://www.pblprojects.org.Knowledge, Skills and AttitudesThe knowledge, skills and attitudes that students bring to learning situations are important factorsrelated to successful learning outcomes. According to Bransford23 et al, the prior knowledge andunderstanding students bring with them into new learning situations impacts their ability to buildupon and integrate new knowledge with their prior knowledge and understanding. Beforelearning can occur, students’ prior knowledge must first be brought to the surface so that currentunderstanding can be examined, and misconceptions corrected in order to create a solidfoundation upon which new knowledge can be built. Second, for students to develop competencein an area of inquiry, they must develop a deep and retrievable base of
shared anothercommon characteristic 44,45. These commonalities included: foreign students who are sponsoredfinancially by their national governments; students who are sponsored financially by a company;students who work in a research position as part of an integrated university/industrial researchpark community; and students who have previously participated in a professional developmentcourse or workshop offered through the university.Research Design and Data Collection ProceduresEach of the four focus groups consisted of roughly 8-10 participants who were asked toindividually fill out a consent form and a 20 question survey upon arrival at the focus group site.The survey consisted of questions designed gather general demographic information, as
skills on three main levels; Importance currently, and in the future.Communications, teamwork, management and practical experience were indeed on the verytop competencies industry required in engineering graduates. Skills temporal gaps haveshown higher tendency to value the importance of skills and competencies to Qatar`s Future.Respondent from all stakeholders expected changes in the demand of competencies set ofengineering graduates in Qatar in the future by 2030. The engineering education system willneed to provide integrated engineering education curriculum that responds to current needsand future evolutions. As for the current needs, more emphasize on practical experience andprofessional skills such as communications and teamwork seems
. Spiegel also served as Director of Research & Development for a multimedia development company and as founding Director of the Center for Integrating Research & Learning (CIRL) at the National High Magnetic Field Laboratory, Florida State University. Under Dr. Spiegel’s leadership, the CIRL matured into a thriving Center recognized as one of the leading National Science Foundation Laboratories for activities to pro- mote science, mathematics, and technology (STEM) education. While at Florida State University, Dr. Spiegel also directed an award winning teacher enhancement program for middle grades science teachers, entitled Science For Early Adolescence Teachers (Science FEAT). His extensive background in
surveys of the students who developed the problems, surveys of thestudents who solved the problems in the chemical engineering course, as well as the peer reviewof the problems by biochemical engineering faculty will be presented. This strategy for studentlearning could effectively be utilized with other application areas as a way to incorporate moreinterdisciplinary learning in the undergraduate curriculum.IntroductionSince the late 1990's there has been a drive to integrate more biological applications into theundergraduate chemical engineering (ChE) curriculum. The availability of employmentopportunities in the life sciences has grown steadily for ChE graduates, spurred by the expansionof bioprocessing to include both high margin fine
Analysis to Mechanical Engineering StudentsAbstractFor many years in the mechanical engineering curriculum, the topics of electric circuit design,mechatronics and instrumentation have all been taught as separate courses. However, thesetopics are all fundamentally related through the manipulation of electrical energy to producesome desired result, whether it be to turn on a light, drive an electric motor, or measure the stressin a beam. In an effort to more explicitly demonstrate how these subjects are related, a set ofthree courses, meant to be taken concurrently, was developed to integrate these topics. Twolecture based courses, one covering mechatronics and one covering instrumentation andexperimental design, as well as a laboratory course that
analysis and processing by the user. A sample ofsuch an Excel file is presented in Figure 7. The system setup had shown that it is able to sample up to 32 channels with the maximumsampling rate of 1 MS/s. We also found that all unused channels should be grounded to prevent“cross talk.” These are board specific issues and this particular NI board would performoptimally if 32 channels were used as 16 differential channels. For the CGAPL experiments,when they do not deal with short-lived plasmas, even 16 differential channels are more thanenough for what they need in their experiments.Capstone Contributions to EE Curriculum The end result of the project will help Electrical Engineering to develop a system thatwill become a vital building
, andstudent laptops, for displaying the signals.IntroductionElectric guitars are fascinating to students and provide an excellent motivating platform forengineering exploration in acoustics, vibration, electronics, electromagnetics, stresses and strain,and signals and systems1. Students generally respond very positively to the use of the guitar as asource of electrical signals because it is something they already know about, and they canphysically see the creation of the signals when the guitar is plucked. Used as an experimentalplatform, a guitar provides sound, touch, and sight sensory input to students. Coupled with a dataacquisition board, the electric guitar provides the source of a complex signal that might beanalyzed in the time domain or in
to these needs can be provided best by acoordinated, integrated system of educators, students, and employers working together tomaximize results. Targeting the areas of attrition in the critical period between the introductorycourse in engineering and subsequent courses provides a means of coordinated response byeducators working in conjunction with students.Before progressing into the methodology of this particular study, it is important to provide both abrief overview of the Kolb LSI (1985)9,10 instrument and an explanation of our decision to usethe Kolb LSI as opposed to other metrics designed to assess learning styles and behavior, and tonote the relative merits and constraints associated with this metric. It is common knowledge infields
years investigated.Figure 1: Comparison between five different types of laboratories used in manufacturingeducation. The same experiment, in this case the tensile test, is depicted by all types.2.2. Course structure and variations across different yearsThe course Material Characterization in Metal Forming is part of the curriculum for mechanicaland industrial engineers at the Technical University of Dortmund. For some of the mechanicalengineering students, especially those specializing in the subject of manufacturing engineering,this course is mandatory whereas for the rest it is an elective course in the 5th semester (3rd year).The students had an introduction to forming technology in their first semester and should havecompleted the basic
Undergraduates: First Findings from a Three-Year Study. Sci. Educ., 88, 493-594.7. R.S. Hathaway, B.A. Nagda, and S.R.Gregerman (2002). “The Relationship of Undergraduate Research Participation to Graduate and Professional Education Pursuit: An Empirical Study.” J. Coll. Stud. Dev., 43, 614-631.8. H.A. Aglan and S.F. Ali (1996), "Hands-on Experiences: An Integral Part of Engineering Curriculum Reform," J. Eng. Education, 85, 327-330.9. R.M. Felder (1993), "Reaching the Second Tier - Learning and Teaching Styles in College Science Education," J. Coll. Sci. Teaching, 22, 286-290.10. J.R. Reisel, T.A. Kellner, and K.F. Neusen (2000). “Speciated Hydrocarbon Emissions from Small Utility Engines.” J. Air & Waste Manage. Assoc. 50, 522-528.11. D
include manufacturing technology, materials science, 3D printing, experiments, product design, and systems engineering for the development of additive manufacturing systems.Dr. Marwa AbdelGawad, Texas A&M University at Qatar Dr. Marwa AbdelGawad is an Instructional Assistant Professor at Texas A&M University at Qatar. She earned her Ph.D. in Mechanical Engineering from Texas A&M University (USA), where her research focused on examining the impact of microstructure on the corrosion response and mechanical integrity of magnesium alloys used in biomedical applications, specifically orthopedic implants, which resulted in the publication of several papers in prestigious journals and presentations at conferences
white spaces for notetaking. Instead, a new approach isneeded, in which images are copied into a word processor, then manipulated to transform user-hostile handouts into user-friendly handouts. Assessment of this approach includes student-generated improvement recommendations. Students photocopy their notes, then mark them withred pen to indicate recommended changes. This approach is not limited to fluid power, or even toengineering; it lends itself to any image-intensive topic, technical or otherwise.IntroductionOne reason students choose to enroll in Mechanical Engineering Technology rather than inMechanical Engineering is the hands-on, practical nature of an MET curriculum. These studentslike the blend of engineering science and engineering
activity that includes STEMdevelopment is widespread in North America. An umbrella organization, the Teaching WithSmall Boats Alliance [3], serves as a clearing house of relevant information. The organizationhas hundreds of programs and individuals as members and “is committed to sharing knowledge,ideas, and best practices about leadership and program development, hands-on building projects,boat use, and integration of maritime-based lessons into school curricula.” These programsprimarily focus on K-12 or adults.Course Description and Construction RequirementsWhile the goals and populations served for the project differ between the two institutions, thecourses share many similarities, primarily in the course requirements, product, and
Session 2555 Improving the Professional Skills of Engineering Graduate Students through Capstone Project Mentoring in IEWorks Dan Gerbus, Dan Cordon, Matthew Walker, Robert Drew, Edwin Odom, Steven Beyerlein, Karl Rink University of Idaho Mechanical EngineeringAbstractTraditional engineering graduate programs focus on coursework and thesis research, which mayor may not adequately develop students’ professional skills for engineering positions in industry.This paper describes an alternative graduate program
), Sweden,Denmark and the United States have developed programs that allow doctoral students to work inindustry or in a simulated industrial work environment 5-13. Universities in the UK have beenpartnering with industry for approximately twenty years with support from UK’s Engineeringand Physical Sciences Research Council. Students in this program transition through four roles:consultant, researcher, innovator and entrepreneur. In this way students take an idea fromconception to the market 6. With support from the Foundation for Advancement of Knowledgeand Competence, Sweden’s Linköping University has students focus on one role: researcher,engineer or consultant 12. In the United States, the National Science Foundation has developedthe Integrative
cooperative internship and a five-year curriculum. Fifth-year students in the Master of Engineering program provide candidates for our PhD program.Students from other universities provide the balance of our PhD candidates. The course described in this paper is ameans to integrate candidates from other schools more fully with internal candidates from the University ofLouisville. Because fifth-year students are included in this course, an analysis of the course was done to see how itwould fit ABET educational objectives and outcomes.We discovered that the rationale for the course incorporates key concepts of the ABET accreditation criteria shownin the left section of the following table. The right section shows how the course incorporates those
values effective teaching/learning pedagogies for classroomreformation and educational development, doesn’t work. Piecemeal efforts- an initiative here or asuccess story there - could result in pockets of improvements but will not change the status quowithin the Region as a whole. What is necessary, from author’s perspective, to plant the seedsand sustain the “change”, is for the university (i.e., the department, the college, the group) toarrive at a comprehensive and integrated set of components: clearly articulated expectations, areward system aligned with these expectations, and opportunities for faculty to acquire newpedagogies.Concluding RemarksTo keep pace with fast changing global marketplace, engineering education in the Arab GulfStates
inengineering [2] [4] [5]. Critical thinking involves identifying, analyzing, and testing informationat a high cognitive level [5]. Developing the art of critical thinking in students is a persistenteffort in an engineering curriculum. Students are encouraged to exercise this by identifying theproblem, making accurate and reliable judgments, and implementing logical and dependablesolutions to real-world problems. Issa et al. studied a significant difference in student learningbetween conventional and project-based learning strategies [5]. Students understand the needs of their community through PBSL. Studies as early as1994 by Batchelder et al. demonstrated that PBSL positively affects students’ psychological,social, and cognitive development
Paper ID #18649Motivation Factors for Middle and High School Students in Summer RoboticsProgram (Fundamental)Dr. Michele Miller, Campbell University In 2017, Dr. Michele Miller joined Campbell University as a Professor and Associate Dean in their new School of Engineering. Prior to that, she was a professor of mechanical engineering at Michigan Technological University where she did research on precision grinding, micro sensors, and engineering education. She received a PhD from North Carolina State University in mechanical engineering.Dr. Nina Mahmoudian, Michigan Technological University Dr. Nina Mahmoudian is an
in the worldaround them, learned in an introductory course prerequisite to dynamics, or something they haveconstructed by themselves using the information learned in the dynamics class in which they arecurrently enrolled. If a misconception is identified, we aim to tailor the activity to address andcorrect it. The overall goal of this research is to provide students with a coherent framework thatpushes them to better conceptual understanding.Assessment has been done in a variety of ways: analysis of video-taped think-alouds byindividual students as they conduct the IBLAs, pre and post scores on the Dynamics ConceptInventory, performance on transfer problems, subjective questionnaires, and performance ontheir predictions as they walk through
Session 3531 ESTABLISHING PURPOSEFUL K-12, COLLEGIATE, & INDUSTRIAL EDUCATIONAL PARTNERSHIPS IN MATH, SCIENCE, AND TECHNOLOGY American Society for Engineering Education 2003 Annual Conference Paper Monica J. Bruning - Iowa State University Barbara Kruthoff – Wall Lake View Auburn School DistrictAbstractThe challenge of an education befitting a technologically knowledgeable workforce involves twofundamental components. It involves the preparedness of students implying a suitable educationand the preparedness of the teacher. In order for teachers to keep pace with knowledge and skillsakin to a
on the redesigned courses. The broaderimpact of this project is twofold. First, data generated through assessment and evaluation isexpected to support the theoretical rationale that systematic change in STEM education mustinclude a wide spectrum of stakeholders (administrators, faculty, staff, and students). Secondly,dissemination of the results of this work is expected to provide a model for institutionalimplementation of evidence-based practices at colleges or universities of similar size and/orstudent body demographics as AAMU, a land-granted minority serving university.1. IntroductionSTEM education is the gateway to prosperity for our ever-evolving technology-dependentsociety in the 21st century. To succeed in an increasingly integrated
Systems Engineering. His teaching and research is in the area of manufacturing operations and includes capstone design. Before coming to Georgia Tech, he worked as an engineer in the semiconductor industry for a dozen years and served as Partner and CEO for a small company that developed software for factory scheduling.Garlie Forehand, Georgia Institute of Technology Dr. Forehand was Director of Research Program Planning and Development at Education Testing Service until February 2000. Dr. Forehand teaches and consults in the areas of research design and workplace communication. His research emphasizes curriculum innovation and evaluation. As a consultant to Georgia Tech, he has assisted
and SLTT on student learning and required faculty effort, a public forumwas created and used to assist with the implementation of SLTT activities in four mechanicalengineering courses. The courses span the curriculum from a freshman engineering graphicscourse to a graduate course in mechanical vibrations.Student Learning through TeachingThe objective of student learning through teaching is to improve learning of both the studentteacher and the students being taught without incurring unreasonable cost to the instructor. Ourbasis for the development of SLTT as an effective means of improving student learning was thebyproduct of a previous experiment in the engineering graphics course. The instructionalmethod in the engineering graphics lab
Engineering Education.” Journal of Engineering Education, July 2008, pp. 235-236.4. National Academy of Engineering. The Engineer of 2020: Visions of Engineering in the New Century. National Academies Press, Washington, D.C., 2004.5. Sattler, Melanie; Chen, Victoria; Dennis, Brian H.; Mattingly, Stephen; Rogers, K. Jamie; Weatherton, Yvette Pearson. "Integrating Sustainability Across the Curriculum: Engineering Sustainable Engineers," Accepted for the American Society for Engineering Education, 2012 Annual Conference and Exposition, San Antonio, Texas, June 2012.6. Mattingly, Stephen; Chen, Victoria; Dennis, Brian H.; Rogers, K. Jamie; Sattler, Melanie; Weatherton, Yvette Pearson. "Multi-Disciplinary Sustainable Senior
Issues in Engineering course be taken outof the Civil Engineering curriculum?Professional and Ethical Issues in Engineering is a course that should be taught in everyschool around the world. Knowing and learning the moral philosophy, engineeringethics and how to build professional engineers is needed these days. This course is agood way to understand the real life after college and how ethics helps and deals withengineers everyday. This course is an introduction for the students and will help themlater how to conduct themselves when they face an ethical issue in engineering if theywere working. Knowing the codes of ethics in Engineering and understanding whatthey are stands for will develop a real professional engineers. Professional and
include epistemic cognition in the context of problem solving, researcher identity, and pre-service K-12 teacher preparation.Dr. Cheryl A. Bodnar, Rowan University Cheryl A. Bodnar, Ph.D., CTDP is an Assistant Professor in the Department of Chemical Engineering at Rowan University. Dr. Bodnar’s research interests relate to the incorporation of active learning techniques in undergraduate classes as well as integration of innovation and entrepreneurship into the engineering curriculum. In particular, she is interested in the impact that these tools can have on student perception of the classroom environment, motivation and learning outcomes. She obtained her certification as a Training and Development Professional (CTDP
Paper ID #30458Is High School GPA a useful tool for identifying at-risk students inFirst-Year Engineering?Dr. Aysa Galbraith, University of Arkansas Dr. Aysa Galbraith is a Teaching Assistant Professor and Academic Advisor of First-Year Engineering Program at University of Arkansas. She received her PhD in Chemical Engineering from Chemical and Biomolecular Department at North Carolina State University. She is responsible from teaching Introduc- tion to Engineering classes, developing course material, and advising first-year engineering students.Mrs. Leslie Bartsch Massey, University of Arkansas Leslie Massey is an
Engineering and Management from Virginia Polytechnic Institute and State University. Her educational research interests are focused on improving construction management education.Dr. Ross A. Perkins, Boise State University Dr. Perkins is an associate professor in the Department of Educational Technology at Boise State Uni- versity, where he also serves as the coordinator of the department’s Ed.D. program. His research inter- ests include the diffusion and adoption of technologies and innovations for education, mobile learning, instructional design for distance education in STEM and other disciplines, and ICT integration in devel- oping nations. He is the Co-PI on two grants funded by the National Science Foundation