RESEARCH FACILITIESDEVELOPMENT ANDMANAGEMENTJOHN P. COULTERSENIOR ASSOCIATE DEAN FOR RESEARCHP.C. ROSSIN COLLEGE OF ENGINEERING AND APPLIED SCIENCELEHIGH UNIVERSITY, BETHLEHEM, PA 18015, U.S.A.• Faculty Search Process: 2015-1016• Faculty Start Date: August, 2016 Research: Material Substrate Development and Growth• Laboratory Location Identification: Sept 2016 – Feb 2017• Initial Laboratory Design: March – June 2017• Detailed Laboratory Design and Refinement: July – September, 2017 Physical Renovation Started: October 2017 Promised Finish Date: June 2018 Cost: $990,000 (including contingency)• June 2018 “We’re
laboratory, or all laboratory. For two years the course was organized with twodifferent modalities of instruction. One was the lecture/laboratory and the other the all laboratorystructure. At the end of the semester an in-depth questionnaire with quantitative ratings wasgiven to the students to determine if there were differences in learning preferences. Contingencytables were used to compare responses. There were several statistically significant differences instudent responses favoring the all laboratory structure. Several of them are: the students aremuch more comfortable with computers at the end of the semester; either laboratory or workingby oneself were the preferred settings for learning; and lecture was not a preferred setting forlearning
Design, Building and Teaching with a Hydrostatic and Buoyancy Apparatus Mir M. Atiqullah and Norman Russell Southern Polytechnic State University Marietta, GA.ABSTRACT A typical Fluid Mechanics laboratory includes various laboratory equipment andinstruments to cover standard topics. However laboratories may not include a hydrostaticdevice, assuming it is so straight forward that it does not warrant a laboratory instrument or alaboratory exercise. As part of the senior design class a group of students wanted to design andbuild a Fluid Statics device that will clearly verify the static force and
activities. Table 1shows various topics and their corresponding laboratory activities. The hydraulic laboratoryactivities are already completed and available; however, the pneumatic laboratory activitiesare in the process of development. Table below shows the outline of a typical Fluid PowerCourse. Table 1. The contents of fluid power. Lecture Lab Principles and Laws No lab Pumps Labs 1 - 4 Cylinders Labs 6, 7, 9, and 10Hydraulics Valves Motors Labs 5 and 8
Paper ID #37885Enhancing Undergraduate Materials Science Labs for Experiential LearningMr. Mackinley Love, University of Calgary Mackinley Love is a Master of Science candidate at the University of Calgary in the Department of Mechanical and Manufacturing Engineering. He completed his Bachelor of Applied Science in the same department in 2021. His thesis topic and interests lie in the investigation of educational scholarship and its links with undergraduate engineering laboratories. He is also the president of the Engineering Education Scholarship Society (E2S2) for 2022-2023, the graduate student club that promotes
AC 2011-1915: ALTERNATIVE LAB REPORTS - ENGINEERING EFFEC-TIVE COMMUNICATIONDaniel Lepek, The Cooper Union Daniel Lepek is an Assistant Professor of Chemical Engineering at The Cooper Union for the Advance- ment of Science and Art. He received his Ph.D. from New Jersey Institute of Technology and B.E. from The Cooper Union. Since joining The Cooper Union in 2009, he has taught more than half the courses in the chemical engineering curriculum. Currently, he teaches the undergraduate laboratory course se- quence and the graduate transport phenomena sequence. Recently, he has developed and introduced new elective courses on particle technology and pharmaceutical engineering. His research interests include particle
reduce the number of problems that can appearduring laboratory sessions. The students are exposed to digital circuit design using discrete 74xx seriescomponents during the first four weeks of the semester. For the rest of the semester, all designs aretargeted at FPGA. The use of 74xx series components has been kept in the laboratory for two reasons.First, a 74xx series component might be all that is needed for a simple design. Second, the concept ofputting together a design utilizing multiple components (system-level design) can be introduced.Potentially, this encourages the students to optimize their designs so that wiring the digital circuit iseasier.Our findings through this introduction have all been positive. Students are eager to learn the
Promoting quality STEM Education in the time of Social Distancing (Other)AbstractThe pandemic produced by COVID-19 has forced a radical change in the strategies andmethodologies used to share and transmit knowledge. With the closure of the Schools /Universities, the educational process has been radically transformed from one day to the next.STEM education is based on collaborative work, inquiry, experimentation, problem-solving, andproject generation. This type of education encounters many obstacles in the present situation:students do not have access to laboratories, materials, and other essential supplies to implementan educational process of quality.The Institution has developed alternative ways to promote quality STEM education for
c American Society for Engineering Education, 2014Affordable Lab Kit for Controls Education Page 24.143.2 Affordable Lab Kit for Controls EducationThis research developed a modular, portable, and affordable laboratory kit and accompanyingcurriculum for two controls courses in the General Engineering Department. The objective is todesign each kit to be assembled for under $100 while replicating the educational functionality ofa lab bench in a university controls laboratory. This will also allow older analog computers to beupdated with newer technology that is more representative of what is currently used in industry1.This hardware kit will replace expensive equipment with an
statement would suggest that we, as evaluators and educators, wouldneed to change our approach to teaching Engineering Technology in order to gear our programsto that of our customer’s experiences and expectations.But do we need to do this? Although the buzzwords today are on computer simulations, virtualreality, etc., I do not feel that the needs of the “real world” have changed. There is still a need tobe able to have that “hands-on” experience that only an Engineering Technologist has and canbring to the work force.To this end, laboratory experiments should be laid out in such a manner as to duplicate a “realworld” situation. These experiments should be designed so as to build on the previousexperiment, just as classroom lectures build on one
Session 2526 Experimental Validation of Computer Simulations Increases the Synergy Between Simulation and Physical Reality R. Frank Smith and Marvin C. Abrams California State Polytechnic University, Pomona CA AbstractThis paper discusses the development of course materials at California State PolytechnicUniversity, Pomona, CA. that will demonstrate a pedagogical approach that allows the synergismof computer simulations and laboratory experimentation. The model being developed willinclude shared resources with other schools through computer
conjunction, otherField Session modules would teach C++ programming and interfacing, and then use thisdata acquisition system in a motor control application. The following semester, students will return with their own data acquisitionsystem which will be used in their laboratories, at home, or for their own projects such astheir Senior Design. Once each student possess their own data acquisition system, thenthe faculty here foresee dramatic changes we can make in the curriculum to takeadvantage of this new capability.Motivation Students in engineering and science classes use computers and data acquisitionsystems for measurement and control in many, if not most, of their laboratory classes.The type of measurements/control range from
entire freshman year and include both lecture and laboratory experiences.The curriculum has retained its broad range of content topics and its traditionalstrong design and laboratory focus.The curriculum changes will assure the breath and depth of knowledge to allowgraduates to enter industry with immediate productivity, to pursue a wide rangeof career opportunities, provide the basis for adjusting to life-long technologicalchanges, and graduate school studies.
Session 1620 2 Developing An Interdisciplinary Hardware ‘ Laboratory With CIM Capabilities Carl Steidley Mohammnd M. Asoodeh Department of Computer Science/Department of Industrial Technology Southeastern Louisiana University Hammond, LA 70402INTRODUCTION It has become
AC 2008-1057: PILOTING A GAME-BASED VIRTUAL LEARNINGENVIRONMENTFelipe Arango, Stevens Institute of TechnologyGonca Altuger, Stevens Institute of TechnologyEl-Sayed Aziz, Stevens Institute of TechnologyConstantin Chassapis, Stevens Institute of TechnologySven Esche, Stevens Institute of Technology Page 13.982.1© American Society for Engineering Education, 2008 Piloting a Game-based Virtual Learning EnvironmentAbstractIn a new technological era, where virtual environments and social networks are redefining howstudents interact with each other and exchange information, alternative and complementaryapproaches to traditional hands-on laboratories are emerging. Educational
Hands-on Introduction to Chemical and Biological EngineeringSession 1526: We have revised our freshman seminar course by modeling it after RowanUniversity’s exemplary Freshman Engineering Clinic course which utilizes a hands-onlaboratory approach to introduce freshman students to engineering. Innovative laboratorymodules developed and published by faculty at Rowan under NSF funding were adaptedand implemented. These laboratories utilize common activities (such as brewing coffee,taking blood pressure, and delivery of medication) to teach fundamental engineeringprinciples, techniques for experimental measurement, data representation and analysis,and group problem solving and communication skills. Many of these laboratories aredesigned
gjavidi@vsu.edu , jwhite@tempest.coedu.usf.edu , esheyban@vsu.eduAbstract The World Wide Web (WWW) provides alternative means for delivery of the coursesand services, providing learners with an extraordinary range of options. There are few, if any,studies that have attempted to evaluate the learning achieved through the use of simulatedlaboratories in virtual environments, perhaps because of the difficulties in designing tightexperiments for such studies. The purpose of this study would be to investigate theeffectiveness of simulated labs in engineering and present the results. Specifically, this studyexamines whether computer simulations are as effective as physical laboratory activities inteaching college-level electronics engineering
UNCLASSIFIED The U.S. Army Research Laboratory’s Open Campus: Redefining Defense Research Dr. Joseph N. Mait Chief Scientist U.S. Army Research Laboratory U.S. Army Research, Development and Engineering CommandUNCLASSIFIEDUNCLASSIFIED UNCLASSIFIED U.S. Army Research Laboratory Mission Innovative science, technology, and analyses to enable full spectrum
. Defense assurancefocuses on appropriate ways to build and maintain systems that are less vulnerable toattack. Attack understanding focuses on strategies for attacking and how to defendagainst them. Curriculums that focus more on attack understanding can use isolated testbeds to provide laboratory experiences for the students to attack and defend networks. Ina face-to-face environment, the test bed isolation can be accomplished by excludingwireless, infrared, and EoP (Ethernet over Power) interfaces, disabling any removablemedia, and by having only power cables (i.e. no network cables) extend beyond the testbed.Unfortunately, the use of air-gap isolation is unsuitable in a distance education (DE)environment. Remote students must control equipment
Session 3148Freshman Experiences in the Electronics Lab: Comparing the Approaches at the Polytechnic University of Catalonia (Barcelona, Spain) and Penn State University, Wilkes-Barre Campus Mireya Fernández1 , Albert Lozano-Nieto2, and Ferran Silva1 1 Electronic Engineering Dept., Polytechnic University of Catalonia, Barcelona, Spain 2 Penn State University. Commonwealth College. Wilkes-Barre Campus. Lehman, PAABSTRACTIt is widely recognized and accepted that the first electronics laboratory experiences forEngineering and Engineering Technology students are critical to establish good laboratorypractices
participation by students may beneeded. The objective of this study is to provide an interactive and a collaborative, team-orientedclassroom environment for students to explore theoretical concepts through physical experimentsand computer modeling. The primary guiding principle in the development of the laboratorymodules is constructivism, which was implemented by creating an experiential learningenvironment through the use of active learning techniques. The laboratory sessions provide anopportunity for students to enquire, explore, collaborate, and have fun while learning. Elevenlaboratory modules have been developed, covering topics from static equilibrium to themeasurement of displacements and strains for beams, frames and trusses. The
AC 2011-2781: USING PORTABLE ELECTRONICS EXPERIMENT KITSFOR ELECTRONICS COURSES IN A GENERAL ENGINEERING PRO-GRAMJason Yao, East Carolina University Dr. Jianchu (Jason) Yao joined the Department of Engineering at East Carolina University as an Assistant Professor in August, 2005. He received a B.S. and M.S. degrees in electrical engineering from Shaanxi university of Science and Technology, China, in 1992 and 1995, respectively, and the Ph.D. degree in elec- trical engineering from Kansas State University in 2005. His research interests include wearable medical devices, telehealthcare, bioinstrumentation, control systems, and biosignal processing. His educational research interests are laboratory/project-driven
course in Consumer Electronics (EE 498)and a Consumer Electronics version of the college honors course (ENGR 498) have been introduced into thecurriculum. The Consumer Electronics version of the honors course was first taught Winter 1994 (Kuhn), andthe regular Consumer Electronics course was first taught Autumn 1994 (Hannaford). Mixed courses (EE 498and ENGR 498) were taught Spring 1995 (Kuhn) and Autumn 1995 (Hannaford). Another section of EE 498 isscheduled for Spring 1996. The course has evolved and stabilized into a successful format. This format is characterized byclassroom lectures early in the quarter, a series of organized laboratories (with a scheduled 3-hour laboratorysection), and a three week final design project with
Session 1532 Experiments on the Cheap: Using a Student Data Acquisition System Christopher G. Braun Colorado School of MinesMotivationThe cost of operating a dedicated laboratory facility for student educational use is large incomparison to operating a general purpose lecture room. Laboratory uses require thesetup of dedicated equipment, safety equipment and significant storage, often making theroom unsuitable for other purposes. Additionally, hands-on laboratory projects requiremore time in class per credit hour than lecture – typically 3 hours in lab per
ExperienceIntroductionLaboratory notebooks serve numerous purposes and have been used to document activities,results, success, and revisions [1]. Laboratory notebooks also serve as a means of organizingideas and serve as a record of legal ownership of ideas [2]. Beyond this, though, notebooksprovide valuable information that can be analyzed to answer an array of questions [3]. Forinstance, laboratory notebooks served as means of understanding how researchers catalogactivities [4]. Researchers have also addressed the ways in which lab notebooks are used todocument research activities and the degree to which notebooks should be considered vitalrecords [5]. Still others have investigated how implementing electronic notebooks influenceslaboratory activity [7]. In the
transceiver with a 7 MHz carrierfrequency, the course at SPSU not only tied together concepts students learned in previouscourses, but challenged them to see how these principles are applied to practical RF systems. Thecourse also required students to refine their laboratory testing techniques in order to makemeasurements of sufficient accuracy necessary to quantify the transceiver performance. Thecourse was structured around major milestones at the end of which students must have completeda specified portion of the transceiver construction and testing. After the final milestone, studentshad a working transceiver.I. IntroductionWith the rapid growth in RF wireless communications systems, it is important that ElectricalEngineering Technology programs
understanding of aparticular system. We developed a new medical imaging curriculum by associating a series ofcourses with 1) on-site lecturing in research and clinical laboratories and 2) a set of Internetaccessible imaging simulation tutorial programs, and formed an integrated teaching program.This program provides students with medical imaging knowledge in live, effective andinteractive formats.Introduction Biomedical engineering has been emerging as a multi-disciplinary engineering area sincethe end of last century. As a key component in this field, medical imaging education, combiningphysics, mathematics, electrical engineering and computer engineering together, providesstudents with a broad view of information technologies applied to
, implementation of Autodesk MoldflowTM as an instructional tool forpromoting a dynamic interactive classroom environment and providing seamless integration ofclassroom activities such as traditional classroom teaching, computer simulation ofmanufacturing process, and actual physical laboratory experience related with the process. In thatregard, Autodesk MoldflowTM is used as one of the tools that would be used for promotingpositive outcomes associated with the student learning. Autodesk MoldflowTM is used formodeling and simulating of the plastic injection molding process. During computer simulationlaboratories, specific examples of Autodesk MoldflowTM is introduced for providing ideas tostudents on how the manufacturing process would be improved by
2006-1373: A NOVEL INTRODUCTORY COURSE FOR TEACHING THEFUNDAMENTALS OF ELECTRICAL AND COMPUTER ENGINEERINGLisa Huettel, Duke University LISA G. HUETTEL, Ph.D., is an Assistant Professor of the Practice and Director of Undergraduate Laboratories in the Department of Electrical and Computer Engineering at Duke University. She is interested in engineering education and the application of statistical signal processing to remote sensing. She received her M.S. and Ph.D. in Electrical Engineering from Duke University.April Brown, Duke University APRIL S. BROWN, Ph.D., is Professor and Chair of the Department of Electrical and Computer Engineering at Duke University. Her research is focused
San Jose, California. Thepurpose of the project was to upgrade the digital logic course lectures and laboratories to incorporate the latesthardware and software technologies. The major thrust was in the laboratories resulting in new equipment, remodeledfacilities, greater use of computer aided engineering software, and enhanced learning activities.Previous laboratory experiencesFor the most part, the digital logic course is taught as in most engineering technology curriculums.The lecture covers topics beginning with binary concepts and progressing through combinational and sequential devices.Laboratory experiences are designed to complement the theory studied in the lecture classes. Both analysis and design conceptsare introduced.The previous