promotional activities.Each summer the Center for STEM Education for Girls (http://stemefg.org) hosts two weekcamps for local rising high school girls called the STEM Summer Institutes. Our curriculumrevolves around real engineering design projects for the Lwala (Kenya) Community Alliance.The curriculum is truly STEM integrated and is an effective model for school-wide STEM basedprogramming. This workshop will share the research results and curriculum from theseprograms, including the opportunity to participate in one hands-on engineering design project.We will also discuss the specific needs of girls in STEM, based on the literature. Tips forauthentic assessment of this work will be provided and links to standards made
joined the ABET headquarters staff as Educational Research and Assessment Manager in the Professional Services Department. In this role,Williams manages ABET’s educational offerings on a global scale and leads technical education research projects. Prior to joining ABET,Williams held two positions at Baton Rouge Community College: Science Laboratory Manager and Adjunct Faculty in the Mathematics Department. In addition, Williams works closely with the National Science Foundation’s Next Generation Composites Crest Center at Southern University. In this role, she supports the center’s mission to increase the awareness of engineering education to underrepresented minority groups on both the secondary and post-secondary
AC 2010-177: K-12 TEACHER PROFESSIONAL DEVELOPMENT EFFECTIVELYOFFERED BY STEM FACULTY FROM A RESEARCH UNIVERSITYSusan Powers, Clarkson University Dr. Susan E. Powers is the Assoc. Dean of Engineering for Research and Graduate Studies at Clarkson University. She has been a PI or co-PI on K-12 outreach projects for the last decade. Her contributions are especially in the area of energy education.Bruce Brydges, SUNY Potsdam Dr. Bruce C. Brydges is the Director of Academic Assessment/Institutional Research in the Office of Institutional Effectiveness at the State University College of New York - Potsdam. He has served as the evaluator on the teacher PD institutes described here.Jan DeWaters
2004. It is preceded by aseries of workshops that offer information about and insights into starting a start up, creative thinking, protecting Page 10.705.9intellectual property, and selling one’s neat idea. For further details, see www.cob.sjsu.edu/svnif. 9 3. Financial Plan, due in mid-April. An eight-page (maximum) document is required that includes the following: a) annual projections for five years for income statements, balance sheets, and cash budgets; b) quarterly and monthly projections for two years for income statements, balance sheets, and
CAD tools, Cprogramming, image capture, web-based tools, and robotics applications were explored.Electronic quizzes and distribution of notes and web resources were also supported. Theability to transfer software applications and data from one Palm unit to another using theinfrared beaming feature facilitated a collaborative approach to many activities. ThePalm devices also possess a serial port, which allows connection to data acquisitionsystems and other computers. A second phase of the project occurred during the fall of 2001 offering of thedigital systems course. In this phase, 39 students were required to purchase a Palm OS- Page
the objectives? • EvaluationFigure 3: Generic Design ProcessThe Design Process for a course involves several steps that must answer some very basicquestions:• What are the objectives of the course? There are a lot of different things that could be defined as objectives for a course. They could vary a great deal but also could be applicable for different settings. For instance, a course could be directed mainly to provide (current, updated) information. A different focus would be to have as a main goal the development of very specific capabilities, not to acquire contents. Another possibility is to have a project- based class which goal was to learn teamwork and leadership skills
Inclusive understanding. The learning continuumshown in Figure 2 was created to be consistent with these well-accepted models of thestages of learning. Also identified in Figure 2 are the mechanisms most frequently usedto develop the described proficiencies.It should be emphasized that as an individual gains increased proficiency in a givensubject the methods by which this is done become less explicitly defined as educationalmethods or tools. Herein lies the first challenge of advanced skill development? Is thereanything that can be done within a professional engineering organization to ensure thatthese advanced development tools are in place? As identified in Figure 2, the activities tobe fostered include project assignments that encourage the
statements of the behavior. The appraisal consistsof the rater recalling examples of the employee’s performance according to content area andcomparing the actual examples to the content area behaviors. The closest comparison, in therater’s opinion, places the employee within the sequenced continuum of content area attainment[24]. For example, an engineering content area may include project financial management.Sequenced observable behavioral examples may be represented by the example in Table 3. Page 7.533.5 “Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright
, American Society for Engineering Education · Closure: Each ALT concludes with a closure segment in which the instructor leads a discussion with the students to revisit the Big Picture and to project the newly acquired competencies to other real-world situations. · Transfer Activity: Each module ends with a transfer activity that presents a more complex learning activity designed to help participants develop relationships among the learned competencies and to provide experience in applying these in new ways. This, too, is an important characteristic of constructivist learning theory. Transfer activities of the several modules in the curriculum also provide a means for unifying the entire
CoursesNEW:Updates provide an excellent forum for faculty to share ideas and resources.Many of us desire simple class demonstrations and laboratory experiments as well asimages and video clips that we can project on a screen which related to new andemerging technology as well as website to keep content current. After several years ofNEW:Update Workshops and the popularity of the experiments resulting from themeetings, the organizing committee, with assistance from the Materials Division ofASEE, began work on a compendium of selected experiments. Support for this collectioncame from a broad range of individuals, agencies, and technical societies, much like thesupport for the NEW:Updates Workshops themselves. After considerable research onmethodology to
thetexts. The data for this project was collected from the Perseus Collection and the 1KGreekcollection, which contains 250,000 unique sentences of ancient Greek literature. The dataset waspreprocessed using the import classical language toolkit (CLTK) and sentences were normalizedfor better encodings. After the encoding was done all our data was split by sentences and thenthey were fed into a Distil Bert masked language model. The word piece tokenizer for this modelwas trained using a vocabulary list of 35,000 words. By using the DistilBert transformer modelwe were able to train a masked language model based on words to achieve a Hit@5 of 34percent, Hit@10 of 35 percent, Hit@100 of 36 percent, and a perplexity of 1.04. This model canbe a valuable
Paper ID #44576System Engineering a Better Mental Health SystemDr. Paul Lu, University of Southern California Viterbi School of Engineering. Depart of Industrial and SystemsEngineering Dr. Paul Lu is Senior Lecturer and Program Director Master of Science Engineering Managements at University of Southern California. Viterbi School of Engineering, Daniel J. Epstein School of Industrial and Systems Engineering. Dr. Lu has over 40 years of experience in the Aerospace Industry. He fo- cuses on the strategic implementation of technology and innovations, new product development, systems engineering, project and program management
phase of an initiative to shift more power tograduate students through community engagement, ensuring that graduate students will have avoice within PROTEGE. The phases of the project include: 1) Gaining graduate studentperspective for structuring graduate student engagement in PROTEGE, and 2) Developing a planfor involving graduate student perspectives in PROTEGE moving forward. This work is beingled by a graduate student working in the collective, who has experience with doing equity workand wanted to find a mechanism to give graduate students a voice.With community engagement, by involving community members in the decision-making andoutcome-production process, they can feel more invested in the results of the work and feel asense of
) the NSF Pathway Fellowsprogram, 2) work published in a 2016 ASEE Paper, 3) redefinition of the programgoals to include retention of underrepresented students and exposure to globalengagement and 4) the evolution & connection to the Penn State Clark ScholarsProgram 8U NITED S TATES F ULBRIGHT S CHOLAR 2015 AT U NIVERSIDADN ACIONAL DE INGENIERIA (UNI) – L IMA , P ERU• PILOT: NSF PATHWAY FELLOWS TRIP TO PERUPilot 2015: The research question in this project was: While conventional retentionprograms for underrepresented students have shown to achieve graduation ratesequal to or surpassing those of the majority male population over an extendedperiod, could
University of North Carolina at Charlotte (UNCC), and was previously an Associate Professor of Civil Engineering at the University of Puerto Rico at Mayaguez (UPRM). In addition to his research in Geotechnical Engineering on the topics of soil-structure interaction and engineering characterization of geomaterials, Dr. Pando has been actively involved in teaching and mentoring students at both UPRM and UNCC, including 14 undergraduate civil engineering students through the NSF Louis Stokes Alliance for Minority Participation Program. Examples of his recent and ongoing engineering education research projects include the development of a Bridge to the Doctoral Program to attract Latinos to geotechnical earthquake engineering
Engineering Education Assessment (i2e2a). She ob- tained a B.S. in mathematics from Spelman College, a M.S. in industrial engineering from the University of Alabama, and a Ph.D. in Leadership and Policy Studies from Peabody College of Vanderbilt Univer- sity. Her teaching interests relate to the professional development of graduate engineering students and to leadership, policy, and change in STEM education. Primary research projects explore the preparation of graduate students for diverse careers and the development of reliable and valid engineering education assessment tools. She is a NSF Faculty Early Career (CAREER) and Presidential Early Career Award for Scientists and Engineers (PECASE) recipient
Transportation Subcommittee under President’s Environmental Sustainability Committee. In addition to those duties at Villanova University, she is also Panel Member of various re- search projects sponsored by The National Academies and University Representative of Transportation research Board. Her teaching and research area include various aspects of transportation engineering, traffic safety, and sustainable infrastructure.Dr. Susan B. Mackey-Kallis, Villanova University SUSAN MACKEY-KALLIS, an Associate Professor in the Communication Department at Villanova Uni- versity in Pennsylvania and is currently serving as the chair of Villanova’s International Leadership Team, which is focused on developing a comprehensive and
Paper ID #9202The STEM Center: Creating a Model for Success in Community CollegeSTEM Education ˜Anna Marbella Camacho, The STEM Center, Canada College Anna Camacho joined Ca˜nada College in 2012 in the capacity of Assistant Project Director of Hispanic- Serving Institution-STEM Grant (CalSTEP). In this position, Anna manages all financial aspects of the grant’s $1.1 million yearly budget. In addition to handling fiscal matters, Anna also collaborates in pro- gram implementation & development and new grant proposals. Prior to joining Ca˜nada College, Anna was a Program Officer
testing transitioning into the mathematical model. One of the principal differences between technological design and engineering design is thegeneration and analysis of a mathematical model 10 . The mathematical model may berepresented early in the design process in tandem with the conceptual model. However, theaccuracy, detail, and rigor of the mathematical model will typically improve over time in thedesign process. Mathematical modeling and analysis are essential to engineering design yet,mathematical modeling is often treated as an afterthought or ignored in K-12 education1 . Alandscape study of K-12 engineering curricula did not find any projects or units in whichstudents were instructed to develop and use mathematical models to assist
, with a set of objectives, requirements, constraints and free variables.One reoccurring comment from the case studies can be illustrated with the following: “Ipersonally feel that the teaching resources offered on [the] website have been really supportivefor my lecture preparation and students guidance.”Another way in which TRW supports academics is through an extensive portfolio of exercises.Academics’ feedback highlights how ready-made exercises and projects, that are thenpersonalized to their teaching, help them develop and improve the course, but also allow moreactual teaching time otherwise spent on course development. Some of the content is even givento students as self-study materials to complement other traditional resources. ‘Visual
allows students to make repetitive connections between the studied concepts.When considering difficult notions Ref.[3] states that: “one form of presentation is not enough,even for a small set of students”. The assessment of such style of teaching, undertaken duringseveral years by the authors of Ref.[4], has shown improvement of students’ grades by 16 – 20%.Goals and learning outcomesThe major goal of this project is to develop a conceptually new approach in the teaching of aone-semester EFW course for electrical engineering juniors and establish a new EFWundergraduate lab. Through lab experiments, educational Java applets, and software fornumerical solution the undergraduate students will actively acquire understanding of the
PLD principles. Additional technical andsoftware support will need to be provided to students in this regard. Third, revise lecturecontent to introduce more about the internal structure and other principles of CPLD and at anearlier timeline. The final recommendation is to increase the number of the laboratory projectsthat uses hierarchy concepts, and revise some projects to include more visual, realistic andtangible results that students will demonstrate.To summarize our recent student's overall experience, from the questionnaire (see complete listof questions and the corresponding Likert scores in Appendix A) we considered four questions(questions 1, 2, 3, and 4a) which serve specifically for that purpose. The feedback from thesequestions
President of ALC Consulting and has been extensively involved with numerous projects for the IAEA. Page 23.1299.1 c American Society for Engineering Education, 2013Use of Sustainable and Systematic Plan to Assess Student Learning Outcomes for Non-Traditional IT StudentsAbstractExcelsior College has been considered as a pioneer institution in distance learning. Consideringthe needs of career-oriented adults learners, Excelsior recognized that college-level knowledgecan be obtained in many ways and designed a student-centered learning model that integratestransfer credits from
quantify human “pressure” on theplanet with regards to resources, emissions, land consumption, etc. in comparison to the currentcarrying capacity of the Earth. 5 This metric begins to measure the problem in order to thensupport potential solutions, such as green building rating systems. Green building rating systemssuch as LEED (Leadership in Energy and Environmental Design) have been a popular measurefor sustainable design through applying credits and receiving points for sustainable projects.6 Asengineers continue to implement more innovative techniques, the education and awareness ofsustainable design will continue.Pedagogical TechniquesMuch has been written regarding pedagogical techniques and the benefits of active learning are
that counts up from 0 to 6, and if no user input is detected, pulses a binary “1.” All27 outputs – A through Z and space – are connected to an LCD interface circuit.Stage 3 – LCD InterfaceLCD Module ControlThe onboard driver for the LCD Module was found to include a CGROM, programmed withevery character needed for the MCTT, and then some. Figure 4 – CGROM Characters Figure 5 - CharDecode.vA demo project for the Altera DE2 was found to contain code for interfacing with the LCDmodule. This demo project, in conjunction with the data sheet, made reverse engineering theLCD CGROM possible. Using Verilog, several files were created that enabled interfacing theMorse Code Bruteforce Decoder circuit with the LCD Module
audiences, and understand their potential vocational path-ways, including government, academia, and industry.The NRT program incorporated educational and experiential activities such as field experience,policy experience at the state capital, applied course work, interdisciplinary research projects,faculty and peer mentoring, professional development, and periodic assessment of these activi-ties. The NRT developed and offered three courses: a one-credit-hour cross-listed course, Inte-grated FEW Systems, a two-credit-hour cross-listed NRT Capstone course, and a 0-credit NRTSeminar. The Integrated FEW Systems course introduced students to systems thinking, with spe-cific application to the FEW nexus in Southwest Kansas. The NRT Capstone was a project
student creatingnovel speed bump alternatives, highlighting the multistep design process used and encouraginginnovation and creativity in the academic environment. Similarly, (Sawatzki, 2021) shares thebenefits of a hands-on engagement that comes with the inclusion of project based designcurriculum in the engineering classroom, with a focus on low-cost kit based projects. Like ourresearch, (Raviv and Radzins, 2014) describe the learning process and outcomes of anundergraduate research experience and (Sawatzki, 2021) shows the importance of designintegration into undergraduate curriculum. However, unlike the subjects in both studies, in thispaper the student tackles a highly technical problem and produces not only a single component,but a full
revolves around the idea of “Design Signatures” [2], both aconcept and a tool for representing and reflecting on a design process.The group of design educators leading this workshop have experience using Design Signatures toteach undergraduate engineering students across a diverse set of institutions about designprocesses, from first-year students to graduate students. We have used Design Signatures in avariety of ways ranging from short, in-class activities to longer efforts where seniors track theircapstone projects. We have collected signatures using paper-and-pencil bubble sheets, Googleforms, spreadsheets, and a newly-developed Design Signatures app. In each implementationstudents have had great “aha” moments about the design process and
, introducingthe core principles of engineering, design, and health inequity. At the beginning of the semester,the BMED students (n = 126) are randomized and placed into groups of five students. Eachgroup is assigned to an LM enrolled in the Effective Teaching and Management of EngineeringTeams course. As the BMED course continues, these LMs are crucial in guiding their first-yearBME teams through engineering and design modules such as the Cardiovascular System,Arduino, Ethics, and Health Inequity Project. Since BMED follows a group-based, flipped,active-learning mode of engineering education, the LMs are vital in mentoring the BMEDstudents. From survey results of previous years, LMs required skills in conflict management,assessment design, ethics, group
ETD 365 Implementing Renovated Robotics Platforms in Engineering Technology Laboratories Gregory Lyman and Jeffery Wilcox Central Washington UniversityAbstractAs an update to the introductory paper submitted at the 2019 CIEC conference [1], data will bepresented as to the implementation of the retrofit project regarding acceptance within thecurriculum. In 2018, the Electronics Engineering Technology (EET) team at Central WashingtonUniversity (CWU) started a renovation project on seven ATLAS robotics platforms built in the1980s. From consultation with