. While statemachines are well known in networking and digital design, we have found that typical CPEstudents do not carry over their state machine skills into their network programs. In addition,CSC and SE majors may not have any experience in state diagrams and state machines.Therefore, as part of the process the concept of state diagrams and how they may be applied tonetworking programs is presented to the students.As shown in our results below, this approach has improved the completion rate and quality of thestudents’ programming assignment. In addition, I present the results of two student surveys thataddress using this methodology in developing programs.In the remainder of this paper we present an overview of the course, the steps used to
Paper ID #17644University as Partner: Building Professional Relationships between Construc-tion Programs and Their InstitutionsDr. James W. Jones, Ball State University Dr. James W. Jones is the Construction Management Program Director and an Associate Professor in Ball State University’s Department of Technology. He has taught in the areas of leadership and construction management for more than 14 years and has more than a decade of experience managing construction projects in both field and office environments. c American Society for Engineering Education, 2017 University as Partner
talents of all of its citizenseffectively. This work will focus on the evaluation design of this project. The BMCA projectfocuses on the creation of a set of educational materials grown out of “hands –on” laboratory andresearch experiences, interactive interviews and cutting edge informational technology. Thecreators of this content, URM students educated in North Carolina; will form the network of rolemodels for future generations of STEM students.4. Program Logic Model A program theory should guide the evaluation process of any given program. Evaluatorsoften use logic models to analyze the theory behind the programs that they are evaluating. Logicmodels can be used as tools to identify key evaluation questions and to allow stakeholder
many educators feel that the effectivenessof scenes/sources instructor can switch of remote learning is hampered because ofbetween seamlessly via custom transitions that. There are many barriers to studentallows for a learning experience like that of engagement including, but not limited to,a regular classroom experience. The scenes financial challenges [8], students dealingwere broadcasted via Zoom to teach ECE with stress and trauma [9], lack of support2010, a laboratory-based engineering and structure at both the technology andcourse, and summer pre-college programs course design level [10], and teachingat WPI, and the feedback from students was practices that simply don’t work
exhibits. Benefits of employing virtual world simulation tools include rapidprototyping, low-cost development and delivery, collaboration, and access to aninternational community. An interactive robotics exhibit in the area of mobile robotprogramming education has been constructed and deployed in the virtual world. Asecond exhibit to enable 3D human-robot interaction studies has also been established.Student access, involvement, and collaboration in the virtual robotics exhibits have beensuccessful. Simulations developed in 3D virtual worlds, such as Second Life, can serveas a highly accessible virtual laboratory and can support a variety of educational andresearch objectives in the area of mobile robotics and human-robot interactions.1
details good design and implementation practicesfor the evaluation of engineering outreach programs specifically designed to serve communitycollege students with the goal of sharing good practices that were found to be helpful inunderstanding the outcomes of the program for the participants, and the assessment of theefficacy of the program itself.After students are recruited to and participate in engineering outreach programs, it is crucial tocontinuously assess their needs and experiences during the program, as well as to assess theeffectiveness of the program activities designed to address these needs after the program ends.Evaluating how the program’s activities, resources, and materials impact its participants isessential for stakeholders to
Run 1 and Silicon Run 2” Ruth Carranza Productions3. Bauman, E.J., Jurgens D.E., “Undergraduate Electrical Engineering via Tutored Video Instruction,” Frontiers in Education Conference, 1994, pp 460-463.4. Long, B., Schenk S., “The Digital Filmmaking Handbook,” Charles River Media, 20025. Canelos J., Catchen G., “Making Abstract Engineering Course Content Computer Generated Graphics and Video Tutorials: The Development Process,” Proceeding of the Frontiers in Education Conference, 1988, pp 297-301.6. Kostek T.E., “Video Recording Laboratory Experiments for Open Laboratory Environments,” Frontiers in Education Conference, 1991, pp 475-4787. Doering E.R., “Low-Cost, High-Impact Video Production Techniques for Laboratory
flexibility in the PhD experience that provides the graduate student not only technicaldepth but also substantial practical breadth to cover all aspects of the engineering process.Although professional doctorates are pursued by industry practitioners to achieve their post-graduate educational goals (e.g., promotion opportunities), and full-time on-campus graduatestudents pursue PhD degrees to attain their professional development objectives (e.g., academicand post-doctoral positions, employment in research-centric organizations and laboratories),there exists several stereotypes that full-time industry practitioners are unable to pursue a PhDdegree while working full-time, and that PhD degrees are not useful for industry practitioners.Several
in various manufacturing and inspection processes. ApplicableABET Outcomes are: 1, 3, 4, 5, 7 and 11. Applicable Track-Specific ABET Outcomes are: M1,M2 and M3.ABET Outcomes are: Engineering graduates have (1) an ability to apply knowledge ofmathematics, science and engineering, (2) an ability to design and conduct experiments, as wellas to analyze and interpret results, (3) an ability to design a system, component or process tomeet desired needs, (4) an ability to function on multi-disciplinary teams, (5) an ability toidentify, formulate and solve engineering problems, (6) an understanding of the professional andethical responsibilities, (7) an ability to communicate effectively, (8) the broad educationnecessary to understand the impact of
his knowledge on simulation of multiphase flows while acquiring skills in high-performance parallel computing and scientific computation. Before that, Dr. Ayala held a faculty position at Universidad de Oriente where he taught and developed courses for a number of subjects such as Fluid Mechanics, Heat Transfer, Thermodynamics, Multiphase Flows, Hydraulic Machinery, as well as different Laboratory courses. Additionally, Dr. Ayala has had the opportunity to work for a number of engineering consulting companies, which have given him an important perspective and exposure to the industry. He has been directly involved in at least 20 different engineering projects related to a wide range of industries. Dr. Ayala has
received a bachelor of science degree in aerospace engineering from Polytechnic Institute of Brooklyn in 1974 and a master of science degree in engineering science from George Washington University in 1980. In 1990, he received a doctorate in aerospace engineering from Virginia Polytechnic Institute and State University. Upon completing his B.S. degree from the Polytechnic Institute of Brooklyn, Camarda began work for NASA’s Langley Research Center, Hampton, Virginia, in 1974. He was a research scientist in the Ther- mal Structures Branch of the Structures and Materials Division and was responsible for demonstrating the feasibility of a heat-pipe-cooled leading edge for Space Shuttle by analysis, laboratory experiments
in the ease of implementation and a great impact. The Infinity Projectprovides a complete turnkey solution including curriculum, teacher training, and technology.Target Audience“When am I ever going to use this?” - a question posed all-to-often by students to their math nadscience teachers. The Infinity Project provides the answer to this question for both teachers andstudents. The prerequisites for the Infinity Project are Algebra II and one laboratory scienceclass. The Infinity Project is not only for the super-smart students, but rather is designed tointroduce students to engineering by taking math and science concepts and applying them tofamiliar entities – the Internet, music, video, and more. In college, the course is positioned as
Paper ID #14249Putting the Emerging Commercial Sub-orbital Industry to Work for Engi-neering EducationDr. Steven H. Collicott, Purdue University, West Lafayette Professor Collicott has led the proposing, design, and construction of 32 low-gravity NASA aircraft ex- periments, designed 2 of 6 tests in the successful Capillary Fluids Experiments (CFE) performed in the International Space Station in 2006/07, and advised on CFE modifications launched in April 2010. In 2012 he was selected by NASA as PI on the Fluids Education payload for ISS, a new science payload and program in conjunction with a colleague at another school
materials.(2) Develop experiments to compress a sample of foam or elastomer and measure force anddeformation. (3) Use the concepts of stress and strain and use them with Hooke’s Law tocompute a modulus of elasticity. (4) Compare a variety of materials and determine how themechanical properties affect the use in design and function. Measurements and Calculations: Students will place a material sample in a universaltesting machine and use an LVDT and load cell to record the displacement and force during thecompressive deformation. This data is used to calculate stress and strain and modulus ofelasticity. Engineering Principles: Students apply concepts of stress, strain, deformations, Hooke’sLaw, and modulus of elasticity, then compare
AC 2011-227: ELEMENTARY ENGINEERING IMPLEMENTATION ANDSTUDENT LEARNING OUTCOMESJeremy V Ernst, North Carolina State University Jeremy V. Ernst is an Assistant Professor in the Department of Science, Technology, Engineering, and Mathematics Education at North Carolina State University. He currently teaches courses in digital media and emerging technologies. Jeremy specializes in research involving students categorized as at-risk of dropping out of school. He also has curriculum research and development experiences in technology and trade and industrial education.Laura Bottomley, North Carolina State University Laura Bottomley received a B.S. in Electrical Engineering in 1984 and an M.S. in Electrical Engineering
program outcome assessment,helpful in student learning, and logistically feasible. The authors conclude that requiring studentsin selected courses to complete portfolios entries solves most of logistics problems associatedwith a large-scale portfolio plan. While commenting on the use of portfolios to assessengineering communication, Williams11 suggests that portfolios used in engineering educationshould be designed to document student learning in more technical areas, such as engineeringpractice, experiments, design, etc., and portfolio models adopted from language arts andeducation fields may not offer what engineering students/faculty need. The author furtheremphasizes the need for more research demonstrating the benefits of portfolios over
between Java-DSP and the National Instruments LabVIEW tool. This interface is made possible using J-DSPMathscript capabilities and provides an effective way to utilize several functionalities across bothvisual environments. The motivation for providing this feature is to enable students to accessimportant LabVIEW modules and functions and particularly tap on powerful real-timecapabilities of LabVIEW that allow to acquire and process real-time signals. This interface hasbeen tested by students in the Digital Signal Processing laboratory.2. Generating Mathscript Code from J-DSP Simulation Mathscript is a text-based scripting language available in LabVIEW that can be executedin the Mathscript window by the LabVIEW runtime engine. A native
configuration for a variety of analog and digitalcommunications experiments in our EGR 415 Communication Systems course offered at GrandValley State University in the Fall of 2015. This course is taught at the senior-undergraduate/first-year-graduate student level, and it is an EE elective in the Signals andSystems emphasis area. The course is composed of a traditional lecture session of 3 hours/weekwith a weekly 3 hour laboratory. Topics follow a traditional progression through analogmodulation techniques such as AM and FM, followed by baseband digital communications andpulse-BW/shaping into bandpass digital communication methods such as ASK and PSK.Performance in the presence of noise is likewise considered. If time allows, advanced topics suchas
, andmay be likely to bring these different perspectives to bear in processes of problem definition andproblem solution."In the Food, Agricultural and Biological Engineering Department, at The Ohio State University,we have established an initiative in South Africa that expanded our senior capstone engineeringdesign experience to include the option of international design projects8,9. All of ourundergraduate engineering students take a year long series of courses during their senior year.Prior to 2006, our department offered no opportunities for students to directly address globalissues. Since 2006, a total of twenty undergraduate students and two graduate students haveparticipated in this initiative. Seventeen of these participants are female and
(STEM) [1-2]. To date, 92 students from 64 universities, morethan half of whom were female, have taken part in this program.REU programs are designed around the needs of the undergraduate student participants. Theresearch projects, seminars, laboratory/industry tours, meeting with mentors, networking eventsand other activities are all set up to maximize the positive impact of a research experience on thestudents. After all, numerous studies have shown that active participation in hands-onundergraduate research is one of the most effective ways to attract and retain talentedundergraduate students, to motivate them towards pursuing careers and advanced degrees inengineering and science, to help them feel more connected to their educational
undergraduate and graduatestructural analysis and design courses the curriculum can be broken into following four focusareas: theory, examples, experimentation, and experience. The “theory” part and some“examples” illustrating the application of the theory will be taught as is currently done. The VEtools developed in this project can be integrated into the courses in presenting “examples” and“virtual experiments” to demonstrate: 1) how actual connections and structural systems look likeand are fabricated in the real world; 2) how loads get transferred from one member to anotherthrough the connections and ultimately to the foundation; 3) how laboratory experiments are Proceedings of the 2003 ASEE Gulf-Southwest Annual Conference
Huggins is an Associate Emeritus Professor of Engineering at Penn State New Kensington. He also serves asa co-PI for PRIME. He has 32 years of teaching experience in engineering and has extensive experience in thearchitectural profession in the field. He has worked as a consultant, partner, and owner at Design Consultants, Inc.,Architects. Mr. Huggins earned a B. Arch. Degree from The Pennsylvania State University and a City PlanningCertificate from the University of Florence, Italy.PEARLEY CUNNINGHAMPearley Cunningham is a Department Head and Professor of Engineering Technology and Physics at the CommunityCollege of Allegheny County. He also serves as a co-PI for PRIME. He has 28 years of teaching experience inengineering technology, controls
Department (DIEEC) at UNED. He is author\co-author of more than 25 publications; including conference papers, book chapters, and journal articles on remote laboratories. He is collaborating in several researching projects among them NSF Catalyzing New International Collaborations proposal ”Building an Ecology of Online Laboratories”. c American Society for Engineering Education, 2013 Paper ID #6942Prof. Manuel Castro, Universidad Nacional de Educacion a Distancia Manuel Castro, Electrical and Computer Engineering educator in the Spanish University for Distance Education (UNED), has an industrial
ENGR 3 AOE 4214 OCEAN WAVE MECHANICS 3 ME 3134 FUND OF THERMODYN 3 AOE 4244 MARINE ENGINEERING 3 ELECTIVE** 3 STAT 4705 STATISTICS FOR ENGR. 3 18 18 SENIOR YEAR FALL SPRING AOE 3044 BOUND LAYER & HEAT TR 3 AOE 4066 SHIP DESIGN (WI) 3 AOE 4065 SHIP DESIGN (WI) 3 TECHNICAL ELECTIVES++ 3 AOE 4254 OE LABORATORY 1
addition,this program is designed to be manageable within our existing engineering degree programs whilerequiring global learning and international experiences beyond simply studying abroad. Studentswho satisfy the requirements will have "Global Engineering Perspectives Scholar" added to theirtranscript.The program requirements are: (a) demonstrate proficiency in a foreign language, (b) participatein an abroad experience, (c) complete a minimum of three courses designated by the university asglobal connections or foreign language, (d) complete a minimum of three engineering courses, and(e) submit a reflection assignment. The reflection assignment was based on the following prompt:“How did the completion of the requirements for this program enhance
counseling concerningpreparing for and applying to graduate programs.Faculty-Directed Individual and Group Undergraduate Student Research Projects: The goal of this program is to provide students with "hands on" opportunities to serve asapprentice researchers to a faculty member's research project which genuinely prepares them forfurther research at the graduate level. These projects have academic expectations for theparticipating underrepresented minority students above and beyond the ordinary expectations oftheir course work.LEVEL 2 (NON-INTENSIVE) ACTIVITIESSkill Building Workshops: Workshops are designed to increase student performance on the graduate record examination.These workshops sessions are a one-day experience providing guidance and
Paper ID #30583Simple Lab Exercises Using Composite MaterialsDr. William E Howard, East Carolina University William E (Ed) Howard is an Associate Professor in the Department of Engineering at East Carolina University. He was previously a faculty member at Milwaukee School of Engineering, following industrial experience as a design and project engineer with Thiokol Corporation, Spaulding Composites Company, and Sta-Rite Industries.Dr. Colleen Janeiro, East Carolina University Dr. Colleen Janeiro teaches engineering fundamentals such as Introduction to Engineering, Materials and Processes, and Mechanics of Materials. Her
understanding of how all this academicinformation will be important and utilized in the future. To help the students maximizetheir learning in the classroom and begin to understand the complexity of themanufacturing industry, various activities, laboratories, and tools have been developedfor this Introduction to Materials course. These ideas were developed to engage thestudent in this course and help them obtain a deeper understanding and appreciation ofthe material world than they would get with a traditional lecture format. This paperdiscusses the strategies and tools used to present various materials concepts to thestudents along with the guided activities and laboratory experiments performed by thestudents.IntroductionYoung children are very
of more importance in design of traditional process equipment and facilities and in environmental fields. Probability analysis is very important in health and safety fields. Each field has its own specific “industrial strength” computer program packages used for design, analysis and operations. Students should gain experience using the ones in their fields. • Design, economics, process control and laboratory: These are all topics that have close ties to industrial and/or research laboratory practices. They can be very different, however, depending on what industry or research area they are tied to. The design process for a large-scale, continuous petrochemical
undergraduate students to pursue graduate school. This poster will introduce the REUand the structure of the program and will also discuss findings from the first cohort of students from Summer2023, which have been analyzed from the theoretical lenses of engineering identity and academic self-concept theory. Because of our grounding in theory, we intend for our REU model and the educationalresearch studies performed to serve as a “sending context” in which other programs can consider designingREUs intentionally with experiences designed through educational theory to undergraduate studentsconsider graduate school at the most beneficial time in their academic careers.Introduction and Motivation: Gas turbines are a key strategic industrial sector that