teach a variety of physical concepts through the use of a two-part hands-on ropescourse activity: the first is a physical high ropes course and the second is an in-classroom physicsdiscussion which uses data collected during the physical ropes course. The physics projects anddata collected are different for different age groups, so girls can go through the program inmultiple, consecutive years and never repeat an activity.On the ropes course, students collect altitude and acceleration data by wearing a VernierWireless Data Sensor System (WDSS, shown in Figure 1) as they swing from a giant pendulum(called the Giant Swing) and climb rope ladders. Students are also digitally videotaped and thisvideo is uploaded along with the Vernier data to
selective university admissions practices, particularly in the STEM fields. Tours were held on the Vanderbilt campus and in their STEM laboratories. Attendees were encouraged to return to their classrooms with stories of how their subject areas are used in real research.3) Strategic Technical Experiences and Mentoring with University Partners Attendees learned about successful partnerships as well as brainstorm projects and programs on which to build a long-term partnership between their school and near-by higher education and professional entities. They also developed strategies for working with scientists and
innovatively apply them in more advanced(and less academic) settings, such as senior capstone projects and on-the-job challenges in thefuture workplace. Application of techniques for generating and evaluating ideas are described.To enhance the benefits of group creativity and facilitate real-time electronic brainstorming inthe classroom, we use InkSurvey with pen-enabled mobile computing devices (iPads, tablet PCs,Android devices, etc.). This free, web-based software was developed for collecting real-timeformative assessment of learning, but using it in this setting effectively mitigates many of thesocial issues that typically plague brainstorming in a group setting. The focus, instead, is onpaying attention to the ideas of others while encouraging
students were presented with research papers onthe negative impact of performing on raked stages on a performer’s body. Lastly, the studentsanswered word problems in groups about designing inclined stages and also considered theethical impact of designing a raked stage for their performers. Students commented on theirimproved clarity in learning the material through this blended lecture and lab structure and werefurther inspired by the activity to tie the lab’s experimental setup to their final project in theclass.KeywordsInclined Plane, Normal Force, Design Ethics, non-STEM majorsIntroductionAt most liberal arts colleges in the United States, science, technology, engineering, and math(STEM) courses are often required as part of their core
post-professional degree in Architecture Urban Regional Design from the New York Institute of Technology. Subsequently, Professor LoPiccolo earned a Postgraduate Diploma in Building Construction Management from New York University and a Passive House Designer Certification from the Passivhaus Institut, Germany. She has private-sector architecture and construction project management experience in Dublin, Ireland, and New York. Professor LoPiccolo has over ten years of public sector experience as an architect and a Community Development Project Supervisor with the Town of Islip. In addition, Professor LoPiccolo was an adjunct assistant professor in the School of Architecture and Design at NYIT for five years, teaching
and minority protégés participating in the LouisStokes Alliance for Minority Participation (LSAMP) program in Science, Technology,Engineering, and Mathematics (STEM) across four different universities within a statewideuniversity system, in the United States of America, to learn the following regarding mentoringrelationships for minority STEM students: (1) how students respond to ideas and projects, (2)how students conquer challenges and respond to setbacks, (3) how students set and pursue theiracademic goals, (4) how students describe their undergraduate research mentoring relationshipwith peers and professors, (5) how students maintain their focus in a professional developmentprogram such as LSAMP, (6) how students characterize and describe
real worldmuch more flexible than their artificial course deadlines, but by holding these rigid deadlinesthey were preventing students from learning to manage their time and projects [4]. Anotherauthor realized that being compassionate about deadlines builds community with the studentsand that some of the best work was turned in after the deadline [7]. Fairness was a concern, asstudents who turned in things late had more time to work on them and consider the problem.However, they conceded that few if any students complained about flexible deadlines beingunfair.Deadlines and DiversityIn a 2016 article, Boucher framed rigid deadlines as contributing to student stress and imposingunfair consequences on the most vulnerable students [8]. For
subdiscipline, 3) design an activity that gives students hands-on experiencetesting that physical concept.With this simple approach in mind, we planned one lecture and one lab for each module. Thelecture consisted of two components: 1) A broad overview of the civil engineering subdiscipline for that module, including discussion of the societal role played by practitioners of that subdiscipline, relevant and well-known projects, and examples of typical day-to-day responsibilities 2) A basic qualitative explanation of physical concepts relevant to that subdiscipline, emphasizing connections to other courses students might already be familiar with, such as chemistry and physicsWe designed hands-on lab
andcomparative analysis.When a green roof and vegetative weight are added to the structure of a roof, it can consequentlyincrease the structural material needed for a project. This is especially true for green roofs withplants that need deeper soil and more water than other plant types. This additional structure willincrease the material needed to construct the building and affect the carbon footprint of thebuilding, specifically the embodied carbon. Embodied carbon is derived from the construction ofthe building, transportation and manufacturing of materials, and the installation of products inthe building. It is a calculated value that is used to understand the total carbon emission outputthat it takes to make a new construction happen. It is
. 2013 2023 100 90 80 70 % Departments 60 50 40 30 20 10 0 Courses Figure 4. Percent of departments offering different categories of electives over the past two years, 70 respondentsAt the 42 institutions offering advanced core electives, the most popular electives were advancedtransport and research/projects, as shown in Figure 5. The “other” category included 7% whooffered engineering math/statistics as an advanced core elective
Paper ID #41248Infusing Sustainability into Diverse Courses and Programs Using Open SourceEngineering for One Planet (EOP) Teaching ResourcesCynthia Anderson, Alula Consulting Cindy Anderson (she/her/hers) is a sustainability consultant with Alula Consulting, and a strategy consultant for Engineering for One Planet with The Lemelson Foundation. Cindy specializes in innovative sustainability-focused research and curriculum projects for academic institutions, non-profits, government and corporations. Cindy has taught thousands of people through courses and workshops, around the world and online, in the fields of biology
public, are recognizing the critical need for the ethical production andmanagement of AI. As a result, society is placing immense trust in engineering undergraduateand graduate programs to train future developers of AI in their ethical and public welfareresponsibilities.In this paper, we investigate whether engineering master’s students believe they receive thetraining they need from their educational curricula to negotiate this complex ethical landscape.The goal of the broader project is to understand how engineering students become public welfare“watchdogs”; i.e., how they learn to recognize and respond to their public welfareresponsibilities. As part of this project, we conducted in-depth interviews with 62 electrical andcomputer engineering
, Mankato. Kaitlyn received her Bachelor of Science degree in Engineering from Minnesota State University, Mankato in 2017. She strives to support and guide students throughout their education so they can be highly successful in their professional careers.Mr. Andrew Lillesve, Minnesota State University, Mankato Andrew Lillesve is originally from Grand Rapids, Minnesota. He holds a Bachelor’s degree in Mechanical Engineering and a Master’s degree in Business Administration both from Michigan Technological University. Since 2011, he has worked at Iron Range Engineering, a program under the Integrated Engineering Department at Minnesota State University Mankato. There, he has held the roles of Coordinator, Project Mentor
\program was designed to integrate algebra and engineering activities in Spanish for a group of middleschool students. The intervention curriculum was assembled, professional development was providedto the support team in Honduras, and it was deployed as a pilot program. A research case studypresented in this paper explores the following questions:a) What elements of a hybrid program are most valued by students and teachers, b) To what extent dostudents report changes in their perceptions of mathematics and engineering and c) What is the impactof instructors and family involvement in this community-based pre-engineering program? IntroductionThe Honduras project was designed to provide early motivating
explores how the integration of school safety strategies with disciplinary practices, often under zero-tolerance policies, blurs the lines between them, suggesting that both are byproducts of the school-to-prison pipeline.Dr. Roberta Rincon, Society of Women Engineers Roberta Rincon, Ph.D., is the Director of Research and Impact for the Society of Women Engineers. She is responsible for overseeing the research activities for the organization, including collaborative research projects with external researchers and dissemination of SWE research through academic conferences, the SWE Research website, and the annual SWE State of Women in Engineering magazine issue. She is the Principal Investigator for the NSF INCLUDES
., Egypt, Canada, Spain, Singapore,France, Finland, Denmark, Japan, China, Sweden, Italy, Australia, Taiwan, Lebanon, S. Korea,Belgium, Germany, Austria, Ireland, and Kuwait 5. According to Devex, “[r]ecent decades have seen a growing involvement of major engineering firms in international development projects.The world’s developing communities have become clients under a corporate portfolio that includes both mega-infrastructure undertakings and small projects that provide basic services toimpoverished villages”6.Second, paradoxically, the international nature of the workplace may be found in one’s own “cultural backyard.” There is a better understanding that multicultural diversity occurs both within societies, as well as between them7,8. For
andorganizational role. The paper will include results from a survey taken during the TilfordDiversity Storytelling project, provide examples and strategies for using stories, and include areview of literature to show how storytelling can be an effective mode of communication.Storytelling in Organizations TodayIn an age of ever new technologies to enhance classroom teaching, the “sage on the stage” maybe making a comeback through the power of stories and the technique of storytelling.Once thought to be mostly for children, or for library programs, storytelling is now appliedwidely in the business and corporate world by management and human relations departments foremployee training, knowledge transfer, and cultural change and in academic settings by
contended that the experiential learning is the fundamental base ofeducational settings. Dewey first identified experiential learning as a fundamental foundation informal educational at the beginning of the 20th century. After Dewey, many psychologists andeducators believed that experiential learning is a valuable process and could be added totraditional instructional methods rather than replace them. Others believed that experientiallearning is an enhancement tool of the learning process that cannot be replaced.27Experiential learning is a stage or process where the student is prepared to do more than just anobserver. Labs, workshops, projects, presentations, class discussions, and teamwork all fall intothe experiential learning category
Some Design & Validation Experiences of an Interactive Multimedia Resource Library for Teaching & Learning About Sustainable Green Engineering Paul G. Ranky, PhD Full Tenured Professor, Registered and Chart. Professional Engineer, Department of Mechanical and Industrial Engineering, NCE, and the NJIT IT / IS Program, NJIT, Newark, NJ 07102 Email: ranky@njit.eduPAUL G. RANKYPaul G. Ranky, PhD Full Tenured Professor, The Department of Mechanical and IndustrialEngineering, and the IT /IS Program, New Jersey Institute of Technology, NJ, USA. For abiographical sketch, including current projects
place” in the curriculum to do the assessment. Forexample, in support of assessing program outcome 5.1 “Design and conduct systems experiments,including collecting, analyzing and interpreting data, “ one of the performance criteria we defined is “Useappropriate data analysis techniques including appropriate software data analysis tools to analyze theresults of a systems experiment.” Our assessment plan dictates that our students will be assessed againstthis criterion in the completion of a design project in the Statistics for Engineers course they take as partof the curriculum. Given that data analysis is a major topic in this course and the design project requiresthe students to do this type of analysis, this seemed like the “right place” to
research10. Making oral presentations. project. 11. Defending an argument when asked 3. Problem-solving in general. questions. 4. Formulating a research question that 12. Explaining my project to people outside my could be answered with data. field. 5. Identifying limitations of research 13. Preparing a scientific poster. methods and designs. 14. Keeping a detailed lab notebook. 6. Understanding the theory and 15. Conducting observations in the lab or field. concepts guiding my research project. 16. Using statistics to analyze data. 7. Understanding the connections among 17. Calibrating instruments needed for scientific disciplines
, participants in a non-ECP group were exposedto conventional teaching methods.The keystone of this pedagogical transformation was the "Heart Rate" experiment, whereinstudents utilized a mobile application to quantify heart rate fluctuations following variousphysical activities. The study employed pre- and post-surveys to assess student engagement,while pre- and post-signature assessments were administered to gauge their understanding of theexperiment's core concepts. Project assignments were used to evaluate practical application andunderstanding.Using statistical software like SPSS and Excel, meticulous data analysis was conducted toprovide a comprehensive look at the students' performance over these three semesters.Results showed that students who
categories of schoolwork also indicates thewidespread usage of these tools.Respondents indicated they were aware of many different uses of GenAI in their computingcourses (Figure 5). However, knowledge of understanding/summarizing home or project promptsreceived the most responses. This result suggests that project or assignment prompts might bepoorly written or overly verbose to the point that students struggle to even understand them.Additionally, considering this usage of GenAI tools does not register as one that might breakacademic integrity rules, students could be the most aware of it because they either understandthemselves or have been told by an instructor that this is an accepted way to use Gen AI forschool.We then asked users if they used
Paper ID #44537Comparative Study of Digital Electronics Learning: Using PCB versus TraditionalMethods in an Experiment-Centered Pedagogy (ECP) Approach for EngineeringStudentsMr. Ojonugwa Oluwafemi Ejiga Peter, Morgan State University Ejiga Peter Ojonugwa Oluwafemi, currently thriving as a Graduate Assistant at Morgan State University, Baltimore, is deeply engaged in the innovative ”Experiment Centered Pedagogy Project” within the Department of Engineering. His academic journey began at the Federal University of Technology, Minna, where he earned a Bachelor of Technology in Computer Science, laying a solid foundation for his
. Agreeableness involvespositive interactions with people. Finally, openness to ideas allows for an individual to seek outcreative solutions to helping others and the inclusion of groups that are often overlooked.This study uses longitudinal interviews with engineering students and early-career engineers atthree timepoints over seven years to characterize the moral exemplars selected by participantsand, in turn, to use these moral exemplars as a tool for assessing the ethical perceptions of theinterviewees. This study is part of a series of ongoing longitudinal projects focused onengineering students’ and early-career professionals’ views of engineering ethics and socialresponsibility [13], [14].MethodsThis study is part of a longitudinal research
: Benedictine College Engineering Model to initiate engineering programsusing distance educationProceedings of the 2012 Midwest Section Conference of the American Society for Engineering Education 3The current project can serve as a template for other colleges that wish to offer engineeringdegrees, but may otherwise consider it cost-prohibitive to do so. Using distance education allowsflexibility of implementation: laboratories do not need to be established immediately as studentscan complete summer laboratories at UND (or other distance engineering education providersthat become available); colleges do not have to invest in a critical mass of engineering
widest sense.Other efforts have been underway for over a decade to develop standards and guidelines todefine what K-12 students need to know and be able to do in regard to technology. In 1993, theAmerican Association for the Advancement of Science (AAAS) published, Project 2061:Benchmarks for Science Literacy [6] and in 1996 the National Science Education Standardswere published by the National Academies Press [7], both of these contained sections addressingtechnology. In 2000 the International Technology Education Association (ITEA) releasedStandards for Technological Literacy: Content for the Study of Technology [8] with the goal ofencouraging educational curricula and programs that would provide technological literacy to K-12 students.In the
with many of the course goals,including improving written communication, researching engineering problems, andappropriately framing questions to analyze ethical issues in engineering. The assignmentinstructions are as follows: Conference AbstractObjective: Learn how to communicate your STS research in a concise format that demonstratesnovelty, gravity, and implications.Requirement: The top line of the document must have the title of your STS Research Paper,followed by your name. Below your name and title, provide 3-5 keywords that characterize yourresearch project. No title page requirement for this assignment.Write an abstract on your STS research topic that addresses the following points: What is
Paper ID #45134WIP: investigate recruitment strategies used by engineering bridge and successprograms to recruit underserved studentsDr. Xinyu Zhang, Purdue University Dr. Xinyu Zhang is an Assistant Professor of Practice in Environmental and Ecological Engineering (EEE) at Purdue University’s College of Engineering. She received her Ph.D. in Environmental Engineering from the University of Illinois at Urbana-Champaign, is a North Carolina-licensed Professional Engineer, and currently leads an NSF project on recruitment strategies for engineering bridge and success programs. Her research interests include engineering
place” in the curriculum to do the assessment. Forexample, in support of assessing program outcome 5.1 “Design and conduct systems experiments,including collecting, analyzing and interpreting data, “ one of the performance criteria we defined is “Useappropriate data analysis techniques including appropriate software data analysis tools to analyze theresults of a systems experiment.” Our assessment plan dictates that our students will be assessed againstthis criterion in the completion of a design project in the Statistics for Engineers course they take as partof the curriculum. Given that data analysis is a major topic in this course and the design project requiresthe students to do this type of analysis, this seemed like the “right place” to