and made almost 170 papers and poster presentations. While much of externally-funded research has focused of environmental and water resources engineering, his work in the areas of education, trans- portation and construction have included improving instructional processes in laboratories, delineation of roadway systems and NEPA compliance for highways using remotely-sense data, modeling highway evac- uation strategies and environmental impacts for predicting pavement performance, evaluating resources and their allocation in the management of waterways, and comparing the economics of transportation management alternatives
Virtual Teaching Assistant for Electrical Engineering Science: Initial Study Firdous Saleheen, Salvatore Giorgi, Zachary Smith, Joseph Picone, and Chang-Hee Won Department of Electrical and Computer Engineering, Temple University, Philadelphia, USAAbstractThis paper presents a framework for a Virtual Open Laboratory Teaching Assistant (VOLTA)which provides personalized instructions for undergraduate students in an entry level electricalcircuits laboratory. Traditional closed laboratory environments do not provide 24/7 access tosuch labs hindering the learning-on-demand paradigm that is so critical to the laboratoryexperience. VOLTA offers an open laboratory environment with a virtual teaching assistantwhere the students enjoy a self
Paper ID #12634The Introductory Physics Lab as a Consulting FirmDr. Daniel Ludwigsen, Kettering University Dr. Daniel Ludwigsen pursued research in Musical Acoustics while completing the Ph. D. in Physics from Brigham Young University. After joining Kettering University in support of the acoustics specialty within Applied Physics, Dr. Ludwigsen has broadened his professional interests to include physics education research and instructional design. In addition to an overhaul of the introductory physics laboratories, partially supported by NSF CCLI funding, Dr. Ludwigsen has written two courses at the sophomore/junior
under this criterion is one or more processes that identify, collect, and prepare datato evaluate the achievement of student outcomes. The Department of Civil and EnvironmentalEngineering at South Dakota State University (SDSU) chose to use student outcomes originallyestablished, known as the “a” through “k” outcomes. Evaluation of outcome “b”, “a graduatingstudent should have an ability to design and conduct experiments, as well as to analyze andinterpret data” was accomplished using a well-designed rubric, and is the subject of this paper.The rubric was established and administered in CEE-346L, Geotechnical EngineeringLaboratory. The means of assessment was a particular laboratory experiment, the onedimensional consolidation test. The rubric
for solar energy applications and optoelectronic device development for non-destructive testing and evaluation. Page 26.68.1 c American Society for Engineering Education, 2015 A mixed instructional methods approach to teaching a Circuits and Instrumentation courseAbstractThe circuits and instrumentation course at James Madison University provides students withfoundational knowledge in DC, transient, and AC circuit design and analysis. The 4-credit courseis comprised of three weekly lectures and one weekly laboratory session. Given the breadth ofcontent and
Jacob Nefcy, Oregon State University Erick Nefcy is a doctoral candidate in the School of Chemical, Biological, and Environmental Engineering at Oregon State University. He is currently studying student modeling in capstone physical and virtual laboratory projects. He is interested in teaching and microprocessing, and has held multiple internships at Intel Corporation. Page 26.771.1 c American Society for Engineering Education, 2015 Feedback in Complex, Authentic, Industrially Situated Engineering Projects using Episodes as a Discourse Analysis Framework – Year 3IntroductionOver the last ten years
c American Society for Engineering Education, 2015 A Guided Approach to Technical Report Writing for Undergraduate Engineering StudentsAbstractLearning how to write technical reports can be difficult for undergraduate engineering studentsthat have had very little, if any, experience with technical report writing in their high schoolclasses. The laboratory course “Engineering Measurement and Data Analysis” is required for allundergraduate engineering students at Grand Valley State University, with a major focus of thiscourse being technical report writing.In order to guide the students in preparing technical reports, templates were designed to act as anexample of how to present their laboratory results in a
2015 ASEE Nor theast Section Confer ence Audio and Vision Pr oj ects Augmenting a Studio Style L ab Exper ience in a Signal Pr ocessing Cour se Benj amin D. M cPher on Roger Williams UniversityAbstr actEngineering students greatly benefit from laboratory education and team projects, as these typesof experiences prepare students for internships, research projects, and entry into the engineeringprofession. Unfortunately, laboratory classes can be difficult to fit into the course load of anengineering program at a liberal arts-focused university, where students are exposed tosignificant breadth, as well as
Sciences MethodAbstractMany educators acknowledge that the millennial generation of students learns like no other, yetlittle has been done to alter laboratory instruction in response to this generational shift. Further,most laboratory courses use a traditional, formal style of “step-by-step” instruction. This“cookbook” instructional pedagogy is based on the lower levels of Blooms Taxonomy and oftenleaves little to no impact on achieving higher levels of student learning. Data shows thatstudents who participate in “cookbook” instruction are unable to apply lab concepts accuratelybeyond the original lab and many students do not retain laboratory skills they learned in the long-term. This work involves the use and evaluation of the case study
. Olowokere1 and Abayomi Ajofoyinbo2 1,2 Department of Engineering Texas Southern University, Houston, Texas, USA Email: olowokeredo@tsu.edu1; ajofoyinboa@tsu.edu2;AbstractIn the recent literature, researchers have investigated the mismatch betweenteaching and learning styles with different research objectives. This paperpresents a framework for integrating intelligent sensor real-time measurementdata into engineering education for innovative practice-oriented learningenvironment. In this integration framework, intelligent sensors are deployed onLocal Area Networks (LAN) in engineering laboratories to measure physicalquantities that may be used for classroom
implementation of a smartphone application and laboratory exercise toallow students to use smartphones to collect kinematic data during a routine activity (such as driving anautomobile). The smartphone application, which obtains position and velocity data using a smartphone’sbuilt-in assisted-global positioning system (A-GPS) and three components of acceleration using the built-in accelerometer, is made available to students. Following data collection, the laboratory exerciserequires students to calculate and compare normal and tangential components of acceleration based oneach of the two recorded data sets. In addition to introducing students to application development, thelaboratory described here also provides an opportunity for deeper learning about
Musical Analogies as a Teaching Tool for Engineering ConceptsAbstract This project investigated the inclusion of a music laboratory experience within theexisting core Mechanical Engineering curriculum at Lafayette College. Music is a naturaladdition to engineering curricula as it can easily be used to illustrate many different engineeringconcepts. This allows students to think about their engineering topics from a differentperspective, which helps to improve their understanding of these concepts. Additionally, byusing music as a teaching tool, students are also exposed to topics from the art of music.Students completed a survey both before and after the experience in order to reflect on theirlearning. On average, the students reported a
Paper ID #11779Examining the Interaction of Spatial Visualization Ability and Computer-aided Design and Manufacturing Course PerformanceDr. Michael Johnson, Texas A&M University Dr. Michael D. Johnson is an associate professor in the Department of Engineering Technology and In- dustrial Distribution at Texas A&M University. Prior to joining the faculty at Texas A&M, he was a senior product development engineer at the 3M Corporate Research Laboratory in St. Paul, Minnesota. He received his B.S. in mechanical engineering from Michigan State University and his S.M. and Ph.D. from the Massachusetts Institute of
2015 ASEE Northeast Section Conference Designing a Scalable Mechanical Engineering Freshman Year Experience for Relevant and Engaging Hands-On Experiences David Willisa and Jeremy Vaillantb a. Assistant Professor, U. Massachusetts Lowell1 1/ b. Graduate Student, U. of Massachusetts LowellAbstractThis paper describes the design, implementation and results of a new Mechanical EngineeringFreshman Year Experience course being offered at the University of Massachusetts Lowell. Thenew course integrates meaningful hands-on experiences using inexpensive desktop CNC ma-chines, core concepts laboratories, Matlab programming and communications. The two
product development cycle. Students and practitioners that possess adeeper appreciation of the manufacturing process can often design parts that consider the capa-bility of the manufacturing method. In many schools, colleges and universities the availability ofpractical, hands-on interaction with computer numerical controlled machines (CNC machines) islimited due to the expense and operational complexity of these machines. Many of the higher endCNC machines are reserved for expert machinists. As a result, students do not experience mod-ern manufacturing beyond the “black-box” interactions with a machinist. The goal of this paperis to present the implementation of a CNC laboratory comprising inexpensive, hobbyist CNCmachines.This paper presents
allow students to practice their creativityor develop critical thinking skills5,6,7. Inquiry-based learning in a laboratory environmentdevelops creativity and critical thinking skills8,9. Peer-teaching has also been shown to increasestudent learning in a laboratory environment3. This study looks at how inquiry-based learningfollowed by peer-teaching affects student attitudes toward the subject matter and their overalllearning experience.MethodsTable 1. The five different measurement techniques utilized to complete instructor providedobjectives. Technique Instructor Provided Objectives Collect signal using National Instruments myDAQ and homemade Electromyography amplifiers (EMG
switching regulators, such as buck, boost, andbuck-boost converters. However, the laboratory element to the course enables simulation anddesign of these converters. Students were required to “hand-calculate” design parameters to meeta certain specification for the converter, and then simulate their design in industry standardsimulation packages, such as SaberRD. After verifying the functionality of their simulateddesign, students were then asked to experimentally build and test the converter. This processparallels the design and experimentation process often followed in research and developmentcenters. Upon completion of the laboratory, students were required to document their findings ina well-written, succinct write-up.The next part of the course
important. To implement an active distance learning environment requires the coordination and correlation of instructional materials, media, and technology. Correlating real-time lectures with audio and video are one of several very important elements to the success of the distance learning. The outcomes of the distance learning class should be the same or similar to a traditional lecture/laboratory class. There should be little or no difference between an instructor’s face-to-face classroom lectures, except instructional materials are accessible in electronic formats for users to download. Notes, handouts, graphs, photos, demos, circuits, equations, software shall be
Paper ID #11641Pre-defined roles and team performance for first year studentsDr. Jess W. Everett, Rowan University Jess W. Everett has worked in four distinct areas: waste management operations research, contaminated site assessment and remediation, education innovation, and sustainable engineering. He has employed a wide variety of techniques, including computer modeling, laboratory experiments, field testing, and surveys. His current research focuses on energy conservation, alternative energy generation, engineering learning communities, and hybrid courses (courses with classroom and on-line aspects).Dr. Jenahvive K Morgan
Education, 2015 Life Line Research to Vertically Integrated Classrooms via a Four- Point Bending Test of a PipeAbstract Research dealing with earthquake response of lifelines was brought to classrooms at apredominantly undergraduate urban university as part of an education, outreach, and trainingactivity centered on a simple four-point laboratory-bending test of a ductile iron pipe. AFreshman Civil Engineering Design class, a Junior Structures Laboratory class, and a GraduateStructures class participated by integrating the subject matter amongst these classes. Theexperiment simply represented the pipeline behavior subject to fault displacement by simplefour- point static bending tests. In addition, the ductile
Design” (SBD) program, Dr. Tucker supervises students from Penn State during the summer semester in a two-week engineering design program at the ´ Ecole Centrale de Nantes in Nantes, France. Dr. Tucker is the director of the Design Analysis Technology Advancement (D.A.T.A) Laboratory. His research interests are in formalizing system design processes under the paradigm of knowledge discovery, optimization, data mining, and informatics. His research interests include applications in complex sys- tems design and operation, product portfolio/family design, and sustainable system design optimization in the areas of engineering education, energy generation systems, consumer electronics, environment, and national
, controls, renewable energy, and engineering study abroad courses. His current research interest include material development for solar energy applications and optoelectronic device development for non-destructive testing and evaluation.Brian Groener , James Madison University Page 26.594.1 c American Society for Engineering Education, 2015 Embedding Engineering Design in a Circuits and Instrumentation CourseAbstractThe junior level circuits and instrumentation course at James Madison University is a 4-credit coursewith three lectures and one laboratory each week. Fundamentals of DC and AC
for First Year Undergraduates that Connects the Electrical and Thermal Properties of MetalsAbstractThe undergraduate engineering programmes at the University of Glasgow were recently revisedto include a common core of classes in Year 1 and Year 2. Materials I, an introductory materialsscience course, is now taken by all Year 1 engineering students. The lectures in the course weremodified to include topics that are of interest to electronic and electrical engineering students,electrical and optical properties of materials. A hands-on laboratory experience has been developedto support student learning on electrical resistivity and thermal conductivity. The hands-onexperiment about optical reflectivity will be added to the
years starting in the Spring of 2012. Ryan currently works as a Research Assistant in the Combustion and Energy Research Laboratory (COMER). His current research is focused on new catalyst development, ceramic materials for solid oxide fuel cells (SOFCs), combustion, energy conversion, fuel cell modeling, fuel cell technology applications and system design. Ryan is a Syracuse University Graduate Fellow and an Astronaut Scholar. Page 26.505.1 c American Society for Engineering Education, 2015 Developing T-Shaped Professional Engineers through an Advance Energy
-yearenrollment growth projections in engineering, these problems will continue into the foreseeablefuture. In an effort to address the conceptual gap in electrical engineering learning within theframework of the resource limitations described above, Arkansas Tech University set out toinstitute a laboratory education method more closely integrated with the classroom lectures.Several requirements were developed for implementation of the new program.Lab exercises would be coupled with the university’s existing Electrical Circuits 1 course andwould consist of simple and focused experiments designed to reinforce the current classroomtheoretical concepts. To provide the needed synchronization between classroom and laboratoryexercises and provide immediate
excellentopportunity to effectively train students on state-of-the-art applications, a broad spectrum ofengineering and science fundamentals, and the interrelationships between multiple engineeringdisciplines. We describe our experience and lessons-learned in teaching an advancedundergraduate-level GNSS capstone design course in the department of Electrical and ComputerEngineering at Virginia Tech over the past 15 years. We report on the objectives of the course,the topic selection, the capabilities of laboratory hardware, approaches to GNSS data extractionand analysis, and the importance of the accompanying teaching laboratory. Student perceptionsof specific measurable learning objectives are provided which underscore the importance of ahands-on laboratory
, masters, anddoctoral levels with instructional opportunities in and out of the classroom. Practitionerengagement (e.g. agencies, consultants, contractors, material suppliers, private laboratories) hasbeen a key component of this process, and is the focus of this paper. Practitioner involvement is:1) important to the educational process; 2) not always easy to obtain; 3) not always easy toeffectively utilize; 4) a key to the presence or absence of balance; and 5) debated amongsteducation literature. Key items that resonate through this paper are the student opportunitiescreated by balance, and how practitioners fit into this balance.Industry and agency collaboration concepts are nothing new and are discussed in literature1-5.The amount or extent of
program, student need to take course related programminganalyzed statistically. language. These courses are offered to student with further objectives: (1) Student must acquire fundamentalsThe proposed pedagogy incorporated hands on practice of programming languages (2) Student should have abilityin laboratories tailored with short theory sessions to learn software tools related to their discipline.(3)replacing conventional way of conducting theory sessions Student should have adequate skills of analyzingin classroom and practical sessions in laboratory requirement and developing engineering
Concerns – Indicate major environmental and safety concerns with the process. Include safety certificates from the 8 SACHE safety modules here. Perform a PHA on one reactor, and one distillation column. One PHA must be a HAZOP, the other is your choice and will not be covered in course material. Create a P&ID for these two unit ops with the previous PHAs in mind.The Unit Operations course offers a structured review of safety instrumented systems,laboratory, and personal safety. These topics are formally evaluated individually prior to the startof lab work.The Ohio State UniversityAt The Ohio State University within the Chemical and Biomolecular Engineering program,chemical process hazards, HAZOP analysis, laboratory
taught.1.2 Web-Based Delivery of Engineering Laboratory ExperimentsDelivering the laboratory component of an engineering course online has been identified by anumber of research groups ([1], [3], [19] and [20]) as the largest barrier to widespreadpenetration of web-based courses across the curricula in higher education. The importance of alaboratory experience is often inherently accepted by instructors as a way to reinforce classroomconcepts; however, there has been a considerable amount of research as to why a laboratoryexperience is important and what students gain from it. The authors of [20] provide acomprehensive and historical accounting of the purpose of a lab experience in engineeringeducation. The authors present that a lab gives