Paper ID #11524Collaborative Research: Integration of Conceptual Learning throughout theCore Chemical Engineering Curriculum – Year 4Dr. Milo Koretsky, Oregon State University Milo Koretsky is a Professor of Chemical Engineering at Oregon State University. He received his B.S. and M.S. degrees from UC San Diego and his Ph.D. from UC Berkeley, all in Chemical Engineering. He currently has research activity in areas related engineering education and is interested in integrating technology into effective educational practices and in promoting the use of higher-level cognitive skills in engineering problem solving. His
Paper ID #14060Enhancing the STEM Curriculum Through a Multidisciplinary Approachthat Integrates Biology and Engineering: Biomaterials ModulesEthan Sclarsky, Rensselaer Polytechnic Institute Chemical Engineering undergraduate student at Rensselaer Polytechnic Institute.Tyler Marquis Cooper, Rowan UniversityDr. Johannes Strobel, Texas A&M University Dr. Johannes Strobel is Director, Educational Outreach Programs and Associate Professor, Engineering & Education at Texas A&M, College Station. He received his M.Ed. and Ph.D. in Information Science & Learning Technologies from the University of Missouri. His
of Communication, Purdue University Josh Boyd is associate professor and director of undergraduate studies at the Brian Lamb School of Com- munication, Purdue University. He frequently teaches writing-intensive classes, and he studies ways to improve writing and assessment of writing across the curriculum. Page 26.1382.1 c American Society for Engineering Education, 2015 Something to Write Home(work) About: An Analysis of Writing Exercises in Fluid Mechanics TextbooksAbstractWriting has been identified as a critical skill and element of the engineering
Paper ID #13734Implementation of an Undergraduate Engineering Curriculum to Prepare21st Century LeadersMs. Katherine Agnew Trevey, Marquette University Ms. Trevey currently serves as the Director of Engineering Leadership Programs in the Opus College of Engineering at Marquette University. She has more than 10 years of experience creating leadership development programs for undergraduate students. In early 2014, she was hired to run the newly created E-Lead Program (a three-year people-focused, technical leadership program offered to undergraduate students in the College of Engineering). Her responsibilities include
Paper ID #11547Design of an extended engineering curriculum to increase retention and eq-uityProf. Diane Grayson, University of Pretoria Diane Grayson is Extraordinary Professor of Physics at the University of Pretoria and Director: Institu- tional Audits at the Council on Higher Education, which is responsible for quality assurance in higher education in South Africa. She designed the ENGAGE program when she was academic development manager in the Faculty of Engineering, Built Environment and Information Technology at the University of Pretoria. ¨Dr. Erika Muller, University of Pretoria, RSA Dr Erika M¨uller
Ecuadorian villages and twovillages in Panama that did not have a reliable water source. The paper will discuss the creationof a new course that allows the university to offer an international design experience within thetraditional Capstone course, and it will further compare the outcomes of the international servicelearning frameworks to the standard senior design projects.IntroductionMany Engineering programs are becoming interested in including an international servicelearning project into the school’s curriculum [1-6, 8, 9, 12-20]. There are many components in atypical international service learning experience that can benefit both the students and the school.[7, 10] One of the first and well documented benefits comes from the value project
more educational innovations that have a significant impact onstudent learning and performance9. The dominant approach for engineering and engineeringtechnology education in the US is based largely on faculty intuition drawn from personalexperiences as students and teachers.This research takes a pragmatic approach to reshape a curriculum of an Industrial EngineeringTechnology program. It uses the four pillars of manufacturing knowledge to suggestimprovement opportunities. The paper proceeds by discussing the method used to carry out theresearch. After that it provides a summary of the results. The paper concludes by a discussion ofthe key findings and how to proceed in implementing the identified changes to the curriculum.MethodThis paper uses
time to cladding. This would also be valuable. Some additional classroom time and coordination with the architecture practice course might help.ConclusionsARCE 316, Structural Integration in Architecture, was introduced in Spring Quarter 2014.Significant effort was expended in the preparation of the course, including the development ofgoals, learning outcomes and content, frequent consultation and coordination with theArchitecture Department and review by the Architectural Engineering Curriculum Committeeand faculty. The effort paid off. Based on reviews of completed assignments and exams,discussions with architectural faculty and an end-of-quarter student survey the course is believedto have been a success and met its goals
how creativity will be integrated intotechnical content in order to graduate engineers capable of leading the future.Creativity can be defined in many different ways, and is often confused with simple problemsolving5. North American engineering institutions such as Ohio State University and PurdueUniversity have developed tools for assessing creativity within an engineering design context2.These types of tools are important assets for instructors attempting to incorporate and gradecreativity within a design curriculum, and also provide recommendations for integratinginterdisciplinary creative skills. Creativity can also be integrated through entrepreneurial productdevelopment and gamification. Gamification is the process of applying game
. Page 26.992.1 c American Society for Engineering Education, 2015 Integrating Research in Sustainable Energy and the Environment across Disciplines through a NSF funded REU SiteAbstract:This REU Site supported by the National Science Foundation's Division of EngineeringEducation and Centers is designed to develop and implement a model environment formultidisciplinary collaborative efforts where research and education are tightly integrated aroundthe different facets of energy research. It seeks to provide an impactful summer researchexperience in the emerging field of sustainable energy and expand research opportunities forunderrepresented students. The program is structured to teach students how
interdisciplinary approach of teaching and learning, looking to close the gap between how knowledge is created and how students learn. His main research areas are a) models and modeling, b) learning environments and c) problem solving. Page 26.353.1 c American Society for Engineering Education, 2015 Closing the gap between physics and calculus: Use of models in an integrated courseAbstractThis study focuses on bridging the gap between physics and mathematics by teaching anintegrated first-year college course of physics and mathematics using Modeling
Paper ID #12592Incorporating Engineering in the Biology Classroom (Curriculum Exchange)Wendy A Niesl, University of Minnesota STEM Education CenterDr. Siddika Selcen Guzey, Purdue University, West Lafayette Dr. Guzey is an assistant professor of biology and biology education at Purdue University. Her research and teaching focus on integrated STEM Education.Dr. Tamara J Moore, Purdue University, West Lafayette Tamara J. Moore, Ph.D., is an Associate Professor in the School of Engineering Education and Director of STEM Integration in the INSPIRE Institute at Purdue University. Dr. Moore’s research is centered on the integration
and complexity. The key question he is investigating is what are the principles underlying rapid and robust concept exploration when the analysis models are incomplete and possibly inaccurate? His quest for answers to the key question are anchored in three projects, namely, Integrated Realization of Robust, Resilient and Flexible Networks Integrated Realization of Engineered Materials and Products Managing Organized and Disorganized Complexity: Exploration of the Solution Space His current education focus is on creating and implementing, in partnership with industry, a curriculum for educating strategic engineers—those who have developed the competencies to create value through the realization of complex
Paper ID #13380Intra-Disciplinary Integration in Civil Engineering Education: An Approachto Integrate the Various Civil Engineering Disciplines with the Use of a De-sign Studio LabProf. Michael J. Davidson, Wentworth Institute of Technology Michael J. Davidson, P.E. – Assistant Professor, Wentworth Institute of Technology, Department of Civil Engineering Technology, 550 Huntington Avenue, Boston, Massachusetts 02115, davidsonm2@wit.eduProf. James Lambrechts P.E., Wentworth Institute of Technology BSCE-Univ. Maryland, MSCE-Purdue University. Geotechnical engineer 27 years with Haley & Aldrich, Inc. Boston, MA before taking
Paper ID #11248Production and Characterization of Graphene and Other 2-dimensional Nano-materials: An AP High School Inquiry Lab (Curriculum Exchange)Mrs. Alison Lynn Fielding, Centennial High School, Boise, ID Mrs. Alison Fielding teaches Advanced Placement Chemistry and College Preparatory Chemistry at Centennial High School in Boise, ID. She earned her BS in Earth Science Education from Boise State University in 2013 with a minors in Chemistry. She is currently pursuing a Masters of Science degree in STEM from Boise State University. In an effort to explore new pedagogical approaches she worked with Boise State
engineering technology degree.The desired set of skills required of modern engineers and technologists has been steadilyexpanding. In addition to familiarity with a number of manufacturing processes and CAD/CAMtechniques, various process simulation tools are increasingly becoming an essential tool in thedesign and manufacturing of complex systems. In this paper, the integration of Moldflow andSolidWorks plastics tools in traditional manufacturing processes course is presented. SolidWorksplastics Standard brings easy-to-use injection molding simulation directly to the designers ofplastic parts and injection molds, as well as advanced CAE analysis. It simulates how meltedplastic flows during the injection molding process to predict manufacturing
. Educators increasingly recognize the challenge of finding quality curricularmaterials for integrated STEM education. In this study, forty-eight teachers participated in ayear-long professional development program on STEM integration funded by National ScienceFoundation (NSF). Teachers designed twenty STEM curriculum units as a part of the project.Each STEM curriculum unit includes an engineering challenge in which students use or developtechnologies to solve the challenge and integrates grade level appropriate mathematics (dataanalysis and measurement) and one of the three science content areas: life science, physicalscience, or earth science. The study aims to evaluate the STEM curriculum units developed bythe project teachers. We also
learning objective is teachingstudents how to design parts, assemblies, and drawings in 3D in one commercially availablesoftware package. Other important objectives that were integrated in this class include:understanding mechatronic and electro-mechanical systems by example of one autonomous robotkit, the mechanical tiger. Students were able to make an animation of the tiger robot byintegrating a motion from the electrical motor to the motion of gear redactor in a tiger box. Thiswas done by using the polar coordinate system, an axis which both electrical motor and a gearshare, as well as by defining an assembly parameter between two planes – one plane at the
Paper ID #13652Designing a Toy Box Organizer: A PictureSTEM Curriculum Module (Cur-riculum Exchange)Kristina Maruyama Tank, Iowa State University Kristina M. Tank is an Assistant Professor of Science Education in the School of Education at Iowa State University. She currently teaches undergraduate courses in science education for elementary education majors. As a former elementary teacher, her research and teaching interests are centered around improv- ing elementary students’ science and engineering learning and increasing teachers’ use of effective STEM instruction in the elementary grades. With the increased emphasis on
as “engineering” by faculty and students, leading toan engineering workforce poorly trained in dealing with the social dimensions of sustainableengineering solutions. This important concept currently receives little attention within thestandard engineering curricula, particularly within the engineering sciences.The pilot-study research presented in this article uses a mixed-methods approach to assess thestate of social justice awareness of students as they enter an “Introduction to Feedback ControlSystems” (IFCS) class. Social justice interventions are integrated to support students as theylearn about the inherent, yet often invisible, connections between social justice and controlsystems engineering. Instruments, such as surveys and focus
mathematics behind the shape, materialsand structure of the shelter, and then using an engineering design activity, students designed andtested improved shelters for their selected native culture. Students then communicated their findingsthrough writing and drawing. The Frame Routine guided teachers into finding curriculum learningobjectives and knitting them together to create an engineering activity that allowed for integrativelearning for students. In addition to the Frame Routine that guides the teacher, there is anEngineering Design Frame that supports teachers in creating the engineering design activity inaccordance with accepted engineering design principles. Teachers reported using these frames helpedthem create integrated units that
existing language arts curriculum where teachers choose books that work best in their classrooms. • It is an exciting and different way to practice literacy and students who struggle with language arts have a new way to demonstrate comprehension. • It enhances the comprehension of text as students try to find details to predict characters’ choices. Students relate to the characters as they work to create solutions for them. • It introduces students to rich, realistic engineering problems. • It provides synergistic integration of different disciplines. st • It emphasizes problem-solving, teamwork skills and
the fate and transport of organic contaminants in the environment. Page 26.1385.2 c American Society for Engineering Education, 2015 Sophomore Unified Core Curriculum for Engineering Education (SUCCEEd) at Cal State LAAbstractThe SUCCEEd program at California State University-Los Angles (Cal State LA) was designedwithin an integrated curriculum context to overcome the low success rate with respect tograduation and professional licensing, a common problem in engineering programs at minorityserving institutions. The curriculum design has been driven by outcomes established to
A Project-based Computer Engineering CurriculumAbstractThis paper documents an innovative, project-based approach to teaching computer engineering.A project-based undergraduate computer engineering curriculum, with an embedded systemsfocus, has been offered since 2004 at a small, private college in the Northwestern US. The maingoals of the curriculum are twofold. The first is to engage students in engineering problemsstarting in the first semester of the Program, thus providing them with a sense of pride andownership in their work. The second is to prepare students for engineering careers by involvingthem in complex, team projects, which are typically only conducted outside of requiredundergraduate coursework, at the graduate level, or in
the model (Figure 7), represents curriculum design, whichincludes the course structure and content. This bar carries the two outcomes to students and linksthe goals to the framework. A strong curriculum that integrates all the previous factors well, isrequired for any successful engineering education.On a student’s perspective, an effective design-based curriculum involves a strong integration ofengineering theory and provision of context, as they are discussed in this model. It is difficult tolearn abstract concepts, especially within the first few years of study, when the rationale isunclear. The authors propose that the curriculums should further involve focus on developingappreciation and rehearsal of the engineering practice. Students
Paper ID #12073Towards a T Shaped Electrical and Computer Engineering Curriculum: aVertical and Horizontally Integrated Laboratory/Lecture ApproachDr. Harry Courtney Powell, University of Virginia Harry Powell is an Associate Professor of Electrical and Computer Engineering in the Charles L. Brown Department of Electrical and Computer Engineering at the University of Virginia. After receiving a Bach- elor’s Degree in Electrical Engineering in1978 he was an active research and design engineer, focusing on automation, embedded systems, remote control, and electronic/mechanical co-design techniques, holding 16 patents in these
development of this curriculum has been iterative andwill likely continue to be so. There is an immediate plan to include an alternate path within thefreshman year including marketing and graphic design. The concept here is to enable thestudents less interest in hands-on manufacturing to develop an alternate skill set thatcomplements the manufacturing skill set. For the second half of the course the freshmanstudents from both training options would be integrated into project groups for better-roundedteams. Introduction of the innovative design process at the freshman level has been proposed,developing an innovative mindset earlier while allowing the students to repeat the process andimprove their understanding at the sophomore level.The long term
the engineering curriculum?Compared to all the elements of the engineering curriculum, the ES is the most distant andinaccessible to partnerships and collaborations between ES instructors and everyone elsecommitted to engineering education—such as design faculty and HSS faculty within engineeringeducation contexts. Interdisciplinary collaborations are becoming more common in Intro classes,design courses, and HSS [2]. Even the basic math and science courses have become sites ofinnovative pedagogical interventions [3]. But for the most part, the ES remain closed to theseinterdisciplinary collaborations and integrations. Why is that?An obvious response is that the ES tend to be among the most technical components of anengineering education. But
program for several disciplines. It has a calculus and physics pre-requisites and is typically required early in the students’ academic career. A key part ofmastering the concepts in this course is the integration of a laboratory component to demonstratereal world application of the concepts presented. The laboratory assignments typically involve abreadboard, resistors, capacitors, inductors, operational amplifiers, function generators, powersupplies, multimeters, and oscilloscopes. Due to the required laboratory assignments, there weresome challenges in transitioning from bench top lab instruments to laptop virtual instruments andthese will be discussed.The motivation for this paper was to examine the efficacy of offering an electrical
responsive to employer needs. In the northeast US where Quinnipiac is located, the mostcommon employers are hospital networks, financial and insurance companies, along withtraditional manufacturers that range from small to large. Additionally, several principles wereidentified and used as an aid in curriculum decisions, including a smaller core, flexible technicalelectives for multiple emphasis areas, and broad based methodology courses.In this paper, we first describe the development of the curriculum that integrates the principles ofthe system design process with curriculum development. The IE curriculum at Quinnipiac is thenpresented and discussed.2. A Curriculum Development ProcessCurriculum development can be an overwhelming undertaking when