engineering students are tasked withincorporating design for manufacturability (DFM) in the design of a plastic component andinjection mold that will later be machined by a separate course that contains manufacturingengineering and plastics engineering students. After completion of the injection mold, it isutilized by the part designers (plastics engineers) to mold the components they designed. Eightgroups in each class work together on separate projects in and out of class. Checklists are utilizedto ensure design criteria are met while staying within the scope of the project and the capabilitiesof the university laboratories. The end result is a real-world experience of the workingrelationship between a customer and a supplier, complete with design
simulationenvironments as well as infrastructure for building and testing flying platforms are available andare used to support the general AEBS courses and in particular the AoE in UAS. These assetspossess the level of complexity, detail, and flexibility that allows them to create an excellentframework for the implementation of innovative educational methods including active learning[15-17], experiential learning [18-21], and collaborative learning [22-24]. The AECC relies onpermanent engagement of and interaction between all educational constituencies. The generalstrategy promoted by the AECC is illustrated in Figure 1.Two specialized MAE laboratories are particularly supporting the AoE courses. The UAVDesign-Build-Fly Laboratory is dedicated to student
measurement in gravitational lensing setting can bestudied when the field lines are already published 10, and simplification for extension to high schoolproject in a K-12 education scheme could be performed using Science News contents such as thosegalaxy magnetic field examples posted on Phys.org 11, 12.NIH mRNA sequence analysisThe analysis of mRNA sequence could shed light on the non-coding region which is important incontrol and gene regulation. The A, T, C, G nucleotide sequences for homolog sequences havebeen examined for the difference in the non-coding regions because the homolog sequences sharehomologous protein structure and NIH confirms the laboratory verifications and routinely updatesthe mRNA database. Operationally speaking, when two
Flex Fuel Vehicles”, Paper presented at 2017 ASEE Annual Conference & Exposition, Columbus, Ohio. June 2017, https://peer.asee.org/27417 2. K.M. Park, “Advanced Manufacturing Laboratory to Enhance STEM Learning”, Paper presented at 2017 ASEE Mid Atlantic Section Spring Conference, Morgan State University, Baltimore, Maryland, April 2017, https://peer.asee.org/29247 3. D.J. Cox, “Development of Hands-on Laboratory Resources for Manufacturing Engineering”, Paper presented at 2017 ASEE Annual Conference & Exposition, Columbus, Ohio, June 2017, https://peer.asee.org/28172 4. P.R. Stupak, S. Rumrill, B. S. Carlsen, T. George, and J. Suriano, “Authentic Engineering Experience
collaborations with the National Energyrange of areas in Process Systems Engineering that extends Technology Laboratory (NETL), which has led to a numberfar beyond traditional chemical process design. With the of projects related to modeling, optimization, and controladdition of Erik Ydstie in 1992, process control became a for energy systems. The Energy Systems Initiative (ESI)focus research area. The addition of Nick Sahinidis in 2007 comprises projects related to energy systems, and includesand Chrysanthos Gounaris in 2013 brought further strengths topics ranging from solar cell research to technologies for CO2in core optimization areas, as well as new applications at the capture and sequestration, and advances in
torecruit youth into the STEM pipeline by raising STEM awareness and curiosity during a highlyinfluential time in their development11.The technology of remote laboratories also opens up a wide range of possibilities, because itbreaks physical barriers and allows access to them from any computer at any location and atany time using the Internet. In addition, remote laboratories must be used through a computerconnected to the Internet, and this allows the use of advanced features that enhance the learningexperience -- thus richer learning experiences can be created. Furthermore, from a pedagogicalpoint of view, these remote laboratories open new fields of innovation based on the developmentof different competencies and, by involving parents, new
incorporated problem-based learning into her lectures, lab- oratories, and outreach activities to engage students and the community in the STEM education process.Dr. Margaret Pinnell, University of Dayton Dr. Margaret Pinnell is the Associate Dean for Faculty and Staff Development in the school of engineering and associate professor in the Department of Mechanical and Aerospace Engineering at the University of Dayton. She teaches undergraduate and graduate materials related courses including Introduction to Ma- terials, Materials Laboratory, Engineering Innovation, Biomaterials and Engineering Design and Appro- priate Technology (ETHOS). She was director of the (Engineers in Technical Humanitarian Opportunities of Service
courses were identified by the authors as having the most potential for lastingimpact from ME 100L because they are heavily project-based and require building andprogramming of a physical mechanical system. • ME 220L – Strength of materials laboratory • ME 325/L – Machine design laboratory • ME 340 – Modeling and simulation of dynamic systems • ME 435/L – Theory and design of mechanical measurements • ME 439/L – Control of mechanical systemsTwo additional courses were identified as likely containing a mixture of students who took theold version of ME 100L and the redesigned version of ME 100L. • ME 312 – Fluid mechanics II • ME 313L – Fluid mechanics laboratoryAmong the 201 surveys that were analyzed, 125 students took the
2017 Pacific Southwest SectionMeeting: Tempe, Arizona Apr 20 Paper ID #20660On-line learning practices of millennial students in the flipped classroomDr. Jean-Michel I. Maarek, University of Southern California Jean-Michel Maarek is professor of engineering practice and director of undergraduate affairs in the De- partment of Biomedical Engineering at the University of Southern California. His educational interested include engaged learning, the flipped classroom, student assessment, and innovative laboratories c American Society for Engineering Education, 2017
Electrical Engineering from Ohio University. His experience includes several fellowships with NASA and the US Navy Laboratories and employment with Koch Industries. Dr. Bachnak is a registered Professional Engineer in the State of Texas, a senior member of IEEE, and a member of ASEE. He has also served as an ABET Program Evaluator on several accreditation visits.Prof. AB Shafaye, Penn State Harrisburg AB Shafaye has been a faculty member at Penn State Harrisburg since August 1986. He is currently the chair of Electrical Engineering and Electrical Engineering Technology Programs. In addition, he coordi- nates the ABET activities for Penn State Harrisburg’s three engineering and three engineering technology programs. He
to design and final construction documentspreparation. Furthermore, they offer a powerful tool for implement various numerical methodssuch as finite element and finite difference methods, which can be used for undergraduate andgraduate research investigations of novel and complicated geotechnical problems.Geotechnical Data Management and Reporting ProgramsThe geotechnical data management and reporting software is used to summary the data collectedfrom the geotechnical field investigation as well as laboratory testing and generate the boring logand coring log as well as the geological profile for geotechnical report. This type of programsprovides an efficient way for managing the data from the field investigation and offers variousways for
. in mechanical engineering from the Bharathiar University, India. He is currently a professor and di- rector of engineering technology at the University of Texas, Brownsville (UTB). Prior to joining the UTB faculty he was a visiting professor at the Rochester Institute of Technology and an associate professor of production engineering technology at PSG College of Technology, Bharathiar University, India, where he served as the director of the Computer Vision Laboratory and National Cadet Corps – Engineering Division Director. With over 26 years of teaching and research experience in manufacturing/mechanical engineering and engineering technology, he currently teaches in the areas of CAD/CAM/CIM, robotics and
and apply it is groundedin understanding fundamental concepts.Only a few studies have focused on developing hydraulics labs6,7. At Washington StateUniversity, an open channel lab was developed to improve conceptual understanding ofhydraulic jumps and weirs6. Students are guided through the lab, then asked to design a weir toreduce the power of the vortex created by the hydraulic jump downstream of the weir. Studentswere enthusiastic about the lab, and it fostered further discussion. At University of Queensland,both laboratory and field studies were introduced to increase student interest7. Student feedbackindicated that lab and field studies helped them think more critically about hydraulics, which isreflected by the decrease in failure rates
-basedlearning is a dynamic method to inspire students to obtain a deeper understanding of the subjects, applyand integrate knowledge they are studying. Normally a project is a complex task that involves designthinking, decision making, problem solving, etc. [2]. The benefits of project-based learning includeimproved student participation in the learning, strengthened communication skills, promotion of criticaland proactive thinking [3]. Literature shows that real world problem will improve student’s understandingof the materials learned in classroom [1]. Laboratory work motivates students to learn actively, thus it hasbeen widely applied to many engineering subjects [4~9].Mechanical Vibration Course has been offered starting Spring 2014 for senior BSME
College of Engineering and the 2014 Engineers Without Borders-USA Peter J. Bosscher Faculty Advisor Award for Outstanding Leadership.Mr. Mostafa Soltaninejad, University of Nebraska, Lincoln Currently, I am a graduate student and studying Transportation Engineering at the University of Nebraska- Lincoln. My research focuses on using 360 videos and virtual reality for laboratory teaching in traffic engineering. Previously, I have received my B.Sc. degree in Civil Engineering and M.Sc. degree in Highway and Transportation Engineering from Iran. The title of my M.Sc. thesis was ”Feasibility of using coal waste powder in roller compacted concrete pavements”.Claudia Ponce de Leon Claudia Ponce de Leon is currently a junior
Connections, and Demonstrate Value Creation for First Year Engineering StudentsIntroductionThe Rowan University engineering curriculum includes an interdisciplinary first year sequence,Freshmen Engineering Clinic I and II (FEC I and II), which is required for students in allengineering disciplines. Each course has one 75-minute “unlecture” period and one 165-minute“laboratory” period each week. Instructional objectives for the sequence include generalengineering skills such as engineering communication, collection and presentation of data, basicstatistics, dimensional analysis and unit conversions, etc. During the 2018-2019 academic year,FEC I and II were each offered in 17 sections of approximately 20 students each. Each section ofFEC II, which
descriptors, but expansive enough that itcould be easily interpreted and applicable across STEM disciplines. Furthermore, through manydetailed discussions with the PCT before and during classroom implementation, the appearanceand structure of the rubrics were optimized in order to be used efficiently as an assessment toolin classrooms.We have established that each rubric can distinguish among different levels of evidence for thetargeted process skills, and that each category of the rubric assesses different aspects of the skill.Figure 3 illustrates the use of the problem solving rubric to assess student laboratory reports in ananalytical chemistry laboratory course. The results indicate that each category measures a rangeof student achievement and
- eral agencies including the National Science Foundation, the U.S. Department of Energy, the Department of the Interior, Department of Transportation, the Department of Education, and the Los Alamos National Laboratory, as well as industry organizations and partners, such as the National Masonry Concrete Associ- ation and Nucor. She serves as the director of the National Science Foundation-funded Tigers ADVANCE project, which focuses on improving the status of women and minority faculty at Clemson. In addition, Dr. Atamturktur is the director of the National Science Foundation-funded National Research Traineeship project at Clemson, with funding for over 30 doctoral students and a goal of initiating a new degree pro
entail. Initially, this coursewas offered as a one-credit hour seminar format, however, the 2.1 Laboratory-based activitiesclass was expanded to include a design component in order to The laboratory portion of the exercise remains largelyengage students in formal engineering training early in their unchanged from previously reported.curriculum. This trend has occurred in many engineering Proceedings of the 2018 ASEE Gulf-Southwest Section Annual Conference The University of Texas at
considered to be reasonably representative. Forty-three1. Introduction professionals from a broader sampling of CEE sub While civil and environmental engineering (CEE) disciplines completed the second survey. The respondentsundergraduate curricula generally incorporate laboratory were somewhat skewed toward structural engineeringcourses in such topics as material testing, fluid mechanics, (44%). The years of practice of the respondents varied fromand geotechnical engineering, among others, the subject 0-2 years to over 31 years. Respondents with 6 or morematter is often limited to either an experimental years of experience varied from 86% of the broader
implementation of three complimentary technology threads. o Mechanical Systems ̇ Structures and Mechanics ̇ Mechanisms and Materials Lab ̇ Thermo/Fluid Systems ̇ Mechanical Systems Design o Electrical Systems ̇ Analog Circuits and Devices ̇ Digital Electronics ̇ Instrumentation and Controls Lab ̇ Mechatronics o Designed World ̇ Creative Design ̇ Engineering Design ̇ Multimedia Design ̇ Architectural and Civil Engineering Design ̇ Prototyping Laboratory ̇ Manufacturing SystemsThe complete four-year course of
, space, costs, and available resources. Each team designedand tested one or more subsystems. These systems were next integrated into the full system. Thedesign teams, thus, gained a better understanding of practical design considerations andintegration as well as project management. The students tested the functional ability of the robotin the laboratory after subsystem integration.The success of the hands-on practical design approach in the microprocessor based control classis clearly demonstrated by student satisfaction, presentations, reports, and overall achievement inthe course. The new redesigned course allowed more realistic practical industry based designconcepts to be adopted together with more active student
Laboratory Physics. Table 3 shows courses taught at RVGS that aredirectly relevant to material taught in GSEN with the corresponding year students typically takeeach class. Table 3 - RVGS Courses Relevant to Engineering Education Course Academic Level Governor's School Engineering** Senior Integrated Mathematics Freshman Laboratory Physics Freshman Fundamentals of Research Freshman Contemporary Pre-calculus Sophomore Laboratory Calculus Junior Advanced Calculus
concepts, factory metrics andmanufacturing execution systems emerged from this study. It is important to note thatthese components are emerging in automated fabrication facilities in all types ofindustries including, but not limited to semiconductor manufacturing, food processing,metals, wood, and plastics fabrication, electronics, automotive, and distribution facilities.The second challenge was to create a laboratory-learning environment that simulated asophisticated manufacturing operation that could be deployed in a community college orfour-year college setting. In the late 1990s some Arizona educators had started discussinghow community colleges might better prepare students for automated workplaces. Thediscussions widened to include Intel and
(SS) course, taught in virtually every EE program. The traditionallecture/exam format is, for many students, not effective at instilling the key concepts such thatthe students truly understand. They frequently fail at making the connections betweenmathematical results and physical results and lack the ability to gain engineering insights frommathematical results.Various programs have approached these challenges by adding a lab, or augmenting their classeswith web-based or computer demonstrations. Because of other pressures in the curriculum, wesought an alternative approach that did not increase laboratory time but obtained the goals ofhands-on learning. In order to obtain the increases in comprehension we are seeking, our focushas been on
or graduates? In research, as in so many other endeavors, there is safety in numbers.5. Independent studies and researchHow might an independent-study student assist with research? The possibilities are many. Letme list a few. • Help set up a lab experiment, or a simulation environment. Lai and Sullivan3 had independent-study students set up lab experiments in a polymer-processing laboratory, and provide feedback to improve the experimental procedures. • Run a set of benchmarks on a simulator, and tabulate and analyze the results. • Do a literature search in an area that you are interested in moving into; ideally, this could lead to a publishable survey paper. • Write code for a program being used in
collected throughmodeling and simulation is entered in an MS Excel spreadsheet, MS Project is used totrack the tasks assigned in the project, MS Word is used to create a report, and MSPowerPoint is used to create a presentation of the project to the class. This course thenserves as the foundation for laboratory courses utilizing CAD and MS Office softwaretools. Figure 1 – Bottle Opener Assembly Practical Applications in Parametric ModelingThe parametric modeling course integrates geometric dimensioning and tolerances, anddescriptive geometry while creating 3D parametric models, assemblies and associativedrawings. The theme of embedding design solutions in the computer graphics courses iscontinued in this course
certainty of aperson’s identity because of its unique features (Fig. 1), especially when combined in ahybrid arrangement. Iris biometrics has proven to be a viable solution to a number ofsecurity-related applications. Its application ranges from allowing physical access intosecure sites, networked computers, sensitive facilities, and financial transactions whereprevention of identity theft is vital, as well as surveillance applications such as Page 12.1163.2identifying a potential terrorist in a public place. In academic and research environments,biometrics is especially useful for access control to private areas, laboratories containinghazardous materials
the College of Engineering at Rowan University, we have developed a curricularcomponent, “Engineering Clinics” [3], to address this challenge in engineering education.Based upon the medical school model, students and faculty work side-by-side inEngineering Clinics on multidisciplinary or interdisciplinary laboratory experiments,design projects, applied researches, and product developments. While each clinic coursehas a specific theme, the underlying concept of engineering design permeates all clinics.The progression through clinics systematically develops our students as collaborativedesigners. This begins with the Freshmen Engineering Clinic, which introduces designthrough reverse engineering [9]. At the sophomore level, students experience
been a Visiting Professor at the University of South Carolina and the University of Manitoba, Winnipeg, Canada. He served also as a Visiting Scientific Advisor to Instituto de Investigaciones Electricas, Cuernavaca, Mexico. In 1987, Dr. Grzybowski joined Mississippi State University, where he is now a Professor at Department of Electrical and Computer Engineering and Director of the High Voltage Laboratory at Mississippi State University. Dr. Grzybowski is a Life Fellow of the IEEE. His main research interests are in the area of high voltage engineering. His current research focuses on the lightning protection of power systems, ships, aerostats and other objects. He conducted study