-line materials can enable students to extend their learning beyond thematerial formally covered. In fall 2013, a laboratory with several experiments to learn aboutmicrocontroller interrupts was added; prior to this semester students used interrupts byduplicating application note projects. In DEL, a multi-week final project chosen by the student Page 24.429.9team is done – the requirement for this project is that they must incorporate a microcontrollerinto their project and their project must involve interaction with the external world throughsensors and/or actuators. The code for the final reports for the Spring 2013 and Fall
relationship between thedesired properties of a material and the atomic structure and microstructure of that material. Theresult of this interrelationship of materials structure, properties and processing is that thematerials professional must understand the intimate details of the material in order to designprocessing and manufacturing techniques that will result in a product with the desiredproperties.5 Variables in processing and manufacturing that must be understood and controlledinclude (but are not limited to) temperature, pressure, process speed and environmental factorssuch as atmosphere and vacuum. The recent introduction of nano-structured materials and thebroadening applications in aerospace, energy, bio-materials and microelectronics
paper gives examples for an MET program of goals and measurableoutcomes, along with assessment and evaluation techniques used to assure thatconstituents are receiving expected outcomes. Most institutions that are working on theirTC2K preparation have begun to integrate these basic concepts into their way ofoperating. However, there is a next level that goes beyond the evaluation and assessmentstage that, in many cases, needs further exploration – Continuous Quality Improvement(CQI). Purdue University Calumet (PUC) is one institution that has spent significanttime working with its educators and involving them in the processes that have lead to anunderstanding and application of CQI in their educational environment.This paper will focus on how
students’ self-efficacy and research identity. Surveyquestions ask students to evaluate aspects such as, how active their role was in planning theproject, sense of responsibility for project progress, sense of belonging to a community ofresearchers, and intention to persist in a research experience. Results will be used to scale thisopportunity and create similar communication fellowships for other Grand Challenges anddisciplinary programs at the university.1.0. Introduction and Background1.1. Undergraduate Student Engagement in Research Participation in transdisciplinary research enriches the undergraduate experience bytaking educational content out of the classroom and materializing it in a real-world, professionalsetting. Early
academicsetting as well as time constraints and competing priorities in industry settings.Student members cite a variety of reasons for their initial interest in EWB, with some indicatingthey specifically sought out a university that had an EWB chapter. From the 42 studentinterviews, three major themes emerged around EWB participation: A commitment to “sociallyengaged engineering,” where their technical skills could contribute to the betterment of society;second, the opportunity to employ classroom learning in real-world applications; and third, analignment with their future goals in using an engineering degree, for example, in relation tointernational development or public health. In many ways, students sought out EWB as it alreadyaligned with their
ethics in their own design work.Participants and Context We present findings from EPICS, a project-based engineering design program at aPurdue University, in which students work in multidisciplinary project teams to deliver solutionsto real-world problems. We discuss findings from twelve project teams distributed between fourclasses. Project teams were comprised of 3 to 9 students from varied engineering majors, years inschool, and backgrounds. These project teams were housed within classes themed around similartopics or project partners and advised by professional engineers, engineering educators, andfaculty in other disciplines with relevant experience. Projects often spanned a full year to severalyears, with membership changing
victim of the attackers, but if they are, they need to fix theproblem and then report what they did to the judges.The students’ competition networks run in an isolated network environment to avoid theinevitable misconfiguration or unwanted attacks on the real world network. In our CDCs, theInternet-Scale Event and Attack Generation Environment (ISEAGE – pronounced ice-age)testbed creates a virtual Internet for the competition. ISEAGE provides a controlled environmentthat allows real attacks to be played out against the students’ networks and demonstrates to themreal world security concepts. The ISEAGE testbed has an air gap proxy server through whichstudents can connect to the Internet to download operating systems and patches or search
to studies, CS students generally show a lack of interest in these courses because theirpreference is for programming and software-oriented courses [18]. It is also due to the enormousgap caused by the increasing number of abstraction layers interposed between real hardware andend-user-oriented applications. As a result, motivating students and generating interest inhardware courses has always been a challenge for course instructors [19]. It has beenscientifically proven that students often do less than what teachers expect in computer architecturecourses [20].Traditional hands-on laboratories might provide an opportunity for students to practice theseskills through conducting experiments and data analysis. Hands-on laboratory
, I. Davidesco, L. Kaggen, M. Oostrik, J. McClintock, J. Rowland, G. Michalareas, J. J. Van Bavel, M. Ding and D. Poeppel, "Brain-to-Brain Synchrony Tracks Real-World Dynamic Group Interactions in the Classroom," Current Biology, vol. XXVII, no. 9, pp. 1375-1380, 2017.[8] A. T. Poulsen, S. Kamronn, J. Dmochowski, L. C. Parra and L. K. Hansen, "EEG in the classroom: Synchronised neural recordings during video presentation," Scientific Reports, 2017.[9] K. Katahira, Y. Yamazaki, C. Yamaoka, H. Ozaki, S. Nakagawa and N. Nagata, "EEG Correlates of the Flow State: A Combination of Increased Frontal Theta and Moderate Frontocentral Alpha Rhythm in the Mental Arithmetic Task," Frontiers in Psychology, vol. IX, 2018.[10] K
the use of this new technological process for economic reasons?This paper will apply a series of existing theories developed from the post World War II periodto the pre CAD period of the 1980’s to explain technological changes and apply them tocomputer automation design process of today. These ideas will help to develop a theory tounderstand this new design process. It will outline characteristics of this new design process andpresent a framework to examine the effects in a Construction Design course. Student surveysand supporting data are presented. Recommendations for new assessment are offered. Thelarger goal of this paper is to obtain feedback for a more serious journal length article.Theoretical BackgroundThere is a substantial body of
sensing, smart system applications, and engineering education.Ray Luechtefeld, University of Missouri-Rolla RAY LUECHTEFELD received his Ph.D. from Boston College in Organization Studies. He holds an MBA from the University of Minnesota and a B.S.E.E. from University of Missouri-Rolla. He is currently an Assistant Professor at UMR. His research interests include approaches to organizational learning and effectiveness, simulations and games for learning and research, action research and Action Science, and facilitating group learning. Page 11.986.1© American Society for Engineering Education, 2006
tends to focus more on knowledge acquisition9. It has been shown thatproject-oriented courses increase retention rates10-12, intellectual development13, and increase notonly students’ technical and design knowledge, but also their technical writing and researchskills14. In addition, project-oriented courses expose students to the broader context of engineeringdesign, and students learn best when experiencing the entirety of the content area through real-lifeexamples and working with and learning from their peers6, 15-17.Project-oriented learning and capstone design courses allow for the concurrent teaching of designthrough application and teamwork skills, which are needed for future professional success3,4,18,19.This teaches students the
applicable to asignificant population of students and educators. Further, this case study is relevant toengineering education in that it centers around a classroom that is engaged in “application ofscientific knowledge to an engineering problem,” and NGSS frames this case study as anexample of its “vision of blending disciplinary core ideas, scientific and engineering practices,and crosscutting concepts.” Throughout this paper the authors examine and reflect on the purposes of science andengineering education as well as the ways in which large-scale science reforms (such as NGSS)attempt to address issues of access and equity that continue to persist in science and engineeringeducation. In future, the authors hope to analyze other NGSS case
FORESTY ROBOT DESIGNIntroduction: Robotics field has recently experienced remarkable scientific, technological andsociological advances for superior interactions among humans, machines and environments invarious practical settings such as natural disasters, autonomous vehicles, unknown terrains, orhumanoids. Robotics transforms societies by allowing computerized machines to successfullyintegrate with the real world components and to evolve for social needs, especially in hostile,uncertain or hazardous environments. Scientific advances and societal perceptions have resultedin considerable improvements of the robotics field. Since the installation of the first fixedindustrial manipulator in 19611, robotics have penetrated to many different
, students proposed and carried out independent research projectsto study aspects of diffusion. These projects encouraged students to investigate the applicabilityof computational models of diffusion to their real-world measurements. One model of diffusionpresented to the students before the lab is Fick's second law, ∇ ⋅ (D∇C) = ∂C/∂t, Equation 1where C is the concentration of a substance and D is the diffusion constant for that substance.Potential student research topics included tests of the model: is D independent of C? Does theabsolute concentration affect the diffusion rate? Topics could also examine possible differencesbetween the mathematical model and the physical
of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education Students are taught that “Designs that look fine on screen often don’t work in the real world”. (1)In an industrial setting, one might model a product on the computer and then use a 3-D printer toproduce a quick and dirty prototype before refining the concept. The engineer doing this taskhas a pretty good idea of how the part should look and function before beginning the process.Students, on the other hand, usually have no real background on a part that they are asked tomodel. This is not their fault as they have no real prior life experience in the background orhistory
). Page 24.1293.1 c American Society for Engineering Education, 2014 Understanding Teaching Assistants’ Assessment of Individual Teamwork PerformanceA team-effectiveness inventory of behavioural competencies was used as a conceptualframework with which teaching assistants were asked to assess each students’ individualteamwork skills. The reliability and confidence of teaching assistant assessments as well as theway in which teaching assistants used these assessments to support students to become moreeffective team-members is presented.1. IntroductionTeam-based projects have become a common teaching practice in engineering courses as ameans to simulate real-world environments and meet
in industry andresearch institutes for real-life applications in areas such as control system design and signalprocessing.5,6 Advantage for the beginner is that Simulink has an intuitive point-and-clickinterface, where circuit blocks can be drag-and-dropped from a library, then connected withwires. Figure 1 shows a basic illustration of the Simulink design layout, in this case used tocreate a graphical representation of a third-order FIR (finite impulse response) filter. Figure 1 – Example of Simulink program interface.Despite its ease-of-use in creating the most basic of block diagrams for simulation, the Simulinksoftware harbors many unique nuances that must be understood in order to make good use of thesoftware
Channel coastal system. I currently works at West Texas A&M University in the Texas Panhandle, a semi-arid region. My activities there are applications of water engineering to benefit people and communities. The research and service span three areas. The first is the use of inexpensive biochar for preserving environmental quality in developing communities by using it as an adsorbent for agrochemical pesticides and nutrients. Second is the use of marginal quality water for irrigation to profit agriculture and maintain soil health. The third is the use of water footprint and blue-gray-green water categories to better understand the water impacts of food waste and strategies for its reduction. In the world of engineering
2 is on Engineering Department Objectives and Section 5 provides feedback on the instructor’sperformance. As these are either not applicable for a course taken by non-engineers or are dependent uponindividual instructors, this data was not considered during the evaluation. Page 11.80.14 Appendix C Introduction to Electrical and Computer Engineering Lesson plan overview - Fall 2004 to Present.Lesson Plan LengthModule 1 – Introduction Introduction 1 day World Wide Web 2 daysModule 2
depth and rigorappropriate for 3rd semester students. The number of words and pages is intentionally kept aslow as possible to encourage critical reading by every student, as they are required to do prior toeach class. Currently this text is packaged with access to portions of an online version of atraditional pair of Statics/Dynamics books, the latter providing most of the homework problemsand offering some supplemental reading to students who need another source. It is printed incolor and includes many photographs of structures and machines that students encounter oncampus and around the local region. Real-world examples that students can relate to canstrongly assist motivation. To encourage critical reading, rather than surface reading
- sentations and workshops to educational institutions on 4 continents. He regards OBE as a powerful, future-focused ever-evolving approach to learner empowerment, and regrets that it has been so badly misunderstood and misrepresented across the world. c American Society for Engineering Education, 2017 Specific, Generic Performance Indicators and Their Rubrics for the Comprehensive Measurement of ABET Student OutcomesAbstract: In this research, we present the essential principles of an authentic outcome basededucational model related to the development of learning outcomes, performance indicators andtheir rubrics with a focus on measurement of specific skills related to Bloom’s 3
quality around their communities and investigate innovativesolutions to local storm water issues. Storm water runoff is a pressing and expensive problem, and themodel presented in this workshop will have nation-wide applicability and appeal.The workshop presents the participants with the instructions and activities for engaging students inscience and engineering of storm water and integration on these activities in high school curriculumbased on the recommendation of the Framework and Next Generation Science Standards (NGSS).These include: (1) Stationary water quality wireless sensor network units with microprocessor boards, (2)Students acting as Live Sensors in their communities, collecting real-time data via probes and sampling,(3) Learn to
sectors, such as though General Electric’s advanced batterymanufacturing center operating in Schenectady, New York since 2009. Solar City has alsoestablished a solar panel manufacturing facility in Buffalo, New York expected to beginproduction in the summer of 2017.In order to thoroughly prepare our future workforce, high school, middle school and primaryschool teachers must be aware of the developing industries and the multiple applications of theirspecific content (i.e. mathematics, physics, chemistry, etc.). Deeper teacher knowledge predictspositive changes in the quality of lessons, but it is difficult to identify the specific knowledgeconnected to the greatest improvements in student performance [5]. When the content isconnected to real
frequent feedback 5. Requires students to use their classroom learning in very different settings 6. Students discover that their learning is relevant to real-world problemsKuh identifies several student experiences as high-impact practices, including internships.A Google search for the phrase “engineering internship learning outcomes” yielded more than130,000 results. Perusal of outcomes shown at a few of these sites provided some starting pointsfor faculty discussion. Comparing these outcomes with each faculty member’s idea of what theinternship should accomplish, we settled on the following outcomes for the internship course: To satisfy the requirements for this course, students will
of engineering and the real-world importance of materials science. On thefirst day of class, students were asked to think about their favorite project that they had designedand built in a previous course (e.g., the required first-year design course) or personally. Theywere asked how many different materials were in their favorite project (which for many wouldhave been over 20 if their project included an Arduino Uno board). Students shared their guessusing an embedded classroom response system (i-clicker). Then they were asked what factorsimpacted materials selection for their project. Five choose all-that-apply options were provided:cost, availability, compatible with equipment in the campus manufacturing center, social andenvironmental
community outreach, such as math and scienceenrichment programs for elementary, middle and high school students.The current CIPA II Program is an expansion of the original CIPA Program andwill integrate project management methodology to strategically enhance STEMcurricula. Through innovative project management curricula and/or the infusionof project management methodology into existing STEM curricula, MIs will beable to groom STEM students for success in NASA and aerospace industrycareers by providing both the theoretical knowledge and the “real-world”experiences necessary for thorough understanding and increased productivity.Students will gain the confidence, knowledge, and skills necessary to understandconceptual frameworks, apply skills to
. Table 2. Global Technical, Professional, and Cultural Competencies Framework Code Representative Examples Adapted from Mohtar and Dare12 Global Technical I.1 An awareness of varying regulations, codes of practice, standards, technical specifications, testing/inspection procedures, environmental regulations, and systems of measurement between countries and regions I.2 Familiarity with the concept of a "global product platform" I.3 The ability to apply familiar concepts to unfamiliar, real-world problems I.4 The ability to use design tools to solve engineering problems12 Global Professional
reduce the kinetic energyof the water when the water comes into contact with it. Finding another way to ensure that all ofthe water lands in the right place that is not so disruptive to the overall flow of the water wouldresult in a higher efficiency.It is also important to note that our testing involved the water flow being started only a few inchesabove the device. In a real-world situation, the water would be falling for many feet through thegutter before landing onto the turbine, meaning that there would likely be more kinetic energy atthe time of contact with the turbine, also resulting in more energy generation than measured in ourtesting.Relevance to Engineering EducationOur project can be widely applied in engineering education because
project related to people, prosperity,planet, curiosity, connections and creating value (P3-C3) was introduced in fall 2019.In the new term project, groups of 3 to 4 students worked for nine weeks to create a device thataddressed a real-world challenge in a rural community in any part of the world addressingpeople's health, prosperity, and protection of the planet. The term project deliverables werestructured into four sequential stages: (1) a two-page proposal (2 weeks) that needed to beapproved by the instructor; (2) design plan and proof of concept paper (3 weeks); (3) prototypeproduction (3 weeks); and (4) final presentation and submission of a design report (1 week).Students need to be curious about sustainability issues, especially in rural