Develop effective communication skills Experience open –ended problem solving Develop technical competence and confidenceFigure 1. Developing Context for Engineering Practice.Course AssignmentsStudents are provided a foundational understanding of the engineering design process by firstidentifying and describing the steps involved in a typical civil engineering project. An importantcomponent of this teaching is the integration of the civil engineering code of ethics within thedesign process. National and state regulations required under the Safe Drinking Water Act(SDWA) are also introduced, providing students with background for the assignments. Using anopen-ended, team-based project
Education ModelThe goal of this project is twofold: (1) to increase the interest in cybersecurityworkforce and (2) to increase the number of teachers equipped to embed the topics intheir curriculum. As such, a model shown in Figure 1 is structured to address fourcritical areas that will help us reach those goals: 1) effective academic and socialintegration [5][6], 2) appropriate financial support, 3) narrow perception of the field ofcybersecurity and available career paths, and 4) role models/mentors. The proposedmodel (Figure 1) is partly based on Tinto’s model of student integration [5] whichfocuses more on experiences the students encounter after coming to college, rather thanthose occurring prior to college. But, we have found several aspects
44325IntroductionIn this paper we present a novel freshman design experience and the resulting enhancement ofthe first year experience. For the last five years, the Department of Chemical Engineering at TheUniversity of Akron has implemented a Vertically Integrated Team Design Project (VITDP)involving our entire undergraduate student population. VITDP is an engineering designcurricular and instructional pilot project for the National Science Foundation-funded DepartmentLevel Curriculum Reform (DLCR) at The University of Akron. Teams consisting of freshmanthrough seniors come together with an industrial or faculty mentor to solve an open-ended designproblem over a five-week period during the Fall semester. Teams are typically asked to decidewhether a proposed
,laboratory measurements and dynamic systems across several semesters/courses. This shouldenable students to better understand the relationship of basic STEM (Science, Technology,Engineering, and Mathematics) material to an ongoing problem1,2,3,4.Dynamic modeling and testing of mechanical systems provides students with importantunderstanding of the characteristics and performance of structural dynamic systems. Studentcomprehension of this important Mechanical Engineering topic in today’s world of simulation,instead of testing, is critical. The materials from UMass-Lowell are adapted and implementedinto three of the Mechanical Engineering curriculum courses at Michigan Tech. The materialswere interwoven into the existing course material to enhance the
beginning of this period and present aposter of their project at the end of the summer.Faculty from the University of Texas at Austin, M. D. Anderson Cancer Center, the Universityof Texas Health Science Center-Houston, and Rice University have participated in this program.Students from the University of Texas (summers of 2004, 2005) and Rice University (summer of2005) have participated in the program. The program evaluations showed an increase in studentinterest in translational research careers. We believe programs of this kind will create anundergraduate experience that is well suited to develop a new generation of translationalresearchers in medicine and biomedical engineering.MotivationThe NIH Roadmap Initiative identified opportunities in
engineering to allow the students to applyand synthesize knowledge gained on the traditionally taught courses. The work of Chan et al.7concluded that the curricula for educating construction professionals should embrace anintegrated approach to provide the skills needed by each discipline, and that cannot be developedin one discipline alone. Grigg et al.8 embraced an integrated curriculum, which combinesmaterials from different areas to teach design and problem-solving in civil engineering. Theintegrated approach offers a useful vehicle by which to add material to a 4-year program withoutincreasing the number of credit hours, and gives flexible courses to meet goals of professionalgroups. Huang et al.9 developed a courseware engine TELD, which stands
power and powerconsumption of a node. First, the battery is the main source for power on a node. Battery sizeand capacity will depend on the size of the mote, ranging from an AA battery for a CrossbowMicaz mote of a couple of cubic inches in size, to batteries integrated onto a 1mm3 smart dustmote13. Once the battery is depleted the mote is rendered useless until the battery is replaced.Research is being done on solar cells to help improve the life of the battery17.The sensors and the communication systems are not the only significant sources of powerconsumption. A sophisticated operating system running on a hardware base of a multi-MegahertzCPU and multi-megabyte memory system can also consume significant power. The standardpower conservation
corresponding lab. This paper provides adescription of the course, its teaching strategies, the classroom setting, the characteristics of theparticipants and the academic results. We also offer our conclusions and proposed steps for thefuture. Page 23.766.2Course descriptionOur integrated physics and mathematics course for first-year engineering majors (Fis-Mat) usesthe physics curriculum as its backbone, with mathematics giving support for idea-building andoperations. In developing this course, we considered the findings of previous researchresearch7,8,9,10 and added modeling as a principal teaching strategy, along with an innovativeclassroom that
teachers. The first course identified for this effort was Technology andApplications in Secondary School Mathematics, a graduate course primarily taken by in-serviceteachers with a desire to enhance their students understanding of the materials through hands onactivities with the TI-83 calculator.The paper illustrates how engineering concepts have been integrated into a graphing calculatorcourse and sparked new interest and collaborations between engineering and education faculty aswell as the math teachers in Guilford County. The partnership has great potential for exposingseveral middle and high school students to the practices of the engineering profession.IntroductionIn the Fall of 2001, North Carolina A&T State University established an
common dilemma when considering the undergraduate curriculum is the proper balancebetween “teaching fundamental theory” versus “teaching applied software”. While theestablishment of a sound base of engineering fundamentals within our students is perhaps theprimary goal of the undergraduate curriculum, increasingly there is a legitimate incentive toexpose students to the proper use of different engineering software tools in preparation for theirprofessional careers. While efforts to include such computational techniques have included thedevelopment of an elective upper-level undergraduate course1, the practical difficulty ofimplementing these changes within and throughout the curriculum, and in particular thedifficulty of integrating software
of the LWD program is to use interdisciplinary collaboration across doctoralprograms at WSU in order to broaden the perspectives of students as they address learning withdisability with an emphasis on education and employability within the STEM fields. Doctoralstudents who complete the LWD program will have a distinctive set of knowledge, skills, anddispositions with regard to the needs and strengths of persons with disabilities. This uniquepreparation will make possible professional opportunities in a multitude of areas related to, butpotentially broader than their original disciplines (e.g. higher education, research and design ofassistive technology, curriculum development and implementation, or consultation with federaland state
2006-705: DO FUEL CELL TOPICS BELONG IN A COMBUSTION COURSE?David Blekhman, Grand Valley State University DAVID BLEKHMAN is an Assistant Professor in the School of Engineering at Grand Valley State University. He holds M.S. in Thermal Physics from the St. Petersburg State Technical University, Russia and a Ph. D. in Mechanical Engineering from the State University of New York at Buffalo. Since joining GVSU, he has taught courses in the Mechanics and Thermal-Fluids sequences. He has also focused on developing courses in Combustion and Alternative Energy.Ali Mohammadzadeh, Grand Valley State University ALI R. MOHAMMADZADEH is currently assistant professor of engineering at Padnos School
development of an understanding of the problem from the client’s perspective as wellas an analysis of solution alternatives.Unfortunately, in many cases, the software engineering course is offered late in thecurriculum, typically at the senior level. This makes it difficult for students to apply theknowledge that they have learned effectively on capstone and other academic projects.Students often comment that it would have been “nice to know this” before making thewrong decisions on their capstone projects. Thus, to be successful, components of softwareengineering need to be taught earlier in the undergraduate curriculum. This shifting to anearlier level, however, poses pedagogical issues.This paper describes the metamorphosis of an undergraduate
AC 2012-4852: MILLENNIALS PERCEPTION OF USING CLICKER TOSUPPORT AN ACTIVE CLASSROOM ENVIRONMENT: AN EARLY ADOP-TION PERSPECTIVEDr. John Patrick Hogan, Missouri University of Science & Technology John P. Hogan is an Associate Professor of geology in the Department of Geological Sciences and Engi- neering at the Missouri University of Science and Technology. He received his Ph.D. and M.S. degrees in geology in 1990 and 1984 from Virginia Tech. He also holds a B.S. in geology from the University of New Hampshire. His research interests include igneous petrology, structural geology, and tectonics. He has active projects in Maine, Oklahoma, Missouri, Egypt, and southern Africa. He is also interested in enhancing
the students who missed the sessiondue to business exigencies.In addition to the synchronous instruction, the institute provides professionally developeddigital lecture content in majority of the courses. This serves as a supplementary materialand/ or for flipped mode of delivery.Labs: The curriculum includes regular exercises and practical sessions designed for eachcourse. Since all students admitted are required to be working in a relevant industry, they 5A descriptive study of an innovative and sustainable model of work integrated learningfor industry professionals – An Indian casehave access to physical equipment for laboratory and practical
2006-974: INTEGRATING STUDY ABROAD AND COOPERATIVE EDUCATION:A CASE STUDYStan Guidera, Bowling Green State University DR. STAN GUIDERA is an Associate Professor in the Architecture/Environmental Design Studies Program in the College of Technology at Bowling Green State University. He teaches design studios, advanced CAD and computer modeling courses, and advanced computer rendering and animation classes. He is a registered architect and has used computer-aided design extensively in design studios as well as in professional practice. Page 11.793.1© American Society for Engineering Education, 2006
(IGERT) Program5,6. In IGERT, groups of faculty and doctoral students from a number ofdisciplines at one university integrate research and education around an interdisciplinary themeor problem. The IGERT Program aims to create a cultural change in doctoral education in anenvironment that goes beyond disciplinary boundaries and focuses on the experiences of thetrainees. Since its inception in 1998, this program has funded over 4800 interdisciplinarytrainees in 96 institutions.Viewed this way, graduate education for tomorrow’s interdisciplinary researchers is aimed atbuilding a student’s capacity to integrate knowledge and different forms of thinking, borrowtools and concepts from a variety of disciplines, and produce a cognitive advancement
AC 2011-756: INTEGRATION OF ENTREPRENEURSHIP EDUCATIONINTO A BIOENGINEERING CAPSTONE DESIGN CLASSHoward P Davis, Washington State University Dr. Davis received degrees from The Evergreen State College (BA 1976), WSU (BS 1981, MS 1988) and the University of Oregon (Ph.D. 1993). He is currently a Clinical Assistant Professor in the Gene and Linda Voiland School of Chemical Engineering and Bioengineering. He has been the president and CEO of IPM, a medical device company and Total Dynamics LLC a software company. He is also on the board of directors of Developing World Technologies, a company started by former students of the capstone class that he teaches. His interests include engineering and entrepreneurship
architectural design, energy, lighting, building code are learned differently and in differentstage of the curriculum. In this paper, our objective is to combine both the architectural aspects, as well asthe building code requirements in different phases. Very few works have been developed to address theapplication of the building code during the design process. John Ruskin (2011) described process step-by-step.In this paper our objective is describe the integration of the building code into architecture design process. Page 24.1231.3A comprehensive case will be presented.ASEE Annual Conference, 2014 2. Methodology: 2.1. Conceptual
proactively get involved in ideasharing, learning and transferring knowledge [14], [27], [28]. In terms of leadership roles for4IR, they should be responsible in empowering their team members for decision making processand information sharing through open-mind that would help boost their confidence and develophigh interpersonal skills in the team [36]. From an engineering education perspective, Jeganathanet al. [31] proposed a framework for Industry 4.0 considering current technological changes inorder to meet future demands of engineers and considered interpersonal skills as an importantattribute embedded in the curriculum. In addition, Perez-Perez et al. [32]developed a trainingtool which would help develop interpersonal skills as part of teamwork
(VIP) Program is an engineering educationprogram that operates in a research and development context. Undergraduate students that joinVIP teams earn academic credit for their participation in design efforts that assist faculty andgraduate students with research and development issues in their areas of technical expertise. Theteams are: multidisciplinary – drawing students from across engineering; vertically-integrated –maintaining a mix of sophomores through PhD students each semester; and long-term – eachundergraduate student may participate in a project for up to seven semesters and each graduatestudent may participate for the duration of their graduate career. The continuity, technical depth,and disciplinary breadth of these teams enable
: Engaging Pre-engineering Students via Integrated Enrichment ActivitiesThe Engineering Science program at Borough of Manhattan Community College isundertaking an NSF funded program to improve its retention and graduation rates. Theprogram targets cohort of pre-engineering students, self-declared engineering majors butacademically unprepared for university level calculus and physics courses traditionallytaken at freshman year. The program consists of three components: enrichmentworkshops, design competition and peer mentoring.The enrichment workshops are designed to improve visualization, chemistry and physicsfundamentals, skills traditionally acquired in high schools. Competition componentgroups the cohorts in small teams who use
AC 2010-1431: INTEGRATION OF GRAPHICAL PROGRAMMING INTO AFIRST-YEAR ENGINEERING COURSEGregory Bucks, Purdue University GREGORY W. BUCKS is a PhD candidate in the school of Engineering Education at Purdue University. He received his BSEE from the Pennsylvania State University and his MSECE from Purdue University. His research interests lie in the development of conceptual understanding of computer programming concepts and the exploration of the pedagogical benefits of graphical programming languages.William Oakes, Purdue University William Oakes is the Director of the EPICS Program and an Associate Professor and a founding faculty member of the Department of Engineering Education at Purdue
Paper ID #17134Computer Science Curriculum Redesign at Fort Valley State UniversityDr. Masoud Naghedolfeizi, Fort Valley State College Dr.Masoud Naghedolfeizi is a senior professor in the Department of Mathematics and Computer Science at Fort Valley State University. His academic background includes a B.S. in Mechanical Engineering with minor in instrumentation and control, an M.S. in Metallurgical Engineering, and M.S. and Ph.D. in Nuclear Engineering. Dr. Naghedolfeizi’s research interests include instrumentation and measurement systems, applied articial intelligence, information processing, and engineering education
Page 11.804.6solving problems, everyone wins. We cannot afford to lose the game of educating ournext generation because the outcome is so critical to our nation’s future and its role in theworld! The following is a list compiled from the MVCS science club experience that has beenseen to help our students become more interested in science, math and engineering fields. 1) Start early in the educational process, even in grade school: It is important to have an elementary curriculum to comprehensively cover the areas of math and science. This plants the seed and starts it growing to be well rooted for the branches, such as the area of engineering, to come. A well rounded academic foundation with practical application
, integrating the PSE methodsinto a “systems” viewpoint and providing increasingly complex applications as the students’understanding of engineering increases. Before discussing the learning goals and curriculum, we note two differences betweenour viewpoint and that of some other educators. The major distinction is the broad range oftopics addressed in the PSE stream. Typically, discussions center on the topic of process controland what should be included (and not included) in the undergraduate course. An interestingrecent paper on this topic included input from industrial practitioners, which is summarized inTable 1 from Edgar1. Several topics rated most important by industrial practitioners in Table 1,including the top two items (optimization
Paper ID #29239Aligning the chemical engineering curriculum to a common problem-solvingstrategyProf. Nicolas Hudon, Queen’s University Dr Nicolas Hudon is an Assistant Professor in the Department of Chemical Engineering at Queen’s Uni- versity (Canada) since 2016. His teaching activities are mainly concerned with second-year fundamental courses. He is the recipient of the 2019 Carolyn Small Award for teaching innovation from the Faculty of Applied Sciences and Engineering at Queen’s University.Dr. Louise Meunier P.Eng., Queen’s University Dr. Meunier studied mechanical engineering and worked for twenty years as an
vehicles and the creation of a GPS based navigation system to assist students with visual impairments navigate and orient themselves to Purdue’s campus. c American Society for Engineering Education, 2017 Transformation of an Introduction to Microcontroller CourseAbstractThis paper outlines the curriculum changes made to a freshman introduction to microcontrollercourse in response to several outside factors including the overall reduction of credit hoursavailable for a degree, the total number of credit hours available per course, and the various callsto move away from standard laboratory experiences in favor of more discovery basedexperiences. The course has undergone a transformation from a standard two
. Depending onthe activities accessed, learners can strategically gravitate toward information presented in eithera sensing or an intuitive manner.The third dimension of learning style differentiates between visual and verbal (or auditory)learners. One of the great advantages of the DLMS and its digital delivery of curriculum contentis that with multimedia, visual and auditory learners can be simultaneously engaged. Games,videos, and other digital interactives seamlessly integrate music, sound, narration, images, andwritten text in order to maximize the modalities in which students may be best captured with thematerial.The fourth dimension of learning style as defined in the FSLM contrasts sequential and globallearners. One of the defining elements
Mechatronics Actuator Education Platform for Active Learning CurriculumAbstractThis paper discusses the design and construction of a multi-actuator, open-source educationplatform to enhance undergraduate mechatronics laboratory curriculum experience in the topicarea of actuator technologies. Utilizing hands-on learning as the primary pedagogical approach,students gain applied knowledge in mechatronics by fostering the development of criticalengineering skills. The proposed laboratory curriculum encompasses an all-in-one mechatronicsactuator test platform for the study of fundamental actuator technologies, including a directcurrent brushed motor, stepper, and radio control servo motor that is generally taught in anundergraduate mechatronics