environments.David D. Sam, Ph.D., Utah State University Dr. David Sam, Principal Lecturer in the Department of Engineering and Technology Education at Utah State University instructs Materials Science, Manufacturing Processes, and General College Physics courses at the Uintah Basin Regional Campus. David has been with Utah State University for 2 years. Prior to joining the faculty at USU, he was a technical staff member at The Lawrence Livermore National Laboratory for over 20 years. He holds B.S. and M.S. degrees in Mechanical Engineering from Brigham Young University, and M.S. and Ph.D. degrees in Applied Science from Yale University. His current position involves building and improving distance education programs in the area
,interdisciplinary interaction, design, and depth. Every student completes a structured set ofcourses that form a foundation in written and oral communication, mathematics, chemistry,physics, and engineering fundamentals. Special emphasis is placed on learning the basic toolsand techniques of engineering. Interdisciplinary interaction is introduced and emphasizedthrough interdisciplinary design projects, team experiences, and laboratory exercises that beginthe freshmen year. Depth is provided through theory and hands on experience (laboratories) inone of nine disciplines – chemical, civil, computer, electrical, environmental, industrial,mechanical and UTeach (education).Four of the engineering disciplines are structured as discipline specific programs
serving as a Director on the Antelope Valley Board of Trade and is the Honorary Commander of the 412th Electronic Warfare Group at Edwards AFB. He is also a member of several professional societies and has authored and co-authored several papers pertaining to the Antelope Valley Engineering Program.J. S. Shelley, US Air Force J. S. Shelley, PhD, PE After 20 years as a researcher and project manager with the Air Force Research Laboratories, Dr Shelley has transitioned to teaching mechanical engineering, mostly mechanics, for the past 6 years.Dhushy Sathianathan, California State University, Long Beach Dr. Sathianathan is the Associate Dean for Academic Programs in the College of Engineering at Califor- nia
Excellence in Science and Technology (CREST). Dr. Mead also maintains an active laboratory group that develops laser systems for optical sensing and LIDAR applications. Dr. Mead has previously served as Senior Program Officer at the National Academy of Engineering and served as study director for the pivotal report, Engineering of 2020: Visions of Engineering in the New Century.Dr. Gwen Lee-Thomas, Quality Measures, LLC Gwen Lee-Thomas has been an external consultant for over 12 years serving businesses as well as private and public colleges and universities in the state of Washington, California, Florida, Indiana, Illinois, Nebraska and Virginia in diversity, STEM education, organizational culture, and leadership strategies
coming decade is going to have to become intelligent also. That requires homenetworking and home integration. Moreover, as plug in electric vehicles (PEVs) become morenumerous, only an intelligent grid can support their use by the general population. Again, thisbrings a new set of electronics based technologies into the picture.Along these same lines are e-health care initiatives that are waiting in the wings. e-health caresystems are beginning to come out of the laboratory and also into the public eye as the countrycontemplates what to do about soaring healthcare costs and the impending retirement of thebaby-boomer generation. As with the smart grid, the enabling technology of e-health care issensor network technology17. Some of the proposed e
director of the undergraduate program in computer engineering at MSU. She also served as interim department chair in the Department of Electrical and Computer Engineering from 2000 to 2001. She was a research staff member in the Scalable Computing Laboratory at the Ames Laboratory under a U.S-D.O.E. Postdoctoral Fellowship from 1989 to 1991. Her teaching and research has focused on the areas of embedded computer systems, reconfigurable hardware, integrated program development and performance environments for parallel and distributed systems, visualization, performance monitoring and evaluation, and engineering education. She currently serves as principal investigator for NSF STEP and S-STEM grants in the college. Dr
applications.Monterrey’s Electronic School (Escuela Electrónica Monterrey ESEM): ESEM is a technicalschool located in downtown Monterrey, Nuevo Leon, in the Northern Mexico area. The curriculashould prepare students for a variety of employment opportunities. ESEM offers short, objective,and productive courses. The school offers the 10 most requested technical careers requested bycompanies; the program durations are four, five, or six semesters long depending on specialty.The programs are short compared to professional careers, and they are practical because theprograms are combined with theory and practice, taking place in workshops and laboratories ofthe institution.The “Machining and Tooling Technician” program offered by ESEM requires 69 credit hours
, andengage in highly structured “cookbook” type laboratory activities, PBL is open-ended andcontextualized, where student learning is driven by the problem itself.While a number of different approaches to PBL have been described in the literature since firstbeing introduced in medical schools in the 1970s, they all share the same basic learningprocess10. Working in small teams, students learn “how to learn” by engaging in a recursiveprocess that includes problem analysis, independent research, brainstorming, and solutiontesting. Figure 1 – Problem solving cycleIn PBL, students are presented with an open-ended problem with little or no content preparation.Working in small teams, they collaboratively reflect upon prior
place inthe Center for Technology in the Summer I term of 2008, which lasted from April 30 to June 18.Participants in the SBP included 35 students, 5 faculty, and 2 tutors (Figure 2). Every studenttook two developmental courses: one math course (either MTH092 Elementary Algebra orMTH100 Introductory College Mathematics depending on his/her placement or prerequisite) andone technology course (either CSC100 Fundamentals of Computer Science or ENR100Introduction to Engineering Technologies and Science depending on his/her discipline).Engineering related majors were placed into ENR100, and other STEM majors were assigned toCSC100. In both CSC100 and ENR100 classes, students learned about career opportunities, hadhands-on laboratory projects, and
as ―very common‖ and ―fairly common‖ were selectedfor in-depth discussion and analysis, and the syllabi for those courses were requested fromcommittee members.Committee members ultimately came to consensus on two points: (1) the need to develop amechanical engineering transfer agreement that could be signed by the president or chancellor ofan institution or system that wished to participate voluntarily in the agreement, and (2) the needto revise course descriptions and develop course-level learning objectives for 17 courses (12lecture courses and 5 laboratory courses) that students should take in their freshman andsophomore years in order to be successful in and on-track for upper-division engineeringcourses. These courses, when prerequisite
students design, implement and defend a network runningreal world services against a team of “hackers” on the ISEAGE Internet testbed. This testbed isnon-portable and requires the college students to remotely connect into the environment to setupand configure their servers and services for approximately one month prior to the competition.Then, the students and their faculty member(s) travel to Ames to compete for two days defendingtheir network from attacks. The CCCDC was created to challenge the community collegestudents to solidify concepts learned in their classroom and laboratory exercises, as well as keepthem interested and engaged in their chosen career track.10 The fourth annual CCCDC was heldDecember 3 & 4, 2010. While a blizzard