anticipate a need for one extra teaching assistantfor every fifty synchronous students.ConclusionOur experience in teaching online with NEW has proved very positive, because our efforts havepaid off in better support for students. Despite its growing pains, our students routinely givesimulteaching using NEW a strong endorsement (the average is better than four out of five onsemester-end evaluations). Based on these observations, and on our growing experience withsynchronous simulteaching using NEW, we conclude that there is a very large potential for thismode of distance education. However, it is important for both the supporting technology and theonline course management approach to be designed for scalability if synchronous online teachingis to
prepare students to work on mechatronic systemsfound on ships, in ports, and coastal environments.CurriculumTable 2 compares the MXET curriculum currently approved for offering on the Galvestoncampus and the new proposed degree program. The design of the proposed program was basedon four principles: • Maintain similarities to the MXET-Mechatronics program currently offered on the main campus while ensuring a marine/ports flavor consistent with the mission of the Galveston campus. • Leverage courses currently offered by Marine Engineering Technology where possible. • Offer the necessary coursework to support a summer sea experience for interested students. • Ensure that the curriculum
improve thisintervention initiative, with the revised program design containing academic- and preparatory-skillscomponents available during the summer and in advance of normal fall enrollment. IntroductionThe importance of engineering and computer science innovations and creativity to Americanprosperity and quality of life is widely acknowledged.1 Many studies have documented the needand demand for U.S. engineers, especially in the Sunbelt states.2, 3 University and college academicengineering programs play a paramount role in supplying the nation’s technical workforce throughattracting, retaining, educating, and graduating a diverse and capable population of practicingengineers.1Although collegiate
environment” as students in the Gulf Region. The paperdwells on those strategies, believed to be appropriate for the development of a “positiveteaching-learning” environment; and in particular, those activities that are more relevant to theArab Gulf States. Strategies pertaining to:(i) planning courses, (ii) conducting courses, and(iii)developing positive learning environment, in and outside the classroom, are discussed andsupplemented with general advice and suggestions based on the experience of the author. It isalso argued that “reformation” and “active learning” ought to start within the public schoolsystems of the Region, where existing “traditional” teaching methods tend to suppressindependent thinking, and have failed in equipping students
2004-410 Freshman Orientation Activity Richard Cliver, Steven Ciccarelli, Michael Eastman, Jeffrey Lillie Rochester Institute of TechnologyAbstractThe purpose of this paper is to discuss the experience and positive results in this year’s freshmenorientation at Rochester Institute of Technology (RIT). Before classes started in the fall freshmanin Electrical, Computer and Telecommunications Engineering Technology (ECTET) programswere asked to work with faculty as they programmed an inexpensive robot and built maps of theRIT campus for the robots to navigate. The paper discusses these activities in detail, provides
, project management, larger design teams and more realistic purchasing departmentmodels.COURSE DESCRIPTIONCENT 354, Computer Architecture, is a junior level required course in Electronics EngineeringTechnology (EET) at the University of Southern Colorado. It includes as prerequisites a course inDigital Logic (EET 254), and a basic course in Microprocessors (CENT 255). There are threehours of lecture each week and two hours of laboratory. The lab section has nine PC compatible486, 66 Mhz workstations with windows 3.1, allowing for 18 to 27 students, working in teams oftwo to three students each. The course has been taught each fall since 1989.The lecture section of the class consists first of a brief review of the digital and microprocessorcourses
as course content revisions, curriculum modifications, modernization of capstone design project requirements, and updating of laboratories. Always keep in mind that the reviewers are going to be specifically looking at the process of program improvement, and the documentation must show that the programs are improving.4. Find an ABET champion and reward him/her Although the entire faculty in the department should be involved in preparing for ABET accreditation, there should be one individual that is responsible for preparing Page 10.1145.7 the ABET self-study report. This individual should be conversant with the latest
. • Curves • Cams • Point traces and contacts 8– 11/13 Refining model designs - Overview In the example shown below, the students used • Parameterization methods parameterization methods and analyses to find • Parametric analyses tools the correct launch spring stiffness allowing a marble to hit a target. Parameterization methods • Overview • Design variables Parametric analyses • Design study • Design of experiments • Optimization
. (2013). “I came back as a new human being”: Student descriptions of intercultural competence acquired through education abroad experiences. Journal of Studies in International Education, 17(5), pp. 513-532, 2013.[6] Tosone, A. and Frost, C., Leonardo da Vinci: The complete works, London: David & Charles, 2006.[7] Inkelas, K, et al., Living-learning communities that work: A research-based model for design, delivery, and assessment. Stylus Publishing, LLC, 2018.
Beach, University of California - Los Angeles,University of California - Berkeley, and the University of Southern California. Seven have beenaccepted to NSF-sponsored REUs, three have been named as Rio Hondo College OutstandingStudents, and one was selected as the Jet Propulsion Laboratory Undergraduate Scholar and wenton to accept a research fellowship at JPL.Student AnecdotesIn the students’ final reports, they are asked to comment on the impact that the scholarship hashad on them. A few of these comments follow:• Mentoring was beneficial because it allowed me to be more open about my personal goals witha professor. From my experience when I have a professor, I only see him in class and lecture andmight go to his office hours on occasions but
in the curriculum: trulyinterdisciplinary opportunities, experiences with highly abstract problems, and communication oftechnology solutions to a wide audience.3 As an example, one important role engineers aredeveloping as Innovation Sandbox matures is that of technology ambassador – delivering short“show & tell” presentations to a broad, non-technical audience in classes across all majors andlevels explaining current technological innovations in the context of societal changes.As these soft skills are practiced through Innovation Sandbox by a growing number ofengineering students, there is an increasing need to collect data that quantifies this exposure.Innovation Sandbox is designed to sit outside of the academic curriculum. We have
Cadiz, Spain, in 2019.MMA MET students must successfully complete all USCG licensing requirements, includingpassing a comprehensive multi-day examination, in addition to all other academic work. Manygraduates initially pursue careers at sea, but opportunities abound ashore as well. The METprogram’s numerous hands-on labs, afloat and ashore, reinforce traditional coursework anddevelop versatile engineering technologists.Education at SeaAll MET students are required to complete three distinct educational experiences at sea. Thesesummer experiences are designed to provide participants with robust hands-on activities thatreinforce material covered in the classroom. All of these summer training cruises havesignificant embedded academic requirements
Belgrade, Serbia, fo- cusing in Control Systems. Her M.A.Sc. degree is in Industrial and Manufacturing Systems Engineering from University of Windsor, Canada, area of Industrial Robotics, and a Ph.D. in Mechanical Engineering from University of Windsor, Canada in the area of Reconfigurable Robotics. Prior to her arrival at WSU, Dr. Djuric worked in the industry as a machine and tool designer first and then as a Robotics software Analyst for five years. Prior to joining WSU, Dr. Djuric was an Instructor at the Mechanical, Automotive and Materials Engineering, and Industrial and Manufacturing and Systems Engineering departments at the University of Windsor.Prof. Jeremy Lewis Rickli, Wayne State University Dr. Jeremy L
heavy, ring.)The following is a sample of some examples used to introduce some of the Eight Dimensions.-- Directionality: Blood pressure is being measured indirectly. A conventionalsphygmomanometer provides a pressure sensor for determining the blood pressure anddeveloping an oscillation frequency. Piezo-electric elements of the pressure sensor were utilizedfor converting the amount of the blood pressure into the oscillation frequency.-- Consolidation: The Swiss army knife is a multipurpose tool.5b. Laboratory materialIndividuals and teams experience the eight strategies. We view team building and teamwork asextremely important, since communication skills, trust, sharing ideas, etc. are crucial in theworkplace. In addition to demonstrating the
University of Texas Medical Branch (Galveston, TX)for small molecule potential drug candidates against dengue virus51 (also, see the story athttp://www.tacc.utexas.edu/research/users/features/worldgrid.php). Searching his publications inPubMed followed by reviewing the information, and may even interacting with his team at UTMB,the students will learn how computational screening is done for identifying small molecules aspotential drug candidates and later conducting cell biology experiments to verify theircomputational screening results. They will also learn how a small molecule candidate drug can be‘discovered’ through structure-based drug design technique when a 3D- structure of the proteinmolecule is known following the experiments using X-ray
Excellence in Laboratory Instruction. She has also implemented new pedagogical methods and teaching standards to broaden students’ problem solving skills, scientific and technological literacy through real-world prob- lems, problem- and project-based learning, and hands-on experiences. She also teaches Introduction to Engineering Design (ENGI 120) for the Rice Center for Engineering Leadership. In 2011, she won the George R. Brown Prize for Excellence in Teaching, the university’s highest teaching award. Page 25.307.1 c American Society for Engineering Education, 2012
inverters, inverting summers, non-inverting amps, and simple integrators and differentiators. 2. An ability to apply current knowledge and adapt to emerging applications of mathematics, science, engineering, and technology. Students in ETE 310 will use modern engineering software tools including the latest versions of PSpice, Program CC and/or MATLAB etc. to verify their analysis and/or design work, as appropriate. 3. An ability to conduct, analyze, and interpret experiments and apply experimental results to improve processes. Students in ETE 310 lab will use typical laboratory equipment to measure and verify circuit response. Students will connect typical passive and op-amp circuits and use
, College Station, TX. His research interests include automation, robotics, cyber-manufacturing and Industry 4.0; optical/infrared imaging and instrumentation; micro/nano manufacturing; and design of technology for engineering education. He is also the Director of the Rockwell Automation Laboratory at Texas A&M University, a state-of-the-art facility for education and research in the areas of automation, robotics, and Industry 4.0 systems. He was named Honorary International Chair Professor for National Taipei University of Technology in Taipei, Taiwan, for 2015-23. Dr. Hsieh received his Ph.D. in Industrial Engineering from Texas Tech University, Lubbock, TX. ©American Society for
currently a first-year Ph.D. student in civil engineering at Virginia Tech. I did my master’s degree also in civil engineering at Virginia Tech. Before joining Virginia Tech as a graduate student, I was a teacher with five years of productive experience. My Ph.D. research interest focus is on the uses of data science in engineering education and water use in different industrial sectors.Dr. Niroj Aryal, North Carolina Agricultural and Technical State University Dr. Niroj Aryal is an assistant professor of Biological Engineering at the Department of Natural Resources and Environmental Design at the North Carolina A and T State University. His academic background in- cludes a bachelor’s in Agricultural Engineering from
in thefollowing programs; Architecture (ARCH), Architectural Engineering (ARCE), Fire Protectionand Safety Technology (FPST) and Construction Management Technology (CMT). Although itmay not initially seem like these groups are associated, these students tall take courses incomputer aided drawing and even those in FPST may end up in the construction industry as asprinkler designer or alarms installer. With the exception of the ARCE engineers, faculty haspondered the question as to whether the architecture and technology students are unique fromengineers, especially in their learning styles.In a similar study, students were asked to participate in an interdisciplinary project between twotypically distinct groups, FPST and CMT. The CMT students
Paper ID #19316A Socio-cognitive Framework and Method for Studying Technology-mediatedProblem SolvingDarren K. Maczka, Virginia Tech Darren Maczka is a Ph.D. candidate in Engineering Education at Virginia Tech. His background is in control systems engineering and information systems design and he received his B.S. in Computer Sys- tems Engineering from The University of Massachusetts at Amherst. He has several years of experience teaching and developing curricula in the department of Electrical and Computer Engineering at Virginia Tech.Dr. Jacob R. Grohs, Virginia Tech Jacob Grohs is an Assistant Professor in Engineering
. Page 3.175.1Engineering educators across the country have responded to address the competency gaps bymaking changes to the engineering curriculum and the content of courses. A major activity inthis direction has been in the development of capstone senior design projects courses whereissues related to soft skills are addressed6. These courses serve the role of providing students asmooth transition from university to industry.Students are better prepared for the senior projects experience, if they are exposed to the softskills requirements earlier in the curriculum7,8. This could be done in the lab component of thejunior year courses. In these lab courses, an understanding of the industrial environment can beprovided to the students by
2006-2603: MIND LINKS 2006: RESOURCES TO MOTIVATE MINORITIES TOSTUDY AND STAY IN ENGINEERINGMaria Petrie, Florida Atlantic University Page 11.931.1© American Society for Engineering Education, 2006 MIND Links 2006: Resources to Motivate Minorities to Study and Stay In EngineeringAbstractMIND is the acronym for the American Society for Engineering Education (ASEE) MINoritiesin Engineering Division. The MIND Links project gathers useful web links and information onresources that would allow minority students and minority faculty to find and take full advantageof the myriad of programs and information designed to promote their participation in
autonomous navigation on theirown through the simulations, they could experience the difference between the simulatorand the real-world robot motions. Many industries already use ROS for theirimplementation in the field, and many commercial robots are available for ROS.Therefore, the authors believe this newly designed course provides a more profoundknowledge and practical experience in mechatronics.IntroductionAutonomous navigation for mobile robots is one of the leading technologies that accelerated thefast advancement of mechatronics in recent decades. Autonomous navigation plays an essentialrole in many industrial automation applications such as warehouses and manufacturing lines.While the number of students interested in robotics and
Paper ID #17858Flipping an Engineering Thermodynamics Course to Improve Student Self-EfficacyDr. Karim Altaii, James Madison University Dr. Altaii holds a Ph.D. in mechanical engineering, and received his doctorate from The City University of New York. He is a registered Professional Engineer. He holds five patents in solar energy applications and in irrigation system. He is the director of two international summer programs. He is the Co-Director of the Advanced Thermal-Fluids laboratory. His primary interests are in renewable energy applications, fluid-thermal sciences, and international education.Dr. Colin J. Reagle
how the computer revolutionized physics research andintroduced into the classroom. We will discuss the design investigated how to use computers as tools to emphasizeof the programming lesson modules and how they are physical concepts. They tested the using computers in physicsincorporated into the physics curriculum. The difficulties, courses at the University of Maryland and concluded that thesuccesses, and failures of this experience will be presented. students scored better on laboratory reports and felt more satisfied with the nature of the work. They also stated that Keywords—R programming; high school; physics
responsibility for adapting their knowledgeto changing times and needs. Over the decades, these changes have reoriented engineering education inrather different directions, from embodied knowledge, to cooperative education, engineering science,social responsibility, design, and innovation, often in distinct combinations. Put formally, engineers mayin fact possess an ethnomethodologically accountable—if also evolving and non-monolithic—body ofpractice for reexamining the epistemological foundations of their discipline and realigning it to matchtheir perceptions of an ever changing social and economic environment.2, 3, 4Given the broad concern expressed about “process” associated with the proposed changes to ABETCriteria 3 & 5, this ought to be
wereshipped. More than 95% of mobile phones, 90% of hard drive controllers, 40% digital TVs andset-top boxes, 15% microcontrollers, and 20% mobile computers are using the ARM processors.To keep up with the embedded industry change, we have updated the contents of ourmicrocontroller courses with the goal to keep up with the technology change and make ourgraduates more marketable. We have taught the ARM Cortext-M4 MCU in our secondmicrocontroller course and plan to also teach the simpler version of the ARM Cortex-M MCU inour first microcontroller course.Three major issues must be addressed in order to teach a new microcontroller. First, we need tochoose an appropriate Cortex-M4 demo board for students to perform laboratory experimentsand design
improvement inteaching effectiveness or student learning. The MET Department’s contribution to this effortinvolved a project that focused on a restructuring of the credit hour count in the existing plan ofstudy with an emphasis on overall reduction of hours required. Outcomes for this project havebeen summarized in another paper by Hutzel, et.al [5]. A second project involves planning andimplementation of a more comprehensive recruitment/enrollment development plan. Thetechnical staff is working on a third project aimed at standardizing and documenting laboratoryprocedures to allow smoother transitions when laboratory courses are taught by different facultyor with different technical support personnel.In general, the university community has
low-glass optical fiber and the recent semiconductorlaser/detector systems initiated the photonics area. Within the past few years, long-haultelecommunications have become dominated by light wave systems. Research laboratories areengineering systems based on III-V materials to manipulate photons in some of the samesophisticated ways that silicon systems manipulate electrons. Such systems and devices arereferred to as photonics systems and devices. Parallel development of other materials, such asnonlinear optical organic materials, show great promise for providing a basis for sophisticatedand inexpensive devices. Compact, robust passive optical systems have been demonstrated thatwould have been regarded as impossible only a few years ago