University of Northern Colorado.Donald Plumlee, Boise State University Dr. Plumlee is certified as a Professional Engineer in the state of Idaho. He has spent the last ten years es- tablishing the Ceramic MEMS laboratory at Boise State University. Dr. Plumlee is involved in numerous projects developing micro-electro-mechanical devices in LTCC including an Ion Mobility Spectrometer and microfluidic/chemical micro-propulsion devices funded by NASA. Prior to arriving at Boise State University, Dr. Plumlee worked for Lockheed Martin Astronautics as a Mechanical Designer on struc- tural airframe components for several aerospace vehicles. He developed and improved manufacturing processes for the Atlas/Centaur rocket program
more integrated sequence.Courses in the classical areas of Statics, Mechanics of Solids, and Civil Engineering Materialswere repackaged into a pair of four-credit mechanics courses which combine content from theseareas. The first course (Mechanics I) integrates elements of Statics and Mechanics of Solidsalong with a few topics from Civil Engineering Materials. The second course (Mechanics II)integrates the remaining elements of Mechanics of Solids with the majority of Civil EngineeringMaterials.A key pedagogical component in this integrated curricular restructuring is a structuredimplementation of problem-based learning: the use of overarching problems. An overarchingproblem is a common design and/or analysis problem encountered in the
, complementing what the teachers offered through distance education.The group proposed to the municipality of Lima-Peru, creating an educational space - The STEAMHour. Once a week, one of the Manifesto STEAM members will offer a live STEM-STEAM activitythrough a free access platform (Facebook Live). Working together with the Manifesto STEAM andLima's municipality, the logistics model was developed to implement 15 STEAM hour episodesfrom June to October 2020.Development of the ActivitiesEach member of the collective has vast experience and recognized trajectory in the area of STEM-STEAM education. All the activities presented in the programs were designed and/or adapted bythe members of the ManifiestoSTEAM from previous work of the members in their
opportunity to widen access to real experiments that might otherwiseonly be offered to those able to get to a suitably equipped laboratory” 13. This project, lead byOpen University, provides a wide range of student activities. B. Student participation in the evaluation process. As mentioned above, student self-reflection about cognitive evolution is important. Oneexample of this reflection can be found in a question development about constructed concepts5,that run an experience dividing a class in two groups. Each group, with the assistance of theteacher, had to set up questions for the other group, thus building a positive participationenvironment, adequate to learning:“...the evaluation process should be democratic, clear, transparent
Bipolar transistors (IGBT) were not experimented with althoughthey were introduced to students. The HIGH and LOW siwtches were combined in Half bridge,H-Bridge and inverter circuits, which were later used in interfacing various types of motors.The objective of this level was to prepare students for designing and building simple open loopand event driven mechatronic systems. Activities in this level were covered in sessions of threemodules. In the final level, students were required to use the knowledge gained in the second levelalong with control systems theory and mechanics of machinery into developing mechatronicsystems that perform specific tasks based on closed loop control architecture. Students weresubjected to activities that taught
this advancement for both national and regional economic development. • To provide new mechanisms for sustained collaboration among the participating universities, by using a new internet-based communication that enables collaborative scholarship without regard to geographical location.The strengths of the alliance are the critical mass effect for educational change that resultsthrough multi-university collaboration, and the rapidity for the exchange and sharing of newideas, experiences, and scholarship through the use of electronically mediated communication,which is required to make this transformation a collective reality.1. IntroductionThe purpose of this paper is to describe a new collaborative alliance among
admittedly there are hurdles, such as the amount of direction each student or teamwould require in order to produce useful artifacts.The rest of the paper is divided into two parts. First, the author describes his own experience andrecounts lessons learned. The second part explores how these techniques might be applied tocourses in other areas of software engineering.2. A Case Study: Object-Oriented Design and DevelopmentEarly in his career, the author developed a course in object-oriented programming and conceptsof object orientation. The course in question is an advanced undergraduate and masters-levelcourse. About twenty years ago, he realized that students in the course could develop webapplications that were useful in managing the course. Early
, COURSE END NA,Other) (I, A or D) (1 to 3)OUTTOP DESCRIPTION COMP1 COMP2 COMP3 LEVEL METHOD1 METHOD2 METHOD3 1.0 ability to apply knowledge of mathematics, science and 1 engineering 2.0 ability to design/conduct experiments and 2 analyze/interpret data 3.0 ability to design system, component or process to meet 3 desired needs 4.0 ability to function on multi- 4 disciplinary teams 5.0 ability to identify, formulate 5 and solve engineering problems
constructivist approach and isappropriate for entry-level engineering classes. It can be modified for use in upper levelengineering classes as well. To prepare for the emissions analysis lab, students study thecomposition of atmospheric gases, products of combustion, and the measurement of automotiveemissions. The laboratory component is the actual sampling of engine exhaust from studentselected automobiles using an exhaust emissions analyzer. Students use sample values ofemission concentrations for O2, CO, NO, and NO2, combustion kinetics, and fluid dynamics tocalculate the engine fuel flow rate, exhaust flow rate, and mass emission rates for CO and NOX.This paper presents an overview of the introductory studies followed by a description of
college. Prior to fall 2001 any student admitted to the university whoexpressed a desire to major in engineering was admitted directly to the college. Since this time,students who are admitted into the university expressing an interest in engineering who do notmeet these criteria are admitted as undecided majors with a pre-engineering concentration. Theadmissions criteria were established by studying the graduation rates of students entering thecollege. The admissions criteria are a combination of high school GPA and ACT scores. Studentsin this designation are advised by a special advisor in the academic advising center and can beadmitted to engineering upon successful completion of English Composition I, Calculus I, andFundamentals of Chemistry
. The course isdesigned to serve students in high school that do not offer laboratory courses, or to provide a tran-sition between high school graduation and the start of college.The third goal focuses on streamlining the college experience. In particular the pathways to vari-ous degrees, and careers, are outlined. In many cases this involves transfer between institutions Page 9.722.1and programs. In those cases articulation agreements are in place to ensure that students can easily Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American
composite materials. This paper details the pedagogy and theresearch paper activity.BackgroundManufacturing engineering is a relatively new and small program in the department (Refer Table1). Our “hands-on”, curriculum includes laboratory experiences in physics, chemistry, computer-aided design, manufacturing processes, RP, quality assurance, electronics, robotics,microelectronics manufacturing, simulation and computer integrated manufacturing. Themanufacturing engineering program is scheduled to undergo ABET accreditation in Fall 2007.Companies such as Toyota, Northrup-Grumann, Boeing, National Instruments, etc. asmanufacturing or process engineers have hired our graduates. We are in the process of collectingdata pertaining to number of students
of writing iscurrently emphasized in this discipline pedagogically? Two, are there significant writing styledifferences in the discipline that that require faculty in the discipline to guide the student thoughtand writing process? The current emphasis in engineering and engineering technology programsis placed on highly formatted technical and scientific laboratory reports.1 The problem with thistype of technical writing in the discipline is that it doesn't really prepare students to communicate1 It is interesting to note that students have had a difficult time writing the conclusions in their laboratory reports. Page
student performance and attitudes," Journal of Engineering Education, vol. 91, pp. 3, 2002.[13] C. Johnston, "Let Me Learn website," Center for Advancement of Learning www.letmelearn.org. [Accessed January 10, 2006].[14] R. A. Guzzo and M. W. Dickson, "Teams in organizations: recent research on performance and effectiveness," Annual Review of Psychology, vol. 47, pp. 307, 1996.[15] J. R. Katzenbach and D. K. Smith, The Wisdom of Teams: Creating the High Performance Organization. Boston, MA: Harvard Business School Press, 1993.[16] J. S. Byrd and J. L. Hudgkins, "Teaming in the design laboratory," Journal of Engineering Education, vol. 84, pp. 335, 1995.[17] E. Seat and S. M. Lord
via distance education since 1992, and has approximately 25 off-campusstudents per semester. Currently the energy systems program produces approximately 15 to 20bachelor’s degrees and five on-campus master’s degrees, and 7 to 10 off-campus master’sdegrees per year.Accelerated Bachelor’s DegreeThis paper will focus on the accelerated track for military veterans into bachelor’s degrees inengineering. It is important to have contact with the military veteran prior to their arriving oncampus to begin their schooling. This allows an initial thorough evaluation of the veterans’training, experiences, and expertise to be conducted with the option of granting academic creditwhere appropriate. Current policies give little credit for military experience
’ advices. Evaluation plan/strategy and the measurementinstruments are aimed at measuring the effect of the project on knowledge, skills and attitudes ofstudents and trainees. We present the design and implementation of this project for severalcourses that will be used by different students of various matters in several European countries.IntroductionThere is an old adage in distance education research which states ‘It is not technologies withinherent pedagogical advantages which are successful in distance education, but technologieswhich are generally available to citizens’. This is nowadays closely related with mobiletelephony technologies. It is not an outrageous statement to say that every student in everyprogram in every institution possesses
department, such as Petrol engine, diesel engine, pump and compressor,pipe and valves, steam power plants, A/C, welding and machining. The department hasmany laboratories for fluid mechanics, theory of machines, pumps & compressors, ICE,steam & gas power plant and A/C.In the ECC, the program is designed more towards the manufacturing engineeringtechnology. Also, the college offers good basic courses in electrical technology andinstrumentation. However, the DTCC has a good complete program which contains morebasic MET courses than the other two colleges. No field -training is offered by theAmerican colleges, while ABET requires some credits for training. In addition, thestudents have no chance to see the equipment parts and how to maintain it
. Most studentsalso were concerned that they did not have the level of experience and/or self-confidence toimmediately begin conducting research. Consequently, the primary objective for Year 1 was toprovide enriching opportunities for the first cohort of undergraduate students. Theseopportunities were designed to enhance their professional and technical skills, increase their self-confidence, and prepare them to do undergraduate research with the long-term goal ofsuccessfully matriculating to a graduate engineering program. In all cases, program participants Page 9.1120.2∗ Historically black colleges and universities
design, vibrations, tribology, and polymers. His researchinterests are in the areas of tribology, bioengineering, and polymeric materials. He received his mechanicalengineering degree doctorate from Va Tech.DANIEL KNIGHT is the assessment specialist for the Integrated Teaching and Learning Laboratory at theUniversity of Colorado at Boulder. He received his bachelor's degree in psychology from the Louisiana StateUniversity and his master's in industrial/organizational psychology and doctorate in counseling psychology from theUniversity of Tennessee. His research interests include assessment, program evaluation, and teamwork.RICHARD SANDERS is professor and department chair of music & entertainment industry studies at theUniversity of Colorado
for Engineering Education, 2011 Navy Metrology Engineering Center STEM Outreach through the STEP Program: Challenges, Lessons Learned and Application to DoD StrategyBackground:The United States and especially the Department of Defense (DoD) has historically reliedheavily upon scientists, technologists, engineers and mathematicians to innovate, design, produceand maintain a technically superior capability to defend and advance the interests of the UnitedStates, both at home and globally. The United States maintained a leading edge technologicadvantage through and beyond World War II until it was stunned by the Soviet Union‟s launchof Sputnik 1 on October 4, 1957. Sputnik 1 was the first artificial
some of the international implicationsof the use of technology. Students are required to submit typed answers to several case study questions and arequizzed on the material after the class discussion of the case study. Results of the homework and quiz are used toassess the achievement of sub-outcome 5.3.Laboratory Experiments and Related Activities: Lab meets once a week for three hours. Labs 2-6, and 8-10 require aPower Harmonics Analyzer (e.g., Fluke F41)1. Introduction to electrical safety, multimedia presentation2. AC Power Measurement: single phase induction motor, resistive and RLC loads3. Three-Phase Power Measurement: resistive and RLC loads4. Power Quality: nonlinear loads, Uninterruptible Power Supply5. Single Phase
structure that was used in this study is detailed in Figure 1. Figure 1: Planned training structure based on the scaffolding method. 3Format of the Training ProgramThe program covered two full days of training on various principles related to the topics and hands-on activities in a fluid mechanics laboratory on the university premises. Upon the development ofthe draft materials, DPH reviewed the content and provided feedback, which was addressed tomake the program more meaningful and beneficial to the participants. Recruitment of theparticipants was carried out by the DPH, and four cohorts were trained during the one-year timeperiod. The first training session was conducted on March 6-7
also teach STEM concepts.The modules incorporated in BRAIN Games were designed from the educational manual,“Teaching Engineering Made Easy 2”7 and from the curriculum development of our ResearchExperience for Teachers (RET) participants. The RET program operates concurrently with theYSP, and has each classroom teachers immersed in bioengineering research with the goal ofdeveloping an educational module by the end of the experience. Eric Craven participated in theRET program in 2013 and 2014. In addition to using his module on Thin Films8 at the summerinstallment of BRAIN games, he was also able to present at the 2014 National EducatorsWorkshop. This module consisted of an introduction to thin films, followed by activities such as:Profilometer
design is based upon the special mathematics background, most IT/computerrecommended computing curriculum by IEEE Computer science departments in major universities offer the courseSociety/ACM Task Force, also referred to as CC2001. A for graduate students. However, we have designed theset of lab activity experiments have been presented that course to be offered for junior/senior level undergraduatecan be adopted very easily in a traditional fifteen week IT students [4].semester offering. Unlike the IT program at UAE University, most CS programs require
fact that they learned more than what they expected and that this experience provided them with confidence and certainty about what they wish to do in the future. Internship is a great experience and an opportunity that every student should have. It is a great way to gain more experience in the field by applying it to real life. Q21. Will you recommend this internship position to other students? All of the participating students indicated that they would recommend this internship program to others, mainly because of the work experience gained and the career information received. (b) Research Assistant ProgramThe undergraduate research program provides STEM students with laboratory researchexperience. Research assistants are supervised by
faculty and post-secondary professors in their communications about the opportunities inherent in applied engineering fields offered at Philadelphia University • Design, development, and delivery of Student Career and Educational Awareness Conferences established to support increasing the participation of Philadelphia high school students in STEM education in general and Applied Engineering in particular Page 12.80.4 • The Establishment of two successful Engineering Summer Camp at Philadelphia University, which has provided a college-level, scientific educational experience for Greater Philadelphia
for providing students with hands-onexperience. The objectives of laboratory activities are: 1) to provide students with a betterunderstanding of the digital logic; 2) to help students develop hands-on skills through self-motivating, team-based design activities; and 3) to stress the importance of problem solvingskills and critical thinking. It should be noted that presenting cognitive strategies to students doesnot guarantee their achievement. Implementation of these strategies is not an easy task and needspersistent effort. SRL can be taught indirectly with laboratory activities to evoke reflection andmeta-cognitive understanding. The immersion instruction strategy described in the above sectionhas been implemented in the laboratory portion
AC 2009-1022: UNDERSTANDING FACTORS CONTRIBUTING TO RETENTIONIN ENGINEERING: A STRUCTURAL EQUATION MODELING (SEM)APPROACHMark Urban-Lurain, Michigan State University Mark Urban-Lurain is the Director of Instructional Technology Research & Development in the Division of Science and Mathematics Education at Michigan State University. Dr. Urban-Lurain's research interests are in theories of cognition, their impact on instructional design and applying these to the use of instructional technology. He is also interested in the role of technology in educational improvement and reform.Jon Sticklen, Michigan State University Jon Sticklen is the Director of the Applied Engineering Sciences major
\&D Analyst. In addition, he conducted research in the Networked Embedded Systems (NES) Group at Swedish Institute of Computer Science (SICS) as a visiting researcher. His research interests include IoT Security, Network Security, Web Security, and Malware.Luis Puche Rondon Dr. Luis C. Puche Rondon is a graduate of Florida International University and an alumni of the Cyber-Physical Systems Security Lab (CSL). He received his Bachelors in Computer Science in 2016, and a Masters in Cybersecurity in 2017. Luis has ten years of work experience in Smart home integration and solutions. His research interests include the security of smart environments such as smart homes and offices.Daniel Ortiz Computer science major
memberships include the Eta Kappa Nu, and Tau Beta Pi honor societies.Dr. Ronald J. Hayne, The Citadel Ronald J. Hayne is an Associate Professor in the Department of Electrical and Computer Engineering at The Citadel. He received his B.S. in Computer Science from the United States Military Academy, his M.S. in Electrical Engineering from the University of Arizona, and his Ph.D. in Electrical Engineering from the University of Virginia. Dr. Hayne’s professional areas of interest include digital systems design and hardware description languages. He is a retired Army Colonel with experience in academics and Defense laboratories.Dr. Kevin C. Bower P.E., The Citadel Dr. Kevin Bower is D. Graham Copland Professor of Civil