2017 ASEE International Forum:Columbus , Ohio Jun 28 Paper ID #20791Vertically Integrated Projects (VIP) Programs at International Institutions:Multidisciplinary Projects with Homes in Any DisciplineDr. Randal T Abler, Georgia Institute of TechnologyProf. Edward J. Coyle, Georgia Institute of Technology Edward J. Coyle is the John B. Peatman Distinguished Professor of Electrical and Computer Engineer- ing, directs the Arbutus Center for the Integration of Research and Education, and is the founder of the Vertically-Integrated Projects (VIP) Program. He is a Georgia Research
through Capstone Engineering ProjectsAbstractCapstone engineering projects are essential to demonstrate engineering graduates’ industry-readiness; however, in a bi-national region, international preparedness is becoming an essentialrequirement for engineering graduates. This paper describes the process of collaborative learningresultant of a cross-border capstone engineering project in an effort to create an undergraduateresearch network towards a cross-border learning environment in the Rio Grande Valley.BackgroundThe Rio Grande Valley (RGV) in southeast Texas and the north east of Tamaulipas, Mexico is aregion known as one of the fastest growing metropolitan areas of the world, holding a regionalpopulation of over 3.5
2017 ASEE International Forum:Columbus , Ohio Jun 28 Paper ID #20793International Humanitarian Capstone Design Project Option: a Model forSuccessDr. Kevin Kochersberger, Virginia Polytechnic Institute and State University Dr. Kochersberger has been an Associate Professor of Mechanical Engineering at Virginia Tech since 2011, teaching and leading new developments in the ME capstone senior design course as well as advising graduate student research in unmanned systems. He introduced an industry-sponsored model for capstone design with a favorable IP policy, established a
2017 ASEE International Forum:Columbus , Ohio Jun 28 Paper ID #20730Project Supervisors’ Views of a Group Based Project Exam for EngineeringStudents in a Problem-Based Learning CurriculumDr. Bettina Dahl, Aalborg University, Denmark Bettina Dahl Soendergaard is an associate professor at the Aalborg Centre for Problem Based Learning in Engineering, Science and Sustainability under the auspices of UNESCO at Aalborg University (Den- mark). She also holds a Professor II position in mathematics education at the University of Bergen in Norway. She has a M.Sc. degree in mathematics
engineering in general.Prof. Jean-Marc THIRIET, Gipsa-lab, Univ. Grenoble Alpes Jean-Marc Thiriet has been a professor in Universit´e Joseph Fourier then Univ. Grenoble Alpes since September 2005. He has been the coordinator of the EIE-Surveyor Thematic Network (www.eie-surveyor.org) of the European Commission (2005-2008). He was elected as a member of the Council of the EAEEIE and was treasurer from 1999 to 2005. He participated in Thematic Network projects (INEIT-MUCON, THEIERE, EIE-Surveyor, ELLEIEC and SALEIE), in Atlantis projects (ILERT, DESIRE2) and in IP DOSSEE. He was the Head of the GIPSA-lab Research Centre in Grenoble, France.Prof. Anthony Edward Ward, University of York, England Tony is Professor of
Section 6.2. Virtual Teams overviewTeamwork has been essential for teaching students; it is appealing and stimulates thedevelopment of professional abilities. With the advancement of technology and globalization, theuse of Virtual Teams is growing, leading to important changes and innovations in education.Virtual Teams are “groups whose participants use information technology in functioningthroughout locational, sequential, and interpersonal restrictions to undertake a codependentassignment” 6. The use of Information and Communication Technologies (ICTs) forcollaboration is mandatory in Virtual Teams. Developed projects are short-term, with a focus ininnovation. Groups are small, with members located in different places. In this regard
support STEM education in developing nations, thus, open source applications would be the solution to this dilemma. Open source software technology depends on collaborative work among people from all over the world, therefore, students in developing nations can gain their experiences while they are contributing to open source projects and earn their degrees while they are at their home county and no need to travel to study abroad. Schools can utilize STEM open source for teaching that leads to build robust education for students and help build their future and move out of poverty.In this paper we discuss Open source as tools and applications to enhance students learning inSTEM education. Examples of open sources, Oracle VM
students of both regional leader institutions in higher education.With this undergraduate research in technology development and innovation, both institutionsstart the cooperative work, leading efforts towards effective and strong cross-bordercollaboration. The project was a great opportunity to coordinate future research, takingadvantage of our strategic geographic location and identify future research opportunities tocontribute to the economic development and social wellness, in both sides of the border, dueto its distinctive characteristics – economic development, culture, language, etc. In this paperwe include a description of the enrolled programs, the collaboration method, monitoring andevaluation, lessons learned, resultant outcomes
curriculums; Coremechanical engineering ‘knowledge-building subjects’ such as mathematics, engineeringmechanics, thermodynamics, mechanics of materials and ‘Knowledge-integration subjects’such as engineering design, capstone project. The basic objective of knowledge-buildingsubjects is to gradually develop discipline specific knowledge while knowledge-integrationsubjects focused more on students’ all-round abilities and workplace skill development.The Mechanical Engineering programme in HKPolyU-ME admits students to its BEng(Hons)in Mechanical Engineering programme through 2 major routes; (1) direct admission to year 1based on Hong Kong Diploma of Secondary Education (HKDSE) results (4 years in theuniversity – HKDSE intake) and (2) the Senior Year
market conditions. The above impliesfor an increase of the role of marketing, accounting of abruptly changing environment of thehigher school, demands of the consumer and the market, and, as a consequence, a quickeradaptation of the management of the higher school with new objectives, science-drivenproducts, technologies and services of specialists. Such a new objective for today is the management and practical implementation ofinnovative projects, which requires new approaches and new specialists. Commercializationof innovative projects becomes the most relevant objective for all members of the process.No positive results can be achieved without a profound analysis of the proposed project andits highly professional operative management
best knowledge of the authors, this has never beenexperimented in other institutes. To provide the best learning experience for our students and totake advantage of the MakerSpace (a new facility that was recently set up in SCUPI), the idea ofa SCUPI Derby, which was modeled after the well-known US Boy Scouts’ Pinewood Derby [1],was assigned to our students as the final project. What is different from the Pinewood Derby isthat the model car of our project would be made from 3D printing instead of elaborating on apinewood block. To prepare our students for this challenging task, SolidWorks has been used asthe main design tool. Not only the concept of concurrent engineering was introduced in the earlystage of the class, but also the technology
mustalso engage students in practical learning experiences that place equal emphasize onprofessional skills training including teamwork, lifelong learning and social responsibility.These are traits that form the core competencies for not only professional engineers but alsoentrepreneurs.Sharing the above vision, a group of engineers and scientists from University of Hong Kong,Hong Kong and Dagon University in Yangon, Myanmar embarked on a cross-country andcross-disciplinary experiential learning project to work on one of the major environmentalsustainability issues of the 21st century – wastewater treatment. In this reported pilotprogramme, 16 engineering students from University of Hong Kong travelled to Myanmarfor a weeklong programme where they
students, mostly locals with a sprinkling of students from otherAsian countries and a rare exchange student or two from the West. Class size was around 700 persemester, split into two batches of about 350. I taught the first overview and ethical theoriesmodule for ten semesters in five years, in three two-hour lectures with slides. There weretutorials for batches of about twelve each, a few handled by me and the rest by tutors. Thetutorials enabled effort by and assessment of individuals and of small teams three or four strongfor a team project with ethical content at the end of the course. I enjoyed the whole experience.Group-A was culturally homogeneous and fairly cosmopolitan, with predictable engineeringbackground and broad exposure to Western
-doctor at the Center of Information Security from 2007 to 2010 in Beijing University of Posts and Communications, China. He is currently an Associate Professor at the State Key Laboratory of Management and Control for Complex Systems, Institute of Automation, Chinese Academy of Sciences, and Institute of Smart Education Systems, Qingdao Academy of Intelligent Industries. He has participated more than 30 academic or technical projects funded by Chinese 973, 863, NSFC, etc. He has authored more than 60 papers. His interests include the modeling and analysis of complex systems, intelligent transportation system (ITS), and engineering educatin.Prof. Xiwei Liu, 1.The State Key Laboratory of Management and Control for Complex
Arts degree in General Studies from Southern New Hampshire University with the partnership of Kepler Kigali, where he is com- pleting Bachelor of Arts in Management. Prior to joining Kepler in the summer of 2014, Alphonse has studied Electronics and Telecommunication for three years at the Integrated Polytechnic Regional Center and earned a professional diploma, A2. At IPRC, he involved in electrical, electronics, and telecommu- nication workshops which all stimulated his interest in engineering education and digital fabrication. He educates youth to help them acquaint themselves with technical skills and hands-on experiments through STEM courses and independent projects. c American
Intro. to Digital Logic Spring, Year 1 EE 188 & Lab Electrical Engr. I (Circuits) Fall, Year 2 EE 215 & Lab Microprocessors Fall, Year 2 EE 280 & Lab Intro. to Electronics Spring, Year 2 EE 348 & Lab Fund. of Signals and Systems Spring, Year 2 EE 310 & Lab Fund. of Computer Engineering Fall, Year 3 EE 380 & Lab Fund. of Electronic Circuits Fall, Year 3 EE 364 & Lab Fund. of Electromagnetics Spring, Year 3 Comprehensive After instruction Supplemental Projects and Labs
academic credentialing. The game is co-created by ateam of students, an engineering librarian, and a major technical publisher. To date, the two games haveimpacted over 5000 students in 530 universities worldwide over the past two years. Over eighty percent ofplayers indicated that the game was their first exposure to the NAE grand challenges. Forty percent ofplayers indicated it was their first time using either the Knovel or EngineeringVillage products. Playersstated that they i) enjoyed the real-world connection of the game, ii) were exposed to knowledge discoveryplatforms to accelerate search, and iii) were very likely to use the platforms again in future research anddevelopment projects. The future direction of this work is toward a platform
private sector consulting appointments working with government agencies and private land developers to promote balanced transportation/land use con- nections. He has participated in transportation projects throughout the U.S., Europe and sub-Saharan Africa. He is a charter member of the American Society of Civil Engineers’ Transportation and Devel- opment Institute (T&DI) and chair of its Public Transportation committee. Steven is an active member of the Transportation Research Board where he recently served on its standing committee on Technol- ogy Transfer. Steven is currently the Technology Transfer Director for the USDOT-funded Southeastern Transportation Center and serves on the editorial board of its Journal
design and fabrication skills. The use of each space is unique to eachinstitution, with spaces typically supporting curricular, extra-curricular, personal, andentrepreneurial projects.It is noted that engineering programs have always included elements of higher educationmakerspaces in their programs but these elements were often regarded as individual parts ratherthan as a collective whole. For example, machine shops were (and many still are) viewed asindependent operations that service courses and research endeavors. Similarly, undergraduateteaching labs, such as those that might support a mechatronics course, were (and sometimes stillare) treated as single-purpose resources for experiments and projects related to that course.Makerspaces are
Great Pyramid of Giza, the only remaining wonder of theseven wonders of the ancient world is still standing in Egypt in good shape after thousands ofyears of being exposed to the elements. Egypt has also a remarkable array of modern wondersincluding the largest earth dam in the world, the Suez Canal that connects the Mediterranean andRed Seas, subways, roads, bridges, tunnels, and huge energy generation facilities, water storage,massive irrigation, and giant land reclamation projects. Faced with an explosion of populationincrease, the effort of upgrading existing infrastructure and constructing a new one for the manynew cities presently under construction is unparallel. Furthermore, for its beautiful nature, mildweather, endless sand beaches
elementary,middle and high school levels. Thanks to strong support from the industrial sector, Texas A&MUniversity at Qatar has been successful in executing an array of outreach initiatives for studentsin grades 5–12. In particular, programs for students in grades 7–12 highlight the role ofengineering toward Qatar’s grand challenges, and integrated, problem-based learning is at thecenter of projects and activities designed to educate, enrich and stimulate young minds towardSTEM studies and careers, especially in areas of Qatar’s greatest need and demand.Literature ReviewRecent research indicates that an experience with STEM learning on a university campus can bea “decision point” for prospective STEM students. A study conducted in Norway found
, project management, etc. In addition, Considering to strength theeducation of innovation, entrepreneurship, and especially problem solving capability for K-12students, iCDIOS is presented based on CDIO (Conceive, Design, Implement, and Operate)engineering education approach. The letter i in iSTREAM and iCDIOS means intelligentscience and technology, innovation spirit, inspiration, etc. In iSTREAM, Robotics, as anindependent element is added since we believe that Robotics will be an independent subjectwith coming era of human-machine collaboration; Mathematics is changed into managementto cultivate Chinese students' abilities related to management; In iCDIOS, S as service isadded to complete the whole engineering process.2.4 STIE FrameworkBased on
) (large) (medium) (large) (medium) (medium) (large) (large) (large) 2, 22 2, 22 2, 22 20, 22 20, 22 20, 22 52, 22 52, 22 52, 22U.S. based research .91 .95 .32 - - - -project that examines a - - (large) (large) (small) 1, 22 1, 22 1, 22global issue
president of Korea Association of Innovation Center for Engineering Education for 2009-2012 and 2016-2017. His role in ABEEK was to lead the Committee of Criteria of Accrediting Engineering Programs. His role in ICEE is to coordinate 60s ICEE universities for sharing the outcomes of the ICEE project. He graduated from Mechanical Engineering Departments of Seoul National University (BS), KAIST (MS), and University of Illinois at Chicago (Ph.D) and his research area includes interferometric measurements, automatic fringe pattern analysis, and vision inspections. c American Society for Engineering Education, 2017 International Collaborative Dual MS Degree ProgramRose-Hulman Institute of
) arrive automatically into one’semail. The examples below are the results of a search alert created from the author’s advancedsearch (bike OR bicycle AND “Latin America”):This is an alert “enabled” over the course of the last few months, and which presents 16documents published between May 2, 2016 and February 1, 2017; documents non-existent whenthe search alert was created, and which an end-user would have had to search week after week ormonth after month to find. These search alerts are ideal for specific interests within a given timeframe (project deadline, semester papers, etc.)Similar to search alerts but less targeted are “content alerts” -sometimes called TOC (Table ofContents) alerts- which by using the same personal account, allows
regular faculty, or to teach new/irregular courses. (N2) B. What positive change will they bring to the university? What are the desired results of this job?Interviewees coincided that the major expected impact would be in the curriculum and newresearch topics. 1. Curriculum - new courses, labs & projects (N4) 2. New research topics (N3) 3. Industrial context (N3) 4. Define and provide the skills students need to be hired (N2) 5. University promotion and networking (N1) C. Which skills, knowledge, behavioral and cultural competencies should a PoP have?Plenty is expected from a PoP by all respondents. Most the stakeholders expect that a PoPcandidate is willing and able to share their
Level Outcomes Fall 20XX Course Number and Title – XXX-XXX Const. Project Mgmt. & Scheduling Course Outcomes Percentage Percentage Percentage Percentage Comments (Objectives) Exceeded Met Approaching Did Not Standard Standard Standard Meet >85 70-84 60-69 Standard <601. Students would be 11% 76% 8% 5%able to produce Quizzes 6, 7,meaningful