tracking. The Robotics Vision Systems course willbe designed as a 4 credit hour course (3 hours of recitation and 3 hours of weekly lab). Thecourse will introduce topics on: 1) safety, including laser safety; 2) basics of optics and imageprocessing; 3) setting up lightning conditions required for the successful vision error proofingand camera calibration; 4) teaching tool, application, and calibration frames; 5) performing 2Dcalibration and 2D single and multiview robotic processes; 6) performing 3D calibration and 3Dsingle view robotic vision processes. The course will include 12 laboratory exercises, totaling 36hours, with the goal of providing students the opportunity to configure and execute real-life,industry comparable, robotic vision
Society for Engineering Education a greenhorn, upstart, flash-in-the-pan, or worse and lead to hard feelings that will last. Remember that recommended changes imply that the status quo designed and fostered by current faculty is inadequate. Recommendations for changes must always be approached very diplomatically.J. Pay one’s dues with respect and deference for senior faculty. Accept that, as the new person, one may have to bite one’s tongue, swallow one’s pride, and perhaps take on less-than-preferred courses and responsibilities, just as most of the senior faculty had to do when they were a NEE. Be willing to accept and faithfully perform grunt work, particularly teaching time-intensive laboratory courses, freshman-level courses
Paper ID #35802Why is thermodynamics so hard for students and what can an instructor doabout it.Dr. Randall D. Manteufel, The University of Texas at San Antonio Dr. Randall Manteufel is an Associate Professor of Mechanical Engineering at The University of Texas at San Antonio (UTSA). He has won several teaching awards, including the 2012 University of Texas Sys- tem Regent’s Outstanding Teaching Award and the 2013 UTSA President’s Distinguished Achievement Award for Teaching Excellence, the 2010, 2014, 2018 and 2019 College of Engineering Student Council Professor of the Year Award, 2008 Excellence in Teaching Award for
(2011-2012) and Professor (2012-). Rohit was the first assistant professor hired into the new Bioengineering department and played a key role in the development of its curriculum and activities. He later founded and serves as the coordinator of the Cancer Community@Illinois, a group dedicated to advancing cancer-related research and scholar- ship on campus. Research in the Bhargava laboratories focuses on fundamental theory and simulation for vibrational spectroscopic imaging, developing new instrumentation and developing chemical imaging for molecular pathology. Using 3D printing and engineered tumor models, recent research seeks to elucidate hetero-cellular interactions in cancer progression. Rohit’s work has been
andPublishing, 2002.(3) PERRY ET AL., Perry s Chemical Engineers Handbook, McGraw-Hill Book Company, 7th ed., 1997;Sections 19 & 20.(4) ASTM, D422-63 Standard Test Method for Particle-Size Analysis of Soils [Reapproved 1998].Biographical InformationKEITH B LODGEAssociate ProfessorChemical Engineering, University of Minnesota DuluthKeith Lodge has developed two laboratory-based courses, one in process control and the other in particletechnology. He also teaches heat and mass transfer in which he brings a hands-on approach to the class. His generalresearch interests include Thermodynamics, Physical Chemistry & Particle Technology in Chemical Engineering,Environmental Engineering & Science, and Partition Coefficients & Activity
Paper ID #32099Allowing Freshman Engineering Students to Encounter MultipleDisciplines: Discipline Oriented Labs in the First Semester EngineeringCurriculumDr. Benjamin D McPheron, Anderson University Benjamin D. McPheron is Chair of the Department of Physical Sciences & Engineering and Associate Professor of Electrical Engineering at Anderson University. Dr. McPheron received his B.S.E.E. in Electrical Engineering at Ohio Northern University in 2010, and his Ph.D, in Electrical Engineering from the Department of Electrical Engineering at The Pennsylvania State University in 2014. Dr. McPheron teaches Freshman
AC 2008-1447: UNDERGRADUATE MATERIALS RESEARCH: TENSILEIMPACT TOUGHNESS OF POLYMERSMir Atiqullah, Southern Polytechnic State University Dr. Mir Atiqullah is an Associate Professor in the department of Mechanical Engineering Technology at Southern Polytechnic State University, Marietta, GA. He received his Ph.D. in mechanical engineering from Purdue University, West lafayette, Indiana in 1996. He has been teaching engineering and engineering technology since 1996 and has interest in design, materials, manufacturing, mechanics, optimmzation, biosensor, among others. He is a regular participant in ASEE conferences and active member of various divisions
engineeringdepartment to introduce colloid and surface science as a focus for graduate study. The result wasa new interdisciplinary graduate program titled “Colloids, Polymers and Surfaces”, beginningwith lecture courses in 1972 and hands-on laboratory training added in 1974. On the academicside it was a cooperative effort under the direction of Professor D. Fennell Evans, employingpersonnel and physical resources of both the chemistry and chemical engineering departments.Input of R&D supervisors from eight local industries came from the Advisory Board, who Page 13.1303.2participated in major policy decisions and periodic reviews, and encouraged qualified
2006-1256: INITIAL RESULTS FROM A MATH-CENTERED ENGINEERINGAPPLICATIONS COURSEDale Buechler, University of Wisconsin-Milwaukee Assistant Professor Electrical Engineering Member ASEE, IEEE, BEMS 2007 ASEE Mathematics Division Chair-Elect 2006 ASEE Mathematics Division Program Chair Director ASEE Mathematics Division(2003 - Present) Who’s Who Among America’s Teachers Outstanding Teaching Award - College of Engineering and Applied Science (2000-2001) 1999 Science and Engineering Education Scholars Program Participant email: buechler@uwm.eduChris Papadopoulos, University of Wisconsin -Milwaukee Assistant Professor Civil Engineering and Mechanics
(IoT), the development of remote testbeds aregaining momentum with an intention to use them for teaching and for laboratory activities.Remote testbeds allow one to perform experiments on a real hardware over the Internet from aremote location. There are a number of software packages used in the design and developmentof remote testbeds. This paper will describe the use of Python for such a development. Todemonstrate Python’s effectiveness, the paper will describe two case studies. One of them is aremote vacuum cleaner and the other is an embedded processor system with remoteprogramming capability.1. IntroductionIt is vital to provide laboratory activities to maximize learning in STEM disciplines.Traditionally, students perform experiments
. Proceedings of the 2017 ASEE Gulf-Southwest Section Annual Conference Organized by The University of Texas at Dallas Copyright © 2017, American Society for Engineering Education 2017 ASEE Gulf-Southwest Section Annual Conference Table 3. Ethics Case #1 Smith and Jones work in an experimental testing laboratory for Acme Corp. Smith has been the main testing engineer for five years and is up for promotion to laboratory supervisor (includes the testing laboratory and several other laboratories). Jones is being trained as a potential replacement as the testing engineer. The laboratories division supervisor is Brown who is retiring soon
An Undergraduate Experiment to Introduce Surface Science FundamentalsKatherine Gascon, Steven J. Weinstein, Michael G. AntoniadesRochester Institute of TechnologyAbstractThe thermodynamic concepts relevant to surfactant adsorption, and their impact on surfacetension, are introduced in a laboratory experiment designed for undergraduate students. Using areliable and accessible method, students measure the surface tension of aqueous solutions atdifferent concentrations of sodium dodecyl sulfate (SDS). Students collect data to estimate thecritical micelle concentration (CMC) and quantitatively determine the maximum surface excessusing the Gibbs adsorption equation. Students subsequently determine the surface area permolecule of this surfactant
engineering faculty/student partnership involved exposing theundergraduate to a small scale research project designed to reflect typical activities experiencedby graduate students. The student went through the entire cycle of design, simulation,fabrication, and test of a working device prototype. Through this approach, the studentexperienced a microcosm of graduate school while interacting with graduate students,experiencing the difference between laboratory and simulation work, and developing technicalwriting skills through the development of the electronic portfolio.IntroductionA program referred to as "Research on Research" has been developed to expose undergraduatestudents to academic research. The program is instituted through the Technology
/index.cfm/page/CourseAdmin.ViewABET?coursecatalogid=501&pdf =True); Stanford’s ME220 Introduction to Sensors (http://www.stanford.edu/class/me220/).Sites accessed January 2014.6 See, for example, U. Minnesota’s AEM 4601 Instrumentation Laboratory(http://www.aem.umn.edu/teaching/curriculum/syllabi/UGrad/AEM_4601_syllabus.shtml);Johns Hopkins’ 530.420 Robot Sensors and Actuators(https
will continuously add qualified faculty as the program progresses, to carryan appropriate share of the teaching load.A Memo of Understanding has been drafted to cover issues such as transcripts, admissionscriteria, evaluation of transfer students, library usage, assessment methods and structure,freshman engineering courses, and student fees. This document calls for yearly reviews by theDirectors to ensure continuity. The long-term goal is to have this program separately accredited.Freshmen are to start this program in fall of 2004. Page 9.80.1Proceedings of the 2004 American Society for Engineering Education Annual Conference &
AC 2012-3113: AN EXAMPLE MAPPING OF THE FOUR PILLARS OFMANUFACTURING ENGINEERING ONTO AN EXISTING ACCREDITEDPROGRAMDr. David L. Wells, North Dakota State University David L. Wells has been professor of industrial and manufacturing engineering at North Dakota State Uni- versity since January 2000. He teaches undergraduate and graduate courses in process engineering and production engineering systems design for conventional manufacturing, electronics assembly, biomedical products, and micro-manufacturing. His instruction is characterized by heavy reliance upon project-based, design-centric learning. Course projects are drawn from real industrial applications with real industrial constraints, often interactive with a
applications of electronic components and controllers utilized on industrialequipment. Laboratory sessions focus on instrumentation, programming, downloading,and wiring discrete input / output devices.Specific Course Competencies of the course include the ability to: 1. Identify major applications of programmable logic controllers in industry, transportation, construction, and environmental control. 2. Identify, discuss, and describe the purpose and function of the primary components utilized in open and closed loop process control systems. To assist in this outcome, each student will develop an appropriate theoretical base, and a complete comprehension of the associated
money over aspecified operating time. Heat transfer augmentation is encouraged as a means of being morecompetitive.In addition to the responsibility for design, teams are provided with the raw material and tools tobuild and test the performance of a prototype module of their recuperator design. In addition,along with a cover letter to the chemical company requesting the bid, each team submits atechnical report documenting their company’s proposed recuperator design.II. Background of the Class BodyThe Fluid and Thermal System Design class mainly consists of senior-level undergraduatestudents with a minority of graduate students. The course is a four-credit class, and involvesboth a lecture and a laboratory component. The lectures, however, do
solving methodologies in methodologies advanced applications, ability to recognize a problem and to reduce it to a simple case from an introductory technical courseTo achieve the objectives of the introductory courses the following structure is used: 1. Simple problems from the textbook – but let the students choose numeric values. This provides for the sense of their ownership for the problem and allows to follow solutions from the book 2. More complicated problems. One problem covers one or more topics 3. Laboratory
. Thedepartment will need to procure equipment for GDT, manufacturing processes and metrology. Inaddition to laboratories and equipment, two lecturer faculty lines is required to teach severalMFET courses. This information is intended for any organizations planning in developingsimilar program. The SML is created specifically for the MFET program. SML is equipped withstate-of-the-art equipment. This equipment provides students with practical and hands onlearning experience. The automated assembly line is for students to learn mechatronics and theassembly process. Students also learn about automation and controls, robotics and Industry 4.0.The metrology section of the SML includes equipment such as CMM, vision measuring machineand height gages. Using
field, yet undergraduate engineering students in civil and environmental engineering arerarely exposed to digital imaging through their coursework. The College of Engineering atRowan University received funding from NSF to integrate digital imaging technology (DIT) inour undergraduate engineering curriculum. Faculty from all engineering disciplines withexpertise in DIT participated in this exciting project to develop hands-on experiments forundergraduate engineering students. Experiments developed were such that all engineeringdisciplines would benefit from the endeavor. Certain digital imaging experiments havegenerated a lot of excitement in the Civil and Environmental Engineering program as many ofthe laboratory experiments are extremely
which can briefly be described as a study of the fundamental concepts,devices, and applications of electronic components and controllers utilized on industrialequipment. Laboratory sessions focus on instrumentation, programming, downloading,and wiring discrete input / output devices.Specific Course Competencies of the course include the ability to: 1. Identify major applications of programmable logic controllers in industry, transportation, construction, and environmental control. 2. Identify, discuss, and describe the purpose and function of the primary components utilized in open and closed loop process control systems. To assist in this outcome, each student will develop an
components and off-the-shelf parts. The students arechallenged not just by the design, but by the integration of these various types of technology.There are two ways we fail to prepare students to meet this challenge.First of all, course work and laboratory work are compartmentalized. A student may take adigital electronics course with a complementary laboratory component. The lab experiencesgained may be very suitable for demonstrating the analysis and design of combinational andsequential logic circuits, but they do not teach the students how to interface digital circuits withanalog circuits or computer software.Another way in which we fail to prepare students to meet the challenge of their capstone designproject is by not providing enough
the individualcomponents and fabricate the PLC modules themselves.This manuscript discusses the need for including PLCs into the curriculum, and how thePLC modus modules discussed here are used in a course entitled Applied Process ControlEngineering which can briefly be described as a study of the fundamental concepts,devices, and applications of electronic components and controllers utilized on industrialequipment. Laboratory sessions focus on instrumentation, programming, downloading,and wiring discrete input / output devices.Specific Course Competencies of the course include the ability to: 1. Identify major applications of programmable logic controllers in industry, transportation, construction, and environmental
AC 2010-2388: ASSESSMENT OF INSTRUCTIONAL SYSTEMS DESIGNMysore Narayanan, Miami University DR. MYSORE NARAYANAN obtained his Ph.D. from the University of Liverpool, England in the area of Electrical and Electronic Engineering. He joined Miami University in 1980 and teaches a wide variety of electrical, electronic and mechanical engineering courses. He has been invited to contribute articles to several encyclopedias and has published and presented dozens of papers at local, regional, national and international conferences. He has also designed, developed, organized and chaired several conferences for Miami University and conference sessions for a variety of organizations. He is a senior
University Katie Cadwell is an Associate Teaching Professor in the Department of Biomedical and Chemical En- gineering at Syracuse University, where she has taught Chemical Engineering core courses since 2011. After receiving Chemical Engineering degrees from the Missouri University of Science and Technology (B.S.) and University of Wisconsin-Madison (Ph.D.), she pursued a postdoctoral position in engineering education and outreach with the Interdisciplinary Education Group of the Materials Research Science and Engineering Center at UW-Madison. Prior to moving to Syracuse, she taught for several years at Madison Area Technical College. Her interests include development of engineering faculty attitudes and pedagogy
interpretation, thereby extending their comprehension beyondtheoretical concepts as shown in the final report.In summary, the integration of active learning, laboratory experimentation, and ethicalconsiderations not only enriches the educational experience but also equips students with thenecessary skills to navigate the complex ethical landscape inherent in the field of biomaterials.By incorporating active learning components to teach key engineering concepts, we propose apedagogical approach that encourages and empowers students to critically analyze data and workwith real-life problems in the Biomaterials domain. This holistic approach prepares students forthe multifaceted challenges they will encounter as future engineers in the biomaterials
component in the curricula we develop, and final projects must involve some form of discrete circuit component. • We have emphasized the concepts of sensors, signals, and signal processing when teaching programming and electronics. Many labs, homework exercises, and activities involve interpreting signals generated by using sensors and circuits of the student’s creation, interpreting those signals using programming, and making design decisions based off of those interpretations. • All laboratory exercises in the first half of the courses are designed to be carried out in groups of two or three, and be significantly open-ended (see Tables 1, 2, and 3). This prepares students for the open-ended
3 References 1. Alliance for Education Excellence, Expanding Education and Workforce Opportunities Through Digital Badges. 2013, Washington, DC: all4ed.org. 2. Fishman, B.J., Beyond Badges & Points: Gameful Assessment Systems for Engagement in Formal Education, in Proceedings of the Gameful Learning Symposium. 2013, University of Wisconsin: Wisconsin, Madison. 3. Hickey, D.T., G. Taasoobshirazi, and D. Cross, Assessment as learning: Enhancing discourse, understanding, and achievement in innovative science curricula. Journal of Research in Science Teaching, 2012. 49(10): p. 1240-1270. 4. Mozilla Open Badges. Available from: http://openbadges.org
. Page 1.243.1 1996 ASEE Annual Conference Proceedings The principal features of IMPEC are as follows:• The courses are team-taught by mathematics, chemistry, physics, and engineering professors. Fundamental scientific and mathematical material is presented in the context of real-world engineering problems.• With the exception of a chemistry laboratory, the courses are taught in a single classroom equipped with PC’s that have real-time data acquisition capability. The classroom holds 36 students, which limits the enrollment in the curriculum.• The calculus instruction follows the Harvard Calculus format, emphasizing a true understanding of concepts as opposed to learning drills and