40 publications and papers, numerous company-private handbooks and documents, and 11 patents. He has a B.S. in Physics from Penn State and an M.S. and Ph.D. in Physics from Purdue University. Page 11.1243.1© American Society for Engineering Education, 2006 Technopolis Creation - A Survey of Best Practices from Around the World Carmo D’Cruz, Clifford Bragdon, Dennis Kulonda Florida Tech, Melbourne, Florida Ken Ports QTSI, Inc Cocoa Beach, FloridaAbstractTechnopolis communities are sprouting up all over
tool to assess engagement for a variety of demographics andlearning settings [24] found higher engagement scores from distance learners in first-year andsenior participants in the 2006 NSSE survey, compared to on-campus learners. Robinson andHullinger [5] also measured online learners’ engagement using the NSSE, and found that themajority of students worked collaboratively, but sometimes did not feel they worked effectivelywith others. Communication was fairly regular among students, and most students felt that theonline course(s) enriched their work through online discussions, work knowledge and skills, andsolving complex real-world problems [5]. In terms of student and university differences, Kuh [25]noted that smaller schools typically have
AC 2012-2972: APPLICATION OF INTERRUPTED CASE METHOD FORTEACHING ETHICS TO GRADUATE STUDENTS IN TRANSPORTATIONENGINEERINGDr. Robert M. Brooks, Temple University Robert Brooks is an Associate Professor of civil engineering at Temple University. He is a Fellow of ASCE. His research interests are engineering education, civil engineering materials, and transportation engineering.Jyothsna K. S., Jyothsna K. S., Department of English, St.Joseph’s College, Bangalore, secured a gold medal for the high- est aggregate marks in the Post Graduate English Literature Course at St.Joseph’s College (autonomous). K. S. has been working for the Department of English, St.Joseph’s College for almost two years now, teaching both
safetyTable 2: TUEE Skills Number Skill KSA 1 Good communication skills KSA 3 Ability to identify, formulate, and solve engineering problems KSA 10 Critical thinking KSA 12 Ability to prioritize efficiently KSA 13 Project management: supervising, planning, scheduling, budgeting, etc. KSA 16 Ability to use new technology and modern engineering tools necessary for engineering practice Number Skill KSA 19 Applied knowledge of engineering core sciences and implementation skills to apply them in the real world KSA 20 Data interpretation and visualization KSA 22 Leadership KSA 24 Systems thinking KSA 26 Application-based research and evaluation skills KSA 27 Ability to create a vision
28713Abstract The application of remote sensing, especially in the field of environmentalmonitoring, has been a relatively new topic. This paper reports progress and results oftwo real-world environmental sensing projects and the impact on graduate learning. The first project is the design and development of a microclimate system. This isa system for use on the land and incorporates sensors that can detect temperature, light,soil moisture, and soil temperature. The design with Crossbow motes, daughter sensorboard, and powering methods will be discussed in the paper. The second related project is a water quality monitor. The project is through thesupport and collaboration with a local non-profit organization, WATR. The water
knowledge and understanding about the practical and real world applications of audio (voice, speech, music) processing • To become familiar with audio processing hardware and software • To develop knowledge and understanding about the fundamentals in DSP, using a combination of the various media of audio analysis • To become familiar with real-time implementations of signal processing • To develop an audio signal processing laboratory that can be adopted by other institutions.Major Learning OutcomesAfter successfully completing the course the student will be able to: • Demonstrate knowledge and understanding about audio signal processing and its real world applications
cannever be undermined, and adoption of Boyer’s model definitely sets a new direction of Page 13.1065.2graduate education in terms of scholarships.This paper introduces a new model for graduate education under Boyer’s model ofscholarship, “GREAT,” stands for “Graduate Research, Engagement, Application, andTeaching.” The paper discusses the impact and expands the implications of Boyer’smodel on engineering and technology graduate education by exploring the meanings offundamental research, industrial engagement, real world applications, and enhancedteaching activities. During the past three years, the “GREAT” model has beenimplemented in the Master of
, meaningful interactions, the School can bothgauge its approach in real time during the admissions cycle, and work toward meeting its goalsof increasing the quantity, quality, and diversity of the PhD student body.B. Holistic Admissions ProcessWhile the communications and marketing prong was focused on increasing the number anddiversity of PhD applications, as well as overall yield, the holistic admissions prong was focusedon ensuring that the overall admissions process is effective at admitting students who are likelyto succeed and thrive in our PhD programs. The overarching goal is an admissions process thatis holistic, built on evidence-based best practices, and with as little bias as possible.A multitude of reasons have been raised to account for
details; potential and vision potential and vision are vision CV, indicated potential are good outstanding personal and vision statement insufficient Clear research goals & Letters of No goals or Expression of goals Expression of goals and interest in solving real- evaluation, interests indicated and interests evident, interests clearly articulated world problems, CV, but not well- and align with faculty alignment of goals with personal articulated or do not expertise faculty expertise
graduate student in Engineering because of her research work. Her Research work is related to last year internship in Northrop Grumman Ship Systems in Ocean Springs, MS. During that time, Yamilka was a link in a pilot project between the university and the company in where she apply what she learned in class and research at MSU, to the real shipboard power systems problems in the company. Her work is going to continue this summer, when she goes back to Northrop Grumman for second consecutive year as a summer intern. She is an active student in research, courses and extracurricular activities, especially sports. Some research interests include control techniques and the application in power systems
in as many years; it is a cohort program meaningthat a particular batch of students will take the same courses together in each semester; itincludes a global trip as a part of curriculum; and the students work on several project-basedlearning courses.The case study of the course this paper presents is a one week long project based course that isoffered during the residency week of the second year of the program. Students work on acompany-sponsored real world project. At the end of the week the students present their analysisand results to faculty and industry executives based on which their performance is measured. Inthis paper, we present the course objectives, course design, and grading policy. Results of studentlearning outcomes survey
real-world process orsystem over time." Furthermore, in designing new systems, a simulation experiment would helpdesigners run various scenarios to select the optimal alternative among the others. In some casesit may be possible to study the real system and to modify it to observe any change in the systemoutput(s), for example, examining the impact of increasing the number of automated check-inkiosks on reducing passengers’ waiting time in airports [2]. However, in some other situations, forinstance, in emergency rooms, it is not an appropriate approach to make changes in the system.Simulation courses have been part of the Industrial Engineering curriculum since the 90’s.Simulation courses have been offered in traditional Industrial
from a variety of educational background – science, engineering, management, economics,liberal arts, etc. The methodology framework for the capstone projects is not the only key to thesuccess of their projects but should be broad applicable to solve real-world sustainabilityproblems.This paper will demonstrate a pragmatic capstone framework and specific tools for the programthat focuses on both technical and management aspects of sustainability. The capstoneframework, assessment and feedback aspects will be discussed. It includes graduate researchattributes such as sustainability modelling, project implementation, quantifications and processflows. In addition, management attributes with tools such as sustainable SWOT, risk analyses,Best
. For international students, the most important factors are the diversity of courseofferings and quality of areas of study, followed by the opportunity for developing careernetworks.Discussion The appeal of an MEM program for both U.S. and International students is how it improvestheir career prospects. Even though U.S. students and international students show smalldifferences in how they value different aspects of an MEM program, fundamentally, they are allfocused on boosting their career trajectory when they enroll in a program. This focusdifferentiates a professional program from an academic program; real-world applications of whatthey learn, along with activities and events that expose students to employers and others whomight enhance
student experiences something very close to the “real” world in the onlinecourse experience by completing writing, presentation, and other communication assignments atseveral levels of responsibility within the company.IntroductionThe challenge for a graduate program in technical management is how to most effectively helpstudents learn to be successful managers. This task includes both helping the students learn abody of knowledge that will be helpful to them for many years but also helping them acquireskills to actually do management. In many such degree programs the learning of the body ofknowledge is facilitated by having the students engage in activities like reading books , listeningto lectures, watching videos, reading and discussing case
for professional graduateengineering education that enables continued growth of graduate engineers in industry and governmentservice throughout their entire professional careers ─ from entry-level through the highest levels ofprofessional engineering leadership for innovation and creative practice. This model reflects the mannerby which practicing engineers recognize real-world needs, understand the issues involved, learn theexisting state-of-the art of technology through self-directed and experiential learning, identify andformulate realistic specifications required for effective solution, direct scientific research efforts to gain abetter understanding of phenomena involved, and actually create, develop, and innovate new ‘ideas
will this occur in a more responsible stainable manner than hasbeen the history of so many now in trouble nations? The program of study incorporates the bestof what is known about technological innovation, research and development, and sustainability.Furthermore, it does so not by abstracting these concepts into a philosophical or theoreticaldiscourse but rather into the pragmatic application of these concepts to real world industry,business, and technology.The program of studies leading to the dual masters degrees conceptualized for this project hasbeen carefully discussed and conceptualized by faculty from the partner institutions tosystematically develop the target outcomes focusing on sustainable technological innovation. Assuch it is an
for Distribution Research and Education. He has devoted more than 30 years to developing distributors through research in best practices in distributor competitiveness, operational efficiency, and financial models. He combines efforts in understanding the optimal distributor with education at the graduate, undergraduate, and professional development levels. His approach is to engage the industry in understanding their problems, researchers in solving those problems, and faculty in developing educational processes that make the solutions real world for students who work in the industry (professional development and distance-based graduate) or soon will (undergraduate). c American Society
environments that focus on practiceand the application of knowledge in authentic contexts10. Therefore, activities never take theform of simple lectures or seminars. While it is understood that some form of presentation orlecture may be needed as an instructional tool, the aim is to learn by doing. Moreover, we aim toprovide real-world, meaningful problems rather than abstract scenarios. Page 24.1281.6 Figure 2: List of Translational Skills, Example Activities, and Example OutcomesThe primary outcome of TESP is to increase students’ proficiencies in the seven core skill areas.While we believe these skills will make our students more creative
Engineering? Engineering has been redefined for the 21st century. As the National Academy of Engineering points out ─ Engineering is a very creative profession ... the outcome of which is new, improved, and breakthrough technologies responsive to meaningful real-world needs of people and industry... for the advancement and betterment of human welfare. 9 As Eric Walker, former president of Pennsylvania Page 14.1075.5 State University and ASEE noted: “The key idea is that engineering is a system of [leadership] that results in the satisfaction of human needs.”10What is the Role of the Nation’s Engineers for Innovation? As a
leadership in placing strong emphasis on the broaderneeds of the nation in competing in the world market and maintaining the strength of theeconomy reflective of industry in New Jersey to gain a competitive advantage throughinvestment in its engineering leaders and unleashing human potential.1. Introduction Currently, research engineering universities emphasize long-term research as the processby which discoveries are made that eventually lead to the application of these principles to thedevelopment of innovative products and processes. This concept is often called the “linearmodel” for engineering education. However, this approach does not meet the immediate needsfor development of America’s technological strength through the innovation and
teaching environment. Page 14.654.1© American Society for Engineering Education, 2009 GRADUATE EDUCATION IN CONSTRUCTION MANAGEMENT: SUCCESS ONLINE ABSTRACTThis paper will describe the use of videoconferencing software to present synchronous distancelearning graduate classes in a construction management department at a Purdue university.Adobe Acrobat Connect Professional allows the faculty to use a hybrid synchronous, interactivedelivery model for this department’s masters program. Synchronous distance education connectsstudents and professors in real-time. It allows
. Page 12.210.1© American Society for Engineering Education, 2007 An Iconoclastic View of Graduate Education The 4+1 Program: An Accelerated Route to the MS DegreeAbstractGraduate engineering education is a key to the maintenance of U.S. competitiveness in the worldmarket. The world has been an extremely dynamic engine during the last fifty years, and wehave witnessed a dramatic change in the world order. The change has been evolutionary in manycases, but events in Eastern Europe, Asia, the Middle East and the erstwhile Soviet Union areonly slightly less cataclysmic than the events associated with the Second World War. In a worldwhere strength is measured in terms of the financial resource, the technological ability
be offered. ≠ Some of these courses may be offered only occasionally rather than on an annual basis. It is very important to have this flexibility for an agile program. ≠ This is a student-centered strategy that fosters student initiatives and focuses the student Page 14.858.7 on real-world, state-of-arts topics. ≠ These special topics courses for IT/Advanced Computer Applications fostered a wide range of abilities, not only those related to content knowledge or technical issues, but also other practical skills.One of the most important lessons learned from course offerings strategy for students enrolled inthe
. Directed projects in programs which allow/requiredirected projects are often focused on work with particular technical industry employers.These types of experiences allow students to obtain some real world work experiences toenhance both their professional and technical skills. This can be a double-edged swordthough: industry employers who work with graduate students may expect them to have alevel of professionalism already, and may not appreciate having to train a graduatestudent in the same way they might expect to work with undergraduates. Experientialeducation requires planning, forethought (intentionality and reflection), and also requiresthe degree program to make contacts with industry for students to work with. This doescreate an
engineers. Skills include a working knowledge of business and ethics,teamwork experience, a solid grounding in engineering science as well as communication andpresentation skills. The program develops abilities such as an appreciation of the basic principlesof business, the profit motive, how to design and execute experiments, how to prepare projectplans and regulatory documents, and how to carry out a real-life project within a company.Program emphasis is placed upon engineering creativity and innovation. with a strong emphasison the needs of the nation to compete in the world market and maintain the strength of the U.S.economy. A second objective of the paper is to describe the current status of a recentlydeveloped Professional Science Master’s
Engineer) applies standard practices/techniques under direction of an experienced Engineer. Appendix B The Modern Paradigm of the Practice of Engineering for Creative Technology Development and Innovation Responsive to Real-World Needs of Industry and Society_____________________________________________________________________________________ Needs Engineering Technology ↓↑ Directed Basic Scientific Research to gain a better understanding of natural phenomena when needed or anticipated during the
, theircreativity, their knowledge gained through study and experience, their judgment, and theirleadership in the solution of real-world problems. By their innovative designs, and theirconceptualization of new ideas and concepts, to meet real-world needs of people, engineersactually obsolete existing technology through their improvements and deliberate breakthroughs.New technology is brought about by a very purposeful and systematic practice of engineeringinvolving the deliberate recognition of meaningful human needs, and the deliberate engineeringcreation of new ideas and concepts, to effectively meet these needs though responsibleleadership. Engineering practice, and its resulting outcome of technology, have been redefinedfor the 21st century.2
, Page 14.666.8challenges them to reflect on their own qualities and competencies in relation to theeducational experience, and to move toward greater personal and professional development in 7their chosen area at the competitive global marketplace. This curriculum is also able toincrease the students' capacities as reflective practitioners. Students, who are highly aware oftheir roles in their professions, are able to assess and improve their effectiveness through thisapproach.The pedagogical approach followed in this program engages students as active participants intheir own learning, in interaction with others, in response to real world problems, and in waysthat parallel the process of fieldwork
technological innovation is linked directly to how creative andinnovative our U.S. Engineering Workforce in industry is and how we sustain the progressivedevelopment of this vital asset.Developing a highly innovative U.S. Engineering Workforce in industry, capable of applying theengineering abilities of creative problem-solving as ‘champions, innovators, and leaders’ therebygenerating new technology to meet real-world needs is crucial to the future success of U.S. technologicalinnovation.The U.S. Engineering Workforce in industry is one of the nation’s most vital and potential creative assetsin sustaining our economic development, national security, improvement in the quality of life, and well-being as a nation.As the Council on Competitiveness points