. © American Society for Engineering Education, 2022 Powered by www.slayte.com Thinking Beyond the Service Course Model: Intentional Integration of Technical Communication Courses in a BME Undergraduate Curriculum Introduc on In technical plans of study, such as Biomedical Engineering (BME), students are o en required to take an undergraduate level course in technical communica on, which supplements the freshman-level communica on courses required by a college or university. These courses tend to be generalized, and
reported that some students struggle with conflicting cultural values andconcerns with local political climate, which can induce stress when reprising prior social roleswhile adjusting to new professional responsibilities.There are various factors that influence the decisions of international students to return home.Trice and Yoo [4] reported that one third of international graduate students planned to work intheir home countries upon graduation, even though three quarters of them felt prepared to return.Ugwu and Adamuti [5] observed that academic and social experiences during graduate school inthe U.S. are not crucial to post-graduation plans of international doctoral students. Other factorsare more influential. For example, their studies
and high school students to see STEM classes as excitingand with real-life applications, and (3) ISTs to collaborate with and mentor PSTs preparing toenter K-12 STEM classrooms. Contributing towards broader impacts, CalTeach recruits aracially and socioeconomically diverse population of PSTs, and all ISTs were recruited fromlocal public schools, in order to educate, prepare, and encourage more minority and female K-12students to consider higher education and careers in STEM.During the first two summers of this project (2020-2021), participants completed over fortydata-science related projects, developed over thirty K-12 data-science related lesson plans inmath, science, and engineering, and created six classroom-ready and publicly accessible
B.S. in Mechanical Engineering from Clemson University.Siemens Engineering and Engineering Technology STEM CurriculumCourses (Resource Exchange)Grade level: 9-12Program Overview: This Siemens secondary school curriculum is an engineeringproject/problem-based learning curriculum which teaches the fundamentals of engineeringdesign and manufacturing along with the enabling engineering technology, e.g., CAD, CAM,CAE, design collaboration, etc. Students utilize the iterative engineering design process todefine, research, imagine, plan, create, test, improve, and communicate solutions. Each projectallows student teams to develop distinct solutions to the same problem. The problem statementpresents the student with an opportunity to plan, organize
(Lippard, Lam, & Riley,2017). The engineering design process (EDP) is a cyclical method that students follow tocollectively build a solution to a problem (Gruber-Hine, 2018).Engineering in preschool: Engineering, as represented by the cyclical EDP, is defined bya number of qualities including brainstorming and sharing ideas, asking and answeringquestions while planning, creating, and testing a product, sharing materials,demonstrations, explanations, and most importantly, peer collaboration throughout theprocess. The benefits of student interactions during collaboration include strengtheningstudents’ peer-related social skills while also advancing knowledge construction(Wiedmann, 2015). However, little information is provided about what
circuits from scratch throughprototyping, soldering surface mount electronic components, testing and troubleshooting, calibration andanalyzing error in measurement and propagation of uncertainty. In addition, students will utilize dataacquisition and analog to digital conversion techniques with Arduino microcontrollers and custom shieldsto read and save data collected during the trip to an SD card. Among many other skills, students will learnand practice teamwork skills, project management, planning, cost analysis, risk management, failureanalysis, project documentation, as well as professional reporting and presentation. Along with theselearning outcomes, students will analyze the collected data and compare results to theoretical values,when
Engineering and Engineering Economy. Elective courses include: Traffic Engineering, Heavy Construction Equipment and Methods, Construction Cost Estimating and Cost Control, Construction Management and Planning and Scheduling. He is a registered Professional Engineer in the State of Tennessee. His professional experience includes bridge inspection and evaluation, roadway and interstate design, traffic planning and the design of earth-fill dams. He serves on the Board of Directors of the America Society of Civil Engi- neers West Tennessee Branch. He serves as the Treasurer for the Memphis Area Joint Engineers Council. He serves as Treasurer of the Memphis Chapter of the Tennessee Society of Professional Engineers. He
mechanics, sustainable infrastructure development, and material model development. He had been actively involved in planning, designing, supervising, and constructing many civil engineering projects, such as roads, storm drain systems, a $70 million water supply scheme which is comprised of treatment works, hydraulic mains, access roads, and auxiliary civil works. He had developed and opti- mized many highway design schemes and models. For example, his portfolio includes a cost-effective pavement design procedure based on a mechanistic approach, in contrast to popular empirical procedures. In addition, he had been equally engaged in the study of capacity loss and maintenance implications of local and state roads (a World
Shape detection [9] 2 2 4 Face recognition [10] 2 3 5 Image/Video processing 15 Text detection [11] 2 1 3 Object tracking [12, 13] 3 0 3 Table 2: Count of groups by project topics.2.3.1 Assigned Project LabBefore starting the assigned project, students submit a proposal outlining the work to perform. Inthe proposals, students should 1) review the chosen papers and summarize the algorithms to beimplemented, 2) develop a testing and validation plan for Python
, and mathematics (STEM) classrooms. We designedan instructional development workshop to motivate STEM instructors to use active learning andto adopt evidence-based strategies to reduce student resistance to active learning. Our study is arandomized control trial (RCT) to investigate the impact of this workshop intervention on STEMinstructors’ attitudes and behavior. To measure this, we plan to survey both instructors and theirstudents, before and after the workshop. To prepare for our RCT, we developed surveyinstruments, assessed pilot offerings of our workshop, and investigated student resistance toactive learning in classes of workshop participants. As a result of the COVID-19 pandemic, we delayed our RCT study and temporarilyshifted
: Circuitry and Sensory Substitution Curriculum UnitTime: Two weeks Lessons: 4 Grades: 10-12 Focus: Physics/Cambridge IGCSE PhysicsIn this unit, physics students extend their knowledge of basic electric circuits by studying the function and use of more complex components [1, 2]. Students are introduced to basic neuroscience principles and use these concepts to design, build, and optimize a prototype of a sensory-substitution device on circuit boards. They present their models on a scientific poster. https://centerforneurotech.uw.edu/education-k-12-lesson- plans/circuitry-and
Robotics and Advanced ManufacturingAbstractThis paper presents the curriculum, courses, laboratory modules and other student-centricactivities for a new Robotics Engineering Technology baccalaureate degree program which iscurrently being developed at Miami University. The new program consists of theory andlaboratory courses on industrial robotics, advanced manufacturing and automation systems, to bedelivered in a mixed format to support workforce development in the Southwest Ohio region. Inthis paper, we present the curriculum, course structure and planned evaluation methods of thenew RET program and discuss the challenges and opportunities that motivated us to develop theprogram.1. IntroductionRecent advances in robotics and automation have
Engineering Education, 2021 ENGAGE: Co-Curricular Engagement for Transfer Students This paper is a working research project that examines the rates at which engineering andcomputer science transfer students engage in extra-curricular and co-curricular activities. In thispaper, we describe our current intentions and future plans for this study, as well as providing datafrom our most recent baseline survey, with hopes of soliciting feedback from the engineering andcomputer science community. This research is part of a National Science Foundation (NSF)funded transfer student success program that provides scholarships, strength-based training andmentorship to transfer students over the course of two years at two local
byDeGraff and Kolmos [3] in the following: A problem is the starting point of the learning process. The type of problem is dependent on the specific situation of the curriculum, study regulation, semester etc. Normally a semester theme guide which problems can be dealt with. Often semester courses are planned to meet demand from the study regulation and will at the same time support the problem solving process the students have chosen for their project. It is crucial that the problem serves as the basis for the learning process because it will determines the direction of the learning process as well as a problem places emphasis on a question rather than an answer. This also allows the learning content
projectcreated for an introductory thermal sciences course that incorporates PBL and EML. Groupswere tasked with designing a natural gas power plant using the Rankine cycle and a renewableenergy portfolio, both of which were required to meet University of San Diego’s energy demands.Each group had to recommend and justify one of their energy plans to the university’s Board ofTrustees. The project was broken into five tasks, and a technical report was due at the semester’s end.In-class sessions were devoted to the project roll out, guided background research, and power plantdesign. Some assigned project work was aligned with lecture material (e.g., Rankine cycle) to replacethe traditional homework assignment associated with that topic.The project was
scaffoldingprompts can foster students’ participation in effective collaborative problem-solving interactionsthat include not only attempting to solve but also exploring the task, planning how to solve, andevaluating the completed solution [7]. This study investigates the impact of scaffolding promptson collaborative problem-solving interactions and quality of groups’ final task solutions so thatinstructors can better understand how to design effective ill-structured collaborative tasks forundergraduate engineering students.Collaborative Problem-Solving InteractionsGe and Land’s research in collaborative problem solving has stressed the importance of fourproblem-solving processes necessary for effectively solving an ill-structured task in groups.These
accommodate per year ten high-achieving undergraduate students recruited from across the USA and their faculty mentors on the theme of HPC applications in engineering research. In this experience report, we describe our first offering of the site in summer 2019, including the processes of students recruitment and selection, training and engagement, research mentoring, and professional development for the students. Best practices and lessons learned are identified and summarized based on our own observations and the evaluation conducted by an independent evaluator. In particular, improvements are being planned so as to deliver a more holistic and rigorous research experience for future cohorts
, influence, and interest for an engineering design team, adapted from [9].“Design solutions have costs and effects, some harmful and major if the idea scales or isreplicated. A harm is a loss of something of value. So scrub any unnecessary harms from yourdesign:1. How to avoid harms within the design team: a. Is the design problem clear and are changes cleared with the contractors? b. Do team members have clearly allocated and documented roles & responsibilities, and accountability? c. Can you obtain the resources you need? d. Is the design choice feasible: physically possible, manufacturable, within the team’s technical reach? e. Do you have a plan to address conflict; to give, accept, and address
processes and mindset associated with being an entrepreneur. A successfulentrepreneur will develop a business plan and conduct customer discovery, then iterate and pivotin the face of failure. Entrepreneurs need to be curious and creative, to demonstrate the value oftheir product or service, and to make connections among multiple sources of information. Nowconsider the processes and mindset associated with teaching. Successful teachers will engage in acourse planning process, periodically gather information from students on their learning and ontheir own teaching effectiveness and adjust teaching strategies as appropriate. A good teacherdevelops instructional activities that are engaging to students, creates a valuable learningexperience for
questions wereadministered a second time, during the final two weeks of the course. Survey results suggestsome increase in student self-regulatory behaviors during the course. These results suggest that,near the end of the course, students were more likely to set study goals for themselves.IntroductionSelf-regulated learning refers to how students control their own learning [1], [2]. Pintrichdescribes a framework for self-regulated learning based on four areas of regulation (cognition,motivation, behavior, and context) and four phases of regulation (planning, monitoring, control,and reflection) [3]. The planning phase includes setting goals and planning time and effort. Goalsetting has been shown to increase academic performance [4]. Monitoring
Graduate Student Steering Committee at the University of DelawareAbstractThe University of Delaware (UD) has had an active Women in Engineering (WIE) program sincethe early 2000s. The goal of WIE is to foster a warm climate in which all members of theCollege of Engineering feel welcomed and can be productive. WIE activities have evolved overthe years, but in the last decade most of the programming has been planned and executed by theWIE Graduate Student Steering Committee. Sponsored by the dean of engineering and overseenby an associate dean and faculty advisor, the committee is made up of two women graduate-student representatives from each of the seven engineering departments. The committee planssocial, networking, and
interdisciplinary approaches will not only develop competencies of the 21stcentury engineer but also enable undergraduate students to become change agents and promote asustainable future.Research ApproachOur plan to develop and test instructional resources for transferring knowledge between biologyand engineering is outlined in Table 1.Table 1: Plan for incorporating biomimicry into design innovation Create and disseminate evidence-based instructional resources: a. Design instructional resources that help students to identify characteristics of engineering design problems that enable bio-inspired design (making the leap from engineering to biology). Objective 1 b. Design instructional
effective treatments that reduce the economic burden of disease and thecost of care. • Between 1980 and 2010, advanced medical technology helped cut the number of days people spent in hospitals by 59 percent1 • Minimally invasive surgery using laparoscopic, endoscopic and catheter-based devices in place of standard open surgical approaches for certain procedures saved $8.9 billion in projected U.S. health plan spending in 2009 while reducing workplace absenteeism by 53,000 person-years, worth an additional $2.2 billion in savings.2 • Evidence suggests that between $34,000 and $57,000 is saved each year for every 100 patients who use insulin pumps, which reduce the risk of diabetes
ins3tutes and new ins3tutes: Current Ins5tute Status FORTHCOMING FY15 Integrated Smart Flex. Hybrid LIFT Photonics Mfg. Electronics Lightweight Metals Detroit, MI The full NNMI DMDII network is Digital Mfg. America Makes Chicago, IL planned for 45
design and analysis,emphasizing in signal processing and conditioning gives students’ better hands-on experience asthe fundamentals are covered in ME335/L. The assessment plan, which is discussed in the nextsection, will help both the faculty tune the curriculum even further. Fundamental concepts taught in ME335: measuring signals, error identification, uncertanity analysis, intro to data acquisition
fully functional prototype from materials he had in his home.Through presenting their design and prototype at a design showcase for parents and localindustry, the pride in his achievement led him to pursue a personal design idea for a newcompound bow. He has completely rendered his concept in CAD, prototyped it, and submittedhis business plan for an entrepreneurship grant. He did not win this years’ entrepreneurshipgrant, but he reviewed the winner’s submissions, and is working hard to flesh out a morecomplete business plan for his design. Another team of students has taken their CAD experienceand are working on a business model for an interactive music-driven LED light display,customizable for any university. It is produced using a combination
(NITRD) strategic plan 11ENG will be a major contributor to Cyber-EnabledMaterials, Manufacturing, and Smart Systems• ENG will focus on breakthrough materials, advanced manufacturing, robotics, and cyber-physical systems $90M – integrates materials discovery, property optimization, systems design and optimization, certification, manufacturing and deployment – integrates computational methods with data-enabled scientific discovery and innovative experimental techniques – includes the Critical Resilient Interdependent Infrastructure Systems and Processes (CRISP) focus area
CMMI Overview Steven H. McKnightDivision Director for Civil, Mechanical and Manufacturing Innovation George A. Hazelrigg Acting Division DirectorContext: NSF Strategic Plan• Transform the Frontiers -- emphasizes the seamless integration of research and education as well as the close coupling of research infrastructure and discovery.• Innovate for Society -- points to the tight linkage between NSF programs and societal challenges, and it highlights the role that new knowledge and creativity play in economic prosperity and society’s general welfare.• Perform as a Model Organization -- emphasizes the importance of NSF as an exemplar of an agency that expects to attain excellence in
mathematics) education. A STEM education strategic plan will be updated every five years. The director of the Office of Science and Technology Policy will make annual report to Congress. COMPETES ACT: Key Provisions Budget authority in millions – not yet appropriated Dept of Energy: Office of ScienceFY11 FY12 FY13$5,247 $5,614 $6,007 Dept of Energy: ARPA-EFY11 FY12 FY13$300 $306 $312 National Science FoundationFY11 FY12 FY13$7,424 $7,800 $8,300 National Institute of Standards and
education. The implementation of this curriculum, including themeasures we have taken to ensure that the curriculum is sustainable and kept current, isdescribed. Assessment of outcomes-based learning is vital to determining the overall success ofthis curricular change. We have just begun implementation during the 2006-07 academic year,and our plan will be phased over four years. We discuss our initial efforts and results ofassessment.IntroductionFor many years Clarkson required all students to complete The Foundation Curriculum inaddition to their departmental major requirements. It was a traditional distribution-based set ofrequirements intended to provide students with a broad background covering the sciences,mathematics, liberal arts, business