promising nature of job shadowing techniques and the familiarity of jobshadowing as an experiential learning technique makes it a good candidate for introducing studentsto academic careers.The National Society for Experiential Education has established eight guidelines for allexperiential learning activities [2]. These guidelines are as follows: 1. All participants shall be clear on the intentions and educational outcomes of the experience. 2. All participants shall be prepared and plan to follow program intentions. 3. The program shall be authentic to the real-world scenario. 4. Participants shall reflect on their experience in order to create a learning experience. 5. Orientation and training shall be provided to give context about
targeted learninggoal for PFL/DP, covered in coaching, is highlighted. 7 (b) Coaching sessionsEach week, a sub-skill was identified for a DP exercise in a coaching session [27]. Thecriteria for selection was: feasibility, complexity and the decisions and practices it involved.From that learning goal, a problem-solving activity was created. The activity takes placeduring the coaching session. The activity engages students in a way which they mayencounter in “the real world” of mechanical design.The deliverable for this DP exercise is low-stakes, and graded only for completeness. Thestudents are offered a problem and guided by the CA through the activity
differences. By analyzing real-life case studies, the participantswill be able to explore how the banking model of education (Freire, 1970) disadvantages diverselearners (Felder & Brent, 2005) in addition to reducing the teaching and learning processes to abureaucratic certification exercise. The participants will have a chance to share experiencesfrom their classrooms and collectively identify a roadmap for supporting diverse learners. Indoing so, they will be critically evaluating the traditional approaches to engineering education,identifying existing gaps in student support structures, and exploring opportunities to mentordiverse talent. The participants will also be afforded an opportunity to co-author a papercollating the knowledge created
learning outcomes, yet research generally supports active strategies.Related to student preferences for active learning, the specific activity of case discussions withteams of classmates was identified by students as most desirable prior to beginning the courseand emerged as the favorite after course completion. While many students were unfamiliar withcase analysis prior to entering the course, they quickly developed proficiency in connecting basiccourse topics to practical real-world business and engineering scenarios though case discussionswith assigned teams followed by debriefs with the whole class. Cases gave students a chance toapply the basic concepts they were learning, but most importantly, offered an avenue to regularlyinteract with
5) Design system specifications from requirements; and testing and debugging a prototype, system, or process using appropriate tools to satisfy requirements 6) Learn for Identify unsuccessful outcomes due to faulty equipment, parts, code, construction, Failure process, or design, and then re-engineer effective solutions Demonstrate appropriate levels of independent thought, creativity, and capability 7) Creative in real-world problem solvingTo fulfill these objectives, researchers have implemented problem-based learning (PBL) in theircourses and labs over traditional teaching methods. PBL is a style of active learning, wherestudents are engaged
later on.3.3 Simulation Software to Learn Network Management, TCP/IP Protocols, and IP AddressingWith more and more routers and switches are widely used it is necessary for students toexplore the interfaces of the network devices like router and switch. Virtual Lab softwareproduct for networking [4] is an effective tool used in this online computer networklaboratory module considering that not every student has a switch or router. Students willbenefit from this laboratory module and train their practical skills in performing essentialnetwork configuration tasks and gain insight into real-world implementation of Cisco Page
competent in the theoretical underpinnings and also have the skills and confidenceto apply these to real applications demanded by current practice. This paper first introduces theimportance of robotics courses in the curricula of engineering programs, followed by results of asurvey that reports on the features of robotics courses in several universities in the United States.The difficulties of designing a robotics course are then addressed. Finally, a suggested structureof a senior level robotics course is proposed.IntroductionIn the year of 2005, the Robotics Education Workshop took place in Robotics Systems andScience symposium at Massachusetts Institute of Technology (MIT)1. The main goal of thisworkshop was to discuss how to turn robotics into
that, subjectively,students perceived the HMD to be more effective for learning of 3D designs. However, the studyalso found that, objectively, students’ did not perform significantly better, when using the HMD. Page 11.127.2 Proceedings of the 2006 American Society for Engineering Education Annual Conference & Exposition Copyright © 2006, American Society for Engineering EducationIntroductionVirtual reality (VR) is a highly interactive, computer-generated environment for providing userswith a sense of being immersed in a real-world scene. Previous studies have shown that VR hasthe potential to change and improve
Paper ID #19011Development of learning modules for sustainable life cycle product design: aconstructionist approachMd Tarique Hasan Khan, Wayne State University Ph.D. Candidate, Department of Industrial and Systems Engineering Wayne State UniversityMr. Kamyar Raoufi, Oregon State UniversityDr. Kijung Park, Iowa State Univerisity Kijung Park is a postdoctoral research associate in Industrial and Manufacturing Systems Engineering at Iowa State University. He earned Ph.D. in Industrial and Manufacturing Engineering at Penn State. His research interests include network science applications to product family evolution, modeling
time in the classroom by allowing students to learn the theoretical concepts at theirleisure while bringing the concepts to life during classroom time. Thus, the flipped classroomapproach provides a framework for designing educational opportunities that engage students inactive and applied learning [1]. As Turner and Webster highlighted in their evaluation of a flipped course in electricalengineering technology, the ultimate goal of any engineering technology program is to producestudents who can solve open-ended problems and who can apply the technical knowledge gainedin the classroom to a wide variety of real-world situations [7]. So while flipping a class is onemethod to create free time to engage students in active learning, it is
materials property or phenomenon (known to the layman) that connects this concept to real world experiences. Using vocabulary from the reading or videos, explain how and why the concept you've chosen gives rise to this common materials property or phenomenon. • Materials "Instagram": Take an Intragram (photo) of a material that relates to a concept from the assigned reading or videos. Upload the photo to the blog, and describe the important aspects of the photo. What is the material specifically? What application is the material being used for? What properties are important? How does the material achieve these properties? • Article/YouTube Video: Find an article or YouTube video that involves a new concept from the
vehicleand this lab gave that insight to me and I learned a lot about the process and the differencesbetween the 2 cycles analyzed.”“I really enjoyed the Boyle's Law activity. It was the most involved and hands on project wedid.”“The thermal imagining activity, it was a fun activity that stimulated my interest.”Question: Which in-class activity was your least favorite and why?“My least favorite was the Boyle’s Law. It was interesting to see but does not pertain as much todaily life and is used more in the solution of a problem than a tangible part that is used.”“Pressure lab was the least favorite. This lab didn't seem to help me get a good practical ideaabout the uses of gage pressure and actual pressure in real world.”“The Pressure activity, just
-classactivities and problems can be more real-world and open-ended, and the instructor can act as the“customer” and (2) It allows for a more inclusive instruction by potentially breaking downcultural and gender barriers and promoting communication between individual and groups ofstudents. This is going to be increasingly important, given the changing demographics inengineering classrooms.Cons: In the spectrum of Blended Learning (BL) course delivery modalities3, the flippedclassroom model is more than replacing or supplementing F2F interactions with onlinecomponents13. If not implemented strategically, the flipped format may negatively impactstudent learning as well as result in additional instructional preparation. Initially, it does take alot of effort
several major research projects on industrial applications of sensing and Control with focus on Energy Efficiency. He is a senior member of IEEE, ISA, and a member of ASEE.Mr. Mohamed Abdelsalam Salem, Text Scope CTO , Text Scope www.text-scope.comDr. Mais Nijim, Texas A&M Kingsville Page 26.1592.1 c American Society for Engineering Education, 2015 Towards an integrated Hardware And SOftware Book (iHASOB)Abstract: This paper describes a new concept of an integrated Hardware And SOftware Book(iHASOB). The proposed iHASOB platform aims at increasing subconscious or habit learning
demonstrates an approach at introducing true interdisciplinary design projects withina sophomore level materials and energy balances courses in both Bioengineering, herein referredto as BIOE, and Chemical and Biomolecular Engineering, herein referred to as CHBE, programsat a large public institution. The project is a societal, health-focused challenge, whichcompliments the content and skills of each major. We hypothesize that projects completed bystudents of the crossdisciplinary teams will have higher performance in interpreting data andworking within real-world constraints, making recommendations to include social and economicconcerns, interacting within a team, and having an appreciation for other engineeringdisciplines10-13.MethodsTeam formation
projects such asthe design and development of an Injection molding machine for educators. Such projects show studentshow to use different types of technology, and demonstrate how advanced technology can be used in aninnovative application. Overall, many different fields of engineering can benefit from this application,enabling the development of skill and knowledge in many different engineering aspects and processes.This capstone design project stimulates the students’ interest in real-world product realization. Asmanufacturing laboratories are very expensive to develop, this project can also be adapted at otherinstitutions that have limited funding to improve manufacturing process and prototyping facilities.Expected student learning outcomes
addressed in developing andimplementing a curriculum in nanotechnology. The list of issues is as follows: • Preparing faculty to teach in a broad based technology that is still evolving. • Industry involvement and practical experience for faculty. 1) The interdisciplinary nature of nanotechnology curriculum. 2) Arranging access to laboratory facilities. 3) Need to focus on a specific aspect of nanotechnology. 4) Outreach programs. 5) Co-op and internship arrangements aimed at real world experience for students. 6) Developing partnerships with education, industry, and government. 7) Securing resources to develop curriculum, faculty, laboratories, and appropriate technical supportFroyd, Creasy, Karaman, Teizer, and Caso [2
Paper ID #9556A review of the design intent concept in the context of CAD model qualitymetricsMr. Jeffrey M. Otey, Texas A&M UniversityProf. Pedro Company P.E., Universitat Jaume I His research fields of interest are centered on Computer Aided Desig, and Sketch-Based Modeling; with more than 30 papers and communications published on those areas. Now he is taking part in the devel- opment and applicability of a new sketch-based modeling interface (see http://www.regeo.uji.es/). He has been involved too in Emotional Design and Collaborative Product Engineering. (https://sites.google.com/a/uji.es/pedrocompany/)Dr. Manuel
Thermal System course is a required course for the seniormechanical engineering students at Lamar University. The course is offered in every fallsemester and consists of 30 lecture periods of 90 minutes each. It is the culminatingcourse for thermal fluid stem where synthesis of junior and senior level classes ispresented with respect to real-world engineering systems such as a coal-fired powerplant. The course covers design process, equipment selection, economic consideration,mathematical modeling, and numerical simulations of energy systems. More detaileddescription of the course was presented in an earlier paper8 by the author. After teachingthe course for four years, the author decided to integrate system thinking, engineeringreasoning, and
couldhave been accounted for in a more thorough Bill of Materials.ConclusionAn open ended desalination design project was created for use in an introductorythermodynamics laboratory on psychrometrics. The project was built from an innovativeconcept that lent itself to thermodynamic analysis and exposed students to the connectionbetween classroom material and real-world applications. Results from the project showthat the process of producing freshwater by evaporating saltwater and condensing thevapor requires greater care than one might initially expect as only 85% of the salt wasremoved. A student survey and subject specific questions on the final showed the projectto be successful in many of its aims with the group aspect and design freedom having
institutions. Total QualityManagement, 4(3), 325-338.[8] Maleyeff, J., & Kaminsky, F. (2002). Six sigma and introductory statistics education. Education Training, 44(2),82-89.[9] Mitra, A. (2004). Six sigma education: a critical role for academia. The TQM Magazine, 16(4), 293-302.[10] Perry, L. (2004). Instructional effectiveness: A real-time feedback approach using statistical process control(spc). Proceedings of the 2004 American society for engineering education annual conference & exposition, Utah,USA.[11] Prasad, K. D., Subbaiah, K. V., & Padmavathi, G. (2012). Application of Six Sigma Methodology in anEngineering Educational Institution. Int. J. Emerg. Sci, 2(2), 222-237.[12] Razaki, K. A., & Aydin, S. (2011). The Feasibility of
access control techniques since the access operation andaccess path are both legitimate user privileges. Therefore, forensics investigation on insideactivities in healthcare enterprise environment, including incident detection and reconstruction iscritically needed31. Current research on inside threat detection and identification7, 16, 18 and eventreconstruction mechanisms4, 29, 31 are limited in real world since they require a comprehensive setof information including social information and explicit dependence knowledge, which are notavailable in an enterprise environment. Hence, a novel mechanisms are critical to identifypotential inside activity and reconstruct the inside activity for tracking.To perform the job allowed for a user’s work role
, and supply and demand are reviewed in orderto emphasize that in the “real-world” engineers have to make business cases for their decisions.A tutorial has been prepared which illustrates the time value of money. Through interaction withIndustrial Engineering colleagues a cost-accounting module is being developed. Students will betaught how to determine the necessary “income” to justify a purchase or change in procedure.This will include calculating depreciation and required steady income for a required presentvalue.Ergonomics and safety are also considered. Again, through interaction with IndustrialEngineering colleagues modules on ergonomics and safety are being developed. This has startedwith a class presentation on relevant OSHA regulations
modestspacecraft. Each satellite has a real-world mission and is designed, built and operated by ourcadets. The program greatly enhances our student engineers’ understanding of satellite designand operation—something most small countries are unable to offer their technical personnel.Like our colleagues in civilian universities, we wanted to offer more of our cadets hands-onexperience, to broaden the program to expose more cadets to satellite operations. So we nowinvite non-technical, non-scientifically inclined cadets to participate in satellite operations bymaintaining our on-orbit scientific payloads. This paper records how USAFA cadets created atraining program to meet that objective and initiated the inaugural running of the program.I. IntroductionThe
).10. Gross, A. "Communicating Science: The Importance of Visuals." Lecture. Clemson University. April 19, (2002).11. Young, A. Rev. of Writing in the Real World: Making the Transition from School to Work, by Anne Beaufort. College Composition and Communication, in press, (2003).Biographical InformationBETH DANIELL, Associate Professor of English, teaches courses in rhetoric, writing, and composition theory. Herbook on specific literate practices within one community will be published in Spring 2003, by Southern IllinoisUniversity Press. She comes from a scholarly tradition that creates knowledge, not with tables and graphs, but withwords.RICHARD FIGLIOLA, Professor of Mechanical Engineering, teaches courses in Fluid Mechanics and
content areas. The mainfoundation the constructivist scenario is built upon states that authentic learning must be student-centered and meaningful and must encourage students to engage in real-world experiences, thusallowing them to go further in their learning and education.III. DesignThe basic structure of the workshop involved sharing information and materials with the teachersduring the morning sessions. This structure builds on known ideas about infusing technologyinto the instructional techniques of teachers, as many educators are experiencing atransformation in the ideology of “best-practices” as they once knew it9. Appendix I highlightsthe schedule developed for the workshop activities.Each morning, the workshop began with a group
instructors'interplay with students, the use of adjuncts that are practicing engineers has been successful.Practicing engineers, particularly some of the younger ones, seem to establish credibility quicklyas "real-world" engineers. 3.5 Course ContentTable 1 shows a topical outline of the course content with lecture and laboratory. The 3-hour lab.periods are subdivided into nominal periods of approximately one hour for scheduling, withmore than one activity planned most weeks to provide variety.4. Projects:- the following projects were required in the Fall semester of 1999. 4.1 Project 1 was a paper project that considered the thermodynamics of the humanbody. The topic was an engaging one for sophomores. Students were asked to develop anenergy
theoretical ideas to a more ‘actual’ real world experience. It contributedgreatly because it allowed greater understanding of physical and tangible concepts compared tojust theoretical”. In addition, the toys definitely generate more discussion between students andbetween students and myself. More and more students will linger after class to have more ‘toy’time or simply stop by during office hours to play with the models. Among the students, thefoam beam, the photo-elastic beam and the shear beam model are the definite favorites forhelping to illustrate ideas. It should be noted, that I only recently developed the combined stresstoy but I anticipate its popularity will rate among the top.I have found that a strong collection of visual aids for a
Session 2525 EXPLORING PERSONAL, HYPER-ACTIONS IN ENGINEERING ETHICS- Having your Cake and Being Able to Eat It To! Francis A. Di Bella, PE (617-373-5240, fdibella@coe.neu.edu) Assistant Professor, Northeastern University School of Engineering TechnologyAbstractThe engineering profession has been able to maintain its reputation for high professionalethics behavior. The infrequent newspaper article that does reveal a shortcoming inprofessional engineering ethics remains news worthy simply because they are rare in theprofessional world. Under
, andMechanical Engineering cross-disciplinary education program in transportation electrification.The design, implementation and utilization of this open-bench HEV drive train laboratory hasbeen described within the ECE curriculum. The Green Mobility Laboratory supports hands-onundergraduate student experiments, faculty demonstrations, independent studies, and graduatestudent research projects in an effort to educate a new generation of engineers possessing theinterdisciplinary knowledge and capabilities to meet the challenges of HEV development.Students achieve a basic understanding of HEV drive train design techniques, control algorithms,and testing methods and an appreciation for the complexity and real world constraints facing thetransportation