Brannon, Pennsylvania State University, University Park Mary Lynn Brannon is the Instructional Support Specialist at the Leonhard Center for the Enhancement of Engineering Education, College of Engineering, at the Pennsylvania State University, USA. She has a master’s of arts degree in education and human development, specializing in educational technology leadership. Her work focuses on projects that measure and assess student perceptions of learning related to their experiences with engineering course innovations. She has worked extensively in the design of as- sessment tools for course methods and activities. She is a Faculty Development Consultant with previous experience in instructional design, and the instructor
pedestrian design, operations, for a section of a transportation experiences with and planning transportation problems. transportation concepts to create a facility. 2.2 Able to explain terminology and traffic impact1.2 Complete level of relationship common/classic analysis project. service analysis for between transportation 4.2 Integration of basic freeway components of the engineering complete streets segment. transportation problems (i.e. principles in1.3 Complete signal
include socio-cultural issues in mathematics education and various equity topics in STEM fields. She has served as a Lead or Co-investigator for multiple educational research and evaluation projects. She published more than 30 articles in scholarly and professional journals world-wide and authored seven book or monograph chapters. Page 25.368.1 c American Society for Engineering Education, 2012 Critical Review of Research on the Role of Social Engagement in Engineering Students’ Retention and Academic Success Sandra L. Dika and Jae Hoon Lim
. stashed dry erase markers)for such loss occurrences. Depending on the classroom size, traditional whiteboards should havesufficient real estate to allow for students to visually see more of the delivered material at a giventime. If the classroom does not have a fixed projection system, then there was the addedinconvenience of arranging, transporting and setting up projection equipment.Tront (2007) found that electronic homework submission was typically difficult for engineeringstudents since much of what was to be submitted consisted of not just text but mathematicalscript and sketches intermingled with text along with the occasional picture. He noted thatseveral tablet-based tools available do offer students more flexibility in producing
visualization to design, develop and assess a cyberlearning tool thatadvances personalized learning and helps students develop deep and broad conceptualknowledge. The proposed visualization tool, the “adaptive concept map,” overcomes theproblem of map shock by providing the user control over the quantity and level of detail ofinformation displayed, thus providing a means for navigating content in a manner that isadaptable to their personal cognitive load needs. In this paper, the authors present the progressthat has been made in this project thus far. Specifically, the development of a course-wideconcept map for an entire Statics course and a description of the software development processare presented.1. MotivationThe continued success and growth of
program (Space Based InfraRed System). Since 2006, Boyd has not only been involved in performance analysis and sensor characterization, with a number of technical publications featured in various conferences both internal and external to the company, such as CalCon and MD-SEA, but has also managed technical teams and is currently Deputy Integrated Project Team Lead within the SEIT (Systems Engineering Integration and Test) organization. Furthermore, to address his passion for leadership and community building, he kickstarted a chapter of Connect1NG, a professionally recognized yet non-traditional development program focused on engaging and assimilating new employees to the workplace. He is currently one of three
inheritance. Of course,networking abilities and stability also play an important role, but object orientation enablescompletely new ways for code reusability and increases the efficiency of applicationdevelopments in control programming. As it is not efficient to implement the whole applicationfrom scratch for every new project, it is important to encapsulate functionalities in classes forreasons of reuse. Depending on the concrete device, by means of these classes (or interfaces),generic functions such as specific communication protocols or easy access to specific devicescan be realized. These existing classes can (if necessary) be modified or extended and then beintegrated into the application.Hence, notable potentials result for industrial
platforms; it should represent expertise that is adaptive. Lang et al., note thetransferability of CAD expertise based on procedural knowledge 4.This work represents the first step in a project to examine the adaptive nature of CAD expertise and itsrole on modeling behavior. This work assessed an adaptive expertise instrument that has been used tocapture the adaptive expertise of students at two universities as well as several practicing engineers.Later the instrument will be used to relate general adaptive expertise to CAD-specific adaptiveexpertise and modeling procedure. The overall goal is to examine how to better train students andimprove the adaptive nature of their CAD expertise.Routine versus Adaptive ExpertiseExpertise is the ability to
process, with a one-semester design project 5. Introduction to engineering problem solving with an introduction to principles from circuits, statics, and thermodynamics (Eide et.al. 4) 6. Introduction to engineering thinking and engineering skills (Stephan et. al.-Thinking Like an Engineer 5 )Our goal became to combine the best of each approach while focusing throughout the course onthe question, “What do engineers actually do?” Previous studies by Trevelyan and others haveserved to define what an engineer does in the course of executing their professional duties6. Acomposite list of tasks that engineers tackle became central to the goal of introducing as many“real engineering tasks” as possible into the course. These tasks were
” bill to congress as well as administers many of the environmental and energy laws. Organizations, special interests groups, and even entire industries are spending a large amount of money on lobbyists in order to influence politicians to support particular legislation. The nuclear industry, which spent some $71,405,955 lobbying Capitol Hill in 2004, would get $7.37 billion in tax breaks and projects, including federal funds to construct a $1 billion nuclear plant in Idaho. After a bill is passed, the EPA is then authorized to implement the law by creating regulations that apply to individual, business, state or local government. A study by the nonpartisan General Accounting Office last year found that Vice President Dick Vice President
lectures providedstudents the opportunity to learn about current research and projects being conducted inGermany. In addition, the tours included hands-on learning, where students not only receiveddemonstrations of machinery and robots, but also were allowed to test some of the equipment inthe laboratories. The demonstrations enriched learning for the engineering students because theywere not only able to hear and see technology, but they were able to experience it, too. All toooften, students recognize technology, but don’t quite understand and appreciate it. The E3program took students out of the classroom and into the environment where technology is beingused, researched and developed. This created an environment rich for learning and
development of novel materials for biomedical/biological applications and energy integration. Projects in her laboratory include thin film and nanofiber material growth and characterization for biocompatible RF and energy harvesting devices; nanolaminated materials for thermal energy storage; and nanofiber filters, sensors, and channels. Currently, she is advising four undergraduates, two M.S. students, and five Ph.D. students. Her expertise/laboratory capabilities include chemical vapor deposition (CVD); atomic layer deposition (ALD); electrospinning; material/film characterization: AFM, XRD, SEM, TEM, C-V measurements, and FTIR; and device fabrication: sensors, capacitors, inductors, filters, and detectors, working at
reinvigorate the country’s university system. Part of that effort has been theestablishment of the National Military Academy of Afghanistan (NMAA); a four-year, bachelor degreegranting institution modeled after the military academies of the United States. Two of the primarydegrees offered by NMAA are in Civil and General Engineering. In the summer of 2009, facultymembers from the United States Military Academy (USMA) traveled to NMAA to serve as mentors for thebudding Academy.This same principle applies beyond Afghanistan. There is a continuing need for engineering expertiseand education in Nicaragua, India and elsewhere. Engineering faculty and students today can expect towork on projects far beyond the borders of their home countries, in settings
AC 2012-3769: ENGINEERING AS A CAREER CHOICE AMONG RU-RAL APPALACHIAN STUDENTSMr. Matthew Boynton P.E., Virginia Tech Matthew Boynton is a doctoral student in the Engineering Education Department at Virginia Tech. Before entering Virginia Tech, he earned a B.S. and M.S. in civil and environmental engineering, and an Ed.S in instructional leadership from Tennessee Technological University. His engineering work experience includes work within a rural telecommunications service provider and an environmental consulting firm. While working toward his M.S. and Ed.S, Boynton worked with the Extended Education Department at Tennessee Technological University teaching Project Lead the Way engineering courses in rural high
theretention-graduation rates of URM students in engineering, as well as the cultivation of middleand high school, community college students’ success in STEM.Topics that will be addressed include:–Developing innovative partnerships to increase the capacity and capability of academicinstitutions to recruit, admit, retain, educate and graduate underrepresented minority students inengineering–Establishing regional pilot projects across the United States–Measuring the impact of XXX’s STEM Integration Model Page 25.606.2 BackgroundThis is a critical time for our nation. While the United States has led the world in globalinnovation, economic competitiveness
served as chair of manufacturing Systems Development Applications Department of IEEE/IAS. He authored more than 25 refereed journal and conference publications. In 2009, he as PI received NSF-CCLI grant entitled A Mechatronics Curriculum and Packaging Automation Laboratory Facility. In 2010, he as Co-PI received NSF-ATE grant entitled Meeting Workforce Needs for Mechatron- ics Technicians. From 2003 through 2006, he was involved with Argonne National Laboratory, Argonne, Ill., in developing direct computer control for hydrogen powered automotives. He is also involved in several direct computer control and wireless process control related research projects. His interests are in the area of industrial transducer
with robotics, college,STEM majors, and being an underrepresented student. The goal of this program was to getunderrepresented student interested in going to college and majoring in a STEM discipline.Project Lead The WayOver the summer there was a two part program, Project Lead The Way (or PLTW) , that bringsteachers into the institute to learn different teaching methods and styles in attempt to get them toincorporate the knowledge gained in their lesson plans. PLTW is a STEM education innovatorin middle and high schools across the country. One set of teachers come in one day and anotherset visit another day2. One of the highlights of the program is that it allows faculty todemonstrate different teaching methodologies and it also allows
courses.Integral to this process is an exceptionally active and motivated Advisory Committee made up ofalumni from a variety of engineering disciplines and graduation years. These industry partnerswork not only to help raise funds to endow the program but also meet regularly with the studentsto mentor and inspire. The students and alumni share multiple meals a year together on campusand the students have been invited to visit partner offices and project sites. In exchange for thestudents’ participation in the ESA activities, the industry partners will facilitate internship andprofessional development activities in the third and fourth years of the students’ engineeringprogram. When the students in the ESA program graduate, the Advisory Committee
Page 25.924.2been the most difficult positions to fill for more than two sequential years (2008 and 2009), andyet careers in engineering are projected to grow by 11% over the 2008-2018 decade3,10. In orderto fill engineering careers with competent individuals from the U.S., there is a need to improvethe educational system at the elementary, middle, and high school levels, and there is a need toinclude engineering as an area that is addressed in our educational system.The idea that engineering and technology should be taught in pre-college schools is somewhatnew. According to recent research, most science, technology, engineering, and mathematics(STEM) programs in the United States focus solely on mathematics and science, and leaveengineering
, or advertisedto indicate its potential appeal or value to non-engineering majors?" Would someone in yourmajor be attracted to a minor? What types of majors would be attracted to this? What are someof the potential benefits to a student who chooses a minor? Can you see any drawbacks to aminor from engineering? Would the minor be more attractive if one of the electives could besatisfied by a practical experience such as a summer internship with an engineering company, Page 25.939.10working on an Engineers Without Borders project, or working on a senior design team withengineering students? 9It was
success. Thecurriculum components integrate project-based learning and team-based design challenges withstudy skills development, time management strategies, and personal and professional skillsenhancement. Those will be discussed in another paper that focuses on First Year programs. Forthe remainder of this paper we will present another cornerstone of our college’s programs tosupport student success.Far too often, students who enter college aspiring to careers in engineering progress successfullythrough their freshman courses but do not survive the rigorous sophomore courses. Some of thesophomore engineering courses (e.g. Thermodynamics, Mechanics I, Chemical Processes,Applied Electromagnetics and Circuit Analysis) have pass rates in the range
, Ph.D., K. (October 26 -‐ 28, 2011). Group Discussion Leader with Ellen Kabat-‐Lensch. What Are the Secrets of Success for Energy Projects? ATE National Principal Investigators Conference. Washington, D.C. WORKSHOPS Robertson, S. (April 14, 2011). KidWind Regional Competition – 8 Teams Participated. Cuesta College, San Luis Obispo, CA. Alfano, Ph.D., K. (April 14 -‐ 16, 2011). U.S. Department of Education's Community College Page 25.984.7Regional Summit. San Diego City College, San Diego, CA
and axial stress. While studying thesedesigners, who worked during the rise of the modern movement in architecture, engineeringstudents will also be exposed to cultural and social issues affecting the design of large scale civilworks projects. This was also a time in which graphic statics was commonly used to find goodforms for structures and to determine member forces. The Swiss engineer, Robert Maillart,epitomized this way of working. (Figure 8)Figure 8. Robert Maillart, Figure 9. Isambard Kingdom Figure 10. Gustave Eiffel,1872-1940 Brunel, 1806-1859 1832-1923Engineering PersonalitiesThe pioneering designers of historic structures, as well as many others, are also
AC 2012-5411: COLLABORATIVE INQUIRY INTO FOUNDATION KNOWL-EDGE IN COMPUTER ENGINEERING: A CASE STUDY IN HONG KONGDr. Yuen-Yan Chan, Chinese University of Hong Kong Yuen-Yan Chan is with the Department of Information Engineering at the Chinese University of Hong Kong, Hong Kong. She possesses a dual background in educational psychology and engineering. She is responsible for teaching a first-year refreshment course and is keen at implementing and evaluating novel pedagogies in her teaching. Chan is the principle investigator and key member of several inter-regional student learning projects. She founded the IEEE Education Society Hong Kong Chapter and is the current Chair. She is also the first NAE CASEE New Faculty
. Ray, Southern Polytechnic State University Jeffrey L. Ray, Ph.D., is Dean of the School of Engineering Technology and Management at Southern Polytechnic State University (SPSU) in Marietta, Ga. Prior to joining SPSU, he was the Director of the School of Engineering at Grand Valley State University. Ray’s attraction to engineering technology is the applied, project-based nature of the discipline and the needs of employers who need engineers to hit the ground running in their organizations. He holds both B.S. and M.S. degrees in mechanical engineering from Tennessee Technological University and a Ph.D. from Vanderbilt University. Ray has been a member of ASEE since 1994, active in many activities including publishing
one end of a freightcar or a commuter car used in railway industry. Usually, they consists of several pieces ofsteel tubes and other steel members welded together to form a rigid frame structure. Froma safety perspective, the car-truck stands are to be designed carefully, but at the sametime due to their possible large volume of production, this structure needs to be optimizedfrom strength and cost perspectives besides other parameters such as long life, etc. Thepurpose of this paper is to conduct virtual experiments for the optimal design of adifferent car-truck stand structures using Autodesk Simulation program as a CAE tool.The idea is to include this work as a part of final project in a traditional finite elementanalysis (FEA) course
proposal presentation skills, (4) ability to demonstrate comprehensive Page 25.448.6 written/oral proposal presentation skills. Review of each category is accomplished through the assessment of student work from selectedcourses (multiple courses for some categories) and includes assessment of homeworkassignments, class projects
nanotechnology has nowbrought urgent challenges to undergraduate engineering education: How to integrate theemerging nanotechnologies into classroom teaching? How to prepare our students fortomorrow’s highly competitive global job markets? And how to maintain the US’s leadershipand dominance in science and technology in an era of globalization?Funded by Department of Education, a project is carried out to integrate nanotechnology into theundergraduate science and engineering curricula through a sequential preparation approach fromintroductory freshman to the advanced senior level. The curricula are reinforced by innovativecomputer simulations and state-of-the-art nanomaterials laboratory experiments anddemonstrations. The work presented in this paper is
study were 73 first-year engineering students (65 male, 8 female)enrolled in a single section of a first-year engineering course at a large Midwestern university. Inthe course, taught during the spring 2011 semester, students were introduced to engineeringprofessions, engineering design, problem-solving, teamwork, and other engineeringfundamentals. The students were grouped into 19 teams of three or four, within which they hadworked on course projects and in-class activities for approximately three months. Thoughinnovation was only a secondary learning objective of the course, students were introduced toinnovative designs throughout the semester and presented with a definition of innovationcontaining elements of technical feasibility, economic
computing in the freshman engineering program. Bursic has done research and published work in the areas of engineering and project management and en- gineering education. She is a member of IIE and ASEE and is a registered Professional Engineer in the state of Pennsylvania. Page 25.479.1 c American Society for Engineering Education, 2012 Does the Use of Clickers Increase Conceptual Understanding in the Engineering Economy Classroom?AbstractResponse devices or “clickers” are seeing increased use in many engineering classrooms. Thesedevices allow students to anonymously