year and has initiated its inaugural offering of ICEE 3300, ProjectManagement during the spring 2007 to the junior class. The course goal was traditional; theneed for integration and collaboration was a programmatic mandate with minimal supportinginfrastructure. At the approach of the course’s inaugural offering, instructors sought to amplifythe collaborative team aspects of the program with the integration of project managementprocess theory simultaneously with application.The ChallengeCollaboration and integration are noble curricular efforts of themselves but generally lack theraw-knuckle context of real world project management that veterans of the competitive wars ofindustry have experienced. The desire of new faculty was to bring real
AC 2011-2914: EVALUATING OSCILLOSCOPE SAMPLE RATES VS. SAM-PLING FIDELITYJohnnie Lynn Hancock, Agilent Technologies About the Author Johnnie Hancock is a Product Manager at Agilent Technologies Digital Test Division. He began his career with Hewlett-Packard in 1979 as an embedded hardware designer, and holds a patent for digital oscillo- scope amplifier calibration. Johnnie is currently responsible for worldwide application support activities that promote Agilent’s digitizing oscilloscopes and he regularly speaks at technical conferences world- wide. Johnnie graduated from the University of South Florida with a degree in electrical engineering. In his spare time, he enjoys spending time with his four
an early experiment, Copolo and Hounshell (1995) foundthat students in the group using both computer and physical models performed significantlybetter than the groups using either one of the models by itself [9]. Our motivation for anAugmented reality (AR)-based application aligns with this idea. Augmented reality technologyattracts the attention of those wanting a remote learning experience with a connection toreal-world interaction. As proposed by Azuma [9], AR can be defined as a system that fulfillsthree basic features: a combination of real and virtual worlds, real-time interaction, and accurate3D registration of virtual and real objects. It exploits localization and object recognitiontechnology to augment a user’s digital experience
engineeringtheory to research and real-world applications. Preparing students to actively participate in thelearning process, by exercising original thinking, evaluating alternative solutions, makingdecisions and defending them, was our motivation. The developed labs can be presented as aseparate one-semester lab or as a part of our Kinematics of Mechanisms course, which currentlydoes not include any labs. The Kinematics of Mechanisms is a junior course, which introduceskinematics and dynamics of mechanisms and their applications. The course covers analysis anddesign of linkages, gears, cam and follower systems, as well as static and dynamic analysis ofmechanisms. The outline of the class is listed below: 1. Machines and Mechanical Advantage
Paper ID #41206Practical Learning in Microcontroller Courses Using Novel MISL-ASE EmbeddedSystem Development BoardsDr. Gang Sun, Northern Kentucky University Dr. Gang Sun is currently an associate professor of Engineering Technology programs at Northern Kentucky University. His primary teaching areas are digital & analog electronics, embedded systems design, programming for engineering applications, industrial automation, control, and Capstone design. Research interests include designing mechatronic/electronic systems that integrate embedded systems, programmable logic controllers, machine vision, real-time operation
. Thisinformation was used to construct realistic and challenging HFE problems that involved thedesign of displays and controls, visual inspection tasks, computer system requirements, job taskrequirements, workstations and the organization of work.Laboratory DescriptionsThe goals of the redesigned laboratories are: 1. To emphasize the application of HFE coursematerial to real-world problems. 2. To ground the study of HFE within the context of industrial Page 6.262.2Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright© 2001, American Society for Engineering Educationengineering, using a
their students to take at least one electrical engineering(EE) course1. However, on the other hand, some non-EE majors do not see the relevance of EEto their educational program until they face a real-world problem, often on-the-job aftergraduation, when the opportunity for learning applicable, real world skills or concepts in a coursehas already passed. Thus, one of the significant challenges engineering educators face is how toengage students of all engineering and technology majors in meaningful electrical & computerengineering activities that would encourage them to persist and pursue a career in engineeringand technology. Historically, incoming engineering and technology students had to work through a series ofmathematics and other
application known as the VirtualDemonstration Garden (http://gardens.cuwcd.com). The Virtual Demonstration Garden wasdeveloped using PHP, CSS, HTML and JavaScript, and it is supported by a MYSQL databaseand an Apache web server. We developed an original idea to create a website that teaches waterconservation principles. The site is also an online resource to help consumers find water-efficientplants that thrive in the state of Utah. Our internship taught us many lessons we feel every internshould learn.2. Project development models.An internship takes a student from a world of textbooks to a world of real application. In theeducational realm, a frequent motivation for completing an assignment is to receive a good grade.In the business realm, the
disparate contexts and perspectives.2. improve the ability to apply engineering design concepts to solve problems in the real world.3. improve the ability to make reflective judgment through independent and critical thinking4. improve the ability to make and act on the moral or ethical judgment in the engineering design process5. improve the ability to function effectively on a team.6. improve the ability to communicate effectively with a range of audiencesThis course is designed to achieve the learning outcomes listed above by assigning studentsdesign activities and projects. Table 1 shows the detailed descriptions of the teaching methodsused for each learning outcome. Table 1. Teaching methods for each learning outcome
environment where students gain real world experience running an IT business. Professor Justice takes extreme pride and is a great innovator in the area of experiential learning and ser- vice. Experiential learning and service contributes to the integration of theory and application by creating an environment where the students learn by doing or apply their theory in service learning projects, prac- tica, internships, games, and simulations. The Living Lab for CIT was created out of the need to provide a business environment for students to give them a taste of a ”real” IT environment. A secondary purpose is to provide service to internal and external clients. The Living Lab has served many internal and external
demonstrationfermentation lab was given to apply the modeling. All parameters such as specific growth rateconstant, maintenance coefficients, product/biomass yield, and inhibition coefficient that wereneeded for the modeling were obtained from the demonstration lab. Students were required toconstruct a Simulink® model to describe a complicated microbial process using the parametersfrom the demonstration lab (Fig. 3). According to the students’ responses, this approachenhanced the students’ understanding of how to use mathematical tools to find solutions for real-world applications. (a) Page 24.713.7
professionals and decision-makers understand AI’s risks, limitations, and strategies forminimizing bias. This case study aims to highlight the dangers of unregulated AI in hiring andprovide actionable solutions for responsible implementation. By promoting awareness andexploring bias mitigating strategies organizations can leverage AI’s benefits while upholding fairand equitable hiring practices.Case Studies in Ethics EducationCase studies are valuable instructional tools for demonstrating concepts to students throughpractical, real-world examples. By connecting theoretical knowledge to tangible applications,case studies help students understand the relevance and implications of the concepts they learn. Inthe context of engineering ethics, case studies
effects on the response of a SDOF structure numericallyExperiment ComponentA numerical model is a valuable tool for students to observe the responses of the SDOFstructure, but it may not be able to fully represent its behaviours in the real-world due to factorssuch as modeling error, assumptions being made, and uncertainties in testing. In the Experimentcomponent, students will be given the opportunity to test a real SDOF structure on a shake table.They can move the shake table at desired frequencies and verify structural responses observedfrom the Simulation component. Besides the sinusoidal excitations, the students will be asked tosend in a sine sweep (sine waves with continuously varying frequencies) signal to excite thestructure. The
quickly gave students an idea of the limitations of biometric verificationmethods.We were able to find a number of recent books on the broad topic of biometrics and privacy andassigned Our Biometric Future3 as a required text for the class. This book primarily covers facerecognition and facial emotion recognition and details a number of different case studies wherethe technology has been implemented with varying degrees of success. We complemented thereading with more technical material1; time in class was spent explaining some of the technicaldetails behind face recognition as well as the successes and failures of the technology in real-world applications. Students completed exercises on face recognition4 and also were asked toidentify facial
I’m lucky to have my last course in my degree in Artificial Intelligence. Thanks for the department for offering this course and choose the right and creative professor to professionally teach and get the students into real experience in AI. ▪ Great course. ▪ it is really goodSection 5: Conclusions and Next StepsThe introductory course in applied artificial intelligence integrates the fundamental and advancedconcepts from a broad collection of topics covered in courses such as signal and imageprocessing, neural networks, higher-level programming to enable students to design physicalsystems for real-world applications such as data classification, object recognition, naturallanguage processing, and video analysis for key point
asymbol of UL Lafayette’s commitment to undergraduate education in mechanical engineering.As part of its mission.” to prepare students for a perfectly consistent transition to industry,” anongoing effort has been undertaken to restructure the undergraduate courses. Traditional designpractices have been replaced in the world-class companies by concurrent engineering practices.Hence, it is time to develop an integrated design and manufacturing curricula to strongly enhancethe presence of industry on campus.This paper aims to establish the fact that an innovation in undergraduate course work will haveprofound implications on students, essentially enabling them to handle real- world problems. Inrecent years product realization which offers
efficiency offers a promising outlet toachieve the desired integration. To encourage students with varied interests, however, anyprogram must have a broad base that fuses a variety of engineering science topics with relevantpolicy considerations.5 Engineering Design and Public Policy Programs at The University of VirginiaThe University of Virginia’s School of Engineering and Applied Science (SEAS) recognizes theneed to introduce engineering students to policy applications for their technical backgrounds. Inresponse, programs now provide relevant and interdisciplinary academic environments and real-world, hands-on experiences both at the university and in Washington, D.C.5.1 Science and Technology Policy MinorThe UVa SEAS created a minor in science
the real world. They can have difficultyunderstanding design elements in structures as a whole. The majority of examples that studentsare exposed to in class are not representative of the real world by being limited to an isolatedbeam, column, frame, or truss. While these types of examples can be beneficial when introducingnew concepts, students are lacking experience understanding, analyzing, and designing structuresas a whole. To improve the understanding of design elements, a real structure was selected to beused to develop steel design problems. A connector bridge between two engineering buildings onthe Mercer University campus was selected due to its familiarity and accessibility to students.The content of these problems included tension
problem; this, to prepare the students for the real-world engineering context. The lab sessions are carried out using products of the Quanser®company, which is a world leader in the design and development of an interdisciplinaryecosystem for engineering education and research. Moreover, the Matlab and Simulink®computing software with QUARC™ are used to validate real-time applications on hardware.Roughly speaking, the minor is taught by a group of Professor experts in vision systems,machine learning, and advanced control strategies such as: modern control, model predictivecontrol, nonlinear control, and robust control. To design the lab sessions, 20 Professors received120 hours of training sessions from the R&D Manager in charge of Academic
individual teachers, so attendance and all materials are free for educators. Since 2017,REACT has hosted ninety K-12 teachers from seventy different school districts. Similarworkshops are being developed at other universities based on REACT’s model. At times, thedistance between graduate school and K-12 education can seem very large, but as one REACTparticipant stated: “REACT has been an effective way to bridge the gap between the researchcommunity at the University and the education sphere.” I. Introduction & BackgroundWith the rising focus on engineering and inquiry-based science education, it is becoming morecrucial to incorporate real-world concepts and applications of science and engineering into theclassroom[1]. This need is heightened
learnedknowledge to real world problems. With the sudden shift to online instruction during thepandemic, it became difficult to motivate and engage students through these same case studiesand for teams to work together effectively. This report describes how we evolved project basedlearning in the course for online modalities in order to engage remote learners and, in doing so,improve the student learning outcomes and perceptions of the course. Comparisons of studentperformance before and after, as well as their observations and perspectives, show the positivetrajectory of the evolution.Introduction Heat Transfer, a content-rich core course in the undergraduate mechanical engineeringcurriculum for mid-level students, utilizes fundamental engineering
utilization. For biomedical engineering education, the authors believe the capabilityof performing real-time audio, video, and application sharing present tremendous possibilities forinteractive learning.References1. Morse LC. Using interactive strategies in distance learning. ASEE ConferenceProceedings. 1998;Session 3147.2. Morse LC. Using the Internet for an engineering management course. . ASEE ConferenceProceedings; 1999.3. Martin B, Moskal P, Foshee N, Morse L. So you want to develop a distance educationcourse? ASEE Prism. 1997:18-22.4. Tran BQ, Krainak DM, Winters JM. Performance evaluation of commercial POTs-basedvideoconferencing systems. . Washington, D.C.:Tech Report HCTR-11v1, The CatholicUniversity of America; 1999:1-14.5
from pilot tests with students.IntroductionIn many engineering classes, active experimentation is an important step in the learning process[1], [2]. Through this activity the learner is able to translate an abstract concept into practicalapplication. Translation of abstract principles to real world concepts is often achieved throughinstructional laboratories that typically require significant space, time, and faculty resources. Toaddress the heavy burden of labs on these resources, remote or fully virtual labs have becomemore popular in different areas of STEM in the last decade, especially with the increase in thenumber of online classes offered [3], [4], [5]. Remote labs are physically existing labs, which canbe used online without being
on substantial interviews with faculty and students from acrossa broad spectrum of disciplines, including economics, English, history, chemistry, management,and biotechnology. This paper reports on the use of the World-Wide Web for preparation ofcourse materials, and on lessons learned to date in developing and offering the new type ofelectrical engineering service course.IntroductionOpportunities for fundamental changes in many professions have arisen due to new modes forinformation creation, storage, transmission, retrieval, management, and display. However,familiarity with the use of the technologies central to this revolution is often limited to a smallpopulation of individuals with a deep (and rather narrow) education in electrical
application-based environment where they are able to see theircode take shape on the Micro:bit. Another aspect of this course is to expose students to theMakerspace on campus and get them to actively use the facility to design and make workingprototypes. This is done by running multiple pieces of training such as 3D Printing, Introductionto Computer-Aided Design (CAD), Laser Engraving, and Cutting during class time in theMakerspace. Another important facet of this course is introducing students to data analysis anddata visualization applied to real-world datasets using Python, specifically Python libraries suchas Numpy, Matplotlib, and Pandas. This helps students gain hands-on experience inimplementing and utilizing data science tools and eventually
grades they would like to achieve and the quantity of work required to achieve such results. In this way students have a clearer notion of the quality they could build into a project (and the input required to do so) versus the effect it would have grade wise. While such a statement may seem less than ideal to many, a full engineering curriculum is internationally legendary and the authors feel that these compromises in terms of time and other constraints are also a professional reality which learners should be prepared for and hence exposed to. The weighted outcomes indicate that the emphasis of the project is on identifying a real-world case and modelling the case in a comprehensive manner by identifying decision variables, expressing case
indeed a severe indictment. Any ET educatorwho feels that his role is to offer an educational opportunity for those who cannot succeedmathematically and can learn only through “hands-on” would do well to consider the limitationsof such a vision. I would contend, however, that the thinking required of successful ETs is verychallenging. Not only must they be able to think rationally but also creatively to a markeddegree. In tackling the problems of bringing technology to life in the “real world” a successfultechnologist must be able to develop an idea and then follow that idea with flawless logic anddogged perseverance all the way to its practical conclusion. Only thus can an idea besuccessfully brought into reality.Those who work more in the
equips them with the practical skills to apply this knowledgeeffectively. By focusing on system design, optimization, and the application of innovative thermal analysismethods, the module prepares students to effectively tackle real-world engineering challenges.Emphasizing these modern technologies throughout the course ensures that students are well-prepared forthe evolving demands of the thermal systems industry.Given the alignment of this approach with industry needs and educational standards, this method holdspotential for application in other senior-level design-related courses. Extending this model could enhancecurricula across various engineering disciplines, better preparing students for the complexities of themodern
the Paradigmfosters skills in structured problem-solving, work plan development, time management,storytelling, public speaking, knowledge translation, adaptability, teamwork effectiveness, andself-leadership. The ABET scores showed an improvement, with an average increase ofapproximately 10-15% across various student learning outcomes over the evaluated years,highlighting the effectiveness of the implemented teaching paradigm in elevating studentachievement in engineering education. The assessment methodology supports the success of themethodology, empowering students to tackle real-world engineering challenges and excelacademically.IntroductionIn an era of digital transformation and artificial intelligence domination, the requirements
authentic and real-world environments. · ABET guidelines also promote authentically-based engineering projects · Toys allow learners touch, feel, and manipulate models of real world-applications 2. Learning should involve social negotiation and mediation. · This supports and extends ABET guidelines by letting students work in groups with toys as the shared manipulative for learning 3. Content and skills should be made relevant to the learner. · Example: Use a toy to demonstrate fundamental properties of the content in a way a student can easily remember. See “Airplane Exercise” in Appendix. 4. Content and skills should be understood within the framework of the learner’s prior knowledge. · Link #3