course are discussed. Tomake the course topics seem easier a variety of methods are used. These methods include linearand non-linear proportion methods, and short-cut methods.IntroductionThe goals for the Engineering and Technology Fundamentals course students are to obtainknowledge of standard engineering and technology methods, and learn software tools forapplications. The knowledge of software gained in the course is used for technical report writing,project presentations, graphic visualization, engineering computation, and effectivecommunication. Note that the students are not required to have previous knowledge of electricalcircuits, digital logics, analog concepts, or software packages used in the course. The studentsideally are first year
evaluators were gone, the realization of the time required to write the self-study,plan appropriate assessments, prepare for the visit of the evaluators and, in general,living ABET began to sink in. A letdown was expected. Continuous improvement,however, is supposed to be continuous and the level of effort expended during theeighteen months prior to each program’s evaluation visit could not be sustained. TheAssessment Committee and the Department leadership needed to inculcate the TC2Keducational process into the life of the faculty at a level that is comfortable and meetsongoing process requirements.Consistent with the philosophy of continuous improvement, the major assessment taskfollowing the successful TC2K-based accreditation of the four
course syllabi are individually modified to specifically incorporatewriting assignments that match the designated IDM progression. These specified assignments arecalled “signature assignments.” At NU, course syllabi are the fundamental documents controllingcourse content and course learning objectives (CLOs). (CLOs are appropriately related andlinked to the overall PLOs for a program.) The inclusion of a specific writing assignment in acourse syllabus ensures that this ”signature assignment” will be included every time the course istaught, regardless of instructor or location. This is especially important for multi-campus systemsand institutions such as NU that provide both multiple locations and multiple modes of programdelivery – such as both
technology first-year students. This impacted three major engineering technologyprograms (Audio Engineering Technology, Computer and Electronic Engineering Technology,and Electromechanical Engineering Technology), totaling 66 first-year students.We decided to use the classic definition of critical thinking from Scriven 1996 [2] for thepurpose of our project: "Critical thinking is the intellectually disciplined process of actively andskillfully conceptualizing, applying, analyzing, synthesizing, and/or evaluating informationgathered from, or generated by, observation, experience, reflection, reasoning, orcommunication, as a guide to belief and action."Our motivation in introducing these troubleshooting exercises in the first-year fundamental
AC 2009-192: A VOICE OVER IP INITIATIVE TO TEACH UNDERGRADUATEENGINEERING STUDENTS THE FUNDAMENTALS OF COMPUTERCOMMUNICATIONSKati Wilson, Texas A&M University Kati is a student in the Electronics Engineering Technology program at Texas A&M. She has been working since December 2007 as a research assistant developing voice over IP (VoIP) test-beds and new experiments. She expects to graduate in May 2010.Ana Elisa Goulart, Texas A&M University Dr. Ana Goulart currently serves as an Assistant Professor of Electronics and Telecommunications Engineering Technology at Texas A&M University, in College Station, TX. Her research interests include communication networks, broadband and
secondaryeducation research that frontloading students with learning disabilities aids in the learning process[7, 8, 9]. While literature of frontloading in post-secondary education is deficient, it ishypothesized that by combining these methods, frontloading and active learning, the resultinghybrid will become a more beneficial teaching method for students with learning disabilities.A preliminary study was conducted in Fundamentals of Engineering (MCET 101) to determine ifactive learning is more effective when students with learning disabilities are first front-loaded withinformation. Fundamentals of Engineering is a core course in the Manufacturing and MechanicalEngineering Technology program at the Rochester Institute of Technology (RIT). To
the ABET-EAC criteria. • Changed “Construction Project Management I” from a technical elective to a required course. • “College Chemistry” replaces “Fundamental of Chemistry.”3. ABET Accreditation IssuesTwo accreditation issues were investigated: 1) Can an ABET-EAC program be administeredoutside the Engineering College at our University and 2) Can existing CET courses be used inthe CE curriculum? The answer to both these questions is… probably yes.The commissioner for the ABET Technology Accreditation Commission22, the past Chair ofTAC of ABET23 (and current Chair of IEEE Accreditation Policy Council; the council addressesissues in EAB, TAC, and CAC accreditation), and an experienced ABET evaluator24 at our
(EET) today, is howto deliver more effective lectures to students in the classroom. In our program, most of thecourses are being taught in a traditional way. The instructors stand in front of the students andexplain the material while writing on the dry erase board. The students sit at the desk, listeningand taking notes. There is no doubt that the traditional way of teaching is still very effective andefficient. On the other hand, the shortcoming of this teaching method is that it is mainly a oneway communication. Our faculties have always been trying hard to make class more interactive,because interactive instruction provides knowledge check and assessment1. This assessmentobtained can lead to some modification of the instruction to cater to
2006-313: A MASKLESS FABRICATION APPROACH OF INTEGRATEDOPTICAL WAVEGUIDES FOR ENGINEERING TECHNOLOGY STUDENTSShuping Wang, University of North TexasVijay Vaidyanathan, University of North Texas Page 11.64.1© American Society for Engineering Education, 2006 A Maskless Fabrication Approach of Integrated Optical Waveguides for Engineering Technology StudentsIntroduction The optical waveguide is one of the fundamental components for optical integrated circuits1.The current technique used to fabricate polymer waveguide devices is mainly based on spincoating and photolithography patterning2. The technique requires fixed photomasks, which areinherently
modulation /demodulation. In this paper, we present the experiences of teaching communicationsystems with the help of Matlab.Introduction“Communication systems” is offered as a senior level course for Electrical Engineeringmajors in most universities. Its primary objective is to introduce the basic techniques usedin modern communication systems and to provide fundamental tools and methodologiesused in the analysis and design of these systems. It requires the students have thebackground in calculus, linear algebra, basic electronics circuits, linear system theory,and probability and random variables. The author works in the Department ofEngineering Technologies and the course of communication systems is open for junioryear students. However, the
some researchers11,22,6 question the value of lab experiments,there is no doubt that the lab experiment is a commonly employed teaching tool in industrialtechnology. The purpose of laboratory experiments in industrial technology is, as Gillet,Latchman, Salzmann, and Crisalle10 said, “…to motivate, illustrate, and enlighten thepresentation of the subject matter addressed in the lecture” (p. 190).A written report often follows the lab experiment in order to cause the student to reflect on,summarize, and quantify the laboratory experience. To learn by doing in the laboratory,followed by reflecting on that experience and writing about it in the form of a report, can onlyfurther enhance learning. Lederman16 stated that “the assumption that students
EducationAbstractThe Electromechanical Engineering Technology program at Alfred State College requires asequence of two courses in embedded systems. Embedded Controller Fundamentals andEmbedded Controller Applications. Both courses involve hands-on, project oriented laboratoryexercises. For the embedded controller courses, students are required to purchase a specified low-cost microcontroller evaluation system instead of a textbook. A reasonable priced reference text isrecommended, and students are strongly encouraged to use extensively the online manualsavailable from the microcontroller manufacturer. Among the many benefits that we have identifiedby requiring students to buy their own microcontroller system is that they learn to be more carefulwith safety
continued as a member of the inaugural certification question writing and exam review team. I wrote 25 questions for the exam. I then joined a question review team, where my team reviewed, edited and verified nearly a two hundred certification questions and answers for consistency, grammar, geographical/cultural bias, pertinence, accuracy, and industrial use. The WCET certification examination was first offered in Fall 2008, with its second examination for Spring 2009. The WCET certification is intended to be ISO certified as it passes the requirements for this standard6.MotivationEngineering technology graduates cannot be assured of access to professional engineeringlicensure but are eligible to sit for various certifications
Engineering Problems with Objects of Simple Geometry and Relatively Complex Mathematical FormulationAbstract: There are several interesting engineering problems related to objects of simple geometrythat involve relatively complex mathematics. We consider three different problems in the area ofMechanics. These problems are discussed in our undergraduate classes without getting into themathematical details. In the ET 1840 - Engineering Fundamentals class we discuss the“brachistochrone” (path of shortest time) which is a cycloid. This is the trajectory of a point on adisk that rolls without slipping along a straight line. The equation involves the radial distance,and sine and cosine functions. This
Interface There are short and long addresses in the static RAM memory organization in theMRF24J40MA module that is accessible via the SPI interface protocol. The diagram shown inFigure 6 illustrates required communication formats.MRF24J40MA Short Address Read Figure 6. Short Address Read SPI ProtocolMRF24J40MA Short Address Write Figure 7. Short Address Write SPI Protocol The specifications state that there are only 6 bits needed in short address for either read orwrite to the memory in the MRF24J40MA. It is important to note that the communication withSPI protocols on the short address memory is not lined up. This requires a simple conversion byshifting the bits and package by zero or
sexualharassment in any situation.The second goal will be to describe how ABET program outcomes (i) and (j) are addressedthrough this ethics course content.COURSE CONTENTThe course content for a one credit ethics course sheds light on the areas that require the greatestconcentration of discussion and effort. A sample course schedule can be seen in the syllabuslocated in the Appendix. The course begins with the discussion of what ethics is in the narrowscope of the American “baseball, apple pie and mom” mentality and deals with issues that arerelatively straightforward. This approach addresses ethics from a fundamental moral standpointand uses case studies surrounding issues such as Ford Pinto’s exploding gas tank of the late1970’s and the space shuttle
. Students were further exposed to programswhich facilitate the design and advancement of more functional and smarter engineeringsystems.2. Summer Engineering Experience (SEE) ProgramThe Summer Engineering Experiences, SEE Program is designed with the objective to enhancestudents’ hands-on, computational, programming, communication, and problem solving skills.The SEE program was offered during the summer to the first year engineering students andcovered topics related to engineering computation using MATLAB and C++, robotics, bridgetruss design & analysis, and technical writing.2.1 Computational Method with MATLAB and C++ ApplicationThis topic in the SEE program provided students with some fundamental knowledge ofengineering analysis and
combine previously learned principles, procedures, declarativeknowledge, and cognitive strategies in a unique way within a domain of content to solvepreviously un-encountered problems. From a problem-based approach, a professional preparationof curriculum is organized around fundamental or critical problems encountered in professionalpractice. [3][4]The problem-based approach has been a long standing practice in the instruction of engineering.A fundamental part of the problem solving process is the ability to identify errors within thesequence of the perceived solution. Discovery of mistakes can be a valuable learning tool thatcan leave a lasting impression. A primary benefit that can be expected from well-conceived andproblem-based learning is
other countries are planning to add nuclearreactors with a generating capacity of 150,000 MW. These include first-time developing nationusers like Thailand, Turkey, and Vietnam6.Although tactical reasons behind growth in world nuclear usage vary, one expert7 points out thatthe fundamental reasons for global nuclear power growth are linked to population growth,technological progress and its concomitant need for more energy, depletion of hydrocarbons, anda pure and simple desire for improvement and growth in living standards. As a result of robustgrowth beyond its borders, U. S. dominance as world leader in nuclear power generation is beingchallenged. On the other hand, this global expansion provides the U. S. with reassurance thatnuclear energy
the market share. Therefore, it is essential that our students should be familiar withapplications of ARM in their undergraduate curricula. The presentation focuses on sharingteaching difficulties in ARM controller. ARM is a high performance, low power 32-bitmicrocontroller. To minimize power consumption ARM has used many techniques in itshardware design that increases the complexity in writing software. ARM has a very complicatedarchitecture, and its instruction set includes various options for execution. In addition, they aremany difficulties in teaching the ARM in the classroom setting because ARM Company licensesits core to many manufacturers with freedom to implement various features at their discretion.Embedded Systems were used to be
areaction timer using VHDL and the FPGA development board. Following is a description ofeach laboratory exercise, all labs are available on the project website:http://www.tech.mtu.edu/NSFATE/.Lab 1: Introduction to Quartus II: This lab is designed to familiarize the participant withusing many of the common aspects of the Quartus II software through a complete design phase.Participants will learn to create a new project, create a new VHDL file, use the MegaWizardPlug-In Manager, compile the design, plan and manage I/O assignments, apply timing analysisusing the TimeQuest Timing Analyzer, write Synopsys Design Contraint (SDC) files, and Page
fossil fuel plants such as combined cycle, distributedgeneration, and demand response technologies were chosen to be emphasized in lieu of more traditionalpower engineering topics. Additionally, as hands-on-learning is a fundamental component of allcoursework in Purdue Polytechnic, new laboratory activities were designed to support the course,focusing on the development of a familiarity with the major hardware components of, and the operationand control of, the electric power grid. This paper presents the laboratory content of the Modern EnergySystems course in which a functional micro-grid is constructed over the course of the semester,integrating both traditional power system technologies with emergent technologies such as renewablegeneration
datainto a form which is useful. The laboratory reports are to be written so that someone who isintelligent, but not necessarily an expert in this field, can understand the significance of why thetest was performed, and the outcomes of the test. This course is taught in the third year, so inaddition to the prerequisites for the course, the students have already had four semesters ofmathematics, as well as two semesters of English, including Technical Writing. The problemseems to be that the lessons learned in math and (especially) English are not being effectivelyapplied to later courses.Freshman Experience CourseOne of the courses proposed by the General Education Committee for the campus is a “FreshmenExperience” course to be taught as a two
programs share the faculty, laboratories and facilities of the EngineeringTechnology Department. However they differ in methodology and fundamental principles.Fire Protection is a program in engineering technology based on the fundamental principles ofengineering science with strong emphasis on laboratory practical work. The laboratoryexperiments are a combination of computer simulation and small fire experiments. The computersimulation uses the FDS fire simulation system developed by NIST. Through experiments andsimulations students get familiar with the relation between science, physics and chemistry, andpractical fires. Historical fires are also studied to compare with the simulations. In summary, FireProtection is a science based
on the fundamental definition of “credithour” and the common practice across colleges and universities, the definitions of thedifferent levels of virtual attendance used in this research were as follows.Since the English-writing class was a 4-credit/4-contact blended-learning course with 50%onsite and 50% online design, which was delivered in an 8-week academic session withfinal exam arranged at the end of the session, students were expected to attend no lessthan 30 hours of face-to-face activities and 30 hours of virtual learning activities; each Page 22.1141.5hour was consisted of 50 clock minutes,. Therefore, for the English-writing class
will fundamentally help China and the US prosper. The rapiddevelopments of a global economy will demand that future engineering students receive a multi-dimensional education that gives them the opportunity to apply their knowledge and solve practicalproblems, as well as to prepare them to independently explore new scientific and technologicalfields. Higher education is primarily about preparing students for their professional careers.Professionals must be able to function in a multi-cultural, diverse business environment. This is ofparamount benefit not only for Chinese students, but US students as well. In order to prepare ourstudents, we are responsible for providing an environment that enhances their professionaldevelopment.Pilot
applications ≠ Know the fundamental lossless compression and lossy compression techniques ≠ Know the current image compression and video compression standards ≠ Know the basic technologies in designing adaptive multimedia applications ≠ Know the different protocols for multimedia transmission ≠ Write a simple Internet networking application using socket programming ≠ Know the current peer-to-peer multimedia networking applications ≠ Gain hands-on experiences on multimedia transmission technologiesTo accomplish these objectives, the course is composed of lectures, homework, laboratoryassignments, literature readings and course project. Hands-on laboratories are mainly designed tohelp students get familiar with the multimedia compression
environment wherethe student sees no connection between different disciplines3. As the student progresses throughthe program, they may only get exposure to cross discipline courses in upper division electives ordesign courses. The traditional approach is flawed in that it tends to result in inadequatesynthesis of basic concepts, poor retention of fundamental material between learning andapplication, and low motivation for learning fundamental materials2. It is essential that studentsshould be made fully aware of what electrical engineering is all about and in what kind ofproblems electrical engineers are involved early in their academic studies1. Unless the curriculum helps the students integrate material across the courses, they havedifficulty
undergraduate and six graduate programs and has a student population of three hundred students. Dr. Viswanathan is an educator, researcher and administrator with more than twenty-five years of industrial and academic experience encompassing engineering and environmental consulting, research and development, and technology development. His career experience includes teaching at the University level, conducting fundamental research, and developing continuing educational courses. Page 12.893.1© American Society for Engineering Education, 2007 Innovative Engineering Technology Program in
course whichintroduces students to commonly used manufacturing processes in the industry formanufacturing of a variety of products using different materials. The primary goal of thiscourse is to provide a broad overview of fundamental concepts, tools, methods, andequipment that are used in the manufacturing industry. This course is based on aneducational Mobile Inverted Pendulum (MIP) robot. As a follow-up, the MachiningTechnology course focuses on CNC machining. Fundamentals of both turning andmilling operations and associated accessories and tools are introduced. A single cylinderhorizontal Stirling engine kit is used as the platform in this course. Feedbacks from thefirst cohort of students completed the Design and Prototype course are also