except where the dye is concentrated (at the cancer cells). This produces alocalized heating, thus killing the cells in that region (the cancer cells). This type of experiment is obviously beyond the scope of a middle school or high school.However, the underlying concept, that light of different wave lengths interacts differentlydepending upon the properties of the target, translates easily. The experiment to be conducted atthe high school level consists of focusing a high powered halogen light through a colored filteronto a colored candle. For example, the light passing through a blue filter is mainly in the bluewave lengths. However, a candle that appears blue does so because it absorbs all of the otherwave lengths except blue. Thus a
] A. J. Dutson, R. H. Todd, S. P. Magleby, and C. D. Sorensen, "A Review of Literature on Teaching Engineering Design Through Project-Oriented Capstone Courses," Journal of Engineering Education, vol. 86, no. 1, pp. 17-28, Jan. 1997.[3] S. Howe and J. Goldberg, "Engineering Capstone Design Education: Current Practices, Emerging Trends, and Successful Strategies," in Design Education Today: Technical Contexts, Programs and Best Practices, D. Schaefer, G. Coates, and C. Eckert Eds. Cham: Springer International Publishing, 2019, ch. 6, pp. 115-148.[4] D. G. Brauer and K. J. Ferguson, "The integrated curriculum in medical education: AMEE Guide No. 96," Medical Teacher, vol. 37, no. 4, pp. 312-322, Apr. 2015.[5
eventually led her to a position in IT for a semiconductor IP start-up. Fast forward through coast-to-coast moves to Boston, San Diego and finally Rochester, Kathy spent many years in the fitness industry while raising her daughter, wearing every hat from personal trainer and cycling instructor to owner and director of Cycledelic Indoor Cycling Studio. Kathy draws upon these many diverse career and life experiences while directing WE@RIT. In the spring of 2020, Kathy earned her Master of Science degree in Program Design, Analysis & Manage- ment through RIT’s School of Individualized Study, combining concentrations in Project Management, Analytics and Research, & Group Leadership and Development. An unabashed
sacrificingquality.Figure 1: Comprehensive Marketing & Recruitment StrategyA. Marketing and CommunicationsThe marketing and communications prong of the overall strategy was developed through apartnership between the School’s Communications and Graduate offices, with the overarchinggoal of reputation-building and increased admissions yield. A proactive recruitment strategy thatis deliberate and moving beyond word-of-mouth is critical. Several different strategic tools wereutilized, including enhanced marketing materials, digital marketing, targeted conferencerecruitment, and on-campus events, all based on marketing and recruitment best practices inhigher education [19].Enhanced marketing materialsA comprehensive overview of marketing materials by the offices of
. 2Asians and Whites are overrepresented among STEM professionals compared with their share ofemployment across all occupations. Whites represent 67% of STEM professionals. These statisticstranslate into increased earning potential for overrepresented groups and further exacerbates thesocioeconomic racial divide that exists between racial groups and occupations (Pew Research Center,2021).Math is a foundational subject that is required for students to earn degrees in STEM fields (Ibrahim &Johnson, 2019; Lane et al., 2020). Yet, educators are challenged with engaging all students to be successfulin math (Stansell, Tyler-Wood, & Austin, 2016). Student tracking in K-12 schools begins as early as firstgrade and depending on the ‘track’ that they
Paper ID #47754A Collaborative Architectural/Structural Engineering Design Project: Perspectivesfrom the Engineering Students in a Co-Taught Graduate Engineering CourseMiss Isha Galaz Abdullah, University of North Carolina at Charlotte Isha Abdullah is a PhD candidate from the University of North Carolina at Charlotte. Her research interests include geometric stability of structures, the finite element modeling of structures subjected to extreme loading, and engineering education.Dr. David K Pugalee, University of North Carolina at Charlotte Dr. David Pugalee is a full professor and Director of the Center for Science
Paper ID #16824Incorporating Engineering Programs for Secondary Schools in Trinidad andTobago (Work in Progress)Miss Tasha Tiffany Tardieu, University of Michigan Recent graduate of the University of Michigan, studied Civil Engineering with an International Studies Minor for Engineers. As a student in the College of Engineering’s Honors Program, I investigated the incorporation of co-curricular engineering programs at the upper secondary school level in Trinidad and Tobago for my capstone project. This project will be continued beyond my undergraduate career.Dr. Shanna R. Daly, University of Michigan Shanna Daly is an
Paper ID #48449Transforming Undergraduate Education to Educate the Whole Engineer: Implementing100% Experiential Learning at Wake Forest Engineering Through Groundingto Learning Theories, Motivation Theories, Strategic Change Management,and CharacterDr. Olga Pierrakos, Wake Forest University Dr. Olga Pierrakos is a national higher education leader and innovator, interdisciplinary biomedical and mechanical engineer, experienced educator, and mother of four. As a first-generation student, engineer, and higher education leader, she is committed to transforming higher education for the betterment of the next generation and the
support specific subjects orinterdisciplinary collaboration in LabSTEM and similar contexts. Finally, extensive empiricaland contextual data will be collected through observations, interviews, and portfolios, and aframework for evaluating the effects of PBL and STEM-integrated approaches to teaching onstudent motivation, inclusion, and retention in K-12 STEM and pre-college engineering willbe developed for further iterations of testing and refinement.[1] National Science and Technology Council, “Charting a Course for Success: America’s Strategy for STEM Education,” 2018, [Online]. Available: https://www.energy.gov/sites/default/files/2019/05/f62/STEM-Education-Strategic- Plan-2018.pdf[2] European Commission. Directorate General for
design, and engineering identity. Beyond the introductory units,students experience (up to) three complete engineering design experiences. Units 3 and 4 walkstudent teams through a project designing a solution for a challenge identified by the class. It isexpected that this design is the students’ first time designing an engineering solution. After thisinitial experience, teachers typically choose a path through either units 5 and 6 or unit 7. Units 5and 6 have more built-in structure for the teacher, and empower students to design a solution to aproblem on a much broader community/global scale, typically for an external client, workingwith a stakeholder in their community. Unit 7 asks students to identify a problem for which theyhave a personal
Progress)IntroductionRobots are becoming ubiquitous in our lives. They have moved beyond factories to many otherenvironments including health care and our homes. The success of FIRST robotics shows theirpower to draw more young people to STEM education and careers. We believe that robots cando more to reach a wider audience including female and minority students. Robotics present arich multi-disciplinary learning experience that touches upon STEM disciplines such aselectronics, controls, fabrication, and computer programming. To broaden the representation inSTEM disciplines, it is necessary to show students how they can make a difference and solveimportant problems. Mission-based robots show off the capabilities of robots but may not spurthe
Paper ID #39859Promoting Tsunami Risk Awareness through Service Learning and theApplication of the Disaster Imagination Game (DIG) in Ocean Engineering:an Analysis of Students’ Perceptions Years LaterGianina Morales, Universidad de Valpara´ıso, Chile Gianina Morales is a Faculty at the Universidad de Valpara´ıso, Chile. She has an M. Ed degree and is currently a Fulbright Ph.D. student at the School of Education at the University of Pittsburgh. Her research focuses on disciplinary literacy in engineering and the improvement of instructional practices to foster persistence and equity in undergraduate engineering education.Mr
’ journeys through the program, allowing adjustments to foster greater self-efficacy,reinforce the richness of learning experiences, and clarify outcome expectations.References:[1] K. Bartlett, O. Burkacky, L. Li, R. Vrijen, and B. Wiseman, “A roadmap for US semiconductor fab construction,” McKinsey and Company, Jan. 2023. Accessed: Jan. 12, 2025. [Online]. Available: https://www.mckinsey.com/industries/industrials-and- electronics/our-insights/semiconductor-fabs-construction-challenges-in-the-united-states#/[2] US GAO, “Semiconductor Supply Chain: Policy Considerations from Selected Experts for Reducing Risks and Mitigating Shortages,” U. S. Government Accountability, GAO-22- 105923, Jul. 2022. Accessed: Jan. 12, 2025. [Online
transform their instruction to amore integrated, project-based, hands-on, and student-centered approach4. Therefore,engineering has the potential to provide an entry point for teaching science in new ways. Thisrenewed emphasis on the application of science through engineering, as well as the newapproach to teaching science will require science educators to adjust their thinking.Along with new possibilities offered by engineering, it important to remember that it adds thechallenge of understanding a new, and often-unfamiliar, content area. Research has shown thatmany K-12 teachers are resistant and feel unprepared to teach engineering due to a self-describedlack of understanding and confidence.10,11 Wendell et al.12 and Lee and Strobel11 also found
workshop, offering content expertise and hands-on activities designed for K-8classroom use. A key component of our programs is the use of hands-on engineering activitiesand demonstrations that teachers can directly use in their classroom.6 During the workshop, each fellow is paired with 2-3 elementary or middle schoolteachers with whom they work during the academic year. The fellows spend approximately 15hours a week in the classroom assisting their partner teacher in STEM instruction. Fellows arecompensated for their work through project coverage of their tuition, stipend and fees. Teachersand fellows collaborate during the workshop to design a lesson that they will use in a classroom.The lesson plans discussed here were created by a
events, students are introduced to a wide range of careers in STEM andmedical fields through hands-on activities, mentorship opportunities, and exposure tocutting-edge medical technology. This initiative addresses the urgent need to diversify thehealthcare workforce, as research consistently shows that increased representation of minoritygroups in medicine leads to improved cultural competence and better health outcomes forunderserved populations (Nelson, 2002; Nivet, 2011). Through hands-on, immersive experiences, #GOALS introduces students to the diversecareer possibilities within the medical and scientific fields. Participants engage in activities suchas simulated surgeries, basic medical procedures, Q&A with medical school
Department Head in the Department of Aerospace Engineering in the College of Engineering at Texas A&M University. She also serves as Director of the Craig and Galen Brown Engineering Honors Program. She received her BS, MS, and PhD from the College of Engineering at Texas A&M. Kristi works to improve the undergraduate engineering experience through evaluating preparation in areas, such as mathematics and physics, evaluating engineering identity and its impact on retention, incorporating non-traditional teaching methods into the classroom, and engaging her students with interactive methods.Dr. Darren John Hartl, Texas A&M University Darren J. Hartl received his BS in Aerospace Engineering in 2004 and Ph.D. in
integration. “One of the biggest educational challenges for K-12 STEM education is that few general guidelines or models exist for teachers to followregarding how to teach using STEM integration approaches in their classroom4” (p. 32). This project explored how five elementary classroom teachers integrated scienceand engineering in their classrooms while piloting engineering curriculum. Our specificresearch questions were:1. How do teachers integrate science units with engineering design units? a. What aspects of the curriculum or content do they struggle with? b. What do teachers feel most influenced their implementation in terms of their instructional goals or learning outcomes?2. How does the instructional sequence
that themes and storyboards are self-imposed artificial designconstraints, and are not dictated in any way by the rules of the competition. However, theproblem of creating a Rube Goldberg machine spans beyond the simple engineering challengesof building steps; it also involves creating a machine that people understand. Themes andstoryboards provide a way of managing the comprehension challenge by marketing thecomplexity in an appealing way. Additionally, artificial design constraints provide a frameworkfor reasoning through problems encountered during the implementation stage of a Rube machine.Since engineering is based on logical reasoning, manipulating these frameworks carefully candrastically affect the creativity involved in the
engineering students in the early years of their accredited degree program. Dr. Trivett is father of three children, engages in the restoration of wooden boats, and keeps fit through bicycle racing and skiing. Page 15.1229.1© American Society for Engineering Education, 2010 The Engineering Paradigm: a Tree or a System?AbstractThis paper offers a new metaphor for the engineering graduate, and links this metaphor tothe design and implementation of engineering education. The paper discusses currentpractice in Canadian engineering schools of teaching a range of Engineering Science andEngineering Design courses each as
physical equipment that are available through the Internet – are an important part ofthis phenomenon and are constantly gaining motion in the higher education scenario.However, remote laboratories can also be effective assets in pre-university education. Severalinitiatives and projects have been or are being carried out worldwide aiming at exploring theuse of remote and virtual laboratories by secondary school students. For example, theEuropean Commission funded project Go-Lab (http://www.go-lab-project.eu/) is building afederation of Online Laboratories and tools to embed these labs in the lectures of secondaryschool teachers to serve as a motivation for students to pursue a career in STEM subjects.However, most of these projects treat students
practices andscience content to be learned simultaneously by K-12 students (Cunningham, Knight, Carlsen, &Kelly, 2007; National Research Council (U.S.), 2012; NGSS Lead States, 2013). Engineeringdesign can then be a vehicle for learning engineering design and scientific content, emphasizinginterdisciplinary, real-world applications and contexts of science (Douglas, Iversen, &Kalyandurg, 2004). But only 9% high school science teachers feel comfortable teachingengineering (Banilower et al., 2013) so combining engineering with the traditional and reformcontent demands in the NGSS may be difficult for high school science teachers.The NGSS isn’t instructive of curriculum or pedagogy; it doesn’t provide daily objectives, lessonplans, or concrete
assessment is done at the end of or beyond the curriculum. An alternativeassessment plan would include many of the above summative instruments plus ongoingformative assessment activities where the time lag for feedback is much shorter. This latteralternative is the subject of this paper. Some may consider the ideas presented below to be afantasy, especially at research-oriented universities. However, if EC 2000 is to be successful andif those who publicly claim that their universities will focus more on undergraduate education areserious, the ideas presented in this paper may become more of a reality than a fantasy.According to Boyer, curricula are disjointed, fractured, and unstructured.1 Courses in thecurriculum do not always have a relationship
c Society for Engineering Education, 2021 Paper ID #33391clinical student teaching experience in local high school agriculture programs. She has provided instruc-tional support to two learning communities, one, the Leadership Living Learning Community (L3C), forfreshmen students interested in leadership, and one for veteran students. Through her work with the L3Cbetween 2008 and 2020, Dr. Moore has provided leadership to a community of almost 1000 former partic-ipants. Dr. Moore has strong research interests in teaching and learning in higher education, specificallyat the intersection of academic and student affairs
% 85% 63% 48% Male par(cipants (n=79) Female par(cipants (n=108) All par(cipants (n=187) Figure 4. Percentage of participants that depicted a male, female, or unknown-gender engineer. Table 3. Comparison of some studies exploring P-12 students’ perceptions of engineers through the Draw an Engineer (DAE) test. Percentage of drawings depicting Total of gender specific personas Population
society is not only able to maintain itsexisting structures, but is also able to invest in future growth. As shown in Figure 1, this creates apositive feedback loop, a “virtuous cycle,” which is able to produce sustainable improvement andgrowth over the long term. Such a virtuous cycle benefits all segments of society. A better societywill waste less and produce more. The surplus resources can be reinvested in better health care,crime prevention, environmental protection, infrastructure improvement and education at alllevels from K-12 through graduate school.However the systems model can also operate in reverse creating a “vicious cycle.” In the viciouscycle, people in society tend to become less productive and less satisfied. This in turn
to engage students in the prospect ofbeing entrepreneurial. Case studies are widely used in some disciplines, such as business and healthsciences, but more rarely in science and engineering. Clyde Herreid4 argues that by engagingstudents in a case study’s topical material, students assume ownership of the material beyond thefacts.A portion of the goal to expose students to entrepreneurial career possibilities is to create a library ofdiscipline related short cases with associated learning/teaching guides. The initial cases weredesigned and used in RIT MET courses. As developed, cases will be available for a wider range ofdisciplines. Ultimately the cases will be housed in a digital media library and accessible to bothinternal and external
[W/m-K], his the convection heat transfer coefficient [W/m2-K], A is the surface area of the pizza [m2], Abaseis the area with no fin [m2], ηfin is the fin efficiency, and Afin is the area of the fin [m2].To determine the total resistance students must be able to differentiate between a conduction andconvection process. They need to be able to determine the thermal conductivity of the material,k, for all conduction processes (i.e. heat transfer through the dough, cheese, or pepperoni layers).This requires them to conduct independent research to determine average values. This researchwas done during class time and resources shared via a class discussion on the course page. Theinstructor also contributed a resource a few days prior to the
designed objects, while the second visit focuseson the ways design decisions reflect the designer and the culture from which the artifact originated. Interactivityis a crucial feature of the tours, which stress inquisitive looking and dealing with the material reality of theartifact. The people who conduct visitors through the museum are called “docents,” from the Latin docere “toteach,” because their job is not to interpret the work for visitors, but rather to teach them how to constructmeaning from observations of the work. This approach emphasizes inquiry through visual examination. In addition to being exposed through readings, lectures, and discussions to the ideas outlined above, thestudents are given a specific assignment associated
of Practice (CoP) that connects them with peers, e4usa teammembers, university faculty, and practicing engineers throughout the year. CoP sessions are heldvirtually bi-weekly in two different formats. Once with the coaches in a small peer group andanother time with the entire cohort. These sessions encourage teachers to share classroomexperiences, exchange lesson plans, and engage in discussions. e4usa team also providesongoing support through a learning management platform addressing curriculum-relatedquestions and facilitating collaboration and professional growth within the teaching community.PersonasTo achieve its goals, e4usa has treated the curriculum design process as a Learning Engineering(LE) [8] design challenge. The team has, at