model, visualization, whole brain thinking.IntroductionIn the 2015 movie “The Martian,” the main movie character (Matt Damon), stranded on the planetMars, spoke about how problem solving enabled him to survive and get rescued [1]. In the movie,the actor stated, “you begin by solving one problem, then the next problem and if you solve enoughproblems you get to go home.” For movie-goers, The Martian movie helped to illustrate theimportance of problem solving. However, for most people in general, the importance of problemsolving goes beyond outer space. For people to be successful in their careers, relationships andlives, they must be effective problem solvers [2]. For students to achieve both personal and careersuccess, they need to develop their
distinct types of discourse: Talking Across Differences in moments of operationalplanning and Intentionally Breaching the Professional and the Personal, whereby theethnographers developed mechanisms to transgress this false binary into the very design of theethnographic research.LATTICE includes two professional development cohorts of women in academic engineeringand computer science and an anthropological investigation of the values, practices, relationshipsand philosophies of the organizers. LATTICE refers both to the programmatic interventionsaimed at advancing women leaders in academic engineering and also the team organizing them.The interventions have six characteristics that include: (1) establishing a national network andprofessional
assess student learning and the overall success of the workshops.The fourth workshop developed as part of this series on teamwork focuses on giving andreceiving feedback. At the end of this workshop, students should be able to:1) Understand the value of seeking, giving, and receiving feedback for themselves, their team, and as a professional;2) Apply communication skills that keep feedback from becoming personal, both as a giver and as a receiver of feedback; and,3) Give feedback that integrates various types of functions, which includes understanding, assessing, and providing recommendations.The workshop has been effectively implemented in multiple offerings of engineering designcourses, both at junior and capstone levels. In those
build groups, they were not selected for anyspecific ethnic or year of study analysis in this pilot. Out of the total 40 students, 31 were female,8 were male, and 1 student chose ‘other or prefer not to answer’. The one student who chose‘other’ approached the professor prior to the build group registration for advice on registration.The student at the time of the build group registration was in gender transition, and was unsure ofwhich section to register for. Given the student self-identified as a male at the time ofregistration, the student chose to register for the co-ed section. The student decided if theyparticipate in future semesters and feel they then self-identified as female, they might choose thefemale only section in future
, and Mathematics(STEM) Ability Awareness program. This work in progress is part of a STEMGROW program [1]that is informed by a theory-to-practice model [2] and uses a funds of knowledge framework [3].The goal is to bring together students already studying STEM fields and learn more about howthey can serve as an an inspiration not only for future students with disabilities, but for all allstudents at EPCC, UTEP, in STEM-fields and beyond. Our work centers on our students’ self-efficacy development and growth pathways. Therefore, we ground our project in the Model of Co-Curricular Support (MCCS) [4], whereby it is posited that there exist four main areas in whichstudents become integrated and educationally engaged within the university. The MCCS
power. Stories, great flapping ribbons of shaped space-time, have been blowing and uncoiling around the universe since the beginning of time. And they have evolved. The weakest have died and the strongest have survived and they have grown fat on the retelling…stories, twisting and blowing through the darkness. [1]Stories have been an important part of how humans remember their past and hope for a brightfuture since long before we created written language. Telling our lived stories and listening toothers’ stories are part of how we make sense of our lives and build our communities. It is nowonder that stories hold us in such thrall and have power in our relationships and organizations.Both listening to and telling stories
that this course enabled the students to develop their authenticleadership skills, secondly, that emotions play a very important role in the process of developingauthentic leadership skills, and lastly, that specific attributes of this course fostered thedevelopment of authentic leadership skills.IntroductionTransforming our current world into a more just, more inclusive, and more compassionate worldrequires authentic leaders who know their values and act in alignment with those values.Therefore, the mission of Harvey Mudd College’s leadership program is to develop authenticleaders who have a positive impact on the world. Since Bill George [1] published his book Authentic Leadership (AL) in 2003, manyleadership experts have researched
design teams, reveals that many students do notapply the analytical techniques learned in earlier coursework. Our goal is to better preparestudents to integrate such analysis with the everyday engineering problems they face, outside ofthe classroom. Two possible explanations for failing to apply previously learned analyticaltechniques are: 1. students did not retain the knowledge, and 2. students do not recognize when itis appropriate to apply the “tools” in their analytical “toolbox” [1].The importance of repetition in learning retention is well documented within the literature [2-4]and can be summarized using the forgetting curve [5]. The forgetting curve indicates that tomaximize retention, any key concept must be repeated multiple times over
. However other concepts such asphasor addition of voltages and superposition, fixed current sources, and controlled currentsources, are not covered in a self-contained laboratory context. A survey of typicalundergraduate programs in electrical engineering reveals that while these topics may be coveredin a limited context as part of larger experiments, they are not included in stand-aloneexperiments in spite of the high level of sophistication of the equipment available to the students[1],[2].In this paper, we present three simple modules that can snap into a typical solderless breadboardand allow students to visualize and experiment with fixed current sources, controlled currentsources, and phasor/superposition experiments.Pedagogical
the lab section.One of the seven experiments in this course introduces students to wind tunnel testing, windspeed measurement, and different types of wind turbines.The primary goals of this experiment are: 1. To learn how to measure wind speed using Pitot tubes and anemometers. 2. To measure rotational velocity using non-contact methods 3. To compare vertical and horizontal axis wind turbines in terms of power produced as a function of wind speed and load on the generator. 4. To demonstrate key wind turbine concepts such as extracted power from wind, power coefficient, and tip speed ratio.Equipment UsedThe equipment required for this experiment was chosen to work as much as possible with theVernier SensorDAQ data acquisition
and advanced pro- gramming classes for 13 years. He has previously worked as a systems administrator, a communications engineer and as an automation engineer. He has 20+ years of experience as a software developer and is a consultant on a wide range of mobile, information technology and telecommunications issues. He holds a BSc and a PhD in Electrical and Electronic Engineering from the (Kwame Nkrumah) University of Science and Technology, Ghana, and the University of Strathclyde, UK, respectively.His research in- cludes 1)Wireless technologies and protocols for IoT and wireless sensor networks, 2) Mobile Apps for development: Improving outcomes in health, education and agriculture using mobile applications.Mr
first two courses of their engineering mechanics sequence, covering the materialtypically found in both statics and mechanics (or strength) of materials courses as well as theintroduction of Inquiry Based Learning Activities [1, 2]. The papers detail the process engagedin during and the reasoning behind the redesign and development of activities for what was,through all previous assessments, a popular and well received course sequence. As a result oftheir internal assessment the faculty from the Department of Civil & Mechanical Engineering atthe US Military Academy [USMA] at West Point determined that their first sequence ofengineering mechanics courses provided the technical content that was required, but the courseswere lacking in a few
areinternet connected [1]; each with an IP address and the ability to transmit data. These deviceshave little or no built-in security, and users often fail to change default passwords beforeconnecting them to their network; making them easy targets for hackers. By comprising theseconnected devices and harnessing them into a botnet, IoT has intensified the threat ofconventional distributed denial of service (DDoS) attacks.In September 2016, large IoT botnet attacks started drawing attention. What started as a rarelyseen or largely theoretical attack become front page news. Three major sites were hit in a month;disrupting services and affecting users worldwide. Those sites include the French Internet serviceprovider OVH (1.1 Tbps attack), DNS service
designed to gain insight on team behavior and performance over thelife of the project. Average student scores on personality traits and competencies were comparedto see if there was a change before and after the completion of capstone design.IntroductionAerospace engineering capstone design at the Florida Institute of Technology (Florida Tech) is athree-semester course sequence that begins in spring of the junior year. In the 1-credit JuniorDesign course, students identify topics, form teams, and develop a project proposal. Two three-credit classes follow in the fall and spring of the senior year. In Senior Design 1, studentsdevelop detailed requirements, complete a Preliminary Design Review, and present their finaldesigns at a Critical Design
development for STEM graduate students, the Council ofGraduate studies recommended, “Greater alignment among employers and universities to ensurethat the professional development experiences provided to advanced STEM graduate students arerelevant, and where possible tailored, to employer needs.”1 They also recommended greaterpartnerships between STEM graduate programs and employers to better prepare students whowere going into non-academic careers, and that professional development complement thestudents’ academic coursework.1 Professional Science Master’s (PSM) degree programs werestarted in the late 1990’s to meet industry’s demand for STEM graduates who also had businessprofessional skills.2The Master of Science in Professional Science (MSPS
turn allows researchersto capture meaningful, authentic, and credible emergent themes unbiased by social response. Wepresent a short summary of results to show the dominant narratives of attrition achieved throughthis method; however, the main focus of this paper is to present the method itself, which has thepotential to be extended and modified to aid in other large data mining efforts to answer otherresearch questions related to sensitive topics.1. Introduction and Literature ReviewAccording to the Council for Graduate Schools,1 graduate attrition ranges between 24%-68%across disciplines. While engineering disciplines tend to be at the low end of the range, due toreliable funding and a low time to graduation relative to students in the
that were encountered. By the endof the course, the student able to read and sketch both orthographic and isometric views of parts.There was also evidence that the student created and used spatial imagery of parts that included3D aspects.Literature reviewGraphical communication is a fundamental part of engineering. Correspondingly, spatialreasoning ability is a predictor of success in engineering school. The ability to mentally rotate3D objects seems especially important [1]. Students’ abilities in these areas can be increasedthrough instruction focused on using perception and mental imagery in 3D representation [2].Effective educational strategies that develop spatial skills and contribute to student success arewell-documented [1].These
2016/2017 academic year.IntroductionThe cost of constructing a prototype of a finished design is usually high. This is especially truewhen design projects deal with solving practical and real-world engineering design problems [1].For small undergraduate mechanical engineering programs, such as ours, resources are limited.Therefore, funding the construction of these high cost designs tends to cause problems andhinders the selection of good quality capstone senior design projects. This problem becomesmore pressing when the senior design projects are multidisciplinary which require higher budget.Multidisciplinary projects are needed in order comply with the Accreditation Board forEngineering and Technology (ABET) accreditation criteria [2], which
evaluations wereused for sequential student cohorts in introductory and capstone design courses.IntroductionThe Canadian Engineering Accreditation Board (CEAB) Graduate Attribute for individual andteamwork encourages instructors to provide opportunities for undergraduate students to developas individuals and to enhance their ability to work on teams. In the spirit of continuous courseimprovement, the course instructors wanted to further develop learning experiences and provideopportunities for student growth in these areas. Currently the experiential learning capstoneprocess design course is comprised of three structured metacognitive cycles shown in Figure 1.Students assess themselves and their team while completing open-ended design projects
in 1982. He received his M.S. and Ph.D. degrees in Civil Engineering from the University of Illinois, Champaign-Urbana in 1990 and 1999, respectively. He became the Dean of Engineering at The Citadel on 1 July 2011. Prior to his current position, he was the Department Head of Civil Engineering at The University of Texas at Tyler from Jan 2007 to June 2011 as well as served in the Corps of Engineers for over 24 years including eleven years on the faculty at the United States Military Academy. c American Society for Engineering Education, 2018 Twenty Years of Project ExCEEd: Assessing the Impacts and Charting the FutureAbstractIn response to the clear need
operating procedures may remedysome of the deficiencies, while researchers, participants, and institutions should continue tocritically evaluate the impacts and outcomes of their work.IntroductionDrawing on research from a four-year, National Science Foundation-funded project, this paperexplores specific opportunities for and challenges of incorporating Engineers Without BordersUSA (EWB) projects into the undergraduate engineering experience. A recent National Academyof Engineering report identified challenges with incorporating ethics into undergraduateengineering education and noted the relatively persistent feeling that technical and non-technicalskills are separate, with the technical skills being more highly valued [1]. Participation in
EngineeringCore Courses”, 18th International Conference on Educational Sciences and Effective Educational Instruc-tions Proceedings, Paris France 2016.2. S. Ainane, A. Bouabid, W. El-Sokkary, ”Improving the Engineering Design Process Assessment”, FirstYear Engineering Experience (FYEE) Conference Proceedings, Columbus, OH 2016.3. J. Mohamed, S. Ainane, ”Establishing a Sustainability Component in an Engineering Design Course”ASEE Annual Conference Proceedings, Montreal Canada 2015.4. Y. Wang, A. H. El-Sinawi, S. Ainane ”Improving a pipeline hybrid dynamic model using 2DOF PID”,International Conference VIBROENGINEERING-2016: DYNAMICS OF STRONGLY NONLINEARSYSTEMS Moscow, Russia 2016PROFESSIONAL ACTIVITY Memberships 1. American Society of Mechanical
. However, students’ exposure to intuitive reasoning, which plays a role in all decision-making, is limited during their undergraduate engineering formation. In an effort to generate abaseline for how we can operationalize intuition in the context of engineering education, thepurpose of our current research was to synthesize characterizations and portrayals of intuitivereasoning. We focused on literature from the field of management because intuition isconsidered in the context of complex, strategic decisions, which are reflective of the designdecisions central to engineering. The specific research questions addressed in this study are 1)how does extant management literature characterize intuition?, and 2) how does extantmanagement literature
macro-scale, focused on a systems-level perspective of how engineering edu-cation can become more effective, efficient, and inclusive. c American Society for Engineering Education, 2018 Characterizing Students’ Global Competence Development Paths Through a Global Engineering ProgramIntroductionGlobal competence is increasingly recognized as an important skill for engineering students todevelop in preparation for their entrance into the engineering workforce [1], [2]. A variety ofglobal engineering programs have been developed to achieve this goal [3], and several studieshave assessed the outcomes of such programs [1]. To date, literature on global engineeringprograms has emphasized program
total, 32 complete response sets were included in the analysis fromstudents who answered all three surveys and chose chemical engineering as their major in any ofthe three surveys. These responses were selected to investigate the major selection path ofstudents who opt in and stay in the chemical engineering program by the end of their first year.IntroductionThere is a large body of research concerning how a student chooses a college major, but little ofthis literature narrows down majors beyond concentrations or categories like STEM or NaturalSciences [1]. There has been research into the initial decision of choosing a major with twoprimary focuses: experiences before college and anticipated salary after college [1, 3, 4]. Forexample
, Frankfurt, Hamburg, andVenice, and then spread throughout Europe, and ultimately to the United States via England.1-3These publications, referred to as price-currents, listed market prices for various goods thatincluded many agricultural products and a limited number of chemicals, such as potash,saltpeter, sulfur, etc.3,4 One of the first price-currents published in colonial America was theSouth Carolina Price-Current and it included chemicals such as indigo, turpentine, and variousanimal/plant oils.1,5 Price-currents continued into the early 1800s and then developed into, orwere displaced by, specialized financial newspapers or trade magazines that often includedpricing.1 Some of the earliest trade magazines focusing on chemistry and chemical
, where it may be measured, has been enthusiastic and almost wholly positive.Introduction:Citizen scientist (CS) projects generally engage a large number of non-professional scientists inconducting novel research. Most often, the work conducted depends greatly on recruiting andtraining many amateur researchers to contribute to scientific tasks which would not bemanageable for a typical university research group. Such work may also be referred to as crowd-sourced science, or community science.While engaging the general public in scientific research is not a new concept, the ability toconnect and coordinate vast numbers of volunteers over the internet has facilitated a recent boomin CS work [1]. Several projects have been remarkably successful
and outreach programs, STEM teacher development, and climate change education programs.Dr. Matthew W. Roberts, Southern Utah University Dr. Roberts has been teaching structural engineering topics for 16 years. He is a professor of engineering at Southern Utah University. c American Society for Engineering Education, 2018 Civil Engineering Students’ Views on Infrastructure in the U.S.IntroductionInfrastructure is critical to society and drives the economic growth and well-being of communi-ties. In the United States, decades of underinvestment have led to a deterioration of the infra-structure and the need for extensive maintenance and renovation [1]. To meet this challenge, aneed exists to produce
scientists andengineers, to apply bits of it they find appealing to their own teaching.Our understanding of rhetorical situations and how to analyze them is underpinned by therhetorical triangle, derived from the work of Lloyd Bitzer [1].We share the triangle graphic shown above (usually just sketched on the board), explaining thatevery communication situation (whether a lab report or a memo or progress report or journalarticle) shares these elements: there is one or more speakers or writers, talking to one or moreparticular audiences, about a given topic, in a genre, and against a wider context. Genres, in thismodern sense, refer to recurring types of communication with certain conventions, such as thosenamed in the list above (“lab report
alsoplaced at the school district’s Central Office (CO) and Internet Service Provider (ISP). Identicalmeasurements are recorded from each agent at a polling interval ranging from 10 minutes to 1-hour dependent on the importance of the service being monitored. Higher importance servicesare monitored more frequently than lower importance services. Data analysis is applied toestablish a performance baseline for each service, at each agent location, over the same timewindow.The data collected and presented enables the limited IT staff of the school district to identifyperformance issues promptly and automatically narrow down the fault domain. Themethodologies employed and shared in this study will allow for automatic and proactivenotification of the