shipping. The second solution was to providelocal buying options for each region (Europe, Asia, South America, Oceania, and Africa). InAsia the local suppliers offered lower prices than the world-wide distributors. The third solutionwas to get a grant for free kits. Because each lab has a simulation and a real-board component,we could identify students who were engaged in the class, yet couldn’t get a kit (completed the Page 20.14.4labs in simulation but not on the real board). We gave away kits to 50 students. Because we useda powerful microcontroller connected to a personal computer, we were able to build into the labenvironment a no-cost
thestudents another program running on his computer, allowing real-time software demonstrationsand data analysis. The session can also be recorded for viewing later. The software is run via astandard web browser and Java. Figure 1: Screen-shot of E-live being used in a tutorial in a third-year mechanical- engineering and materials-selection class, showing the software’s basic features.methodE-live web-based tutorials were introduced in our school in 2009, first in mechanical-engineering and materials subjects. The application was mainly practicing problem-solvingwith a small group of on-line students. The following year tutorials in first-year physics began.The practice extended course-by-course over the following years. By semester
years, multiple large EU-funded researchprojects have been launched or completed to promote the application of MBD in industry, andtarget at solving challenges encountered in different real-world application domains, such asCESEAR project 2 (Cost-efficient methods and processes for safety relevant embedded systems),MOGENTS project 3 (Model-based Generation of Tests for Dependable Embedded Systems),and SESAME project (A Model-driven Test Selection Process for Safety-critical EmbeddedSystems) 4. However, there are few universities in America that offer engineering students theknowledge of MBD.In the last decade, eclipse-based tools and MBD methodology have been widely applied todeveloping dependable embedded software systems in various embedded
: industrial robots; fluid trainers; test instruments; manufacturingmachines etc. Virtual Reality or simulation systems are useful to virtually replicate expensiveand complex machinery used in distance laboratories, but it lacks the hands-on component in thelaboratory experiment, which is highly critical for students’ learning 1.From these aspects, the Remote Laboratory is a potential technology as it has the ability to fillthe gaps in distance laboratory education. Using the internet and World Wide Web, heavy andcomplex lab equipment could be controlled by students from any location. As it constitutesoperating real lab equipment remotely, this approach promises more hands-on feeling to studentsthan simulations. Remote laboratory is a complex system
include the design and implementation of artificial intelligence applications in structural engineering, modeling the behavior of structural systems and components under typical and extreme loading condi- tions (including the effect of fire and collapse analysis), the study of connection design methodologies, and the analysis of the behavior of composite members. Dr. Elhouar has practiced structural engineering at the international level and has participated in his department’s internationalization program numerous times by accompanying students and teaching overseas.Dr. Amir W Al-Khafaji, Bradley University
, community, andinternationally in order for it to succeed.ConclusionTo bridge classroom learning and real-world business applications, Junior Enterprise offersuniversity students technical consulting projects with international networking and professionaldevelopment opportunities. Junior Enterprise advances university students’ ability to compete ina global job market due to their increased intercultural competencies and entrepreneurial skills.Universities interested in starting a Junior Enterprise are encouraged to use this case study as abasis, with particular focus on the recommendations provided.References1. Baxter, P., & Jack, S. (2008). Qualitative case study methodology: Study design and implementation for noviceresearchers. The Quality
, Farmingdale State College. The summer outreach program willfocus on real-world challenges and energy issues and introduce different forms of energygeneration through hands-on modules. Each module will focus on an energy component whileemphasizing the use of engineering technology and science involved in energy generation,conversion and conservation. The outreach program’s leadership component is embedded in acombination of activities such as: hands-on training, brainstorming sessions, world energyproblem debate sessions and team presentation sessions.Summer Program Description:The STEM and Energy Leadership program is developed to be offered for the first time in thesummer of 2014 at the State University of New York, Farmingdale State College. The
developed newcourses for these programs to heighten the students’ experiences in transportation engineeringwhile abroad. International transportation concepts and examples impacted the courses andcurriculum. Outside the classroom, the faculty and students shared real-world learningexperiences by observing and questioning together differences in the traffic control, safety andoperations on roads in other countries compared to the US. These experiences shaped facultyand students cultural and historical perspectives, and exposed them to civil engineering practicesin other countries. This allowed the faculty to be a more effective teacher through experiencesgained overseas and civil engineering design examples that can be shared in the classroom
people dimension is “Egoless Programming”. The idea was proposed byWeinberg more than four decades ago12 wherein he asserted that code quality can improve substantially ifpersonal factors are minimized as the ego of a programmer can get in the way of the effectiveness ofreview as well as of the sharing and seeking of ideas. Further, egoless development promotes teamworkwhich is instrumental for success in the real world4. The methods and ideas based on co-operation aresimilar to the ones adopted by the world of free and open source software (FOSS). Eric Raymond hasargued that the ‘bazaar’ model - the one adopted in the FOSS world - produces better quality code thanthe ‘cathedral’ model - the one prevalent in the most software companies13. The
partner is the primary instructor for each course in coordinationwith CEC faculty. Each partner brings a real-world example for students to work out the designwith all practical and real details. As part of this course, one industrial partner with internationalconsulting experience provides a lecture on how and in what ways internationalization isimportant for students.One way to evaluate the success of CEC’s internationalization program is that CEC has led theUniversity in terms of number of students participating in study abroad. Another way to assessthe impact of CEC internationalization program is by student surveys at all levels and by a senior“exit interview”. During this latter interview, seniors and selected CEC faculty discuss ways
. He has also published papers on learning and teaching related to civil and environmental engineering education. Dr. Al-Khafaji is the Executive Director of the Center for Emerging Technologies in Infrastructure and a Professor of Civil Engineering at Bradley University. He earned his BS in Civil Engineering and MS degree in Construction Management from Wayne State University in Detroit, Michigan. He received a second MSCE in soil dynamics and a Ph.D. in Geotechnical Engineering from Michigan State University in East Lansing, Michigan. Dr. Al-Khafaji is the co-author of 11 engineering textbooks including Nu- merical Methods, geotechnical, Statics and Dynamics, and software application. These books were used
, 32006). He is very familiar with Hofstede, et al. But he does not study virtual teams and he spends a lotof time on expatriates, which is not relevant to us.As Lewis observes, you have to treat all people personally as individuals and relying on stereotypes maybe devastating in a relationship or team. However, there are stereotypical business cultures that operatein various countries to varying extents.The CourseA course with real world project assignments was developed at the Pennsylvania State University, inwhich US undergraduate engineering students currently work together with undergraduate businessstudents at Corvinus University, Hungary and undergraduate engineering students at Taibah University,Saudi Arabia. Bilateral and trilateral
beyondwhat can be accomplished in the classroom. When experiential learning (we will use that term to include PBL) is combined with aproperly designed education abroad experience, the results are better than either experiencealone3. The “experience” provides an authentic context where students work on “real” projectswith “real” people; they include social/cultural issues and forces students to engage ambiguity,multiple constraints, and human issues connected to the specific engineering challenge. Thebenefits of authentic learning, and assessment, are well established in the educational scholarshipliterature4. The traditional assumption is that students must learn fundamentals before they cansuccessfully attack significant open-ended problems
' professional development it is only 33% of them who work within theirspecialization. And yet, labor productivity in Russia as a whole is 10 times lower than in the leadingcountries, and its share in the world trade is slightly more than 1% [1]. The Russian industry doesn'tuse the advances in science, technological developments and achievements in modern technologyefficiently. The manufacturers are actively pushed out of the market of high technologies and high-tech products.In 2012 these circumstances have prompted the President of Russia to release the President'sprogram (hereinafter - the Program) of training for engineering staff for 2012-2014. [2] Since 2013Kazan National Research Technological University (KNRTU) is among the program's
, energy,environment, security, and quality of life for all peoples.”(1) There are many types of problemsolving involved in SBES; however, the simulation and solution of real engineering problems isvery important and often requires the application of numerical methods. This is one area ofproblem solving that sets the engineering students and engineering professionals apart frommany other disciplines. Thus the advancement of engineering education worldwide andparticularly in developing countries requires resources for the efficient application of numericalmethods by engineering students, faculty and staff.Access to software and the computing resources that can enable numerical problem solving is aparticular challenge to engineering departments in
classes that are to be offered to meet student demand [19]. Students andgraduate in these days move from country to country seeking employment or going for higherdegree. The mass movement forces academic institute to globalize or internationalize theircurriculum for various programs. Academic globalization would mean that the graduates areequipped with competencies applicable in today’s world where national borders no longerhamper the flow of employment, technologies and products from one country to another. On theother hand it is also the ability of academic communities to attract as well as integratebrainpower of any nationality seamlessly. The rationales for this globalization are somewhatsimilar for developed or developing countries. Authors
engineering concepts being taught while also fosteringcollaboration amongst students to learn the intricacies of applying their knowledge to a real-world application.2 Although it was seen by Cline and Powers that in order to fully realize thebenefits of PBL, students and faculty must accept a larger work load. The entire teaching methodtaught must be restructured in a manner that the students are responsible for their empiricalprogression through the lab.3This paper will discuss the restructuring of the curriculum of an Instrumentation Laboratory forundergraduate Mechanical Engineering students at the University of New Mexico. Increasingundergraduate enrollment during an economic downturn left the Instrumentation Laboratorypoorly equipped to
1 0 Active/Reflective Sensing/Intuitive Visual/Verbal Sequential/Global Figure 5- The Test Group Learning Style ProfileWe used instruction methodology that matched the cohort cognitive profile. We used a problem-based approach coupled with the use of simulations tools to instruct this course. We paired everytwo students together to form a group (Active). At the beginning of every new topic, each groupwas given a comprehensive problem based on real-life application (Sensing) that addressed themain concepts of the topic to be discussed. Each group attempted these problems before the topicis discussed to give them an opportunity to see
. 9 advocate interdisciplinarycapstone projects as they believe that that the experience is more representative of what studentswill find in the real world. Schaffer, et al. 10 have concluded – based on their study of 256students from 60 teams - that self-efficacy for Cross Disciplinary Team Learning (CDTL)increased across all respondents. Apelian11 believes that one of the important skills for the21stcentury engineer is the ability to work with anybody anywhere i.e. have the communicationskills, team skills, and understanding of global and current issues necessary to work effectivelywith other people. He concludes that we need to educate engineers such that they understand thesocietal context of their work and have an understanding of the