Bachelor’s degree in Computer Engineering from Elizabethtown College, a Master’s degree in Computer Science and Software Engineering from Auburn University, eleven years of experience in industry as a software engineer, and seven years as a full-time faculty in the departments of computer science and engineering. Her interests focus on broadening participation in engineering through the exploration of: 1) race, gender, and identity in the engineering workplace; 2) discipline-based education research (with a focus on computer science and computer engineering courses) in order to inform pedagogical practices that garner interest and retain women and minorities in computer-related engineering fields.Prof. Zahra Hazari, Florida
gas, to demonstrate technology to utilize Dairy cow derived renewable natural gas (RNG) as a transportation fuel. Viking 40 and Viking 45 were built to demonstrate lower cost and higher rate composite production processes for the body and monocoque chassis. Hybrid electric Viking 45 participated in the Progres- sive Automotive X Prize as the only U.S. university vehicle and hybrid vehicle to participate in the finals round. The vehicle achieved 172 MPGe for 100 km at 95 km/hr. The latest full size vehicle is Lyn Okse (Norwegian for ”Lightning Ox”), a 1/4 ton electric pick-up truck with 300 mm of off-road ground clear- ance for campus grounds crews. The vehicle demonstrates the future of lower cost, more powerful
the profession, and ethicaldilemmas with a limited scope [1], [2], [3]. In contrast, macroethics concerns sustainability, publicpolicy, and broader impacts such as human rights [1], [4], [5]. At many institutions, ethics is not arequired course for engineering students; instead, students are often instructed to memorizeabstract ethical codes, likely causing them to take ethics less seriously [6], [7]. That is, memorizingabstract ethical codes does not provide a solid foundation for providing solutions to ethicaldilemmas. As such, many students tend to draw from personal experience rather than from theirprofessional ethical education when facing ethical dilemmas, which can lead to undesirableoutcomes [6], [7], [8]).Troublingly, Cech (2014
Tech Electronic Product Design and AssemblyAbstractThis paper presents a new engineering education model that employs the principles ofConcurrent Education [1]. The four-year post-secondary program will result in a B.S. in AppliedEngineering and Production Sciences. All traditional engineering major areas of specialization(e.g., M.E., E.E., I.E., etc.) are eliminated. The paper makes the case that, in all these areas, theengineering is essentially the same. The difference is the artificial focus on particular segmentsof the continuous physics or science spectrum. Unlike the traditional post-secondary engineeringeducation model, this new model wraps an engineering college around a contract engineeringbusiness, or full service
potentialfindings. For this case, the intervention led to a change in the sketches as well as in how thestudent was talking about people who would use the designs. This case study suggests that achange to instructions during conceptual sketching—requiring representations of people—mayfoster engineering students’ engagement in human-centered design practices.IntroductionHuman-centered design (HCD) requires a deep understanding of people in the design context[1]–[3]; however, research documents that engineering students have struggled to consider thepeople who will use their designs [4]–[9]. Empathy is a key mindset in human-centered design inorder to effectively understand people’s experiences and incorporate them into design decisions[10]–[12]. Empathy
, 2020 Constructing and Refining Engaging Objectives Computer Science Outreach V olunteers focused on three main objectives: 1. Engage the participants during sessions through associating lessons with familiar concepts and suitableShaya Wolf, Rafer Cooley, Mason Johnson, Andrea Burrows, Mike Borowczak applications. These real-world
Paper ID #31779Construction Safety Training: Exploring Different Perspectives ofConstruction Managers and WorkersDr. Mostafa Namian, East Carolina University Dr. Mostafa Namian is an Assistant Professor of Construction Management at East Carolina University. Mostafa completed his Ph.D. in 2017 from North Carolina State University (NC State). He worked in the construction industry for several years before joining academia. His research interests include 1) Construction Safety Management, 2) Hazard Recognition and Safety Risk Perception, 3) Human Behavior in Construction, and 4) AI in Construction. He is also an OSHA
significant andvaluable, but otherwise absent in their engineering education. This paper serves as a call toengineering education community to engage with contemplative practices as a way of creatingmore inclusive learning environments for all of our students.1. IntroductionThis Work-in-Progress paper describes a collaboration that aims to integrate art, teaching,learning, research and activist work through the union of four instructors, three undergraduateteaching assistants, and their seven unique ways of knowing that are grounded in our differences- ethnicity, cultures of origin, first language, education, artistic craft, age, class, gender, wisdomtraditions. This project brought together our differences to co-create a new educational paradigmfor
has probably beenmost pronounced in engineering, as engineering activities typically involve consumptionof energy and resources, and create changes in the physical environment [1]. A growingbody of literature is available, addressing and discussing the definition and use of variouscompetences including systems-thinking and critical thinking for sustainabledevelopment [2,3] . Systems-thinking is identified as an important learning outcomerelated to incorporating sustainability in engineering classroom. Additionally, systems-thinking provides an understanding of a system by examining the link and interactionsbetween the elements that comprise the whole system. Sustainability systems-thinkingskills include (i) identifying dynamic relationships
Westmoreland Academic Success Program. In this capacity, she provides vision and direction for the Tutoring and Peer-Assisted Learning (PAL) programs and provides support to the General Engineer- ing Learning Community. She is also co-developer of Entangled Learning, a framework of rigorously- documented, self-directed collaborative learning. She has an M.A. in Music from The Pennsylvania State University and an M.L.S. from Indiana University. c American Society for Engineering Education, 2020 Continuing to Promote Metacognitive Awareness in a First-Year Learning Strategies CourseAbstractThis complete, evidence-based practice paper builds upon our previous work [1] in
. Each group was formed by members withdifferent background, e.g., one from CES program and another from EE program. Individual efforts wereassessed based on group work evaluation to ensure fairness and equity. According to students’ feedback,the cooperative learning method has successfully promoted students' learning and decision making; italso greatly enhanced students’ racial tolerance and critical thinking capability.The contribution of this paper is that we provide a review to share our experience in teachingMicroprocessor Systems Design in the past decade. Details to be presented include: (1) how we designour curriculum course sequence to ensure students get both the fundamentals and the hands-on exercisein one quarter; (2) how we help
outreach events. c American Society for Engineering Education, 2020 Convergent Learning from Divergent Perspectives: An Executive Summary of the Pilot StudyIntroductionScience communication is an important issue as our global society continues to grow [1] .Whilemost researchers are comfortable conveying their findings to their peers, especially within theirdiscipline, through publications and conference presentations, there is room for improvementwhen communicating scientific discovery to the general public. Communicating with the generalpublic requires knowledge of the audience and engagement techniques that are not alwaysneeded when faculty present to a room of peers. Additionally
materials and sound instructional designs.Keywords: CoOrdinated Math-Physics Assessment for Students Success (COMPASS),Differential Equations, Calculus, Progress Through CalculusIntroduction In the United States (US) and elsewhere introductory mathematics courses, specificallycalculus, often serves as a bottleneck, preventing large numbers of STEM-intending students fromadvancing in their majors [1]. The need for increasing the number of STEM graduates [2, 3, 4, 5, 6,Preprint submitted to ASEE April 24, 20207] has resulted in various programs to attract and retain students in STEM fields. Bressoud, Mesaand Rasmussen [8] identified several characteristics of successful calculus programs
engineering education. c American Society for Engineering Education, 2020 Coordinated Outreach: A Model of STEAM Outreach EffortsAbstractDedicated, ongoing, and coordinated outreach efforts are critical to increasing the participationof underrepresented students in STEAM fields. Researchers have called attention to thecollaborations between K-12 and higher education sectors that seek to promote college access,particularly among underrepresented students [1]. In our research, we collected reflectiveaccounts from seven graduate outreach coordinators in an engineering department at a publicuniversity involved in STEAM outreach to pre-college students. Understanding how people areapproaching the expansion of
provided in order to show the range of topics that have beenincluded in this class, but the overall planning and organization would be applicable to anyconstruction site field trip.IntroductionThe use of field trips has been shown to be an effective method of teaching so long as the trip isplanned and implemented effectively (1-3). Field trips to construction sites for design classes candirectly relate class assignments to real structures, giving students a perspective on theinteraction between disciplines (owner, architect, construction managers, sub-contractors andengineers), and boosting confidence of engineering students. However, to maximize theirpotential, tours should be implemented with purpose and relate directly to class material
next step of thedesign process. Even though many educators encourage their students to formulate three to fivesolutions before moving forward with the process, this research and other compelling studies [1],[2], [3], reveals that most engineering students construct fewer than two possible solutions (~1.3)before selecting one and completing the design with that solution.Although students are taught that the brainstorming step, the creative process whereby severalpossible solutions are determined before proceeding, is an essential aspect of engineering design,they are failing to spend adequate time and energy on this part of the process. Instead ofbrainstorming several solutions when given an open-ended design problem, they simply proceedin
Paper ID #29134Counteracting the social responsibility slump? Assessing changes instudent knowledge and attitudes in mining, petroleum, and electricalengineeringDr. Jessica Mary Smith, Colorado School of Mines Jessica M. Smith is Associate Professor in the Engineering, Design & Society Division at the Colorado School of Mines and Director, Humanitarian Engineering Graduate Programs and Research. She is an an- thropologist with two major research areas: 1) the sociocultural dynamics of extractive and energy indus- tries, with a focus on corporate social responsibility, social justice, labor, and gender and 2) engineering
percentages of pointsearned to assist with categorization efficiency (Table 1).Table 1. Individual indicator metric definitions (from Stoker, Blair, and Sobiesk, 2014). Category definition Example percentages of points earned 1 Completely failed to meet the standard <65% 2 Just barely failed to meet the standard 65-72% 3 Met the standard 73-90% 4 Exceeded the standard >90%Once each student’s performance on an embedded indicator has been categorized, the results canbe
Society for Engineering Education, 2020 Crayowulf: A Multidisciplinary Capstone ProjectABSTRACTSenior capstone projects provide an excellent means of having students apply and integrate manyof the topics they have learned over the course of their undergraduate education. In this paper, wedescribe a two-semester (10-month) senior capstone project in which a multidisciplinary group—one computer science student, one electrical engineering student, and two mechanical engineeringstudents—worked as a team to implement an innovative Beowulf cluster design. The clustercommemorates the Cray-1 supercomputer, with a small hexagonal aluminum case enclosing adistributed multiprocessor consisting of five Nvidia Jetson TX2 single board
schedules are full of teaching, research, service, and learning requirementsthat are on relatively strict timelines. In an effort to overcome these challenges, an ad hoc teamwas formed at California State University, Chico with representatives from all seven colleges.Three main pillars of innovation were identified (1) an entrepreneurial learning experience, (2)an on-campus makerspace, and (3) community outreach and engagement. This paper focuses onthe design, implementation, and success of the on-campus makerspace and as well as the lessonslearned and areas for improvement. The space is entering its third year of operations and hasseen over 1,500 projects completed in spring 2019, a marked increase in usage.IntroductionThe maker movement is
first-year coursework. c American Society for Engineering Education, 2020 Creating a Master “Entrepreneurial Mindset” Concept MapThe knowledge, skills, and attitudes associated with an entrepreneurial mindset (EM)continue to be debated within the entrepreneurship field. Although overlapping in theirproperties, there exist several definitions of what comprises an EM within engineering. Forinstance, as summarized in a recent review by Zappe [1], EM can range from a problem-solving approach applied within one’s life, to the associated skills and behaviors such asopportunity recognition, creativity, and risk mitigation that may be developed withinindividuals. Due to this range of definitions, it can be
BiologicalEngineering department. With the help of the school’s teaching and learning center, the coursewas fully designed and built online before day 1 of its inaugural 8-week summer offering andwas continuously facilitated by the instructor throughout the course. Of the 12 students whoattempted the course, all of whom had earned a D, F or W in MEB at least once before, 10passed with a C- or higher, one with a D, and one did not pass. This pass rate, along with quizand exam averages and overall course GPA, were not statistically different than those for both a15-week normal semester F2F and a 6-week summer F2F offering by the same instructor.Student evaluations and comments for the online course were strongly positive, even moresothan for F2F offerings in
different types ofvalue on both the university and industry side in negotiating and running these courses canhelp to find better matches in collaboration. As a result, all parties are better set up forsuccessful university-industry collaboration.1 IntroductionProject-based courses are increasingly popular in engineering education, allowing educatorsto target a variety of professional skills. Working for or together with external communities orindustry partners can further add to the experience, offering students a unique opportunity toget meaningful real-life experiences of contextualized problem framing and problem solvingduring their studies [1,2]. However, while the continued existence of these courses indicatessome need from the industry side
of an audio podcast titled, “The Engineering StudentExperience,” whose purpose is to help current and future engineering students thrive in collegeand beyond through long-form conversations with practicing engineers, engineering faculty, andengineering students.In the United States, the demand for engineers is projected to grow at a rate three times greaterthan other fields, but degree production will not keep pace [1]. One possible factor is lack ofknowledge about the field of engineering. Although the Next Generation Science Standardsincorporate some fundamental engineering concepts in K-12 education [2], many teachers werenot exposed to the field of engineering during college, limiting their students’ exposure andaccess to this field [3
significant at an alpha value of 0.05. Creation of a Paradigm Shift in Student Humanitarian Service – An Experience of One Third Century1. IntroductionGovernments recognize that student volunteers play an important role in developing an engagedcivil society [1]. A school that actively participates in neighborhood activities unites students,teachers, staff, and community stakeholders. This increases a school’s ability to produce engagedand civic minded citizens. Students participating in community projects gain a sense of belongingand security which can lead to academic success as well as civic engagement. Studies have shownvolunteering and service projects benefit students, communities, educational institutions
steal the credentialinformation or infect victim’s device with malware, has been introduced. Here, we propose the“Phishing Wi-Fi” man-in-the-middle attack utilizing Wi-Fi, HTTP, and DNS for cybersecurityeducation. Since virtualization technology, commonly used in cybersecurity education, is notsuitable for wireless lab exercise, we use Raspberry Pi, small and affordable computer, to buildWi-Fi Phishing lab. In this paper, we introduce the concept and guideline of the Phishing Wi-Fiattack using Raspberry Pi including building, delivery method, and countermeasures.1 IntroductionOver the past decade, Internet became an essential component not only in human daily life butalso in many different sectors including economy, industry, and etc. Such a
increased visibility for the Libraryresources and services. It also discusses the positive impact on the students’ research skills andon their literature reviews. Consequently, the training sessions contribute to achieving theUniversity learning objectives for graduate students in research programs.IntroductionIntroductionFounded in Montreal in 1873, Polytechnique Montréal is a francophone engineering universityoffering more than 120 academic programs. In Fall 2019, the institution had 9,000 studentsenrolled, with more than 2,200 in a graduate program [1]. Polytechnique Montréal stronglyencourages diversity among its student population, so as of Fall 2019, 28% of its students werewomen and 29% were international students. Moreover, international
evaluatedunder the new criteria. New Outcomes 1-7 Previous Outcomes a-k1. an ability to identify, formulate, and (a) an ability to apply knowledge ofsolve complex engineering problems by mathematics, science, and engineeringapplying principles of engineering, (e) an ability to identify, formulate, andscience, and mathematics solve engineering problems (c) an ability to design a system,2. an ability to apply engineering design component, or process to meet desiredto produce solutions that meet specified needs within realisticneeds with consideration of public constraints such as economic
the Community-Engaged Educational Ecosystem.AbstractThe Bowman Creek Educational Ecosystem (BCE2) in South Bend, Indiana is a community-university, cross-institutional partnership [1] developed with a multiplicity of outcome aims –attract and retain underrepresented groups in engineering and science, improve the quality oflow-income neighborhoods, and build STEM literacy across the regional workforce. Earlyfindings, however, indicated that aside from improved engagement and confidence with STEMthere were also indications of increasing retention in the region – regardless of where the studentoriginally was from [2]. As a workforce development grant in a legacy industrial landscape, thisfinding proved important to
in materials engineering at Purdue University. Here, he is co- advised by Drs. Carol Handwerker in Materials Engineering and Rakesh Agrawal in the Davidson School of Chemical Engineering. His research has a dual focus of 1. developing novel chalcogenide semicon- ductors for application in solution-processed photovoltaics and 2. completing environmental analyses including life cycle assessments and leaching procedures on these novel systems to identify areas of im- provement in the context of environmental performance. Joe was a Ross fellow upon entering Purdue and later became an Integrative Graduate Education and Research Traineeship (IGERT) fellow supported by the National Science Foundation. He received his B.S