AC 2011-2203: INTEGRATING CURRICULUM, INSTRUCTION, AND AS-SESSMENT IN A LASER SYSTEMS COURSEPatricia F. Mead, Ph.D., Norfolk State University Patricia F. Mead, Ph.D., earned the doctoral degree in Electrical Engineering with a concentration in Electrophysics from University of Maryland, College Park, in 1994. She joined the faculty of Norfolk State University (NSU) as Professor of Optical Engineering in summer 2004. Since her appointment, Dr. Mead has been active in the development of innovative curricula for Optical Engineering courses, and she serves as Education Director for the NSF funded Nano- and Bio-Inspired Materials and Devices Center for Research Excellence in Science and Technology (CREST). Dr. Mead also
study took place, it seems to have been more successful due to itsapproach on how to integrate the courses. This initiative seeks to create a common groundapplicable to most areas to encourage the creation of hybrid courses to benefit the understandingof both students and teachers, by creating an integrated curriculum instead of isolated islands ofknowledge. This specific approach centers on the integration of the Physics I and Mathematics Icourses, named Fis-Mat, for its name in Spanish. While efforts have been made to create thefollowing courses and some implementations have been made for a Fis-Mat 3 course, the first oneis our center of study as it is the most mature.Different aspects of the course have been reported in previous
AC 2011-997: ASSESSMENT OF STUDENT UNDERSTANDING IN PHYSICS:AN INTEGRATED QUALITATIVE AND QUANTITATIVE APPROACHTeresa L. Larkin, American University Teresa L. Larkin is an Associate Professor of Physics Education and Faculty Liaison to the Pre-engineering Program at American University. She received her Ph.D. in Curriculum and Instruction with emphasis in Physics and Science Education from Kansas State University. Dr. Larkin is involved with Physics Educa- tion Research (PER) and has published widely on topics related to the assessment of student learning in introductory physics and engineering courses. She has been an active member of the American Society for Engineering Education (ASEE) and the American
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
Electrical and Computer Engineering Dept. Founding Director Microelectronics/VLSI Technology University of Massachusetts Lowell1. Introduction We are already in the age of information technology revolution. Thisnot only incorporates traditional engineering but all aspects of power ofInternet also, culminating into a variety of state-of-art technologies. It is thesublime duty of engineering educators to integrate these technologies intotheir curriculum as a prime requirement. The class room instructions mustprepare the students not only to meet the challenges of the revolution butmust enable them to cope with the challenges presented because of perpetualenhancements in technologies. Presentation of
ultraviolet (EUV) lithography, etc. Entanglement-enhanced lithography is also insight.Knowledge of quantum physics is essential in modern communication technologies. Quantumwell (QW) devices provide such an example. QW devices feature very thin epitaxial layers ofsemiconductor materials that are grown using techniques like molecular beam epitaxy. Thesedevices can be integrated with various optoelectronic devices to provide photonic integratedcircuits with increased functionality. They are widely used in lasers, photodetectors, modulators,and switches. QW also operates much faster with much less manufacturing costs. Theseadvantages are of great importance to the telecommunication and computer industry. QWsemiconductor lasers have also become the key
Page 12.1232.7 Computational Physics 51 Mathematical Statistics 47g. Particular characteristics of AU’s physics programIn addition to peculiarities of the university as a whole, the physics program at AU is structuredin a unique way. AU’s physics program is integrated within a single department along with twoother disciplines in the department of Computer Science, Audio Technology, and Physics (CAP).This structure was considered in devising the new curriculum as an opportunity to combine thestrengths of these different but related disciplines.One way of utilizing this opportunity is in offering courses that would be of benefit to thephysics program as well as to computer science
AC 2008-2378: PHYSICS FUNDAMENTALS, ENGINEERING DESIGN, ANDRESEARCH: AN INTEGRATED APPROACH TO THE DEVELOPMENT OF ATHREE-WEEK SHORTCOURSEWinston Jackson, California Institute of Technology Winston Jackson received his BS in Civil Engineering from Southern University and A&M College and his MS degree in Applied Mechanics at the California Institute of Technology, where he is currently continuing his PhD work. His research is in the area of experimental solid mechanics, and he has been a teaching assistant for a course in solid mechanics as well as the Physics Curriculum Coordinator for the 2007 YESS Program.Jennifer Franck, California Institute of Technology Jennifer Franck is currently a
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
. 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
students early in their engineering curriculum through their senior design course. Our focus has been on exposing students to core research skills, openended problemsolving and design, and every possible venue for student practice of communication skills. The end result over seven years has been a strong string of senior design projects, research productivity, and employment and/or graduate school acceptance. Introduction At the University of Central Oklahoma (UCO) we actively integrate undergraduate students in research projects across all levels from Freshmen to Seniors. The integration occurs deliberately through a combination of undergraduate research (UGR) support opportunities from external funding and institutional funding. Engineering
Association ofPhysics Teacher’s “Statement on Computational Physics” says, “Computational physics hasbecome a third way of doing physics and complements traditional modes of theoretical andexperimental physics.” 1 Computation should be an important component in the physicsundergraduate curriculum, and ideally it should merge seamlessly with the rest of the curriculum.Throughout the past 15 years, the University of St. Thomas physics department has beenimplementing an integrated physics curriculum where students gain the theoretical, experimental,computational, and communication skills they will need to succeed in their careers. Thecomputational work in our department began with an NSF-sponsored effort (DUE-0311432) todevelop computational modules in
well.I. IntroductionIn our 2007 paper1 we reported on an assessment study we had conducted that resulted in asignificant change and reorientation with the curriculum and subsequent course progression ofour physics program. At that time, our physics program was integrated with a single departmentalong with two other disciplines in the department of Computer Science, Audio Technology, andPhysics (CAP). Shortly after our study was conducted, each of these programs separated and 3independent departments were created.As part of our study, we looked at comparative data from 22 national undergraduate programsfocusing on those that were in universities without graduate programs in physics as well as thosein liberal arts colleges. The results of our
]. However, capstone experience isan outstanding opportunity in integrating knowledge and skills from different fields and can beused as an opportunity for a genuine undergraduate research experience [5]. Moreover, suchexperience is a major block in proving student performance for program accreditation purposes[6]. A large national survey of engineering programs (444 programs) showed that most programsoffer a one-semester long capstone course followed by two-semester capstone [7]. A similarremark is valid particularly for accredited engineering physics programs as well, while in morethan two thirds of non-accredited programs no capstone course is required [8]. The generalobjectives of the capstone experience usually aim at creating a stimulating
representations within different device models arecompared, all of the exercises represented were directed assignments that were used toacknowledge the role of technology in CMOS logic and CMOS analog circuits. Theexercises also served as an example of the simulation factor in the integrated circuit designcycle, since they relate directly to ongoing MOS foundry runs.At MSU the MOS device course is a specialty course that is directed toward themicroelectronics option of the ECE (Electrical and Computer engineering) curriculum. Thetechniques and simulation algorithms described by this paper were developed in the fallsemester of 2003 and the next time that the course was deployed (due to enrollments) was thefall semester of 2007. The effect of having the
undergraduate institution that may be usefulto other faculty and other institution in their quest to develop laboratories to support their workas well as engage undergraduate students in research.REFERENCES[1] Farrow, D., and R. LeMaster. “Automation laboratory development enhances studentlearning.” Proceedings of the ASEE Annual Conference & Exposition, Chicago, IL, June 18-21,2006.[2] Scott, S., R. Athinarayanan, Xiaobing Hou, and Shuju Wu. “Integrated curriculum andlaboratory development of an undergraduate telecommunications and computer networkingprogram.” Proceedings of the ASEE Annual Conference & Exposition, Pittsburgh, PA, June 22- Page
computational problems used, the difficultiesencountered by both the students and the instructor and ideas for both improving the exercisesand addressing the issues identified.IntroductionIn 2012 our department engaged in an effort to integrate computational and experimentalproblems into our upper division curriculum in a number of classes that traditionally lack labsand are more analytical in nature1. These classes include quantum mechanics, theoreticalmechanics and electromagnetics. While the intent was to change courses for physics majors,most of the students in the electromagnetics course are electrical engineering majors at ourinstitution. Therefore, we tried to find computational and experimental problems for that coursewhich would interest the
closely paralleled one or more of the topics covered on the course syllabus. Inaddition, their chosen topic had to be congruous with the new millennium conference theme.Students were encouraged to research past, present, and future applications of their chosen topic.The key idea was to have students explore a topic(s) in more depth than would be covered inclass, thus making them the “experts.” Each student in the AU course wrote a single-authorpaper.The theme for papers prepared for the Pittsburgh conference was a little different. Given thatPitt uses an integrated curriculum approach for their freshman courses, students were told thatwhere possible, their papers should relate to topics covered in the fall or spring semester of theirPhysics
major.Several students have since reported that their undergraduate research experience was integral inobtaining a permanent job, often before graduation. Students have a confidence and self-motivation that was fostered by this course, which can be a strong differentiating factor forpotential employers when comparing resumes. 6ConclusionThe authors’ goal was to create a course in which students could conduct undergraduate researchin the sciences at an engineering school with no science programs. A general set of learningoutcomes was constructed encapsulating what any good scientist should learn from their firstresearch experience. As detailed in the three projects presented as examples, the course has
physical principles anddevice behavior and an improved sequence in electronics instruction are outcomes.I. IntroductionElectronics is a particularly important area of electrical and computer engineering (ECE) and hasbeen recognized by the National Academy of Engineering as one of the twenty “GreatestEngineering Achievements1.” It gives instrumentation and processing support. It gives thehardware integral to systems and projects. It is a core area for assessment examinations such asthe Fundamentals of Engineering (FE)2 and for curricula guidelines such as the NationalStandards for Computer Engineering3. The study and analysis of key nonlinear semiconductordevices including diodes, transistors, and operational amplifiers are foundations for
Rose-Hulman Institute of Technology 5500 Wabash Ave, Terre Haute, Indiana, 47803 1. Abstract Engineering Physics (EP), at its core, is a multidisciplinary approach to solving problemsthat require insights from various traditional disciplines. The EP curriculum at Rose-HulmanInstitute of Technology strives to foster this multidisciplinary approach by incorporating studentprojects that require integrating concepts and principles from various fields into a meaningfulapproach toward a realistic solution. These projects, ideally involve a design / problemstatement, a fabrication step, and a testing or characterization stage. As an example of such anapproach, a new lab is proposed to provide students with an
(Eds.), Physics Education Research Conference, 818, 37–40, AIP (2005).8. T. Dray, B. Edwards and C. A. Manogue, “Bridging the gap between mathematics and physics”, (2008).9. R. Beichner, L. Bernnold, E. Burniston, P. Dali, R. Felder, J. Gastineau, J., et al., Case study of the physics component of an integrated curriculum. Physics Education Research Supplement to American Journal of Physics, 67(7), S16-S24, (1999).10. W. Blum, & M, Niss, Applied mathematical problem solving, modelling, applications, and links to other subject: States, trends and issues in mathematics instruction. Educational Studies in Mathematics, 22(1), 37- 68, (1991).11. J. Mestre, Implications of research on learning for the education of
Technology-Enabled Nurturing of Creativity and Innovation: A Specific Illustration from an Undergraduate Engineering Physics CourseAbstractThere is general agreement that creativity and innovation are desirable traits in the toolbox of21st century engineers, as well as in the future workforce in general. However, there is a dearthof exemplars, pedagogical models, or best practices to be implemented in undergraduateengineering education to develop and nurture those talents.In this paper, we use a specific example of a classroom activity from a course designed to helpbridge the transition from learning the fundamental principles of engineering physics inintroductory courses to being able to creatively and
Engineering and Physics DepartmentAbstractOur department, which offers an Engineering Physics program, with majors in ElectricalSystems, Mechanical Systems, and Physics, as well as a Biomedical Engineering program,requires all of its majors to enroll in a two-hour “Introduction to Engineering and Laboratory”course that integrates lecture, laboratory, and design components. The objective of thelaboratory and design experiences is to prepare freshmen and transfer students for upper-levelengineering laboratory courses, as well as senior design courses, required for our majors. Eachlaboratory module, presented during two-hour laboratory sessions, at a rate of one module perweek, provides either an introduction to concepts and tools required to complete
Goldberg machine design Team 2 Conclusions The incorporation of notebooks in a physics high school classroom served to support the integration of engineering in the physics curriculum. The notebooks provided evidence of the key indicators essential for successful implementation of engineering in a science classroom as 17identified by Kersten – design process, STEM content, engineering thinking and engineering communication. They served as an effective tool for guiding the engineering design process and for stimulating the selfdirected learning and authentic assessments that are the goals of PBL curricula. In contrast with the project results of the previous year during which engineering design notebooks were not
in the UCSB Molecular-Beam Epitaxy Lab where he focused his research on investigating the ALD process on III-V semiconductors and the epitaxial growth of ohmic contacts on III-V materials. He returned to the University of Minnesota in 2010 as a research scientist investigating techniques to tailor the surface chemistry of SiNCs for use in light emitting diodes and solar cell applications. More recent work has focused on the growth and integration of CIGS and CIAGS homojunction and heterojunction solar cells. In the fall of 2013, he joined the Department of Physics and Optical Engineering at the Rose-Hulman In- stitute of Technology as an Assistant Professor. Current research efforts are focused on the development
. Project Description - Coordination of research efforts between physics and the crash safety center to fulfill the obligations of the funding agency in the redesign of the PHYS-115 lab curriculum. Create, edit, and integrate data and multimedia for use in lab curriculum. Assess curricular materials and student feedback for improvement in lab activities. Perform research in Kettering University’s Crash Safety Center Page 22.389.1 c American Society for Engineering Education, 2011 Crash Safety in the Introductory Physics LabIntroductionIntroductory Physics labs would seem
state-of-Art Technology in Collaboration withand State- of-Art courses as well. This will regional Hi-Tech Industry”, ICC April 2012.7. Ambarish Roy, Bradley P. Barber, andKanti Prasad, “Microwave Filter and DedicatedSensor-an Integrated Resonator,” student paperin IEEE Sarnoff Symposium, Princeton, NJ, 2010.8. Solanki A, Prasad K, Nunan K, Oreilly R“Comparing process flow of monolithic CMOS-MEMS Integration on SOI wafers with monolithicBiMOS-MEMS integration on Silicon wafer” atIEEE’s conference held at Seattle Aug 2010.9. Ambarish Roy, Bradley P. Barber, VinayS. Kulkarni, and Kanti Prasad, “Material AcousticSpeed and Density Parameter Extraction inSolidly Mounted Resonators,” student paperin IEEE Sarnoff Symposium
Treasurer of the Detroit Local Section of the American Chemical Society.Prof. Gary P. Hillebrand, University of Detroit Mercy Lecturer in Physics at the University of Detroit Mercy since 2008, following 30 years in automotive product development at Ford and GM.Dr. Matthew Gonderinger, University of Detroit Mercy, Wayne State University c American Society for Engineering Education, 2017 Gender Effects in a General Physics Laboratory AssessmentIntroductionTwenty years ago the second-semester general physics laboratory courses at the University ofDetroit Mercy adopted an active-learning curriculum based on the work of both Arnold Arons1and Lillian
interface. ThePi also uses Python as its standard programming language that is more in line with coding effortsbeing implemented in the curriculum. However, the Pi does not include analog input channels.External circuitry would be required to record analog signals making it less useful for dataacquisition.The Arduino Uno includes 14 digital I/O channels and 6 analog input channels making it moreuseful as a data acquisition platform. Secondly, students are able to connect currently availabledata acquisition equipment using either an analog or a digital breadboard adapter sold by Vernier.This allows students to use a Vernier Force Sensor, Motion Detector, or any other equipment.Using the adapters, students are not required to build any circuits