, ColombiaAbstractIntegrating an International Experience in Undergraduate Education is increasingly seen as animportant component of high impact undergraduate activities. These usually take the form ofstudent exchanges, internships, service learning experiences and short-term faculty led studyabroad programs. Students in these programs have a very wide range of international exposureand local interaction. Despite increases in the number of American students going abroad tostudy, the participation by underrepresented minorities and persons in the STEM disciplines isstill relatively low. The model was designed to incorporate Spanish language, culture, research,and service learning in primarily Afro-Colombian communities. Research focused onenvironmental monitoring
wireless experts would arrive, but in allcircumstances, their time was limited. Local civil defense authorities realized that otherpersonnel would be required to maintain and expand the established communications backbone.The request for assistance reached the Information Technology (IT) program of a localuniversity.The IT program requires a capstone experience for all graduates. The capstone experience caneither be a design project or an industry internship. The industry internship was created inresponse to the information technology students’ needs for hands-on experience. This internshipprogram allows students to become knowledgeable of the components and processes in theindustry. These experiences provide a way for students to understand the
whole experience are summarized. Hopefully, thisdocumentation will help others in planning similar experiences for engineering undergraduates. Enhanced analytical and computational capabilities and higher strength materials have led tolighter, larger and more complex and unconventional civil structures. To design such structures,one must be able to evaluate their overall behavior under both static and dynamic (seismic)heavy overloads, both in laboratory and field environments. The inherent non-linearities indescribing the material behavior and the interaction between the components of a structure,makes simply using analytical tools for studying the response inadequate. This can only be doneby experimental testing. Research projects for the
Paper ID #15098Software Industry Experience for High School StudentsDr. Massood Towhidnejad, Embry-Riddle Aeronautical University, Daytona Beach Massood Towhidnejad is Director of NextGeneration ERAU Applied Research (NEAR) laboratory, and Professor of Software Engineering in the department of Electrical, Computer, Software, and Systems En- gineering at Embry-Riddle Aeronautical University. His research interest includes; Software Engineering, Software Quality Assurance and Testing, Autonomous Systems, and Air Traffic Management (NextGen). In addition to his university position, he has served as Visiting Research Associate
definition and solution generation. Much of their work throughout the semester isaccomplished during the six hours of laboratory time that they have scheduled each weekAn hour lecture period held most weeks provides the students with relevant projectinformation, as well as various other topics pertinent to their future roles as engineers.The intent of the lecture is mainly to reiterate the importance of the economic feasibilityof solutions, to raise awareness about how the “people component” of projects is criticalbut also unpredictable, and to make the point how challenging yet essential it is toconstantly consider realistic constraints throughout the design process. Global,economic, environmental, and societal constraints are some of those
StateBoard of Education. The main focus of the project is to provide middle school and high schoolscience, math and technology teachers with hands-on interdisciplinary experience with faculty instate-of-the-art laboratories of alternative energy, nanotechnology, fuel cell, and modernmanufacturing. The goal of the institute is to improve teachers’ content knowledge and teachingpractices in ways that increase the academic performance of their students and in ways that buildcapacity within their schools for continued, sustained student learning. Problem-based learning is a student-centered pedagogy in which students learn about asubject in the context of complex and real problems. The problem drives the learning, as studentsneed to acquire new
100 students. For the lectureportion of the course, the students all meet simultaneously for a large, twice-weekly lecture, whereas forthe laboratory experience the students meet once weekly in lab sections with enrollment no larger than 20.This smaller laboratory setting fosters engagement, teamwork, and collaboration from the students.Abell has been involved with the course for several years as the instructor of the project-based laboratoryportion of the course. The laboratory curriculum is comprised of a semester-long, user-centered designproject that the students carry out in teams. The Learning Outcomes for the lab are as follows: 1. Students will have a thorough understanding of the product design process 2. Students
displays to filters, from acoustic to non-lineardevices, liquid crystals and the experiments one can easily do will make this experience a usefuland entertaining one. Demonstrations, hands-on tests, and samples will be included in theseexperiments.Key Words: Liquid crystals, displays, thermotropic, nematic, liquid crystal polymers.Prerequisite Knowledge: The student should be familiar with the basics of materials science,metallography, and chemistry. Levels at which these experiments are performed are secondsemester junior year and either semester senior year. The students are first given lectures theproperties of materials including organic liquid crystals and polymer liquid crystals (PLCs).They should have already had a laboratory experiment on
hours of technicalelectives. The Introduction to Finite Element Analysis is one such elective, available to juniorsand seniors who have had prerequisite courses in differential equations and solid mechanics. Thecourse format includes two hours of lecture and a two hour computational laboratory. The firsthalf of the semester has focused on theory using one dimensional elements (rods, trusses, andbeams). The second half provides practice with two and three dimensional models, incorporatingSolidWorks software. Student assessment included midterm exams, weekly homework exerciseson theoretical content (e.g. stiffness matrix calculations), small programming assignments, com-prehensive exercises which include physical experiments, and a student
are skilled machinists and not just machineoperators. Focus:HOPE’s basic machining training is divided into two parts: Vestibule, a five-week introduction, and Core 1, which is 40 hours per week for 26 weeks. Both programs requireclassroom and computer work as well as hands-on instruction in the shop laboratory. Bothclassroom and lab instruction are geared to prepare students to be skilled machinists, and also tobe ready for further training and education in computer numerical control programming,computer-aided design and manufacturing engineering.In Vestibule the students are introduced to the topics and gain experience working on one typeof machine (lathes) in the lab. Courses include shop theory, shop math, blueprint reading,technical
AC 2007-410: RECENT DEVELOPMENTS IN MECH LAB I AT THE UNIVERSITYOF SOUTH FLORIDADon Dekker, University of South Florida Don Dekker is currently an Adjunct Professor of Mechanical Engineering at the University of South Florida. He is currently teaching Mechanical Engineering Laboratory I, and Capstone Design at USF. Before his retirement in 2001, Don taught at Rose-Hulman Institute of Technology. He first joined ASEE in 1974 and some of his ASEE activities include Zone II Chairman (86-88), Chairman of DEED (89-90), and General Chair of FIE ‘87. His degrees are: PhD, Stanford University, 1973; MSME, University of New Mexico, 1963; and BSME, Rose Polytechnic Institute, 1961
technologies haveprofoundly transformed the way scientists design, perform and analyze experiments. Asbiological concepts and models become more quantitative, biological research is increasinglydependent on concepts and methods drawn from other scientific disciplines. Thus as biologybecomes more quantitative and systematic, it will become a foundational science for engineeringsimilar to physics, chemistry and mathematics.The long term goal of this project is to design and disseminate interdisciplinary teaching materialthat will bridge different disciplines and provide an increasing understanding of the relevance ofconcepts of chemistry, engineering, and computing in biology. The objectives are to: (1)Develop an interdisciplinary biotechnology
Paper ID #36969Students’ Lived Experiences with the Integrated STEMActivitiesMaram H AlaqraBugrahan Yalvac (Associate Professor)Michael Johnson (Professor) Dr. Michael D. Johnson is a professor in the Department of Engineering Technology and Industrial Distribution at Texas A&M University. He also serves as the Associate Dean for Inclusion and Faculty Success in the College of Engineering. Prior to joining the faculty at Texas A&M, he was a senior product development engineer at the 3M Corporate Research Laboratory in St. Paul, Minnesota. He received his B.S. in mechanical engineering from Michigan State
. This user experience studywill be used to make decisions around space designs and services offered in the library.Defining of Goals and TermsThe Lichtenberger Engineering Library is a branch library embedded in the University of IowaCollege of Engineering. The College of Engineering consists of six academic departments andover twenty research laboratory sites. Undergraduate enrollment is around 1700, approximately275 graduate students, and 110 faculty members [3]. This project started with the questions of“are we meeting the needs of those we serve?” and “are we using our resources and spaceeffectively?” However, as the conversations progressed there was no straightforward way toanswer those questions and one of the first major hurdles was to
Session 2793 Experiences in Process Control Web-based Learning Paul Chernik, Joshua Lambden, Glen Hay, William Svrcek and Brent Young Department of Chemical and Petroleum Engineering, University of Calgary, 2500 University Drive, Calgary, Alberta T2N 1N4, CANADAAbstractAs more and more students gain access to computers, the idea of implementing Internet-basedchemical engineering courses becomes more of a reality. With web-based learning comes newopportunities and challenges for both faculty and students. In courses where hands-on learningdirectly facilitated by an instructor is not required, web-based
converse piezoelectric effect.The induced strain field can then be used to deform the main body of the host structure. 73.1 Laboratory Exercise This lab module explores the phenomenon of photoactuation in PLZT and assesses itsapplication potential to precision actuation and control. In the experiment, one photostrictiveactuator patch is bonded to one side of a 1.0 mm (0.04 inches) thick plastic beam, which iscantilevered such that its width is vertical, and its thickness is horizontal to allow bending of thebeam to take place in the vertical plane. The beam has a length of 15 cm, 3 cm of which is heldin the clamp, and a width of 5 mm. The actuator patch is 15 mm long, 5 mm wide and 0.4
Stager, R., Thinking Skills - Making a Choice, West Virginia University Center for Guided Design, 1987.2. Wales, C., "There is a ’How to Teach’ Frontier", Proceedings of Frontiers in Education Conference, IEEE, New York, 1978.3. Venable, W., McConnell, R., and Stiller, A., "Follow-Up of a Freshman Engineering Course Experiment", 1997 Frontiers in Education Conference Proceedings, IEEE, New York, 1997.4. McConnell, R., Venable, W., and Stiller, A., "Freshman Can do Rigorous Open-Ended Design," 1995 Frontiers in Education Conference Proceedings, IEEE, New York, 1995.5. Felder, R., Soloman, B., Learning Styles and Strategies, http://www2.ncsu.edu/unity/lockers/users/f/felder/public
), our focus was on developing a Smart Spirometer atransformative approach to modernizing the conventional volumetric spirometer. This project notonly enriched our understanding of fundamental concepts but also served as a platform for refiningproblem-solving abilities within the engineering design process. Throughout this journey, wehoned practical skills in fabrication, design, analysis, and technical writing. From computer-aideddesign (CAD) and programming to research and collaborative teamwork, our endeavorencompassed a wide range of valuable experiences. Importantly, the implications of our SmartSpirometer extend beyond the confines of our educational journey, offering potential applicationswithin the broader field of engineering education
identified as underrepresented minoritywomen (UMW) mentee participants (four participants identified as male; their experiences arereported separately). Participants were required to participate in focus groups and individualinterviews once the program concluded during Spring 2021. The current paper focuses on theexperiences of the UMW mentees.Following a case study design, the current project examined the following research questions; 1)How, if at all, was participation in the online peer mentee program useful in furthering students’STEM self-efficacy?, 2) How, if at all, was participation in the online peer mentee programuseful in furthering students’ sense of community in STEM?, 3) How, if at all, was participationin the online peer mentee
actual industrialequipment and processes they would see in industry is a worthy goal but ultimately the purposeof using the actual building should be to enhance the learning experience. To see where theLiving-Building Laboratory concept fits into a student’s educational experience it can be helpfulto reference Bloom’s Taxonomy.One of the challenges in education today is trying to bridge the gap between students who oftenview education as an effort to try and push as many important facts into their brains as possibleversus the understanding that we as educators have that students need to be able to synthesizethat knowledge and be able to use it to make decisions (what we often call Design). Certainly,many courses that students take early in their
order to benefit teaching engineering courses while sharing resources with other universitiesand colleges, a remote laboratory has been successfully developed based on a novel unifiedframework. The laboratory is established through a collaborative effort between threeuniversities which are Texas A&M University Qatar (TAMUQ), University of Houston (UH)and Texas Southern University (TSU). Two remote engineering experiments are designed andimplemented in the off-site laboratory for teaching purposes, and a generic scheduler isdeveloped for managing the distance operations. End-users can remotely operate or view real-time procedures through most current web browsers on any PC or portable device withoutfirewall issues and the need for a third
at the national level on issues related to the success of women in engineering and innovative STEM curricula.Dr. Lee Kemp Rynearson, Campbell University Lee Rynearson an Assistant Professor of Engineering at Campbell University. He received a B.S. and M.Eng. in Mechanical Engineering from the Rochester Institute of Technology in 2008 and earned his PhD in Engineering Education from Purdue University in 2016. He also has previous experience as an instructor of engineering at the Kanazawa Institute of Technology, in Kanazawa, Japan. His current research interests focus on instruction for metacognition and problem solving. c American Society for Engineering Education, 2017 Design
practice of modeling.• To familiarize students with the concept and role of degrees of freedom. Effective engineering design requires the introduction and manipulation of degrees of freedom. It is our hypothesis that students need help in transferring skills in modeling a fixed system to manipulating that model for design purposes.• To impress upon students the role of a model and the potential gap between the real system behavior and the model. With increased enrollments in Chemical Engineering degrees the relative numbers of students that have any experience with chemical processing facilities is decreasing. Furthermore computers are all pervasive in engineering activities and a majority of this generation of students is
Ph.D. degree, Darshi has gained ten years of experience in the construction industry, including working in an array of multinational projects. Also, has three years of experience in other industry sectors. He has, thus, gained cross-disciplinary experience in a broad spectrum of activi- ties: design, construction, maintenance, manufacturing, marketing, research and teaching. Presently he teaches Construction Surveying, Financial and Economic Aspects for Construction Managers, Managing for Construction Quality, Electrical and Mechanical Construction, and Land Development.Thomas Charles Schanandore, North Dakota State University Thomas Schanandore is graduate student in the civil engineering department at North Dakota
cost and timeconstraints of laboratory courses, many faculty members have moved to a mobile studiopedagogy where the students are equipped with relatively low-cost laboratory equipment thatallows them to perform experiments and measurements outside the laboratory. This approach hasbeen implemented in a variety of individual courses, including introductory first-year courses[1], electronics [2], digital design [3], and communication systems [4], [5], [6]. Some authorshave reported on the use of mobile studio pedagogy in multiple courses [7], [8], and someschools have implemented the technique throughout the electrical engineering curriculum [9],[10], [11]. A helpful discussion of the advantages and disadvantages of various logistic options
features such as simplicity, good performance,and automation, while using a low-cost hardware and software implementation. Thestudent can manage the fundamental parameters of the converter topology using thesoftware environment. The software is designed to provide simple interaction betweenthe student and hardware. The laboratory experiment is performed using a low costmicro-controller PIC16F877 in order to verify the design performance over a wide rangeof operating conditions. After the basic experiment is explained, students have reinforcedtheir theoretical knowledge of power converters with fuzzy logic. All students havereacted positively to the experiments and overall interest has definitely been increased.IntroductionPower electronics courses
be very concise, simple, and easy-to-use aids for helping engineeringstudents improve their engineering laboratory report writing skills, specifically preparing andpresenting the results of engineering experiments. The collection of modules was designed andstructured with scaffolding in mind. Early concepts in writing lab reports are covered in thefundamental section for students new to lab report writing. More experienced students might skipthese sections and be directed to topics in the intermediate or advanced sections. Module contentcould be used for just-in-time instruction when student questions or early performance indicatesthe need, or a module could be incorporated as a whole lesson with progressive instruction in labreport conduct
modules.Utilization of free open source software can help offset related monetary costs. Whilethere are many open source cryptographic tools, not all tools are appropriate for “hands-on” learning activities. For example, our lab modules are designed to make cryptographicprocesses visible to students; while, tools like PGP and GPG are designed to makecryptographic processes transparent to users.This paper presents the author’s experiences developing and utilizing appliedcryptographic lab modules. The primary cryptographic software utilized, in thesemodules, is OpenSSL. This is an Open Source tool kit available for both Linux andWindows. In addition to OpenSSL, the modules utilize a variety of other open sourcetools including Ethereal (WireShark), net cat
Engineering Education, 2006 Library Experience for Applied Engineering Technology StudentsAbstractThe full-time Applied Engineering Technology Program at Goodwin College of DrexelUniversity was launched two years ago. This program clearly distinguishes itself fromtraditional engineering programs. The curriculum places emphasis on the application oftheory rather than on derivations and proofs. The majority of courses are fully integratedwith training and laboratory experience, extensive use of software and industrial casestudies. The information literacy of students plays an important role in the educationprocess. The primary goal of an academic library is to support the curriculum and providea more
time domain and frequency domain concepts that may not be readily observedfrom lecture-only courses. Further, these labs allow students to validate concepts seen in lecture,homework and reading assignments. Additionally, these labs allow students to use digitaldevices found in earlier course work, such as digital logic. Finally, these labs are meant tocomplement lectures and not meant to replace laboratory experiments involving actual laboratorydigital communication hardware. It is acknowledged that the presence of hardware in thelaboratory is vital to the mission of technology education.National Instruments Multisim is the chosen electronics laboratory simulator for this work. Ofspecial interest in the design of the labs are Multisim's high