connect their work to educators, consumers, and students. She is author of curriculum modules in computer science, mathematics, and science including, Discovering Computer Science & Programming through Scratch and The Power of the Wind, published as part of the National 4-H STEM Initiative.Samantha Lindgren, University of Illinois, Urbana-Champaign Samantha Lindgren is the Coordinator of STEM Teacher Development at The Office for Mathematics, Science, and Technology Education (MSTE) in the College of Education at the University of Illinois Urbana-Champaign. A former Physics and Environmental Science teacher, she now writes STEM cur- riculum that integrates engineering into science curriculum. She has presented at
AC 2007-2593: PREPARING MECHANICAL ENGINEERING STUDENTS FORSENIOR DESIGN PROJECTS WITH ELECTRONICS COMPONENTSScott Kiefer, Tri-State University Scott Kiefer is currently an Associate Professor of Mechanical Engineering at Tri-State University. He received his B.S. in Mechanical Engineering from the University of Wisconsin at Platteville, and his M.S. and Ph.D. in Mechanical Engineering from North Carolina State University. Page 12.1180.1© American Society for Engineering Education, 2007 Preparing Mechanical Engineering Students for Senior Design Projects with Electronics
integrated within a leading mathematical software system. This paper describes how the new dynamicinteractivity language in addition to standard features built into Mathematica are being used in teaching selected sophomore andsenior undergraduate electrical engineering classes at the University of Southern Maine. It describes how several typical problemsencountered in integrating advanced computational systems into an undergraduate curriculum have been addressed. Particularattention will be paid to the creation and classroom use of demonstrations illustrating some core ideas such as convolution, filtering,and frequency response.IntroductionRecent advances in software technology in Mathematica, a leading mathematical software system from Wolfram
several student societies. She is the instructor of several courses in the CBE curriculum including the Material and Energy Balances, junior laboratories and Capstone Design courses. She is associated with several professional organizations including the American Institute of Chemical Engineers (AIChE) and American Society of Chemical Engineering Education (ASEE) where she adopts and contributes to innovative pedagogical methods aimed at improving student learning and retention.Prof. Eva Chi, University of New Mexico Eva Chi is an Associate Professor in the Department of Chemical and Biological Engineering Department at the University of New Mexico. The research in her lab is focused on understanding the dynamics and
were studied. From this study, it can be seen that universities are usingnine models to integrate nanotechnology concepts into their curriculum: 1. Offering undergraduate courses on Nanotechnology. 2. Offering Baccalaureate degree in Nanotechnology. 3. Offering an undergraduate track in Nanotechnology. 4. Offering a Minor in nanotechnology. 5. Offering a Master degree in Nanotechnology. 6. Offering Graduate courses in Nanotechnology. 7. Offering a Multidisciplinary Senior Design Project on Nanotechnology. 8. Integrating Nanotechnology concepts into their traditional courses. 9. Undergraduate Research in Nanotechnology.Model 1 is used by eight universities such as the Wentworth Institute of
statics.Due to these concerns, the author has structured dynamics in a fundamentally different way:using a spiral curriculum. Central to this approach is teaching the most fundamental topics ofdynamics in the first week: kinetics, kinematics, and computer simulation. This teaching takesplace in the context of rectilinear motion using examples that extend across all three topic areas.This gives students an overview of the course, allowing them to make connections between whatcan seem like isolated topics. It also makes the course more robust; students learn the big ideasearly on, and the rest of the course develops these ideas for cases of increasing complexity.Exciting examples that students can relate to are used to teach the material which helps
Center DirectorCorey Pew (Assistant Professor)Adrienne Phillips (Associate Professor) Dr. Phillips is an Associate Professor in the Civil Engineering Department at Montana State University. She teaches environmental engineering courses and is a member of a team sponsored by the NSF RED program to develop integrated and project-based courses in a new environmental engineering curriculum. She also does research on microbial biofilms.Beth J Shirley (Assistant Professor)Stephanie G Wettstein (Associate Professor) Associate Professor © American Society for Engineering Education, 2022 Powered by www.slayte.com Work-in-Progress: Writing in Engineering
committees and received numerous recognitions. She has a B.S., M.Ed and Ed.S in science education from Georgia Southern University. Page 22.671.1 c American Society for Engineering Education, 2011 Exchange – The NNIN Outreach Demonstration Guide: A set of nanotechnology demonstrations for upper elementary through high school.IntroductionThe National Nanotechnology Infrastructure Network is an integrated geographically-diversepartnership of 14 university-based laboratories supported by the National Science Foundation.Part of our mission is to provide education and outreach to a wide
/Undergraduate Curriculum in Electric Energy Systems with Emphasis on Sustainability. To be held in 2015, 2016 and2017. › STEM Student Travel Grants for Bioelectronics Training › Funded over $150K for student travel to conferences and workshops in FY12-FY13 › Over $3M in ECCS REU, RET Supplements in FY12-FY13 15 Follow Up Visit the ENG and Divisions web sites Contact the Program Officer in your area of interest Volunteer to serve as an NSF panel or mail reviewer (Enroll: http://www.nsf.gov/eng/eccs/reviewer/) If your proposal doesn’t succeed at first, don’t give up Consider spending 2 years
30shops in 25 different countries. Development of such a program in Vietnam would be highlydesirable and a letter of intent to do so was conveyed to the Hanoi University of Technology.Several joint research projects in the environmental technology, solar energy conversion, bio-medical instrumentation, and computer integrated manufacturing are being discussed.Environmental protection is an area of particular interest in Vietnam and the Vietnamese have agreat desire to avoid some of the problems experienced by other developing countries.The universities in Vietnam are very anxious to establish relations with American universities.They have committed to establishing a common entrance examination for the different collegesand to move to the credit
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 three years of the curriculum in the solution of an embedded design problem.Educational excellence requires exposing students to the current edge of research. To ensure thatstudent projects are along the same trajectory that the industry is moving, educators mustcontinually introduce emerging techniques, practices, and applications into the curriculum. Thefield of haptics is growing rapidly, and there is increasing interest in providingundergraduate students with a foundation in the area. It is crucial that the emerging field ofhaptics
reported. Eleven research groups from the Functional Materials andManufacturing Institute (FMMI) at the University of South Florida and sixteen STEM educatorsat various levels, including in-service high school teachers, community college faculty members,and pre-service teachers, have participated in this research experience over the first two years.The location of this RET site in the highly-equipped and instrumented FMMI, along with itsfocus on a single interdisciplinary research area, allowed participants to make substantialprogress in functional materials research and curriculum development. Implementation of thesite resulted in (a) facilitation of teachers’ research progress and lesson plan development viainterrelated activities including an
AC 2010-480: QUALITY ENHANCEMENT IN STATICSThomas Rockaway, University of LouisvilleD. Joseph Hagerty, University of Louisville Page 15.1007.1© American Society for Engineering Education, 2010 Quality Enhancement in StaticsAbstractTo satisfy accreditation requirements the University of Louisville recently developed a QualityEnhancement Plan (QEP) to improve undergraduate instruction across all disciplines. Centralelements of the plan are: emphasis on critical thinking; integration of critical thinking throughoutthe curriculum; service learning for undergraduates; and a culminating experience. With theadoption of the QEP, instructors were asked to incorporate
participation in such teams. Ourobjectives in developing the Multidisciplinary Bioprocessing Laboratory course were to answerthis need on behalf of several of the most important constituencies of our program—our students,our graduates, and industry.The development of this course was funded from the National Science Foundation(NSF) Combined Research-Curriculum Development (CRCD) Program and from industrialsponsors. Our expectation is that industrial support will allow us to continue this course offeringbeyond the duration of the grant. Our purpose was to develop the MBL course and theassociated bioprocessing curricula to allow students to learn to work effectively inmultidisciplinary teams in an industrially relevant context. The basic concept of
Copyright © 2005, American Society for Engineering Education Ethics: An OverviewStudents have learned the literal definition of ethics: the study of morals – good versusbad, right versus wrong, acceptable versus unacceptable. Applied ethics suggestsfoundational principles must be integrated into engineering curriculum. A case studyapproach develops graduates who are able to formulate exemplary ethical choices oncethey leave the university and enter corporate America or academia. Thus, engineeringeducators have an exciting opportunity to impact the application of ethical theory.As an academic community, ethical values must be practiced, believed, and upheld.There can be no excuses: instructors’ houses must be in order
asking students to givepeers positive feedback may benefit the giver (and receiver). Similarly, an opportunity in themiddle of the term to give positive feedback to teaching assistants (TAs) and/or the professorcould be meaningful. This can have a practical benefit by allowing students reinforce what theylike.In courses related to professional skills or transitioning to college, specific training on self-kindness could be integrated. Smeets et al. [18] described a group intervention around self-compassion. Although this was done outside-of-class with volunteers, a similar activity could beintegrated into a course with the appropriate scaffolding. For example, students could be giventhe assessment instrument (the 12-item self-compassion scale
technical courses. Vast numbers of articles and books have suggestedways to ensure that at least the outward look of a writer's effort conforms to acceptable norms.Classes are required, papers are assigned, some comments are voiced; but in so many cases the Page 22.1263.2retention of communication skill is not assured and does not become an integral part of theengineer's existence. Engineers need to understand the bond between their technical knowledge andtheir communication skills. This bond must be accomplished in the most efficient amount of time sothat it creates a lasting awareness of technical communication and its importance in every
machinery, basic electrical circuits, and linear electronics. He was also one of three faculty responsible for organizing and conducting the capstone design course for the EMET program. Ron received a baccalaureate degree in Electrical Engineering from the Georgia Institute of Technology in 1971 and an M.S. degree in Electrical Engineering from the California Institute of Technology in 1973.Ms. Lara L. Sharp, Springfield Technical Community College Ms. Sharp has a BS in chemical engineering, an MBA, and is currently working on a MS in Industrial engineering. She has worked in both secondary and higher education teaching and developing curriculum and is currently Program Director of Engineering Tech
goals in order to follow the present-day reality that demands increased innovation in enterprises so as to face global competitionwas felt. The introduction of entrepreneurial skills has been an established goal since 1999,but, only after a first external evaluation process was momentum created that enabled this totake place under the guidelines of the Bologna Declaration on the European Space for HigherEducation. Therefore, in the 2002 academic year, a reorganization in the OperationsManagement curriculum took place, bringing together the (not so) classic contents ofdesigning productive systems (both products and services
levels entitled Pilot, allows children as youngas 4 to program while the higher level entitled Inventor has been used in 4th grade throughcollege. At the highest level, ROBOLAB allows users to control all the capabilities of the RCX.In addition, by integrating certain LabVIEW functionalities, users can also program or controlother RCXs via the Internet. ROBOLAB a relatively inexpensive piece of software to use at acost of $50 for an individual copy and $176 for a site license.3 Page 6.682.3Proceedings of the 2001 American Society of Engineering Education Annual Conference and Exhibition Copyright 2001, American Society of Engineering
and a nuanced depth of conceptualunderstanding of the material.IntroductionThe idea of integrating science and art has existed for hundreds of years, and in fact a divisionbetween humanities and science has only emerged in modern times. Great historical scientists likeLeonardo DaVinci were also known for artistic skill. The project Thermodynamics in the Artswas developed as a classroom exercise to allow undergraduate students to explore thermodynamictopics intellectually and creatively.The importance of creativity in the engineering education seems clear as current students willjoin an engineering work-force that demands innovation. Prior studies indicate that engineeringstudents are creative,1, 2 and that creativity can play a role in
, Yelamarthi, & Kaya,2016; Kukreti, Maltbie, Steimle, 2015). In our study, teachers did not initially work through abioengineering design challenge in the role of students (as they did with the Modeling Instructionfor experiments). Instead, they experienced engineering design in the role of teachers with thegoal of designing an engineering design curriculum situated in a biological context for theirstudents. Because the teachers had multiple backgrounds and experiences with engineering, butall were trained as science teachers, directed discussion was used to surface ideas and to developkey principles of the EDP such as solving a problem and iterative design. The EDP(brainstorming, asking questions, design solution, test solution, and improve
Scholarshipii. Demonstrated financial neediii. Leadership, scholastic engagement, and community engagementiv. Engagement with Penn Statev. Personal and social responsibilityvi. High achievement in high school courses 4Once selected as a finalist, students are then asked tosubmit a nomination from a mentor, counselor or teacherbased on the following prompts:i. Please describe how the nominee embodies the values of effort, integrity, ingenuity, and/or servant leadership.ii. Please describe how the nominee has contributed to fostering an inclusive and diverse community and plans to continue in these efforts at Penn State and in their future career as
the new project-centeredcurriculum.IntroductionIn 1998, the College of Engineering and Science at Louisiana Tech University moved to anintegrated engineering curriculum based on the educational practices of the National ScienceFoundation Educational Coalitions. Our freshman integrated curriculum includes differentialcalculus, chemistry, physics and several non-technical courses. Students take these courses in“blocks” so that classes of 40 students share the same mathematics, chemistry and engineeringcourses. The topics presented in the mathematics and science courses are coordinated to somedegree with the topics presented in the engineering courses to motivate student learning and toprovide some content overlap. The engineering courses are
adapt contexts outside of their typical content area to their classrooms, we are askingthe following research questions: RQ1: How and why do high school mathematics teachers adapt when experiencing technological issues during an integrated microelectronics, engineering, and mathematics curriculum unit? RQ2: How do these adaptations help students reengage in the curriculum?Literature ReviewThis section begins with an overview of perspectives on student engagement in the classroomand connects subthemes of adaptive expertise to adaptive performance.Student EngagementTo be able to learn, students must be engaged in the classroom. In practice, this looks liketeacher observation of student engagement and as a result
Science for his professional integrity and his belief in engineer’s rights and responsibilities. The physical cause of the accident was the deformation at launch was in excess of the design allowable deformation. The primary cause was an administrative misjudgment of risk assessment and the potential benefits of the Challenger launch contrary to recommendation by the engineers. Page 12.1078.8
engineeringIntroductionMultiple studies have documented that women value career paths that incorporate a clear socialpurpose and provide opportunities to help others1,2. Furthermore, studies have shown that thegeneral public does not view engineering as a discipline that plays a viable role in solving theproblems of society2,3.Currently, recruitment and retention of women pursing engineering degrees at GonzagaUniversity is in accord with the national average. Described here are efforts to recruit, retain, andattract additional female students through the on-going development of an independentengineering study abroad program in Africa that integrates engineering and social justiceprojects. The motivation to focus on a study abroad program as a recruitment and retention
placesof the world, the computer-using schools in Lebanon were suffering a great degree of confusion abouthow to integrate computer education into their educational programs in spite of using commonsoftware. Background Many researchers suggest introducing computer education to educational programs [1- 15]. Some researchers advocate educational computing as an essential element in preserving the welfare of children through educating them about relevant technologies and skills [3]. However, these researchers assert that “this noble goal has been little realized, not in the poorest of nations nor even in the wealthiest.” [3 - page 7]. Furthermore, it seems that there is a lack of consensus among
Paper ID #19230They Choose to Attend Academic Summer Camps? A Mixed Methods StudyExploring Motivation for, and the Impact of, an Academic Summer Pre-engineering Camp upon Middle School Students in a Latino CommunityDr. Araceli Martinez Ortiz, Texas State University, San Marcos Araceli Martinez Ortiz, PhD., is Research Associate Professor of Engineering Education in the College of Education at Texas State University. She leads a comprehensive research agenda related to issues of curriculum and instruction in engineering education, motivation and preparation of under served pop- ulations of students and teachers and in assessing
isa modern and straightforward method to use in an undergraduate laboratory. Nowadays, most ofthe students possess digital cameras and many have one integrated in their cellphones, whichthey use to photograph the experiment. flame SL U(r) Inner cone α flame Ulocal R Bunsen burner A typical Bunsen burner