University Dr. Gene Hou is a Professor in the Department of Mechanical and Aerospace Engineering of Old Domin- ion University (ODU). He received his PhD in Mechanical Engineering from University of Iowa in 1983 and joined Old Dominion University since then. His expertise is in computational mechanics, multidis- ciplinary design optimization and system integration and risk management. He is the co-director of the Marine Dynamics Laboratory. During his tenure, he has the privilege of developing 3 new undergraduate and 6 new graduate courses in the areas related to computational methods and design. c American Society for Engineering Education, 2017 An Integrated Curriculum for Technical Writing
country’s elementary and highschool system, which show low performance levels when compared to international standards3.According to the opinion of many, this last is the key factor that explains why a significantpercentage of the population (approximately a 20%) is not capable of generating an incomesufficient for a dignified life.The second part of the article briefly describes the structure of the actual curriculum, which isvery similar to the one in the Universidad de Chile. Being both schools the leaders in thecountry, the remaining universities have shown a tendency to follow these curricular designs. Inthis perspective, what these two schools develop in the area of curricular change will most likelygenerate curricular changes in all the
courses for engineering students and leads study-abroad trips for students. c American Society for Engineering Education, 2018 Integration of Global Competencies in the Engineering CurriculumKeywords: curriculum, study abroad, globalIntroductionThe need for developing global competency in engineering students has received considerableattention over the past several years and a number of high-profile reports [1] [2] have highlightedthis need. A variety of programs have emerged to address this need ranging from namedprograms like Purdue’s Global Engineering Programs [3], college programs focused on theEngineering Grand Challenges (see for example [4]), at least one “global competence certificate”program [5
developing world issues and technologies. Page 11.1285.8ETHOS sponsors local and state science fair awards, given to junior or high school studentswhich presents a project directly exemplifies the mission statement of the ETHOS program. Intotal, five awards have been given. ETHOS students attend the science fair, rate all projects andpresent the award to the winning student.Conclusion and RemarksThe Engineers in Technical, Humanitarian Opportunities of Service- learning (ETHOS) programis an effective pedagogy for curriculum- integrated engineering service- learning at the Universityof Dayton School of Engineering. Reflection quotes, by participating
holds a Ph.D. from Oregon State University and an M.E. from Texas A & M University. His research interests are in the areas of river morphology and restoration, sediment transport and megafloods. Dr. Wyrick teaches fluid mechanics and water resources courses.Dustin M. Kuzan, Rowan UniversityCarolyn D. Braun, Rowan UniversityJared S. Krause, Rowan UniversityDavid M. Santino, Rowan UniversityMary E. Wellspeak, Rowan University Page 12.497.1© American Society for Engineering Education, 2007 Developing Global Engineers: An Integrated Approach to International ProjectsAbstractInternational
; • An integration of basic math and science onto themselves, but most importantly, intertwining the theory to serve engineering principles and engineering applications; • Proper connectivity between pre-college math & science with their counterparts in first year engineering; • A vertical integration of the curriculum so that multiple objectives within the same course and time period can be achieved, i.e., lower–division students no longer face a set of isolated individual courses but rather a vertically integrated package that would be team developed and team taught; • Emphasis on inquiry-based learning and pedagogies of engagement with less dependence
railroads, ships,factories and foundries and took a course in general business as it applied to a practicingengineer. Physics, chemistry and higher mathematics were integral to the curriculum inthe sense that they were taught in conjunction with an engineering application and asnatural sciences in themselves.10 He envisioned laboratories to aid in testing materialsstrength and elasticity, determining coefficients of friction and lubrication testing, tooltesting, power transmission and engines of all sorts. In 1874 the trustees of StevensInstitute approved his request to set up a mechanical laboratory and purchase tools,equipment, testing devices and engines.4The Philadelphia CentennialThurston’s opportunity to show his laboratory and popularize his
students: understanding professional responsibility through examples. 1996 ASEE Annual Conference Proceedings, Session 1661.67. Bhatt, B. L. 1993. Teaching professional ethical and legal aspects of engineering to undergraduate students. 1993 ASEE Frontiers in Education Conference Proceedings, p. 415-418.68. Fulle, R., C. Richardson, G. Zion. 2004. Building ethics and project management into engineering technology programs. Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exhibition, Session 1348.69. Alford, E. and T. Ward. 1999. Integrating ethics into the freshman curriculum: an interdisciplinary approach. Proceedings of the 1999 American Society for Engineering Education Annual Conference
residentialProject Centers. Page 12.771.2WPI’s Global Perspective Program was designed upon established learning principles 3 - 10 thatsupport learning by doing, challenging students with open-ended ambiguous problems,overcoming segmented thinking by working outside of the major discipline, and exposinglearners to cultural, social, and intellectual diversity. It has its roots in a university-widecurriculum reform that began in 1970 when a new curriculum replaced a traditional, course-based technical curriculum with a project-based program emphasizing teamwork,communication, and the integration of technical and societal concerns. WPI worked to structurea
and facilitated in international curriculum development efforts and collaborativedevelopment of global engineering programs. Gerhardti 25gives an example of facultyinvolvement in international collaboration in program development and offering: We also have strongly promoted faculty involvement not only implicitly through advising but explicitly through international curriculum development. Supported by FIPSE funding through 2000, seven pairs of international university teams reviewed and analyzed curricula offerings at their universities emphasizing compatibility of programs. This was done in 6 different disciplines in 5 countries. … a sufficient amount of compatibility was found to consider the future
with two additionalformats that the authors have since indentified: Dual Degree and International CapstoneProjects. A description of these various formats is provided in Table 1 below Page 13.648.7 Table 1: Categories of formats commonly used for engineering Study Abroad Programs Format Description Dual degree Students obtain two degrees—one from the home university and one from the abroad university. Students follow an integrated program which includes substantial study at the abroad university in the abroad language. This format often is employed for graduate-level work. Exchange
solvesocietal problems (i.e. clean water, energy, food, health problems, etc.). The paper will addresssome of the issues related to engineering in the global context and how Baylor University isapproaching the integration of this subject through its curriculum and extra curricular activities(i.e. language requirement, interdisciplinary overseas summer school, classroom exercises, andappropriate technology studies/trips) and what is planned for the future (School Committee onGlobal issues, Advisory board activities, and Classroom Activities).IntroductionThe U.S. production of scientists and engineers has continued to fall in relative terms whencompared to Asian rim countries.1 For example, in 2005 Indian schools awarded approximately112,000 engineering
deliver software on time,within cost, and meeting the objectives of the system and the customer. Its documented successresulted in the proliferation of CMM-based models to improve engineering processes, which in1998, prompted industry, the US government, and the SEI to begin the Capability MaturityModel Integration (CMMI) project12, providing a single, integrated framework for improvingmulti-disciplinary engineering processes in organizations. Their success, acceptance andmaturation prompt a closer look at the potential application of CMM-based models to improvethe process of engineering education.The next sections presents an overview of the CMM, and the proposed CMM-based model forengineering and technology program assessment, called
AC 2008-2662: BEATING THE COMPETITION DOWN WITH THE STICK OFEDUCATION: A WINNING STRATEGY FOR A GLOBAL WORLDSaeed Khan, Kansas State University-Salina SAEED KHAN is an Associate Professor with the Electronic and Computer Engineering Technology program at Kansas State University at Salina. Dr. Khan received his Ph.D. and M.S. degrees in Electrical Engineering from the University of Connecticut, in 1989 and 1994 respectively and his B.S. in Electrical Engineering from Bangladesh University of Engineering and Technology, Dhaka, Bangladesh in 1984. Khan, who joined KSU in 1998, teaches courses in telecommunications and digital systems. His research interests and areas of expertise include
Fidan, Tennessee Tech University Dr. Ismail Fidan is an Associate Professor in the Manufacturing and Industrial Technology Department, College of Engineering, Tennessee Tech University, Cookeville, TN. Dr. Fidan received his Ph.D. in Mechanical Engineering from Rensselaer Polytechnic Institute in 1996. His teaching and research interests are in computer-integrated design and manufacturing, electronics manufacturing, rapid prototyping, e-manufacturing, online teaching, and manufacturing processes. Page 11.209.1© American Society for Engineering Education, 2007 Overview of an
the perception that it is too expensive. Both issues need to be addressed. More scholarships and sponsored sources of funding, as well as a greater awareness of funding options, would very likely encourage and enable more students to go abroad. Higher education institutions also need to continue working to provide less expensive options and more financial assistance, or allow students to take advantage of other cost-effective options.” [2] “Curriculum: Study abroad is not currently considered an essential component of an undergraduate experience by many students, families and educators. In fact, it is often considered an “add-on” and not integrated within the curriculum. Whether or not credits
fields as well as in activities meant toimprove their writing and oral skills. The third objective is to make these students aware of theopportunities that are available in graduate programs by providing the participants with relevantand timely information about graduate program application procedures, deadlines, requirements,and funding opportunities. The fourth objective is to improve the students’ ability to learnindependently.Social and educational activities play an important role in this program. These activities promotesocial integration and academic discussion among participants as well as cultural exchange andfriendship. Social activities in our program include: pool parties, welcome and closing lunches,visits to recreational parks and
9544, Mississippi State, MS 39762-9544; telephone: (+1) 662.325.4240; e-mail: apowe@engr.msstate.edu. Page 12.1165.1© American Society for Engineering Education, 2007 Practical English: Teaching Technical Communication Abroad Based on a Preexisting Technical Writing Course in Mississippi State University’s Bagley College of EngineeringAbstractThis paper describes a technical communication course offered at Kyungpook NationalUniversity (KNU) in Daegu, Korea, during the summer of 2006. I, an American technicalwriting instructor employed by Mississippi State University’s Bagley College of Engineering
Integrating Achievement of Global Competence into the CurriculumAbstractLike many institutions across the country, we have embarked on the development of experiencesand programs related to the objective of achieving global competence in our engineeringstudents. These internationally-oriented activities have been part of a phased plan at the collegelevel to develop a system to achieve global competence within our graduates that is integratedinto their curriculum. This paper presents a description of the current state of the college effortsin this area and provides an overview of future directions towards curricular and non-curricularsystems. Emphasis is placed on the integration of the system with academic degree programswithin the college and
asked. CVEN Rome Program critiques were country-specific (e.g. transportation);however, the persistent responses about the language barrier indicate an area in which the CVENRome Program may find room for improvement.xii. Student ImpactOne academic concern raised often with a study abroad program is whether or not students learnthe content they need to succeed academically as they return from the experience. During a studyabroad program, there are several competing priorities with learning the culture, traveling, andtaking advantage of this unique experience. The CVEN Rome Program was designed to maintainthe same rigorous curriculum of courses taught in College Station, while providing someschedule flexibility to allow students to travel and
called Embedded SystemsEngineering.Concluding RemarksThe tremendous growth in the area of embedded systems requires the academic institutions toupdate their education in the area of embedded system design. Otherwise, it will become verydifficult to design tomorrow’s complex embedded systems. The process of updating thecurriculums requires a close interaction with industry to provide the right focus. In this paper,the authors have done an international study of the curriculums in other institutions of highereducation to decide how to integrate embedded systems design in their curriculum in thecomputer science department. It appears from the study that the best solution for them is to adda new area of specialization in their computer science
curriculum after those in the UK, not uncommon in Africa 2.Developing an Institutional IdentityThe development of the engineering program at UTG must support the overall institutionalgoals. Perhaps the most strongly felt of those goals is the institution’s efforts to develop a Page 25.421.2research identity to help establish itself as a university on an international stage. Ernest Boyer’smodel of scholarship as discovery, integration, application and teaching can be extremely usefulfor developing a research agenda at non-Research 1 (R1) Universities and Colleges. 3 His ideashave been incorporated into tenure expectations at many smaller
Classroom Learning in Low-resource settingsAbstractWith this work-in-progress paper, we report on the design of an innovative curriculum focusingon engineering skills for low-resource pre-college students. Engineering knowledge and skillsare in high demand for local and global knowledge economies and provide individuals access tosocial and economic mobility. However, basic engineering education is inaccessible to manystudents in low-income and low-resource areas. Educational technology may be one componentof a solution that addresses access and equity.The curriculum focuses on science and engineering problem solving within real world contexts.We adopt the Integrated Course Design for Outcome-Based Education approach1 for this design.This curriculum
, Utah. He received his MS and PhD in Computer Science from University of Oklahoma, Norman, Oklahoma. His research focuses on diverse areas such as: Database Design, Data Structures, Artificial Intelligence, Robotics, and Computer Integrated Manufacturing. Page 11.203.1© American Society for Engineering Education, 2006 An International Study of Robotics Courses in the Computer Science/Engineering CurriculumAbstractRobots are great motivation tools for teaching different concepts in engineering as well ascomputer science. Many courses involve simple robot construction and its
AC 2008-1359: A COMMON US-EUROPE CURRICULUM: AN APPROACH FORREAL-TIME SOFTWARE INTENSIVE SYSTEMSAndrew Kornecki, ERAU MSEE, PhD, Professor; engaged in a variety of research projects sponsored by the FAA, NSF, Florida State, and the industry (~$700K as the PI, ~$2.5M as co-PI); author and co-author of over 80 refereed papers in journals and conference proceedings; construction of real-time and safety critical software, embedded systems, computer simulation and aviation software, control and computer engineering education; teaching in undergraduate and graduate engineering programs on three continents; established ERAU Real-Time Software Laboratory; consulting and providing training for
experience being an academic year-long experience, were central to launchingthe program, the maintenance and ultimate health and success of the program hinged on buildingrelationships, relationships, relationships, the exchange program’s equivalent to the well knownadage of the real estate market.Exchange Program Description and InstitutionsThe Milwaukee School of Engineering (MSOE) and the Lübeck University of Applied Sciences,Lübeck, Germany jointly developed and implemented a unique international student exchangeprogram in the discipline of Electrical Engineering (EE). The uniqueness of the program lies inthe fact that it is fully integrated into the EE curriculum of both institutions and constitutes aspecific degree path at both institutions
AC 2008-959: ENRICHING A CURRICULUM WITH LOCAL CONTENTWillie Ofosu, Pennsylvania State University - Wilkes-Barre Dr. Willie K. Ofosu is an Associate Professor of Electrical Engineering Technology at Pennsylvania State University. He teaches telecommunications, wireless systems, computer networking, optoelectronics and analog and digital electronics at the Wilkes-Barre campus. He is a member of ASEE, IEEE, IET (England) and a Chartered Engineer (CEng) of England. He is currently involved in international activities in cooperation with some faculty members at Kwame Nkrumah University of Science and Technology in Ghana. He is an advocate of diversity in the education field. Dr
dish for internet connection which could be operational any day).Students also will be able to use these computer work stations for completing homeworkassignments and class projects.Laboratory facilities at HU include Soils, Asphalt, Concrete and Metals, Surveying, Hydraulics(under development), and Computer laboratories.UH continues to assist in integrating laboratory experience with theoretical and textbook learningthroughout the curriculum. However, an ongoing obstacle is that the current lab space, althoughaesthetically pleasing, is not well-designed for conducting labs. For example, it is extremelydifficult to conduct the soil laboratory in the space provided, and the marble floor in the concretelab is not up to the wear and tear this lab
well-rounded engineeringtechnology program. However, since feedback control systems tends to be a rather complextopic, students react positively to hands-on experiments that assist them visualize control systemsin practical situations, and, in today’s technology, utilizing and integrating computers within thecontrol loop is essential. An innovative feedback control laboratory has been developed in theschool of engineering technology at Daytona State College to fill this need. The laboratory isequipped with some of the most frequently used control systems in engineering and industry. It isdesigned to bridge the gap between theory and real-life problems, and to give the studentsvaluable hands-on experience to help them better prepared for their
technical and non-technical audiences - Design effective and usable IT-based solutions and integrate them into the current environment - Recognize the need for, and engage in, continuing professional development - Develop proficiency, both oral and written, in the English languageThese should evolve over time as the CS department continues to implement its curriculum andthe faculty collectively develops a better understanding of what it actually wants from graduates,but establishing a foundation and teaching the faculty an appropriate model for the developmentprocess is essential to the mentor’s role. The mentor must ensure that the faculty will continue toask, answer, and