projects in our program.Throughout the academic year of Fall 2019 and Spring 2020, an MSP432 MCU has been usedand taught in three different courses throughout the embedded system integration track in theESET program from sophomore to junior/senior undergraduate students [1]. In this paper, thedetails of the courses in the embedded system integration track and transitional progress andstudents’ learning progress throughout the embedded system course curriculumII. Embedded System Integration TrackThe ETID department offers an Embedded System Integration minor. Students learn aboutembedded system hardware and software development and how these systems are used inproducts and electronics. This minor requires five courses of 18 hours and is open to
stochastic. Moreover, the manufacturing system isinterconnected among its different subsystems and components, which cannot be described onlythrough the theoretical explanation. Here, computer simulation can be integrated to design andvisualize the stochastic and complex system. This paper uses the advantage of simulation todescribe a series classroom activity using SIMIO software, which are deployed in industrialsystems simulation course in the University of Texas at El Paso. Besides, the authors show a nobleapproach to demonstrate the simulation using the virtual reality (VR) technology in Unityplatform. Integration of these simulation based classroom activities provide three-fold benefit tostudents’ learning process; (1) it provides an effective
determines if the professional learning experience helped theteachers to better implement the Framework for K-12 Science Education and the SEEd Standardsin their own STEM classes.IntroductionIn June 2019, the Utah State Board of Education approved the new Utah Science withEngineering Education (SEEd) Standards [1], which came as a result of the Next GenerationScience Standards (NGSS) and the Framework for K-12 Science Education [2]. These standardsinclude the expectation that K-12 science teachers in the state of Utah incorporate engineeringinto their science classes. Studies show that many teachers have struggled to accomplish this [3][4] [5]. There are several possible reasons for these struggles. The results of one study show thatmany science
disasterassessments of infrastructure, establishing emergency relief camps including temporary shelter,energy and water, developing appropriate technologies, and providing sustainable and reliableaccess to improved health, economic opportunity and security [1]–[3]. Such efforts currentlyalign with internationally recognised frameworks including the Sphere Handbook, Charter andStandards, for short-term humanitarian response [4], the Sendai Framework, for disasterpreparedness [5], and the United Nations (UN) Sustainable Development Goals (SDGs),focusing on long-term development [6].This dedicated role for engineering began to be documented in the 1970’s, through work such asSmall is Beautiful [7], which captured concepts such as appropriate technology, and the
82Mississippi counties are "designated natural disaster areas". How can Mississippians better prepare andrespond to current and forth-coming disasters and further mitigate the loss of life and property? How canunderserved populations gain access to needed disaster preparedness information, preparedness training,and resources? Table 1: Examples of Mississippi Underserved Populations (571,000 MS below poverty) (from U.S. News and World Report, 2018 and 2019 citations from John Mutter, author of "The Disaster Profiteers: How Natural Disasters Make the Rich Richer and the Poor Even Poorer.”) Disaster Type Impact Natural Disasters (various) May not have cellphones, broadband or regular use of
for developing competitive ATE proposals to NSF to preparetechnicians in advanced technologies that drive the American economy.Introduction/BackgroundThis paper is the second in a series of annual papers about the role 2-year Hispanic ServingInstitutions (HSIs) have in educating technicians from underrepresented groups and how theNational Science Foundation (NSF) sponsored HSI Advanced Technological Education (ATE)Hub program supports faculty at HSIs in improving Hispanic/Latinx student success. Last year’spaper [1] described the research need, provided a project overview, included baseline and initialdata, and discussed early lessons learned and their implications for future research. This paperdescribes continued fostering of the HSI ATE
important part of this process is empathy. Byempathizing with their users, engineers design innovative solutions that focus on their needs,discover new product applications, avoid potential future mistakes, and save money andresources. Although the benefits are clear, research shows that engineering students become lessempathetic over the course of their studies [1]. According to a longitudinal study conducted byErin Cech from Rice University, engineering students rated the importance of matters that showcompassion, such as wanting to improve society, being active in their communities, and helpingthose in need, lower after they completed their studies [1]. According to Cech, “If students arenot prepared to think through issues of public welfare
learners of all ages. c American Society for Engineering Education, 2020 Empathy, Engineering and Girls (Fundamental)Women’s participation in engineering remains consistently underrepresented. Mechanicalengineering, the discipline with the highest percentage of engineering graduates, hasapproximately 25,000 graduates per year, with only 10.9% women in the discipline; civilengineering and electrical engineering, which tally the second and third highest numbers ofengineering bachelors degrees, with approximately 12,500 graduates per year each, has 14.8%and 9.4% of all employment apportioned to women [1] [2]. The need for establishing a criticalmass of women and the need to evolve engineering
Methods, Tools, &Practice I (ENGR 110), is structurally analogous to the previous introductory course and isprimarily focused on introduction to and practice with fundamental engineering skills. The secondcomponent, Engineering Methods, Tools, and Practice II (ENGR 111), is primarily focused onapplication and integration of the skills developed in ENGR 110. There are a variety of skillstaught in ENGR 111, including 3D design, programming, teamwork, and critical thinking.Potentially one of the most unique features of ENGR 111 is that the course is conducted in amakerspace; more specifically, a 15,000 ft2 makerspace called the Engineering Garage (EG).Typically, makerspaces are used to offer training in new skills and/or knowledge [1
the Paris Agreement within the United NationsFramework Convention on Climate Change (UNFCCC) [1] agreeing to, among other things,reduce global GHG emissions and begin transitioning to renewable energy production. Thismassive undertaking requires a significant paradigm shift in technologies, economics, and socio-politics. As industrial and technological leaders, engineers will be at the forefront of thistransition thus requiring a holistic approach to the energy transition problem. This approach toeducation is herein termed the E3-systems approach referring to the need for engineering studentsto understand systems in the domains of energy engineering, ecological sciences, and socio-economics.Germany’s “Energiewende” provides an interesting
outdoortemperature was cool and adequate, opening balcony doors or windows while keeping the system on, etc.Daily energy consumed for each case was collected using the electrical company’s database who collectsand stores all data using smart meters for the investigated apartment.It was seen that increasing the indoor set temperature by 1-5° F for couple hours in the afternoon or atnight can save up to $80 per month or even more if combined cases were adopted. The results presentedin this study depend on the circumstances of the house where the data was collected and it may notreplicate the same/exact results if applied to other apartments/houses.The project helps the students meet the course learning outcomes in addition to ABET learning outcomesfor MET
the other hand, were excited to learn somenew skills. If we were to do it again, we would strive to make the project challenging for allstudents and arrange the class time to best fit the project.IntroductionIncorporating service-learning into a single course is already challenging given the logistics andinteraction with the service partners. Incorporating a common service-learning project into twocourses in two drastically different disciplines (engineering and art) is an even more challengingtask, as reported in this paper. As Nusaybah Abu-Mulaweh and William C. Oakes reported, it isa fine art to balance student learning and community relations in software-based service-learning[1], and our service-learning project involves coding in an
spanningusing a range of criteria (see Table 1). They used this meta-analysis to generate an understandingof what boundary spanners are and how they are relevant to the field of engineering. We use thisframework to better understand the benefits and challenges of the liaison role being pioneered inour center for STEM outreach and engagement.Table 1. Four key areas of boundary spanning (Jesiek et al., 2018) Types of Boundaries Definitions and Roles of Activities of Boundary Competencies of Boundary Spanners Spanners Boundary Spanners organizational linking pin information and no formal categories, but
. It is here that studentssometimes lose focus and cannot see that they are still headed to the career or specialization thatsparked their interest. They forget why they chose engineering in the first place, and so retentioncan be a challenge. This paper will present a course that not only addresses this issue, but alsoincorporates project-based learning and community involvement to enrich the educationexperience.BackgroundInarguably, engineering is a challenging curriculum. STEM fields have a completion rateranging from 21-54% as opposed to business at 63-71% [1]. In addition to academic challenges,notably in math [2], students need motivation and perseverance. Motivation in particular can behighly effective, and it was shown that getting
experience[1]. It is not possible to understand the processes of service learning without considering Kolb’sexperiential learning model [2, 3]. Kolb used the term “experiential learning” to describe hisperspective on learning in order to link his ideas to their roots in the works of [4, 5, 6] and toemphasize the central role that experience plays in the learning process. Within Kolb’sexperiential learning theory [2, 3], learning is described as a four-stage cycle consisting ofconcrete experience (feeling dimension), reflective observation (reflecting dimension), abstractconceptualization (thinking dimension), and active experimentation (doing dimension).In order to develop graduates who possess the knowledge, skills, and teamwork necessary to
engineering and mechatronics engineering courses. These are the first courses inour college that met or will meet the service learning definition in our QEP. This paper detailsthe successes and the ‘lessons learned’ through service learning in those classes at KennesawState University, including feedback from the instructors and students. We also explain futureplans for expansion into other engineering courses.Service learning has been shown to enhance personal outcomes, social outcomes, learningoutcomes, career development, and student retention [1]. In engineering specifically, Pierrakoset al. found sophomore students in a service learning experience better learned and were able toapply engineering knowledge, they valued and were challenged by
Engineering Education, 2020 Engagement in Practice: The SMU Maker Education ProjectIntroductionFor nearly two decades, collections of like-minded individuals have united to createmakerspaces in their communities. Community makerspaces serve as places where people cancongregate, access high-tech tools and materials, share design knowledge, and make unique andpersonally-relevant items [1]. This phenomenon, known as the maker movement, has spread toinstitutions such as universities, libraries, and museums [2], [3]. A number of these institutionshave created makerspaces and launched maker programming with the goal of fostering the skillsand mindsets commonly exhibited by the people participating in the maker movement [4].More recently, K-12
purpose of this paper is to describe all aspects of the Springer 1 course,including course content, teaching methods, faculty resources, and the design and results of aStudent Assessment of Learning Gains (SALG) survey to assess students’ learning outcomes.The feedback from the SALG indicated positive attitudes towards course activities and content.Challenges for full scale implementation of the Springer course sequence as a requirement in thetransformed curriculum are also discussed.IntroductionAll ABET accredited civil engineering programs are required to have a “curriculum culminatingin a major design experience based on the knowledge and skills acquired in earlier course workand incorporating appropriate engineering standards and multiple
research in- terests include team work and collaboration in construction, effective communication in spatial problem solving, and design - field team interaction.Dr. Yunfeng Chen, Purdue University Programs Dr. Yunfeng Chen is an Assistant Professor in the School of Construction Management Technology at Purdue University. She is the founder/director of Construction Animation, Robotics, and Ergonomics (CARE) Lab. Her lab covers research in (1) Building Information Modeling (BIM)/Infrastructure Infor- mation Modeling (IIM); (2) Ergonomics and Human Factors; (3) AR/VR and Game; (4) Automation and AI; (5) Construction and Transportation Safety. She has been awarded one locally funded project from Local Technical
engineering disciplines. Many of these concepts are spatial in nature [1], [2] and likelyrequire well-developed visualization skills to understand. The importance of spatial visualizationskills for STEM majors in general is well-established [3]. A number of targeted trainingapproaches can improve these skills as measured on validated instruments such as the PurdueSpatial Visualizations Test: Rotations (PSVT:R) [1] and can improve grades in introductorycalculus [4]. Targeted spatial training offers potential to increase overall student success inSTEM, but studies have yet to show causality in improvements to retention and degreeattainment [5]. Women generally enter college engineering programs with lower spatial abilities[4], so interventions
healthy and resilient communities [1]. In these four stated grandchallenges, the application of mass balance principles is fundamental to understanding anddeveloping solutions in natural systems. Therefore, we argue that undergraduate environmentalengineering students must be proficient in the use of mass balance principles as is required forother fields of study, such as chemical engineering [2]. The population of students acquiringessential environmental engineering capabilities is eclectic at our institution. Every studentgraduates with a bachelor of science degree regardless of academic major. Therefore, non-engineering majors must take a three-course engineering sequence. There are seven engineeringsequences from which students select with
FabricationAbstractThis paper seeks to evaluate the challenges and successes in incorporating a beam fabricationmodule into a Concrete 1 engineering design class for Architecture and ArchitecturalEngineering students. While this class is usually taught in a lecture format, the inclusion of ahands-on activity aimed to accomplish the following goals: • Student learning about principles of flexure and shear through hands-on exercises • Engage students in course material by giving the first-hand experiences with concrete construction • Structure task to encourage competition between small groups • Prompt students to consider multiple solutions to a given problem • Involve other learning settings to give students a more well-rounded
platforms make them very comfortable with images and visual learning.Laptops and cell phones are constant sources of distractions, especially if course materials are largely text-based. In order to ensure that a solid understanding of concrete is achieved, course material should be moreGen Z-friendly. Due to advances in image processing and optical technology, instructors can providevisualized and example-based course materials to explain concrete now more than ever before.This study presents a visual, data-based, and engaging approach to teaching concrete. This study introducesvisuals of (1) crystals of clinker, (2) hydrates growing around cement, (3) microstructures of hydrates(hydration products), (4) Interfacial Transition Zone (ITZ), (5
. He received his Ph.D in Computer Science from the University of Maryland Baltimore County, his M.S. in Computer Science from the University of Minnesota and his B.S. degree from the University of Pune, India.Mr. Gian BrunoXornam Apedoe, University of San FranciscoProf. Sophie Engle, University of San FranciscoSami Rollins, University of San FranciscoProf. Matthew Malensek, University of San Francisco c American Society for Engineering Education, 2020AMERICAN SOCIETY FOR ENGINEERING EDUCATION, JUNE 2020 1 Engendering Community to Computer Science Freshmen through an Early Arrival Program
real engineering problems and the mathematical concepts andtheorems learned in classes (Laplace transform, transfer functions, finite difference methods, forexample). Student feedback on these projects is positive.1 Introduction Mechanical engineering students usually complete Calculus I and II, Multivariate Calculus,Linear Algebra and Differential Equations in four or five semesters. All these mathematicalcourses are required in the program curriculum. Primary contents that students learn from thesecourses include: (1) differentiation and integration, calculus of one variable and infinite series inCalculus I and II; (2) differential and integral calculus of functions of two or more variables andvector functions in Multivariate Calculus; (3
Societyof Mechanical Engineers [1]. From the experience of teaching this class multiple times, it wasobserved that students usually miss the connection between dimensioning and actualmanufacturing processes as a manufacturing experience is not offered until junior level. Lack ofmanufacturing experience makes it very challenging for our students to construct the knowledge[2] and make this skill be recalled throughout their career. Our undergraduate assessment continuesto show that we are not performing well in this area. This paper allows us to address the problemsthrough a virtual experience based around the success of MOOC’s [3] and literature thatemphasizes key qualities of online video content [4]. The target students in this project arefreshman
meritocracy [1], can create conflictinginterpretations of what it means to be an engineer and even promote a culture of disengagement[2].The motivation behind this work began as we sought to incorporate exercises into ourengineering courses to help students integrate their personal values with how they envisionthemselves as professional engineers. Research indicates that sometimes the personal values ofstudents and their everyday experiences clash with the social norms and practices created byformal schooling [3]. These “cultural borders” exist for a variety of reasons and it is up to theinstructors to act as “culture brokers” [4]; thus, we continued to foster the spaces where studentscould engage in conversations that acknowledged their everyday
where he worked on modeling the transient dynamic attributes of Kinetic Energy munitions during initial launch. Afterwards he was selected for the exchange scientist program and spent a summer working for DASA Aerospace in Wedel, Germany 1993. His initial research also made a major contribution to the M1A1 barrel reshape initiative that began in 1995. Shortly afterwards he was selected for a 1 year appointment to the United States Military Academy West Point where he taught Mathematics. Following these accomplishments he worked on the SADARM fire and forget projectile that was finally used in the second gulf war. Since that time, circa 2002, his studies have focused on unmanned systems both air and ground. His team
the 21st century, creativity will grow in importance.”1 Thesewords were written in 2004 as the National Academy of Engineering (NAE) described what theyenvisioned of the engineer of 2020. The NAE includes creativity as one of six “engineeringhabits of mind” that successful engineers must develop, in addition to mastering technicalcontent (the other five are systems thinking, optimism, collaboration, communication, and ethicalconsiderations).2 As the third decade of this century approaches, the indispensable nature ofcreativity for engineers is evident; calls for developing creative and innovative engineers havebeen made.The 3rd Edition of the Civil Engineering Body of Knowledge published by the American Societyof Civil Engineers (ASCE
resources, health and human rights crises, andmore – require complex, multi-faceted solutions [1], [2]. As such, developing these multi-faceted solutions requires a multidisciplinary approach. Policy-makers and leaders,communications and community developers, scientists and health-care professionals,economists, engineers, and many other disciplines must all come together if there is to be hope todevelop workable and sustainable solutions [3]. Leaving the problem definition and solutiondevelopment in the hands of anyone of these groups alone will not suffice [3].The UN Sustainable Development Goals (SDGs) define the 2030 global agenda forstrengthening universal peace for people, planet, and prosperity. Established in 2015, the 17SDGs and 169 targets