also to have studentsidentify each course topic, that simulations helped them to learn. Also highlighted here is onetopic common to fluid mechanics, heat transfer, and an associated laboratory course: externalflow over bluff and streamlined bodies. Students simulate the flow past a cylinder and/or airfoil,and design an app to investigate how various parameters impact lift and/or drag experienced byan object. Finally, laboratory experiments allow comparison of simulation results withexperimental data.Keywords — simulations; assessment; junior courses; thermo-fluidsIntroductionThe implementation of computer-based simulations using multi-physics software in engineeringeducation is of growing interest at the undergraduate [1-9]. Integration of
from Cairo Univ. M.S. in Bioengineering from the Ohio State and the Univ. of Michigan, and PhD in EE from Purdue. He is a Prof. of ECE at the Univ. of Louisville, and director of the Computer Vision & Image Processing Laboratory, focusing on research and teaching in computer vision, biometrics and biomedical imaging. He introduced over 13 new courses into the ECE curriculum, authored over 400 papers, edited two volumes on deformable models and a textbook on Biomedical Image Analysis (Cambridge Univ. Press, 2014). He graduated over 70 MS and PhD students, and mentored over 20 postdoctoral researchers. He holds seven US patents on object modeling, computer-aided diagnosis, and visualization. He was lead editor of
Paper ID #29762Understanding Context: Propagation and Effectiveness of the ConceptWarehouse in Mechanical Engineering at Five Diverse Institutions andBeyond – Results from Year 1Dr. Brian P. Self, California Polytechnic State University, San Luis Obispo Brian Self obtained his B.S. and M.S. degrees in Engineering Mechanics from Virginia Tech, and his Ph.D. in Bioengineering from the University of Utah. He worked in the Air Force Research Laboratories before teaching at the U.S. Air Force Academy for seven years. Brian has taught in the Mechanical Engineering Department at Cal Poly, San Luis Obispo since 2006. During the
Professor (Lecturing) in the Chemical Engineering Department of the University of Utah. He received his B. S. and Ph. D. from the University of Utah and a M. S. from the University of California, San Diego. His teaching responsibilities include the senior unit operations laboratory and freshman design laboratory. His research interests focus on undergraduate education, targeted drug delivery, photobioreactor design, and instrumentation.Prof. Jason Wiese, Jason Wiese is an Assistant Professor in the School of Computing at the University of Utah. His research takes a user-centric perspective of personal data, focusing on how that data is collected, interpreted, and used in applications. His work crosses the domains of
summer internship. American c Society for Engineering Education, 2020 Work-in-Progress: Online Tutorials to Help Undergraduates Bridge the Gap Between General Writing and Engineering WritingAbstract Although engineering students are regularly called upon to write as engineers in designcourses, laboratory courses, and internships throughout their curriculum, many engineeringstudents do not formally learn to write as an engineer until their third or fourth year of study. Forthis reason, a gap exists between what engineering students know about general writing and howthey are expected to write as an engineer. As a first step to address this gap, this paper
) was awarded an NSF grant to establish an undergrad computational laboratory for theircapstone course [2]. Capstone courses and built projects help students learn to combineexperimental methods, mathematical and statistical modelling techniques, and computationalskills to study physical problems and processes. They also provide the experience of integratingdifferent areas of students’ education in order to develop the technological and critical thinkingskills necessary in today's workplace. The theoretical concepts covered in lectures arecomplimented by physical experimentation, data collection, and computer laboratory sessions.Many times, case studies are used to provide capstone project examples from available resourcesand to encourage
meetingits objective of helping students better understand and perform in the second-year course ofStatics and Mechanics of Materials [2]. As part of the CE 113 course, students are introduced toprogramming processes in the associated laboratory meetings, using MATLAB [3]. Within thefirst half of the course, students are introduced to the introductory programming topics, includingfunctions, command window operations, graphics window operations, script and function fileswithin the editor window, if-statements, and loops with MATLAB [3]. By the eighth week ofthe course, students are introduced to writing programs to solve simple statics and mechanics ofmaterials problems, which develops into more complex coding by the second half of the course.The
Boolean algebra Digital devices Interfacing and the major functional unitsTable 1: Major Topics Covered in Introductory EE CoursesBoth Circuit Analysis II and Digital Electronics courses consist of weekly three-hour lectures andtwo-hour lab sessions. The laboratory activities are aimed to provide students hands-on practiceon course content and to enhance students’ understanding of important topics covered in lectures.Given that the integrated course project is offered in the Circuit Analysis II class, we next providesome course information and desired learning outcomes of this course in Table 3 and Table 4. Course information of EE210 Circuit Analysis II Prerequisite
author at University of Maryland Eastern Shore forengineering undergraduates, two web-based tools -(i)BITES ( Buildings Industry Transportationand Electricity Generation Scenarios) developed at National Renewable Energy Laboratories(NREL) and (ii) TEST (The Expert System for Thermodynamics) developed at San Diego StateUniversity are introduced to the students and integrated with the course project and classroominstruction.The BITES tool provides a framework to discuss thermodynamic cycles related to power,refrigeration, Otto, and Diesel cycles to energy production and utilization in commercial andresidential buildings, as well as the transportation and industrial sector at large, and their relevanceto carbon emission, ozone depletion, and
Francis of Assisi, and has worked as an engineering laboratory instructor at Saint Francis University since 2017 after earning an MS in Aerospace Engineering from the University of Maryland. c American Society for Engineering Education, 2020 Embedded Measurement and Control Applications Utilizing Python on the Pocket BeagleBoneAbstractOpen source Linux platforms can be used in a variety of academic courses. By choosing Linux,the instructor can utilize inexpensive hardware to demonstrate programming concepts, hardwareinterface, algorithms and data analysis. Many low cost embedded Linux boards (such asBeagleBone and Raspberry Pi) contain a variety of busses (SPI, I2C, CAN
University, Cassie earned her B.S. (2017) and M.S. (2018) in Biomedical Engineering from Wright State University.Ms. Tara Gupte Wilson, Ohio State University Tara Wilson is a third/fourth year undergraduate student of Food, Agricultural, and Biological Engineering at The Ohio State University (OSU). She worked in a chemical engineering laboratory for four semesters studying separation of human red blood cells from whole blood. For the past six semesters, she has worked as a teaching associate for OSU’s fundamentals of engineering honors course- a first year, introductory course required for all honors engineering student. She also volunteers at Mount Carmel West Hospital in the pre-op/post-op department, the Dublin food
. 2Workshop objectives and general description:The two-week camp is part of a consortium project that includes research, education andoutreach programs. More specifically, this program has several objectives:1) Train high-school students to use the Autodesk Inventor™ 3D CAD computer program, tocreate technical designs, and teach them how to print designs in 3D using 3D printers.2) Improve students' STEM skills and Improve students' communication skills3) Bridging the gap in industry and research laboratories in terms of human resources andqualified personnel.4) Introduce high-school students to advanced manufacturing (AM) applications to increase theirinterest in pursuing university degrees that would prepare them for careers in AM.Each year, the
before explanations, and giving evidence to support claims) and write theirown memos in a laboratory setting. In the third course, the instructor references what waslearned in the previous two but does not give significant instruction about memo writing.Students are expected to write a satisfactory memo in a laboratory setting when asked.MethodsIn this study we assess the impact of our memo scaffolding plan by assessing a single assignmentin a required third-year Mechanics of Materials course (EM204 in Figure 1). The control andtreatment groups consist of students taking the course at two separate offerings. We describehere the context of the course, the details of the assignment, development of the assessmentrubric, and our assessment
Paper ID #31726Building the Bioengineering Experience for Science Teachers (BEST)Program (Work in Progress, Diversity)Dr. Miiri Kotche, University of Illinois at Chicago Miiri Kotche is a Clinical Professor of Bioengineering at the University of Illinois at Chicago, and cur- rently serves as Director of the Medical Accelerator for Devices Laboratory (MAD Lab) at the UIC Innovation Center. Prior to joining the faculty at UIC, she worked in new product development for medi- cal devices, telecommunications and consumer products. She also serves as co-Director of the Freshman Engineering Success Program, and is actively
Paper ID #31081Work in Progress: Experiential Modules using Texas Instruments RoboticSystem Learning Kit (TI RSLK) for Teaching Control SystemsJun Ouyang, University of California, Davis Mr. Ouyang have obtained two bachelor degrees in EE and Computer Science from UC Davis. He is currently a master student in UC Davis. In the present, He is working on a SAR ADC IC. In addition, he is working on revising different laboratory materials to teach prospective electrical engineering students.Prof. Hooman Rashtian, University of California, Davis Hooman Rashtian received the Ph.D. degree in Electrical and Computer Engineering from
Paper ID #28714Work in Progress: Involving Teachers in International Community EngagedLearning Projects to Enhance Their Understanding of Engineering andIntercultural AwarenessDr. Margaret Pinnell, University of Dayton Dr. Margaret Pinnell is the Associate Dean for Faculty and Staff Development in the school of engineering and associate professor in the Department of Mechanical and Aerospace Engineering at the University of Dayton. She teaches undergraduate and graduate materials related courses including Introduction to Ma- terials, Materials Laboratory, Engineering Innovation, Biomaterials and Engineering Design and Appro
lectures and recitation focused on projectdevelopment and project management skills. From a grant provided in 1993 by the National Science Foundation, New YorkUniversity’s EG 1003 was created with learning objectives on project management, teamwork,technical communication, engineering experiments, and design. 300 students per semester, or 82percent of first-year students in the college of engineering enroll in EG 1003. The curriculum ofEG 1003 is broken up into four components. The laboratory exercises occur in a three-hourperiod where students learn key concepts of engineering through hands-on prototyping anddevelopments. Recitations are weekly sessions where students give professional presentations onthe technical skills practiced in the
applications to solving chemical and biological problems, such as fuel cells, microreactors, and high-throughput chemical/biological assays.Dr. Praveen Shankar, California State University, Long Beach Dr. Praveen Shankar is an Associate Professor in the Department of Mechanical and Aerospace Engi- neering at California State University, Long Beach. Dr. Shankar’s research expertise is in the analysis and design of control systems for complex dynamic systems. He serves as the director the Collaborative Autonomous Systems Laboratory at CSULB which focuses on the development and testing of advanced motion planning and control technologies for autonomous robotic systems. American
decrease Primary Energy consumption,” Ph. D. Dissertation, Pennsylvania State University, University Park, PA, USA, 2019.[6] BCHP Screening Tool. US Department of Energy: ORNL, 2007.[7] RETScreen. Natural Resources Canada, 2010.[8] HOMER (Hybrid Optimization of Multiple Energy Resources). HOMER Energy LLC, 2014.[9] DER-CAM (Distributed Energy Resources -Customer Adoption Model). Lawrence Berkeley National Laboratory, 2016[10] Lawrence Berkeley National Laboratory, “DER-CAM User Manual,” Lawrence Berkeley National Laboratory (LBNL), Berkeley, California, USA, Manual, 2016. Accessed: Apr. 12, 2018. [Online]. Available: https://building-microgrid.lbl.gov/sites/default/files/DER- CAM_User_Manual_V4
Engineering Historical perspective of nanomaterials Advanced materials Materials, structure, and nanosurface Energy at nanoscale Nanoscience phenomena, bulk to quantum properties Characterization techniques X-ray Diffraction (XRD) Scanning Electron Microscopy (SEM) Energy Dispersive Spectroscopy (EDS) Transmission Electron Microscopy (TEM) Atomic Force Microscopy (AFM) Raman Spectroscopy Fourier-Transform Infrared Spectroscopy (FTIR) Fabrication methods of nanomaterials, “bottom-up”, “top-down” fabrication Chemical synthesis and modification of nanomaterials Non-thermal plasma technique to synthesize nanomaterials Nano-electro mechanical structures (NEMS) Applicationsnanomaterials. These observational laboratory
improve conceptual understanding and critical thinking.Dr. Heather Dillon, University of Portland Dr. Heather Dillon is an Associate Professor in Mechanical Engineering at the University of Portland. Her research team is working on energy efficiency, renewable energy, fundamental heat transfer, and engineering education. Before joining the university, Heather Dillon worked for the Pacific Northwest National Laboratory (PNNL) as a senior research engineer.Jeffrey Matthew Welch, University of Portland Jeff Welch is a doctoral student in educational leadership at the University of Portland (Oregon, USA).Dr. Nicole C. Ralston, University of Portland Dr. Nicole Ralston is an Assistant Professor and co-Director of the
students (18 to24-year-olds) (40%), transfers (23%), internationals (7%), and non-traditional, returning adults(30%).The CourseThe Applied Fluid Mechanics course (MET 4100) is one of the core courses for the METprogram and the second in the sequence of fluid mechanics coursework, following the MET2050 Fluid & Hydraulic Mechanics. MET 4100 is a four-credit hour (ch) course, comprised of a3ch lecture and a 1ch laboratory. This course focuses on the applications of the basic principlesof fluid dynamics, including general laminar and turbulent flow, compressible flow, as well aspractical, applied problems, such as the internal flow of fluids in pipes and conduits, pumpselection and application, the design and analysis of HVAC ducts, and external
; Bird B-KER2 Laboratory Jars and Masterflex Tygon lab tubing toconnect both, one student holds the reservoir at a fixed location simulating a water source suchas a natural spring, lake, or river, and another student adjusts the elevation of the tap stand usinga simulated gate valve from the sampling port of the laboratory jar. As the tap stand locationremains lower than the location of the reservoir, students can notice water continuing to flow asthe third student is responsible for turning the tap stand valve on and off. However, as soon asthe location of the tap stand is higher than the location of the reservoir, water flow stops. Thus,students realize that the location of the outflow must be lower than the location of the inflowassuming
affiliated with high schools and colleges including vocational schools. The followinglist provides the accomplishments made by this coalition: • Multi-institutional AM collaboration in teaching, laboratory practices and research [3], • Framework developed to measure the attainment of ABET Student Outcomes through AM curricular practices. [4], • Smart phone accessible AM laboratory platform for multi-institutional collaboration [5], • Up to date skills required of AM technicians [6], • TTS: studio-based AM training [7], • Using AM as an innovation tool to enhance the student learning and success [8-9], • Up to date MOOC AM
consistency of a sample inquality control of products in sustainable manufacturing field [6]. Additionally, the spectrumpeak intensity determines the amount of components in a mixture, which can be used forquantification of sample constituents.The use of the FTIR Spectroscopic Imaging system can enable a variety of projects in variouscourses. Currently, the Electrical and Computer Engineering Department, Mechanical andMechatronic Engineering and Sustainable Manufacturing Department, and Chemistry andBiochemistry Departments at CSU Chico are using this equipment in several courses such asDigital Image Processing, Material Science and Engineering, Material Science and EngineeringLaboratory, Organic Chemistry Laboratory, Integrated Laboratory and
engineering profession, without the need for highly technical knowledge that mostengineering laboratory courses require. A pertinent means of keeping students invested in thecourse, as well as the engineering profession, is through active learning techniques. Studies haveshown that an active learning environment produces strong indications of success and increasedstudent persistence in engineering [3] [4] [5].Course leadership initiated ENGR 111 development with a primary objective to, as much aspossible, base course pedagogy in active learning methodology to take advantage of the resultantbenefits to the student(s). Active learning can be defined as “any instructional method that engagesstudents in the learning process” [6], yet active learning is
Paper ID #29831Remotely Accessible Injection Molding Machine for ManufacturingEducation: Lessons LearnedDr. Sheng-Jen ”Tony” Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is a Professor in the College of Engineering at Texas A&M University. He holds a joint appointment with the Department of Engineering Technology and the Department of Mechanical Engineering. His research interests include engineering education, cognitive task analysis, automation, robotics and control, intelligent manufacturing system design, and micro/nano manufactur- ing. He is also the Director of the Rockwell Automation laboratory at
course, whileaffording departments the flexibility to fit the first-year design course into their curriculum. Thecourse structure, half-lecture and half-laboratory course, is designed to optimize the use of themakerspace classroom. The lecture half is structured as online videos and other learning contentstudents need to complete before coming to the live laboratory makerspace portion of class.Students attend the live makerspace class once per week for a two-hour block of time. Thelaboratory half is structured for students to work in teams, utilize the makerspace tools, andreceive feedback from the professor and peer mentors on their projects. With the combinedonline lecture and live laboratory format, students are expected to complete
sizeof 45 students; typically requiring three sections. Teaching assistants are available in the labs toanswer students questions related to the use of the software; AutoCAD or Civil 3D.[2]Laboratory assignments were assigned as either projects or lab experiences depending on therequired effort expected from students. Labs consisted of drawings to complete where the CADsoftware features were demonstrated and video recorded in the lab session. The students wouldtypically have one week, with three hours of lab time in two 1.5-hour sessions, to complete theirdrawings. The projects would also have a laboratory demonstration (and recording) but theassignments were longer in duration and more laboratory sessions (typically four 1.5-hour labs)were
ConferenceAbstractThe study aimed at investigating: the group dynamics underlying ethical decision-making inSenior Design Project (SDP) teams and research labs, and the role of ethics experts in the ethicaldecision-making. Using cognitive ethnography, we analyzed research activities in engineeringresearch laboratories, and SDP teams’ discussions about ethics issues, with or without thepresence of ethics experts. We found that student teams demonstrated multi-layeredunderstanding of engineering ethics: explicit and implicit. Those two types of understandingmanifested themselves differently across SDP teams. At the explicit level, SDP teams understoodtheir technical responsibility and practical work ethics, but at the same time rarely showedappreciation for