-- analysis, supervising design, specifications faculty sophomores: basic analysis; laboratory testing freshmen: data gathering; testing support Figure 1: Initial Concept for a Vertically-integrated Scholar TeamAcademic Integration and Growth of Learning through Innovation: During this period oftime, interest in innovation and collaboration was growing across the entire campus
AC 2007-1864: ENTANGLED PHOTON EXPERIMENTS FOR ENGINEERINGTECHNOLOGYScott Shepard, University of Central Florida Dr. Shepard received a Ph.D. from MIT and worked at Bell Labs for six years. He has been teaching in Engineering Technology for five years and is currently at the University of Central Florida. His research interests include: innovative laboratory components for undergraduates; telecommunications; sensors; and solar energy. Page 12.678.1© American Society for Engineering Education, 2007 Entangled Photon Experiments for Engineering TechnologyAbstractThe fact that a Quantum Computer
power systems. He is a senior member of IEEE and ISA. Page 12.339.1© American Society for Engineering Education, 2007 CAN-Based Fieldbus ExperimentsAbstractThis paper presents Controller Area Network (CAN) based hardware experiments, andintegration of these experiments in instrumentation and control systems courses laboratories atthe Bowling Green State University (BGSU). A general purpose PIC microcontroller basedCANstart module is first introduced. This board provides communication features for simpledigital inputs such as switches and digital outputs such as LED’s. It also has analog inputs andrelay outputs
recipient. She is a senior member of the Institute of Industrial Engineers, the Human Factors and Ergonomic Society , and a member of Alpha Pi Mu (Industrial Engineering Honor Society). She has received numerous awards for outstanding research activities and classroom instruction. Prior to serving as Department Chair, she served as Associate Dean of Engineering responsible for Research and Industry Outreach. Formerly, Dr. Crumpton-Young served as the developer and director of the Ergonomics/Human Factors Program and Experimentation Laboratory. Ergonomics/Human Factors laboratory supports classroom instruction and conducts research studies in the areas of Industrial Ergonomics
) research.Course BackgroundThe research project was integrated within BME 432 – Lab on a Chip, an upper-level electivecourse at Western New England University that introduces students to the theory and applicationof microfluidic systems in medicine and biology. In the first iteration of the course-basedlearning model, a standard lecture and laboratory approach was utilized to follow a logicalprogression from core concepts to applications of this emerging technical field (Table 1). Oncesufficient course material had been covered, a laboratory project was implemented that allowedstudents to design and fabricate a microfluidic mixer, which was one of the concepts introducedin the microfluidics section of the course. While the original laboratory project
incorporate new technologies throughout their career. The paperrelates not only the professor’s view of the experience but a student view as well.IntroductionNew paradigms are required for undergraduate teaching in Engineering and EngineeringTechnology that are “student centered” [1]. In forming these new directions within the laboratoryexperience, we need to rethink traditional methods to become more flexible and challenging tothe individual student. Accomplishing this requires a new method of delivery that is differentfrom the traditional laboratory instruction [2, 3, 9 and 10]. Allowing the student to use higher orderleaning including problem development, experimental planning and most importantimplementation all though the use of active learning
mechanical engineering (ME) program areintroduced to the concepts of stress and strain in a solid body through the Mechanics of Materialscourse. In the first Machine Design course, junior mechanical engineering, the students learn tocalculate the bolt/rivet and joint members stresses. Due to the time constraints of a firstMechanics of Materials course there is generally insufficient time to verify the assumptionsmade in developing the theories with experimental verification. Experimental validation allowsthe student to delve into the corresponding approximate nature of these theories.The Stress Analysis Laboratory practice improves the students’ comprehension of the stresstheory learned in lecture. The literature that was examined used many
rigorous use of vectors and calculus. Theapproach taken is typically applicable to all problems in two and three dimensions. Thisapproach is preferred over planar scalar approaches because it is applicable to a broader range ofproblems. With these methods students eventually develop their own scalar short cuts; however,they have a complete understanding of the limitations of the methods that they employ.The first courses in mechanics are the foundation of a students understanding of mechanics. It isessential that engineering students not only come away from these courses with a thoroughunderstanding of the theory, but also with a physical insight into engineering mechanics. Forthis reason laboratory experiences are integral to these first two
online, with laboratories being offered in a ‘low-residency’format. This low-residency format will require students to complete a group oflaboratory assignments on two or three Saturdays during the semester. Weanticipate future efforts to offer both the lectures and laboratories completelyonline.SPSU’s approach, in collaboration with the TCSG, to the development of thesecourses was to require consistency in the format of each of our courses byimplementing a standard template. This will facilitate courses to have the samelook, feel, tools, and structure. Faculty developing these courses must havecompleted our Teaching Academy for Distance Learning (TADL) training courseprior to writing courses. To ensure quality course development and structure
of students taking anElectrical and Computer Engineering laboratory and discuss the correlations betweentheir performance in the laboratory and their responses to surveys about their pastexperiences and attitudes toward engineering.BackgroundThe ECE sophomore laboratory is the first experience with instructional introduction tothe function and use of electrical test equipment used in the ECE department. Theinstruments include multimeters, oscilloscopes, function generators, DC power supplies,breadboards, resistors, simple logic chips, circuit simulation software, and simple logicprogramming. The course has a common lecture one hour each week, and individual lab
NSF-Course, Curriculum, and LabImprovement pilot project, the LabWrite project created a web site that was used as part ofsmall-scale study at North Carolina State University1. This two-semester, iterative studyinvolved the collection of both qualitative and quantitative data that supported the belief that theLabWrite approach could improve both the quality of the lab reports being written, the students’specific knowledge of the topic covered in the laboratory, and their understanding of the processof scientific investigation. Included in this pilot project was a materials engineering laboratory2.The second phase of this funded project has taken place over the last couple of years and has ledto continued improvements to the students’ and
concept of frontallearning. The capability of the developed virtual environments is to offer experiential learning,simulation-based learning, and guided exploratory learning. Finally, a wireless sensor networkwas deployed in the laboratory to collect real-time information of students’ activities andmachine operation conditions. The impact of the proposed methodology on student learningoutcomes was examined. Generally, the proposed methodology is beneficial to the technologicaleducation.IntroductionMicrosystems, often referred to as microelectromechanical systems (MEMS), are miniaturizedmechanical and electrical systems with a dimensional range within a few micrometers. MEMSinclude a wide range of applications in the automotive [1-3
studio-laboratory format of the integrated curriculum, an in-depth laboratoryexercise was developed focusing on the use of Building Information Modeling (BIM) technology asa tool to perform MEP coordination in order to enhance student learning. The following sectionsdescribe the design of laboratory exercise, including the learning objectives and outcomesassessments.Mechanical Electrical and Plumbing CoordinationMEP systems are the active systems of a building that temper the building environment, distributeelectric energy, allow communication, enable critical manufacturing process, provide water anddispose of waste8. MEP systems have increased in scope on many types of projects, due to theincreased requirements by building users. With the need
. Short activities that periodically engage studentsduring class break up the monotony of traditional lectures and likely provide an opportunity forstudents “to start fresh again”.6 Inquiry-based activities have been incorporated intoundergraduate laboratory classes.1,7,8 During these activities, the students are responsible forposing a question, hypothesizing the outcome, developing an experiment to test their hypothesis,analyze data, and report their results. Activities of this type have been shown to increase learningand improve the overall laboratory experience.7,8 Martin et al.3 compared student performance inan inquiry-based and traditional lecture style biomedical engineering course. Results indicatedthat the degree of student acquired
. Page 24.493.1 c American Society for Engineering Education, 2014 Engineering Camp: a residential experience designed to build academic capital in pre-college studentsAbstractEngineering Camp is a one-week on-campus residential program that exposes pre-college (post7th -11th grade) students to engineering disciplines through introductory seminars,demonstrations, laboratory experiments, and design challenges. The program improves students‟awareness of the breadth of engineering and emphasizes the benefit of developing skills inSTEM. The camp is offered in grade-based parallel sessions geared to the audience, and camperscan return in subsequent summers. Importantly, Camp provides a
Warminster, PA where he estab- lished an optical communications laboratory for development and characterization of optical components, systems, and protocols for high-performance avionics data networks. Dr. Rosen is currently an assistant clinical professor at Drexel University, where he is responsible for developing and teaching courses in microprocessors, microcontrollers, FPGAs, and optics. Dr. Rosen has carried out research sponsored by the National Security Agency, National Science Foundation, the National Oceanic and Atmospheric Administration, DARPA, the Office of Naval Research, Air Force Office of Scientific Research, and the Missile Defense Agency. Dr. Rosen is the author or coauthor of over 80 publications and
team leader is required to be selected, who will serveas project manager of the team to arrange different activities. The students are not only requiredto create a robot to fulfill the technical challenge, but also to conduct an economic or marketanalysis for their own robots. The final project grade considers students’ performance in bothtechnical and business aspects. Figure 1. Project Challenge LayoutThe implementation of the learning module with six major engineering design steps during thesix-week course curriculum is described in Table 1 below with detail weekly lectures,laboratories, entrepreneurial thinking, and deliverables. The learning module integrated theinnovative entrepreneurial thinking into a
introduction of newerprotocols. The two buildings are approximately 500 meters apart. The free-space optical link uses1550 nm wavelength in normal usage but has a wireless link operating at 2.4 GHz as the back-up.The line of site alignment will be achieved using telescopes initially but will have automatictracking alignment system. The wireless back-up link is used only in very dense fog conditions.This paper presents the design of only the free-space optical connection, some parts of which areimplemented in laboratory setup.I. Introduction The technology of establishing a high-speed networking between two buildings orcampuses is one of the three: 1) copper wire, 2) wireless and 2) optical fiber technology. Thecopper technology is low
The Pennsylvania Stet University are compelled to modify course content to include latestinnovations in the technology. Although it is easy to modify the lecture component of thecurricula, laboratory exercises can only be done in small scales within controlled environmentwhich does not justify the expense for some of the equipment. For example, a laboratoryexercise in digital aerial photogrammetry requires an aircraft equipped with an on-board GPSreceiver, digital aerial camera and many other accessories. It is obvious that the expensesinvolved in acquiring the equipment for this exercise far exceed the financial resource of theprogram. There is therefore a need to find innovative ways to expose students to the equipment,technology, and
. The inputand output signals in the time domain and the magnitude and phase of the frequency response areplotted in real time.To run the virtual DSA in simulation mode requires only SIMULINK. However, if combinedwith the Quanser WinCon software and hardware input/output board, it can be used formeasuring the frequency response of experimental apparatus in the laboratory. If the linear Page 10.106.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Educationsystem is mechanical, the students can compare the
each course. Toreinforce the integration, the course titles have been changed to TFSE I (ME 312), TFSE II(M341), and TFSE III (ME 441). The fourth course, Energy Conversion, has become a technicalelective in thermal systems design. A common text is used in all four courses. The goal of thisnew pedagogical approach is for the cadets to learn the fundamentals of thermal fluids systemsintegrally as they occur with mass, momentum, and energy transfer processes in nature. Thecourse sequence is also supported by a thermal fluids laboratory consisting of a variety of fluiddynamic, thermodynamic, and heat transfer studies. This paper also contains details fordevelopment and implementation of the TFSE pedagogy.IntroductionThe thermal-fluids coverage in
Cross-College Collaboration of Engineering and Industrial Design Brian Laffitte, David F. Ollis, and Rebecca BrentIndustrial Design, NCSU, Raleigh, NC/ Chemical Engineering, NCSU, Raleigh, NC / Education Design, Inc., Cary, NCAbstract We report the piloting and initial assessment of a novel cross-collegecollaboration in which exploration of modern consumer and household devices in anengineering ”device dissection” laboratory is utilized to enhance student learningobjectives and achievement in a junior-senior Studio course in Industrial Design (ID).The electric guitar and the compact disc (CD) player were chosen as first round devices.The ID students first explored these devices in teams of
course includes lecturescovering topics unique to the engineering design process such as project management, designeconomics, and engineering ethics. It also includes laboratory exercises designed to give thestudents practical skills they do not typically acquire during the core electrical engineeringcourse sequence. Examples of these laboratory exercises include designing a printed circuitboard, packaging circuits, and integrating sensors with microcontrollers. Both the senior projectand the laboratory exercises reinforce the technical, economic, political and social aspects of theengineering design process. The course today provides students with the skills they need tosuccessfully perform as part of an interdisciplinary design
commonly foundin the later semesters. That, combined with the technical content of the course, is intended togive students a better understanding of the nature of engineering. Since the course has only beenoffered for the past two years, meaningful student retention data is not available. However, it isanticipated that retention of motivated, capable students will be enhanced as a result of thisfreshman course experience. Students with diverse academic backgrounds are introduced to the fundamentals ofengineering materials in both lecture and laboratory settings. Course objectives and relationshipsto program curricula are described and presented in the context of the mechanical engineeringexperiences expected in later courses. Issues
from fivedifferent academic departments at Rose-Hulman Institute of Technology collaborated to developan introductory course in MEMS open to all science and engineering majors of junior standing.This course was team-taught and included a laboratory component, giving students hands-onexperience with the processes involved in the fabrication of MEMS devices. This paper presentsthe results to date of this multidisciplinary faculty team’s efforts to make MEMS more accessibleto a larger audience. In particular, the paper documents the development of the new course andits content, as well as the continuing evolution of its implementation.I. IntroductionStarting out as the realm of solid-state physicists and electrical engineers, the silicon
being taught in an online environment wherestudents can read and study examples of program code. Also, extensive use of examples andexercises in the course text2 served as a basis for teaching the traditional lecture/lab format course. Page 8.323.1Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering EducationCourse Development:The traditional version of the BE 1120 Programming for Engineers course includes a Lecture anda Laboratory component. In most cases the Lecture period consists of explanations andclarifications of course text material
Session 1133 Experiments with Electrical Motors in Distance Learning Environment: Operating Lab-Volt Electro-Mechanical System Using Web-Based Tools From National Instruments Ilya Grinberg, Ronald C. Matusiak Buffalo State CollegeAbstractRecent years gave a significant boost to distance learning (on-line) educational delivery.However, laboratory component was represented by simulation or remote operation of eitherstatic or small-size dynamic devices1, 2. Few advances have been made in remote control
home campus. For students posted overseas, on-campusattendance at lab classes is virtually impossible.Deakin University teaches numerous off-campus students who live locally, interstate, andoverseas.4 In developing its undergraduate engineering courses, including electronics, theUniversity needed a means to deliver practical education to off-campus students. TheUniversity has applied numerous strategies in delivering laboratory activities for distanceeducation, including week-end practical classes, Internet-controlled experiments,5-10simulations,11-13 at-home activities or projects, where the student obtains his own materials,14and experimental kits issued to students.15,16 To satisfy this need in the case of first-yearelectronics, we have
extensions that overcome the second problem in [11] and students can see bothwindows (screen captured window and the software window) simultaneously, eliminating theneed to switch back and forth. This paper is organized through sections. The first sectiondescribes the course. The data collection and assessment method is described in the secondsection. This is followed by the results of the assessment and finally the conclusion.The CourseAt Ohio Northern University, the college of engineering offers two courses in electric circuitsnamely Circuits 1 and Circuits 2. The survey and questionnaires are conducted in Circuits 2course. The Circuits 2 course is a four credit hour (three-50 minutes lecture meetings and one- 2hours laboratory meeting each week
educational outcomes of the ME program are: [1]. The student will demonstrate the necessary competencies in the fundamental education in areas of mechanical engineering, such as thermal and mechanical sciences and system design. [2]. The student will demonstrate competencies in experimental testing, error analysis, laboratory safety, data acquisition, instrumentation and laboratory report writing. [3]. The student will demonstrate computer competency and an intelligent use of computers as a tool for developing solutions to engineering problems.Based on the criteria (a-s), the outcome of each engineering course has to be measurable. Theobjective of each course has to be