developtechnologies and techniques for healthcare and patient care. As a field, it is very broad, withapplications ranging from molecular imaging to the construction of artificial hearts. Biomedicalengineering is however narrower in scope than bioengineering, or biological engineering, withwhich it is sometimes equivocated. Bioengineering focuses on the engineering of biologicalprocesses and systems in general, and includes not only biomedical engineering but alsoagricultural engineering, food engineering and biotechnology.In part because biomedical engineering it itself a new field, there is currently no distinctacademic field of biomedical engineering ethics. Ethical issues in biomedical engineering arecurrently studied in the fields of bioethics, medical
Session 2464 A Research Driven Multidisciplinary Curriculum in Sensor Materials Sheikh A. Akbar and Prabir K. Dutta Center for Industrial Sensors and Measurements (CISM) The Ohio State University 291 Watts Hall, 2041 College Road Columbus, OH 43210, USAAbstract The multidisciplinary research at the NSF Center for Industrial Sensors and Measurement(CISM) at The Ohio State University (OSU) has led to the development of an innovativecurriculum. The new multidisciplinary industry-oriented curriculum is currently being
. Furthermore, many instructional obstacles exist to incorporating ethicsinto the engineering curriculum, including instructor hesitancy to teach about issues in whichthey may have little training, difficulty identifying which ethics teaching practices are effective,and already-packed syllabi that allow little room for introduction of new topics. Thus, in thispaper, we describe a module in ethical problem-solving and an accompanying assessmentmechanism developed by the authors. This ethical problem-solving module addresses theaforementioned obstacles and may be readily adapted to other courses and engineeringdisciplines to achieve ethics education across the engineering curriculum. Implementation ofthis ethics module in biomedical engineering courses
2006-1212: MENTORING NEW FACULTY: WHAT WORKS AND WHAT DOESNOT WORKWilliam Jordan, Baylor University WILLIAM JORDAN is Professor and Department Chair of Mechanical Engineering at Baylor University. He has B.S. and M.S. degrees in Metallurgical Engineering from the Colorado School of Mines. He has an M.A. degree in Theology from Denver Seminary. His Ph.D. was in mechanics and materials engineering from Texas A & M University. He teaches materials oriented courses and his main research area deals with the mechanical behavior of composite materials. He also writes and does research in the areas of engineering ethics and engineering education. He is a registered metallurgical engineer
reviewingpresentations and reports and serve as mentors for some projects. Students bring together theknowledge gained during the engineering curriculum in this capstone experience in their senioryear. To be successful, students must take ownership of their project and go beyond what istaught. This helps them develop as autonomous lifelong learners.SummaryThe cases of the Electronic Sciences and Engineering School at Southeast University in Chinaand the Electrical Engineering program at the University of San Diego in the U.S.A. have beenconsidered. These are two very different programs in terms of institutional context, size, andcurricula. Both are committed to providing practical training experiences for their students.Each program’s approach has its strengths
andapplying new technologies. In this paper, we provide• An approach to provide focussed course options and electives in a stream, which could be modified for other stream topics• A recommendation for the division of PSE topics between required and elective courses• A description of advanced PSE topics and how they can be delivered within the chemical engineering curriculumWe begin by explaining our view of the topics included in PSE stream, with a brief comparisonwith a few prominent alternative definitions of PSE, and we address the need for a clearlydefined stream, rather than a selection of courses. Then, we define PSE learning goals, andpresent the sequence of courses that address these goals. We
exercises described below offer a new method of challenging students to create threedimensions from two. These exercises are a powerful and effective way to help engineering andarchitecture educators teach spatial visualization.Most of the 3-D visualization exercises currently being used by students in Design and Graphicsclasses present the objects in isometric views already in 3-D, asking the viewer to create multipleviews, fold patterns, manipulate, reflect, or rotate them. Exercises present the objects inincomplete multi-view projections, and ask the students to add missing lines. They use mostlyreal 3D objects that are easily recognizable to help the student correlate 2D with 3D.This new method uses a different approach. Each view of the solid
significant developments were occurring. In1993, the Western Australian Universities were approached on behalf of two city councils toestablish a new regional campus. This coincided with a decision by the Federal governmentto redirect capital away from the established metropolitan campuses to other, more ruralareas, designated as high growth regions. The submission by Murdoch University, whichincluded establishing a new engineering program, was selected. This was followed in 1994by the WA state government decision that Murdoch University should develop newcampuses in the designated areas. Murdoch University, at this stage, had decided to design anew degree in Software Engineering. Furthermore, given their well-established programs inmineral science
solution to theproblem. In the early 1990’s the Accreditation Board for Engineering and Technology (ABET)began emphasizing the importance of design in the curriculum. What ABET sought to influencewere programs wherein students had some experience with design before they attempted theircapstone design project. Although design was usually added to other than circuits courses, a fewbrave circuits instructors began to add some design content to their courses. Some circuits textsbegan to include some design problems. Today including design content in the first and/orsecond circuits course is still far from being universally adopted. Many students, especiallythose in non-electrical/computer engineering programs, view linear circuits as uninteresting
energizes the students. Some believe that itshould be offered as a senior level required course. The second option might be harder toimplement, since adding a new course to the curriculum is not an easy task, as often timeseliminating another course would be necessary. Offering it as an elective course is not a goodoption either, since every student is not going to get this experience. It seems that adding theconcepts slowly as modules to existing courses is a good solution for integrating the mobilecomputing concepts into the computer science and engineering curriculums.As the computing industry is constantly involved in the development of technology and productsto solve issues with mobile computing and communication, tomorrow’s computer
it integrated related courses and overall “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education”curriculum, and bridged academic areas for interdisciplinary efforts. The project’s purpose wasalso aimed at simulating those situations currently in the workforce that need visual, technical,and teamwork skills.The professor guided the process by giving the students the expectations of the final outcome.Animations of molecular structures, which were to be used as learning objects for an onlineorganic chemistry course, were created. How this goal was to be reached was the ultimateresponsibility of the students in
Department of Industrial Technology: Biotechnology Laboratory I,Biotechnology Laboratory II, and Bioinformatics Technology. The objectives of thispaper are to describe the implementation of the new curriculum. The courses within thebiotechnology minor prepare students including Industrial Technology to find careerswithin life science-based industries. These students will be the vanguard of a highlyeducated workforce contributing to the life sciences industry in Indiana. Page 10.385.1“Proceedings of the 2005 American Society for Engineering Education Annual Conference & ExpositionCopyright © 2005, American Society for Engineering Education
. • Real-Time Video Technology. The purpose of this new approach is to improve the remote experiment video transmission function. The optimized remote experiment application’s performance are supported by real-time video technology. In order to achieve these goals, a new video transmission approach via HTTP Live Streaming (HLS) protocol with FFMPEG, which is a powerful cross-platform command line video trans-code/encoding software package. The real-time video segments are transferred via HSL protocol, and will be reassembled in the WebView rendering engine and presented to end users. Figure 1: System ArchitectureThe unified framework layer is directly built on the top of a novel assembled
these schools range in cost, focus,targeted demographic and duration. When other summer engineering programs for pre-collegestudents include interactive activities, such as the program at New Mexico State University,11they are not necessarily combined with the range of components implemented by ITE.The emphasis of UVa’s ITE, in contrast to some other similar programs, is to reach out to the toptier of Virginia high-school rising juniors and seniors. The program puts them in a supportiveenvironment with their high-achieving peers in order to introduce them to engineering through ahands-on approach. The program reinforces the value of intellectual achievement balanced with
curricula at the Air Force Academy providehigh quality, ABET-accredited programs, as do many other engineering schools. Oneunique aspect at the Air Force Academy is that the construction discipline serves as theintroduction and conclusion to the curriculum. In fact, the construction context is aconstant thread woven through much of the curriculum. This approach not only workswell academically, but it serves the students well in preparing them for the roles they willhave as civil engineering officers managing projects for the Air Force, and for theirengineering futures beyond military service.Bibliography1. Department of Civil and Environmental Engineering, U.S. Air Force Academy, “Department Handbook”, fall 2006
, environmental and societal factors that go into product design ; we used this approach to not only discuss design considerations but also to teach information literacy. In fall 2015 (onsemester), there were 22 instructors (12 faculty and 10 graduate teaching assistants (GTAs)); of these, less than half had taught the class prior to fall 2015. In spring 2016, there are 4 instructors (1 faculty and 3 GTAs);of these half have not taught this course before and one is new to the Virginia Tech this semester. EngE 1216: Foundations of Engineering II The second course in the firstyear sequence continues to introduce general engineering students to the engineering profession. This course focuses on engineering design, mathematical modeling
Engineering graduates are able to work in a variety of environments and quicklyextend their fundamental knowledge to the focus required by a new or rapidly changingenvironment. The following subjects are presented and discussed: the constituency that initiallyproposed establishing an Integrated Engineering degree program; the original curriculum; theshortcomings, growing pains, and maturing of that curriculum; and the programs current ideals.Introduction Engineers today impact society to a greater extent than ever before. We depend upon thesystems, machines and processes developed by engineers in virtually everything we do. Solvingproblems in our modern world mandates the use of technology that changes virtually as it isembraced. In this
of the core discipline areas as autonomous courses withcredit allocation commensurate with effort and level of traditional coursework. This preservesexisting institutional course structures and provides for transferability of course credit. Thestructure allows for individual institutions to tailor course content to their regional industryneeds. The modular approach of this curriculum allows for use of the curriculum building“blocks” in a variety of engineering technology programs. The instructional modules areauthored by interdisciplinary teams of faculty from institutions across the US. MECOMTRONICS ENGINEERING TECHNOLOGY PROGRAM OUTLINE Semester Semester
mainly with private participation. The All India Council for Technical Education (AICTE), a statutory body of Govt.of India is the national level apex body with its mission of developing and promotingquality technical education in the country has been constantly giving importance toimprovement of quality by constantly upgrading the curriculum. AICTE brings out modelcurriculum in all specializations and programmes governed by it viz, Engineering,Management, MCA, Pharmacy, Hotel Management and Architecture. The curriculum development in India is done keeping the outcome basedapproach or the competency based approach. The National Institute of TechnicalTeachers Training and Research (NITTTR) located at four different places in India
Paper ID #16150The Evolution of a Course on Creativity and New Product DevelopmentDr. Larry G. Richards, University of Virginia Larry G Richards is a Professor in the Department of Mechanical and Aerospace Engineering at the University of Virginia. He leads the Virginia Middle School Engineering Education Initiative, and is active in K 12 outreach and professional development activities locally and nationally. Larry’s research interests include creativity, entrepreneurship, engineering design, innovation, and K-12 engineering education. He is a founding member of the K-12 Division and is a Fellow of ASEE
technologyeducation2, 3. Nolan Bushnell, Founder of Atari, father of the video game industry says, “If wecan integrate games within learning across the curriculum we can make education the propercompetition for our children’s minds.” BBC factual entertainment states that “People learnthrough games. Ninety-nine percent of boys and 97% of girls aged between 12-17 play videogames.” In a survey conducted in the United States with 25,544 teachers, 65% of teachers wereinterested in the use of games in the classroom4.Serious games can be used for education at all levels, from preschool and elementary school,through middle school and high school, into higher education, and even into the job market. Thispaper discusses the implementation of the engineering design game
engineering education, is the Engineering Projects in Community Service (EPICS) programat Purdue University (http://epics.ecn.purdue.edu) that partners undergraduate students and localcommunity not-for-profit organizations to solve engineering-based problems in the communityService-learning is a type of experiential education where the students learn through "real-world"experiences that meet a community’s needs4. In the engineering curriculum, other forms ofexperiential learning include projects, clinics, internships, laboratory classes, field trips.Moreover, service-learning promotes student understanding of the impact of engineeringsolutions in a global/societal context, a requirement in the Accreditation Board of Engineeringand Technology (ABET
), Atlanta, Georgia, in 1976, and the M.S. and Ph.D. degrees in theoretical and applied mechanics from Cornell University, Ithaca, New York, in 1982 and 1984, respectively. She worked as an engineer with the Hanford Engineering Development Laboratory in Richland, Washington, from 1977 to 1980. She was co-founder and vice president of JTM Systems and Consulting, Inc., Ithaca, New York, from 1980 to 1988, working primarily on the development, fabrication and commissioning of custom automated ultrasonic inspection systems. She continued this work from 1988 until 2002 as Manager of Systems Development at Panametrics, Inc., in Waltham, Massachusetts. In 2002 she joined the faculty of the School of Electrical and Computer
curriculum in earthquake engineering and spatial visualization.Ms. Heidi A. Tremayne, Earthquake Engineering Research Institute Heidi Tremayne is the Program Manager at Earthquake Engineering Research Institute (EERI). In this role, she is responsible for managing multiple projects and programs, creating and leading professional development programs, and supporting the Institute’s committees and chapters. Notably, she is the lead staff member for EERI’s flagship Learning From Earthquake program, as well as its new School Earth- quake Safety Initiative. In her role at EERI, she utilizes both her engineering skills (she is a licensed California Civil Engineer) and management skills to help EERI members and volunteers take
analysis in which the frequency of the sinusoid approaches zero. This results in a unifiedview of circuit analysis without the artificial separation of AC and DC analysis topics. Inaddition, the new unified approach results in a considerable savings of valuable curriculum timeand, more importantly, an increase in comprehension. The new unified approach has been usedat TCI where it has been taught for several years with great success. A textbook that uses thisapproach has been written by the authors of this paper and published by Prentice Hall.I. IntroductionThe rapid growth of new topics in electronics and computers has placed a stress on the ElectricalEngineering Technology curriculum. A requirement to introduce important new subject materialand
Strongly Disagree Strongly Agree(c) Do you think computational tools and skills (d) MatSE computational curriculum has pre-are important for materials science and engineer- pared you to learn new computational skills bying? yourself. 14 In Industry Masters/Ph.D. 12 Answer Count
often taken for granted, but when looked at as a singlemachine, the North American power grid is an incredibly efficient, safe, and robust system. 1,2Integration of this topic into K-12 curriculums helps students understand the world they live in,see math applied to real-world problems, and brings a much needed engineering element into theclassroom. As part of a NSF Graduate STEM Fellows (K-12) program, 7th grade math studentshad a graduate electrical engineer visit multiple times a week to integrate power engineering intothe classroom. The IMPACT LA (Improving Minority Partnerships and Access through CISE-related Teaching) NSF GK-12 Program works with underrepresented minority students in theEast Los Angeles Area. This paper presents
to apply what I have learned in my engineering courses to solve problems and thus reinforce the technical knowledge learned in class. Lastly, I was able to learn from my peers not only technical information, but I was able to see how they approached problems and thus learned new ways of thinking.” “This project is amazing. It allowed me to get outside of my comfort zone and revealed potential I didn’t know I had. This was the best experience I could have had and I’m very grateful for the opportunity to be chose to experience it.”VI. DiscussionIncorporating sustainability into the higher education curriculum is challenging, but doable. In 2002,David Orr, a leader in sustainability, wrote a seminal piece
offer a part time evening program in all of New England, and in addition has a veryactive co-operative education program. A typical graduating class is on the order of 15 students,with most students going directly into industry.In 2004 the department was approached by an Alumnus who is a retired CEO in the bar-codingand RFID industry, who was very ardent about bringing RFID to Merrimack College. While thisimmediately was recognized by the department as a major educational opportunity for ourstudents, it was not clear how to staff the course and find a spot in a very tight curriculum for anRFID course. The decision was made to host a three part seminar series delivered by industryexperts, including the topics: “RFID: Past Present and Future
offer a part time evening program in all of New England, and in addition has a veryactive co-operative education program. A typical graduating class is on the order of 15 students,with most students going directly into industry.In 2004 the department was approached by an Alumnus who is a retired CEO in the bar-codingand RFID industry, who was very ardent about bringing RFID to Merrimack College. While thisimmediately was recognized by the department as a major educational opportunity for ourstudents, it was not clear how to staff the course and find a spot in a very tight curriculum for anRFID course. The decision was made to host a three part seminar series delivered by industryexperts, including the topics: “RFID: Past Present and Future