concepts from mathematics and science in the context ofengineering design challenges. Age-appropriate mathematics are embedded in all of our ETKs,but we do not explicitly teach it. Rather, we use inductive learning principles via project-basedlearning challenges that lead students through exercises involving experimentation andmeasurement; data collection, analysis, and display; estimation and prediction; and budgetingand making trade-offs. For example, data representation and computation are essential skills forengineering problem solving. In working through the challenges, students gain practice andcomfort in applying the mathematics, logic, and problem solving skills needed to solveengineering design problems. We provide examples of how
industrial research managers. Its benefits are substantial to both ends. The benefits are mutual, particularly in terms of students who complete university programs and join industry research and development teams. The U-I collaboration, on one hand, brings in ideas in the academic forefront to acceler- ate technological advancement in industrial firms, on the other hand, strengthens the education of engineers and mathematicians, and economists at universities by providing research projects generated by real technological issues from industry. It is clear that this marriage invigorates the current stereotype engineering educa- tion through new industrial challenges. However, not many university-industrial ties are
an engineer degree in mathematics from the Technical University Graz, where he focused on software quality and software development process assessment and improvement. He is man- ager of HM&S IT-Consulting and provides services for SPiCE/ISO 15504 and CMMI for development as a SEI-certified instructor. He performed more than 100 process assessments in software development de- partments for different companies in the finance, insurance, research, automotive, and automation sector. Currently, his main occupation is a consulting project for process improvement for safety related embed- ded software development for an automobile manufacturer. On Fridays, he is teaching computer science introductory and programming
at improving entering students’ college readinessand mathematics placement. The small scale intervention, A Bridge to Calculus, is intended toimprove students’ placement from College Algebra into Calculus 1. The target population forthis effort are students with high school experience in a Calculus course but whose performanceon placement exams does not reflect this experience. At our institution this is a significantnumber of students and the goal of the project is to develop methods to address and acceleratestudents in this category. The course design, to take advantage of the students’ prior experience,emphasizes practice and mastery using a modified emporium course design and the ALEKSsoftware1. This intervention runs as a summer course
Paper ID #16670Using the Engineering Design Process to Complement the Teaching and Learn-ing of MathematicsDr. Aaron Brakoniecki, Boston University Dr. Aaron Brakoniecki is a Lecturer at Boston University. His research focuses on preservice teachers’ uses of technology (specifically, the Internet) to support their learning of mathematics. He is also involved with the Noyce BEST project at BU, which focuses on training engineers to become mathematics teachers in high needs classrooms.Mr. Michael Ward, Boston University Michael Ward is currently entering his senior year of Mechanical Engineering while simultaneously earn
meeting times where students are required to attend the assembly much like atraditional course. This past semester there were six sections of this course taught. All sixsections were led by UTAs, with four sections utilizing three person groups. The other twosections used the same materials and were led by UTAs without the three person groups. Thecourse also uses online interactive and educational software to deliver the material andautomatically grade the students’ assignments.1. IntroductionThe Partnership for Retention Improvement in Mathematics, Engineering, and Science(PRIMES) is a University of Louisville cross-college collaboration aimed at reducing attritionamong our STEM majors. This project unites faculty from the College of Arts &
. Her other interests include reading, photography, cooking, sewing, and various writing projects.Prof. Tonya Troka, Colorado Technical University Tonya Troka, with more than 10 years of experience working with online students, has been a leader of the adaptive learning implementation project since its initial launch in October 2012. As the University Program Director for General Education/Psychology, she works directly with the general education cur- riculum that was used to integrate the adaptive learning technology into the classroom. Troka has also provided insight into using the technology in the classroom and how success should be measured.Prof. John M. Santiago Jr., Colorado Technical University Professor John
engineering programs, math education, K-12 STEM curriculum and accreditation, and retention and recruitment of STEM ma- jors. c American Society for Engineering Education, 2016 Longitudinal Success of Calculus I ReformAbstractThis paper describes the second year of an ongoing project to transform calculus instruction atBoise State University. Over the past several years, Calculus I has undergone a completeoverhaul that has involved a movement from a collection of independent, uncoordinated,personalized, lecture-based sections, into a single coherent multi-section course with an active-learning pedagogical approach. The overhaul also significantly impacted the course content andlearning
interactions between student moti- vation and their learning experiences. Her projects involve the study of student perceptions, beliefs and attitudes towards becoming engineers and scientists, and their problem solving processes. Other projects in the Benson group include effects of student-centered active learning, self-regulated learning, and incor- porating engineering into secondary science and mathematics classrooms. Her education includes a B.S. in Bioengineering from the University of Vermont, and M.S. and Ph.D. in Bioengineering from Clemson University. c American Society for Engineering Education, 2016 Effects of an Intensive Mathematics Course on Freshmen
“see/recognize” geometry in theirsurroundings and in problem solving, in order to ground the concepts and help them develop asense the reasonableness in their answers. Estimating forced students to ignore their “tools” butthey were still able to provide a quality solution to the large-scale problem. The exercises castmath as a useful tool instead of an abstract language. These projects were well-received bystudents; surveys suggested that they felt like they were doing something with the math. Theseprojects were offered in classes that emphasized problem solving, but had more flexible contentand learning objectives.The next step was to identify ways to extend the underlying concept, by adding context intocontent rich foundation courses. One
mathematics graduate students. As of Fall 2016, I will be an Assistant Professor of Engineering and Science Education at Clemson Uni- versity.Dr. Lisa Benson, Clemson University Lisa Benson is an Associate Professor of Engineering and Science Education at Clemson University, with a joint appointment in Bioengineering. Her research focuses on the interactions between student moti- vation and their learning experiences. Her projects involve the study of student perceptions, beliefs and attitudes towards becoming engineers and scientists, and their problem solving processes. Other projects in the Benson group include effects of student-centered active learning, self-regulated learning, and incor- porating engineering into
mechanics related to fracture, composite materials and glaciology. In recent years, he has focused on issues of mathematical education and outreach and he has developed a wide range of K-12 outreach projects. His current interests include the mathematical education of teachers, the scholarship of outreach, computational mathematics, and complex dynamics.Dr. Sonya E. Sherrod, Texas Tech University Sonya Sherrod holds a B.S. and an M.A. in mathematics and a Ph.D. in curriculum and instruction. Her research interests include instructional approaches that help students (K-12) learn mathematics concep- tually and instructional strategies that motivate preservice teachers to relearn mathematics conceptually, to empower
helping students form studygroups9. The STEP retention project has resulted in an increase in 2nd-year retention rate toCEAS from a baseline of 57.4% (averaged 2000-2004) to 67.6% (averaged 2005-2009), and 5-year graduation and 6-year continuation rate in CEAS from a baseline of 32.3% to 42.4%.Details on how the CEAS-STEP cohorts are constructed for first-year students can be foundelsewhere10, 11.In Fall 2013, the CEAS-EXEP Cohort program was created. Students in CEAS-EXEP Cohortwere enrolled in the same section of Algebra II, and a First-Year Experience (FYE 2100)seminar taught by a CEAS academic advisor. Depending on a student’s intended CEAS major, athird course – Engineering Graphics – was added to the CEAS-EXEP Cohort schedule. Inaddition
where he and two colleagues presented their work related to the Aggie STEM project. He is currently involved in research in four school districts and more than 20,000 students and 80 teachers. His editorial work includes Associate Editor of the American Educational Research Journal, School Science and Math- ematics, and Middle Grades Research Journal and the Research Advisory Committee for the Association of Middle Level Education. He was selected as a minority scholar for 2007 by the Educational Testing Service and served as president of the Southwest Educational Research Association. He is the author or co-author of three books, several book chapters and more than 100 articles on mathematics education, quantitative