Professor of Architectural Engineering at the Pennsylvania State University. She has been on the faculty at Penn State since 1998. After receiving her PhD in 1994 from Virginia Tech, she served on the faculty at the University of Miami before joining Penn State. Dr. Hanagan has focused most of her research career on floor vibration serviceability, with a strong emphasis on steel structures. She has overseen dozens of research projects, participated in several committees, supervised many students, and written numerous papers that have contributed to the body of knowledge in vibration serviceability. While Dr. Hanagan’s primary research interest has been in the vibration serviceability of structures, one of her greatest
criterionand outcomes are defined in this balanced manner. These objectives define the scope ofeducation that would fit into the Sustainable Futures model. The objectives are used to assesstwo MTU programs, Peace Corps Master’s International and International Senior Design. In thePeace Corps program, Master’s students spend 1 year taking credits at Michigan Tech, and 27months abroad in the Peace Corps, where they integrate with a community, implement projects,and research a sustainable development topic. International Senior Design is a senior designprogram where senior engineering students spend 2 weeks abroad in Bolivia or the DominicanRepublic, doing service-learning work and investigating a design project, then spend part of asemester back at
should be introduced in early stage of the curriculum. For instance, Introduction to Probability and Statistic is a required course in many university curriculums. The class is essential to understand performance-based design, which involves various sources of uncertainty. The class should also emphasize the probabilistic aspect of society and environmental impact. When construction material class is taught, material selection should be considered from both structural performance and sustainable built material perspectives. Second, design courses and capstone projects provide an opportunity for students to apply what they learn in classrooms about PBE and sustainability to “real world” examples. Working on
factors include quantitative skills, students’study habits, commitment to the program, involvement in extracurricular activity, andconnections to peers. In addition, math/calculus has been cited by students who switch awayfrom engineering as the most influential factor in their decisions. This paper describes anapproach to improve engineering student persistence when learning calculus without having tomake any changes in the current calculus curriculum. This approach is one the methods used inan NSF-funded initiative (Project DUE-0942270) at the University of North Dakota. The projectcombines several techniques, including the integration of stand-alone engineering modules to besolved by students outside class time and the use of engineering
scheduling with little emphasis on the design V&V. In order to equipstudents with the advanced knowledge of developing reliable embedded systems, this course isenhanced from two aspects. First, an on-going research project results on model-based testingand formal methods are incorporated into this course. Model-based testing is an importantfeature of Model-based Design (MBD) methodology, which can be used to check whether thedesign model satisfies the functional or nonfunctional requirements like timing. An automatedformal method Model Checking, which is one of the most commonly used formal verificationtechniques, is exposed to students. It has been applied to deriving test cases from real-timedesign models. Second, students are introduced
Paper ID #35344Benefits of the virtual platform for K-12 STEM OutreachMelanie Villatoro P.E., New York City College of Technology Melanie Villatoro, an Associate Professor in the Department of Construction Management and Civil En- gineering Technology at NYC College of Technology, is a licensed Professional Engineer in the State of New York. Prof. Villatoro is passionate about student retention and performance, as well as STEM Outreach in K-12. She has served as Project Director for the National Transportation Summer Institute sponsored by the Federal Highway Administration multiple years. Prof. Villatoro leads a STEM
humanitarian system/project is defined as, “an effort that has as its objective, theimprovement of a person or community [3].”The techniques to reduce complexity to the point where an achievable concept may be defined,are rooted in the practice of system architecture. From [4], architecture is defined as, “anabstract description of the entities of a system and the relationship between those entities.” Thearchitecture derivation starts by defining the functionality required to meet the higher levelconcept across all technical, social and economic domains. The architectural process thenderives the physical/logical instantiation of the system from the derived lower level functionality(i.e. Form follows Function [5]) and boundary properties. The system
cables 1 $1.50 $1.509V batteries 2 $1.50 $3.00TOTAL approximate cost, USD per student $105.72Figure 4. Basic electronics course equipment kit.Table 2 shows the list of items purchased for each student in the basic mechatronics course.Spare parts were included for items that tend to fail. The class included a series of 10 laboratoriesand an open-ended project. Projects could be completed with the equipment included in the kit,or a limited amount of other parts could be purchased.Table 2. Equipment kit for basic mechatronics course, for each student
features to it until the end of the project A waterproof case needs to be designed for the device Figure 2: Circuit Diagram of the Proposed Solution
, South Carolina.With a student count of over 100, TCC finds themselves in a situation that using such a tool canbe an effective supplement to their organization’s operation. Yet, with their restricted resourcesstemming from their business model, such a tool cannot be adopted. With the adoption of the SC-ELS guidelines, TCC employ a largely manual process of progress report generation with severalpoints of failure.With this predicament in mind, a small team at the University of South Carolina-Beaufort havetaken the opportunity to work together with TCC to address the need for a better solution.Currently, the project has addressed the ability to generate progress reports dynamically by usingMicrosoft SQL Server, creating progress reports depending
Collaboration with Collaboration with Collaborative projects Museums community possible Sources of income for the Improve imaginations Empowering students just dept. from the sale/auction before their graduation of gadgets Can be used as a model for Can be started as a pilot Learn about environmental other ET programs course issues Learn about electronics Learn about standards Funding possible recycling Publications possible Students enjoy taking the Will bring
teachers. This paper presents a summary of the experience and lessons learned.The goal of the fabrication workshop is for the students to develop an awareness of the processesinvolved with the creation of objects they encounter daily. There are mechanical and electricalsegments of the workshop. During the mechanical segment the students are introduced to asmall milling machine and lathe that are capable of machining a variety of materials rangingfrom plastics to mild steels. Emphasis is placed on safety and proper machining techniques.Through a variety of machining projects, the students also learn how to drill and tap a hole, howto make accurate measurements using calipers and a micrometer, and gain an appreciation for thecosts associated with
use. Convergent bestpractice pedagogy is optimized in the convergent classroom to allow problem-based learning,objective based learning, cooperative learning, project based learning, accelerated learning,visual learning, constructivism and Socratic learning. The classroom is designed to optimize thefive basic types of thinking: cognitive, memorative, convergent, divergent and evaluative - toproduce the creativity and idea generative capacity often missing from conventional classrooms.The design and operation of the convergent classroom will be discussed, as well as how it isbeing used to optimize chemical engineering education. IntroductionThe convergent classroom is a relatively new descriptor of the
social, political, environmental, and economic impact ofenergy. The last semester is dedicated to a research project of the students’ choice. BackgroundIn September of 2001, Baylor University’s Board of Regents adopted a ten-year plan known asVision 2012. This plan encompasses a series of 12 imperatives which will lead Baylor University“…to new facilities and to new academic and scholarly environments, approaches andopportunities1.” Vision 2012 is an ambitious program; however, the results, if achieved, wouldelevate Baylor to top tier ranks while maintaining its heritage and Christian mission. Particularlyimportant to this project is Imperative I, which seeks to establish an environment where learning
Within the past few years an increased interest has been shown regarding marine renewableenergy and its applications. The overall goal of this project was to develop and test an economicallyand technically feasible offshore platform to house a vertical axis wind turbine and an underwatercurrent turbine, known as dual turbine platform (DTP), that can provide sustainable andecofriendly energy, relieving the operation of diesel generators for aquaculture farms. In anoffshore DTP design, the wind interacts with the unsubmerged parts of the floating platform, windturbine blades, hub, and tower, while the current and waves interact with the portion of the systemthat is submerged, i.e., mooring lines, current turbine, and submerged portion of the
tangling far less than narrower-gauge wire with standard insulation. Heat shrinktubing optionally stabilizes wire connections to clips.IV. Directed Lab ActivitiesLab activities are organized into four weekly labs during the first five weeks of the course,summarized in Table 2 below, followed by a two-week open-ended sensor project. Table 2: Lab Exercises Lab Module Objectives Setup Arduino and software Download and install software on laptop and Arduino board to Lab 0 display and record a voltage trace over ~10 s. Introduction to Arduino Identify Arduino
: dissertation and thesis writing strategies, preparing for a job search, writing a CV, interviewing, negotiating a job offer Required research training modules 11 research modules are required. Examples include: ₋ Create course modules (K-12, undergraduate) ₋ Deliver classroom lectures on NRT topic ₋ Define an undergraduate research project and mentor students ₋ Present research at external conference ₋ Interact with researchers at national labs, companies and at other universities ₋ Take on
senior design. In addition, correlations between the courses mentioned andthe skills students considered important for design or were confident in using in design illustratedinfluential components of the curriculum. Some of these skills included: written communication,programming, hands-on building, teamwork, project management, using machine shop tools, andoral communication. Students’ resulting perceptions of which skills are “very important” andwhich they are “very confident in” design suggest the need to explore alternative assessmentmethods. Alternatively, these results may illustrate gaps in the existing curriculum aroundparticular skill development and areas where faculty may want to foster students’ understandingof and the skills
interdisciplinary re- search institute called the Institute for Critical Technology and Applied Science (ICTAS) at Virginia Tech. He is the founding director of an interdisciplinary lab called Learning Enhanced Watershed Assessment System (LEWAS) at VT. He received a Ph.D. in civil engineering from VT. His research interests are in the areas of computer-supported research and learning systems, hydrology, engineering education, and international collaboration. He has served as a PI or co-PI on 30 projects, funded by the National Science Foundation, with a $8.4 million research funding participation from external sources. He directed/co- directed an NSF/Research Experiences for Undergraduates (REU) Site on interdisciplinary water
engineering.This career may vary drastically from their peers in terms of industry, specialization, project scope, orexpectations. The purpose of this study is to analyze the breadth of job responsibilities within a wide range ofmechanical engineering positions in order to gain an understanding of the typical activities a mechanicalengineer is expected to complete in the field.This study analyzed 923 job postings collected through the job search and posting site “Indeed.com”, duringa one-week period in the summer of 2020. The jobs represent various industries, geographic locations, andposition titles. Design activities were used as a guiding framework to develop an ontology of engineeringactivities. This study developed an increased understanding of the
and a team project in which they design a scientific orengineering solution that promotes social justice.Learning ObjectivesWe explore social justice in a science and engineering context, with a focus on DEI(diversity, equity, and inclusion). We discover why scientists and engineers must practiceinclusive design and think broadly about the impact of their work on diverse populations,including ethical implications, potential inequities in access, and bias againstunderrepresented people.By the end of the course, students should be able to: 1. Identify how cultural concepts of race, gender, sexuality, and disability have shaped scientific thought and engineering practice (and vice versa) through history. 2. Conduct self-directed
c Society for Engineering Education, 2021 Leader Development Model (LDM) through Self and Peer Assessment across the CurriculumAbstractLeadership development and assessment impact the engineering program curriculum at TheCitadel, resulting in embedded indicators and teamed learning activities mapped across all fouryears of the undergraduate curriculum. The institution-specific leadership model developed atThe Citadel prepares students for leadership through teamed challenges and projects, positioningthe engineering program to provide robust learning experiences for students.Reinforced in multiple senior-level capstone design courses and a sophomore-level, engineering-specific communications course
community, VR is used as a training tool to expose high-risk andchallenging situations to novice health personnel (Liu et al., 2003). In the construction sector,architects and interiors designers use virtual reality before building, to analyze systems andinteractions (Mobach, 2008). In the educational sector, virtual reality is used to demonstrate andfacilitate learning in a flexible and efficient manner. According to Yildirim et al. (2020), VRcan positively benefit students to develop spatial skills and can increase students' engagementtowards learning different subjects, including science, technology, engineering and math(STEM). In consideration of these benefits, this project incorporates active learning strategiesand VR as an instructional
the University of Virginia (UVA), a hybrid model was adopted. Students were giventhe option to take the class 100% remotely, or they could attend lab in person every other week.During the second week of the semester, entire sections met online for team forming. Thoughsome attempt was made to group in-person students in the same team, several teams had a mixof in-person and remote students. The curriculum was redesigned into two-week blocks. Duringthe ‘on’ week, students collected data from an experiment they performed in person or watchedvirtually. During the ‘off’ week, they worked in teams on various activities including report peerreview workshops, a team project, and post-processing of the previous week’s experiments. Thispaper will
students, especially students inunderrepresented minority groups who are likely to feel left out and not included in classroomactivities and group projects. The feeling of alienation could result in students developingdropout intention for an engineering/computer science degree.Research experiences are an excellent tool to promote and foster engagement among engineeringand computer science students. They provide an avenue to collaborate with faculty and build aclose relationship with their teachers or professors. Choosing to engage in research activities isconsidered a voluntary activity and conducting research gives a student the avenue or platform toexplore his / her ideas on inventions or discoveries to make a significant contribution to
STEM fields, Engineering in Education and Access to Post-Secondary Education. From August 2006 through February 2008, she was the Associate Dean of Academic Affairs of the College of Engineering. She was Co-Pi of the NSF’s UPRM ADVANCE IT Catalyst Project awarded during 2008. From 2008-2016, she was Co-PI of the USDE’s Puerto Rico Col- lege Access Challenge Grant Project. From 2015-2018, she was the Coordinator of the UPRM College of Engineering Recruitment, Retention and Distance Engineering Education Program (R2DEEP). Currently, she is Co-PI of the project ”Recruiting, Retaining, and Engaging Academically Talented Students from Economically Disadvantaged Groups into a Pathway to Successful Engineering Careers
respond positively and productively to circumstances of volatility,uncertainty, complexity, and ambiguity [3]. It is often espoused as an essential skill byengineering employers [4] but generally not reified or taught within undergraduate engineeringeducation.Current approaches to fostering adaptability in engineering emphasize experiential learningopportunities such as team-based projects, co-op/internships, and undergraduate research.However, these activities seldom provide formal adaptability training, and whether they nurtureor merely test adaptability is unclear. This project calls for adaptability to be explicitly taughtand assessed, much like other professional skills such as communication and ethics that havebeen added to ABET criteria [5
persistence in the discipline [1], increasingstudent interest in graduate school [2], and developing a student’s identity as a researcher [1].The U.S. National Science Foundation (NSF) is a large supporter of such experiences through itsResearch Experience for Undergraduates (REU) Site and Supplements Program. Almost 150REU Site Programs are currently funded in Engineering.Most REU Sites are based at a single institution. This traditional model for REU Sites typicallyinvolves 8-12 participants per summer, housed in close proximity on campus, engaged inresearch projects united by a common theme. Having a unifying theme and developing strongcamaraderie are two aspects deemed critical to a successful REU program [3].A small but growing number of summer
District, Educational Leadership Program Enhancement Project at Syracuse University and the University at Albany through the Teacher Leadership Quality Program. She holds an advance degree in Educational Theory and Practice from the University of New York/SUNY Albany, with experience in teaching educational methods at the master’s level as well as an introduction to education courses designed to develop new interest in teaching careers. She has worked as an elemen- tary classroom teacher developing specific curricula for gifted and talented students as well as inclusion classrooms in a school district eligible for rural and low-income programs. Dr. Gullie’s experience and past projects qualify her for the position of
Civil Engineering and Construction Project Management at the Univer- sity of Puerto Rico, Mayaguez Campus (UPRM) in (2019). Prior to starting her M.E., Ospina worked in different construction sites and projects serving as a Technical and Contractor Architect. Ospina has di- verse interests in the research area of Community Resilience; Appropriated Technology; Climate Change; and Participatory Engineering. She co-developed a workshop curriculum to measured and prepared vul- nerable communities to improve their level of resilience for catastrophic events.Dr. Christopher Papadopoulos, University of Puerto Rico, Mayaguez Christopher Papadopoulos is Professor in the Department of Engineering Sciences and Materials at the