contributions to the College of Engineering is summarized in Table1. Table 1 SEC Contribution SummaryAmount Year Purpose$20,000 1998 Equip the College's Student Assistance Center (SAC)$10,000 1998 Support for the Freshman Design Engineering Laboratory$10,000 1999 Multimedia enhancements for a lecture classroom$10,000 1999 Personal Rapid Transit System prototype$12,000 2000 Hands-on kits $8,000 2000 Chairs for the engineering classrooms $3,500 2001 Student Assistance Center computers$15,000 2001 Hands-on kits (McGyver box) $1,500 2001 Classroom display$46,000 2002 Technology
are writing intensive and have the technicalwriting course as a prerequisite. Even more of a problem, many Penn State engineering studentswork in internships and co-op experiences without having taken the technical writing course,even though the companies expect those students to write. Worse yet, in those internships, ourstudents are evaluated alongside engineering interns who have had the experience of a technicalwriting course. To address this situation, the Mechanical Engineering Department at Penn State haspiloted an engineering writing course that connects to its required junior-level design course,which is writing intensive. What distinguishes this engineering writing course from traditionaltechnical writing courses is that the
LaboratoryAbstractPresently there is a need to develop more effective ways to integrate experimental design into theengineering curriculum. To address this need, we are developing virtual laboratories that providestudents a capstone experience in which they can apply experimental design in a context similarto that of a practicing engineer in industry. In a virtual laboratory, simulations based onmathematical models implemented on a computer are used to replace the physical laboratory.However, as opposed to being constructed as a direct one-to-one replacement, the virtuallaboratory is intended to complement the physical laboratories in the curriculum so that certainspecific elements of the experimental design process are addressed. We have previously reportedon the
experience with either topic area.Dependent Variables and NASA TLX AssessmentThe evaluated dependent variables were the Overall Quiz Score, Conceptual Quiz Score,Analytical Quiz Score, NASA-TLX overall score, and each of the NASA-TLX five aspects ofperformance. The quiz consisted of 20 questions that tested students’ knowledge of single andmulti-queuing theory. Fifteen questions were designed to test the student’s conceptual knowledgeand five questions were designed to test their analytical knowledge of a special case of batchqueuing, which was discussed in the virtual teaching module. The scores were calculated based oncorrectly answered percentage ratios for each quiz score type (See Appendix A). The perceivedworkload of the quiz was evaluated
. Sample vulnerable programs and attack payloads are provided to try out on the system.To demonstrate a defense against such attacks, we have also built hardware-based solutions andcreated a ‘secure’ version of the system. The students can run the same attack code on both theunprotected and protected versions of the systems and observe the behavior. The students canalso write their own code and try to attack them on the system.Learning Aim: The aim of this module is to let the students experiment with different types ofsystem security attacks and build defenses around them. The open-source Rocket-Chip platformhelps students design configure and customize the SoC code with ease. The provided toolchainand compilers help the students compile their
boundary layer theory courses. Specific learning objectives associatedwith this type of laboratory experience include the following: 1. Introduce students to practical optical fluid flow visualization techniques. 2. Develop understanding of engineering fluid mechanics principles associated with wind tunnel smoke rake design. 3. Develop experimental understanding of laminar and turbulent jet flows associated with smoke injection into airstream. 4. Introduce students to streamline flow for ideal (inviscid) converging and diverging ducts. 5. Develop understanding of engineering fluid mechanics principles associated with boundary layer separation for sharp-edged converging duct (nozzle). 6. Develop understanding of
& Exposition, 2008.7. Koretsky, M., Kelly, C., “Enhancement Of Student Learning In Experimental Design Using Virtual Laboratories”, 2010 ASEE Annual Conference & Exposition, 2010.8. Huettel, L., “Integration Of A DSP Hardware Based Laboratory Into An Introductory Signals And Systems Course”, 2006 ASEE Annual Conference & Exposition, 2006.9. Rock, M. et al, “Effectively Utilizing Local Andremote Thermofluids Laboratory Experiments Toenhance Student Learning.”, 2011 ASEE Annual Conference & Exposition, 2011.10. Knight, C. D. & DeWeerth, S. P. , “A shared remote testing environment for engineering education”, Proceedings of the ASEE 1996 Annual Frontiers in Education Conference, Session
not the only way, to do this.2. Overview of the ExperimentsDuring the period of fall semester 2016 through fall semester 2018, the authors conducted aseries of experiments involving multiple sections of a course in Mechanics of Materials. Theseexperiments are summarized in Table 1.For each academic year during the period fall semester 2016 through spring semester 2018, twosections of the course used a modified assessment approach (model), while the remaining section(the control) used an assessment approach that mirrors the current standard. Briefly, the standardcourse design used by Instructor X employed graded homework, two midterm exams, and theuse of partial credit based on “correct approach” in the grading of every assignment
2006-1596: AN EXPERIMENT BASED STRUCTURAL DYNAMICS COURSE FORENGINEERING TECHNOLOGY STUDENTSJorge Tito-Izquierdo, University of Houston-Downtown Jorge Tito-Izquierdo is Visiting Associate Professor of Engineering Technology. Dr. Tito-Izquierdo received his Ph.D. and M. Sc. Degrees from the University of Puerto Rico, Mayagüez, Puerto Rico, in Civil Engineering with a major in Structures. He received the Civil Engineer Degree from the Pontifical Catholic University of Peru. Dr. Tito has experience in teaching structural design, and construction management, and is a Registered Professional Engineer.Alberto Gomez-Rivas, University of Houston-Downtown Alberto Gomez-Rivas is Professor
(Grant No. 9850673), an environmentallaboratory based on collaborative and active learning was incorporated into the civil engineeringcurriculum. The laboratory was designed to provide undergraduate engineering studentspractical, hands on experience with topics and concepts typically not covered in undergraduateenvironmental laboratories. Students work in teams for the entire semester on a “real”environmental problem posed by either a water utility, municipality, or consulting firm. Thisapproach stresses the practical aspects of project engineering that students are likely to encounteron the job. In contrast, most environmental engineering laboratory exercises follow a simpleone-two-three approach that neither stimulates critical thinking nor
Experimentation (ME310) and EngineeringExperimentation (ME311). Engineering Experimentation is an advanced laboratory coursewith the specific goal to enhance the students’ abilities in experimental design and analysis topartially satisfy the ABET’s learning outcome. Experimental design relies on principles ofcombinatorial mathematics such as combination, permutation, factorial, blocking, Latin square,etc. The analysis of experiments uses theories from statistics such as hypothesis, t-test, ANOVA,etc.It is often hard for the students to manually design experimental layouts if they do not havesufficient combinatorial mathematics background. The theories of statistical analysis arerelatively easy for students to grasp, but the calculations can be
realworld problem solving in the undergraduate curriculum and the ability to promote criticalthinking, teamwork, interpersonal skills, analytical, problem solving and communication skills.Therefore, this course matches these desired technical abilities to the idea of being able tointerpret the calculated material properties and effectively use this data to propose a specificmaterial for a bioengineering application. Considering that this is the first engineering laboratoryin the curriculum, several authors5,6 have emphasized that these „first‟ laboratory experiencesmust generate enthusiasm, moving away from the traditional laboratory designed as „foodrecipe‟. The idea of an „open ended hypothesis‟ laboratory experience can allow the student
companion laboratory manual with many experiments for analog anddigital communication systems. For ELEC 462 and ELEC 464 it was necessary to adapt these toour curriculum and course objectives. We have currently written four laboratories for ELEC462 and five laboratories for ELEC 464. In the case of ELEC 304 and ELEC 3052 it wasnecessary to develop completely new laboratories. We have currently written five laboratoriesfor ELEC 304 and four laboratories for ELEC 305. All of these laboratories will be available fordownload at the ISSL web site by the time of the publication.Laboratory Impact on Students: Qualitative DataIn the course of designing the TIMS based Integrated Signals and Systems Laboratory two basichypotheses were posed: 1. A positive
Society for Engineering Education, 2015 Impact of Narrative, Character Creation, and Game Mechanics on Student Engagement in a Game-Based Chemical Engineering Laboratory Course1. IntroductionAs modern students have come of age in a time where video games, whether mobile, console, orsocial, have become ubiquitous, game-based learning (GBL) is gaining increased attention as atool used in education1-5. In GBL, games are used as environments and contexts where studentscan learn via trial-and-error with no permanent consequences6-8. Note that GBL is not merelyfree-form activity, but one with rules that guide and dictate the experience, as well as offering acondition in which the game can be “won”9,10.One
academic environment to improve courses and to evaluatefaculty performance is a mainstay at most universities. For tenure track faculty in particular, theymust recognize and perhaps wrestle with the notion that a student’s evaluation of their coursesand teaching performance will be an important consideration in their path to tenure at theacademy, as represented by the teaching-service-professional development triad. Unfortunately,the majority of new doctoral faculty entering engineering bachelor degree academic programshave scant experience in the classroom beyond a graduate school Teaching Assistantship, whichtypically lasts only a few semesters as doctoral candidates bide their time in anticipation of beingoffered a Research Assistantship for
Page 17.29.37 CURRICULUM , PEDAGOGY AND LABORATORY INNOVATIONSThe recent initiatives in several countries in Asia tojoin the Washington Accord have stimulated interest inOutcomes-Based Teaching-Learning (OBTL), whichinvolves the articulation of Program Objectives andProgram Outcomes. In addition, Bloom‟s Taxonomy and HowardGardner‟s Theory of Multiple Intelligences have beenresponsible for Curriculum and Pedagogy Innovations. There are also significant changes in the objectivesand design of Laboratory Instruction and Practices –more of open-ended exercises 37 Page 17.29.38 WIPRO MISSION 10X AND ULTP
as a research assistant, designing experiments based on educating students on green engineering and sustainabilty. Page 26.827.1 c American Society for Engineering Education, 2015 Green Chocolate? – Investigating the Sustainable Development of Chocolate Manufacturing in a Laboratory-Based Undergraduate Engineering CourseAbstractAn undergraduate, interdisciplinary engineering project was designed to introduce students toconcepts of food engineering, specifically, chocolate manufacturing, and to how this area canbenefit from studies in sustainability, sustainable development, and social
Paper ID #12940The Effectiveness of In-Class, Hands-On Learning vs. Lecture for TeachingAbout Shell and Tube Heat ExchangersDr. Paul B Golter, Washington State University Paul B. Golter obtained an MS and PhD Washington State University and made the switch from Instruc- tional Laboratory Supervisor to Post-Doctoral Research Associate on an engineering education project. His research area has been engineering education, specifically around the development and assessment of technologies to bring fluid mechanics and heat transfer laboratory experiences into the classroom.Prof. Bernard J. Van Wie, Washington State University
AC 2010-2182: LABORATORY EXPERIMENTS IN THERMAL ANALYSIS OFPOLYMERS FOR A SENIOR/GRADUATE LEVEL MATERIALS SCIENCECOURSEMichael Kessler, Iowa State University Michael Kessler is an Assistant Professor of Materials Science and Engineering at Iowa State University. His research interests include the mechanics and processing of polymers and polymer matrix composites, thermal analysis, fracture mechanics, and biologically inspired materials.Prashanth Badrinarayanan, Iowa State University Prashanth Badrinarayanan is a Postdoctoral Research Associate in the Department of Materials Science and Engineering at Iowa State University. His research interests include development and characterization of
and reused. 4 Use common parts that are easy to obtain. 5 Average cost of 5-10 dollars per project. 6 No special tools required. 7 No special type of laboratory space or facilities needed. 8 Robust, durable designs. 9 Clear unmistakable indication of proper operation. 10 Any engineering faculty member can teach. 11 Potential of all materials arriving in a box of 20-50 pounds. 12 Require 1 to 3 hours to complete.Laboratory Projects under DevelopmentBook lightThe basic series electrical circuit is an important concept that should be understood as part of thetechnological literacy of non-engineers. In addition, it should not be assumed that beginningengineering students fully grasp the idea of a complete
by mitigating this mechanism.A team of engineering students studied thrust and acoustic emission of two traditional and fourtoroidal five-inch diameter propellers. The team of students used 3D models of the propellers inComputational Fluid Dynamics (CFD) to compare with real-world experimental laboratory data.Students have tested 3D-printed and off-the-shelf propellers to compare their performance.Students have used Ansys Fluent simulations and the Tyto Robotics Dynamometer Series 1585Propeller Thrust Stand and RC benchmark software to compare propeller designs. The studentsalso designed, built, and tested a safety cage that enclosed the spinning propeller, electric motor,and test stand assembly.The purpose of this project was to develop a
. Page 22.428.1 c American Society for Engineering Education, 2011 Design Aspects of a Database for Remote Laboratory ManagementAbstract This paper describes the design of a database which is used to manage the remote laboratoryRLAB. RLAB allows users from all over the world to access a set of real world physical models,to perform experiments by interactively working with them in a realtime environment, and todownload the resulting data to their own computer system for further processing. The onlyrequirement for the user's computer is an internet browser. RLAB was originally developed at Cologne University of Applied Sciences (CUAS) inGermany; it uses NI LabVIEW to perform the interfacing to the real world
. Also described are the merits and impact of these reference designs to our students intheir engineering education. These reference designs promote hands-on experience. They can beeasily adopted into laboratory and experimental courses. They are suitable for engineeringcurricula that emphasize on hands-on experience.I. IntroductionThis paper describes a collection of practical reference designs for adoption into microcontroller-based class projects. These reference designs are applicable to our microcontroller applications Page 22.1230.2and capstone design courses. All these courses are at the senior level. The microcontroller unit(MCU) in these
. Theeducational benefit of this undertaking has double significance. Students of the Capstone course design experimentsand construct relevant setups, with the guidance of the instructor of the targeted course. This scheme works best if theinstructor of the targeted course also serves as a project advisor in the Capstone course. Upon formation of a coherentlaboratory for the targeted course, following a thematic approach, future students of that course will use the laboratoryfacility to enhance their understanding of concepts with “hands on” experiences. Over the years, a number of Capstonegroups have been tasked with creating experiments for the laboratory of the Internal Combustion Engines course atNortheastern University. The resulting constructs are
Method of Assessment to Examine Experimental Design in Mechanical Engineering LaboratoriesStudents in the mechanical specialization at Mercer University are currently required to take twogeneral mechanical engineering laboratory courses—one in the third year of the curriculum andthe other in the fourth year. The first of these courses begins with seven or eight single periodlaboratories in which the students are directed to complete a well-defined set of procedures andperform simple analyses. In an effort to more formally introduce experimental design into thelaboratory experience, this course ends with a three project sequence in which students areprovided with an experimental objective (e.g., determine the coefficient of
great importancefor students across a wide array of disciplines, including civil, mechanical, and aerospaceengineering, among others [5]. This field is dedicated to analyzing bodies that are either at rest orin a state of equilibrium, where the net forces and moments are balanced. The pedagogicalapproach to teaching statics commonly encompasses both lectures and laboratory sessions,providing a comprehensive learning experience. Typically introduced at the sophomore level orfirst year engineering projects, this course builds upon the foundational knowledge acquired inintroductory engineering courses i.e. CAD. At this stage, most students may not have delved intomechanical design. However, towards the conclusion of the statics course, an
Session 1566 INVOLVING UNDERGRADUATE ENGINEERING STUDENTS IN DESIGN OF AN AFFORDABLE MODEL LABORATORY Bijan Sepahpour The College of New Jersey Department of Engineering Ewing, New Jersey 08628-0718 Tel. 609.771.3463 Sepahpou@tcnj.eduABSTRACTA promising model for involving undergraduate engineering students in design of experiments andfabrication of their associated apparatuses is proposed. It is a proven fact that students learn
Session 3280 Implementing a Satellite Design Experience Scott A. Starks, Michael E. Austin, Reza Torkzadeh and Bryan Usevitch University of Texas at El PasoIntroductionThis paper describes the planning effort behind the implementation of a satellite designexperience for students. This effort has been conducted by faculty at the University ofTexas at El Paso (UTEP) working in cooperation with counterparts at California StateUniversity, Los Angeles and North Carolina A&T State University and scientific andtechnical staff from the Jet Propulsion Laboratory. To date
experiments, the interpretation of experimental data, and gainingfamiliarity with process equipment, make a design task a natural extension. Examples of howthese data can be utilized are (i) to determine if the equipment can accomplish a differenttask; (ii) to design a larger piece of equipment; or (iii) to develop a model which is then usedfor large-scale design.At Ohio University we have instituted a design objective that each laboratory experiment iscentered around. The design objective forces students to consider what data they need tocollect, and analysis they need to employ. Examples for four experiments are presented here todemonstrate how the different aspects of design can be incorporated. Student response to thisapproach has been generally
course in computerorganization and proficiency with a high level imperative programming language.The planned laboratory modules expose the student to the process of designing a biomedicalwireless data collection system where they are required to apply concepts from several areas. Ateam of instructors from CS, ECE and BME backgrounds will provide the foundation of basicconcepts required and then the student teams will collaborate to the final design. The approachattempts to exemplify the type of work that could take place in a real application.IntroductionThe University of Texas at El Paso offers bachelor programs in Electrical Engineering and inComputer Science. In recent years the College of Engineering began the process of creating