the chances that they attend a 4-year college oruniversity by 52% (p = 0.024) [4].Importance of Implementing the New Curriculum with FidelityThe research studies discussed above have shown the benefits that can accompany effective STEMintegration and STEM initiatives. The PLTW curriculum was developed as a program focused onpromoting STEM integration and therefore, the way the curriculum is enacted in the classroomwould seem a critical issue. For the types of benefits observed in previous research to be accessiblefor all students enrolled in PLTW courses, it is important newly trained PLTW teachers understandand can effectively implement all PLTW curriculum components. The PLTW curriculum isconstantly reviewed by educators and industrial
Paper ID #30393The Implementation of Virtual Labs in Aerospace Structures EducationWaterloo Tsutsui, Purdue University-Main Campus, West Lafayette (College of Engineering) Waterloo Tsutsui, Ph.D., P.E., is a Lecturer and Lab Coordinator in the School of Aeronautics and As- tronautics at Purdue University. Tsutsui’s research interests are energy storage systems, multifunctional structures and materials design, fatigue and fracture, and scholarship of teaching and learning. Before Purdue, Tsutsui was an engineer in the automotive industry for more than 10 years.Mr. Ruben D. Lopez-Parra P.E., Purdue University at West
be interesting. To my surprise, lo and behold, everyone pretty much groups up into their own races.He found aggressions and micro-aggressions to be common, saying: “I just feel like I'm nottreated like an equal lot of times as far as like collaboration with people of other cultures.” Hegives an example of a group project where he was the only “Black guy” and “there's a White guyin the group who every time I present a new idea for how to solve a problem, he calls it `ghetto’or he's like, `that's a really ghetto way of doing it.’” Warren felt that “being shut down like that”he “definitely feels like” he has to “prove” himself. It's like almost I can tell he doesn't think I'm a smart person…I'll put it this way, it's
methods. He teaches courses in water and wastewater treatment, solid and hazardous waste, surveying, and programming fundamentals.Dr. Vinu Unnikrishnan, West Texas A&M University Dr. Unnikrishnan is an Assistant Professor in the College of Engineering at the West Texas A&M Uni- versity. He was previously a faculty in the Department of Aerospace Engineering and Mechanics at the University of Alabama. He received his Ph.D. from Texas A&M University in 2007. Dr. Unnikrishnan’s research interests are in the development of multiscale methods for the mechanical and thermal charac- teristics of carbon-nanotube and polymeric based composite systems for use in advanced bio-medical and industrial applications. He has
, the Next GenerationScience Standards (NGSS) [3],[4], which are national standards to reenvision and enhance STEMeducation, emphasize the need for integrating practices of engineering and the engineering designprocess (EDP) [5],[6] in K-12 classrooms. As one contribution to this growing need, we developeda robotics education workshop for high school teachers and their students to collaboratively learnand practice fundamental engineering and robotics concepts during summer and then utilize thisknowledge in classroom during the academic year.A fundamental step in the engineering (robotics) design process is to draw on engineeringprinciples for performing rigorous analyses and studying the efficacy of a proposed design [7]before committing
designed to enable students to build on their engineering knowledge and develop an in-depthunderstanding of modern systems design for emerging and evolving electrical engineering technologies.The program is designed to cover research, design, development, and testing of electronic andcomputer hardware and software. Students have an opportunity to be involved in advanceddesign projects including digital, spread-spectrum and space communications, CMOS circuitry,and computer architectures. They are encouraged to apply their knowledge and skills to courseprojects based on industry trends. Students have the opportunity to develop project managementand leadership skills to help them prepare for senior-level engineering responsibilities.”The current
-basedenvironmental learning has been emphasized as an area requiring specialized research withinenvironmental education for optimal learning outcomes [33]–[36]. Educational games are oneform of application-based learning strategies that may have the pedagogical potential to enhanceenvironmental education among the current generation. The profusion of digital technology overthe past decades has produced a new wave of students who prefer to actively use technology,collaborate, and learn through experiential activities [37]–[41]. Previous research in the fields ofvisualization, multimedia learning, and gaming education has illustrated the immenseeducational potential that educational games have in introducing a wide variety of knowledge,problem-solving skills
, awarding faculty curriculum and student venture grants, andproviding faculty incentives to work with industry sponsored student teams. Specifically, theCollege of Engineering received a grant in 2006 as part of a larger initiative to develop the KernEntrepreneurship Education Network.The Kern Entrepreneurship Education Network (KEEN) was organized by the NationalCollegiate Inventors and Innovators Association (NCIIA) with support from the Kern Family Page 13.343.2Foundation*. The goal of KEEN is to make entrepreneurship education opportunities widelyavailable at institutions of higher learning, and to instill an action-oriented
Engineering, and an affiliate faculty of Industrial & Systems Engineering at Virginia Tech. She is Director of the Center for e-Design, a multi-university NSF I/UCRC center. Her research focuses on methods and representation schemes for early design process and on engineering design education. She was previously an assistant professor at the University of Massachusetts and worked at General Electric (GE), including the completion of a two-year management program. She is a member of ASEE, ASME, IIE, and Alpha Pi Mu and is the Design Economics area editor for The Engineering Economist.Richard Goff, Virginia Polytechnic Institute and State University Richard Goff is an Associate
interdisciplinary nature, nanoscale science andengineering is one way of simultaneously increasing students’ interest in science and engineeringas well as infusing more engineering into grade 7-12 classrooms.Importance of Nanotechnology in STEM EducationThe development of nanotechnology comes about through the blending of all science andengineering disciplines on the nanometer scale. Because of this convergence, it is believed thatthe impact of NSE will be broader than any other technological revolutions. Already, research in Page 13.604.2the development of nanotechnologies has exploded in nanoelectronics, medicine, healthcare,pharmaceutical industries
AC 2009-1042: I’M GRADUATING THIS YEAR! SO WHAT IS AN ENGINEERANYWAY?Holly Matusovich, Virginia Tech Holly Matusovich is an Assistant Professor in the Department of Engineering Education. Dr. Matusovich recently joined Virginia Tech after completing her doctoral degree in Engineering Education at Purdue University. She also has a B.S. in Chemical Engineering and an M.S. in Materials Science with a concentration in Metallurgy. Additionally Dr. Matusovich has four years of experience as a consulting engineer and seven years of industrial experience in a variety of technical roles related to metallurgy and quality systems for an aerospace supplier. Dr. Matusovich’s research interests include
engineeringconcepts and supporting the transfer of knowledge to novel tasks and situations.IntroductionEngineering excellence in the US serves as one of the primary vehicles for technologicalinnovation, economic prosperity, national security, and advancements in public health. However,current educational trends portend a decline in these areas as the mathematical and scientificpreparation of American K-12 students slip in relation to other industrialized nations, andstudents opt out of engineering programs and careers1. Interest in science, mathematics, andtechnology is particularly low among disadvantaged groups that have been underrepresented inthose fields2. To address both the preparedness for and the appeal of engineering, technicaleducation programs
AC 2009-1201: NURTURE MOTIVATED, CONFIDENT, AND STRATEGICLEARNERS IN ENGINEERING THROUGH COGNITIVE ANDPSYCHOLOGICAL INSTRUCTION FOR AN ENTRY-LEVEL COURSEWei Zheng, Jackson State University Dr. Wei Zheng is an Assistant Professor of Civil Engineering at Jackson State University. He received his Ph.D. degree in Civil Engineering from University of Wisconsin-Madison in 2001 and has over 10-year industrial experience. Since becoming a faculty member at JSU in 2005, he has made continuous efforts to integrate emerging technologies and cognitive skill development into engineering curriculum. He serves as a freshmen advisor for the First Year Experience Program at JSU and is the Principle Investigator for
should prove useful in anyengineering course on RF circuits, electromagnetic, SI and EMC. As high speed, low power,wireless, and hand-held embedded engineering designs become more common, computerengineering students have a growing need for knowledge and experience in design andmanufacturing issues related to SI and EMC. We have found these experiments to be valuableand effective in enhancing student interest in RF, SI and EMC.1 IntroductionElectromagnetic compatibility (EMC) and signal integrity (SI) have become pervasive designissues in high-speed designs of digital systems, wireless devices, mixed signal systems, andhand-held devices. Two ready examples of industries with acute and long-standing need forengineers with an understanding of EMC
. For example, an instructor mayrequire one line of comment for every ten lines of codes. These numbers are determinedwithout sufficient scientific support; hence, students may resist the requirements and treatthem as burdens. Open-source programs are widely used today and they can be considered as samples forteaching programming. We analyze 6 open-source software projects with 6233 files and 3.27million lines of code to discover their commonalities. The projects are python, gdb, emacs,httpd, kde, and doxygen. These open-source programs are used and contributed by manyprogrammers. These particular programs are selected as examples of high quality code byvirtue of their extensive and successful use in industry and academia. These programs
Paper ID #17737Teaching/Learning Soil Mechanics with Mnemonics, Intuition, Insight andInspirationProf. Jiliang Li P.E., Purdue University Northwest, Westville Campus, INDIANA, USA Dr. Jiliang Li, D.Eng (Mining Engineering, USTB), Ph.D. (Civil Engineering, UA), P.E., M.ASCE, M.ASEE, is an Assistant Professor of Civil Engineering at Purdue University Northwest at Westville campus, Indiana. Before returning to teach at University, he had industrial experience in several States with consulting projects ranging from small residential, commercial and subdivision projects to large scale State DOT and federal projects after
facilitate the connection between military experiencesand STEM degrees. For example, the Florida Senate Committee on Military Affairs initiated anawareness campaign to encourage veterans to enter STEM fields and to encourage government 2and higher education to collaborate on STEM programs for student veterans.10 Some universitieshave established programs to encourage veterans to pursue STEM degrees, including the Stern toSTEM program at Old Dominion University11 and an effort at Virginia CommonwealthUniversity to create a system to match military courses or experiences to college-levelengineering course credits.12A recent study on student veterans found that that 2/3 of respondents felt that their MOS
great experience! If possible, even if it's not exactly what you want you don’t know where you want to go to do, it will still help you build your resume yet, look at the different programs that and give you industry experience. There will are offered (I know there is a lot!) in be more networking events and Spring countries that you speak the language or semester career fairs, so look out of them too. want to travel to. Studying abroad requires that you plan ahead and it’s Internships are great! Companies are almost easier to get an idea of how it can work always looking for students who can program, with your schedule when you know what so you'll be in a great position to find an
mentioned incorporating value creation into their courses. Othercomments included helping students to connect with a past course, making industry contacts forguest speakers considering value creation, reaching out to others who also use these techniques,and using Course Mapping. The third open-ended question, “How might the Teaching Institutehave been improved?” resulted in two primary themes. The most frequent suggestion forimprovement was to include more example modules. The second most frequent suggestion forimprovement was to provide more time for discussion of modules that participants design alongwith more one-on-one sessions for faculty to explore new teaching strategies. Other commentsincluded less time doing hands-on activities and more
Paper ID #25275Middle School Teacher Professional Development in Creating a NGSS-plus-5E Robotics Curriculum (Fundamental)Dr. Shramana Ghosh, NYU Tandon School of Engineering Shramana Ghosh received her Ph.D. in Mechanical Engineering from University of California, Irvine in 2017, her Masters in Industrial Engineering from Texas A&M University in 2013, and her Bachelors in Manufacturing Processes and Automation Engineering from University of Delhi in 2011. She is currently working as a postdoctoral associate at the Mechanical and Aerospace Engineering Department, NYU Tandon School of Engineering, NY, USA. In this
qualitative scholars who urge integration of data generation and analysis so thateach informs the other [39-42], I embedded “narrative analysis” directly within data generationprocesses (Figure 1). Narrative analysis is the process by which researchers organize dataelements (i.e., discrete stories) into a coherent developmental account [34]. In effect, narrativeanalysis is a synthesis of data rather than its separation into constituent parts (i.e., coding). I usednarrative analysis to create representative, experiential narratives in collaboration with eachparticipant. Later, I analyzed the data across the narratives, looking for outcomes related to theresearch questions, to provide transferable conclusions and recommendations for practice. Tofurther
technologies and infrastructure, therefore, Activity 3 wasdeveloped in collaboration with a trained social scientist (Tomblin).Activity 3Research Question 1: Socio-political and stakeholder influences on engineering Overall, students demonstrated greater recognition of social, political, and socio-technicalsystem complexity because of the activity (Table 3). Student pre-activity responses (Question 1,Day 0) about the benefits and challenges of EVs mainly focused on technological (19.0%),environmental (21.4%), and economic (26.2%) issues. The activity shifted student focus awayfrom economic (Day 1 = 4.9%, Day 2 = 14.9%) and technical issues (Day 1 = 5.6%, Day 2 =13.4%) toward social (Day 1 = 12.3%, Day 2 = 24.5%) and socio-technical complexity
, novelty, and heavy collaboration [2]. Hackathons have beenused to: Spur interest in computer science fields [3] [4] Create innovations within companies [2] [5], for governments [6], and for research projects [7] Provide applications of learning for undergraduate students both within the STEM fields [3] [8] [9] and in non-technical fields, such as marketing [10]Within an educational context, hackathons are very useful for stirring engagement and forcorrecting student perceptions of their program [3] [4] [10]. There is, however, limited literatureon hackathons being used in-class, with the “Markathon” [10] being one notable exception.Hackathons are usually, but not always, competitions [8]. Most
, human factors/ergonomics, en- gineering psychology, virtual reality, artificial intelligence, computer vision, biomimetics and biomechan- ics with applications to industrial manipulation and manufacturing, healthcare and rehabilitation, social services, unmanned autonomous vehicle (aerial and ground, indoor and outdoor) systems and STEM education.Dr. Sheila Borges Rajguru, New York University Dr. Sheila Borges Rajguru is the Assistant Director at the Center for K12 STEM Education, NYU Tandon School of Engineering. As the Center’s STEM Educator and Researcher she works with engineers and faculty to provide professional development to K12 science and math teachers. In addition, she conducts studies that looks at
Paper ID #21516Reactions from First-year Engineering Students to an In-depth Growth Mind-set InterventionDr. Emily Dringenberg, Ohio State University Dr. Dringenberg is an assistant professor in the Department of Engineering Education at Ohio State University. She holds a BS in Mechanical Engineering (Kansas State ’08), a MS in Industrial Engi- neering (Purdue ’14) and a Ph.D. in Engineering Education (Purdue ’15). Her research is focused on decision-making within the context of engineering design. She is working to leverage engineering edu- cation research to shift the culture of engineering to be more inclusive of
Paper ID #23265Satisfaction: Intrinsic and Extrinsic Motivation in Engineering Writing Course-workDr. Stephanie Pulford, University of California, Davis Dr. Stephanie Pulford is the Associate Director for Instructional Research & Development of UC Davis’ Center for Educational Effectiveness. Dr. Pulford’s professional background in engineering includes a Ph.D. in Mechanical Engineering, an M.S. in Engineering Mechanics, and a B.S. in Aerospace Engineer- ing as well as industry experience as an aircraft engineer. Her research and professional interests include faculty development, innovations in engineering
University in West Lafayette, Indiana. c American Society for Engineering Education, 2019Changes in Student Perceptions of Course-Based Service-Learning at Large Scale: EPICS at 23 Years OldAbstractThe EPICS Program, founded at Purdue University in 1995, has grown where it is engagingmore than 1100 students per year collaborating with more than 50 local and global communityorganizations. The EPICS program has experienced a more rapid phase of growth in recentyears, doubling the enrollment from 292 in the spring of 2010 to 603 in the fall of 2017 and over700 in 2018. This phase of growth included shifts in the composition of teams, as more first andsecond year students enrolled in the design
Paper ID #26956Designing a Laboratory Ecosystem Framework, and Scaffolding an Interac-tive Internal Combustion EngineDr. David MacNair, Georgia Institute of Technology Dr. MacNair serves as Director of Laboratory Development in the Woodruff School, and manages Junior and Senior level laboratories in Mechanical Engineering. He develops innovative laboratory experiences based on lessons-learned from the maker movement and real-world industrial challenges, and is building an ”ecosystem” of academic laboratory equipment and curriculum resources which allows universities to collaborate on the development and execution of
engineeringcommunity after their experience. Finally, over 75% plan to continue their research beyond thesummer and pursue graduate school.IntroductionMotivationIn 2018, record numbers of students applied to internal research funding for summer researchprograms at Rose-Hulman Institute of Technology. Due to the one-on-one mentoring andcollaborative environment at Rose-Hulman, research experiences provide quality learningopportunities for students to improve critical thinking skills and prepare for future careers inresearch or industry. However, students may be the sole student working on a research projectsuch that the work can be lonely, and faculty have the burden of training an undergraduate student– in many cases an underclassman – to perform research in
focused on exploring the scienceand engineering of prosthetics. Students conducted research, designed a prosthetic limb, developeda materials list and budget and created a prototype limb based on their design. Participants alsoconducted several smaller experiments throughout the course where they were asked to generate ahypothesis and collect and analyze data to demonstrate use of the scientific method.Program participants spent nine full days on campus during the summer experience. Studentsexplored transportation systems research and engaged in extended learning opportunities includingcampus tours, industry tours and presentations from invited guest speakers. The summer researchexperience focused on the Engineering Grand Challenge, Restore and