for NASA MUREP Aerospace Academy program at ECSU. His areas of interests include embedded systems design, cloud instrumentation, remote computing applications, UAS applications re- search, mobile robotics, and innovative uses of educational technologies. Dr. Rawat may be reached at ksrawat@ecsu.edu.Dr. Ellis Eugene Lawrence, Elizabeth City State University Dr. Ellis E. Lawrence is a Professor in the Department Of Technology at ECSU. He holds an Ed.D. in Vocational and Technical Education with a cognate in Industrial Engineering from Virginia Polytechnic Institute and State University (popularly known as Virginia Tech) in Blacksburg, Virginia. He worked as Graduate Research Assistant in the Vocational Technical
). It is very important for aneducator to make the students fully understand the problem before they have the chance to thinkof creative solutions while keeping in mind the importance of real-world application. By havingthe students understand the theory by means of application, the development of creative thinkingtakes place, transforming the students into better problem solvers (O'Brien and Abulencia, 2010). In a conventional classroom, lower levels of Bloom’s taxonomy: knowledge,comprehension, and application are practiced (Bloom et al., 1956). The instructor introduces atopic, shows its applications, and assigns practice problems to the students with the goal ofrepetitive solutions making them familiar with engineering concepts
Education, 2017 Exploring the use of aviation databases in aviation coursesAbstractUsing real world data when learning new concepts is attractive to many students in engineeringtechnology programs. Even more attractive is using real world data when learning how toaddress challenges. Statistics courses are usually required for aeronautical engineeringtechnology and other aviation technology students to prepare them with data analysis skills forsolving practical problems. Students who major in aviation technology programs are encouragedto practice the learned statistical knowledge with real life aviation data. In aviation publicdatabases such as those available from the Federal Aviation Administration (FAA) and theInternational Civil
capability is driving increased interest in thetopic. A common feature of any engineering program is to reinforce theory learned in aclassroom environment with hands-on applications in the form of laboratory exercises. Forrotorcraft courses, simulation, wind tunnel experiments, and whirl-stands all have their role insupplementing classroom instruction. The purpose of this paper is to demonstrate the applicationof a laboratory conducted in an actual helicopter as one way to reinforce classroom instruction,provide practical context for the study of helicopters, and to inspire students.Background The Mechanical Engineering Program at West Point has offered courses in AeronauticalEngineering in some form or another since the 1920s. The leadership
projects knownas “Clinics” that students are required to take every semester of their curriculum. As a team ofinstructors who teach the Engineering Electromagnetics (EEMAG) I and II sequence, we weremotivated by a desire to create a set of courses, that require students to do real and relevantengineering electromagnetics – and utilize these skills effectively in later courses and clinicprojects. It is difficult to tackle all topics in a 7-week period so care must be taken to emphasizekey topics and strengthen understanding through real-world laboratory exercises. We present someexamples of a successful implementation of these objectives in this paper. We discuss numerousreal-world applications that are studied during our single semester sequence
classroom.3. Learning Outcome Assessment3.1. Assessment MethodsThere were 22 students enrolled in CPS4420 with a ML topic between 2017 and 2022, plus3 students who did not take CPS4420 but took a weekly workshop in summer 2021.Designed for RAs, this workshop covered the basics of DL and CNN development. TheRAs were also asked to complete a project, in which they needed to build a working CNNimage classifier for real world application, using image data collected from crop fields.They also prepared to present their work publicly in symposiums and conferences.The students' learning outcomes were evaluated based on their project reports andpresentations. Also, anonymous questionnaires were collected from the students to assessthe impact of the project
theRealAudio Encoder to free RealAudio Players on sound card-equipped personal computers,which continuously decompress the audio and play it in real time without download delays, evenover 14.4 Kbps modems. Page 3.101.1RealAudio has been widely deployed on the World Wide Web especially to distribute news andmusic at the Timecast (1997) site guide. Educational applications are not yet as common butexamples include:• Shakespeare at the University of Illinois at Urbana-Champaign (1997)• Writing at ACT Laboratory Ltd. (1997)• Computer programming at the University of Washington (1996) Figure 1. Originating a live broadcast via
executed. The typical application for the last two combinations are intelligent I/O devices.6. Control Programming in JavaJava RTS 2.0 was the first Java RTS product 17 release to include a real-time garbage collector(RTGC) that includes an enhanced version of an innovative real-time GC algorithm that providesthe Java developers very fine-grained control over dynamic memory management in a real-timeenvironment. The important point about the RTGC provided with Java RTS is that it is fullyconcurrent, and it can thus be preempted at any time. There is no need to run the RTGC at thehighest priority, and there is no stop-the-world phase, during which all the application's threadsare suspended during GC.With some diligent care and guidance from
and compare small scale energy projects using major economicmeasures of pay-back period, simple rate of return, net present value, and internal rate of return;4. Evaluate manufacturing energy consumption and methods to increase energy efficiency; and5. Relate properly their hands-on laboratory experiences to solving real world clean energy andenergy efficiency engineering problems.In order to provide an enhanced hands-on laboratory experience, the students work with realworld industrial case studies associated with green energy11,16. Table 3 provides an overview oflecture and laboratory series in INDE t280 Clean Energy and Energy Efficiency. Teaching thiscourse presents challenges of teaching applications rather than a discipline. In that
cell is a power conversion device that converts hydrogen directly to electricity athigh efficiency. The operating principle is to combine hydrogen and oxygen in anelectrochemical reaction, which creates electricity, water, and waste heat.[6] The wholesystem produces zero emissions and therefore is considered a renewable energysolution.Many researchers have studied systems that integrate wind and photovoltaic powerwith fuel cells for a variety of applications and configurations. Most research hadmodel simulations for power generation greater than 100W. In a study by Wang andNehir, they simulated the sizing and power management of an 18 kW fuel cell hybridsystem to provide power to five American homes in the Pacific Northwest.[7] Hosseiniet al
, it is my long- term goal to continue doing work and research within this field. c American Society for Engineering Education, 2017 How Solar Boating Teaches the Lessons of Energy Conversion and ConservationAbstractStudents gain a tremendous amount of theoretical knowledge during their time in the classroom,but a practical application of that knowledge is required in order for the student to turn what islearned into a skill. This is especially true for students majoring in applied science, and evenmore so for those with a concentration in engineering. Students who participate in hands-onprojects that allow them to apply what has been learned in the classroom in a real
, and optimization. The main purpose of this workis introduce a wider audience of engineering students to aquaculture as a renewable energytechnology, and to demonstrate that such projects are feasible and instructive in mechanical andelectrical engineering programs. We provide some descriptive details to show that these andsimilar projects are well within the means and expertise of most science, engineering andtechnology programs, and represent a useful exercise as an initial engineering scale-up andfeasibility study of basic biological research for commercial applications. With the advent of genetic engineering, microbes can be readily harnessed for industrialapplications. Moreover, new sensors and image capture and processing can
learning environment. They have an advantage over students enrolled intraditional manufacturing engineering curricula because they have the daily opportunity to applynew concepts learned in the classroom to real situations on the manufacturing shop floor. Thischaracteristic of Greenfield Coalition’s curricula is not only unique, but also provides a naturalcontextual environment for the application and transfer of new knowledge and skills. In terms ofteaching and learning, we could not simulate a better environment. Therefore, we capitalizedupon this feature by making it a critical component of our teaching and learning strategies.However, we wanted to find a way to share this advantage and paradigm with other studentsenrolled in similar
of Engineering Technology at Wayne State University(WSU) falls into this category. The National Science Foundation funded GreenfieldCoalition’s (GC) capstone design course, however, is unique since students are given creditfor their projects based on real-work experiences. This paper discusses how this is done atthe Greenfield Coalition and the implications of adapting this course to Wayne StateUniversity’s Division of Engineering Technology (ET) curricula.INTRODUCTION The last two decades have been marked by the globalization of markets, technology,and competition. This transformation has necessitated sharpened skills and competencies inengineering applications that are relevant to the business community’s needs. An importantarea in
Session 2198 Web-Enabling Software for Real-Time Online Automated Services Ronald J. Glotzbach, Carlos Morales Purdue UniversityAbstractThe Web has seen its share of trends come and go, but now it is evolving into a centrally locatedcollaboration tool for all professions. The focus is shifting to harnessing the Web’s usefulness togain a competitive advantage in the marketplace. This paper assesses the purposes, usefulness,advantages, and disadvantages of web-enabling desktop application-based software packages.Web-enabling software packages allows users from around the world
ApplicationProgramming Interfaces. As a result, complex embedded real-time applications can be efficientlybuilt to meet their real-time processing deadlines on top of FreeRTOS. In this course, FreeRTOSwas applied to conducting experiments with multitask scheduling algorithms and real-timeinterfacing with microcontrollers for all our lab sessions and course projects.This paper presents the primary experiences of teaching real-time embedded systems design toengineering students, with the emphasis of how we adopted FreeRTOS as a real-world RTOSexample in teaching to improve the teaching effectiveness. The description of this course is firstgiven, including course contents, learning outcomes and instruction approach. Next, a survey ofexisting real-time operating
engineering. 2000: IEEE Computer Society Press; 1998.16. McKusick, M., et al., A fast file system for UNIX. ACM Transactions on Computer Systems (TOCS), 1984. 2(3): p. 181-197.17. Kleiman, S. Vnodes: An architecture for multiple file system types in Sun UNIX. 1986: Citeseer.18. Schroeder, B. and G. Gibson. Disk failures in the real world: What does an MTTF of 1,000,000 hours mean to you. 2007.19. Hey, T. and A. Trefethen, The Data Deluge: Grid Computing - Making the Global Infrastructure a Reality. 2003: John Wiley & Sons.20. Wang, F., et al. File system workload analysis for large scale scientific computing applications. 2004: Citeseer.21. Hargrove, W., F. Hoffman, and T. Sterling, The do-it-yourself supercomputer
WITH ALCOA IN REAL WORLD DESIGN PROJECTStudents in a freshman level product design and specification class were given a project todesign a test fixture that would be used to evaluate polymer friction for a bottle-closure system.The product design and specification class is a required class in the Mechanical EngineeringTechnology curriculum at Purdue University, Columbus, Indiana.Initially, Alcoa CSI, a local consumer products company that makes plastic bottles and closures,needed a way to measure the polymer friction that occurs between the bottle and closure threadsand between the bottle and closure sealing surfaces. The friction measurements from standardpolymer friction test methods have not been applicable
The GasDay Project at Marquette University: A Laboratory for Real-world Engineering and Business Experiences Thomas F. Quinn, Ronald H. Brown, and George F. Corliss Department of Electrical and Computer Engineering Marquette UniversityAbstractThis paper presents Marquette University’s GasDay Project, a research activity that has beendeveloping natural gas demand forecasting models since 1993. The project provides studentswith opportunities for research and employment, and serves as a major technology transfer centerat Marquette by licensing software and forecasting models to energy companies across theUnited States. The project is part of the College
Interactive. As the Director of Computer Graphics Technology for IUPUI, he specializes in the study of computer animation techniques and applications and enjoys teaching the latest in animation technology as well as helping his students develop a firm foundation of proper animation principles. Page 14.529.1© American Society for Engineering Education, 2009 Embedding Faculty into Industry: Understanding the Real World Expectations of Our GraduatesAbstractEngineering technology students face intense educational demands in school. Their faculty,challenged to develop coursework that balances theory and
Paper ID #38442Hands-on Experience in Solving Real-World Problems via a UniqueStudent-Faculty-Industry Collaboration ProgramMiss Swapana Subbarao Jerpoth, Rowan University Swapana S. Jerpoth received her B.Tech degree in Chemical Engineering, and her M.Tech degree in Petro- chemical Engineering from R.T.M. Nagpur University, India . Currently she is in the 4th year of Ph.D. program at the department of Chemical Engineering, Rowan University, Glassboro, NJ. Her expertise includes process design, mathematical modeling, process control, process optimization, data analytics, higher-performance computing, and assessment of
Paper ID #25679Facilitation of Cybersecurity Learning Through Real-World Hands-On LabsMr. Mohamed Rahouti, University of South Florida Mohamed Rahouti received an M.S. degree in Statistics in 2016 at the University of South Florida and is currently perusing a Ph.D. degree in Electrical Engineering at the University of South Florida. Mohamed holds numerous academic achievements. His current research focuses on computer networking, Software- Defined Networking (SDN), and network security with applications to smart cities. c American Society for Engineering Education, 2019Facilitation of Cybersecurity
constraint.” ○ “We often discuss issues that have occurred in the engineering world and learn how money, politics, and environmental impacts all play a role in what happens. Therefore it is interesting to know what issues are affecting the engineering process and where things are going right.”Although these comments do not address the activities specifically, it is clear that students havean appreciation for practical applications and engineering opportunities. The class activitieslikely contributed to their appreciation.4. Identify links between course knowledge and real world systems: 87% of students statedthere was a connection between coursework and real world systems, and 70% were able toidentify a
currentlyteaching machining courses, it is known that there are several challenges in teaching this course,especially on campuses where students do not necessarily have access to machines to operate.One challenge is that despite the fact that students can grasp and retain knowledge aboutmachining processes, they do not seem to be able to apply what was learned in class tomeaningful and real world applications. The apparent difficulty of transferring their learning ispartially due to the gap between classroom learning and real world practice. Very often, studentsreceived theoretical instruction on how the machines work, but do not have an opportunity topractice what they learned or solving real-world problems using what they learned. It becomescrucial to
equipping them with the necessary skills and knowledge for the construction sector and how these have translated into real-world applications and employability. This evaluation will provide insights into the long-term benefits of the course and its alignment with professional requirements. ● Teachers' perspectives on implementation and effectiveness: Finally, the study aims to gather insights from teachers regarding the course's implementation and effectiveness. Teachers' perspectives are invaluable in evaluating the course structure, teaching methodologies, and the overall delivery of the curriculum. Their views on what works well and what could be improved are essential for continual course
on an MDL project, students will inevitably express a new awarenessof the complexity associated with a real-world problem. Depending upon projectdynamics, different students will learn different things on different projects. Learningpoints often expressed and documented by students in their final semester memos whichhave been collected over a series of years include: 1. Improved teamwork, leadership, and communication skills 2. Understanding of how the design process really works 3. Development of an appreciation for the importance of “attention to detail” 4. Understanding of the role of test and measurement in design 5. Application of analytical knowledge and skills from prior coursework 6. Understanding about a new
Session 1526 WEB OPERATION OF REAL, PHYSICAL, ENGINEERING LABORATORY EXPERIMENTS --WORLD WIDE RESOURCE CENTER Jim Henry University of Tennessee at ChattanoogaAbstractEngineering laboratory experiments have been made available for students to use via the WorldWide Web, from remote sites, anywhere in the world. This paper describes the hardware andsoftware that is used for this facility, describes the development of a resource center forengineering laboratories on the web and discusses new paradigms for engineering laboratoryexperimentation that
audience [14]. Establishing appropriate context is important; forexample, discussing the application of the Luhn Algorithm for detecting single-digit errors withcredit card data entry will not resonate with students too young to be in possession of a creditcard. Additional motivation can result when students encounter problems posed in the context ofout-of-school interests, as such word problems contain sufficient context personalization toconnect to real-world experiences [19]. Taking into consideration real-world experiences whencrafting word problems constitutes exercises in modeling, where students are expected to developan abstract formal structure grounded in aspects of reality. This resultant word problem providesstudents with a written
positiveimpact on student learning due to the closer link between the course material and real-worldexamples.IntroductionHydrology has evolved from a mainly problem driven, applied engineering discipline to one ofthe building blocks of the geosciences and environmental sciences. Hydrology deals withwatersheds (or units at other scales) as complex environmental systems without losing its focuson real world applications. The complexity of hydrologic investigations has increased over timebecause of the necessary inclusion of chemical and biological aspects of the hydrological cycleto address topics such as water quality and ecosystem function, as well as a need for awarenessfor social and ethical issues related to water. At the same time, climate and land
Paper ID #26363A Real-World Approach to Introducing Sustainability in Civil EngineeringCapstone DesignDr. Leslie R. Brunell P.E., Stevens Institute of Technology (School of Engineering and Science) Leslie Brunell, PhD, PE is a Teaching Professor at Stevens Institute of Technology. She coordinates both the civil and multidisciplinary engineering senior design projects. These projects are the culmination of the undergraduate engineering experience. Students design an innovative solution to a complex problem. She has recruited professional sponsors who mentor the civil engineering design projects. The projects expose the civil