. Page 12.364.1© American Society for Engineering Education, 2007 Classroom Studies in Power Flow and Transmission Lines by means of PSCAD/EMTDC1. IntroductionClassroom studies by means of software tools are a major part of the senior-level courserequirements of any electrical engineering program that offers majors in power systems. Studentinterest and enrollment however were in decline in this area until recently1, due to the limitednumber of available positions in the related industry and the erroneous impression that electricpower had narrow future for new developments compared to the impressive achievements inother fields of electrical engineering. This trend is changing and it is expected to continue
federal laboratories for research collaboration beyond the standard proposal funding processes (Broad Agency Announcements) or established user facilities procedures. 3 Definitions • Funding agency: awards research and development funding via grants, cooperative agreements, and/or contracts as announced in Broad Agency Announcements (BAAs) • Federal laboratory: conducts “inhouse” research There is often organizational overlap between these two functions. Some individuals may have both “program manager” and “researcher” responsibilities. 4 Federal Laboratory missions Each federal
federal laboratories for research collaboration beyond the standard proposal funding processes (Broad Agency Announcements) or established user facilities procedures. 3 Definitions • Funding agency: awards research and development funding via grants, cooperative agreements, and/or contracts as announced in Broad Agency Announcements (BAAs) • Federal laboratory: conducts “inhouse” research There is often organizational overlap between these two functions. Some individuals may have both “program manager” and “researcher” responsibilities. 4 Federal Laboratory missions Each federal
federal laboratories for research collaboration beyond the standard proposal funding processes (Broad Agency Announcements) or established user facilities procedures. 3 Definitions • Funding agency: awards research and development funding via grants, cooperative agreements, and/or contracts as announced in Broad Agency Announcements (BAAs) • Federal laboratory: conducts “inhouse” research There is often organizational overlap between these two functions. Some individuals may have both “program manager” and “researcher” responsibilities. 4 Federal Laboratory missions Each federal
communication standards, and how to program usingOLE. Specifically, linking and embedding, OLE automation and OLE controls are discussed.Section 3 gives an example using OLE in a generic automation project. Examples of usinglinking and embedding, as well as OLE automation, are related to Microsoft Word and Excel inan automation application. An example of where OLE controls can be used in development isalso discussed. The second half of Section 3 gives a specific example using OLE in a simpleintelligent system. Section 4 gives concluding remarks on industrial automation using OLE.2. Object Linking and Embedding (OLE)2.1 OverviewOLE is a mechanism that allows two software modules to connect and communicate with eachother on the same machine. Specifically
Session 048 Impact of Air Quality – Including Ozone formation in the Troposphere Gurubaran Veeravel Chemical Engineering Department Lamar University Enno “Ed” Koehn Civil Engineering Department Lamar University AbstractAir pollution, which makes the air harmful for human inhalation, is not only due to outdoorpolluters like automobiles, industries, etc., but also due to indoor pollutants like asbestos,carbon monoxide, formaldehyde, tobacco smoke, etc
students. As it was, they saw that thisproperty of programming languages has a real impact on their results.DiscussionIt could be argued that scientific understanding and cognitive dissonance occur at both theindividual and institutional level. While Kuhn was primarily referring to the institutional orcultural level for expansion and restructuring of scientific knowledge, his arguments apply wellat the individual level, which is where we dwell. In fact, most engineering education attempts toexpand the student's understanding of a subject, segueing from one state of understanding toanother rather than dismissing past understanding and starting anew. As an example, thetransition from momentum to energy methods is one of the few times that this is
significant improvements andwhich are less effective.This MAA report include these comments: The traditional Calculus I course was designed for engineers and physical scientists. It is not clear that such a course will meet the needs for the future. Men and women are taking calculus for very different reasons, with men predominantly heading into engineering, computing, or the physical sciences and women going largely into the life sciences or teaching. For example, Klingbeil, Mercer, Rattan, Raymer, & Reynolds [5] described a calculus course that was designed for engineering students by including applications related to engineering, and showed it retained more students in the
-school time programs, she believes that they complement any teaching style thereby reach- ing all learning styles. She earned her doctorate in Mechanical Engineering from North Carolina State University specializing in thermal sciences where her dissertation research spanned three colleges and focused on Engineering Education. Her passions include but are not limited to Engineering Education, Energy Engineering and Conservation, and K-20 STEM Outreach. Prior to matriculating at NCSU, she worked at the North Carolina Solar Center developing a passion for wind and solar energy research while learning renewable energy policy. She combined these passions with K-20 STEM Outreach while a Na- tional Science Foundation Fellow
, business analytics, database systems, and programming. He has published in Quality Man- agement Journal, and a textbook in Business Analytics. Majid received his MBA and Ph. D. in Operations Management from University of Nebraska-Lincoln, and B.E. and M.E. degrees in Mining Engineering from University of Tehran. Prior to the University of Nebraska-Lincoln, Majid was an associate professor of Supply Chain Management and Decision Sciences at Bellevue University.Dr. Jena Shafai Asgarpoor, University of Nebraska - Lincoln Dr. Jena Asgarpoor is a Professor of Practice in the College of Engineering at the University of Nebraska – Lincoln and the Director for the Master of Engineering Management Program in the College. She
is currently pursuing a PhD in Engineering Education at USU. She is Principal Investigator for Online Learning Forums for Improved Engineering Student Outcomes in Calculus, a research project funded by the NSF TUES program. Her research interests include engineering student learning, distance engineering education, and alternative pathways to engineering education.Mr. Ted Campbell, Utah State University Ted Campbell is a Lecturer in the Department of Mathematics and Statistics at Utah State University (USU). He teaches undergraduate mathematics and statistics courses via synchronous broadcast to stu- dents at the USU regional campuses. Ted has a bachelor’s degree in materials engineering from the University of
. This phase also identifieshow subsystems are related, thereby defining the interdependencies within the system.The third phase, the Implementation phase, uses the conceptual abstraction of the system fromthe previous phase as a surrogate model and creates a software tool or a conglomerate ofsoftware tools (i.e., software suite) for the stakeholder [14]. Since this is the last step, thesolution must be validated and refined so that the final solution conforms to the definedrequirements from the first phase.As shown above, the SoS DAI process applies a methodological approach to designing,managing, and integrating complex systems. SoS engineering promotes a model-basedapproach, thereby creating a set of rules to organize, manage, and optimize a
integrate and expand their research and teaching practice.Dr. Wendi M. Kappers, Embry-Riddle Aeronautical Univ., Daytona Beach Wendi M. Kappers has a Ph.D. in Instructional Technology from the University of Central Florida (UCF). Her thesis work explored how educational video game effects upon mathematics achievement and mo- tivation scores differed between the sexes. During her tenure at Seminole Community College working as a Tenured Professor and Program Manager of the Network Engineering Program, she was Co-PI for the CSEMS NSF grant that explored collaborative administration and industry mentorship planning used to increase enrollments of woman and minorities with declared majors in the areas of Computer Science (CS
closely related to topics outlined in the syllabi.Students explore variable selection using intuitive approaches such as correlations. The hope wasto produce students, who were more capable of examining large unfiltered data sets in order toprovide meaning solutions to questions of concern.The big data concepts were infused into each of these courses in two parts: the theoretical andconceptual ideas behind the big data concept under discussion were introduced in the first part ofthe module; whereas, the hands-on experimentation was introduced in the second part of themodule. The students are advised to use both R and Python general-purpose programminglanguages to complete their projects. The students can also use MALAB programming toperform their
Research andEducation in Engineering (IREE) program. The research area to be investigated deals with theformation of defects during solidification processes, and in particular, with the problem of theconfluence weld in aluminum alloy castings. The research program proposes to perform severalexperimental and modeling tasks to investigate links between configuration and processparameters and measured defects. A major component of the project is the recruitment andparticipation of an undergraduate minority student from MSU. In this document, we describethe project phases, organization, logistics and particular aspects involved with the participationof an undergraduate in an international project and we report some preliminary results in the areaof
Paper ID #15770Improving Students’ Learning in Statics Skills: Using Homework and ExamWrappers to Strengthen Self-regulated LearningKai Jun Chew, Stanford University Kai Jun (KJ) Chew is a Research Data Analyst in the Mechanical Engineering department at Stanford University. He is currently working closely with Dr. Sheri Sheppard on two fronts: introducing reflec- tive activities as part of the Consortium to Promote Reflection in Engineering Education (CPREE) and implementing the Continuous Improvement Program as part of the ABET evaluation. Born and raised in Malaysia, KJ received his Bachelor of Science in Mechanical
weighted string, and (4) a tracked vehicle.Introduction Traditionally, computer-aided-design (CAD) related topics have been taught in coursesseparate from System Dynamics in a BSME program. CAD is often taught in one or morefreshman or sophomore courses and focuses largely on static geometric issues associated withparts, assemblies, and drawings. It is commonly paired with a track on drafting. SystemDynamics is often a sophomore or junior level mechanical engineering course and emphasizesapplied mathematical modeling of systems from different energy domains, incorporates suchsimulation software as MATLAB® and Simulink®, and could be enhanced by CAD. At theUniversity of St. Thomas, currently System Dynamics is not a required course in
research as it relates totechnology and engineering education and the contribution of this model to understandingstudent attitudes in the domain of engineering and design thinking. While collaborative learningis important the present research is an opportunity to assess its impact on students beyond theacquisition of new knowledge.Introduction Collaboration is frequently listed among skills required for graduates to succeed in the21 century workforce. Engineering standards include developing “an ability to function on stmultidisciplinary teams” as well as “an ability to communicate effectively.” Active learningapproaches, including collaborative learning practices, foster student engagement and learningthat is better aligned with the
line of CNC-machined parts [4]. Some of itscustomers include GE, Boeing, Pratt & Whitney, and Lockheed Martin. Over the last four years, MRAS has seen considerable growth in revenues, with businessincreasing 74%. The organization continues to expand its workforce to meet increasingcustomer demand, hiring over 300 new employees since 2004. The one million square footfacility contains manufacturing, laboratory, and engineering facilities designed specifically forthe development and production of aerospace systems [4].According to MRAS, the organization is constantly finding ways to improve its programs andprocesses. The company remains committed to designing and building aerostructures for today'sneeds and tomorrow's vision, while
line of CNC-machined parts [4]. Some of itscustomers include GE, Boeing, Pratt & Whitney, and Lockheed Martin. Over the last four years, MRAS has seen considerable growth in revenues, with businessincreasing 74%. The organization continues to expand its workforce to meet increasingcustomer demand, hiring over 300 new employees since 2004. The one million square footfacility contains manufacturing, laboratory, and engineering facilities designed specifically forthe development and production of aerospace systems [4].According to MRAS, the organization is constantly finding ways to improve its programs andprocesses. The company remains committed to designing and building aerostructures for today'sneeds and tomorrow's vision, while
communication. At this level, insight and depth are expected and should relate to the topic or activity. A high-level understanding that relates activities and processes to purpose and objectives is expected. In engineering laboratories, the laboratory reports required to assess this level of knowledge are rarely used in studies of remote vs. traditional laboratory settings [10][11]. ● Apply: using knowledge in new situations. This level examines the demonstration of understanding through developing content or products on the related topic. An example would be making full and appropriate use of a tool (such as a software tool) to create a product or a program. As with understanding, studies which measure students' ability
real world of engineering one can find themselves working on either the wrongproblem or allowing the scope to go beyond what was agreed upon. The root cause of those problems isoften inadequate preparation and negotiation before the work is jumped into. The idea for this coursemodule was based upon an actual course dedicated to ECE consulting that the author had worked ondeveloping at a former university (Rowan University 3,4)PedagogySince this module involved only about half of the students engaged in the Seminar it was important tocover the materials relating to the consulting module at the end of class so that the juniors who werenot involved could depart the classroom or leave the online session to work on other assignmentsbefore this
called out how theapp provided feedback. They specifically mentioned the positive experiences of receivingfeedback that is immediate, that explains boundary connections, and that deepens learning aftermistakes are made. These and other findings from the pilot study are discussed withcorresponding next steps for development.IntroductionNo skill is more important for a student of mechanics than the ability to draw a complete andaccurate free-body diagram (FBD). FBDs are foundational to all mechanics courses in civil,mechanical, and biomedical engineering programs. Together, these courses enroll a significantportion of the over 600,000 students who enter engineering programs in the United States eachyear [1]. Thus, educational approaches that
Session 3431 DEVELOPING YOUR OUTCOMES ASSESSMENT PROCESS Charles F. Yokomoto, Russell K. Dean Indiana University-Purdue University Indianapolis/West Virginia UniversityAbstractIn this paper, we describe several issues related to the development of an outcomes assessmentprocess, a key element in an organization’s assessment plan. We will present a comparison ofseveral examples of high-profile outcomes assessment processes, explain why an organizationshould develop its own assessment process instead of adopting one written by anotherorganization, and highlight the difficulties caused by the lack of standard terminology
the Web Content Accessibility Guidelines (WCAG) in theimplementation of the project. These guidelines are used to create software that is accessible topeople with disabilities. This is essential to the project due to the implementation of the softwarein a school environment. If the software is not accessible to students with disabilities the schoolwill not implement the solution [4].In addition to FERPA and WCAG there are some standards and codes that are directly related tosoftware engineering. Many of the standards and codes created for software apply at a hardwareor programming language level and the team will not need to implement the code or standard.Below are some standards and codes directly relating to software that the team will be
physically understand fluid dynamics problems requiringcommercially available computational fluid dynamics codes and related software. Studentprojects involving grid generation, the solution to two-dimensional and three-dimensionalproblems, and the solution to multi-dimensional species flow problems are presented.Additionally, final term projects obtained from the students’ cooperative employers arediscussed.IntroductionAdvances in engineering technology has led to the development of commercially availablesoftware packages which allow for the solution of complicated engineering problems.Graduating engineers must be prepared to successfully use these tools upon entering the workforce. A fundamental understanding of the mathematics, physics, and
University of Illinois Urbana-Champaign. Her current focus is on broadening par- ticipation in Computer Science and Computer Science Education She has been developing materials and teaching for iCAN, a new program for broadening participation in CS for students who have a bachelor’s degree in a field other than computer science.Brad Solomon, University of Illinois, Urbana-Champaign ©American Society for Engineering Education, 2023 Auto-graded Scaffolding Exercises for Theoretical Computer Science1 IntroductionThis paper describes an ongoing effort to develop auto-graded scaffolding exercises for anupper-division theoretical computer science class, with a steady
. She leads the Environmental Resource Sustainability group, which studies themes related to environmental and water resources engineering, atmospheric water harvesting, waste-to-energy technologies, and environmental remediation. Her work integrates and highlights science communication and community needs-based research. Her passions include designing hands-on learning tools and leading public outreach initiatives for STEM awareness and engagement among all levels of learners.Sydney Donohue Jobe, University of New Mexico Sydney Donohue Jobe works as the Outreach Coordinator and Education Specialist for the Center for Water and the Environment and the Accelerating Resilience Innovations in Drylands Institute at the
Paper ID #42115Work-in-Progress: Describing the Epistemic Culture of our Research Teamsfrom Ethnographic ObservationsDr. Courtney June Faber, University at Buffalo, The State University of New York Courtney Faber, Ph.D., is an Assistant Professor of Engineering Education at the University at Buffalo (UB). Prior to joining UB in August of 2023, she was a Research Associate Professor and Senior Lecturer in Engineering Fundamentals at the University of Tennessee, Knoxville. She was also the Director of the Fundamentals of Engineering and Computing Teaching in Higher Education Certificate Program. Her research focuses on
Research and Scholarship (2015), UW CoEd Faculty Award for Outstand- ing Service to the Education Profession (2016), UW CoEd Honored Fall Convocation Faculty (2017), and UW CoEd Faculty Award for Outstanding Research and Scholarship (2019).Since beginning at UW, Bur- rows has written, implemented, or evaluated over 50 unique grants. She has been the Program Director for GenCyber as well as PI of NSF grants for STEM and CS work. The core of her research agenda is to deepen science, mathematics, engineering, and technology (STEM) partnership involvement and un- derstanding through STEM interdisciplinary integration with in-service teacher professional development (PD) and pre-service teacher coursework. Her research