Page 26.455.2 • Integrated Services Construction ManagementEach of the project-based courses was based on a model of six (6) quarter-hours of laboratorycredit total of sixteen (16) scheduled contact hours per week and an additional two (2) hours perweek to be arranged for by the instructor. Based on a ten (10) week quarter system, studentswould receive a total of one-hundred eighty (180) hours of instruction. Similar to coursesoffered through an architecture program, their concept was teach each course in a dedicatedspace equipped with models, samples, contracts, marketing documents, specifications, estimatingguides, computer references, and other tools appropriate to that construction industry sector. Inaddition, the laboratory would be
thinking (e.g. analysis, synthesis, evaluation) in teams while building a culture gearedtoward energy technology innovation. The students were introduced to concepts from traditionalengineering curricula such as thermodynamics, fluid mechanics and dynamics, while workingwith principles of renewable and non-renewable energy technologies used in industry, such asthe photovoltaic effect. The students were given a pre-test and post-test to evaluate the success ofEnergy Week in developing their awareness and understanding of energy and engineering,measure their level of engagement with the activities, and evaluate their attitudes towards teamwork. This presentation will cover the energy curriculum, hands-on energy laboratories, designand fabrication
26.892.1 c American Society for Engineering Education, 2015 Impact of Upgrading Equipment for Strength of Materials Labs on Student Perceptions, Motivation, and LearningAbstractAn important component of teaching introductory Strength of Materials (Mechanics ofMaterials) concepts to undergraduate engineering and technology students is the inclusion oflaboratory experiments, which give the students the opportunity to conduct tests and collect dataon the materials to obtain relevant properties. These laboratory experiments also allow studentsto observe firsthand the behavior of materials under different loading conditions, thereby givingthem a greater physical feel for these different behaviors. The
concerning the atomicmechanisms of plastic deformation within the context of a laboratory exercise. Sophomorematerials engineering students performed, analyzed, and compared results from both a traditionaltensile test of metals and a molecular dynamics simulation tensile test of a nanowire. The latterwas performed using the Nano-Materials Simulation Toolkit on nanoHUB.org. Students’responses to in-lab worksheet questions, their written lab reports, and their responses to a relatedexam question were qualitatively analyzed. Recommendations are made for better integration ofthe simulation and traditional tensile test components of the lab.IntroductionThe atomic mechanism of plastic deformation of metals is a difficult concept1,2. Studentsstruggle to
supplements an individual course lecture series withhands-on laboratory exercises. These laboratory exercises tend to deal solely with the materialbeing addressed in the lectures for the particular course. Consequently, not only are theselaboratories limited to one Civil Engineering sub-discipline but also limited to the material beingtaught in the specific course. The Civil Engineering Department at our Institute developed andimplemented a Design Studio Lab (DSL) for use in the 2014-2015 school year. This experientialstudio linked several of the Civil Engineering sub-disciplines in a series of two-two hourstudios/labs and one lecture per week (three credits). Four Civil Engineering sub-disciplinesparticipated in this experiential studio with the
culminating in the collaborative design and fabrication ofan autonomous vehicle. Students were provided a realistic design scenario early in the course,with subsequent lecture and laboratory activities tying directly to the proposed problem.Following the submission of student design work, and demonstration of their mechatronicdevices, student learning outcomes were assessed both indirectly and directly. Indirectassessment implied both the course content and collaborative design project contributed tostudent learning. Direct assessment of student designs showed improvement from previoussemesters.IntroductionLawrence Technological University (Lawrence Tech) is engaged in a seven-year process toincorporate active and collaborative learning (ACL) and
inharm to employees, the environment and in some cases the public in highly publicized eventssuch as Bhopal and Deepwater Horizons. Risks are tolerated when hazards are controlled; whenan incident occurs, the risk becomes intolerable. The public reacts negatively to events involvingemployee deaths, environmental damage or threats to their homes.Incidents often result in negative publicity and a call for change. For example, a runawayreaction led to an explosion at a company called T2 Laboratories in Jacksonville, FL inDecember 2007.3 The blast killed four people. Another thirty two people were injured; fourteenrequired treatment at a local hospital. In response, the U.S. Chemical Safety and HazardInvestigation Board (CSB) called for improvements
Paper ID #12737Towards an Intuitive and Remotely Accessible Control System for Commer-cial NanomanipulatorsMr. Ryan Michael Dunn, Rochester Institute of Technology Ryan M. Dunn is a graduate student at the Rochester Institute of Technology. His research interests include micro- and nanomanipulator control systems and interdisciplinary control development. He holds a B.S. in mechanical engineering from the Rochester Institute of Technology.Dr. Michael G. Schrlau, Rochester Institute of Technology Dr. Schrlau joined the Department of Mechanical Engineering at RIT in 2011 and directs the Nano-Bio Interface Laboratory (NBIL
the impacts of poorstormwater quality and potential combined sewer overflows on receiving water bodies,constructing treatment wetlands is a growing practice. Treatment wetlands provide a sustainableapproach of onsite stormwater and wastewater treatment by improving the quality of stormwaterrunoff that enters receiving water bodies and by reducing loads on centralized treatment plants.To provide students with a hands-on experience of applying this treatment technique, twoundergraduate students, under the direction of their advising professor, constructed a treatmentwetland in the Cook Laboratory on the Rose-Hulman Institute of Technology (RHIT) campus.After researching constructed treatment wetlands and identifying our design requirements
DSP techniques. For instance, the “SIRI”function in iphone 4 uses DSP-based speech recognition algorithms. High quality headphonesemploys DSP-based noise cancelation techniques as well.DSP has become an integral part of Electronic Engineering Technology (EET) and ElectricalEngineering curricula at higher institutions worldwide. To fulfill a successful DSP curriculum, itis critical to complement lectures with well-designed hands-on laboratory exercises. It has beenwidely acknowledged that hands-on experiences improve teaching and learning efficiency andreinforce students’ comprehension of abstract topics1,2,3,4. Page 26.1307.2Motivations and
Architectural Engineering at the California Polytech- nic State University, San Luis Obispo (Cal Poly) where he teaches courses on the analysis and design of structural systems including laboratory courses.Dr. Graham C. Archer P.Eng, California Polytechnic State University Dr. Graham Archer, P.Eng., is a Professor of Architectural Engineering at the California Polytechnic State University, San Luis Obispo (Cal Poly) where he teaches courses on the analysis and design of structural systems.Dr. Cole C McDaniel, California Polytechnic State University Dr. Cole McDaniel, P.E., is a Professor of Architectural Engineering at the California Polytechnic State University, San Luis Obispo (Cal Poly) where he teaches courses on the
instruction and twohours of laboratory per week. This paper presents the design of the course, including anassessment-based approach for selection and rotation of supplemental instruction work groups,explores results of the pre- and post-assessments for two semesters of Engineering Physics I, andpresents implications for this course as well as for interfaces with subsequent courses inengineering curricula.IntroductionEngineering programs in the School of Engineering at Southern Illinois University Edwardsvillerequire two semesters of University Physics, a calculus-based sequence with associated labs.These courses are taught in the Department of Physics and require a pre-requisite of Calculus Iwith a grade of C or better and a co-requisite of Calculus
been instrumental in acquiring, through various grants, computers, and software for the physics laboratory at FVSU. Some of his funded grant proposals are as follows: 1) Establishing a Nuclear Science and Engineering Minor at Fort Valley State University 2) Establishing an Undergraduate STEM Teaching and Research Laboratory at FVSU 3)Establishing an Interdisciplinary Bioinformatics Laboratory at Fort Valley State University 3) Computer-based Instrumentation Laboratory for Undergraduate Science and Mathematics Programs at the Department of Mathematics and Computer Science Fort Valley State University. 4) Developing an Undergraduate Minor in Computer-based Mea- surement and Instrumentation at Fort Valley State
2 Function calls and arrays in embedded C with interfacing a liquid crystal display (LCD) module 8 2 PIC18 features and analog-to-digital (A/D) conversions 9 Course Review - Midterm Exam 10-12 6 Timer programming and interrupt programming 13-14 4 Capture-compare-PWM programming 15 Course Review - Final ExamTable 3 shows the laboratory projects in the laboratory exercise sections, where the content oflaboratory project #3 is included in Appendix A. For the laboratory exercises, MPLAB Integrat-ed Development Environment (IDE)8 as shown in Figure 1 is used to program the source code in
engineering education argue that educational programs focus too muchon the transmittal of information through static lecture-discussion formats and routine use ofoutdated laboratory exercises. On the other hand, active learning, learning that involves hands-onexperience, significantly improves student comprehension and proficiency. It is clear thatunderstanding and retention are greatly enhanced when students engage in active learning.While theoretical knowledge remains a fundamental component of any comprehension process,the underpinnings of proficiency development seem to increase best through active learningpractices. What remains less clear is the “gold standard” for pedagogical approaches thatcombine theory and hands-on learning.In this article
last part of the day, students participated in healthy lifestylesactivities. The objectives of the program were accomplished through many features such asprescribed hands-on experiments and activities, facility tours, library visits, computer lab time,design and prototyping an invention, and project presentations. Table 2 provides an overview ofthe week’s activities. Each aspect of the program is described in detail in the following section.Prescribed Hands-On ExperimentsStudents spent half of their day conducting laboratory experiments. These laboratory activitiesfocused on raising students’ awareness of the diverse types of engineering and providinginstruction on related STEM concepts. The experiments consisted of 1. Extracting DNA
discussed.BackgroundKettering University has for many years offered two primary courses in the area of DynamicSystems and Controls. MECH330, Dynamic Systems with Vibrations, was taught as a fourlecture hour course with no lab component. MECH430, Dynamic Systems with Controls, wastaught as a four lecture hour course with two hours of laboratory. In truth, the two hours of labwere often used to provide additional hours of lecture material.Ongoing course assessment indicated that neither course was fulfilling all of its planned learningoutcomes. MECH330 had an outcome which required that students would learn how to modelphysical systems using Matlab/Simulink software, yet few students gained any measurableproficiency due to lack of laboratory time devoted to that
from the National Science Foundation Advanced Technological Education (NSFATE) program. The program is now completing its second year and graduating a first group ofwell-prepared photonics technicians ready for employment in the growing photonics industry inthe state and across the US. The second year marked the successful completion of the programcurriculum and further development of the Optics and Photonics Laboratory. Outreach activitiesincluded summer programs for high school and middle school students. The paper describes theoutcomes of the two year project in relation to the objectives of the NSF ATE grant. Challengesand lessons learned along the way are discussed, together with plans for sustainability and futureexpansion of the
given rapid growth in first-year and transfer enrollments. Before the restructuring, the first-year program consisted of two, 2 credit courses calledIntroduction to Engineering I and Introduction to Engineering II. Introduction to Engineeringcourses were run out of the College of Engineering but were staffed with faculty and TeachingAssistants from the individual departments. Introduction to Engineering I was taken by all students independent of engineering major,usually in the first semester on campus, and therefore had a fall term enrolment approaching 600plus students and approximately 100 students in the second semester, mostly transfer students.The first course was run in the form of 2 lectures and 2 hours of laboratory per
non-technical lectures have been provided bysubject matter experts. This course has been revised in the past and additional web-baseddelivery modules have been added2-3. In course lectures and laboratory practices, guest lectures,and course projects, special emphasis has been given to critical thinking, real-world problemsolving, teamwork, and service to the community and profession. Biweekly organized team timemeetings have provided an ideal opportunity for students to question the problems and issuesthey face in the lectures, laboratories, and team projects.Lecture and Laboratory SectionsDuring the semester, weekly technical lecture and laboratory practices have been provided on theconventional CNC topics. They are 1) Introduction to
introductory-level laboratoryexperiment focused on the analysis of switching-mode DC-DC converters. This experimentwould take place in an analog electronics course as a laboratory component for juniorundergraduate electrical and computer engineering students.Switching mode power supplies have been used in industries and consumer electronics for manydecades. Recently, they have become pervasive in our daily life as many smartphones, portablecomputing devices, and renewable energy systems are using switching mode power converters.Due to the wide acceptance of this technology, a lab component has been added in an analogelectronics course to introduce switching-mode DC-DC conversion.The approach taken is to integrate students’ knowledge and experiences
overly fashioned examples2, 5, 6. Hands-on laboratories that feature realmeasurements could allow students to probe the dynamics of realistic systems, therebystrengthening their conceptual understanding2, 7, 8. However, the prohibitive cost of equipmentand shortage of laboratory space limits these options.Our project aims to overcome these challenges by utilizing a new, highly portable andinexpensive technology, which we call interactive-Newton (i-Newton). The i-Newton can engagestudents in the experiential learning of dynamics outside the confines of the traditional lecture-based teaching methods.The objectives of the project we describe in this paper are to: 1. Investigate whether i-Newton has an effect on students’ conceptual
Faculty Development and International Collaborations Using Vertical Education Enhancement Model Stephen U. Egarievwe1,2 and Ralph B. James2 1 College of Engineering, Technology and Physical Sciences, Alabama A&M University, Normal, AL 35762, USA2 Nonproliferation and National Security Department, Brookhaven National Laboratory, Upton, NY 11973, USAAbstractThis paper presents the international collaboration and experiences of an effective facultydevelopment initiative based on a vertical education enhancement (VEE) model. The VEEfaculty development program was designed to effectively improve performance and moralthrough
others.The financial barrier of building a laboratory for this discipline is prohibitive for mostinstitutions. It can range from hundreds of thousands of dollars for a modest teaching lab toseveral million dollars for a teaching cleanroom. The Electrical Engineering Technology (EET)department at Erie Community College was able to procure the grant funding to build such alaboratory. A Scanning Electron Microscope (SEM) and sputter coater were acquired to begininfusing nanotechnology into the EET curriculum. The next step involved building asemiconductor fabrication course utilizing industry-standard equipment for top-down fabricationof nanoscale devices and the characterization equipment required to measure them. Both stepswere funded though Carl
the Bernoulli Balance to model fluid systems.Keywordsventuri meter, Bernoulli balances, laboratory experiments, fluid mechanicsIntroductionLaboratory practice, where students design and conduct experiments in support of classroomactivities, is an essential part of the educational process. It has been shown that a majority ofengineering students learn best when exposed to hands-on exercises and activities.1 A variety ofnovel techniques have been described in the literature for delivering lab content to the studentsincluding the use of the Kolb’s experiential learning cycle in conjunction with a virtuallaboratory,2 combining LEGO® Dacta building blocks with LabVIEW™ software3 and the useof hands-on demonstrations in place of full-scale lab
Paper ID #13662A Grand Challenge-based Framework for Contextual Learning in Engineer-ing: Impact on Student Outcomes and MotivationDr. Lisa Huettel, Duke University Dr. Lisa G. Huettel is a professor of the practice in the Department of Electrical and Computer Engineer- ing at Duke University where she also serves as associate chair and Director of Undergraduate Studies for the department. She received a B.S. in Engineering Science from Harvard University and earned her M.S. and Ph.D. in Electrical Engineering from Duke University. Her research interests are focused on engineering education, curriculum and laboratory
Paper ID #11218PROGRAMMING A SIX AXIS MOTOMAN HP3C ROBOT FOR INDUS-TRIAL SORTING APPLICATIONMr. Hamza Kadir, Purdue University Calumet (College of Technology) Alumni Hamza Kadir, M.Sc., currently works as a Controls Engineer in the Packaging Machinery OEM indus- try. He completed his Masters from Purdue University Calumet, majoring in Mechatronics Engineering Technology. He conducted his M.Sc. Directed Project at the Nick and Nancy Wilson Mechatronics En- gineering Technology Laboratory. This project involves integration of modern automation tools for an intelligent part sorting system. He has previously worked with use of
, SouthAfrica.25 Hines and Lethbridge26 also presented a report on development and creation of a leanuniversity.Besides the applicability of lean principles at universities, there have been studies onimplementing lean in the classroom and laboratories. Tatikonda 2 reported that by applying leanprinciples, it is possible to refine the course content to enhance student understanding. Heapplied the lean tools to design, teach, and assess accounting courses that helped students gain abetter knowledge and skills required by the employers. In addition, the applicability of leanmanufacturing to university laboratories was investigated by Sreedharan and Liou.27 It has beenreported that students working on lean projects and following lean in laboratories
ofassessments, on laboratory experiments and written/demonstration examinations. To enablestudents to be self-directed, the documentation must be thoroughly organized. Each of the one-credit courses is broken down into several modules, called units. Each unit represents a majortopic area. The unit consists of a study guide, worksheets, laboratory experiments, handouts ontheory not covered in the book, etc. The study guide is an assignment sheet that is a list oflearning activities to be performed in sequential order. These activities include: Read particular pages in the textbook. View videos (that take the place of live lectures) Ask the instructor for a demonstration or an introduction to the laboratory equipment. Fill out
students, 68 full-timefaculty, and over 100,000sf of laboratory space. The School has undergraduate programs inChemical Engineering, Civil and Environmental Engineering, Computer Engineering, ElectricalEngineering, Mechanical and Aerospace Engineering, Engineering Technology (electronic &Computer, Global Manufacturing Systems, Industrial, and Mechanical), and graduateengineering programs in Aerospace, Chemical, Civil, Electrical, Materials, and MechanicalEngineering as well as graduate programs in Electro-Optics, Engineering Management, andManagement Science.The University of Dayton China InstituteThe University of Dayton China Institute was established in August, 2012 in Suzhou, China.During the first several months, UDCI worked to design