Dr. Brian Craig, PE, CPE is a Professor and the Chair of the Department of Industrial Engineering at Lamar University. He is a Registered Professional Engineer in the State of Texas and a Certified Profes- sional Ergonomist. He has published over 40 journal articles, textbook chapters, conference proceedings, and industrial technical papers as well as presented in numerous national research conferences. He has been involved in 26 (22 as PI) industry and governmental supported research projects totaling over $1.5M, mostly in the maritime industry. Dr. Craig is the Director of the Mariner Safety Research Initiative at Lamar, the Associate Director for Research for the Center for Advances in Port Management, and Lamar
Trusted Value to Faculty Delivery • High value research projects Participants • Competitive IP Position• New research and education dimensions • Pre-publication research access• Student recruitment and placement • Access to students & facilities• POC leveraging for new funding• Ready partners for translationOur approach has been to provide solutions for industry• Understanding what problem they want to solve – and who on campus can best address it? • ENG Innovation and Discovery Clusters • Craft solutions drawing on Land-Grant Strength
● Develop engineering and tech concepts and practices● Identify a project and go through the Engineering Design Process● Connect girls with role models● Year-long investment● Concludes with a Maker Faire Creating Community Changemakers● Identify real-world issues that impact the lives of girls● Create a STEM-based solution to most pressing issues in the community● Engage community partners● Integrate design thinking process● Expose girls to career opportunities and leaders who are using STEM to create a better community Techbridge Girls ImpactIn TBG’s 2015-16 high school programs: ● 88% of girls said they were more confident trying new things because of Techbridge ● 91% of girls said
usage and support sustainableuse of power. In addition, smart appliances and the “Internet of Things”, or IoT, can integratewith smart grid technology in order to continue to change the way we use energy. Smart meters,sensors, and controls integrated into everyday objects can ensure judicious power use—forexample, only activating heating in a residence when movement is detected [4]. This paper details a senior design project that quantifies the energy savings achievable byusing solar power and smart thermostats in Washington DC residential homes during the summerand winter seasons. The project was conducted by a group of three students from theDepartments of Electrical and Computer Engineering and Mechanical Engineering at the
Vernier Dynamics Cart and Track System; thisparticular project was chosen to enhance the students’ skills in trigonometry and physicsmechanics. In this experiment students collected the data in the form of space and time, and wereasked to find the speed and acceleration.If this teaching methodology will prove beneficial for the MET students, as shown by studentquestionnaires and tracking their results in the courses such as Dynamics, the authors willintroduce more experiments, such as a Wind Turbine Experiment and other basic laboratoryexperiments.IntroductionThe Engineering Technology (ET) Department is the largest in terms of student count of the sixacademic departments in the College of Engineering at the University of Toledo. TheDepartment
laboratory under Dr. Fidan. He is also the build team director for the TTU Motorsports Formula SAE team. Reed is also the recipient of the 2017 Rising Renaissance Engineer Spectrum Award. He enjoys spending his time working in the machine shop and working on cars.Mr. Serhat Sahin, Tennessee Technological University Mr. Sahin is a Computer Science Master of Science student and graduate research assistant at TTU’s Center for Manufacturing Research under Dr. Fidan’s supervisory. His current research is on Additive Manufacturing security vulnerabilities. Before joining Tennessee Tech, Mr. Sahin worked as a researcher on security and speech processing related projects at The Scientific and Technological Research Council of
3/6/2017 Example of T&P Policy Language from Arkansas Medical Sciences “The College values the contributions of collaborators who clearly demonstrate their critical importance to teambuilding and successful teamwork. Those individuals will merit recognition whether their participation is as a principal investigator, co-principal investigator, or co-investigator… the Promotion and Tenure Committee invites and welcomes evidence of collaboration and includes this as an important component in the assessment of a faculty member’s contributions. Documentation of collaboration may include and is not limited to participation in multidisciplinary grant proposals, research projects, clinical care teams
consortium 4) Addressing Critical Challenges4) Each Institute works on the industry priorities and big challenges only solvable by collaboration Innovative Foundry Models For WBG Semiconductors • Lower $/Amp • Better yield, higher reliability • Lower barriers for small companies to enter WBG markets due to lower capital equipment cost5) Each5)Institute Balancedmanages Portfolioaof balanced Projectsportfolio of real projects for industry • NIIMBL plans two project calls per year in ongoing operations,. • ‘Quick Start’ project
notable exceptions,including Smith College’s “Engineering for Everyone” course, Wellesley’s “Making aDifference Through Engineering” and Hope College’s “Science and Technology in EverydayLife” (see the “Engineering-Enhanced Liberal Education Project” on the ASEE website foradditional detail), courses focused on engineering and the engineered world and accessible to awide array of undergraduate students are not widespread in the liberal arts college environment.There are many reasons for this, ranging from lack of faculty expertise, tools, and design spacesto philosophically-related suspicions that engineering is a theoretically impoverished and/or “tooprofessional” field of study, as well as the idea that the everyday technological world as a
Communication Science, she has been working at the IMA/ZLW & IfU Institute Cluster since 2003, from 2008 to 2010 as man- ager of the Business and Research Division: Knowledge Management. In 2004 Anja Richert completed her degree in Communication Science with a distinction at the RWTH Aachen University. In December 2007, she gained her doctorate in the field of e-learning, likewise with a distinction. In the years 2010 and 2011 she received the International E-Learning Award (IELA) for the projects ROLE and RELOAD with the e-learning solutions developed under her leadership. Furthermore, she is a lecturer at the Mechanical Engineering Faculty of the RWTH Aachen University for a course on learning and work habits (compul
encounter during capstone design and willencounter in the real-world. The second goal is to improve assessment of students’ abilities toapply sustainable engineering design concepts across different problems or design challenges.We hypothesize that with guided practice and feedback, engineering undergraduate students willbecome better at drawing upon and integrating diverse knowledge domains when they are facedwith new, complex problems during professional practice. Project work began in September2015 through the NSF Research in Engineering Education program.Cognitive flexibility theory (CFT)1 provides a basis for assessing and improving students’knowledge transfer and the connection-building required to adequately address sustainabilityproblems
-LSMSAmakersclubrepresentsasuccessfulandatruemanifestationofSTEMeducationathighschoolincludingcollaborationwithhighereducationalinstitution.Introduction:Effortstoimprovescience,technology,engineering,andmathematics(STEM)educationingrades K–12 are not new. Since the 1960s there have been lots of efforts to developcurriculum projects for science and mathematics. As a matter of fact we currently evenhave national standards documents to implement such STEM education. Yet, despite theincreasedattentiontoSTEMinpolicyandfundingarenas,STEMeducationinsomestatesisstilllackingandrequiresaspecialattention.Enquiry-based learning and deeper understanding has gained significant attention lately[1,2].Duetoitsimportance,lotsofeffortsfocusedrecentlyontheK-12STEMeducation.Recentlymanyreformshaveappearedtoaddressthescientificreasoning,criticalthinking,andproblemsolvingapproaches.Oneofthewaystoaddresstheenquiry
—specifically its means for collecting dataon its activities. The data will be used to measure the affiliate’s outcomes or the effects of theaffiliate’s activities or its outputs. It will then attempt to hold static the effect of other influencersto draw conclusions about the affiliate’s impact.Background (including partnership development) and motivation for project. A smaller affiliateof a national non-profit engages volunteers, including students from a local 28,000 student bodyuniversity, to provide home repairs and modifications at no cost to low-income homeowners.Affiliates also complete community center rehabilitation projects, playground builds, and supportenergy efficiency, sustainable community garden, volunteer engagement, and
also includes leadership of STEM initiatives with Penn State and Virginia Tech. She earned her BA from Stanford University and an MBA from Northeastern University.Dr. Edward F. Morrison, Purdue University, West Lafayette (College of Engineering) Ed Morrison is Director of the Agile Strategy Lab at Purdue University. Ed has been developing a new approach to developing strategies for complex collaboration in open, loosely connected networks. Called ”strategic doing”, this methodology emphasizes the strategic value of collaboration in today’s global econ- omy. For over twenty-five years, he conducted strategy projects throughout the U.S. His work won the first Arthur D. Little Award for excellence in economic
within sustainability constraints and to identify economic, environmental, andsocial impacts of their projects. Integral to the design and monitoring of reform efforts will bethe availability of accurate and reliable tools for assessing students’ knowledge of sustainabilityand ability to apply that knowledge in design1. Effective assessments are characterized byobjectivity, reliability, minimal influence on student responses, and portrayal of knowledgestructure2, 3. At the 2016 ASEE Annual Conference, a special session addressed the question ofwhether there were effective assessment methods for sustainability and other “hard to measure”topics in engineering education. The session stimulated discussion of which assessment toolswere available and
of access, purpose, andownership resemble those common in the cloisteredenvironments of early computer labs and many of today’sshops, where students are tasked with cookie cutter activitiesand trivial projects to complete.” (Crichton & Carter, 2015, p. 3). 11 12 What is available? (1)• Design software – Provides intuitive interfaces to perform design tasks that used to require topical expertise• Manufacturing tools• Integrated control systems – Hand Tools and Power Tools – 3D printers – Laser, water and
Virginia University, an MBA from Johns Hopkins University, and a PhD in Kinesiology with a focus on Biomechanics from Penn State University. Dr. Lang’s previous professional experiences and research interests range from mechanical engineering facilities design to research that applied engineering and molecular biology approaches to the study of the skeletal response to mechanical loading. As a Mechanical Engineer, she worked on facil- ity design projects involving mechanical systems that included heating, ventilation, air conditioning, and energy conservation systems, as well as R&D of air conditioning equipment for Navy ships. Additional research interests have included the investigation of relationships among
Paper ID #18225Globally Competent Engineers - Do International Experiences Matter?Mr. Alistair Cook, Colorado State University PhD Student in Education Sciences specializing in global development engineering c American Society for Engineering Education, 2017 Globally competent engineers - do international experiences matter?AbstractIn a world of increasingly complex and trans-national issues, engineers have to become global citizens tomanage and understand the multiplicity of complications they face in their professional careers.Engineering design project classes are where engineering students can gain and
data analysis (qualitative, quantitative, and mixed methodological) for studies in developmental, educational, and counseling contexts. E-mail: Reagan.Curtis@mail.wvu.eduJohnna Bolyard, West Virginia University Johnna Bolyard is an Associate Professor of elementary and middle grades mathematics education in the College of Education and Human Services at West Virginia University. Her research interests focus on the development of mathematics teachers, particularly how K-8 teachers develop into mathematics teacher leaders.Dr. Darran Cairns, West Virginia University Darran is an Adjunct Associate Professor in Mechanical and Aerospace Engineering at West Virginia University. He is also the Project Director for Project
Paper ID #20528A Mentoring Workshop for an REU ProgramDr. Carol Barry, University of Massachusetts, Lowell Carol Barry is a professor of Plastics Engineering at the University of Massachusetts Lowell. She received her Doctor of Engineering degree in Plastics Engineering from the University of Massachusetts Lowell and her Bachelor of Science in Chemistry from Boston College. Her research focuses on advanced man- ufacturing and she has directed REU programs for the last 12 years.Ms. Carol Lynn Alpert, Museum of Science, Boston Carol Lynn Alpert directs the Strategic Projects Group at the Museum of Science, Boston (MOS). She
-1Abstract:Model Based Systems Engineering (MBSE) is transforming how systems engineering ispracticed. System modeling with SysML (the Systems Modeling Language) drives rigor andcrispness into the formulation of system behavior, structure, and parametrics. The author hasintroduced MBSE into the Systems Architecture and Systems Engineering courses that are partof the MS Product Development (MPD) program at the University of Detroit Mercy. Thispresentation will discuss lessons learned over the course of several years, culminating in thecapstone project from the Spring 2016 Systems Engineering course.In that course, students were required to model a polar exploration submarine, starting from ahandful of system elements provided by the instructor. Over the
-of-school environments, including museums, science centers, afterschool programs, preschools, and everyday settings.Dr. Monae Verbeke, Institute for Learning Innovation Dr. Verbeke is an interdisciplinary researcher in the informal science learning. She has worked inter- nationally on projects incorporating a wide range of science learning institutions. As senior research associate for the Institute for Learning Innovation, she leads research and development of learning tools in the areas of science literacy. science interest and self-efficacy.Marcie Benne, Oregon Museum of Science and IndustryPam Greenough Corrie MS, Mt. Hood Community College Pam Greenough Corrie is the Head Start/Early Head Start Director for Mt
platformfor courses on computer science and engineering. Appropriate guidance from theplatform regarding the different objectives of five project stages enabled groupmembers to communicate, exchange, and interact, and the students graduallydeveloped their thinking from divergent to convergent. Through deep analysis of thestudents’ learning portfolios, the effects of cognitive concepts, personal motivations,and personal characteristics on creativity were investigated. Moreover, this studyfurther explored three issues regarding the differences between highly and lowlycreative students so that teachers could employ appropriate teaching resources orassistance. The findings of this study can help teachers provide timely guidance andresponses to students
gamedesign class was offered as a technical elective. This class combined a “humanities” viewpoint ofvideo game design (e.g. gaming psychology, theory of fun) with the “technical” side of computerprogramming and physics engines. Students compared and contrasted two games and wrote acritical analysis of a game. The majority of the class was spent conceptualizing, planning andcreating a video game. Groups learned the required programming skills as needed to implementtheir vision. Students completed a survey at the conclusion of the course. Generally, students foundthe course exercised their creative skills, motivated them to learn more programming and providedthem experience in project management.Keywordsvideo games, computer programming, elective
eitherlanguage. Many students struggled with understanding the C programming language. They alsostruggled to switch to the lower-level of abstraction when assembly programming wasintroduced. Since the instruction set was introduced in the latter portion of the course, it alignedwith the more complex projects, which made these projects particularly tedious since they had tobe implemented in assembly.To address these issues, the outline of the course was modified to begin with an introduction tothe instruction set architecture (ISA) and assembly programming, and later introduceprogramming in C. There were several intended benefits to this switch. By starting with theISA, students would have a better understanding of data storage on the device and how
of a single course. It’s a bit likeinvestigating dark matter; one can hypothesize without seeing it that it exists because of radiationsignals observed when particles collide, but not really understand what it’s composed of or howit holds galaxies in the universe together. Our goal in this project is to provide student writerswith a means to jumpstart their understanding of writing as compositional decision-making byequipping them with the means to quickly, and literally, “see” their composing decisions.To help students notice and reflect on composition decisions in their writing, our team of writingresearchers, educators, and statisticians is piloting use of a suite of computer-aided learning toolsfor corpus-based text analysis in core
development program, and a local technology training company. It details thegeneralized struggles and successes of the students, the lessons learned, and a second curriculumand class structure based on those findings. Finally it presents unanswered questions and presentsrecommendations for future courses presented by University/community/businesspartnerships.1 IntroductionAccording to the Bureau of Labor Statistics, between 2014 and 2024, the job market for SoftwareDevelopers will grow by 17% 1 which is ”much faster than average”. In Florida, Application andSystem Software Developers will grow by approximately 31% and 24%, respectively 2 . Theserates are 1.8 and 1.3 times the national projection. In order to fill these job openings, recruiters
Paper ID #18508Environmental Monitoring Robotic SystemDr. Asad Yousuf, Savannah State University Asad Yousuf is the Coordinator and Professor of Electronics Engineering Technology at Savannah State UniversityMr. William Lehman, Bill’s Robotic Solutions William Lehman is President of Bill’s Robotic Solutions which he started in July of 2013. He has had over twenty years of experience in software and hardware development. He has worked on numerous projects in digital communication systems, robotics, and aerospace applications. Mr. Lehman received his Bachelor of Science degree in Electrical Engineering in 1979 from
Breakers Course, a course targeted to take the students out of the books and into applying their core competences and the scientific methods to put urban legends to the test and understand all sorts of phenomena.Mr. Maurice Forget, Aalto University c American Society for Engineering Education, 2017 Geographically Distributed Teams in Engineering Design: Best Practices and Issues in Cases of International Teams Working from Opposite HemispheresAbstractIt is not rare to have engineering design teams in companies, working from different parts of the worldon a shared project. This new addition to the working context has been triggered by advances incommunication technologies and the knowledge economy. This begs
human condition. Engineering service learning and biomedicalprojects are presented to pique the interest of a broad population of students. ENGR 102 HSallows students to try hands-on, design and build projects while still in high school where therisk is low and teacher scaffolding and contact time is high. This broad approach to anintroduction to engineering course at the high school level is important to attracting the mostdiverse, brightest, and creative problem-solvers into the profession.This paper will briefly describe the ENGR 102 HS course curriculum. Five years of studentcourse evaluation survey data (2011-2012 to 2015-2016) for 1469 students both female (N= 289)and male (N=1180) were explored. Statistically significant differences were