-world applications for potential answers when STEM education is used as a majorcomponent of the innovation equation. STEM innovation is becoming increasingly important asthe needs of the world change and as we are faced with new challenges in a post-pandemicworld. This is because we need to find economical and sustainable solutions for the problems weface, whether it be improving digital literacy or eliminating world hunger and achieving betterfood security. Incorporating 3D printing into curriculum is giving STEM students theopportunity to discover how well the technology works in the industry and are providing them anadvantage if they choose to pursue a professional career in the STEM field. STEM education andinnovation need to collaborate to
cost and schedule, and 2) being competitive in the job market. However thereare loopholes associated with the integration of this new technology which is basically due to thelack of well-trained individuals in the field. These loopholes are basically twofold, the first is thescarcity of construction engineering programs within the universities with a dedicated course inBuilding Information Modeling and the second is the lack of consensus on what should be themain focus of the syllabi. While some courses are centered on the modeling aspect of thetechnology, the other tend to capture the gained benefits from its application for different phasesof project development. This highlights the need for a proper teaching strategy for building
computer simulations.The expressions for a three-phase rectifier are derived using the principal that the input andoutput power are equal, and the DC circuit current is purely DC. The validity of the expressionsis discussed, and the comparison to the real world case is made. The PSpice simulations are usedto find power factor indices. V1 D1 L 100 mH D4 R 2.5 V2 D2
technology program graduates. This paper studies industry need for graduate knowledge and skill in fluid mechanics area and presents an ongoing curriculum reform process to transform an existing fluid mechanics course to a fluid power course. A multi-mode student learning process is developed and course is reformed to support an interactive pedagogical methodology. Beyond current teaching methods, tools are developed to foster a flexible inductive learning through hands-on applications. A multipurpose laboratory equipped with fluid power process, sensors, data acquisition system, and application programs is being developed. A series of laboratory practices based on use of fluid mechanics principles in industrial applications would
I Session 3263 -——-. . .—-. . . . . . . Using Dynamic Data Exchange (DDE) as an Integration Tool Troy Kostek Purdue University Dynamic Data Exchange (DDE) is a protocol describing how Microsoft Windows applicationsexchange data on a real-time basis. In today’s Windows-based multitasking environment, two Windowsprograms simultaneously running on the same computer (or running on two different computers
. These applications are PC based, and have been Basic or C++ programs, withinterfaces to Excel® in some cases. We have recently joined the Wonderware® educationalprogram, and are beginning to use the Factory Suite® software for our data acquisition andcontrol applications. This provides the students with an interface and software developmentenvironment that will be found in an industrial setting. Students will be able to configure controlloops, perform sophisticated data analysis in real time, and construct graphical interfaces. Sincethis software interfaces easily with Excel®, Mathcad®, and Matlab®; the students will be able touse familiar software tools to work with data acquired from the Factory Suite® software.The Powerpoint® package is
of the lesson, the instructor needed tosuperficially check whether or not (i) the robotic platform with all accessories was in its originallocation, (ii) all the educational resources as mentioned above were in respective locations in theclassroom, (iii) the instructor was well-prepared to instruct the lesson and provide class materialsto the students, etc.Figure 2. The DENSO robotic platform used by the instructor as a teaching tool to teach theconcepts of actuator and sensor technologies with possible real-world applications to the selectedstudents for the mechatronics course.One day after the lesson, the instructor evaluated the overall teaching outcomes. The evaluationwas based on (i) responding a rubric by the students as given in
; Validation Utilization Needs Requirements Design Development and Support Retirement (V&V) Figure 1. A General Life-cycle ProcessWhile systems engineering processes are utilized in real world engineering problems, theseprocesses are also applicable to develop K-20 educational curriculum. In K-12 education, asystematic process known as the Backward Design approach is utilized.10 The Backward Designapproach is a tool used in elementary and secondary education to develop curricula and teachinglessons. The process involves the following phases: (1) determination of learning outcomes, (2)development of
developing analytical and problem-solving skills, practical experiencesprovide the context to apply these skills effectively [1]. Theoretical concepts, such as those inphysics, often serve as building blocks for advanced applications, but without practicalreinforcement, students may struggle to see their relevance to real-world scenarios.To bridge this gap, educational programs should consider integrating project-based learning orinterdisciplinary activities that connect theoretical principles with authentic, context-basedproblems. For instance, students could design and simulate an electromechanical system oranalyze energy efficiency in real-world devices. Simulations and virtual labs are valuable toolsfor providing practical experience in online
Engineering Technology (IET) programat our university has been converted to an online program as other programs are also followingthe same pursuit. As we are switching to online course delivery, we are actively researchingways to foster critical thinking and maintain adequate real time communication and interactionwith students. Our task was to design online course delivery that offers students a variety oflearning styles and preferences in interactive ways. We have implemented various techniquesincluding enforced sequential viewing of lecture videos and virtual class meetings in some of ourcourses as part of students’ engagement initiative. We have found interesting and positivecorrelation of improved students learning with those techniques. This
since 1997. Previous publications describe the program designfeatures and rationale in detail (Demetry et al., 2009; Demetry & Sontgerath, 2013). Keyprogrammatic elements include: • A service learning project wherein teams of girls use the engineering design process to propose a solution to a real-world problem posed by a non-profit organization • Hands-on design activities in a variety of engineering disciplines, chosen to emphasize the human and social context of engineering—that engineers can make the world a better place • A focus on collaboration and teamwork in both academic and social activities • Exposure to numerous female role models and mentors with interests in STEM
American Society for Engineering Education, 2017 Project-Based Learning of Digital Logic Circuit Design Dugwon Seo, Ph.D. and Danny Mangra Queensborough Community College, City University of New York Department of Engineering Technology 222-05 56th Avenue Bayside, NY 11364AbstractDigital Logic Design is a fundamental course in both Computer and Electrical EngineeringTechnology fields and as such it is important for the course to provide students with a goodunderstanding and continuous interest. Project-based learning allows students to gain knowledgeby solving real-world
3.5 3 ME 812 Conductive Heat Transfer Hot or Not ? Assignment #1 Due Monday, September 13The” Hot or Not?” assignments are intended to: (1) develop a real world intuition for heat transfer and(2) develop a public communication style for technical information.Assignment: Write a 500 word essay explain the physical phenomena described below. Theexplanation should be easily understood by an educated, non-technical person (e.g., Craig Gunn). Phenomena: Touch of Sense for TemperatureAt the front of the room are six blocks made
creative and leadership potential because creative practitioners must conceiveand implement creative solutions to real-world industrial problems and societal needs thatfrequently go beyond conventional thinking. These solutions demand sound technicalcompetence and the application of the intrinsic human potential of creativity, imagination,vision, judgement, responsible leadership, and original systems thinking.As the findings of the national study indicate, “Faculty and program administrators who took adialogical approach to teaching and learning centered their program’s primary learningexperiences within the context of a tacit “learning community.”3 In this setting, faculty andstudents participated in a variety of activities, including
ofcredits between four year and two year degree programs, and providing the necessarytraining for students to take up the challenges in the real world. Partnerships with law enforcement agencies such as the City Police Department,Federal Bureau of Investigation, and Regional Computer Forensic Laboratories (RCFL)will be very helpful in providing real-world experiences for students. In addition, eachuniversity has to take advantage of its local law-enforcement facilities that might beunique to its location. At Wichita State University, we collaborate with the missing children’s unit ofWichita Police Department. The detectives from this division were invited to ourclassrooms to talk about their forensics analysis tools techniques. In addition
with the material from class.” • “A few good cases will be enough, not too much.” • “Provide more detail regarding the actual development process, not just the product. Perhaps focusing on one product would be more efficient.” • “Having a variety of different examples would help people really see the real world applications of what we are learning”; Spring 2015 Mid-Atlantic ASEE Conference, April 10-11, 2015 Villanova University(2) integrate the case study to homework practice • “I think it would be fun to actually solve the forces at each part on the Steadicam so we can really see the real life application for it and actually compute the numbers.” • “Perhaps have some problem solving aspect involved in the
application oftheoretical knowledge. Additionally, this project addresses real-world challenges, furtherenhancing problem-solving skills and enhancing students’ ability to approach complex problemsfrom multiple perspectives. This interdisciplinary approach fosters a well-rounded skill set,making the students valuable in industries where these technologies converge.As future engineers, the students have a significant environmental responsibility. The decisionsand actions of engineers have substantial impacts on the environment, both positive andnegative. Since the project involves assessing and minimizing environmental impact to reducecarbon emissions by 2060, therefore the projects contributes to a broader understanding of theenvironmental
projectteams worked on the same innovation project. Due to feedback, the second cohort allowed eachteam to determine a project that they found interesting, subject to instructor approval.First-Year Innovation Courses: A two-semester course sequence was developed to immersestudents in multi-disciplinary problem-solving and innovation practices. Industry experts in theSTEM innovation field provided real-world experience through guest lectures and served asproject resources. These first-year students learned topics such as lean startup methodologies,market analysis, intellectual property management, project management, and productdevelopment. Field trips to innovation hubs and research facilities exposed students to additionalpractical application and
address real-world issues.This works-in-progress paper presents the work from Project RISE’s curriculum pilot, in whichmiddle and high school teachers attended a 5-day residential workshop to learn about andimplement the RISE curriculum. We describe curriculum, the professional developmentactivities, present results from the evaluation of the professional development, preliminaryteacher feedback from implementation of the pilot, and curricular updates for the nextprofessional development session. We will also demonstrate the mobile application thatcomplements the curriculum and student interaction, previously described in past work[3].Literature ReviewPrior research on interdisciplinary teaching highlights the benefits of integrating engineering
topics and experiences inSTEM.The three program goals and the summary of corresponding program activities to meet thosegoals are presented next.Goal 1: Nurturing students’ enthusiasm for STEMThe activities were aimed to nurture the aerospace/aviation academy students’ enthusiasm forSTEM; all the sessions provided interactive components through virtual simulation thatsought to excite the participants about the scientific and engineering applications and engagestudents in hands-on activities that were applicable to the real world. Prior to working on theengineering design project, the students participated in a field trip to a large-scale wind farmowned by Amazon, located close to ECSU campus. This trip helped students see how thetopics they are
engineers and scientists is becoming increasingly importantand popular throughout the world. There is a need to develop courses which introduce students tointerdisciplinary environmental management principles and tools, and expose them to variousreal world problems. To promote interdisciplinary environmental education and research, NorthDakota State University (NDSU) has introduced a graduate program in Environmental andConservation Sciences (ECS) in 2003. As part of this interdisciplinary program, a course inenvironmental management for ECS and civil engineering students was introduced. The coursewas designed as a graduate level course and was made available to civil engineeringundergraduates as a technical elective. The challenge was to address a
instructional unit that was designed added richness to the engineering economycourse. The unit also yields data by which the school can assess a number of the EC2000 a-klearning outcomes.Finally, successful application of engineering economy principles depends on the properformulation of alternatives. Of necessity, alternatives as presented in typical engineeringeconomy texts are simplistic in nature. The presentation of real-world case studies such asChallenger and Ford/Firestone as part of an engineering economy course gives new meaning toconcepts such as cost-benefit analysis and cost estimation. Real-world contemporary cases allowstudents to see the impact of ill-advised design decisions and manufacturing imperfections on theeconomic health of the
students to practical,real-world experiences and laboratory tasks, the application of ECP fosters a greatercomprehension of academic topics through firsthand learning. Studies have also shown how ECPcan enhance engineering ’”students’ educational experiences [26], especially in classes like DigitalElectronics. The goal of ECP is to increase ’”students’ comprehension and interest in the coursematerial using a firsthand approach. This method prioritizes practical, firsthand experience overtraditional lecture-based learning. It aims to link theory and practice, boost engagement, boostcritical thinking and problem-solving abilities, and prepare for applications in the real world.The literature reveals a transformative shift towards experiment-based
change of scope and design requirements tostudents and how to improve their experience despite change of scope. One of the popularresponses was adding “surprise requirements” mid-way through the project and allowing thestudents collaborate on how to change their plan moving forward.Experiences with students working on interdisciplinary community engagement projectsThough the goals and objectives of the program evolved from SEECS1 through SEECS3, acommon aspect throughout is the interdisciplinary community-based projects the studentsworked on. The community related projects expanded student’s world view, extended theircommitment from themselves to broader community while gaining and applying engineeringskills to develop solutions for real-world
the classroom. Our biggest problem right now is not content, but the lack of people and enthusiasm and creativity and support in general aimed toward manufacturing endeavors.• Our young people and society know all about information flow and building on information, but there seems to be little appreciation for the skills and application needed for actually making physical things work and happen in our communities and world.• Young people generally don't even think or know about what they could do besides manipulate information and communication. In the 60's and 70's, appreciation for the space program successfully infiltrated the school system. An appreciation for the physical things that need to be engineered and
). In September 2010 he was elected as President of the ”International Society of Engineering Education” (IGIP, http://www.igip.org). Furthermore he is one of the founders and Secretary General of the ”Global Online Laboratory Consortium” (GOLC). GOLC is the result of an initiative started in 2009 at MIT to coordinate the work on educational online laboratories worldwide. c American Society for Engineering Education, 2016 Work-in-Progress: A Study on Students Feedback regarding the Usability of Online LaboratoriesAbstractOnline Laboratories allow students to perform virtual and real experiments remotely. The userinterfaces of the laboratories are delivered by Web-based
ion neutralization Raster scan ‘beating’At present, these fault conditions are based on straightforward variations of inputconditions. However, the goal is to link the menu to real-world experience and reflect thetypical incidence of faults. This contribution will come from our industry advisors. Page 8.634.8Proceedings of the 2003 American society for Engineering Eucation. Annual Conference & Exposition Copyright © 2003, American Society for Engineering Education4. Applications and conclusionsCurrently, the MTF does not possess an ion implanter. If we need implantation fordevice fabrication, it is more cost effective to buy the service
) versusasynchronously accessible streamed video on learning seems to be an open question.Although evidence presented in [2] is anecdotal, there are arguments for posting streamingpre–recorded video whose playback can be controlled by the viewing learner. There is addedcontent in live streamed video with real time feedback when compared with a stored videopresentation, even when the stored version has a playback control. But it is not hard toimagine that highly motivated students may respond more positively to controllably streamedmaterials available at their convenience than to a teleconference which must take place at afixed time.The National Instruments website [4] mentions one remote laboratory effort among threeLabview related classroom efforts that
, but the same is not true for physical experimentation andinvestigation. In order to keep up with the increasingly global and technology reliant engineeringindustry, there is a need to find new methods for incorporating computer-based activities inengineering education1. In air quality engineering education, environmental sampling and analysesallows students to make connections between scientific theory and real-world application.However, educational sampling activities are often constrained by the availability of equipment,environmental conditions, and time. Applications-based activities, like virtual experimentation and simulation, offer a cost-effective solution for incorporating “hands on” sampling and analyses in air quality
Session 3515 The Admiral Combs Design Retreat Stacy Eisenman and George List Department of Civil and Environmental Engineering Rensselaer Polytechnic InstituteAbstractThe Admiral Combs Design Retreat provides an opportunity for students to experience manyaspects of civil engineering in a “real world” situation. For the past six years the retreat hasoffered to returning seniors, five days of irreplaceable knowledge and networking. For a weekstudents become the guests and partners of a design firm. Throughout the retreat students engagein