knowledge sharing, with a focus on cognition in informal environments. He also examine the role of ICT in support- ing distributed work among globally dispersed workers and in furthering social development in emerging economies. He received the U.S. National Science Foundation’s Early Career Award in 2009. He is co-editor of the Cambridge Handbook of Engineering Education Research (CHEER) published by Cam- bridge University Press, New York, NY. Dr. Johri earned his Ph.D. in Learning Sciences and Technology Design at Stanford University and a B.Eng. in Mechanical Engineering at Delhi College of Engineering.Krishna Madhavan, Purdue University, West Lafayette Dr. Krishna Madhavan is an Assistant Professor in the School of
Outstanding Ph.D. Dissertation Award from the European Design and Automation Associa- tion (EDAA) in 2006 for New Directions in Embedded Systems. He received a CAREER award from the National Science Foundation in 2009 and four Best Paper Awards from the ACM/IEEE International Con- ference on Hardware-Software Codesign and System Synthesis (CODES+ISSS), the ACM/IEEE Design Automation and Test in Europe Conference (DATE), the IEEE International Conference on Engineering of Computer-Based Systems (ECBS), and the International Conference on Mobile Ubiquitous Computing, Systems, Services (UBICOMM). He is an inventor on one US patent. He has coauthored five textbooks on VHDL, Verilog, C, C++, and Java programming. His recent
al. describe efforts to use the Alice programming environment to teach introductoryprogramming concepts.53 Interestingly a later report assessing the efficacy of the curriculum usingAlice indicated that while pre-post testing indicated learning gains with the environment, focusgroup data indicated a dissatisfaction with Alice as an introductory language, resulting in a switchto LabVIEW.54 A possible explanation given for the dissatisfaction of Alice was that students didnot perceive it as being a “real” programming environment they might use in industry, whileLabVIEW was. Certainly, helping students connect the utility of skills they learn in the classroomto those that will be important in their later career is important. In some cases
? Yes 49 92% No 4 8% Table 8. Results from post development question 2 Spring 2016. Question 3 of the post iAdvise usage survey focuses on ease of access to information.Due to inaccessibility, information that could be gathered by the agent is seldom sought out.Even if the agents understand the notion of “the more credits that I enroll in and pass the faster Igraduate”, it is not often that agents actually take the time to calculate their time to graduation.According to Landis, an expert in the field of engineering education, the more time and effort astudent devotes to planning their career
addition. In 2015, CAN bus functionality was added to the2014 specification. The CAN bus is a robust but complex network protocol, and student-reporteddevelopment peaked. Apart from the heavy workload, students reported satisfaction with theexperience as they found the CAN bus interesting and saw the utility of having experience with itfor future courses and their careers. The 2016 design was fundamentally identical to the 2015variation but with the introduction of gap learning. A clear reduction in LoC reported is seen.The 2017 offering was nearly identical to the 2016 version and reported LoC was almostunchanged. The effort in 2019 to reduce student workload by providing more of a completedesign framework and limiting student requirements is
entireengineering careers in college and on into their professional careers. Repeated use ofcomputational tools leads to familiarity, and to what now is called “pervasive computing” in thesense that the slide rule was simply a well-known tool to the student. Most engineeringundergraduate students do not develop like familiarity with computational environments likeMATLAB for the simple reason they do not achieve self-reliance with MATLAB, largelybecause they do not use it throughout their undergraduate experience.The crux issue is that higher order learning, i.e. concept oriented learning, is necessary beforetransference across problem settings is effective.2 To enable higher order learning in the contextof a computer toolset, the tools must be mastered
review, 51 journal articles, and 100 confer- ence papers. He has mentored four doctoral students, eleven masters students, 25 undergraduate research students, and 11 undergraduate senior design project teams; over 300 K-12 teachers and 95 high school student researchers; and eighteen undergraduate GK-12 Fellows and 53 graduate GK-12 Fellows. More- over, he directs K-12 education, training, mentoring, and outreach programs that currently enrich the STEM education of over 2,000 students annually.Dr. Magued G. Iskander P.E., Polytechnic Institute of New York University Dr. Magued Iskander is a professor of Civil and Urban Engineering at NYU-Poly. Dr. Iskander is a recip- ient of NSF CAREER award, Chi Epsilon (Civil
yourresume.” The expression “Google resume” refers to the information that appears in thefirst pages of a Google search. This information is becoming just as important, if notmore important, than the traditional resume. Unlike a traditional resume, a Google Page 22.1306.7resume takes time to build, and is hard to change. Therefore, students should be awareearly on in their college careers about the importance of their Google resume, and learntactics they can use to improve it. The practices we recommend here are all intended toimprove a student’s visibility in online searches, and to increase the probability of searchresults featuring professional content
. Page 24.1058.1 c American Society for Engineering Education, 2014 RoboSim for Integrated Computing and STEM EducationAbstractThis paper describes the design, implementation, and application of RoboSim, a robotvirtual environment, for integrated computing and STEM education in K-12 schools.Robots are being increasingly used in schools for hands-on project-based learning andmotivating students to pursue careers in Science, Technology, Engineering, andMathematics (STEM). However high costs and hardware issues are often prohibitive forusing robotics as often as desired in mathematics and science classroom teaching. Due tothe tight schedule for teaching math and science subjects, hardware mishap and failure,such as
majoring in Industrial Engineering. He currently has been accepted to Pennsylvania State University to pursue a Master’s in Industrial Engi- neering. Michael is interested in working either in the Healthcare of Manufacturing industry. Michael has worked at Pratt and Whitney located in East Hartford, CT as well as Crash Safety located in East Hampton, CT. Both of these experiences has helped him strengthen his knowledge in data analytics and optimization. One of Michael’s biggest interests in Ergonomics and Human Factors which he plans to purse later in his career. American c Society for Engineering Education, 2021 Technology Decisions of
in education by applicating the simulation procedures fornumerical analyzing tools such as SolidWorks and LS-DYNA using the example - seat railstructures. Understanding the various assumptions made and the procedural steps followed toperform design iterations using these software tools is critical to obtain accurate results. Use ofCAE and math tools allow students to explore ‘what if’ scenarios and develop critical thinkingskills needed in STEM careers. Designing components and assemblies that are lighter and safersaves energy and environment as a whole. Use of recyclable materials such as aluminumcontributes to these global issues. To conclude, computer usage in this work was very intensiveand key take away for readers in developing
, they are often worried about applyingprogramming to solve practical problems. The author finds a three-pronged approach works wellto make sure that students can engage with the portions of the material that require programming.First, it is crucial for students to recognize that some experience with programming will benefittheir careers. As more and more design tasks are accomplished in software, the ability to automatesimple tasks (e.g., report generation from a data table) or the ability to script within anotherapplication (e.g., to perform a parameter sweep in a design software) will be an importantdifferentiator in their careers.Listing 1: ThermoState code example demonstrating the output from an impossible unit conversion.The input syntax
, college life could beconsidered the “training wheels” of life. It is the time period when you leave home and yourresponsibilities gradually increase until you a fully responsible for yourself. During that timeperiod, especially if you are living on campus you are exposed to living and learning with otherstudents training for life as well. When receiving a traditional education, the actual collegeexperience includes meal plans, Greek life, sporting events, festivities, etc. [7]Another benefit of receiving a traditional education is the networking. The environment iscomprised of students, faculty and professionals in all degree areas. Prior to graduating, thenetworking students gained can come from the career center, previous professors, or
. We found that documentation of NetLogo to be helpful but notextensive. The knowledge base for NetLogo was limited, and it took a lot of effort to get a newconcept working with the code.Students are quite motivated to be able to develop the current simulation model and are interestedin keeping working on it. Future work would be to fix the bugs and write a better algorithm foragent collisions. The actual dimensions of the department will be used to build the environment.Instructors will be modeled based on their office hours, and student interaction will be simulated.The application will be expanded to include other building simulation such as interaction inshopping malls and multi interaction areas like career fairs or a
anawareness of and an appreciation for. Regardless of their chosen field of study and ultimate jobupon graduation, it is almost certain that they will encounter the Internet of Things during theirengineering careers. This paper describes an effort to introduce the Internet of Things to afreshman-level engineering course at Louisiana Tech University that allows the students tounderstand and experience some of the technology involved in this phenomenon. By adding asmall amount of additional hardware to the existing Arduino microcontroller platform already inuse in our year-long engineering course sequence, students are able to apply techniques theyhave already learned to implement a WiFi module and send data to a database. They are alsoable to open a
introductory fluidscourses as mathematically onerous, conceptually difficult, and aesthetically uninteresting.Undergraduate courses in fluid mechanics, in fact, have been shown to act as curriculargatekeepers to fluids-related studies and careers [2].In this project we aim to iteratively develop, implement, and assess a low cost, handheld, mobilePIV tool within in high school and undergraduate educational contexts. We anticipate that use ofthis device will excite student interest in fluid mechanics and increase retention withinengineering by supporting conceptual understanding in fluid mechanics courses through hands-on learning.BackgroundLaboratory PIVTraditional Particle Image Velocimetry (PIV) is a powerful laboratory technique used to measureand
, Multidisciplinary Engineering Design major at Penn State Abington. His works focuses on robotic autonomy through ROS and MATLAB. Over the course of the past two years Cullen has worked with robots such as the TurtleBot and Parrot Bebop using ROS. Recently his work focused on using multiple robots. He hopes to continue this work in his career. c American Society for Engineering Education, 2018 Introductory Mobile Robotics and Computer Vision Laboratories Using ROS and MATLABAbstractRobot Operating System (ROS) is an open source, Linux-based robotics development anddeployment system which supports many commercial and research and development robots. Theeducational advantage of
of the ACM, vol. 50, no. 7, p. 30, 2007.[13] A. All, E. P. Nu˜nez Castellar, and J. Van Looy, “Towards a conceptual framework for assessing the effectiveness of digital game-based learning,” Computers and Education, vol. 88, pp. 29–37, 2015.[14] E. M. Gerber, J. M. Olson, and R. L. D. Komarek, “Extracurricular design-based learning: Preparing students for careers in innovation,” International Journal of Engineering Education, vol. 28, no. 2, pp. 317–324, 2012.[15] Z. Z. Li, Y. B. Cheng, and C. C. Liu, “A constructionism framework for designing game-like learning systems: Its effect on different learners,” British Journal of Educational Technology, vol. 44, no. 2, pp. 208–224, 2013.[16] V. S. Pantelidis, “Virtual reality and
Magazine, vol. 15, no. 5, 2003, pp. 325.8 R. Schroeder, et al., “TQM in Education: Changing the Culture of Schools ” 1997; nsf.gov.http://www.nsf.gov/awardsearch/showAward.do?AwardNumber=9712991. Accessed: 24 May 2010.9 Landis, Ray, “Studying Engineering: A Road Map to a Rewarding Career”, 2nd Edition, Discovery Press, 2000 Page 26.1773.14
advising, one that focuses onmotivation. Unlike conventional courses, in which students are motivated by competition and Page 12.941.10social interaction, computer based courses use different motivational strategies, such as selfactualization and career advancement. We have found convenience to be a negativereinforcement—students skip lectures and are easily distracted.Bibliography1. Open Courseware, MIT website: http://ocw.mit.edu/index.html2. Bates, A. W., & Poole, G. (2003). Effective teaching with technology in higher education:Foundations for success. San Francisco: Jossey-Bass Publishers.3. Mayer, R. E., Moreno, R., Boire, M., &
, including theuser-space, operating system and Hypervisors.This paper presents an overview of the actual industry requirements regarding computer scientists,briefly reviews the capabilities of LTTNG and then discusses how this tool was used in a course to Page 13.1171.2illustrate, in a direct and intuitive way, the behavior of real, complex, computer systems.3 Computer industry requirementsConsidering today’s level of complexity found in computer systems, it comes without wonder thata lot of freshly graduated computer engineers start their career dazing at a task they have not beenprepared for.Dewar and Schonberg pointed out in their paper4 that
Proficiency level of computational capability. It is important Page 14.356.5to note that the assumption (based on feedback from the industry panel) is that fewstudents will develop capabilities at the fluency level prior to embarking on a professionalengineering career. The levels are: Competency The individual has technical skill mastery of certain computational tools and/or programming languages. Limits in conceptual knowledge means that they are limited to solving well-defined tasks with specified tools. When faced with a more open-ended or complex problems, limits in conceptual knowledge will mean they will probably not be able to solve the
diagrams for water is provided, along with suggested tutorial questions for students and recommendations for additional applications. Feedback comments are provided from seniors who used the Mollier and T-s diagrams, and from juniors who used a similar application which provided a tutorial on p-v and T-v diagrams. Several screen shots of the worksheets are provided. The spreadsheet files are available from the author via email.IntroductionTo the budding thermodynamics student, nothing can be quite as daunting as the initial exposureto the property tables for gases and (even more so) two-phase fluids. Many undergraduates, evenat the end of their careers as mechanical engineering degree candidates, are uncertain of
software for the “correct” answer. Students must now graduatewith not only the knowledge of their field but also with the ability to use and evaluate technologytools that surround them. We previously found a correlation between overall GPA and problemsthat required information outside of class but related to prior knowledge and easily accessible viathe internet.24 Here, we further explore students’ performance on problems that “stretch” thestudent’s thinking to go beyond the question on the page, and to integrate their prior knowledge,draw on their experience, and evoke their curiosity. We use student success on these problems asour measure of engineering intuition, and are interested in identifying the common factors(major, career aspirations
his academic career, Dr. Bouabid worked in the industry (engineering and manufacturing) for more than 12 years in France and in Morocco, where he held several management positions. Dr. Bouabid holds a DEST (BS) and an Engineer degree (MSc) in Mechanical Engineering from the Conservatoire National des Arts et M´etiers of Paris, France and a MSc and a PhD degree in Systems Engineering from the University of Virginia, USA. c American Society for Engineering Education, 2019 Proactive Means for Engineering Students’ Edification on SustainabilityAbstractA vigorous role of engineers is to uphold and advocate sustainability, yet, this role is oftenoverlooked especially in regions where the guidelines of
and testing) and the reliability and maintainability of complex systems. Hehas been selected as both a NASA and an ONR Faculty Fellow. He regularly teaches courses in Ma-rine Engineering and in Maintained Systems. Most recently Dr. Dean was on the Headquarters Staffthe American Society of Naval Engineers. He received his Ph.D. from the Department of EngineeringManagement and Systems Engineering, and a B.S. in Nuclear Engineering Technology, from the BattenCollege of Engineering and Technology at Old Dominion University. Additionally, Dr. Dean receivedan MBA from the College of William and Mary. Prior to is academic career Dr. Dean was Director ofOperations and Business Development for Clark-Smith Associates, P.C., and served as an Electrician
such, results from this study could be used to inform developers andinstructors how to capture, analyze and predict learning outcomes as well as provide informationrelevant to each students’ level of ability when using digital tutors.References[1] Ian Martin, “Are Engineering Jobs in Demand?,” Electrical Engineering. [Online]. Available:https://ianmartin.com/engineering-jobs-demand/[2] Bureau of Labor and Statistics, “Occupational Outlook Handbook,” [Online]. Available:https://www.bls.gov/ooh/architecture-and-engineering/electrical-and-electronics-engineers.htm[3] A. Belasco, “College Advice for the Career-Minded: So, you want to be an engineer?,” (2015),College Transitions. [Online]. Available https://www.collegetransitions.com/blog/so-you
/2013/05/06/why-america-desperately-needs-more-scientists-engineers/[2] A. Belasco, “College Advice for the Career-Minded: So, you want to be an engineer?,” (2015),College Transitions. [Online]. Available https://www.collegetransitions.com/blog/so-you-want-to-be-an-engineer/[3] A. Murata and Y. Ohta, “Metacognition in Solving Process of Basic Electric Circuit Problem-Comparison of Metacognitive Characteristics between Non-major and Major Students inElectric Engineering,” Computer Technology and Application, vol. 4, no. 8, pp. 415-424, Aug. 2013.[4] M. J. Larkin, “Providing support for student independence through scaffolded instruction,” TeachingExceptional Children, vol. 34, no. 1, pp. 30–34, 2001.[5] R. Feyzi-Behnagh, R. Azevedo, E. Legowski
World Conference on Educational Multimedia, Hypermedia andTelecommunications, pp. 1236-1244, 2014.[3] A. Belasco, “College Advice for the Career-Minded: So, you want to be an engineer?,” (2015), CollegeTransitions. [Online]. Available https://www.collegetransitions.com/blog/so-you-want-to-be-an-engineer/[4] A. Murata and Y. Ohta, “Metacognition in Solving Process of Basic Electric Circuit Problem-Comparison of Metacognitive Characteristics between Non-major and Major Students in ElectricEngineering,” Computer Technology and Application, vol. 4, no. 8, pp. 415-424, Aug. 2013.[5] T. T. Moores, J. C.-J. Chang, and D. K. Smith, “Clarifying the role of self-efficacy and metacognitionas predictors of performance: construct development and test,” ACM
engineering in the Volgeneau School of Engineering, and is the Secretary of the George Mason University Chapter of the American Society of Mechanical Engineers.Dr. Oscar Barton Jr., George Mason University Oscar Barton, Jr., Ph.D, P.E. is a Professor of Mechanical Engineering at George Mason University A native of Washington, D.C., Professor Barton received his B.S in Mechanical Engineering from Tuskegee (Institute) University, his M.S in Mechanical Engineering and Ph.D degree in Applied Mechanics from Howard University. Dr. Barton joined the faculty of Mechanical Engineering Department at George Ma- son University fall 2014, after completing a 22 year career at the U.S. Naval Academy. His research focuses on the