Implementation of Blended Learning for a Large Size Engineering Mechanics Courseteaching staff have been reported in the literature. A large sized class makes it more difficult forteaching staff to elicit student engagement and to monitor students’ understanding of the coursecontent (Gibbs, 1992; Gibbs & Jenkins, 1992). In addition, a large class size tends to cause adminis-trative burden associated with delivering traditionally invigilated exams, running laboratory classesand marking (Gibbs & Jenkins, 1992; Biggs & Tang, 2011; Vista et al., 2015). University educatorshave been actively developing more effective and flexible delivery models to provide students withaccess to quality learning
Session 1566 Utilization of the Learning Cycle and Design of Experiments to Enhance Understanding of Mechanical Engineering Concepts John S. Brader, Jed S. Lyons Department of Mechanical Engineering - University of South CarolinaAbstractThrough design of experiments, as part of an increasingly difficult series of laboratory exercises,students gain a greater understanding of the relevant engineering theory. This paper outlines athree part laboratory experience specifically designed to introduce freshmen to the variety ofengineering disciplines. The three experiments increase in difficulty
Rendezvous Proximity Operations and Capture simulation. Page 12.826.1© American Society for Engineering Education, 2007 IMPACT OF NEW FACILITIES ON ENGINEERING STUDENT OUTCOMESAbstractEmbry-Riddle Aeronautical University (ERAU) has established a reputation for providingundergraduate students with a curriculum which has a strong emphasis on application basedlearning. In an effort to improve this learning environment, the campus has recently added a20,000 square foot Aerospace Experimentation and Fabrication (AXFAB) building dedicated toproviding undergraduate students with a premier laboratory
Session 2150 Delivering Electronics Engineering Technology Courses on the Web Thomas M. Hall, Jr. and Glenn W. Moffett Northwestern State University of LouisianaAbstractIs it feasible to offer an associate’s degree in Electronics Engineering Technology (EET) on theWeb? The faculty in the Industrial and Engineering Technology (IET) Department atNorthwestern State University (NSU) have begun planning to do just that. While the universityhas been proactive in distance education using a variety of media, going on-line with a programthat demands extensive “hands-on” laboratory work has been greeted
), microfluidics/lab-on-chip, and energy research.Dr. Michael T. Butcher, Youngstown State University Michael Butcher is an Assistant Professor in biological sciences in the College of STEM at Youngstown State University. Butcher received his Ph.D. in zoology with a specialization in muscle biomechanics from the University of Calgary in Alberta, Canada. Butcher runs and active laboratory at YSU where he focuses on thee areas of comparative biomechanical research: evolution of bone loading and integrated hindlimb muscle-bone function, muscle architectural properties and function is digging lineages, and myosin heavy chain isoform expression and caudal muscle function in the prehensile tails of didelphid marsupials
) level, which means that both graduates andundergraduates can take this course. The undergraduates taking this course may also receivegraduate credits if they choose to do Masters at KU. The enrollment in this course steadilyincreased (from 3 to 11) in the past 4 to 5 terms, including the term in which this course wasoffered as a “Pilot Course”. The computational facilities although still limited for this course, havealso been upgraded and students now use the faster computers with larger disk quota per student.The number of computer laboratory experiments was increased from three or four to six differentexperiments – 3 experiments based on one-step solver (PAM-QuickStamp©) and the other threebased on incremental solver (DYNAFORM©). The overall
language teaching is animportant challenge for China to cultivate international talents. In the future, China’sAI laboratory should pay attention to the integration of technology and culture in theteaching environment of language teaching, strengthen the connection betweenTHE CONSTRUCTION OF ARTIFICIAL INTELLIGENCE AND HUMAN LANGUAGE LAB 2institutions and scholars in construction, and deepen the research in the theoreticaland applied area. This paper aims to enrich the research results of AI in the field oflanguage teaching, promote the training of China language talents and theconstruction of teaching staff, and provide China experience and model ofinformation-based language teaching. Keywords: Artificial Intelligence; AI
2021 ASEE Midwest Section Conference An undergraduate experience for studying the diffusion of a solute in an aqueous solution Abner Peralta and Natacha Souto-Melgar University of Arkansas, Ralph E. Martin Chemical Engineering DepartmentKeywordsStudent extended abstract, laboratory, chemical engineering, diffusion, Fick’s law.Molecular diffusion driven by concentration gradients is the most common type of diffusion inchemical separation processes, such as liquid-liquid extraction, stripping, and adsorption. Tobetter understand molecular diffusion, a fundamental knowledge of Fick’s law of diffusion iscrucial. In the Spring 2021
], labThe paper describes the hands-on learning experiences of settings [5], and homework/project activities [4].students who used the ADB in multiple courses. Thepaper discusses (i) the various laboratory experiments and Several portable hands-on learning equipment tools areclass projects performed by the students, (ii) the available, such as Analog Discovery [12], MyDaq [13],knowledge and skills learnt by the students and (iii) the Lab-in-a-Box [14, 15], Tessal [ 16], and mobile studio [7].lessons learnt by the instructors while introducing ADB A portable equipment device that is being used to engageinto freshman and junior level courses in the electrical and and inspire electrical and
under this criterion is one or more processes that identify, collect, and prepare datato evaluate the achievement of student outcomes. The Department of Civil and EnvironmentalEngineering at South Dakota State University (SDSU) chose to use student outcomes originallyestablished, known as the “a” through “k” outcomes. Evaluation of outcome “b”, “a graduatingstudent should have an ability to design and conduct experiments, as well as to analyze andinterpret data” was accomplished using a well-designed rubric, and is the subject of this paper.The rubric was established and administered in CEE-346L, Geotechnical EngineeringLaboratory. The means of assessment was a particular laboratory experiment, the onedimensional consolidation test. The rubric
. Page 11.16.1© American Society for Engineering Education, 2006 A Collaborative Effort between a two-year College and a State UniversityAbstractIn this paper the authors will present the outcome of a two-year effort for the establishment anew AAS program in Semiconductor Manufacturing and Nanotechnology that is beingoffered by Hudson Valley Community College (HVCC) – a community college located inthe capital region of New York state – and the State University of New York University atAlbany (UAlbany). Because of the nature and the cost of the laboratories (clean rooms, andother expensive facilities) needed to support such a program that HVCC could not afford, itwas decided to seek a “partner universities
like Thomas Edison or GeorgeCorliss. He focused his attention instead on the achievements of a corps of professionalengineers, and on the qualities of an educational system that had fostered suchexcellence.American engineering education had begun to enjoy world-wide renown by 1893. Prof.John Goodman, newly appointed to a chair at England’s Yorkshire College of Sciencequoted a senior colleague who advised him, “Now the very first opportunity you get, goover and see what the Americans are doing, and you will see there technical educationcarried out with the greatest efficiency.”3 What most impressed foreign observers werethe pedagogical possibilities of laboratory-based instruction in the engineering educationcurriculum. Laboratories gave
also an area in which she holds a patent. She currently has research focused on student learning in virtual laboratories and the diffusion of educational interventions and practices.Jaynie L. Whinnery, Oregon State University Jaynie Whinnery is a graduate student studying Public Policy at Oregon State University. She also holds an M.S. in Environmental Engineering and a B.S. in Mechanical Engineering from Oregon State Univer- sity. Her research in engineering education is focused on student teams engaged in the Virtual Bioreactor (VBioR) Laboratory project. She is specifically interested in understanding the student-instructor interac- tions and feedback that occur during this project and how these factors influence
Department of Industrial Technology: Biotechnology Laboratory I,Biotechnology Laboratory II, and Bioinformatics Technology. The objectives of thispaper are to describe the implementation of the new curriculum. The courses within thebiotechnology minor prepare students including Industrial Technology to find careerswithin life science-based industries. These students will be the vanguard of a highlyeducated workforce contributing to the life sciences industry in Indiana. Page 10.385.1“Proceedings of the 2005 American Society for Engineering Education Annual Conference & ExpositionCopyright © 2005, American Society for Engineering Education
engineering laboratory setting if the experience is hands-onand involves personal exploration. It also became clear that their perception of what electricalengineers do was changed to the point where they would consider electrical engineering as aviable career option.Undeclared engineering students make up about 20% (about 100 students) of the incoming classat RIT. These students have comparable academic credentials to the general engineering studentpopulation. The College of Engineering offers five engineering programs (Computer, Electrical,Mechanical, Microelectronic, and Industrial) and Electrical Engineering usually attracts less than15% of these students. Freshmen and sophomore experiential courses, which are viewed as notrequiring a major time
academia.Dr. Rungun Nathan, Pennsylvania State University, Berks Rungun Nathan is an Assistant Professor in the Division of Engineering at Penn State, Berks, from the fall of 2007. He got his B.S. from University of Mysore, D.I.I.Sc. from Indian Institute of Science, M.S. from Louisiana State University, and Ph.D. from Drexel University. He has worked in the area of electronic packaging in C-DOT (India) and then as a Scientific Assistant in the robotics laboratory at Indian Institute of Science, Bangalore, India. He worked as a postdoc at University of Pennsylvania in the area of haptics and virtual reality. His research interests are in the areas of unmanned vehicles particularly flapping flight, mechatronics, robotics
Session 3553 A Project-Oriented Introduction to Engineering Course Kenneth F. Reardon Department of Chemical and Bioresource Engineering Colorado State UniversityAbstractThis paper describes an introductory engineering course taught to first year students in chemical,environmental, and bioresource (agricultural) engineering at Colorado State University. In thislecture-laboratory course, a variety of "hard" (technical) and "soft" engineering subjects are putinto practice in a group design project, with the overall goal of providing students with a sense
3(d)). Most existing educational programs provide little training for undergraduates inthe skills necessary to function effectively on such teams. In our new “MultidisciplinaryBioprocessing Laboratory” (MBL) course, we have developed formal training exercises andintensive laboratory experiences that help our students develop multidisciplinary team skills.While the MBL course is focused on biocatalysis, the concepts and approaches used forinstruction and training are generic and may be applied to a variety of interdisciplinarytechnology areas. We will discuss the course structure and give examples of exercises used inthe classroom.I. Introduction “Employment Outlook 2000: Teamwork Pays Off.” A recent issue of Chemical andEngineering
actual industry situations. Theteaching approach used in the one credit-hour digital electronics laboratory course (EET 120)was based on student centered engineering design teams.The case-based teaching approach used in the EET 117 course was very helpful to students ingaining an insight into the industrial applications of digital systems technology. Learningthrough case studies helped engineering technology students work creatively in teams to solveengineering problems. Providing students with case study experiences can be viewed asequipping future engineers/engineering technologists with the tools they will need to effectivelyperform in industry.The traditional approach to teaching the digital electronics laboratory (EET 120) included
ofgram details, such as typical laboratory exercises and changing what I want to be in life.”design projects, staffing, funding, and cost-benefits,are considered next. A brief summary of experiences “The facilities and faculty are su-with the program concludes the discussion. perb and I learned a lot.” TC GOALS AND OBJECTIVES “I had a great time. Not only did it teach me many things, like how toFor students, the goal of Technology Connection is to make a web page – which I will em-encourage studies in mathematics, science, computers, ploy at home as soon as I get a weband engineering. Naturally, the hope is that this
from the Advanced TechnologicalEducation Program at the National Science Foundation, has addressed this need bydeveloping technician-level educational materials, prototyping a teaching laboratory forplasma-aided manufacturing, and training community college faculty.[1] This paperprovides a summary of PCC’s three-year development and implementation effort.IntroductionThe lack of instructional materials is a major deterrent in developing and implementing atechnician-level course in RF plasma processing at the community college level. Asearch of the literature produced only graduate-level textbooks.[2,3]Equipment needed to implement a teaching laboratory to support a technician-levelcourse was also lacking. Equipment to support simple plasma
THE JAVA-DSP (J-DSP) PROJECT – FROM THE PROTOTYPE TO THE FULL IMPLEMENTATION AND DISSEMINATION* Andreas Spanias and Venkatraman Atti Department of Electrical Engineering, Ira A. Fulton School of Engineering, Arizona State University, Tempe, AZ 85287-5706, USA. e-mail: [spanias, atti]@asu.edu AbstractThis paper describes the roadmap followed to develop a prototype, obtain support for its fullimplementation, embed in the curriculum and assess, and then disseminate. We outline specifically howthe J-DSP online laboratory concept was conceived, how the prototype “proof of
Session 1532 Application of a Learning Model in an Introduction to Digital Logic Course Cordelia M. Brown, Arthur J. Brodersen Vanderbilt University School of Engineering Department of Electrical Engineering and Computer Science Nashville, Tennessee 37235AbstractDuring the 2003-2004 academic year, a general learning model is being employed at the Schoolof Engineering at Vanderbilt University (VUSE) in the “Introduction to Digital Logic” course.This course is accompanied by a laboratory component. There are
The spring freshman Biological and Agricultural Engineeringcourse at the University of ArkansasDanielle Julie Carrier, Katherine S. Vaughn and Carl GriffisBiological and Agricultural Engineering, University of Arkansas,203 Engineering Hall, Fayetteville, AR, 72701The objective of this presentation is to report on the content of the spring semesterBiological Engineering freshman design class. In this class, contact with students is donethrough a 60-minute lecture that is interfaced with a 170-minute laboratory. Thisfreshman class is the second of our design studio sequence that extends through to thesenior year. The purpose of the class is to introduce the students to design, namelythrough the understanding of the problem, pertinent
Creating Enthusiasm for Science in the High School Classroom T.O. Spicer and E.C. Clausen University of Arkansas Ralph E. Martin Department of Chemical Engineering 3202 Bell Engineering Center Fayetteville, AR 72701 AbstractHigh school teachers are increasingly concerned with sparking and maintaining studentinterest in science, particularly as classroom laboratory activities have grown stale due totheir age. A limited number of high school biology, chemistry and physics teachers wereinvited to a one week pilot program at the University of Arkansas, designed to
Biomass Feedstock-based Technology Devinder Mahajan SBU-BNL Joint Appointment Professor and Co-Director Chemical & Molecular Engineering Stony Brook University, New York Site Director NSF Center for BioEnergy Research & Development [CBERD] www.bioenergynow.org Scientific Staff Joint Appointment Sustainable Energy Technologies Department Brookhaven National Laboratory, New York ABSTRACTThe use of
and develop the new laboratory and course “SolarPV Installation and Troubleshooting”. The new course is designed, developed, improved, andenhanced in close collaboration with industrial partners in order to prepare the students for theNorth American Board of Certified Energy Practitioners (NABCEP). In this paper, theequipment used in this new course as well as the course outline and laboratory experiments willbe presented and explained.IntroductionThe renewable energy share in the U.S. energy production market is growing rapidly, while thefossil energy share is declining [1], [2]. The energy generation growth of the individualrenewable energy technologies is depicted in Figure 1 for the time span of 1998-2017. Asindicated in this figure, the
advanced communication systems topics including digital/data communications andhigh frequency communication techniques. During the first course in analog communication systems, thestudents are introduced to communication circuits, Fourier series, noise analysis, amplitude modulation,frequency modulation, transmission lines, and antennas. Along with the lecture material, the students meetweekly in the lab for experimentation. Since the fundamentals of analog communications have been inexistence for many years, there is a need to introduce current technology to students in this course. In this paper, an innovative use of current technology within analog communication systems ispresented. This paper describes a laboratory project which uses
building and testing ideas, and generally knew their way around atoolbox. That understanding can no longer be assumed, as technological processes increasinglyare treated as black boxes.1 In response to this concern we developed and have taught a coursedesigned to introduce sophomore students in engineering to field and laboratory techniques usedin biological systems, agricultural, and environmental engineering. Our experience has been thatstudents are generally very resistant to discovery-based laboratories since by definition thisapproach lacks explicit step-by-step guidance.The primary objective of the course is to provide students with physical applications oftheoretical concepts. This course is a common requirement across the undergraduate
Examination isbeing used as a bench-mark of progress. The several aspects of the rebuilding project aredescribed along with a report of progress and lessons learned. The paper concludes withobservations about the ethical and cultural nature of engineering education and somerecommendations about changes that are required to achieve the desired outcomes of therebuilding project.Historical Backdrop:The Faculty of Engineering was established in the 1960’s and 70’s by a consortium of USUniversities with USAID sponsorship1,2. The project was a “turn-key” project that provided abuilding, laboratories, and US based education for the new Afghan Faculty members. Facultymembers from the participating US Universities established and taught classes and