploration of Hands-on/Minds-on Learning in an Active STEM Outreach ProgramAbstractThe importance of encouraging interest in science, technology, engineering, andmathematics (STEM) in students from underrepresented groups is well recognized.Summer outreach programs are a common means of accomplishing this goal, butbalancing program content between information and entertainment can be a challengingissue. Typically, programs include hands-on
atmospheric pressure on Mars. Dr. Boccio frequently collaborates with faculty from other departments on grants, pedagogical research, and course design. She has mentored numerous faculty from outside her department in the eLearning program.Dr. Dugwon Seo, City University of New York, Queensborough Community College Dr. Dugwon Seo is an assistant professor in the Engineering Technology Department at Queensborough Community College. Dr. Seo has been teaching engineering technology courses including digital circuit, computer applications, computer-aided analysis, and renewable energy. Her research interest includes various renewable energy, digital circuit system, remote sensing, and technology education.Dr. Sirin Budak
Natural Sciences" and director of the MuLF Center (Multimedia Center for "New Media in Education and Research") at Berlin University of Technology (TU Berlin). Starting in 2001, her Berlin group has been a driving force behind the development of multimedia technologies at the university, implementing multimedia educational elements in the education of undergraduate students, in particular for engineering students. In May 2007, Sabina Jeschke has taken over a full professorship for "Information Technology Services" at the University of Stuttgart and is also acting as scientific and executive director (CEO) of the "Center of Information Technologies" of the University of Stuttgart
Paper ID #32712Student and Teacher Perceptions of a Classroom Response System:Demographic Comparisons in a First Semester Calculus CourseDr. Patricia A. Ralston, University of Louisville Dr. Patricia A. S. Ralston is Professor and Chair of the Department of Engineering Fundamentals at the University of Louisville. She received her B.S., MEng, and PhD degrees in chemical engineering from the University of Louisville. Dr. Ralston teaches undergraduate engineering mathematics and is currently involved in educational research on the effective use of technology in engineering education, the incorpo- ration of critical
objects. This mediational role was visible in the teachers’ activity but it couldalso be visible in students’ mathematical activity. Understanding the mediational of VMTwG inlearning mathematics can inform our understanding of how learners interact with othertechnological tools for doing mathematics and how learners build their knowledge using thetools. This understanding can be extended to engineering students. Their learning’ activities canbe mediated epistemically, pragmatically, or pedagogically by technological tools. The differentmediations of tools in students’ learning activity allow us to see clearly how students engage inan activity, which helps educators to support students’ learning
AC 2012-5124: REAL-WORLD APPLICATIONS OF MATHEMATICALAND SCIENTIFIC PRINCIPLES IN THE CURRICULUM FOR COLLEGEAND CAREER SUCCESSDr. David I. Spang, Burlington County College David Spang is the Vice President of Academic Programs at Burlington County College in Pemberton, N.J. Prior to being named Vice President, Spang served as Dean of the Science, Mathematics, and Tech- nology Division. Spang holds a Ph.D. degree in materials science and engineering and a M.B.A. degree, with a concentration in innovation and technology management. Prior to joining academia, Spang spent nearly 20 years in R&D and business development.Dr. Kathleen Spang, Middlesex Boro High School Kathleen Spang has been a high school educator for
of Calculus.Dr. Eliud Quintero, Tecnologico de Monterrey (ITESM) PhD in Innovative Education by the Monterrey Institute of Technology and Higher Education (ITESM). Degree in Mathematics by UANL, in Monterrey, Mexico. Interested in research areas such as educational technology for the learning of mathematics, teaching - learning of calculus, visualization, analysis of multimodal production of signs.Prof. Pablo Guillermo Ramirez, Tecnologico de Monterrey Professor of Electrical Engineering department, Engineering School at Tecnologico de Monterrey, Mon- terrey Campus. His research and development areas are: Virtual and Augmented Reality, Physical In- terfaces and Electronic Systems, Human Computer Interaction
Paper ID #10475Flipping the Classroom to Address Cognitive ObstaclesJenna Tague, The Ohio State University Jenna Tague received her B.S. degree in Mathematics from Bucknell University and her M.S. in Math- ematics from Colorado State University. She is currently a doctoral student in mathematics education at The Ohio State University. She works with Greg Baker in the mathematics department on instruc- tional technology in a differential equations course for engineering students. Research interests include mathematical literacy for engineers and instructional technology.Prof. Gregory Richard Baker, Ohio State University
success, they do not do well and this often results in changes of the majorand loss of STEM career potential. This study explored student perceptions of success factorsimpacting pre calculus. Findings covered areas such as placement processes, impact of highschool preparation, learning resources valued and used by students, and student views onstrategic programs to enhance success.IntroductionEfforts to increase the STEM (science, technology, engineering, and math) workforce byenhancing the selection of and success in engineering and science majors have addressed manyideas and directions. An area of particular interest and significant potential is to increase thesuccess rate for those who have selected a STEM career. These efforts often fall
. (2008). Handbook of design research methods in education: Innovations in science, technology, engineering and mathematics learning and teaching. NY: Routledge. Page 25.410.10
an Assistant Professor from 1997 to 2005 and an Associate Professor from 2005 to 2010. During that time, he served as the Chairman for the Communications Engineering Department from 2005 to 2009 and the Dean of Student Affairs in 2010. He has worked in the areas of turbo coding and optical wireless channels. He worked as a consultant for Global Cardiac Monitors, Houston, Texas, 2000 to 2002. During the years 1991-1992, he worked in different projects at the Radio Frequency and Digital Design Division at the Physical Science Laboratory, Las Cruces, N.M., USA.Mr. Erhard Zorn, Technische Universitt Berlin Erhard Zorn studied physics and mathematics at the Berlin Institute of Technology. After receiving his diploma in
Engineering, or other collegesdemonstrated significantly different expectations on their success in Calculus. The surveyresults also indicated an interaction effect of students’ grade level of the association betweenthe colleges they are in and their expectation of their final score in the course.Keywords: Calculus, self efficacy, survey, statistical analysis I NTRODUCTIONAccording to the Insights and Recommendations from the Mathematics Association of Amer-ica (MAA), college Calculus holds a position as a “gatekeeper” to Science, Technology, En-gineering, and Mathematics (STEM) disciplines because the majority of STEM majors re-quire at least one semester of Calculus [1]. As part of this five-year study of
Paper ID #11131Perspectives of Pedagogical Change within a Broadcast STEM CourseMs. Angela Minichiello, Utah State University Angela Minichiello is a Principal Lecturer and doctoral candidate in the Department of Engineering Ed- ucation at Utah State University (USU). She instructs undergraduate engineering courses via distance delivery methods to students at the USU regional campuses. Angela is a registered professional mechan- ical engineer with 15 years experience as a practicing engineer. She earned a BSME degree from the U.S. Military Academy at West Point, a MSME degree from the Georgia Institute of Technology, and
AC 2008-1703: ENHANCING PRECALCULUS CURRICULA WITH E-LEARNING:IMPLEMENTATION AND ASSESSMENTJanet Callahan, Boise State University Janet M. Callahan is Associate Dean for Academic Affairs at Boise State University. She received a Ph.D. in Materials Science, a M.S. in Metallurgy and a B.S. in Chemical Engineering from the University of Connecticut. Her current research interests include freshman engineering programs, recruitment and retention issues in engineering, biomedical device development and the development and characterization of biomaterials.Seung Youn Chyung, Boise State University Yonnie Chyung is Associate Professor in the Department of Instructional and Performance Technology