. Page 26.1124.1 c American Society for Engineering Education, 2015 Making Meaning of Data: Exploring Representations of Classroom Activities from a First Year Engineering CourseAbstract Real-time, pedagogical feedback can be useful for instructors and graduate teachingassistants in assessing the effectiveness of their instructional activities. This is especially usefulin first-year engineering classes, where laboratory and team activities may be more common.The G-RATE, Global Real-Time Assessment Tool for Teaching Enhancement, is a tool toprovide research- based feedback for instructors about their classroom interactions across fourareas based on the “How People Learn” framework1
. Many high-risk active learning techniqueshave been documented in recent literature, including field trips,5 peer teaching,6 class discussionson open-ended questions,7-8 hands-on manufacturing, laboratory testing,9-10 project-basedlearning,11 and cross grading and debate.12 The flipped classroom technique is also a new andeffective method of teaching13 where traditional lectures are converted to readings assigned tostudents outside of class and the class time is used for homework assignments and otheractivities. This technique was used successfully to teach sustainability in the past.14Low-risk active learning techniques have been introduced to engage students even in a lecture-based delivery, such as lecture worksheets,6 reading quizzes,7 and
significant international business and project experience. He has served on the Board of Directors of the AIST, worked on several committees in professional societies, and is a member of AIST, ASM, TMS, Sigma Xi and ASEE. He has authored 28 technical papers on a wide range of activities in materials science, including education, innovation management, environmental issues, nano-materials, steelmaking, casting, plasma and alternate iron technologies and authored a book on the Horizontal Continuous Casting of Steel.Dr. J F Whitacre, Carnegie Mellon Univerisity Professor Whitacre started his career at the Jet Propulsion Laboratory, where he worked on energy tech- nologies ranging from functional materials to systems
Exposition. [4] Felder, M. and Brent, R., 1996, “Navigating the bumpy road to student-centered instruction”, College Teaching, Vol. 44, No. 2, p. 43 - 47. [5] Bonwell, J. & Eison, J., 1991, “Active learning: creating excitement in the classroom”, Technical Report AHSE-ERIC, Higher Education Report No. 1. [6] Adams, S., 2000, “Project-based learning in a statistical quality control course”, Proceedings of 2000 ASEE Annual Conference and Exposition. [7] Schmahl, K., 1997, “Unique approach to total quality management in a quality planning and control laboratory”, Proceedings of 1997 ASEE Annual Conference and Exposition. [8] Besterfield, D., 2009, Quality Control (8th edition), Prentice Hall Inc
Paper ID #12191The Capstone Marketplace: An Online Tool for Matching Capstone DesignStudents to Sponsors with Challenging ProblemsMr. Michael DeLorme, Stevens Institute of Technology (SES) Mr. Michael DeLorme Mr. DeLorme has 11 years of professional experience as a Research Associate/Engineer at Stevens; Davidson Laboratory, DHS National Center for Secure and Resilient Maritime Commerce (CSR), and Systems Engineering Research Center. Research concentrations include experimental marine hydrody- namics, unmanned marine vehicles, the implementation of hydro-acoustics for the detection of marine vehicles, and the coordination
(VR) environment will give themrenewed hope for learning success. This paper presents such a development that augments anexisting learning game, Gridlock, with an adaptive learning engine that assesses what reallyhappens when a student’s capacity is sabotaged in problem solving and to provide the help that istailored to his/her needs. The game was deployed in Computer Architecture course at Rowan as areplacement to the traditional laboratory experiments. Its thorough assessment confirms thevalues of the game in promoting student learning.INTRODUCTIONThe fundamental problem with the traditional single-instructor class structure is that a singularteaching method is not always universally effective; not all students learn information the sameway
thecourse are that students should, upon their completion of the course, be able to:1.) Complete the preliminary design for an aircraft such that it satisfies assigned specifications2.) Design a system, component, or process that meets given requirements in aircraft systems3.) Identify, formulate, and solve engineering problems4.) Function on multi-disciplinary teams5.) Communicate and present effectively the results and consequences of their technical efforts6.) Determine what the ethical responsibilities are to themselves, to employers, and to societyThe course has a lecture component as well as the laboratory sessions. The purpose of the lectureportion of the class is to support the students’ design and fabrication activities. As a result
True?" Journal of Construction Engineering and Management, 135(12), 1324-1333.12. Krebs, D. (2010). Mobile & wireless solutions in construction: Driving improved decision making speed and scalability, Field Technologies Online, http://www.fieldtechnologiesonline.com/doc/VDC-Research-Paper- Mobile-Wireless-000113. Rebolj, D. and K. Menzel. (2004). "Mobile computing in construction (Editorial)." ITcon, 9(Special Issue on Mobile Computing in Construction), 281-283.14. Bowden, S., et al. (2006). "Mobile ICT support for construction process improvement." Automation in Construction, 15, 664-676.15. Cline, C. and K. Davis. (2013). "Using mobile technology in a construction management “hands-on” laboratory." 2013
to overcome resource limitations, andcollaborations across different countries.The impact described by the interview participants regarding their technical advances showstheir commitment to the betterment of society and to the affordability of solutions for all people.One engineer commented that “thousands of laboratories use some of the technology that we’vedeveloped,” indicating a sort of second-order impact, where the advances by these laboratorieshappen as a result of the engineers’ research. Some engineers indicate that they work on projectswith personal significance, for example, one was discussing his/her work with devices to monitorheart health, that “what we’re working on is something that’ll keep people from that—from notbeing
laboratory spaces used by the center.If successful, a student will be Calculus ready for the fall semester of their first-year. Theintervention is producing students who have higher pass rates in Calculus 1, and higher GPA.However, for the first cohort we did not find that these higher rates were statistically significant.Still, by accelerating Calculus readiness and providing a learning environment that promotesgeneral college readiness, we should have reduced time-to-graduation and hope to showimproved knowledge mastery in later courses, especially those that are Calculus or Mathematicsintensive.Enrolled StudentsThe first cohort entered the program in Summer 2014. We had 22 students, all had placementinto our College Algebra or Pre-Calculus course
: laboratories woven throughout finaltwo years of most programs. The students would also benefit from taking basic engineeringcourses, i.e. math and science courses at the local institution closer to their “homes” with arelative small class size. A benefit to the mainstream institution would be that they gaindiversity in their graduating classes without proportional expansion of general student recruitingactivities. It is also seen that there might be some nontrivial benefit to participating faculty atmainstream institutions with respect to experiencing effective teaching approaches for diversestudents. Both groups of academics recognize the opportunity for development of infrastructurein the local tribal communities in response to some serious needs of
recombinant protein expressionTable 1 – List of fundamental biology concepts covered in our review videos.Experiment/Protocol Videos: Experimental procedures were recorded in a laboratory settingwith a camcorder and tripod. Video clips were edited using Camtasia Studio (TechSmith) andintegrated into PowerPoint presentation slides that included instructions for each step of theexperiment, along with troubleshooting advice and other detailed notes. For example, one of theslides from the Restriction Digest experiment video is shown in Figure 2. While the video playsin the central panel, short step-by-step instructions are listed below it and more detailed notes aredisplayed in the panel on the right. In this case, the notes include a recipe for the
since as Assistant Professor (2005-2011), Associate Professor (2011-2012) and Professor (2012-). Rohit was the first assistant professor hired into the new Bioengineering department and played a key role in the development of its curriculum and activities. He later founded and serves as the coordinator of the Cancer Community@Illinois, a group dedicated to advancing cancer-related research and scholar- ship on campus. Research in the Bhargava laboratories focuses on fundamental theory and simulation for vibrational spectroscopic imaging, developing new instrumentation and developing chemical imaging for molecular pathology. Using 3D printing and engineered tumor models, recent research seeks to elucidate hetero
techniques. 14. Scale project processes to small, low risk projects as well as large, complex projects. 15. Understand how to appropriately leverage project management tools. 16. Handle projects in a state of chaos or damage control. 17. Managing project execution with the right level of discipline and rigor. 18. Understand effective leadership and team management. 19. Implement organizational change in the context of corporate culture.Application of Project Management in EcoCAR 3Sponsored by the U.S. Department of Energy and General Motors and managed by ArgonneNational Laboratory, EcoCAR 3 is a university-level competition to develop an energy-efficientand high-performance Chevrolet Camaro. The Ohio State University EcoCAR 3 Team is
to describe the field. The manufacturing engineering education providesproduction related knowledge such as customer focus, quality and continuous improvement,manufacturing processes, product design, process design, laboratories, and many others. Fourpillars are: (i) Materials and manufacturing processes: understanding the behavior and propertiesof materials as they are altered and influenced by processing in manufacturing; (ii) Product,tooling, and assembly engineering: understanding the design of products and the equipment,tooling, and environment necessary for their manufacture; (iii) Manufacturing systems andoperations: understanding the creation of competitive advantage through manufacturingplanning, strategy, and control; (iv
Aerospace, Masten Space Systems, UpAerospace, and XCORrockets, NearSpace balloons, and a student rocket project. Sponsorship of these activities isvaried so is outlined in the individual descriptions below but hardware costs have largely beensupported by our college of engineering as one part of the process to keep laboratory classes up-to-date. Descriptions of these activities that put the new flight capability to work for educationbegin with payloads that have flown and then payloads in development. Flight providercapabilities are found at the web sites for the companies. These sites are easily found in any websearch engine and thus not referenced here. 1. Armadillo Aerospace: Beginning in 2009 Armadillo and the author collaborated to
and research stages inthe Medical fields and have shown enormous amounts of yielding tremendous outcomes. As theworld of AR and VR crosses more and more thresholds, cross-industry discoveries haveincreased as a result of a more inclusive educational focus.Many studies have shown the strides in medical sciences, highlighting the amount of abilitieslearned through avidly participating in the learning. Figure 9 Mixed Reality used in the Medical Field [7]Even though the results from the medical field are growing exponentially, there are great leaps infields even more closely related to the Nuclear Engineering realm. For example in MiningEngineering, a “Virtual Reality Laboratory” consists of a 360-degree screen [of an
Page 26.1319.2appealing to our youth. The National Research Council (NRC) provides several recommendations for enhancingeducation in science, technology, engineering, and mathematics (STEM) disciplines.Recommendations include providing engaging laboratory, classroom and fieldexperiences; teaching large numbers of students from diverse backgrounds; improvingassessment of learning outcomes; and informing science faculty about research oneffective teaching6-8. NRC recommendations are met with diverse pedagogicalapproaches. Experiential learning, which involves constructing meaning from directexperience and involves the learner in a real
Individual-Based Models.”19 McQuiggan20 Waarts, Van Everdingen, and Van Hillegersberg, “The Dynamics of Factors Affecting the Adoption of Innovations.”21 Rogers 10-15.22 Ellen Dubinsky, “A Current Snapshot of Institutional Repositories: Growth Rate, Disciplinary Content and Faculty Contributions,” Journal of Librarianship and Scholarly Communication 2, no. 3 (2014): 1-22.23 Brown and Abbas, “Institutional Digital Repositories for Science and Technology: A View from the Laboratory.”24 Dubinsky.25 Dedoose Version 5.0.11, web application for managing, analyzing, and presenting qualitative and mixed method research data (2014). Los Angeles, CA: SocioCultural Research Consultants, LLC
Director of the Rockwell Automation laboratory at Texas A&M University, a state-of-the-art facility for education and research in the areas of automation, control, and automated system integration. Page 26.1331.1 c American Society for Engineering Education, 2015 Research Experiences for Teachers in Mechatronics, Robotics, and Industrial AutomationAbstractU.S. manufacturers are seeking highly skilled workers to hire in industrial automation andcontrol jobs. Encouraging active participation of secondary school teachers and two-year collegefaculty in university
cooperative development of engineering courses proceeded according to the overarchingagreement established between the institutions, with then administrators Bobby Ortega, Dean ofEngineering at EPCC, and Peter Golding, Associate Dean of Engineering at UTEP, providingleadership of the effort. The Director of Engineering at EPCC, Mariano Olmos, and the ProgramDirector of Undergraduate Studies at the UTEP College of Engineering, Blanca Carrasco,coordinated the cooperative development process.Engineering instructors from EPCC and UTEP advance the common use of course andeducational curriculums and laboratory tools, and engineering software for use in introduction toengineering courses.Advising and Professional Student DevelopmentEPCC and UTEP worked
Paper ID #12230Spatial Visualization Skills Intervention for First Year Engineering Students:Everyone’s a Winner!Dr. S. Patrick Walton, Michigan State University S. Patrick Walton received his B.ChE. from Georgia Tech, where he began his biomedical research career in the Cardiovascular Fluid Dynamics Laboratory. He then attended MIT where he earned his M.S. and Sc.D. while working jointly with researchers at the Shriners Burns Hospital and Massachusetts General Hospital. While at MIT, he was awarded a Shell Foundation Fellowship and was an NIH biotechnology Predoctoral Trainee. Upon completion of his doctoral studies, he
requiring major changes to the curriculum. Theprogram employs a unique funding model that addresses some of the challenges identified by theASME 2030 vision including insufficient funding and faculty buy-in9. Each project is internallyfunded by the office of undergraduate studies. CI projects are awarded $300 for each student onthe team with a semester maximum of $2000 per team. This funding model provides anincentive for faculty to become involved as it allows for the purchase of research supplies, travelexpenses, student training, and even faculty professional development. The program encouragesfaculty to explore new topics or areas of research, set-up laboratory experiments and equipment,and utilize undergraduate students to expand viable
. Educational Targets: Performance Criteria Lectures Student Laboratories Outcomes Yes Knowledge Projects Student Assessment OK Tests results NO Changes: Lecture content Lab content Pre
nearly 60% of classes that include laboratory content. Theselaboratory exercises are constructed to simulate manufacturing process and product designproblems. While labs are critical to gaining technology experience, they are not engineeringprojects. The first comprehensive engineering project a student attempts is the program’scapstone course; the Senior Design. The under-served component of Engineering Technologyeducation is engineering projects.This paper describes a three-year NSF-funded summer program designed to improve studentretention in Engineering Technology by exposing students to an industrial setting to gainpractical engineering experience. Sophomore and Junior-level students were organized intoteams and assigned to small or medium
Paper ID #13220Supply Chain Management: Is It a Must Course for Manufacturing Engi-neering Technology?Dr. Bimal P. Nepal, Texas A&M UniversityPradip Kumar Krishnadevarajan, Karpagam University, INDIA Pradip is a research scholar at Karpagam University, INDIA pursuing his PhD in supply chain manage- ment. He is a also the cofounder and research lead at the Global Supply Chain Laboratory (GSCL) in the Industrial Distribution program at Texas A&M University. Pradip is also an educator at the Thomas and Joan Read Center for Distribution Research and Education. He conducts educational programs, busi- ness sessions
majority of the literature on behavioral and implementation intentions focuses on health-related behavior, specifically health-protective behaviors (e.g., condom use8) and its associatedtheories and models (e.g., prototype-willingness model9). While these theories and theresulting studies have established the role of intentions in the pursuit and attainment of healthgoals, the scope of this research has perhaps been limited. Those studies, with a fewexceptions, that are not focused on health-related behavior can be considered primarylaboratory research using paradigms that may not generalize outside of the laboratory (e.g., cuedetection in an illusion paradigm10). Gollwitzer and Sheeran4 conducted a meta-analysis of theeffect of implementation
Technology Mingyu Lu received the B.S. and M.S. degrees in electrical engineering from Tsinghua University, Bei- jing, China, in 1995 and 1997 respectively, and the Ph.D. degree in electrical engineering from the Uni- versity of Illinois at Urbana-Champaign in 2002. From 1997 to 2002, he was a research assistant at the Department of Electrical and Computer Engineering in the University of Illinois at Urbana-Champaign. From 2002 to 2005, he was a postdoctoral research associate at the Electromagnetics Laboratory in the University of Illinois at Urbana-Champaign. He was an assistant professor with the Department of Elec- trical Engineering, the University of Texas at Arlington from 2005 to 2012. He joined the Department
, including the America Invents Act and cases such asMayo Collaborative Services v. Prometheus Laboratories, Inc. and Association for MolecularPathology v. Myriad Genetics, Inc., rendered the casebook out-of-date, and revised editions wereslow in coming. Accordingly, beginning with fall, 2013 semester, the course changed to a digitalcasebook1 prepared by law-school faculty at Lewis & Clark College and at the University ofGeorgia. The new text was completely up-to-date, featured helpful commentary and studyquestions, and cost about one-fourth of the hardbound book. In class, the students refer to eachday’s case materials on their laptop or tablet computers.The course’s pedagogy, while retaining the intellectual rigor and much of the flavor of a
committee for several years. He has invested over twenty-five years in the development and maintenance of a multimillion dollar manufacturing laboratory facility complete with a full scale, fully integrated manufacturing sys- tem. Professor Harriger has been a Co-PI on two NSF funded grants focused on aerospace manufacturing education and is currently a Co-PI on the NSF funded TECHFIT project, a middle school afterschool pro- gram that teaches students how to use programmable controllers and other technologies to design exercise games. Additionally, he co-organizes multiple regional automation competitions for an international con- trols company.Dr. Michael Gerald Flynn, College of CharlestonSusan Marie Flynn, College of