self-confidence to use intuition underlying when to apply the at the big picture and how the personal experiences and skill/theory/ skill/theory/principle work affects and is affected by the experiences of others principle, the to situations that might factors not part of the to create images and foster background, meaning present themselves skill/theory/principle memories of application in etc. contextAssignment Problems applying a Give multiple Project with a real
zones, andresponding to emergencies.In this course, learners will demonstrate the radiation protection knowledge and skillsdeveloped in prior coursework and integrate and apply radiation protection principlesthrough a problems-based approach to learning via real-world applications, primarilyfocused upon reactor-based systems. RPT 290: Internship. The learner serves a paid internship of approximately 320hours with an industry, governmental, or educational institution that uses radioactivematerials and requires radioactive protection technicians. The learner is expected to applylearned skills and training to be a productive employee and the employer is expected toplace the learner in an environment that will build on the his or her first
, experimental, and simulation-based exercises in thecourse, as compared to a mostly theoretical treatment common when introducing material onthese topics. Our reasons for doing this are to help students use techniques and tools that arecommonly used by practicing engineers and to help them understand the role theoreticalmodels play in system design and analysis in the presence of the inherent limitations of real-world non-idealities. We paid special attention to explicitly tying the introduction of theoreticalmaterial to real-world applications.3. Require working to completion, especially with the final project. We placed a significantemphasis on ensuring that every student team was able to have a working minimum-viable-product for their final project
generation. Traditional data processing soft wares are inadequate inanalyzing these large data set, and hence, Big data analytics has evolved that uses moderntechniques in processing the big data. Application of Big data analytics has been a recentdevelopment in the field of Business Process Management (BPM). The goal is to create a data-driven knowledge base to monitor, optimize, and forecast business operations. Some of thetechniques used to navigate Big data are A/B testing, machine learning, deep learning, naturallanguage processing, etc. Many research activities are being undertaken by industries,institutions, and governments in establishing new theories and technological tools to observe andmonitor Big data in real time and deploy data
-organized networks, big data implementation and analysis, RDBMS and decision support systems. Dr. Omar has 6 years of experience in academia and more than 10 years of industrial experience in different ICT positions.Ms. Sirena A. Hardy, East Carolina University Sirena Hardy thrives on the ever-changing world of information technology and the various ways technol- ogy has advanced our society. She has acquired over 10 years of information technology experience in the areas of software consulting and implementation; software training and application support. She gained valuable insight and knowledge during her time traveling around the country providing software training as well as assisting various colleges with the
level of engagement and competency in formulating research-driven,inquiry-based questions. These results highlight the effectiveness of the QFT approach infostering critical thinking, problem-solving, and research skills among students in the context ofnetworking and cybersecurity education.QFT Benefits in Computer Networks CourseThere are several key benefits of introducing QFT in this course. The QFT moves theinstructor's role from a knowledge source to an inquiry facilitator. The QFT also empowersstudents to take charge of their learning. Second, the QFT bridges the gap between thetheoretical knowledge and the real-world application. It is observed in this course, when studentsrefined and researched their questions, they explored the
(output-to-input) amplitude ratio, and phase Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Educationshift or phase lag (φ). In addition to real measurements, LabVIEW ® is a very effectiveapplication software for interactive what-if simulation in education. It has an advantage to furtherenhance the simulation applications due to its powerful features and an appealing, real- like “frontpanel” interface[2].The virtual instrument modeling is based on the following constraints: f , if 0 ≤ f ≤ f Nyq ( Eq.1) : f M = fa = f
fun to deliver, they were extremely effective at eliciting student enthusiasm andparticipation, as demonstrated by a 96 percent positive response to the end-of-course studentsurvey statement, “My instructor used visual images (pictures, demonstrations, models,diagrams, simulations, etc.) to enhance my learning.”Assignments and ProjectsAlthough classroom activities wereconstantly used to emphasize the fact thatengineering design is simply an organized,methodical approach to problem solving,this message was most effectivelycommunicated through the frequentincorporation of tangible experientialactivities designed to emphasize the real-world applications of engineering theoryand, most importantly, competitive team-based engineering design
calculate agreement.AnalysisResearch questions required both quantitative and qualitative analyses of participants’ responses.The free-response question was analyzed deductively using Villanueva and Nadelson’s threecategories: Mediator, Designer, and 21st Century conceptualizations of engineering. 1. Mediator: Engineers use science, math, and technology. 2. Designer: Engineers solve problems and invent, plan, and design industrial processes. 3. 21st Century: Engineers’ work has real-world applications in service of society [10].Responses were coded using framework analysis [13] and the categories were expanded toinclude overlapping conceptualizations as shown in Figure 2. Participant responses wereanalyzed for categorical alignment and
; Whiteboard Markers Engineering Notebooks CSTA/NGSS STANDARDS ALIGNMENTDesign and iteratively develop computational artifacts for practical intent, personal expression, or toaddress a societal issue by using events to initiate instructions. (3A-AP-16; CSTA)Create prototypes that use algorithms to solve computational problems by leveraging prior studentknowledge and personal interests. (3A-AP-13; CSTA)Design a solution to a complex real-world problem by breaking it down into smaller, more manageableproblems that can be solved through engineering. (HS-ETS1-2; NGSS)Create a computational model or simulation of a phenomenon, designed device, process, or system. (HS-PS3-1; NGSS)Analyze
-aided draftingcame in handy, and it was gratifying to see an application of what I learned in a real world setting.Further, the interaction with other team members helped me learn valuable research procedures.Being trained and entrusted with complex laboratory equipment boosted my confidence andaspiration to go for my graduate program. References1. Puers B and Sansen W, Compensation structures for convex corner micromachining in silicon, Sensors and Actuators, A21 – A23, 1990, p1036 – 1041.2. Shur, M., Physics of Semiconductor Devices, Prentice Hall, 1990.3. Jerias Batista, Temperature dependence of carrier mobility in Si wafer measured by infrared photocarrier radiometry, Applied
engineering program.Preliminary Results and DiscussionThe interdisciplinary learning kit was piloted as an extra credit assignment in MEE 1117 -Fundamentals of Mechanical Engineering Design at Temple University during Spring 2025. Eachgroup of two students received a kit containing a 3D-printed turbine assembly, a caliper, and anAllen key. Students measured the components using calipers and replicated them in SolidWorks,applying CAD features such as sketching, extrusion, and patterning. While they were not requiredto model standard components like bearings and fasteners, they researched and importedmanufacturer models and toolbox parts, reinforcing real-world design practices. To assessunderstanding and streamline grading, a quiz was given via Canvas
OUTCOMEstrategy uniquely combined lessons learned from past failures withinsights from other disciplines, such as sports management andtailored consultation. This approach not only prioritized efficiency 3. Tracking Progressbut also introduced innovative structures and accountabilitysystems, which distinguish it from other engineering teammanagement practice OBJECTIVES • Students applied engineering principles in a practical, real-▪ Clarify the goals and purpose of the SEM competition and its world context. educational value
teams of middle and high school-aged students tolearn and apply the engineering design process to build Rube Goldberg-style chain reactionmachines. These summer camp programs teach real-world engineering skills, provide experiencewith systems thinking and multi-team collaboration, integrate arts and STEM, and create apathway for student to better understand careers in engineering and other science, technology,and math fields.For the Summer 2013 implementation of the summer camp programs, new content modules onenergy and anaerobic digestion were integrated into the curriculum and introduced at three highschool sites, i.e.; two in Arizona and one in Trinidad and Tobago. A total of 65 students rangingfrom ages 13 to 18 participated in the
design, load calculation, report writing, and overallcommunication, not only with each other, but with their client. Table 5. Survey Results Average Dimension No Survey Question Rating 1 The real-world application motivated me to do my best work 4.6 2 Examined a customer’s needs throughout the project 4.1 Conveyed engineering solutions in economic terms throughout the 3
submitting the winning entries were announced in class and if these students werepresent, they received a small prize. In addition to livening up the class with this lighthearted Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering Educationcompetition, presentation of the winning entries served as an excellent recap of the previouslecture before beginning a new topic. These entries served to generate conversation regardingthe applicability of statics principles to a variety of real world situations. And entries that were‘not quite correct’ (presented without student names) generated discussions regarding
competitions, specialactivities, and social and sports events. Emphasis is upon hands-on applications of mathematics,science, computers, and engineering to real-world problems. Teamwork and creative thinkingare featured. Student and teacher participants work together to achieve educational goals - a key,and truly unique, feature of the TC program. Page 3.545.2 TC FOR STUDENTSMiddle and high school groups of 50-60 students each reside on campus for five days. Middleschool students attend one week and high school students the next week. Resources and facili-ties available determine the number of participants
system.Results: The system architecture allows for flexibility and modularity in modifying the systemwithout the need for hardware reconfiguration to fit different use cases by the customers. Thecuriosity aspect of KEEN aided in a structured approach to identify the problem and provide aninnovative solution. A non-kinetic C-UAS strategy with an adaptable signal jamming capability is amore feasible option to current C-UAS solutions on the market.Conclusion: The integration of KEEN’s curiosity principle and the INCOSE system engineeringframework allowed for the development of C-UAS solution that is resilient, adaptable, affordable,and scalable. Future research should explore real world applications and the integration of machinelearning for algorithm
courses, real-time controldeals with application of theory to real world problems. Although the common approachis classroom dissemination, this course is designed with an experimental component forthe following reasons:• To provide the students with better understanding of the application through hands- on experience.• To motivate the students by challenging them to compete with each other.• To improve teamwork and communication skills.The experiment is free-structure where each team, consisting of two to three students, isgiven an Airpax DC motor, an LM675 high current operational amplifier, and smallmachine tools. The goal is to design, build, and control a single link robot arm to rotate a50 gram load with a radius of 10cm to 90 degrees
never use this stuff ever again. • Problem solving techniques which can be applied to my future work interests. • A better understanding for operations research and a grade. Page 2.247.3 • I hope to learn more about modeling and solving all kinds of real world problems. • A broader understanding of Industrial Engineering. To learn new techniques for problem solving. • Accumulation of information on how to research into a problem and then how to relate this into design of a simple system to solve. • I hope to gain insight on stochastic models and eventually use this information when I'm actually working
switching device. These devices have been successfully and enthusiastically used by a number of undergradu- ate and graduate students to allow their DSP algorithms to control their world, or to put it another way, to Reach Out and DSP Someone!1 INTRODUCTIONFor several years now, we have been suggesting and providing proven DSP teaching methodologies,hardware and software solutions, and DSP tools that have helped motivate students and facultyto implement DSP-based systems in real-time [1 6]. These efforts have emphasized the fact thatDSP is much more than just a collection of theories and problem solving techniques. Students caneasily be motivated to explore and implement DSP-based systems in an environment where theyare limited only
willbe a focus for future development. The system needs to be robust enough to handle variable cameraangles and dynamic hand positions to make it viable for real-world applications where the cameracannot remain stationary.3.3 Connectivity and Range LimitationsAnother challenge observed during testing is related to the communication range between thelaptop and the drone. The current radio being used limits the effective range of the system, meaningthe system works reliably only within a few meters. This constraint impacts the practicality of thegesture control system, particularly in larger or more expansive environments where greaterdistances between the operator and the drone may be required. Enhancing the strength of the radioconnection is
. The setof available virtual fluid mechanics experiments includes for instance an airfoil/body wind tunnel,an air/oil flow rig, etc. A similar fluids mechanics and hydraulics laboratory was developed Page 13.949.2elsewhere, which combines course materials with real-time, remotely-controlled laboratoryexperiments and numerical simulations delivered “any time/any place” over the World WideWeb.7,8,9 An online laboratory experimentation network for control engineering was establishedby several collaborating institutions. This network integrates remote experiments with othermultimedia learning resources and virtual reality simulations.10,11,12 A
private, governmental, and nongovernmental organizations. His research interests include complex systems modeling and simulation and their application in healthcare and aerospace. c American Society for Engineering Education, 2020 Incorporating Visual Components Simulation Software for Teaching programming industrial robotics course Abstracts: A robot programming simulation testing software system that is ‘Visual Components’ is utilized to put applications together for a real or physical robot without relying upon the genuine machine, subsequently decreasing expenses and time. For some situations, these applications can be moved
make connections between what they learn inthe classroom and real-world scenarios from an engineer’s perspective. The EngineeringNotebook’s thoughtfully composed writing prompts are designed to deepen student engagementwith essential questions aligned to the course’s learning objectives. Additionally, the six writingprompts aim to spark student curiosity about the multifarious ways that engineering impacts ourmodern lives. To develop their professional skills as systems thinkers and designers, noviceengineers must begin by being keen observers, asking critical questions, and formulating novelapproaches to solve complex problems. The Engineering Notebook is an exercise inmetacognition integrated into the course to promote effective learning and
History of Technology can make to the understanding of history in general. 74Neal FitzSimons, Chainnan of the ASCE committee recently presented a paperto a meeting of educators (1) in which he stressed the value of such· studiesand followed this with his own list of six reasons the engineer shouldlearn more about his heritage. Again, quoting: 1. Professional responsibility. It is incumbent upon every pro- fessional to have the cultural depth of knowing the history of the profession. 2. To learn from the real world experiences of our professional predecessors. 3. History provides a strong link to the public. 4. Professional inspiration. 5. To give
skills impact the current project in real-world ways that people can understand and be involved in. As part of a university that is focused on supporting the 21st century student demographic he continues to innovate and research on how we can design new methods of learning to educate both our students and communities on how STEM and STEAM make up a large part of that vision and our future.Dr. Diane Elisa Golding, University of Texas at El Paso Diane is a passionate educator and proponent for K-12 engineering education and the education of future teachers.She is an assistant professor at the University of Texas at El Paso (UTEP). Diane serves as the director for the UTEP YES! She Can program that support minorities and
safely across the river in the shortest possible time. • The teams are briefed on the rules of the game and then are given five minutes to organize themselves and plan their problem-solving strategies. • Construction begins with “On your mark…get set…build!” The first team to cross all of its members and both planks without any person or plank touching the “river” is the winner.* • The students are then led on a discussion of the activity and the underlying principles of engineering mechanics that served as the basis for their empirical solution to the bridging problem. The activity concludes with a demonstration of how the basic components used in the bridging activity can be used to model a real-world
interdisciplinary undergraduateprogram. Improvements include moving to industry sourced projects for all teams, courseredesign, student and industry engagement, and implementation of a project showcaseevent. Currently, about 65-70 projects are conducted every academic year. The capstoneprojects were previously scoped and defined by the faculty. The projects were broadindustry challenges, lacked real-world data and had low student engagement since theyknew that the projects were theoretical. In the past four years, a team effort was made tosource real-world projects from industry. The two-semester long Capstone Project also underwent a complete syllabus,content, flow, deliverable and timeline update. Enhancements over the years includeimprovement to
interdisciplinary collaboration.Students from various majors such as mechanical engineering (ME), aerospace engineering,(AE), electrical engineering (EE), civil engineering (CE), and CS are encouraged to share theirexpertise, fostering an environment of peer-to-peer learning. This approach not only enhancesthe learning experience but also closely mirrors the collaborative nature of the professional AVengineering field. Additionally, the curriculum includes comprehensive hands-on labs that alignwith the course material and the group projects, ensuring that theoretical knowledge iscomplemented by practical application. These projects are integral to the course, offeringstudents the opportunity to work on real-world AV problems and develop solutions as a