nanotechnology and nanocomposites in industry and society, developmentof simple, cost-effective laboratory experiments (teachers), enhancement of research anddevelopment skills, and development of entrepreneurial skills.Several undergraduate and graduate students are sponsored year-long by CNCMM, andare required to participate in CNCMM’s research, education, ethics, entrepreneurship,assessment and dissemination (RE3AD) program[26]. ConclusionsCNCMM is a viable research and education unit at Pittsburg State University that ispositioned to enhance Kansas’ relatively new nanocomposites industry by establishing anexcellent research and education center for nanocomposites and multifunctional materialswith focus on naval
this communication is to help satisfy this requirement for amore thorough undergraduate engineering foundation in a broad range of various courses in thedifferent disciplines across engineering by using the web. This would provide undergraduatestudents with access to various opportunities and capabilities in their curriculum using the web toaccess different materials engineering related goals, activities, and learning experiences. Theweb development work illustrated in this communication will provide undergraduate engineeringstudents a user friendly approach to learning and better understanding the principles of basicfundamental engineering materials, chemical engineering, materials design, engineering science,chemistry and metallurgy
use of nuclear fuel, nuclear engineering design including lessons learned from thefirst generation of commercial reactors and advanced reactor designs, economic andenvironmental issues associated with nuclear energy and reactor/balance-of-plant design.Skill GoalTo develop and nurture skills in visualization, problem solving using analytical andcomputational techniques, laboratory techniques, oral and written communication, and groupcooperation. III. Assessment MeasuresThe department adopted assessment measures based on the Fundamentals of Engineeringexamination, exit interviews of graduating seniors, and surveys of alumni.1. Require all graduating seniors to take the Fundamentals of Engineering (F. E
FabricationAbstractThis paper seeks to evaluate the challenges and successes in incorporating a beam fabricationmodule into a Concrete 1 engineering design class for Architecture and ArchitecturalEngineering students. While this class is usually taught in a lecture format, the inclusion of ahands-on activity aimed to accomplish the following goals: • Student learning about principles of flexure and shear through hands-on exercises • Engage students in course material by giving the first-hand experiences with concrete construction • Structure task to encourage competition between small groups • Prompt students to consider multiple solutions to a given problem • Involve other learning settings to give students a more well-rounded
interactive board game usingArduino Mega and various other electronics and mechanical parts. The board consists of sixgames and is fun to play for all age groups. All student participants had no prior experience withArduino, but with the help from the faculty mentor, they were able to learn it quickly andcomplete the project within 4 weeks. Although each student was primarily responsible for twogames, the project was a true multidisciplinary collaboration: the computer science student ledthe efforts of setting up GitHub for software programming and source management whereas themechatronics engineering students conducted mechanical design for the board. In this paper, wewill present the mechanical, electrical, and software design of the board game
first module is an introduction and a welcome to the department. An eight-minute longdepartment video is shown which depicts different laboratories overseen by the department suchas the concrete and turbine labs. The video also recounts recent capstone student projectscomplete by our graduates.The second module is an introduction to the West Point Bridge Designer program (which will bediscussed later). The basic properties of the program are discussed and a demonstrationconducted. The students are then given a simple exercise to completely design a bridge using theWest Point Bridge Designer.The third and most interactive, team building module consists of dividing the students into groupsof four to compete in two design competitions, one using
oriented Engineering Clinic sequence1,2. Soph Total Quality Man- Multidisciplinary agement Design Project The Engineering Clinic is a course that is Junior Product/Process Product/Process taken each semester by every engineering stu- Development Development dent at Rowan University. In the EngineeringSenior Multidisciplinary Capstone Design Project Clinic, which is based on the medical school model, students and faculty from all four engi-neering departments work side-by-side on laboratory experiments, design projects, applied re-search and product development. Table 1 contains an overview of course content in the 8
difficultlessons to teach in engineering. Hands-on experience such as in a laboratory environment providesa tool to solidify concepts covered in a lecture course. The proposed project is intended tosubstantially improve the capability of undergraduate instruction related to recent trends anddevelopments in emerging technologies including alternative energy, drone technology, andbiotechnology. The laboratory will be used to supplement several engineering courses for therevised program as well as provide support for capstone design projects. In addition, the laboratorywill provide a vehicle for the development of state-of-the-art projects for engineering students. Theproposed laboratory will accomplish the following goals and objectives: To
and share their skills and creations (para. 14). One ofthe main places where Makers can collaborate and share processes and products is a Makerspace.Makerspaces can be located in a wide variety of spaces, including libraries, art galleries,museums, laboratories, and workshops. Although makerspaces can vary greatly, Davee, et. aldefined them “fundamentally [as] places to design, explore, and create” (2015, p. 3).Making gained significant visibility due to President Obama’s support for the Maker Movement,culminating in the 2014 White House Maker Faire, a newly established National Week ofMaking, and the Nation of Makers Initiative. The Nation of Makers Initiative was a call tofederal agencies, companies, organizations, and schools to pledge
students across the U.S. American c Society for Engineering Education, 2021 Entering Research Online: Developing a Virtual Course to Support Experiential Education for Undergraduate Research AssistantsAbstractThis evidence-based paper describes the development and implementation of a fully online,entirely asynchronous course designed to introduce undergraduates to engineering research. In itsfirst offering, this course enrolled 32 first-year, first-semester undergraduates who were pairedwith faculty mentors in part-time, paid research experiences at a large university in the Midwest.The course structure was designed to reinforce two of the key learning goals for the class
product development, design, health care, environmental protection, urban planning anddevelopment, manufacturing, and public service. Desired small process substitutions include (a) flexibility of courses specified, (b) work experience outside ofacademe, (c) an option for substitutes for the basic-research dissertation, (d) more diversity in literature reports includingethics and public policy, and (e) a strategically planned and customized IwIuced period of study. References[1] Armstrong, John A. “Rethinking the Ph.D.” Issues in Science and TechnoloQv . Summer of 1994, University ofTexas - Dallas, Dallas, TX.[2] Baker, Merl, “Societal Benefits Expected From Courses In Ethics And
the lessonslearned, the summer outreach activity happened at partner institutions, and finally, theundergraduate research experience. I. IntroductionProgrammable Logic Devices in general and FPGA-based re-programmable logic design becamemore attractive as a design media during the last decade, and as a result, industrial use of FPGAin digital logic design is increasing rapidly. Considering the following technology trend inindustry, the need for highly qualified logic designers with FPGA expertise is increasing rapidly.According to the United States Department of Labor, the job outlook is on the rise and willcontinue to expand for at least the short- to medium-term future [1]. To respond to the industryneeds for FPGA design skills
Engineering Education”After the PLC overview, we proceeded to the programming software. The best methodfor teaching the software is via lab activities that require the students to develop ladderlogic programs designed to control a process. The six laboratory activities that weutilized are the: Industrial start cycle with an automated stop function; Conveyor systemwith indicating lights; Timing six sequential outputs; Automated palletized materialhandling system; Computerized parking garage; and the Vehicle intersection traffic lightcontroller.Laboratory Activity One - Industrial start cycle with an automated stop function.The goal of this laboratory activity is to create a program and wire input and outputdevices that will replicate an industrial
Technical Education Pro- gram. She earned her B.S in Mechanical Drafting and Design Technology from Alabama Agriculture and Mechanical University and her M.Ed. from Averett University. She is currently studying postgraduate STEM Education at Old Dominion University. Mrs. Oaks-Garcia’s expertise is in the field of Computer- Aided-Design. She has over twenty-five years of professional experience as a Senior Designer with ex- tensive knowledge in 3D Modeling Software and Computer-Integrated-Manufacturing collectively in the areas of Civil, Electrical, and Mechanical Design. Mrs. Oaks-Garcia has supports her local school districts within the community working with the National Institute of Aeronautics (NIA), Hampton
community college students to participate in upper-division university laboratory andcapstone design courses. The third strategy is the development of a research internship programspecifically designed for community college students.Strategy 1: Curriculum Enhancements through Contextualized Teaching and LearningRecently, the California Community Colleges Basic Skills Initiative has identified contextualizedteaching and learning as a promising strategy to actively engage students and improve learning inbasic skills courses and career/technical education.18 Contextualized learning has been defined as a“diverse family of instructional strategies designed to more seamlessly link the learning offoundational skills and academic or occupational content by
learning experiences. Laboratory projectshave been shown to enhance development of discipline-specific skills and general research skills.Additionally, longer-term laboratory projects may allow students to develop skills associatedwith undergraduate research experiences. Undergraduate research has been shown to increase Page 13.316.2student satisfaction with education and serve as an “educational and personal-growth experiencewith many transferable experiences.”7,8The specific nature of student involvement in a course has a significant impact on studentsuccess and satisfaction.9-12 Biggs and Moore classify four types of motivation:12
physically present in their classes in order to be successful. Initial results presented atthe American Society of Engineering Education (ASEE) Annual Conference in 2012 determinedthat attendance correlates with student success and the correlation changes during theprogression of a student throughout their undergraduate experience. This paper discusses if thereis a significant relationship between student success and different faculty approaches toattendance including incentives for attendance, penalties for lack of attendance, or norequirement at all. The study involves students in programs of Mechanical Engineering,Mechanical Engineering Technology, Manufacturing Technology, Design Technology,Construction Management, and a service course to the
collaborationbetween students, faculty, librarians and outside contributors as well as ensure the sustainabilityof the project in coming years.The Smart House is a student-led, multidisciplinary project to retrofit an existing house to be aliving-laboratory. The house will be a platform for testing innovations in the areas of energy,health, environment, interaction, and lifestyle. The ultimate goal of the organization is toimprove the quality of life for those living and working in an urban residential setting. TheSmart House is a collaborative design project not only across different disciplines, but alsoacross student year and domain knowledge levels. This collaboration produces a wide array ofstudent information needs and presents a unique opportunity for
using various probes and wet chemistry methods.Water Treatment Processes: Students observe demonstrations of various water treatmentprocesses such as Sand Filtration, Reverse Osmosis, Ultrafiltration and Ion Exchange.Specifically they work on an experiment on determining the adsorption coefficient of activatedcarbon in removing organic pollutants.Gas Transfer –Aeration: Aeration of aquariums to maintain safe dissolved oxygen content iscrucial to the successful design of an aquarium and survival of aquatic life. This module exposesstudents to the fundamentals of gas transfer and gas transfer kinetics. Students work on anexperiment to evaluate the gas transfer rate of commercial gas transfer products such asdiffusers, bubbling stones, and
using various probes and wet chemistry methods.Water Treatment Processes: Students observe demonstrations of various water treatmentprocesses such as Sand Filtration, Reverse Osmosis, Ultrafiltration and Ion Exchange.Specifically they work on an experiment on determining the adsorption coefficient of activatedcarbon in removing organic pollutants.Gas Transfer –Aeration: Aeration of aquariums to maintain safe dissolved oxygen content iscrucial to the successful design of an aquarium and survival of aquatic life. This module exposesstudents to the fundamentals of gas transfer and gas transfer kinetics. Students work on anexperiment to evaluate the gas transfer rate of commercial gas transfer products such asdiffusers, bubbling stones, and
educators, the authors learned from their firsttrial that a successful implementation requires careful planning and flawless execution in aspecific course. This paper presents the design of lectures, laboratories and the course projects.Assessment methods and lessons learned are also discussed.Introduction Engineering technology (ET) is a major often misunderstood by some parents of studentsand potential employers14,18,23. Four-year ET programs offer BS degrees but are quite differentfrom traditional engineering programs. Typically, hands-on learning is the emphasis of ETprograms. Courses involving more math, such as Control Systems, can be a challenge for ETstudents. Majority of ET courses rely on laboratories to reinforce student learning
issues6. Programs that havesought to emphasize this approach have ranged from small-scale graduate programs7; todepartmental8; to large-scale multi-institutional efforts9. Successful programs supplementtraditional engineering science with practical experience in solving real problems, developing thesystems, IT and business skills.2.2 Interdisciplinary EffortsIncreasingly, such experiential learning involves working with multiple disciplines10. Manyuniversities, encouraged and supported by industry, now offer capstone senior design projectsperformed by teams composed of varying engineering disciplines. More recently, the teams forsuch projects are being expanded to include business disciplines, IT disciplines, and sciencedisciplines. Industry and
of an existing series of Project Based Learning (PBL) orientedundergraduate engineering courses at the host institution, which currently make use of moreclosed-ended and single-solution design projects. In the study, a cohort of 27 engineering andengineering technology students participated in a sequence of extracurricular sessions in whichthey undertook progressively challenging open-ended project assignments. Each projectintroduced new constraints that required the students to address additional aspects of projectmanagement. Results from an end-of-year survey show that the participants had strongly positiveimpressions of their experiences related to these exercises. A majority of students felt that theyhad enhanced skills that would be
process module provides anintroductory, broad overview to a range of manufacturing processes typical to the mineralsprocessing industries. The first module in control is an introduction to simple industrialcontrol systems. It should be noted that considerable emphasis is placed on providingstudents with practical experience. The third year of the curriculum provides the basis ofengineering thermodynamics through theory, measurement and practical applications.On completion of the award in I&C, a graduate should be:• Able to design, specify and commission instrumentation systems and devices for a given measurement application• Able to apply a range of classical and advanced control methods and techniques to regulate and drive the
backgrounds, as well as that of the local industry community1.The EVP provides a platform in which young students are learning that applied research can befun, educational, and beneficial experience upon graduation. Annually approximately 80 studentsfrom all across the College of Basic and Applied Sciences (CBAS) come together to form peer-led project teams. Each vehicle serves as a multi-step process which allows a team of students toexpand upon MTSU research by using their knowledge from the classroom to complete the costanalysis, design conception, fabrication, and test novel vehicle designs with the ultimate goal ofcompeting on the national and international level.Each of the national and international competitions has its own respective showcase
, where a watershed is located, how beams and columns areconnected in a building frame, what work will need to be done to excavate a foundation,or how to lay out a roadway. With the advent of new computer technologies, it ispossible to take numerical 3-D data and render virtual computer models that arepresented in 3-D, enhancing the learning experience in relation to both analysis anddesign in the civil engineering curriculum [1]. To this end, the College of Engineering at Valparaiso University has establishedthe Scientific Visualization Laboratory to improve the learning experience for studentsfor 3-D concepts that are hard to represent in conventional 2-D space [2-4]. Examplesinclude electromagnetic fields, complex organic molecules
be emphasized. Most class periods are taught by individual IMPEC faculty members, but several times during each semester “workshops” on specific topics (e.g. statistical analysis and angular motion) are team-taught by the full faculty.• The course instruction makes extensive use of active (experiential) and cooperative (team- based) learning and other methods designed to address the full spectrum of student learning styles,1 reducing but not completely eliminating formal lecturing. All laboratory experiments and most homework and in-class activities are done by teams of students. Exercises are designed to provide positive interdependence, individual accountability, and periodic self- assessment of team functioning
IMPEC faculty members, but several times during each semester “workshops” on specific topics (e.g. statistical analysis and angular motion) are team-taught by the full faculty.• The course instruction makes extensive use of active (experiential) and cooperative (team- based) learning and other methods designed to address the full spectrum of student learning styles,1 reducing but not completely eliminating formal lecturing. All laboratory experiments and most homework and in-class activities are done by teams of students. Exercises are Page 2.460.2 designed to provide positive interdependence, individual accountability, and
was a three hour per quarter, two quarter course. It had a fall-winter, winter-spring structure. Each first quarter had one 2-hour lecture and two, 1-hourlaboratories per week. The curriculum the first quarter had two teaming events, basics ofengineering drawing, an introduction to instrumentation, resistive circuits involving Ohms andKirchoff’s laws, and integrated circuits used for timers, flip-flops, counters, and an introductionto two of the college programs. In addition the students learned to use HTML to design their ownweb sites and MatLab and Excel to solve statistical problems involving normal distributions.The second quarter had one, 2-hour lecture and one, 1-hour laboratory, and one teaming event.The students were introduced to
licensed Architect in India and Canada and Associate Professor in the School of Engineering and Applied Sciences at Western Kentucky University. She has 10 years professional experience in the architecture and construction industry in residential, commercial and mixed-use projects. She has 8 years of experience in teaching and research in areas of architectural design, sustainable design, historic preservation and BIM. c American Society for Engineering Education, 2018Engaging undergraduate students in hands-on research using undergraduate-specific smallinternal grants from universityAbstractThis evidence-based practice paper aims to report last five year’s experiences of both authors inengaging