theappendix to this paper.) As the attached article demonstrates, cities around the country are considering whether equipping police officers with body cameras can restore trust between police and citizens and discourage police misconduct. Imagine that you are the lead engineer working with the city council of a mid-sized American city to develop a plan for integrating a network of body cameras into the city’s information technology networks. The city leadership has not purchased the body cameras yet, but they are clearly excited about the potential of body cameras to resolve disputes and restore trust between citizens and local police. The city leaders are looking to you to advise them because
were integrated into aworkshop on basic Geographic Information Systems (GIS) mapping, itself part of anintroductory first-year engineering undergraduate course. The amended workshop was designedto explore the potential for GIS and site mapping to support creative learning practices forstudents through an embedded introduction to design-thinking processes.Design and Engineering EducationTeaching Site Design in EngineeringInfrastructure design is land-design. Site design and community place-making grow out of thedeep patterns marked onto a site by its infrastructure networks: water systems, transportationlines, communication systems, and physical structures. These systems are not static; flows ofsite reveal the temporal qualities of that place
tools, that in case of an incorrect answer hyper-links the learner back to avariety of revision solutions, so that the missed material can be learned, and the test re-taken.The assessment questions address exciting engineering, management, and computingscience / IT (Information Technology), biomedical engineering, and other issues, and inmany cases document best practices. This approach helps distance learners as well aseducators to work with the material in real-world classroom and/or virtually web-networked teams.The cases are object-oriented and self-contained, nevertheless can be integrated/ grouped into different classes of objects in a lean andflexible way (the same way as a modern software program, or a modern manufacturing / assembly
organizational impact. path have a “discovery 2. Students associated the technical orientation” toward engineering. path with work that is intellectually stimulating and hands-on, application of specialized technical skill and technological impact through innovation. The second set of findings emerging from the wave 1 student interviews relate to thestructural and contextual factors that shape second year female engineering students’ electivetrack/specialization decisions. We are developing a conceptual model which highlights three setsof influential
State University c American Society for Engineering Education, 2016 Using Natural Language Processing Tools to Enhance Qualitative Evaluations of Conceptual UnderstandingAbstractThis work-in-progress briefly surveys a selection of open-source Natural Language Processing(NLP) tools and investigates their utility to the qualitative researcher. These NLP tools arewidely used in the field of lexical analysis, which is concerned with automating the generation ofuseful information from human language using a variety of machine processes. Recent researchshows that the statistical analysis of software recognized linguistic features can benchmarkcertain mental processes, such as cognitive load. This
. Brawner is a founding member and former treasurer of Research Triangle Park Evaluators, an Ameri- can Evaluation Association affiliate organization and is a member of the American Educational Research Association and American Evaluation Association, in addition to ASEE. Dr. Brawner is also an Exten- sion Services Consultant for the National Center for Women in Information Technology (NCWIT) and, in that role, advises computer science and engineering departments on diversifying their undergraduate student population. She remains an active researcher, including studying academic policies, gender and ethnicity issues, transfers, and matriculation models with MIDFIELD as well as student veterans in engi- neering. Her
technologies, such as computer software that relates tovisual representation and design, are impacting the traditional paper-based design. Asfew studies focus on the comparison between computer-aided-design andtraditional-paper-based design42, 5, 26, it is still not clear how designers work both withpaper sketches and computers and how the different media influence the designprocess. More research is needed if we want to have a deeper understanding of howcomputers and paper sketches as design tools complement each other and contributeto different aspects of the design task. In addition, while the literature is rich onresearch on professional designers, little research addresses how and for what purposestudent designers use different tools and how
business model is a description of how a business intends to operate and make money. At themost basic level, it involves a producer making something and selling it directly to customers ata profit. A lot more creativity is needed to get noticed in a time-pressed world. A business isprobably facing global competitors, and in many instances a widely dispersed audience who areincreasingly difficult to reach in a cost effective manner. As a result, numerous alternativestrategies have emerged to get a product to market, safely into the hands of the consumer andbusiness model innovation has become increasingly popular.In literature, [1] business models are considered essential aspects of successful businesses, astheir main purpose is to differentiate a
University of Technology. In 2007, he co-organized a US-France Workshop on Sensor Networks and the Environment sponsored by the French government. In Spring 2008 he was a Visitor at SAMSI, where was Program Leader of SAMSI’s Program on Environmental Sensor Networks.Kenji Ryan Yamamoto, Northern Arizona UniversityCarol Haden, Magnolia Consulting, LLC Carol Haden is a Senior Consultant for Magnolia Consulting, LLC, a small woman-owned research and evaluation company based out of Charlottesville, Virgina. For the past eight years, she has specialized in the evaluation of informal and formal STEM education programs. Dr. Haden has evaluated projects sponsored by the National Science Foundation, NASA, the William and Flora Hewlett
Harrisburg. He has 25 years of experience in academia, in teaching roles, including 10 years at Annamalai University in India and three years at Linton Institute of Technology in Malaysia. He also has 10 years of professional engineering experience. Prior to joining Pennsylvania State University, he worked as a Transportation Engineer at the Maryland State Highway Administration.Dr. Sofia M Vidalis, Pennsylvania State University, Harrisburg, The Capital College Sofia M. Vidalis is an Associate Professor in the Department of Civil Engineering and Engineering Technology at Penn State Harrisburg. She received her Ph.D., Masters, and Bachelor’s in Civil Engineering from the University of FL. Her background is in
developsengineering students’ ability to discuss their technology to non-technical audiences13Despite efforts to involve engineering doctoral students’ in industry-like work experiences, thework of engineering Ph.D.s in industry has not been systematically investigated and reported inthe literature. The information that is available focuses on managing and motivating researchand development groups and creating effective teams15-20. The literature does not adequatelyaddress the challenges that engineering Ph.D. graduates face transitioning from academia toindustry. This study thereby assists in the documentation of the industrial work environment forengineering Ph.D.s, and their transition from academia to industry, in order that academia cancontinue to
and non-government affiliated agencies to help organizations solve SystemsEngineering, Engineering Management, Operations Research and Information SystemsEngineering related problems. This program is entitled “Academic Individual AdvancedDevelopment” (AIAD) and is vital to the educational development of cadets and provides themwith an opportunity to participate in activities beyond our baseline requirements. These AIADopportunities are designed to allow students to work with military and civilian organizations fora three-to-four week period and discover the “real world” applicability of their academicendeavors here at West Point. These experiences broaden student perspectives; provide them with practical advancededucation related to their
grounded in threeengineering educational cultural norms: competition, masculinity, and whiteness. It draws on acombination of work in critical history and Science Technology and Society fields, and theauthor’s literature reviews of engineering education publications. While primarily relying onsecondary sources, it is in the combination of the accounts, the connection to present dayeducational cultural settings, and the communication to a specific audience of educationalstakeholders that comprises this work’s intellectual contribution.A prominent theme of the historical narrative is to suggest a reflexive relationship between thedemographic representation of the discipline and its cultural normativities. This interrelationshipsuggests ways in which
. Page 23.1234.1 c American Society for Engineering Education, 2013 The Status of Engineering in the Current K-12 State Science Standards (Research to Practice)Recent national documents pertaining to K-12 education have fostered a connection betweenengineering and science education to help better prepare our students and our society to meetcurrent and future challenges of our modern and technological society1-3. Additionally, thisconnection between science and engineering is essential for every American citizen in order tobetter make informed decisions about their everyday life, as well as nationally for the U.S. toremain competitive in the global economy in which we live3.However
and still is….”16Ham’s characterization of NASA’s attitude toward the STS-112 foam strike during the STS-113review illustrates a phenomenon called the “normalization of deviance,” described by authorDiane Vaughan in her book The Challenger Launch Decision: Risky Technology, Culture, andDeviance at NASA, whereby deviant behavior becomes commonplace and is no longerrecognized as outside of the norm.18 The deviance becomes accepted. This behavior has beenobserved across a variety of industries such aerospace, healthcare, energy, and even housingmarkets.One component of this phenomenon is the human tendency to favor information that supportsour beliefs regardless of whether that information is representative of reality. Typically referredto as
investigated the level of diversity exhibited bythese SV companies 3,5 . Over the years, many technology companies have been reluctant torelease their respective demographic employment information. In recent years, due to socialpressure and the realization that diversity breeds innovation, tech companies have been making amore concerted effort to collect and publish their diversity data 6 . At the end of 2014, JesseJackson and the Rainbow PUSH Coalition convened at Intel’s headquarters with representativesfrom more than 20 tech companies to discuss the issue of diversity in Silicon Valley. From thosemeetings Intel emerged as a bellwether, pledging a commitment of $300 million over the courseof five years to increase the representation of women and
the digital divide and how community-engaged research can address computing needs in New York City. His research focuses on wicked problems that arise at the in- tersection of society and technology. Rider holds a Ph.D. in Sustainability from Arizona State University, and a Master’s degree in Environmental Management from Harvard University and a Bachelor’s degree in Environmental Science from University of New Hampshire. Before earning his doctorate, he has worked for a decade in consulting and emergency response for Triumvirate Environmental Inc. American c Society for Engineering Education, 2021 Research-Practitioner Partnerships
communities, the artifacts and solutions that emerge from everyday ingenuity and anengineering mindset are deeply embedded as cultural practices. However, societal perceptionsand historical traditions, often shaped by the dominant majority, impose restrictions on what isconsidered a "legitimate" expression of engineering practice. This implicit definition tends todisregard the ingenuity inherent in everyday practices. I believe there is an opportunity to fosterdiversity and enhance the engineering field by embracing the voices and contributions ofminoritized populations through the inclusion of these cultural practices. By expanding ourunderstanding of engineering, we can enrich the field with a broader range of perspectives andexperiences.Connected
, these activities encourage teamwork,independent problem-solving, and the integration of partial information to develop deeperconnections to real-world applications. Research has shown that jigsaw techniques enhanceengagement, critical thinking, and problem-solving across various disciplines, including digitalcommunication systems,[5] biomedical engineering,[6] and online game-based learning.[7]For example, Santiago and Guo[5] incorporated jigsaw activities into a digital communicationsystems course using the KEEN EM framework. Students researched emerging topics such as theInternet of Things and artificial intelligence, then presented their findings while drawingconnections to business opportunities. This approach encouraged curiosity, value
, but good understanding ofauxiliary fields like information technology, cybersecurity, communication, controls ordistributed generation. The smart grid initiative not only requires power engineers to have a goodunderstanding of auxiliary fields, but also needs experts in these auxiliary fields to understandthe basic operations, requirements and capabilities of the future power systems. There is greatneed in industry for such cross-trained professionals to meet challenges in modernizing thepower grid. Training professionals and students in smart grids, alternative energy and distributedgeneration needs a creative curriculum that crosses traditional divisions based on disciplines5,9-14.Designing a novel power engineering curriculum consists of
AC 2011-2528: INTEGRATING SUSTAINABILITY INTO SYSTEMS EN-GINEERING CURRICULUMAgnes Galambosi, University of North Carolina at Charlotte Agnes Galambosi has a PhD in Systems and Industrial Engineering from the University of Arizona in Tucson, AZ. She is currently employed at the University of North Carolina at Charlotte teaching several engineering courses.Ertunga C Ozelkan, University of North Carolina, Charlotte Ertunga C. Ozelkan, Ph.D., is an Associate Professor of Engineering Management and the Associate Director of the Center for Lean Logistics and Engineered Systems at the University of North Carolina at Charlotte. Before joining academia, Dr. Ozelkan worked for i2 Technologies, a leading supply chain
Materials Science from the University of California, Berkeley, and went on to complete his Ph.D. in Mechanical Engineering at Northwestern University. After completing a postdoc with the Cornell Active Learning Initiative, he joined the School of Engineering and Technology at UW Tacoma to help establish its new mechanical engineering program. His teaching and research interests include solid mechanics, engineering design, and inquiry-guided learning. He has supervised undergraduate and master's student research projects and capstone design teams.Eric Burkholder (Postdoctoral Scholar) Eric Burkholder is an assistant professor of physics and of chemical engineering at Auburn Univeristy. He received his PhD in chemical
Paper ID #35271Online Course and Program Assessment Strategies Leading to EffectiveContinuous ImprovementDr. Briana Lowe Wellman, University of the District of Columbia Dr. Briana Lowe Wellman is an associate professor and chair in the Department of Computer Science and Information Technology at the University of the District of Columbia. She joined UDC in May 2012 after receiving her Ph.D. in Computer Science from The University of Alabama in December 2011. Dr. Wellman’s area of specialization is robotics. Her research focus is on cooperative multirobot systems and sensor networks in search, coverage, and surveillance
engineering that contribute to the development of an engineering product or process. • I can identify and access appropriate sources of information. • I can write an effective summary of synthesized information and appropriately cite sources. • I can develop and deliver an effective oral presentation • I actively monitor and evaluate my contributions to teamwork. • I can articulate and elaborate on skills used in problem solving. • I can effectively estimate a solution. • I can represent an engineering system visually. • I am aware of global issues and emerging technologies and their impact on engineering practice.It is important to note that while the Tucker Lewis Index of the fit was 0.93 which is considered good, theroot-mean
establishing basic concepts,application contexts and analysis frameworks. It also provides the opportunity to establish therisk analysis and management knowledge as an engineering discipline using analogies from otherengineering disciplines such as structures or hydrology. The American Society of Civil Engineers recognized the importance of risk when itstated: Page 23.695.4 “The manner in which civil engineering is practiced must change. That change is necessitated by such forces as globalization, sustainability requirements, emerging technology, and increased complexity with the corresponding need to identify, define
AC 2012-3189: GOT RISK? THE ROLE OF RISK ANALYSIS IN HIGHSCHOOL EDUCATIONMs. Eva Andrijcic, University of Virginia Eva Andrijcic is a third-year Ph.D. student at the Department of Systems and Information Engineering at the University of Virginia. Page 25.675.1 c American Society for Engineering Education, 2012 Got Risk? The Role of Risk Analysis in High School Education 1. IntroductionThe purpose of this paper is to focus on an important aspect of systems engineering, namely riskassessment and management, and to present a case study of a class in which high school studentswere
high frequencies of informed consent, confidentiality, and risk minimization.What was particularly notable, however, were several emergent themes not emphasized in theprofessional codes covered in class. These included: • Environmental sustainability in biomedical design • Continuous monitoring and feedback as a duty of care for engineers • "Truth" in data and transparency across the research lifecycleThese additions reflect a growing awareness of the interdisciplinary ethical challenges ofcontemporary biomedical design, showing that students are thinking beyond compliance. Theirnovel ideations illustrate awareness towards broader definitions of responsible innovation andtowards further critical ethical thinking. Instructors also
Information Society (IADIS) International Conference on Educational Technologies, Sydney, Australia, December 11-13, 2017 pp.44-50 9. D. R. Johnson, “Sense of belonging among women of color in science, technology, engineering, and math majors: Investigating the contributions of campus racial climate perceptions and other college environments”, Ph.D. dissertation Dept. Counseling and Personnel Services, College Student Personnel Administration Program., University of Maryland, College Park, MD 2007.10. R. M. O’Hara, “STEM(ing) the Tide: A Critical Race Theory Analysis in STEM Education,” Journal of Constructivist Psychology, pp. 1–13, 2020.11. Ladson-Billings, G. “Just what is critical race theory and what’s it doing in a nice
, potentially undermining long-term societal resilience. By prioritizingtechnological efficiency and profit maximization, current paradigms risk marginalizing humanand environmental considerations. Emerging research suggests a more nuanced approach thatbalances technological innovation with holistic social responsibility, integrating ethicalframeworks that consider broader ecological and human-centric impacts beyond mere techno-economic metrics [25,26]. Place-based education involves direct experience that is moreengaging, promotes civic participation that contributes to democratic institutions, promotes anethic of environmental stewardship and sustainability, and responds to local economic, social,and environmental pressures [27]. These methods share
at the end of the period" (Hicks, 1946). Engineers have a tradition ofproducing economic impact – often through technological innovation and industrialization.Economic sustainability can be an end in itself or a means of producing lasting social orenvironmental impact. For example, within the business community, Prahalad re-framedchallenges in Base of the Pyramid (BoP) markets (areas of extreme economic poverty) as areasof emerging, high-growth market potential (Prahalad, 2009). As of 2008, BoP marketsrepresented an estimated US $5 trillion of demand (Subrahmanyan & Tomas Gomez-Arias,2008). As for-profit corporations expanded into BoP markets, social entrepreneurship and theimpact investment industry also emerged aiming to attain