therelationships between industrial and ecological systems.17,18,19 This paper focuses on the secondpart of the two-course sustainability sequence that is a problem-based course based onquantifiable life cycle analysis using multi-parameter sustainability tools, including footprintanalysis, GREET LCA software and Sima Pro LCA software. The expected outcomes associatedwith the course, which address ABET student outcome criteria a, c, e, h, i, j, and k that are listedin Table 1. The topics covered in the course are mapped to the expected course outcomes inFigure 1.This paper discusses the implementation of a semester-long deep-learning project designed forstudents to engage with and compare GREET and SimaPro LCA platforms for analyzing theenvironmental
(ABET) criteria in 2000[1]. Consequently, universities have created initiatives to developengineering students’ communication skills through various modalities[2,3]. Summer researchexperiences provide a forum in which students can develop a multitude of technical andnontechnical skills in a brief, learning-intensive period over the summer[4]. This paper examinesthe implementation and outcomes of a strategic communication intervention aimed at increasingcommunication skills and self-efficacy among participants of a National Science Foundation(NSF) Research Experiences for Undergraduates (REU) site in biomedical engineering.BackgroundResearch Experiences for Undergraduates The beneficial influence of research programs on students
, erroneously, referenced only within the arts, yet itsdevelopment and nurturing is critical to the sciences as well. Unfortunately, rigid curricula, anover-emphasis on standardized testing, and increased identification and medication of studentswith ADHD all contribute to a decreases within several dimensions of creativity 1.Creativity and innovation, within a supportive structure, are requisite components for reliablydeveloping solutions to complex problems. This is true at an elementary level, but also as itapplies across the learning continuum and eventually, to the workplace 34. The role of individualcreativity is integral to organizational innovation and the highest levels of innovation occur whenthis relationship is symbiotic 38-41.Reflections
modelling paradigm tosimulate health effects from environmental and anthropogenic exposures to pathogens (1–4).QMRA is a growing field that is developing as a trans-disciplinary science that incorporatesconcepts and knowledge from: physics, microbiology, pathology, public health, engineering,biochemistry, mathematics, communications, epidemiology, biostatistics and sociology.Unfortunately there is a dearth of experts in fields not related to engineering, mathematics andmicrobiology in current QMRA expertise. Therefore, there is a need to expand the breadth ofscientists engaged with QMRA modellers and scientists. In order to facilitate the training ofthese scientists in QMRA science and modelling the QMRA Wiki was developed.QMRAWikiThe genesis of
Society for Engineering Education, 2017 Demographic Shift and its Potential Effect on Higher EducationAbstract With the aging of Baby Boombers, which represent 76 million people in United States or 1/4of the overall population in this country, it creates wide-ranging implications for virtually everyfacet of American society. On par with the aging baby boomers is the growing population ofminorities. Today in many places including the densely populated states of California and Texas,non-Hispanic whites have become the minority, and the bulk of minority students includingHispanics are further concentrated in the younger grades. Many minority families do not haveaccess to information about the educational system in a way that helps support
to allow “moreopportunity for a broader liberal education on the part of undergraduates” in order to developcreative, competitive, informed, and innovative engineers [1]. One way to accomplish this is toincorporate courses from the liberal arts into the undergraduate engineering education. Anotherway is by complementing classroom instruction with the resources available in informal learningsettings, like museums. The National Research Council’s Committee on Learning Science inInformal Environments [2] concluded that museums can support reliable learning throughinquiry, sense-making, and reflection on one’s experiences. The present study examined thatpossibility by exposing undergraduates to a Green Revolution exhibit which was available at
undergraduate students were recruited to document their activities and serveas the coordinators. The scholars complete two surveys each semester, one at the beginning andone near the end of semester. Some scholars are randomly selected for one-on-one interviewswith the assessment specialist. After one year, all the scholars were able to maintain 3.0+ GPAand meet the requirement for extracurricular and mentoring activities. One scholar graduated insummer 2016 and one scholar received a Co-op position. The second cohort of 9 SCOPEScholars have been recruited in fall 2016 and they joined the current scholars. 1. IntroductionIn 2015, Lamar University (LU) at Beaumont, Texas was awarded an NSF S-STEM grant titled“Industrial and Mechanical Engineering
series editor, contributed to trade publications, and facilitated workshops all related to higher education administrators’ work experiences. c American Society for Engineering Education, 2017 Understanding the Professional Formation of Engineers through the Lens of Design Thinking: Unpacking the Wicked Problem of Diversity and InclusionIntroductionThree broad issues have been identified in the professional formation of engineers: 1) the gapbetween what students learn in universities and what they practice upon graduation; 2) thelimiting perception that engineering is solely technical, math, and theory oriented; and 3) the lackof diversity (representation of a wide
up to eight semesters offinancial aid. As a result, our engineering degrees are designed as four-year curricula that startwith Calculus 1 and General Physics 1 in the fall of the first year.In 2013, we were awarded a National Science Foundation (NSF) Graduate 10K+ Science,Technology, Engineering, and Mathematics Talent Expansion Program (STEP) grant to assistwith increasing the retention of at-risk engineering students (Jones et. al., 2014; Jones et. al.,2015). At the University of Portland, the majority of engineering students who fall into this at-risk category are those who start the first year in pre-calculus based on a Calculus 1 readinesstest that they complete during the summer before their first college semester. For engineering,our
introduce students to the project management process— including project initiation, planning, execution and closure—in a hands-on way. The curriculum of the graduate project management course (Fig. 1) was linked to that of an undergraduate biomedical engineering
. The 2016 NCES report [1]reveals that nearly 30% of all students enrolled in undergraduate programs (public, private, 2-year, 4-year) in 2015 were 25 years of age or older. This demographic is now receiving increasedattention for recruiting efforts. For instance, BestColleges.com [2] reports an increase in “degreeprograms, student associations or academic advisors specifically geared towards nontraditionalstudents”. It is important to mention that the terms nontraditional student [3] and adult learnerare often used interchangeably, but the difference lies in defining characteristics versus age [4]. A desire to meet the needs for qualified engineering professionals has resulted in effortsto increase recruitment and retention. Research
, MadisonJorge CamachoPatrick McMinn, University of Wisconsin, Madison Graduate Research Assistant c American Society for Engineering Education, 2017 Work in Progress: An Educational Kit for Introducing Microfluidics-Based Cell Adhesion Assay in Undergraduate LaboratoryYan Wu1, Ted de Groot2, Jay Warrick2, Patrick McMinn2, John Guckenberger2, Jorge Camacho3, and Dave Beebe2 1 Department of Engineering Physics, University of Wisconsin - Platteville 2 Department of Biomedical Engineering, University of Wisconsin – Madison 3 Department of Mechanical Engineering, University of Wisconsin
calibration, static and dynamic signals, computer-controlled data acquisition,data analysis, documentation, and technical writing. All those topics are important andapplicable in the two-semester Capstone course in senior design project that the students arerequired to take, not to mention any future projects they may work on as professional engineers.As such, it is recommended that junior-level students take the Measurements andInstrumentation course before the Capstone project. In practice, however, a number of studentstake them concurrently.The Measurements and Instrumentation course is offered only in the spring semester, and is a 3-unit course consisting of two 1-hour lectures and one 3-hour lab session per week. The pre-requisites are 1
graduate student experiencesinfluence engineering identity formation 1 and goal setting processes.2 Engineering identity andstudent goal setting processes have been shown to be important factors for undergraduate studentparticipation in engineering communities of practice but have not been applied to engineeringgraduate communities. Through a mixed methods approach, this study will investigate graduatestudent motivational goal setting and identity formation to answer the following researchquestions: RQ1: What are the identity and motivation profiles of engineering doctoral students, which are based on previous academic and research experiences in STEM? RQ2: How does the STEM community influence identity formation
. Sample projects include a MEMS (microelectromechanical systems) baseddifferential viscosity sensor for the continuous sensing of interstitial fluid glucose, and ex vivolung perfusion device to allow for increased functionality of potential transplant lungs, a noveltechnique to treat uterine fibroids, and high frequency spinal cord stimulation to treat chronicback and leg pain.Course Evaluations and Student CommentsEach course was evaluated using the Faculty Course Evaluation (FCE) system developed atCarnegie Mellon University. Table 1 summarizes for clarity of the learning goals and overallcourse rating for each class (out of 5.0). The ratings are typically higher than the average scoresfor both the Department of BME and College of Engineering
development opportunities.This poster examines one specific external engagement opportunity of our S-STEM program -job shadowing with a local engineer. As Bandura and Walters [1] indicate, observing can be avery effective way to learn. One goal of the shadowing experience is for student participants tohave a better understanding of what engineers do and what skills are needed in order to besuccessful. We included the shadowing activity in our S-STEM program in an effort to improveparticipants’ confidence and self-efficacy. As noted by Ponton et al [2], “vicarious experiences”,such as shadowing and observing, can serve as significant contributors in the enhancement ofself-efficacy.Perhaps one of the best features of the shadowing experience is that it
institutions, and finally, promoting the employment of reconfigurableelectronics graduates. I. IntroductionIn general Programmable Logic Devices and FPGA-based re-programmable logic design becamemore attractive as a design media during the last decade, and as a result, industrial use of FPGAin digital logic design is increasing rapidly. Considering the following technology trend inindustry, the need for highly qualified logic designers with FPGA expertise is at high demand.According to the United States Department of Labor, the job outlook is on the rise and willcontinue to expand for at least the short- to medium-term future [1]. To respond to the industryneeds for FPGA design skills, universities are updating their curriculum with courses
CurriculumThe landscape of today’s Biomedical Product Development Industry calls for a diverse set ofskills beyond the typical engineering fundamentals. The current Hospital Value-BasedPurchasing environment driven by the Department of Health and Human Services Centers forMedicare & Medicaid Services (CMS) measure all new products by their ability to improveclinical outcomes, increase patient satisfaction, and lower the cost of care.1 Preparing students tobecome leaders in the Biomedical Engineering (BME) industry therefore must include anunderstanding of health economics and a broad view of the continuum of care and overall impactof care. The proposed changes to Accreditation Board for Engineering and Technology, Inc.’s(ABET) Criterion 3 signals
Department of Industrial and Management Systems Engineering University of South Florida Tampa, FL 33620, USAAbstractThis paper discusses the steps taken to design and implement a set of workshops focused onhealthcare engineering with the aim to increase the motivation and retention of engineeringstudents, especially women. During the workshops, students had an opportunity to interact with apanel of experts working in the healthcare field. The panelists, all professional engineers andmainly females (5:2) shared their inspirations, obstacles, and achievements, and performed aninteractive case study session based on their fields of work. Two workshops were designed:Workshop 1 was only
, faculty intervention, and end ofsemester survey. The quantity and quality of comments were graded using machine-learningalgorithms built into the platform. Each comment was auto-graded on a 0, 1, or 2-point scale, themachine scoring agree very well with the professional judgment of the instructor. The spacing ofcomments across each assignment was accounted for also, which helps insure reading of the entireassignment.IntroductionTextbooks became a standard tool for higher education and engineering education in the 20thcentury. However, the amount that college textbooks are or have been read is not well studied.Some survey and reading quiz data provide a depressing snapshot [1-6]. A 2016 survey of over280,000 college and university students found
engineering workforce. PEEPS recruitsfrom our “Partner Schools,” which are high schools that have a large percentage of students whoqualify for the National School Lunch program, and thus are likely to have low socioeconomicstatus and be first generation and/or underrepresented minorities (URM). Our recruitmentmethods and results have been published elsewhere3, and are summarized in Table 1. To thisdate, we have two different cohorts and a total of 13 students. In this paper, we wish to report onprogress of the program and what we’ve learned thus far.Table 1. Eligibility criteria and demographics for PEEPS scholarship program for 2 cohorts Cohort 1 Cohort 2Criteria 2014 2015 Partner
competence measures and qualitative hermeneutic phenomenology, with qualitativeresults to follow. To delve into understanding the experience of the study abroad engineeringstudent, the research question explored is, “To what extent may a short-term study abroadengineering course influence student intercultural competence?”ContextThis paper outlines the revision of a short-term study abroad engineering course. Previously, theexisting course had been offered on alternate years for seven separate offerings, when two newcomponents were added to the content: 1. Transfer of engineering content in a new context,specifically basic engineering mechanics analysis, with a nod to structural analysis, and 2.Intercultural knowledge and competence. The evolution
conservative estimate that growthin the $15T US GDP is about 2% annual which means that the US economy is growing by about$300B per year. Using Dr. Augustine’s estimate that 50% of growth comes from scientists andengineers and further assuming engineers contribute half of this amount, engineers are thenresponsible for $75B per year of economic growth. Given that there are approximately 1 millionengineers in the workforce (Bureau of Labor Statistics, 2010), each engineer contributes $75,000annually to economic growth over and above the amount they contribute to the economy. Lookingat this a different way, each engineer that graduates contributes to creating approximately one newjob every year over the span of that engineer’s career. While this
create a cohesive and meaningful experience for the students and to be able to assessthe success of the program, clear research and education objectives were established. Followingthe NSF program requirements and keeping in mind the research expertise of the US and theinternational partners, the following objectives were established: 1) Provide the students with a hands-on international education experience in the emerging area of sustainable green building design and construction; 2) Engage the students in meaningful research under the guidance of U.S. and international mentors; 3) Allow students to create a network of international contacts in order to promote future collaborations; 4) Expose
spiral model. 1.2 “Disconnection” in computer engineering curriculum Abstraction is used in computer engineering and computer science to manage complexity. Asystem is depicted by a layered model. A simple model is shown in Figure 1(a). The computerengineering curriculum is basically aligned with the abstraction layers of the model. A courseusually focuses on one layer and provides detailed coverage. These courses are taught asindependent topics and become isolated and disconnected pieces. While students learn thespecific details of each layer, they do not have a comprehension of the relationships among thelayers. This leads to the lack of integration skill. Our work connects and integrates the individual courses through a cohesive lab
experienced contractors.IntroductionDysert [1] defined an estimate as “a prediction of the probable costs of a project, of a given anddocumented scope, to be completed at a defined location and point of time in the future.”Estimating is the process of determining the quantity of work and cost of all resources (labor,materials, equipment, and subcontracts) and incidentals required to construct projects.Projects to be built in the future are estimated in the present, and the estimates are developed toshow how much the projects will cost at some point when they are finally constructed. Suchprojection is based on what is known now and how well the future conditions can be predicted.Therefore, there is no way one can be 100% accurate in predicting and
go on to oversee United States Corps of Engineer (USACE) Districts. TheDepartment of Civil and Mechanical Engineering strives to give them the tools necessary for thatchallenge. As the Army continues to make sustainable design principles a requirement forconstruction, sustainability is becoming an ever more entrenched aspect of the program.Therefore, in 2013, the Department began offering an independent study in which the studentscould prepare for, and become, credentialed in LEED (hereafter referred to as the credentialingcourse). The course itself has three objectives: 1. Students attain the Envision Provisional Sustainability Professional (ENV SP) credential. (Not addressed in this paper). 2. Students achieve accreditation as a LEED
education argue for broad application, thedefinitive case for its adoption has yet to be documented so that all STEM educators can fullyappreciate its merit.Goals of the Center for Mobile Hands-On STEMThe Center for Mobile Hands-On STEM is pursuing activities that gather strong evidence of theeffectiveness of Mobile Hands-On STEM (MHOS) pedagogy on student learning and develop aneffective and pro-active dissemination strategy for the entire STEM educational community. Toachieve these goals, we have recently focused on: 1. Creating and implementing new standardized assessment tools that measure student learning, especially through the development of new experimentally focused concept inventories, as well as measure ease of adoption by