, and students encounter limited opportunities to engage in social aspects ofengineering in undergraduate programs [1], [2]. Research has shown that the perception ofengineering as a “technical-only” field can alienate students who hold beliefs in communal goals,which rely on social knowledge and skills, even if they achieve excellent academic performancein their engineering coursework [3], [4]. Such research findings point to the need for developinggreater understanding of the types of skills and practices that could potentially draw students toparticular disciplines within engineering.Thus, our research focused on understanding aspects of engineering practice that first yearmechanical engineering students described as important to their
become increasingly significant. Engineering projects are oftencomplex, expensive, and high-stakes, requiring a solid grasp of skills not typically covered in anengineer’s bachelor’s or associate’s education [1]. Project management provides the frameworkand tools necessary to turn ambitious visions into tangible reality. It empowers organizations toadapt, respond, and thrive amidst challenges and opportunities [2]. Project managementeducation provides engineers with the ability to optimize resource allocation, meet customerexpectations, adapt to market changes, mitigate risks, and foster innovation [2, 3]. These skillsare essential for engineers to design and execute projects in an environment where requirementsare constantly changing [2].While
) provide students with hands-on laboratory skills, and (iii) offer studentsengaged in an online course in-person experiences and the corresponding academic and socialbenefits.The objective of this course is to develop critical thinking, teamwork and collaborative skills, aswell as the ability to use physical laboratory equipment to obtain and analyze data. Weeliminated some of the homework problems to account for the time spent in preparation for lab,the lab sessions, and writing the post-lab reports. The labs accounted for 10% of the total gradeand included a prelab quiz, a post-lab report, and one or two exam questions for each lab.The three labs were: 1. Introduction to Pipetting 2. DNA Extraction, PCR, and Gel Electrophoresis 3
study were:What are the perceived objectives and perceived learning experiences of students in our CHElab? To what extent do these experiences differ for students enrolled in the traditional courseand the revised course?Prior work explored student experiences in the laboratory by analyzing survey results from theSelf-Assessment and Direct Skills Test [1-4]. These assessments contained primarily close-endedquestions with some open-ended prompts. Distinct from prior work, the methodology for thiseffort followed the six phases for thematic analysis outlined by Braun and Clarke [5] and wasapplied using a phenomenological lens where the authors seek to describe different ways a groupof people (chemical engineering students) understand a phenomenon
. Thestudy analyzed student performance and course evaluations from an introductory materialsscience and engineering course at a university in the Southeastern United States. Initial findingsindicated that the average exam scores between the traditional and flipped setups did not differsignificantly. Further examination of the exam results was conducted to identify areas of difficultyand develop an enhanced approach for delivering course material. Additionally, the studyassessed student satisfaction levels through analysis of course evaluation data.1. IntroductionEngineering education involves researching and establishing effective instructional methods inhigher education. In higher education, instructors often teach larger numbers of students than
university curricula. See his YouTube channel at: https://www.youtube.com/c/TheBomPE American c Society for Engineering Education, 2021 Adding Industry-Based Certification and a Recruiting Partnership to Increase High School Participation in a Workforce Pathways ProjectAbstractThe objective of this paper is to share how an industry-based certification (IBC) and a strategicrecruiting partnership were integrated with a federally-funded, Arduino-based high school dualenrollment course in basic electricity and instrumentation in order to increase high school teacherparticipation in the project (see Figure 1). Project COMPLETE is
careers.The Master of Engineering Management (MEM) Program at the University of Nebraska Lincoln(UNL) has no face-to-face component or requirement, and it is offered through Canvas, aLearning Management System, widely adopted by many institutions. The entire program is web-based and delivered asynchronously. The MEM is a professional master’s degree for individualswith STEM undergraduate degree and employed in engineering and technology industry.Relevant work experience is required for admission. Average experience (post baccalaureatedegree) was 59 months (~ 5 years) for those enrolled between July 1, 2019 – June 30, 2020.The non-traditional demographic of MEM students is a key criterion to consider inadministration of the program, engaging the
effect of takingAP credits on GPA computed at the end of the first year. To reduce the bias, propensity scoremethods were used to analyze the data. A doubly robust approach was used to estimate the averageeffect. The findings show that students who come into engineering with AP credits have a first-year college GPA that is 0.222 higher, on average, than those who do not come into engineeringwith AP credits.BackgroundIn 1952 the Advanced Placement Program, also known as AP, was initiated by the College Board.The goal has been to offer high school students with college level courses to close the gap betweenhigh school and college[1]. These courses are offered in a majority of high schools across thenation, however, not all of these schools offer
freshman year. In most curricula, computing is then systematicallyignored for the remainder of the program, resulting in graduates who are weak in computational science.In many institutions, ours included, the freshman computer science course fell victim to cuts caused bypressure to reduce the number of total hours in the curriculum. These outcomes stand at odds with thefeedback from industry that students need more computational knowledge upon graduation [1].There is room for debate as to which computational environment is best for students to learn and whatshould be the nature of computational knowledge taught. The answers vary across disciplines anduniversities, yet faculty generally agree that students need more education in how to use
course [1]. During my “check-in”surveys after the emergency move to online teaching due to COVID-19, my students reported alack of student-to-student interactions. This paper examines methods explored and utilized toimprove student-to-student interactions, specifically in the context of the Team-Based Learning(TBL) pedagogy.BackgroundThis paper will describe the transition from in-person to fully online instruction for twoundergraduate mechanical engineering courses, (1) Statics and Introduction to Mechanics ofMaterials and (2) Dynamics. The courses had enrollments of 56 and 36 students, respectively,and both courses were taught in an active learning classroom by the primary instructor withsupport from a graduate teaching assistant and
encourage greater allyship for women in the academic world and beyond. Thepanelists include both men and women from across multiple intersectional identities. Thequestions include (1) for what reasons are you an ally or advocate for women in engineering-related fields, (2) what experiences have you had in which you have had to take immediateaction as an advocate or ally, (3) what do you recommend for easy-to-implement actions toadvocate, and (4) how can advocates and allies help implement change at their own institutions.For the paper, each panelist would be asked these questions and their answers would be providedunedited, followed by a summary discussion of actionable items. For the panel presentationsession, each panelist will have the
sampling receiver.IntroductionIn modern signal processing systems, the input analog signal is usually digitized first and thenfed into a digital signal processor. The digitizing process can be divided into two steps: samplingand quantizing. The sampling process can be described mathematically as a multiplication with acomb function, which is a periodic pulse train with very narrow pulse width. In the frequencydomain, the multiplication becomes a convolution. The comb function is very interesting inFourier transform, since the result is still a comb function. Therefore, the effect of theconvolution is generating many copies of the transformed input signal with the spacing of thesampling frequency, which is shown in Fig. 1 [1]. If the sampling rate
actively engages with powersystems and dialogue, honoring lived experiences and committing to an ethic of care andaccountability. This provocation provides a sample case for understanding accomplicerelationships and suggests heuristic for potential accomplices to use in establishing enduringcoalitions between Black and white women.IntroductionIn 1979, Audre Lorde [1] published a letter she’d written to Mary Daly, author of Gyn/Ecology.In it, Lorde, a Black queer woman poet and theorist, praised Daly for her work and yet shared thereality facing Lorde as she read it: To imply, however, that all women suffer the same oppression simply because we are women is to lose sight of the many varied tools of the patriarchy. It is to ignore
and one‘control’ group, plus interviews with 14 engineering alumni. Among engineering alumni whohad received at least one exemplary ethics educational experience, 58% rated the level that theybelieved they were adequately prepared through their education to face ethical issues in theirwork at 8-10 (on a scale of 1 to 10), and 49% rated their preparation to consider societal issues at8-10; only 1% and 4% rated these at 4 or less, respectively. These averages differed acrossinstitutions (e.g., average for ethical issues 8.2 at a religiously-affiliated R2 institution versus 6.3at a Public R2 institution). Alumni described courses in college (undergraduate or graduate), ifany, that impacted their understanding of the role of engineering and/or
groups before and after the experiment. In addition tothe survey, the sketches generated by the participants in both groups were collected and analyzedfor novelty. Self-perception before and after the creative activity was compared to see if acreativity activity has an effect on how creative an individual perceives themselves to be. Thenovelty analysis has shown that the difference between the two groups is insignificant.Introduction/ MotivationCreativity has recently become increasingly important in our knowledge-based economy, and thepressure to perform creatively is ever-present in many aspects of our lives. How creative weperceive ourselves to be can have an impact on how we perform creatively [1]. Throughout life,people perceive themselves
challenge students to Ruler, scissors, sharpie, colored square stickythink creatively and critically about engineering notes, white posterboard, projector, computerdesign through the example of resolution in digitalcameras, and in turn empower students to besmarter consumers.While the target audience is middle school, part 1can be done by children in grades 1-5, and morechallenging extensions can scale to the level of thestudents.Keywords: resolution, optics, trade-offs, engineeringdesign, digital cameras, middle school, hands-on Learning Objectives Preparation Synthesis and Abstraction 1. Draw 3"x3" sqares on
universities. The authors recently started one such program forstudents interested in civil engineering. They entered this field because of a perceived need forcivil engineering pre-college education and the proven effectiveness of summer programs inincreasing student interest in STEM fields.According to the U.S. Bureau of Labor Statistics [1], the domestic engineering field isanticipated to add over 130,000 jobs from 2016-2026. The largest portion of these jobs is forcivil engineers who account for nearly a quarter of this anticipated job growth [1]. Despite thegrowing demand for civil engineering services, civil engineering enrollment in 2016-2017dropped by approximately 3,000 students compared to 2008-2009 [2], [3]. This drop in civilengineering
% eitherundetermined or other [1]. Many colleges selectively reopened specific classes for face-to-faceinstruction with varying degrees of success and some had to quickly shut down again. Many ofthese courses were upper division laboratory or activity classes. There were fewer which openedsuch courses for incoming freshman classes.This paper covers the rapid transition of a traditional freshman experience to a hybrid face-to-face course in the Fall 2020 quarter. The course features a virtual lecture each week and tenseparate hands-on activities that required different modes of instruction and involved differentsocial distancing protocols. Furthermore, the course was required to provide virtualaccommodation for those students who chose not to return to campus
c Society for Engineering Education, 2021 An Exploration of Social and Educational Influences on User- Centered Design: Revisiting a Compatibility QuestionnaireAbstractMany different factors actively influence the approach a user takes when interacting with a givenproduct or system. The user-product interaction is a form of communication primarily dependenton (1) the message that the product is transmitting in terms of its usability and (2) the user’scognitive ability to receive, process, and understand such message. The external interfaces of aproduct or system are where these interactions generally occur, which are typically developedfollowing user-centered design principles. An intuitive interface which
An Initial Exploration of Engineering Student Perceptions of COVID’s Impact on Connectedness, Learning, and STEM IdentityMany STEM students were affected by the pandemic and subsequent switch to remote learningin different ways. However, one common issue is that moving from face-to-face interaction toremote interaction (e.g., Zoom) has left many students feeling detached from their STEMcommunities which in turn negatively affected their learning. For example, 46% of engineeringand technology students at IUPUI reported “loneliness and lack of connection” as result of thepandemic and 61% agreed that “online learning is [a] difficult format for learning” [1]. In thispaper, we seek to understand how the pandemic and remote learning
dependencies, (c) timing of deliverables using the available spreadsheets. The methodhas been introduced in both undergraduate and graduate introductory project managementclasses. Student feedback shows that the method supports concept mastery by demonstratinghow to achieve balanced solutions.Key Words: Resource Allocation, Scheduling, Optimization, Linear ProgrammingIntroductionTranslating customer requirements into work activities and then developing an effective plan foraccomplishing them is a key aspect of project management. Project managers are challengedwith taking a set of activities that need to be performed in a certain sequence and completedwithin a specified time and cost [1]. An effective project schedule provides the framework forthe
2020, few expectedthe COVID-19 outbreak in the United States. After the national emergency of the COVID-19pandemic was declared, universities in the United States took drastic measures to close campusand use the spring break week for preparing and switching teaching online. The fast growth oftechnology has laid the ground for online teaching [1] [7]. However, there are still a lot ofuncertainties about the impact of distance learning on students’ learning effectiveness [6], andthe forced online teaching and learning during the Covid-19 pandemic is one of those emergingtopics [4] [5]. Given the narrow time window for this transition, Rochester Institute ofTechnology (RIT) provides the instructors with three alternative approaches to deliver the
informal settings for engineering learning, and promoting engineering thinking in children with special needs in informal and formal settings. American c Society for Engineering Education, 2021 ENGINEERING DESIGN FOR CHILDREN ON THE AUTISM SPECTRUM This handout provides a research-based guide for developing appropriate engineering design activities for children on the autism spectrum (Activity Components) [1][2]. It also provides some instructional strategies that educators can use to better support children with autism’s engineering engagement (Instructional Strategies) [1]. In Page 2, the Design an Amusement Park Activity is briefly
Rapid Transit district’s 1990’s expansions in the East Bay and SFO Airport at three billion to the New Starts program for the Federal Transit Administration with over a hundred projects and $85 billion in construction value. At the latter, he also acted as source selection board chairman and program COTR for $200 plus million in task order con- tracts for engineering services. Working for the third-largest transit agency in the United States, the Los Angeles County MTA, Michael managed bus vehicle engineering for $1 billion in new acquisitions and post-delivery maintenance support for 2300 vehicles with some of the most complex technology (natural gas engines and embedded systems) in the US transit industry in the
disciplines are discussed andanalyzed for their effectiveness. This effectiveness is based on student feedback from end-semestersurveys, student evaluations of teaching as well as one-on-one student engagement during thesemester. Specific questions students are asked relate to the use of audio/video conferencingsoftware, pre-recorded videos, simulation/data-analysis software, group versus individualassignments/discussion, and synchronous versus asynchronous content delivery.Introduction The declaration of COVID-19 as a worldwide pandemic by the World Health Organizationin March 2020 had an unprecedented impact on the daily lives of citizens across the globe [1].With social distancing a major recommendation of health officials to combat the
providing students with a hands-on laboratory experience featuring thedevelopment tools, network topologies, and design paradigms needed for building real-world IoTproducts, primarily IoT Edge Devices. This paper describes the development process, lessonslearned, and exemplar student outcomes from our work.The IoT sector has grown rapidly in the past few years to become a critical infrastructure thataffects our daily lives in many ways. 1 IoT sensor networks deployed throughout our homes,offices, hospitals, factories, cities, power grid, and beyond provide the opportunity for greatersecurity, safer environments, reduced energy consumption, higher levels of comfort, and manyother benefits. Managing these ever-expanding networks using only Cloud
no time in industry, oftenstruggle with connecting course learning objectives to the wider outside world. However,students benefit from intentional interactions with professionals in their area of study [1].Informational interviews, site visits [2], industry-sponsored projects [3], and adjunct instructorsfrom industry [4] all provide educational advantages within the context of an engineeringcurriculum. Each of these can require a great deal of time on the part of the industry liaison ornecessitate curricular changes. Another common tactic is to bring in a guest lecturer for a singleclass session to give a talk on her specialty or to tie class material to industry. This is a fairlycommon practice and relatively easy to schedule because one
of scientific funding to have broader impact, and ways to improve diversity in STEM fields. He is currently American c Society for Engineering Education, 2021 Paper ID #34079 the director of the $4 million State University of New York Louis Stokes Alliance for Minority Participa- tion (SUNY LSAMP) and the $1 million S-STEM Scholarship Academic and Social STEM Excellence for Transfer Students (ASSETS) programs. These NSF sponsored programs help low-income, and under- represented minority students persist and succeed in STEM majors and careers. Dr. Woodson
assigned to our students with thetopics on virtual reality (VR) modeling related to renewable energy, power systems, environment,robotics, or other engineering topics. These projects have become a good example of student-centric green STEM program as well as providing valuable hands-on experience to the students.In addition to providing useful lessons in teamwork and project management, the projects providea working demonstration of a wind and solar energy system. The goals of all the projects are toexplore and enhance student understanding of the green STEM program and how they can betailored for fast graduation of enrolled students. The objectives of the final project in EET 320Renewable Energy Systems include: 1. To design a 3D model of Wind
: 1) Self, 2) Interpersonal, 3) Team, and 4) Organizational/Societal. • Common themes in curriculum consisted of leadership theory, practice and reflection, team building exercises, seminars by industry leaders, leadership capability assessments, and student leader coaching, all with continuous improvement of curricular components. • Leadership learning outcomes were measured by: 1) Effective leadership, 2) Synthesis and problem solving, 3) Practical competence and 4) Change agility. • Consistent with the trends in industry, topics such as Ethics [16], Systems Thinking [17,18,19], Innovation [20] and Peer Coaching [21] have gained emphasis in the leadership curricula