. Page 12.264.1© American Society for Engineering Education, 2007 Assessing Both Technical and Artistic Skills in Digital Media Courses within a Technology ProgramAbstractDigital media courses are usually found in art or communications departments where theinstructional emphasis is weighted toward artistic and creative aspects of project development. Indigital media courses offered in departments oriented to the technical professions, such ascomputer science and engineering technology, the instructional emphasis is usually on technicalskills. Regardless of where these courses are housed, graduates working in animation, 3Dvisualization, and interactive media fields are finding that an ability to apply both
modeling from an assembly of 3Dgeometry to that of a repository of project information and introduce a fully model-centric designprocess. The concept underlying BIM is using digital technologies to integrate all project data inorder “to build a building virtually prior to building it physically, in order to work out problems,and simulate and analyze potential impacts” 2.Definitions of BIM vary, but common to most is an emphasis on the integration of project data.The American Institute of Architects (AIA) defined BIM as “a model-based technology linkedwith a database of project information” 3. More specifically, BIM has been defined as acombination of graphical project data such as 2D and 3D drawings and non-graphicalinformation including
initial team building activity. Many of the designs were entered in a competition to raisemoney for Pennies for Peace (an organization that builds schools in Pakistan and Afghanistan).The students completed a basic statistical analysis on the funds collected and summarized theresults. In ENG1101, students were introduced to the engineering design process as theyprogressed through an eight-week, design/construct, team-based project that focused on greenengineering. Design constraints for the project imposed a 50% lower limit on post-consumermaterials used in construction, and the student teams were instructed to keep the environmentalimpact of their design very much in mind from the beginning of the design process and as theymoved through to
2006-306: NASA ADMINISTRATOR’S FELLOWSHIP PROGRAM (NAFP): PANELDISCUSSION AND FELLOW PRESENTATIONSMelissa Green, United Negro College Fund Special Programs Corp Melissa C. Green, Ph.D. Acting Director, Division of Science and Technology Programs United Negro College Fund Special Programs Corporation (UNCFSP) 2750 Prosperity Avenue, Suite 600 Fairfax, VA 22031 Dr. Green currently serves as the Director of the Division of Science and Technology Programs at the UNCFSP. In this position, she provides expert leadership in areas of effective project and grant management, strategic resource development and capacity building. A former research scientist, she has effectively
Paper ID #19543Student Interns Work to Activate First Floor SpacesProf. Charlie Setterfield, Sinclair Community College Charlie Setterfield is a Professor of Architectural Technology at Sinclair Community College in Dayton, Ohio. With more than 20 years experience in the architectural and construction industries, including responsibilities in all aspects of architectural project delivery and construction management, Setterfield brings real-world experience to the classroom. Setterfield’s courses focus on BIM, IPD, materials and means of construction, ”green building”, professional practice and building codes. As a Plans
Paper ID #27704Middle School STEM Teachers’ Understandings of Computational Thinking:ACase Study of Brazil and the USAMrs. Cristina Diordieva, Texas Tech University Cristina Diordieva is the Project Coordinator for the World MOON Project, and at the same time, she is a doctoral candidate majoring in Educational and Instructional Technology and minoring in Bilingual Education programs in the College of Education at Texas Tech University. She earned a BA majoring in French and minoring in Linguistics in the College of Arts and Sciences at Texas Tech University. She is highly interested conducting research within
Paper ID #29715A Model for a Faculty Development Course Redesign Summer Working GroupDr. Michelle M Blum, Syracuse University Dr. Blum is interested in research in improving undergraduate engineering education; including develop- ment of inquiry based activities for first year engineering courses, improvement of student design projects, hands-on activities, professional skills development and inclusion and outreach activities. Dr. Blum also specializes in high performance materials development and characterization for tribological (friction and wear), structural, and biomedical applications.Dr. Katie D. Cadwell, Syracuse
aspossible while remaining understandable. They must go deep enough into the subject to allowstudents to recognize the ultimate goal of industrial engineering, to increase efficiency, withoutbecoming too technical for a young audience. A practical way to achieve this balance is throughthe modification of successful classroom assignments. This work will discuss several activitiesthat have been successfully used for K-12 student outreach at the University of Arkansas and arebased upon undergraduate class exercises. Each project will be presented in detail along with itscorresponding course assignment in order to motivate the exchange of creative ideas and developa framework for the adaptation of additional outreach activities.1. IntroductionMany
Marchetti, Rochester Institute of Technology (COS) Dr. Carol Marchetti is an Associate Professor of Statistics at Rochester Institute of Technology, where she teaches introductory and advanced undergraduate statistics courses and conducts research in statistics education, deaf education, and online learning. She is a co-PI on RIT’s NSF ADVANCE IT project, Connect@RIT, and leads grant activities in the Human Resources strategic approach area.Prof. Maureen S. Valentine PE, Rochester Institute of Technology (CAST) Maureen Valentine, P.E., has been a faculty member at RIT for more than 21 years and held the position of Department Chair for the Department of Civil Engineering Technology, Environmental Management, and Safety
and practice. In our engineering program,senior engineering students are required to prepare their senior design proposals in a fallsemester and complete the project in the following spring semester. The topics of senior designprojects are chosen by students, not professors. Since last year, each team is required to evaluatethe project from a sustainability point of view in the final report. Accordingly, a new approach isproposed in this paper to enhance students’ understanding of sustainable engineering designprinciples and to help them synthesize sustainability concepts already introduced in previouscourses. This new process starts right after the students select the project topic and form inteams. A six-factor table proposed by Pawley et
, Arts and Social Sciences and the School of Architecture + Planning beganleading efforts jointly with engineering faculty to develop short modules. There were 25 suchmodules implemented starting Fall 2018, Spring 2019 and Fall 2019, specifically in Ethics,Creative Thinking, Critical Thinking, and Self-learning. We describe how those moduleswere developed and piloted, how their efficacy was assessed, what were the lessons learnedfrom their implementation, and implications for the future. One of the key findings is that theWays of Thinking should be more integrated into the students’ project work in NEET. Weconclude by describing our plans for further integration of the Ways of Thinking into NEET,including their rigorous assessment to optimally
the University of Oklahoma to improve undergraduatemechanical engineering education integrating 3D printing technologies and advanced materials,emphasizing two core topics: (i) design and manufacturing of 3D printing systems and (ii) 3Dprinting and mechanical characterization of nanocomposites. The specific instructional objectivesare to improve students’ understanding of key materials, manufacturing, and mechanics conceptsby 3D modeling and 3D printing of multifunctional polymers and nanocomposites. The integrationof advanced manufacturing and advanced materials is carried out in two consequentialundergraduate projects: (i) development of direct-extrusion based 3D printing system; and (ii) 3Dprinting and characterization of nanoparticles
Martinson Department of Electrical Engineering Florida Atlantic University, Boca Raton, FL 33431 E-mail: ravivd@fau.edu 561 297 2773Abstract This paper describes an experience of working on a research project at Florida AtlanticUniversity. It is unique in the sense that the working settings are different from an ordinaryresearch project, and the intellectual property agreement is different from a standard universityone. We have been working with a private investor and entrepreneur who came with the originalidea. He has been very involved in the project with some business, humanitarian andenvironmental goals in mind
computing in their education. This premise served as the basis for a projectfunded by the National Science Foundation CISE Pathways to Revitalized UndergraduateComputing Education (CPATH) initiative in 2007. The project is being carried out by theauthors comprised of a multidisciplinary team of faculty from six departments in the College ofEngineering and one from the College of Education at NC State University.The project has two overarching goals: (1) create a computational thinking thread in theengineering curriculum that spans from the freshman to senior years and bridges the dividebetween freshman year computing and computing in upper-level classes, and (2) enable studentsto take computing competency to the next level, where they are able to
innovative experiences include modifying course syllabiacross many technical areas, focusing on the individual learning styles that generate interestand enthusiasm in students, overcoming the inertial of established grading processes that donot recognize or reward exceptional teamwork, and linking with funded projects and relatedproposals supporting work up to the graduate level.The way that Cal Poly has been meeting the above challenges has been unique and rewarding,yet still contains risk relative to accreditation. These risks are discussed relative to the nextaccreditation visit where the department hopes to win approval for its innovative approach tocurriculum development.The Educational ChallengeAbout some topics perhaps too much has been
Technology Illinois Technical College Temple No.2 Adult Education Classes Umm Al- Qura, College Of Engineering, School of Islamic Architecture, Kingdom of Saudi Arabia Florida A&M University, College of Engineering, Sciences, Technology and Agriculture Project Area Coordi- nator, Construction Engineering Technology Florida A&M University College of Architecture, Master Thesis Reviewer Academic Administration: Interim Director of Division of Engineering, CESTA 1996-98 Program Area Coordinator, Construction Engineering Technology Page 23.568.1 Related Membership Organizations: American Institute
. Page 23.767.1 c American Society for Engineering Education, 2013 Integrated Service-Learning: Student PerspectivesAbstractService-Learning (S-L) has been integrated throughout a College of Engineering at theUniversity of Massachusetts Lowell, a mid-size state university, for eight years. The S-Lprogram has been supported by three grants from the National Science Foundation. In this effort,the S-L projects are hands-on experiences in core courses of every engineering department,aimed at responding to community needs. The community partners can be local, national orinternational. Most of the S-L projects require the students to assess the engineering componentsof community needs, to design solutions
Engineering Courses among Institutions in New Mexico AbstractThis paper presents a two-year pilot project involving cross-institutional collaborations amongthe University of New Mexico (UNM), Northern New Mexico College (NNMC), and CentralNew Mexico Community College (CNM). The primary objective of this project is to leveragethe limited resources available in New Mexico (NM) to provide quality STEM undergraduateeducation to a large student population. The immediate goal is to develop a pedagogy that allowsfor demonstrable and repeatable success in this environment using a few targeted courses, withthe longer-term goal of expanding the results of this research across all higher
and a Ph.D. in Mechanical and Aeronautical Engineering from the University of California Davis in 2006. Dr. Schmitz spent four years as a post-doctoral researcher and project scientist at Davis before coming to Penn State. He is an expert in rotary wing aerodynamics with an emphasis on vortical flows. His research program embraces the areas of wind turbine aerodynamics and rotorcraft aeromechanics. Current activities include wind farm wake modeling, icing on wind turbines, rotor hub flows, and rotor active control. Page 23.170.1 c American Society for Engineering Education, 2013
collaborative research, they largely did not do sobecause of a lack of time, support, and concerns regarding conflict with potential collaborators.Suggestions to promote collaborative research among graduate students include providingspecific venues online and at conferences to encourage inter-student interaction and facilitatecollaborative work.IntroductionResearchers participate in collaborative projects to promote innovation,1 share resources andknowledge,2,3 and develop new products.4 Collaborations also provide researchers with theopportunity to learn through cooperation.2,5 For a given project, the collaboration may becomposed of researchers within the same discipline at the same institution, researchers acrossdisciplines at the same institutions
Page 15.604.2the introduction of these methods, we contend that one of the most challenging aspects ofteaching BME 271 is helping students to transfer basic skills in math and science to novelapplications in biomechanics. Specifically, we have identified conceptual questions involvingvector projections to be particularly problematic for many students, limiting their understandingof higher-level concepts that build on these skills.In order to support applied skills in BME 271, we have implemented several methods to engagestudents in a process of review and assessment intended to diagnose and address commonmisconceptions associated with vector analysis. These methods include online coursewaredeveloped by the VaNTH ERC1, PRS to enhance formative
. Page 24.154.1 c American Society for Engineering Education, 2014 An energy assessment of a large grain storage and transfer facility in Michigan: An industry, university and public utility company collaborative effort resulting in energy savings outcomesABSTRACT: In the spring of 2012 Lawrence Technological University was approached by DTEEnergy (the local utility company) with funding to have students and faculty work on an appliedresearch project with the Michigan Agricultural Commodities, Inc. (MAC) to undertake anenergy assessment of the MAC Marlette, MI facilities. The MAC is a private company in thebusiness of buying, selling, storage and distribution of agricultural commodities such
will trace the evolution of partnership networks at globally engaged engineering programs atfour universities using discourse analysis.2 I reviewed all publicly available documentation thatdetailed the development of partnerships that sprung from assorted signature projects todetermine how discourse models influenced building partnership networks. I will first detail eachof the four programs, describing their philosophies on how engineers should undertakecommunity engagement. Next, I will discuss an early signature project of each program. Then Iwill highlight how the program’s philosophy about community engagement affected how itpursued partnerships. Lastly, I will discuss implications of this research for engineeringeducators seeking to
Paper ID #10897Hoshin Kanri X-Matrix Drives Engineering Leadership Program SuccessDr. Bruce DeRuntz, Southern Illinois University Carbondale Bruce DeRuntz, PhD, is a Professor in the College of Engineering at Southern Illinois University Car- bondale where he teaches classes on project management and leadership. He consults with universities and companies on their leadership development of human resources for six sigma and project manage- ment teams. He is the Director of SIUC’s Leadership Development Program and the former Editor of the ASQ’s Quality Management Forum. He is a Fellow with the American Society for Quality
Nontraditional Learning Environments: Do They Prepare Our Students for Life-Long Learning? D. DiBiasio, Department of Chemical Engineering and S. Jiusto, Interdisciplinary and Global Studies Division Worcester Polytechnic InstituteAbstractRecent research indicates that traditional academic structures may not promote learningconsistent with self-directed learning.1,2 This work investigated whether Worcester PolytechnicInstitute’s (WPI) nontraditional interdisciplinary projects program increased readiness for life-long learning (LLL) and self-directed learning (SDL) using three methods: a calibrated, validatedinstrument called the Self
to design anentire system.2,8,15 This means that students must learn the team building and communicationskills to work with others outside of their own discipline. The Accreditation Board for Engineer-ing Technology (ABET) recognizes the importance of these abilities in its Criteria for Accredit-ing Engineering Programs: “Engineering programs must demonstrate that their graduates havean ability to function on multi-disciplinary teams”.1,5 The study of robotics provides an excellentinstrument for teaching and learning about working in multidisciplinary teams.The overall goal of this project is the development of a comprehensive undergraduate course inrobotics that emphasizes multidisciplinary teamwork by encompassing many of the diverse
design and deliver a product over a two-year period. This paper documents one of the pilot DCPD projects conducted by students and facultyat Georgia Tech and the University of Maryland College Park during the spring semester of 2003 toidentify and explore potential issues relating to the “Grand Experiment". We introduce our 2-yearcapstone DCPD project which began in the fall semester of 2003 with Mechanical Engineering studentsfrom Georgia Tech, University of Maryland and University of Illinois Urbana-Champaign collaboratingto design an amphibious utility vehicle for the John Deere Corporation. We also outline our plans forinvolving students from Industrial Design, Manufacturing, Business and other disciplines in the springsemester of 2004 to
Session 1843 Humanitarian Engineering at the Colorado School of Mines: An Example of Multidisciplinary Engineering Joan Gosink, Juan Lucena, Barbara Moskal Colorado School of Mines Golden, Colorado 80401Introduction:With the support of a grant from the William and Flora Hewlett Foundation, we aredeveloping a new program in Humanitarian Engineering at the Colorado School of Mines(CSM). The goal of this project is the nurturing of a new cadre of engineers, sensitive tosocial contexts, committed and qualified to serve humanity by contributing to the
teacher at Josiah High School. He has been teaching technology courses. He attended the CAPSULE professional development for teachers in summer 2010. He implemented a capstone project in his technology class by getting his students to design a low cost and portable USB power charger to charge cell phones.Ms. Kristina Buenafe, Josiah Quincy High School Kristina Buenafe is teacher at Josiah High School. She has been teaching mathematics courses. She at- tended the CAPSULE professional development for teachers in summer 2010. She implemented capstone projects in her geometry class by getting his students to design a three-legged chair.Ms. Jessica Chin, Northeastern University Jessica Chin is a Ph.D. candidate. She has
toconduct engineering design projects in middle and high school settings. Teachers, researchers orcurriculum developers can use tested and refined projects in the WISEngineering Library, or useauthoring tools to create their own projects. Anyone can take pre-existing projects and customizethem to suit a particular context or need. WISEngineering supports engineering design processeswith technologies such as a shared virtual “Design Wall” where students critique and commenton each other’s’ designs, or digital design journals and portfolios, where students save and sharetheir designs and design process. WISEngineering builds upon the open-source Web-based Inquiry Science Environment(WISE) from the University of California at Berkeley (http