specific Grand Challenge and needs foraddressing the challenge, 2) a knowledge-centered introduction to potential nanotechnologyenabled solutions, and 3) hands-on activities for use with the two previous sections. Knowledgeand interest surveys at the beginning and end of the semester and before and after each modulewere used to assess changes in knowledge and attitudes. Two modules focusing on the GrandChallenges, “Make Solar Energy Economical” and “Reverse Engineer the Brain,” weredeveloped and used in one section of an introduction to engineering freshman course in Fall2015. Other sections of the course did not utilize the modules and served as control groups.Demographic data and other identifiers enabled the matching of individual surveys
-based lessons under the TPACK framework. The teachers identified middle school relevantscience and math concepts that they deemed pedagogically challenging. For a subset of teacher-identified topics, the project team and teachers collaboratively developed robotics-based teachingand learning strategies, hands-on activities, and corresponding assessment material. All lessonswere planned to meet the state standards for middle school science and math, based on the NextGeneration Science Standards (NGSS)32 and the Common Core State Standards for Math(CCSSM).33 Throughout the lesson development and implementation, project personnel andteachers employed a design-based research (DBR) approach,34 wherein iterative changes improvedthe lessons from the
StructuralEngineering as well. The topic material is based on city and county regulations anddesign requirements and requires only basic mathematics skills for analysis. The coursealso provides an introduction to CAD and uses these skills for both homework andprojects.Introduction Many schools do not introduce the major engineering disciplines until the junioryear, at which time the students are expected to understand why they take a broad rangeof engineering courses and why and how those courses relate to each other. Among theconsequences of this delay are lost interest, frustration, and student withdrawal from themajor or even the college. None of these outcomes provides the motivation to induceoutstanding students to stay for the last two years of
total volume of effluent treated aswell as the nature of the chemicals treated. Efforts are now underway to incorporate aspects ofgreen engineering throughout the curriculum.In 1998 the Environmental Protection Agency initiated a program in green engineering todevelop a text book on green engineering; disseminate these materials and assist universityprofessors in using these materials through national and regional workshops. The textbook istitled, “Green Engineering: Environmentally Conscious Design of Chemical Processes,” and the Page 6.200.1major authors are David Allen and David Shonnard. The textbook is a designed for both a seniorand graduate
Paper ID #22743Reclaiming General Education: History for EngineersDr. Amber Genau, University of Alabama at Birmingham Dr. Amber Genau is an associate professor in the Materials Science and Engineering Department at the University of Alabama at Birmingham. She received her B.S. and M.S. from Iowa State University and Ph.D. from Northwestern University, all in materials engineering. Before coming to UAB, Dr. Genau spent two years as a guest scientist at the German Aerospace Center in Cologne, Germany, working on metal solidification and microstructural characterization. She is particularly interested in broadening
Session 2561 Engineering Ethics at Drexel University Mark Manion, Moshe Kam Drexel UniversityI. IntroductionCriterion 3 of the new ABET Engineering Criteria 20001 has the potential to change the way thatengineering ethics and science technology and society studies are taught in the engineeringundergraduate major. One concern voiced by critics has been the shift in the humanities andsocial studies component from the previous “course requirements model” to a progressive modelfocused on assessments and outcomes. While some have regarded this change as a threat to
, representingknowledge in oral/written text, using of previous knowledge, making connections. Science-electric potential, the uses of switches, power sources, resistors, circuit elements.Module #1 – Project #3: Constructing Conductivity: Students will learn about voltage andconductivity through a hands-on exploration of household items and natural materials. Workingin small groups, student will rotate through two different stations. At the first station, they will begiven a simple circuit consisting of two AA batteries, an LED, wires, and a piece each of copperand zinc. The groups will place the copper and zinc pieces in a variety of liquids, such asdistilled water and lemon juice, and will record their observations in a chart. At the secondstation, students
inductive presentationstyle of the material which started with an experiment. If an experiment was not possible thenthe results of an experiment where shown or a demonstration was given. Next a lecture waspresented on the material using the experimental results followed by a presentation of the theory.IntroductionThere is a tremendous potential for the use of electrochemical engineering in growth areas suchas fuel cells, bio-sensors, electrochemical sensors and batteries. In addition many new greenchemical reactions are being proposed to replace traditional organic reactions. Newenvironmental separation processes are being used for the removal of metals from wastewater.In addition to these new processes, traditional areas of chemicals production
actuation, sensing and computational aspects required to support robotics work. Thesituation is even more dire for most computer science schools.Computer science departments typically do not have the support culture for the kind oflaboratories that are more typically associated with engineering programs. On the other hand, itis recognized that computer science students need courses which provide closer to real worldexperiences via representative hands-on exercises. This need is usually addressed in the contextof software, but it also pertains to topics more closely linked to physical hardware, whichcertainly characterizes robotics.What is needed is a robot prototyping system that requires a minimum of support infrastructure,but has the depth and
Session 1898 ROBOTS! – Freshman Clinic in Mechanical Engineering Hong Zhang Jennifer Kadlowec College of Engineering, Rowan University, Glassboro, NJ 08028 zhang, kadlowec@rowan.edu 1. Introduction The integration of both hands-on experience and minds-on thinking in engineeringeducation is the hallmark of Rowan Engineering. The Engineering Clinic 1,2 sequence wasdeveloped to promote project-based learning. As a unique component of the Rowanengineering curriculum, engineering clinic is a framework that includes the topics fromintroduction of
SCHOOLIntroduction Current trends and future projections of engineering in the United States indicate a needto better inform, teach, recruit and prepare our youth for the technological age in which we live.In the book Technically Speaking, Why all Americans need to know more about technology, thefirst recommendation made by the National Academy of Engineering and National ResearchCouncil was to further “encourage the integration and increased study of technology in the K-12content, standards, curricula, instructional materials, and assessments” (2002, p. 105). TheAcademy also recently published, Educating the Engineer of 2020, which includesrecommendations of “supporting efforts to improve math, science, and engineering education atthe K-12 level
professionthrough interactive hands-on learning. The Engineering Summer Academy (ESA) was designedto attract rising 10th-12th grade students to programs in Mechanical, Electrical, Chemical andBiological Engineering at the University of Arkansas through hands-on departmental programsin a week-long residency program. In 2010 (the first year of the programs), 68 students attendedand, in 2011, 135 students applied. Several measurable results were obtained from the threesummer programs which demonstrate growth, interest and early success. Perhaps most notable,25 of the 28 high school senior ESA attendees (89%) in 2010 applied for admission to the U of Ain 2011. Fourteen of these 25 new U of A students received academic scholarships from the Uof
ProgramCurriculum Development Figure 3. Active Mass Driver Controller.At the undergraduate level, experiments have been introduced into existing courses and newcourses. Four courses are currently utilizing the shake tables to do “hands-on” experiments,including one freshman level course (Introduction to Civil Engineering), one junior level course(Mechanics of Materials Laboratory), and two senior/graduate level courses (Structural Dynam-ics, and Experimental Methods in Structural Dynamics). The integration of structural dynamicsand control experiments is discussed in this section.In the Spring of 1999, a new freshman level survey course, Introduction to Civil Engineering, wasdeveloped. The course introduces students to
photonics courses at the StateUniversity of New York at Buffalo (UB) to have a similar environment to that of research.Specifically, a cost effective (only requires changing teaching style) collaborative active-learningenvironment to stimulate student interest was implemented. This learning environmentincorporates the recently developed pedagogical techniques that have resulted from theengineering and science curriculum reform being pursued throughout the country: cooperativelearning, experience-based hands-on learning, and the application of information technologies.Moreover, these techniques are especially well suited for engineers entering industry since theyemphasize group efforts, active learning, and gender and race friendly learning styles
Engineering Education from an Industry Perspective Chitralekha Potnis, Ajit Potnis The Learning Institute / T I AutomotiveAbstractDevelopment of a country to a large extent depends on the progress made in science andtechnology. It has been widely accepted that industrialization is one of the major tools whichshapes national destiny. The qualitative and quantitative improvement in the industrial status of anation is strongly based on the quality of engineering education.Technical education must be suited to the development in economy, science and technology, andculture of the country and it plays a vital role in promoting their development. Due todevelopment of higher
, sexuality, and disability. Weemphasize what students can do to advocate for and represent diverse peoples, and topromote social justice through science and engineering practice.Although applicable to all engineering majors, our work is particularly relevant toeducators in biomedical engineering (BME), as the course is focused on severalinterdisciplinary topics in BME such as universal design, CRISPR genome editing, DNAforensics, sustainable technology, and pharmaceutical and vaccine development.In this paper, our aim is to make teaching about social justice issues more manageable forengineering educators. We provide instructor observations, and analysis of studentimpact, and full curricular materials including assigned readings, lecture slides
Ph.D. in Computer Science from the University of Oklahoma, Norman, Oklahoma. His research focuses on diverse areas such as: D ©American Society for Engineering Education, 2024 Serious Games in Computer Engineering EducationAbstractThe purpose of a capstone design project course is to provide graduating senior students with theopportunity to demonstrate understanding of the concepts they have learned during their studies.As with many computer science and engineering programs, students of the computer engineeringprogram at Utah Valley University (UVU) conclude their degree programs with a semestercapstone design experience. The intent is for students to utilize competencies developed in thefirst
studentswho embrace and believe in IT, and who are confident from their current experiences that theywill have the ability to successfully employ future, not-yet-developed IT tools throughout theirprofessional career. We accomplish this goal by emphasizing hands-on learning, with studentscompleting numerous in-class exercises and labs as well as several team projects, all of whichare designed to help them learn how to learn IT.Even though this course is for non-engineers, we receive an abundance of anecdotal evidencefrom our former students that the technological literacy gained in this course has made asignificant difference in their chosen fields.A Foundation Based on CyberspaceThe concepts of the World Wide Web (WWW) and electronic media permeate
Number of Research Project Title Employed Participants Adaptation and Learning Strategies in Unplanned Unexpected Mixed method 2 Learning Understanding the Impact of Expanding Statics Problems towards Mixed method 2 Environmental and Biological Engineering Applications Effects of Participation in High Impact Educational Practices (HIP) on the Persistence and Success of Engineering and Qualitative method 1 Computer Science Students Mobile Instructional Particle Image Velocimetry (mI-PIV
Page 26.138.12Engineering & Applied Science at Rice University, the facility supports not only mechanical andelectrical/computer engineering students, but also students majoring in chemical/biomolecularengineering, bioengineering, civil/environmental engineering, statistics, computational/appliedmathematics, computer science, and materials science/nanoengineering. Supporting this widerange of technical disciplines requires specific equipment, such as that housed in the facility’swet lab, as well as workshops and programs that appeal to a diverse membership base.Academic Makerspace Model: Arizona State University and TechShop“TechShop” is a commercial endeavor that provides access to a makerspace based on asubscription model, similar to
15.73.3 2Based on the survey data and analysis, the BOKEdFC5 concluded that several BOK2 outcomesmay be “challenging” for many programs to address in today’s civil engineering curricula.These include the nine “red outcomes” shown in Figure 2 (i.e., Outcomes 3 – Humanities, 4 –Social Sciences, 10 – Sustainability, 11 – Contemporary Issues & History, 12 – Risk &Uncertainty, 17 – Public Policy, 18 – Business & Public Administration, 19 – Globalization, and20 – Leadership). Two yellow outcomes, Outcomes 5 – Material Science and Outcome 24 –Professional & Ethics, were likewise categorized as challenging because only five programs
fourth year. Thelecture material, which is described in the paragraphs below, is evaluated using traditionaltechniques.Fundamentally, the second-year course is introductory in nature. The students are introduced tothe profession of Biosystems (formerly Agricultural) Engineering. The students are alsointroduced to the philosophy of project planning, safety engineering, the profession ofengineering, and the business of engineering. A major focus of the course, however, is thedevelopment of communication skills and team building skills. Students are instructed how tocreate effective visual aids and are given numerous opportunities to make brief oral presentationsin class. The students are given some “hands-on” experience by completing a
global environmental quality. Its program encompasses all of the engineeringand science disciplines, focusing on the design and synthesis of materials, processes, systems, anddevices with the objective of minimizing overall environmental impact (including energyutilization and waste production) throughout the entire life cycle of a product or process. AnABET impetus for green engineering is contained in Criterion 3 Program Outcomes andAssessment, Item [h] of the EC200 requirements, requiring that ‘Engineering Programs mustdemonstrate that their graduates have: ……………….the broad education necessary tounderstand the impact of engineering solutions in a global and societal context.' 5 Some effortsare underway to have the ABET language of item [f
Science and Engineering: Choices for Success. 1999, New York Academy of Sciences: New York.11. The Engineer of 2020: Visions of Engineering in the New Century. 2004, Washington, D.C.: The National Academies Press.12. Rosser, S.V., "Will EC 2000 Make Engineering More Female Friendly?" Women's Studies Quarterly, 2001. XXIX(3-4): p. 164-186.13. Feisel, L.D. and A.J. Rose, The Role of the Laboratory in Undergraduate Engineering Education. Journal of Enginering Education, 2005. 94(1 Special Issue: The Art and Science of Engineering Education Research): p. 121-130.14. Alcon, C., Improving Student Learning through Experiential Learning -- A Hands On: Statics Lab at Virginia Tech, in
criteria have led to a course at Union College with three main components: 1)a one-hour lecture session that the students attend twice a week, dedicated to interactiveinculcation of engineering concepts and problem solving skills; 2) a three-hour design studio thatthe students attend once a week, dedicated to hands-on design projects that lead to a final studentcompetition; and 3) a one-hour “common lecture” that the students attend once a week at which apracticing engineer describes a leading edge technology (e.g., recent advances in nanotechnology,fuel cells, bioengineering, etc.) that motivate and excite the students. To prevent the three parts from becoming a smorgasbord, a unifying theme that bridgedthe material was chosen: “Smart Cars
EngineeringDr. Isaac Macwan, Fairfield University Working in the field of Bioelectronics on molecular dynamics studies at the interface of biological macro- molecules and nanoparticles and bacterial assisted nanofabrication strategies utilizing carbon based nano- materials. American c Society for Engineering Education, 2022 Embedding Environmental Ethics in Engineering CoursesIntroductionEngineers are required to perform under a standard of professional behavior that requires thatthey demonstrate highest principles of ethical conduct. To help engineering students gain thiscompetency, many approaches are practiced, one of them is through a dedicated course
AC 2010-1259: ENGINEERING EDUCATION: ORAL AND VISUALCOMMUNICATIONPatricia Carlson, Rose-Hulman Institute of Technology Patricia A. Carlson (PhD) is a professor at Rose-Hulman Institute of Technology (Terre Haute, Indiana). She is the author of over sixty referred publications and presentation. She serves on the editorial board of the Journal of Interactive Learning Environments and Journal of Universal Computer Science. Carlson has used her experience in implementing technology into the classroom on two large-scale Lilly Endowment grants and on two National Science Foundation funded research projects. She is now the Director of the PRISM Project, a large-scale outreach program
Materials, (1997) Draft of Standard Guide for Implementationof a Sustainable Development Program4. The Australian Academy of Technological Sciences and Engineering, 1997, Report by the JointSub-Committee on Education and Sustainable Development. Page 3.524.8 Session 3551AUTHORSMARILYN BARGER is an assistant professor in the Civil Engineering Department of the FAMU-FSU College ofEngineering where she is developing research programs in waste management, reverse osmosis, and environmentalfate and transport. She has a BS in Chemistry from Agnes Scott
13, 2015 8:00 A.M. – 5:00 P.M. Sheraton Seattle | Seattle | WAPlease provide a one-paragraph bio for each presenter (in the order listed above). The bio shouldnot exceed 70 words and should be written as you would want it to appear on the ASEE websiteand program materials.1) Melanie Villatoro, an Assistant Professor in the Department of Construction Management andCivil Engineering Technology at NYC College of Technology, is a licensed Professional Engineerin the State of New York. Professor Villatoro serves on the Advisory Board of two local highschools; she has served as Program Director for the National Summer Transportation at City Techfor two consecutive years and is
accrediting bodies and industry as: Page 26.90.2 1. Engineering curricula are too focused on engineering science and technical courses without providing sufficient integration of these topics or relating them to industrial practice. Programs are content driven. 2. Current programs do not provide sufficient design experiences to students. 3. Graduates still lack communication skills and teamwork experience and programs need to incorporate more opportunities for students to develop these. 4. Programs need to develop more awareness amongst students of the social, environmental, economic and legal issues that are part of the