the children who collect information about New Mexico'srivers and streams. On our annual Discovery Day, buses from all over northern New Mexicoconverge on Highlands University--since 1994. Students enroll in mini-workshops of interestwhich are conducted by Engineering faculty and students. Each participating high school studentreceives a NASA logo tee-shirt and an experience of the possibilities awaiting them inEngineering careers. We instituted a bi-weekly seminar series for student development. Speakersfor the Engineering students have included former graduates from the Engineering program andalso speakers from NASA, the National Laboratories, as well as from private industry.A student chapter of the Society of Hispanic Professionals and
University,and the University of Tulsa. The objective of the project is to develop a new curriculum for teachingundergraduate and graduate students multiphase computational fluid dynamics for advanced design.The impact of multiphase flow research on solving practical engineering problems is an integral partof the learning experience. Industrial participants in the project provide specific design problemsrelated to emerging technologies. Students are taught the fundamentals of computational fluiddynamics (CFD) during a one-week workshop. This is followed by an Internet course on multiphasetransport phenomena. The students work in teams on CFD design problems with a faculty andindustrial mentor. The salient results of this NSF/CRCD project are
.3 Students in the course are expected to gain (1) understanding greenresources such as building materials, building forms, and building systems, (2) hands-onexperience with BIM, especially 3D geometric models instead of 2D CAD designs, and (3)hands-on experience with the effect of green resources on the projects using BIM analysis tools.Students are expected to build strong foundations for understanding global environmentalproblems such as climate change and ozone depletion, being familiar with the concept ofbuilding assessment, gaining a clear understanding about sustainable development andsustainable construction, and help students understand the relationships between sustainabilitypractices and building materials, building forms, and
, visualizations, web-based experimentation, and collaborative technologies. Today we depend on computers and the Internet to do our jobs, yet with all this availabletechnology we have only begun to scratch the surface of how we may harness the microprocessorto improve education.4 Interactive “Studio” based instruction at Rensselaer has been successful inmathematics, science and electrical, computer and systems engineering courses5 - wherecomputers are used to: help explain concepts with dynamic media; simulate design andperformance; and process data from real or virtual experiments. In a typical two-hour class with ascore of three to five different modes of orchestrated activity (e.g. lecture, problem solving,experiments, etc.), the challenge is to
to incorporate design projectswithin the technical classes: A group design project, with a final written report, requires the use(and hence learning) of all of these skills. A second opportunity to emphasize these skills is in Page 3.229.7laboratory reports. It is easy to fall into the mode of providing detailed directions for each (7)laboratory experiment and to require individual written reports from each student. However, byproviding only superficial directions and goals for the experiment, the students must developtheir problem solving skills (how to do the experiment). Secondly, by
the solid rocket engine motors,experiences of the undergraduate students who have participated in the competition and lessonslearned through this experience, and a few key projects undergoing current development. It willbe shown that these projects focus on the principles of systems engineering with highly detailedsystem/subsystem designs for rocket systems and propulsion systems. These projects have shownto offer unique opportunities for students to experience real-world challenges that are typicallyfaced by the aerospace industries on a daily basis.IntroductionIn recent years, several engineering universities have seen student-run, student designed, launchand operated high-power rocket systems and fundamental research in propulsion
sophisticated softwareto perform the autonomous navigation using the sensor inputs. The complexity of the projectnecessitates the involvement of a relatively large group of students working together on differentparts of the system.The Robotics Laboratory at the University of Central Florida has been participating in the annualIGVC competition since 2002. In this project the students learn about most of the engineeringdisciplines that are typically included in a complex robotic project such as software design,computer vision, sensor data interpretation and fusion, robotic motion planning, vehiclenavigation, vehicle design and construction, electric motor control, computer interfaces tovarious components and many others. Naturally this education
the 2nd International Conference on Industrial Application Engineering 2015, 2015, pp. 70–73.[6] R. Medina, M. Okcay, G. Menezes, and A. Pacheco-Vega, “Implementation of Particle Image Velocimetry in the Fluid Mechanics Laboratory,” p. 9, 2011.[7] B. U. Oztekin and M. Okcay, “Educational Particle Image Velocimetry Interactive Experiment Suites,” p. 25, 2008.[8] B. P. Ring and E. C. Lemley, “Design and Implementation of a Low Cost Particle Image Velocimetry System for Undergraduate Research and Education,” presented at the American Society for Engineering Education, Indianapolis, IN, 2014, p. 13.[9] W. G. Ryerson and K. Schwenk, “A simple, inexpensive system for digital particle image velocimetry (DPIV) in biomechanics
distributed the ArcGIS 8.3 education version and laboratory data toremote students. The laboratory teaching effectiveness is obviously improved, but the studentscan not still access the huge volume of the other geospatial data. Page 12.1353.5 Fig. 2 The configuration of ODU’s TELETECHNET (TTN)3. GIS TEACHING IMPROVEMENT USING GEOBRAIN SYSTEMTeaching improvement of the GIS course using the GeoBrain system is conducted by: (1) theconcepts, technology, and theory adopted in the GeoBrain system was first introduced, and thehomework was designed; (2) some questions in the homework only can be answered through theGeoBrain system operation
-hand knowledge of the community in which the design was to be implemented,through either study abroad or childhood experience. Unanimous student and instructor feedbackafter the first year indicated that students needed more structure for the project, and that choosinga community and/or project would help focus the class and make the projects more successful.Thus, two short-term projects were developed for the spring 2004 class, intended to workindependent of a connection to a community. While this was seen as a second or backup choice,we spent the time to develop satisfying projects so that we could use these in the absence of agood community-based project.The first project we developed involves building a small-scale slow sand filter using
designed to be mobile. A typical application will consist of two units, one atWSU and one that can be brought into the K-12 classroom. By linking the two via the Internetwe can provide real-time audio and visual between the two sites. Thus a teacher and their classcould have a virtual face-to-face interaction with the faculty member at WSU, similar to what wasdone in co-TEACH. A more exciting application of this technology will be to bring the K-12students into the faculty member’s research laboratory to let them see activities and equipmentthat would not be accessible to them at their school. We also wish to obtain better follow-up on student attitudes concerning engineering aftertheir teachers have been participants in our program. We are
Copyright 2005, American Society for Engineering Educationcurriculum with community college partners (Henry Ford Community College and MacombCommunity College) and an ideal articulation plan was devised where up to half the degreecredits (freshman and sophomore years) would transfer. An example of possible transferprogram with Henry Ford Community College is shown in Table 1. (iv) Created upper divisioncourses and related laboratories for the EGT curriculum. (v) Program launch of the modelBSET-EGT degree was delayed pending funding from external sources.ENERGY TECHNOLOGY BS DEGREE CURRICULUM It was important to design the BSET-EGT curriculum to satisfy the accreditationrequirements of the Technology Accreditation Commission of the
designed to encompass areas, and develop analytical and applied skills which can be expected to form the basis of electrical engineering in the future. (2) To give the students a more in-depth mastery of at least one area of electrical engineering. (3) To instill in the students the ability to apply this knowledge in the analysis, design and testing of engineering systems, processes and components. This includes the ability to use the computer and appropriate software tools, a facility with laboratory techniques, and with the analysis and interpretation of data. (4) To expose the students to engineering practice and to its ethical and societal aspects, and to make them proficient in
thesedevices are not readily available, as part of the solution, an engineering design class was taskedto develop the bobbins that are used. The experiences of the students in the design of thissolution are also presented. In the design process, several iterations of the bobbins wereperformed by one instructor/class while the bobbins were being used by another instructor/class.Finally, it is hoped that other universities can use the designs presented in their laboratories.Tags: Industrial test equipment; undergraduate electrical machinery labs; voltage, current, andpower measurementsIntroductionThe driving force behind this work was the replacement of laboratory equipment that was overtwenty years old and was no longer serviceable. Many other
2006-863: DEMONSTRATING ELECTROMAGNETIC NOISE IN ANUNDERGRADUATE MEASUREMENT AND INSTRUMENTATION COURSEDavid Muff, Iowa State University At the time of this laboratory development, David J. Muff was a graduate student in Mechanical Engineering at Iowa State University. He graduated with an MS degree in May 2005 and is current employed as a Design Engineer with Vemeer Manufacturing in Pella, Iowa.Theodore Heindel, Iowa State University Ted Heindel is the William and Virginia Binger Associate Professor of Mechanical Engineering at Iowa State University. He taught ME 370 at ISU from spring 2003 through spring 2005 and was responsible for major course modifications, including development of several new
Copyright c 2003, American Society for Engineering Educationwith the latest in research and industrial practices 1 . The concentration track emphasizes funda-mental issues such as the balance between hardware and software and the respective trade-offs ofbuilding embedded systems. Our curricular project spans the entire spectrum of activities related to the design and deliveryof educational and research efforts and is characterized by three main innovative components: 1) anew industry-university collaborative model for integrating basic and applied research into a degreeprogram4 , 2) creation and delivery of state-of-the-art course content and appropriate laboratories,and 3) creation of capstone projects that are implemented through internships
to the different engineering disciplinesand principles associated with engineering design. Consequently, by the end of the course, itwas our expectation that students would be able to: 1. Articulate the fundamental differences between the engineering disciplines 2. Work in a team environment to solve engineering problems 3. Write technical communications for various audiencesWe used a combination of laboratory worksheets, laboratory reports, quizzes, concept maps, anda final paper assignment to evaluate student learning.The course was taught by six faculty and was comprised of five modules (engineering topics andpanel sessions) that introduced students to the various engineering degree programs. The fivecourse modules
● students will be proficient in the oral and written communication of their work and ideas ● students will be proficient in computer programming and in the use of computer software ● students will have the ability to learn independently, but also be able to participate effectively in groups of their peers ● students will be able to design and perform laboratory experiments to gather data and test theories . students will understand the safety and environmental consequences of their work as chemical engineers ● students will be prepared for a lifetime of continuing education ● students will conduct themselves in accordance with the highest professional and ethical standards
-experience andsufficient engineering activities during the semester.The lessons learned from the previous orientation courses were used when planning the newcourses. The new courses were designed to not only make the transition from high school tocollege a more motivating and exciting experience for students, but also to provide themwith the basic engineering skills that would be useful in their future courses. In particular, thenew courses were designed to meet the following objectives: Page 6.510.1 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American
Engineer- ing, KLE Technological University, Hubli. He is a certified IUCEE International Engineering Educator. He is awarded with the ’Ing.Paed.IGIP’ title at ICTIEE, 2018.Dr. Nielsen L Pereira, Purdue University Nielsen Pereira is an Assistant Professor of Gifted, Creative, and Talented Studies at Purdue University. His research interests include the design and assessment of learning in varied gifted and talented educa- tion contexts, understanding gifted and talented student experiences in talent development programs, and conceptual, contextual, and measurement issues in the identification of gifted and talented populations. He currently serves as Associate Editor for Gifted and Talented International and on the
to determine operating conditions for displaying the separation of colorfulproteins in a variety of course settings. Anion exchange chromatography demonstrations havebeen developed, showing that a mixture of flavodoxin (orange color) and green fluorescentprotein (green color) can be selectively eluted at different salt concentrations, providing apowerful demonstration of the principles of protein binding and elution. These concepts havebeen expanded to full-scale experiments suitable for unit operations laboratories or upper-levelbiochemical engineering electives. This paper describes how these visually-appealingdemonstrations and lab exercises centered on bioseparations can be incorporated into lecture-and lab-based chemical engineering
toolswhich allow programs to be accessed through HTML code. The fact that LabVIEW isprimarily used for data acquistion is actually an advantage in several ways. Any program Page 5.74.3created with LabVIEW will be capable of being directly linked to the outside world. This linkcould involve control of an instrument or input of sampled data. The capability therefore existsto use the software as a stand alone tool or in combination with laboratory experiments andother software.The THERMOVIEW ConceptThe graphical structure of the LabVIEW programs suggests certain similarities to the processand cycle diagrams commonly used in thermodynamics courses. The
encourage their children topursue an engineering career, and 5) to provide age-appropriate resources to supportvolunteers in conducting informal engineering education programs with elementary-agedchildren and their parents. These goals are accomplish by conducting events in informalcommunity settings.In the development phase of the Family Engineering Program, consideration was given towhat families need to know about engineering. The project team developed the followinglist: Engineering is the use of imagination, along with science and math knowledge, skills, and experience, to address challenges and design solutions. Science, math, technology, and communication are important tools for engineers Engineers are creative
worked for Lockheed Martin, IBM, General Electric, BAE Systems, and Celestica Corporation. He has 25 years of experience in these companies designing military and commercial power electronic circuits and as a systems engineer for airborne and land vehicle electrical systems. He is a licensed professional engineer. He also received a B.A in philosophy and a M.Ed. from the University of Vermont. Before becoming an engineer he was a high school mathematics teacher.Prof. Sharon B Fellows, Binghamton University Assistant Director, Engineering Design Division, Freshman Engineering ProgramMr. Koenraad E Gieskes, Binghamton University Koen Gieskes first joined the Engineering Design Division at Binghamton University as a
toprovide students with hands-on laboratory experiences to construct simple embedded systems.As these systems have evolved in commercial applications, the number and complexity ofembedded controllers has also increased. A significant portion of the design process must nowfocus on software engineering and the integration of hardware and software. However, mostmicroprocessor-based system courses still emphasize hardware construction [4,5]. In order toaddress both software and hardware issues, it becomes essential to apply an interdisciplinaryapproach.Many microcontrollers are used in real-time control systems such as automotive electronics andfactory automation. To be practical for industry, the per-unit cost must be strictly controlled, butthe
engineering students are taught control of continuous systems using linear controltheory. These courses often include topics such as step response and design of lead/lag control-lers. In terms of the pedagogy, linear controls are less desirable for the mechanical engineeringstudents because they are very difficult to implement in actual designs. The linear approachmakes more sense for electrical engineering students who are familiar with the mathematicaltools, and can implement the control system easily with common electronic components.This paper will describe a course, EGR 450 - Manufacturing Control Systems. The courseincludes lectures, laboratories and a project. This course uses rigorous design techniques and the-oretical methods to teach
tests.The five laboratory classes in the manufacturing sequence introduce students to drawing andmachining skills. Students develop hand and CADD drawing techniques in Technical Drawingand Machine Drawing. In Machine Tool Laboratory I students machine a project, and inMachine Tool Laboratory II students machine a project that they have designed and drawn inMachine Drawing. Students create computer numerical control (CNC) codes from drawings andlearn the basics of welding in Introduction to Computer Aided Machining (CAM) and Welding.A large portion of the baseline year MET 270 syllabus focused on the machining, CNC control,and welding topics of the laboratory classes.In the baseline year students also performed company studies. Student groups
student development in bridging disciplines. Our goal was to design new experiments forthe laboratory course associated with Fluid Mechanics incorporating material from other courses,in this case Circuits. Fluids and its laboratory are typically taken in either the junior or senioryear. All students have taken Engineering Dynamics, Physics, and Chemistry. In addition,approximately half of the students have completed the Electric Circuits course. These laboratoryexperiments integrate use of National Instrument’s LabVIEW™ which is used extensively inElectric Circuits. Previously described experiences demonstrate the usefulness of LabVIEW™ inthe context of Circuits [6], Data Acquisition [7], Signals [8], and Fluid Dynamics [9] [10] [11] [12]courses
and biofabrication, biomechanics, and tissue engineering just to name a few. She is interested in integrating cutting edge education tools and hands on activities into her courses and teaching laboratory courses.Zachary Mineroff, Carnegie Mellon University As Assistant Director of Learning Engineering at CMU, Zach supports the design, development, and implementation of innovative educational technologies and learning experiences. He supervises a team of learning engineers that supports instructors through consultations, course design projects, and fellowship programs. He is a graduate of the Masters of Educational Technology and Applied Learning Science (METALS) program at CMU.Judy Brooks, Carnegie Mellon UniversityAvi
training tools that will provide students with extensive hands-on experience installing the equipment currently used in industry. 3) Offering the Fanuc Robotics industrial certificate in robotics and automation.Learning OutcomesThere are rigid requirements in place to obtain certificate in robotics. Each participating studentmust complete series of tasks including: the theoretical part of the industrial robotics course,multiple simulation projects, laboratory assignments, web-based quizzes. Upon successfulcompletion of web-based quizzes for each topic of the course material, the involved student willneed to successfully pass a comprehensive HandlingTool Operations and Programming exam.Upon successful completion all of the requirements