“activelearning” style3, and has the students walk around the campus looking for real life examples ofeach materials class. The students thereby discover the Materials World we all live in andrealize the importance of materials in everyday objects.With each example of an engineered object, the most important or key property of the objectmust also be identified. For example, a plastic water bottle is an example of an engineeredpolymer product, and the key property for the liquid container could be low weight, flexibility, ortransparency. Materials selection is thus incorporated into the activity. The students mustdetermine what the key requirement for the application is, and connect the type of material thatsatisfies that requirement. Table
the book and calculator part of fluid flow and forget about the actual physical, wet part of it.” “This was a great experiment because it allowed everyone to get hands-on experience.” “Just a small pump can move a lot of water fast! Lawn mowers are almost that size andwhat they do is not as impressive.” “I enjoyed an afternoon with practical application and not just book work.” “The most interesting thing I learned was the actual complexity of the emptying-tankproblem. I had never really considered a horizontal cylindrical tank as it empties and thechanging surface area at the top of the water.” “It was a very useful exercise to gain real-world experience and perspective.” ”I liked actually seeing the
applicable). Projects are practical assignments that simulate “real world” applications. g. Case studies h. Tests, and final exam (sent separately).2. Phone connection. It is imperative that distance learning students have easy and adequateaccess to faculty. A full time faculty member would set aside 4 hours per week per 10 studentsfor answering questions and grading homework.3. Computer interface. Transferring documents via e-mail is the primary method ofcommunication with these classes. To do this effectively it is imperative that the student andfaculty have compatible software. Each student is required to obtain a copy of Pegasus Mailsoftware (free off the Internet) to use as the method of transferring these files. In the
AC 2009-113: INTRODUCING THE SMALL WORLD: DEVELOPING THEMEMS/NANOTECHNOLOGY CURRICULUMXingguo Xiong, University of Bridgeport Xingguo Xiong is an assistant professor in Department of Electrical and Computer Engineering at University of Bridgeport, CT. He teaches courses in the fields of MEMS (Microelectromechanical Systems), Nanotechnology, VLSI design and testing, microelectronic fabrication, etc. His research fields include MEMS and nanotechnology, CMOS VLSI design and testing.Linfeng Zhang, University of Bridgeport Linfeng Zhang is an assistant professor in the Department of Electrical Engineering at the University of Bridgeport. He teaches in the areas of biosensors, controls, signal
of ethics education are most effective. In his review of ethics educationprogram, Hess and Fore note that “there is neither a consensus throughout the engineeringeducation community regarding which strategies are most effective towards which ends, norwhich ends are most important. [7]” Bairaktarova and Woodcock assert “that engineeringeducators struggle with is how to best accomplish this goal,” and, in a historical review of ethicsin engineering, Perlman and Varma note the lack of agreement on how ethics education shouldbe performed, noting that classes solely focused on ethical theory are not likely to be sufficient inpreparing engineers for real-world ethical dilemmas. [8, 9] Colby and Sullivan also note the lackof consistency in methods
linear algebra, single degree of freedomspring, bar element, beam element and industrial applications of FEM. These modules can beaccessed by students and engineers twenty-four hours a day since they reside on a World-WideWeb server. This paper will review the format of the bar and beam element learning modulesand the experiences of the first author in integrating all five modules into the introductoryundergraduate finite element course at WPI. The issue of student feedback is also addressed.1. IntroductionThe Internet/World-Wide Web (WWW) is emerging as a new medium for transmittinginformation globally, created in multimedia form. Engineering educators have been using theWeb the past few academic years in courses, for posting course guidelines
Session 1358 The Design of Material World, an Internet-Based Educational Environment Jed S. Lyons and Stephen R. McNeill Department of Mechanical Engineering University of South Carolina Columbia, SC 292081. ABSTRACTEngineers need a solid understanding of the relationships between material processing, propertiesand structures to make informed material selection decisions for design applications. Hands-onlaboratories help students develop this understanding. However, time constraints, equipment costsand safety concerns severely
THE TRANSITION FROM THE 8085 TO THE “MODERN” WORLD James S. Finne, PE Assistant Professor, Engineering Technology Middlesex County College John Carpinelli, PhD Associate Professor, Electrical and Computer Engineering Director, Center for Pre College Programs New Jersey Institute of Technology William Barnes, PE Associate Professor, Electrical and Computer Engineering Technology New Jersey Institute of TechnologyAbstractTeaching the Introduction to Microprocessors
Brigham Young UniversityIntroductionIn this paper, we describe an innovative approach to combining research and curriculumdevelopment for the field of chemical engineering. The methodology has the potential to define anew paradigm for instruction in rapidly-evolving fields such as molecular simulation,computational chemistry, biochemical engineering, and materials science. Our immediate aimhas been to initiate a World Wide Web (WWW)-based “textbook” on molecular simulation, andto introduce it into the graduate and undergraduate chemical engineering curricula at ourrespective institutions. The textbook will have the additional role of a refereed electronic journalthat elaborates on important new developments and applications as they appear in the
Session 1520 Interactive Problem Solving for Mechanical Engineering on the World-Wide-Web Gregory G. Kremer and Bhavin V. Mehta Ohio UniversityAbstractThe world-wide-web has established its place in computer-based education due to its greatadvantages in terms of access, distribution, communication, and timeliness of feedback.However, software for internet-based applications is still far behind that for PC basedapplications in many respects, most notably in the types of interactive experiences available andin techniques for dealing with
Hollywood movies.While eating is usually prohibited in labs, we allow tasting of our special rapidly solidifiedmaterials – liquid nitrogen ice cream (Figure 5)7. Again, phase transformations can be discussedas the visitors eat their creation. Explanations are made as to how the liquid nitrogen turns theliquid ingredients into solid ice cream, how it produces very small ice crystals, and how it aeratesthe ice cream as it boils away. This is by far our most popular and tasty demonstration.Connecting to the “real world”While many of the demonstrations or activities have “wow” factors associated with them, it isimportant not to lose sight of how they demonstrate important principles in Materials Scienceand Engineering and to give practical applications
Powered by www.slayte.com Engineering and the Fulbright U.S. Scholar Program A World of OpportunitiesAbstractThe Fulbright U.S. Scholar Program provides opportunities for US Academics, Administrators,and Professionals to teach and perform research with colleagues from a vast array of countriesworldwide. The authors of this paper are Civil Engineering Professors who have recentlycompleted Fulbright Fellowships in the Netherlands and Namibia, where they collaborated withlocal academics on research and teaching. Due largely to the diversity of the cultures theyvisited, the authors’ experiences were highly varied yet both rewarding and fulfilling experiencesthat opened new doors to international
AC 2009-740: EWB^2 - ENGINEERS WITHOUT BORDERS: EDUCATIONALLY,A WORLD OF BENEFITSBeverly Jaeger, Northeastern University Beverly K. Jaeger, PhD is a member of Northeastern University’s Gateway Team, a select group of full-time faculty devoted to the First-year Engineering Program at Northeastern University (NU). While she concentrates on first-year engineering courses and instructs across all engineering disciplines, Dr. Jaeger also teaches specialty courses in the Department of Mechanical and Industrial Engineering at NU in Digital Simulation, Facilities Planning, and Human-Machine Systems.Ethan LaRochelle, Northeastern University Ethan LaRochelle is a senior electrical engineering
and students in completing challenging real-world assignments. • Allow students to choose accelerated learning options to earn relevant industry credentials. • Combine a college-career ready academic core with challenging technical studies that will prepare students to live and work in a global workforce and marketplace. • To impact the health and wealth of the students and community that services through sister schools in Balfate, Honduras. • To conduct international professional development, teacher-to-teacher via Zoom. Introduce the Global Sister SchoolsSTEM Projects involvementThe Global Sister School project was developed to connect schools with similar time zones. Forexample, in the USA as our primary
questions: 1. What did you learn about data science and civil engineering that was new to you (cite specific relevant sources) 2. Given the 4 ‘realms’ of data science skills in the bulleted list above, discuss those that interest you the most (or least) and those that you feel confident that you can learn (or not) 3. Give an example of a data science related application that you think is relevant to one of the 5 ‘Future World Vision’ scenarios (Mega City, Floating City, Frozen City, Off-Planet City, Rural City) Reminder: your response should be 250 to 500 words.Figure 3. Data Science homework assignmentCreativity and Innovation HomeworkThe goal of this homework was to allow students the freedom to explore topics on the cuttingedge of
of 10 4innovation.3. I understand the basics of the 57% 42%engineering design process. 8 64. Having an instructor with an 42% 42% 7% 7%education background makes the 6 6 1 1class more diverse.5. Concept generation with 7% 64% 14% 7% 7%historical innovators is a useful 1 9 2 1 1technique.6. How satisfied are you with the 57% 42%real world examples presented in 8 6 Page 15.366.21class.Results
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
developed cover the following topics sequentially: introduction to theenvironment, real time operating systems, software development and application debugging 3.Some of the applications covered are: implementing a finite impulse response (FIR) filter andtesting with audio, modifying the filter for different band pass characteristics, testing a media Page 10.1058.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering Educationcodec and implementing an embedded web server. TI expects to disseminate the
-Stadium couldeasily translate into other communication areas where a mix of real-time and stored informationwould enhance an information space or an experience. The e-Stadium application (see Figure 1) is written in ASP.NET using C# with a SQL Server relational database. The adaptive rendering capabilities of ASP.NET Mobile Forms, which supports over 200 different handheld devices from a single application, are used to deliver content to handheld devices. As a game progresses, statisticians generate an XML document containing individual plays, statistics, drive
in Biomedical Engineering Technology Program (BMET) at the university. After the completion of the project, students are expected to be able to understand the scheme of a real world DSP system, process EEG signals for specific applications and gain the experience in processing the real world signals. In addition, this project is also intended for preparing the motivated high level students for future career in biomedical signal processing areas.I. Introduction As a core course of the BMET at the department of Engineering Technology at the xxx University, the Digital Signal Processors (ENTC 4347) introduces both the basic and advanced digital signal processing theories as well as the hands-on experience
virtual machine in the hosted architecture. A driver called theVMDriver is loaded at startup into the host operating system by the application portion of theVM. Then the virtual machine monitor component is established which runs directly on thehardware. After that the real physical processor starts executing the VMM. The VMDrivercontrols the transfer from the virtual machine to the host machine and vice versa. TheWorkstation establishes a switch called world switch between the VMM and the host world. Thisswitch saves all the user and system process states of the CPU. All the regular operationsperformed by the guest operating system run just like normal applications on the host system.The I/O operations performed by the guest operating system are
real-time applications, suchas sensor networks, flight control systems, accelerator control, road vehicle control, and others,are all distributed and for proper operation require very different programming techniques thantraditional systems. Typical software engineering curricula rarely include respectivemethodologies of software development for such systems. If they do, their courses mostlyconcentrate on the specification and design of software for distributed systems, but stop short ofincluding thorough treatment of implementation and testing issues. The current work builds upon previous experiences of the authors and involves projects inteaching software development for distributed real-time data acquisition and control systems,with
,the course in which the author is involved has three overall aims: • to realize the potential of graduates who have already demonstrated their ability so that they can immediately play an effective role in providing efficient and quick decisions; • to develop a rigorous academic understanding of a range of theories, concepts and methods, and to develop students' ability to apply them to the real world in a creative and practical way; • to equip students with the intellectual and personal skills needed to work on complex issues within organizations, often as part of a team.One of the keys in the above set of aims is the use of the word "immediately". This distinguishesan MS from typical
Internet is utilized as the medium of thechoice for the live and interactive delivery of lectures. The content of e-learning issomewhat different from what Internet has been used to. For this reason, e-learningcannot be looked upon as just another Internet application. In practice, e-learningpresents a challenge to Internet and requires new transport protocols capable of Page 6.650.1providing real-time multimedia.Proceedings of the 2001 American Society for Engineering Education Annual Conference &Exposition Copyright Ó 2001, American Society for Engineering EducationThe content of e-learning (mainly audio-visual signals) is not the typical
understood by the majority. It certainlymakes the lecture less effective. Adding more difficulties for an instructor in such a teaching/learningenvironment is the extremely dynamic change of students’ profile of a class from semester to semester.As such, the learned experience from one semester might not be applicable for a new semester. Therefore,it is extremely important for a professional education school/center to have a proper e-learning or e-education system in place to manage students’ personal information, and help instructors improve theirteaching effectiveness in light of using appropriate and real life examples for a class. The ultimate goal isto retain high professional students’ satisfaction by meeting their career development
, synthesis and evaluation.These concerns have driven the development of a new laboratory and a senior-level electricalengineering course: EE 440 Embedded Control. Three major goals of the course are to ✁ spark students’ interest by connecting exciting real-world problems to abstract concepts, ✁ show students how seemingly disparate and abstract systems disciplines such as signal pro- cessing, communications and embedded systems design can be joined to attack important problems, and ✁ help students develop the cognitive skills that allow them to use systems principles in the development of new technologies and applications of them.More generally, we hope that this course illuminates other deep connections
concepts 8-12 . Regardless of the particular software being used or the specific type of controller being built,it is obvious that educational bodies worldwide have adjusted their structure to facilitate a greaterexposure to the application of the abstract theory behind control systems to real-world, real-time Page 14.830.3processes. With the technology available to various laboratories and schools continuously 2evolving, the students will soon be able to have all the required exposure and ability required toenter the work field with more than just a mere exposure to real-world applications of
design and computational problem solving using the Engineering Grand Challenges as real-world applications of global issues. She developed and ran for 8 years a faculty-led international program to Brazil focused on Sustainable Energy and Brazilian Culture. This program educates students on the effects of various energy systems and the challenges of social and environmental justice in developing countries. In 2017, Dr. Pfluger moved into the ChE department where she implemented improvements in the Transport 2 Lab and Capstone courses. She assists Capstone students to develop dynamic design projects that address and help solve real-world, global challenges. Dr. Pfluger has served as the AIChE Student Chapter Faculty
steps can be iterated asneeded.Over the last few years, we have developed a systematic method to teach DSP to undergrad-uates. It provides students with a firm bridge from their first exposure to theory all the wayto practical implementation of real-time DSP code on industry-standard hardware, such asthe Texas Instruments (TI) C6711 digital signal processing starter kit (DSK). Previous ar-ticles4–11 have described the application of this method to specific DSP concepts; this articlegeneralizes the lessons learned and outlines the overall method in such a way that it couldbe applied to any DSP topic. A world wide web URL is provided at the end of this articlefor downloading the software that is a key component of our method for “bridging the gap
be among them. That should bethe level of discussion for a doctor’s degree in engineering technology.ConclusionI believe that doctoral programs will finally become widely available in all of thetechnologies. Good ones will deal satisfactorily with the six issues raised: the body ofknowledge, research, faculty criteria, student criteria, the supply of teachers, and theinherent value of such scholarship to the world beyond the university.i L. J. Wolf, “Graduate Education in Engineering Technology: What are the Real Issues,” EngineeringEducation, vol.72, nos. 1-8, May 1982 / p809, (ISSN 022-0809), ASEE, Washington, DCii Michael T. O’Hair, “The Masters Controversy: What Do ET Faculty Think,” Engineering Education,vol.72, nos. 1-8, May 1982