first semester graphics class modeland extract shop drawings of a miniature steam engine, then they fabricate it in a team in the Page 25.1076.2second semester machine tool laboratory. In this same period the MET faculty also soughtimproved civility, and a spirit of inclusion, in the classroom. As a faculty we now moreconsistently communicate to students that by practicing professionalism skills in the classroomstudents are more competitive when seeking internships and early career positions. Successfulstudents recognize this relationship, and this student buy-in offers an improved academicenvironment for both students and faculty.UMaine MET
National Academy of Engineering at least half requiredesign and development of new materials1, 2. Making solar energy more economical, forexample, requires the development of photovoltaic semiconducting materials with broaderabsorption ranges3. Fusion power generation is even more challenging as sustained andcontrolled release of fusion energy has yet to be demonstrated even at the laboratory scale. Evenif the many technological and scientific hurdles related to controlled fusion power can beovercome, practical deployment of this possibly game-changing technology requires thedevelopment of materials capable of withstanding unprecedented operating conditions4, 5. In thebiomedical field, materials science has emerged as an essential tool for the
design process at least 1.2 times per week throughout the term of the project.IntroductionFreshman engineering design coursework, now widely termed “Cornerstone” experiences, beganwide adoption in the 1990’s and into the new millennium through the National ScienceFoundation’s eight Engineering Education Coalitions, among other efforts. These first-year Page 25.1141.2engineering design laboratories serve to complement the already established seniorundergraduate level, or “Capstone” design experiences widely adopted in the 1980’s atengineering colleges across the United States. The combination of the Cornerstone and Capstonecoursework for beginning
processes hasbeen identified as one of the major competency gaps in engineering & technology education.Models such as Learning Factory and Manufacturing Integrated Learning Laboratory (MILL) aredesigned to improve students’ learning through hands-on experiences. The MILL model,developed by the Wayne State University, focuses on integrated learning. The core of the MILLconcept is the use of projects spanning multiple courses to help students gain hands‐onexperiences in design and manufacturing. It involves the coordination of realistic hands-onactivities in targeted courses around the unifying theme of designing and fabricating a functionalproduct. These activities are suited for easy implementation in a typical design andmanufacturing teaching
Facilities Layout course wasredeveloped to incorporate the use of the software. The newly designed course is currently beingtaught, so the paper will also discuss the students’ evaluations of the new software and theredeveloped course.IntroductionIn the mid-nineties, the Engineering Technology Department at the University of Dayton decidedto eliminate certain laboratory courses and integrate the laboratory exercises into the associatedlecture course. The Facilities Layout Design lecture/laboratory courses were the first courses toimplement this initiative. One of the reasons for implementing this initiative was the lowenrollment in the combination lecture/laboratory courses since the courses had to be taken as co
“Interactiveand Collaborative Learning model”. The course is conducted in a lab or studio like settings, thatintegrates both lecture and laboratory work in the same settings, with students working in teams.I. IntroductionIntegration of RF principles with that of embedded systems principles provide to the class rooman added interest and the content area that provides relevance to content of the subject area. Thefast changing field of radio frequency (RF) communication technology is one of the disciplinesstrongly emphasized within the electronics and computer engineering technology (ECET)programs. The approach taken by our institute is to integrate communication theory inconjunction with Embedded System classes. The material presented here is a link in
given paper glider glidethe longest distance possible?”, can be used to introduce the concept of aerodynamic drag andhence lead to various ways in which aerodynamic drag can be quantified through pressure andvelocity measurements. This challenge-question gives the instructor an opportunity to embed inthe minds of students the importance and the concepts of pressure and velocity measurements. Aseries of such challenge-questions were developed for the various chapters in the syllabus ofM&I.Several metrics were used to measure student learning including; homework, in-class-quizzes(both formative and summative), laboratory exercises, and midterm and final exams. The“average performance scores” of the students from two different semesters, one
Engineering Group in the Summer Bridge 2011Program designed and built an underwater ROV (remotely-operated vehicle) to performunderwater exploration of, for example, local ponds and lakes. The duration for the project wasfour weeks in July and the first part of the Fall semester. The students were given instruction in thebasic electrical and mechanical principles associated with the project, and introduced to a set ofcomponents that would be available in the completion of the project, through a sequence learningactivities that included lectures and laboratory exercises. Students were also given instruction onthe engineering design process paradigm. The separate elements of the course were integrated asthe students designed, constructed, tested, and
MEPdrawings are then highlighted and the procedures for their analysis are presented in a systematicorder including the differentiating aspects of various systems. The laboratory portion of themodule concentrates on performing quantity takeoff, digital or manual, where the results aretranslated into work scope sheets. The paper further explains the detailed scope identificationmethodology for each system and their integration into estimating course context.IntroductionConstruction science and management graduates are expected to work in a dynamic workenvironment performing various tasks including planning, estimating, scheduling, and managingthe construction process. The graduates are also expected to be familiar with work scopes for allconstruction
? Page 25.1475.3These were the questions being asked in spring of 2011 when it was found thatthree senior level students, acting as a team, turned in reports that were not theirown work. After consultation with all involved it was learned that the three hadelectronically stolen the documents from someone previously enrolled in theclass. The class, an upper level laboratory, is a one-credit laboratory. The studentswork in the first portion of the class was not in question but later assignmentswere plagiarized. All three students were given a failing grade in the class; eachhad just one semester until graduation. The one credit course is only offered in thespring semester meaning the students would have to put off graduation one termto repeat the
computersimulations, interactive collaboration/discussion and the creation of virtual learningenvironments connecting regions or nations.c) Creating practical learning environment provided by laboratories andworkshops- Laboratories and practical classes have been a substantial part of the teachingrepertoire in Science and Engineering for many years. In recent years, someUniversities have developed virtual laboratories, which minimize physicalrequirements and allow all students access to laboratory equipments through theintegration of instrumentation and the use of simulation software. Many more Page 17.41.3universities supplement laboratory practice with some
. Page 25.917.1 c American Society for Engineering Education, 2012 Mathematical Modeling and Simulation using LabVIEW and LabVIEW MathScriptAbstractThere are numerous uses of simulation, starting from simulation of simple electric circuits tocomplex tasks such as electromagnetic fields, heat transfer through materials, networking,computer circuits, game programming, electron flow in semiconductors, or beam loading withthe ultimate objective of providing illustrations of concepts that are not easily visualized anddifficult to understand. Simulators are also used as an adjunct to and, in some cases such asdistance learning courses, as a substitute for actual laboratory experiments
Process.” This introduces the students to the machine shop environment and hands-on engineering. Page 25.1416.1 c American Society for Engineering Education, 2012 Using a pair of iPods to Measure Angle of Twist in a Torsion ExperimentIntroductionEvery mechanical engineering undergraduate student at our university must take a sophomorelevel one quarter-credit hour course titled “Mechanics of Materials Lab”. A four quarter-credithour Mechanics of Materials course is a co-requisite to this laboratory course. One of the fiveexperiments in the laboratory course focuses on the study of elastic and plastic
arraysthat we have in campus, and to also study security aspect of data collection in future forsmart grid project.Our research objective is to measure the actual efficiencies of each one of our arrays in anaccurate way.The Solar System we have designed is the research methodology that gives the studentsaccess to a wide variety of data generated by the Solar Radiation Lab, ENGR and TXUarrays. They will have to calculate different angles of the sun at diverse hours of the dayand the solar noon time in a manual way using formulas presented in this paper in orderto compare their theoretical results with the actual measurements found in the system.A compound of class exercises, homework and laboratory experiments have beendesigned to introduce this
StateBoard of Education. The main focus of the project is to provide middle school and high schoolscience, math and technology teachers with hands-on interdisciplinary experience with faculty instate-of-the-art laboratories of alternative energy, nanotechnology, fuel cell, and modernmanufacturing. The goal of the institute is to improve teachers’ content knowledge and teachingpractices in ways that increase the academic performance of their students and in ways that buildcapacity within their schools for continued, sustained student learning. Problem-based learning is a student-centered pedagogy in which students learn about asubject in the context of complex and real problems. The problem drives the learning, as studentsneed to acquire new
- tion, and the Tate Geological Museum Advisory Board. She is also an instructor for the Osher Lifelong Learning Institute at Casper College in the subject of the ”History of Mysteries.”Dr. Allan W. Bjerkaas, Johns Hopkins University Allan W. Bjerkaas holds a bachelor’s degree with a double major in physics and mathematics from the University of North Dakota and a master’s degree and a Ph.D. in physics from the University of Illinois, Urbana-Champaign. He joined the Johns Hopkins University Applied Physics Laboratory in 1973 after completing a two-year postdoctoral appointment at the University of Pittsburgh. While at the Applied Physics Laboratory, Bjerkaas was a Project Manager in the Submarine Technology Department and
synthesis software.Otherwise, digital design degenerates into just another programming exercise, albeit using ahardware description language rather than traditional software languages.During Fall semester 2011, programmable logic devices were used for the first time1 as the basisfor lab exercises in a second semester, advanced digital design laboratory at UMD, replacingdesign using discrete digital integrated circuits. The experience exposed some limitationsimposed by the technology. For example, when circuits must avoid logic hazards (momentary“glitches” during transitions) as in asynchronous finite state machine design, FPGAs cannot beused properly, and CPLDs must be coerced into working by clumsily “fooling” the synthesissoftware. These specific
AC 2012-3601: GETTING ABET ACCREDITATION RIGHT THE FIRSTTIMEDr. Larry Wear, University of Washington, Tacoma As professor and Associate Director of the Institute of Technology at the University of Washington, Tacoma, Larry Wear teaches in such areas as software process improvement, software engineering, C/C++ programming, assembly language programming, logic and digital design, and introductory engineering courses. Many of these classes are laboratory intensive and some have been taught via distance learning. Wear received his B.S. and M.S. degrees in electrical engineering from the University of Washington, Seattle, and both his M.S. in applied mathematics and Ph.D. in electrical engineering from Santa Clara
design and analysis of practical buffered crossbar packet switches, network security and forensics and wireless sensor networks. She was associated with Networking Research Laboratory at New Jersey Institute of Technology and MySYNC Laboratory at Stevens Institute of Technology for her postdoctoral research. She has served as a technical committee member in IEEE HPSR 2011, 2012, IEEE Sarnoff 2010 and 2011, and IEEE Greencom 2011 and ChinaCom 2008. She is a member of IEEE Com- munications Society, IEEE Women in Engineering, and American Society for Engineering Education. For further information: http://iris.nyit.edu/˜zdong02
AC 2012-4523: MOBILE STUDIO PEDAGOGY, PART 1: OVERCOMINGTHE BARRIERS THAT IMPEDE ADOPTIONProf. Kenneth A. Connor, Rensselaer Polytechnic Institute Kenneth Connor is a professor in the Department of Electrical, Computer, and Systems Engineering, where he teaches courses on plasma physics, electromagnetics, electronics and instrumentation, electric power, and general engineering. His research involves plasma physics, electromagnetics, photonics, en- gineering education, diversity in the engineering workforce, and technology enhanced learning. Since joining the Rensselaer faculty in 1974, he has been continuously involved in research programs at such places as Oak Ridge National Laboratory and the Universities of Texas
AC 2012-5482: ON THE IMPLEMENTATION OF OPEN SOURCE CFDSYSTEM TO FLOW VISUALIZATION IN FLUID MECHANICSRicardo Medina, California State University, Los AngelesMr. Ashkan Motamedi, California State University, Los AngelesDr. Murat Okcay, Interactive Flow Studies Corporation Murat Okcay, CEO, obtained his doctorate in mechanical engineering, specializing in fluid mechanics, in 1993 from Bristol University, England. After several years as a lecturer teaching fluid mechanics in the classroom and laboratories at the University he joined Smiths Industries Plc. and has continually pushed the envelope in the field of fluid mechanics as a Senior Mechanical Design Engineer, publishing papers and receiving patents for his designs
production. Our goals in this phase of the study are: (i) to get an understanding on the characteristics of organic waste from hotels and restaurants and study the feasibility of implementing the proposed anaerobic digester for biogas production for District of Columbia hotels and restaurants, and (ii) to build a mini anaerobic digester that can generate biogas in the laboratory and to provide preliminary data and identify key aspects of the design for an efficient, reliable, and low-cost anaerobic digester for waste processing. The specific research objectives for goal (1) include understanding of organic waste collection methods in hotels and restaurants and possible quantification of organic waste. The research methodology include (i
energy storage laboratory.The motivation of this project is to develop an interactive and computer-controlled test systemfor three different electric energy storage units that serve as a teaching-aid. This paper presents Page 25.1261.2a funded project that develops, designs, and implements an electric energy storage educationallaboratory. The laboratory is capable of demonstrating and displaying the principles,performance characteristics, and applications of electro-chemical batteries, electro-mechanicalflywheel (or flywheel battery) and supercapacitors (or ultracapacitors). The integrated systemis computerized for measurement and control hence
sciences is required. One year is defined as 32 semester credits or one-fourth of the creditsrequired for graduation in the program. Basic sciences are defined as biological, chemical, andphysical sciences. Most of the engineering management programs meet this criterion through acombination of math, physics and chemistry courses, some with laboratory experiences.Figure 2 3,4,5,6,7,8,9 displays the most commonly required math and basic science courses and thepercentage of the engineering management programs that require these specific courses. It canbe seen that all programs require some calculus, some calculus-based physics and some statistics.Most also require some chemistry, differential equations and a second calculus-based physicscourse
sequence. The Clinic sequence provides a hands-on, team-oriented approachto a multidisciplinary, four year education. The sequence also provides a blueprint forclassroom, laboratory, and work experiences. The key objectives of the Engineering Clinicsequence include: Creating multidisciplinary experiences through collaborative laboratories and coursework; Page 25.1467.3 Incorporating modern technologies and contemporary issues throughout the curricula; Creating continuous opportunities for technical writing and communication; and Emphasizing hands-on, open-ended problem solving, including undergraduate research4.Every
) is illustrated with a representative model that shows a latent variable“Hands-on Aptitude” having manifestations in kinematics and laboratory grades, and hasa 100% loading on another latent variable “Concept Theory Aptitude”. Extension toother pre-engineering course grades is discussed briefly.Keywords: structural equation model, LISREL software, educational researchIntroductionStructural equation models (SEM) have been used to probe the aspects that concerncausative hypotheses/elements contained in engineering and technology educationalresearch datasets 1. The causative hypotheses/elements would convey causal assumptions,but not necessarily a model that would generate validated causal conclusions. Structuralequation model analysis is an
) is illustrated with a representative model that shows a latent variable“Hands-on Aptitude” having manifestations in kinematics and laboratory grades, and hasa 100% loading on another latent variable “Concept Theory Aptitude”. Extension toother pre-engineering course grades is discussed briefly.Keywords: structural equation model, LISREL software, educational researchIntroductionStructural equation models (SEM) have been used to probe the aspects that concerncausative hypotheses/elements contained in engineering and technology educationalresearch datasets 1. The causative hypotheses/elements would convey causal assumptions,but not necessarily a model that would generate validated causal conclusions. Structuralequation model analysis is an
undergraduate and Graduate Research Assistant during the first two years of his graduate education. Before taking his current staff position at Georgia Tech, Thames spent 18 months working for VeriSign’s Communication Services Division. Thames also serves as a research collaborator and lead infrastructure/systems architect for Dr. Dirk Schaefer’s initiative on remotely controlled physical laboratory experiments and collaborative design education.Mr. Robert Donald Wellman Jr., Georgia Institute of Technology Robert Wellman is the Manager of the Information Technology Department at Georgia Tech’s Savannah campus. Wellman earned his bachelor’s of science in computer engineering from the Georgia Institute of Technology. Upon
commitment toscience and research.” - President Barack Obama December 6, 2011The 2013 Budget: Investing in Our Future• Pushes the Frontiers of Scientific Discovery• Spurs Innovation• Creates New American Jobs in Manufacturing• Promotes Clean American Energy• Educates Our Students in STEM• Builds 21st Century Infrastructure• Makes Tough Choices –Offsets all increases with cuts in other programs –Keeps non-security discretionary spending flat for the second year in a rowPushing the Frontiers of Scientific Discovery• The 2013 Budget sustains the President’s commitment to double the budgets of three key science agencies: the National Science Foundation (NSF), the DOE Office of Science, and the NIST laboratories.• The
includes: – Service Broad Agency − Service Scientific Research Announcements Organizations & Laboratories − NSA – Small Business Innovative − DARPA Research themes − DoD Chief Information Officer – Small Business Technology − The Joint Staff Transfer themes − US Cyber Command − USD for Policy & USD