motivational tools served as means to create a betterteaching and learning environment in the classroom and in the laboratory. The response of thestudents was constantly monitored. The results show that the various activities strategicallyplanned to motivate the students to become active learners and to situate them in the context ofthe practice of Civil Engineering had a positive effect on several aspects, including theirperception the of the significance of the knowledge being acquired, of the reality of their futureprofession and of the importance of the tools they might need. Another significant increaserelates to the perception the students ended up with of their capacity to transfer the knowledgeacquired to other situations.1. General
..., Which type of reactor would be better for ..., Determine the optimal ... Figure 1: The Six Main Categories of Bloom's TaxonomyLearning StylesWe all learn through a wide variety of different methods, including but not limited to reading,attending lectures, video, multimedia, laboratory experimentation, and participation in heateddiscussions. However for any given individual there are certain modes of learning and thinkingthat are more natural and effective than the other methods. Many educational researchers havestudied the different styles of learning and teaching that occur in our classrooms, and as a result,several different classification schemes have emerged[ 8 ]. These learning style models include theMeyer-Briggs
have beendone in the summer of 1997 to prepare for the collaboration. This must include an explicit anddetailed sharing of the calendars, student schedules, laboratory availability, vacation and holidaydates, and so on. We overlooked most of this and simply made a verbal understanding that thestudents would be getting together on Tuesdays and Thursdays.Penn State began the fall semester in the last week of August, and Artois began in the first weekof September. This was good, although a one-week orientation at the IUT caused the projecttime schedule to slip further. Additional problems occurred when the Penn State course timewas changed from the anticipated 8-10 time period to the 9-11 period. And access to thecomputer laboratory was
IncentiveGuest Lectures An engineering faculty member presenting one 65-100 $200- lecture in a liberal arts course, or vice versa. minutes $250Modules One week of material, in the form of class or 3-6 hours $500 laboratory time.Paired Courses Two courses taught in the same term, sharing At least 3 $1000 three or more activities (lectures, labs, field hours trips, speakers, etc) in the same term. Table 1. Summary of Supported InteractionsIncentives were intended for the first offering of an interaction, and for lectures, supported up totwo guests per
learning, Actionbeing more vocational and Self being more cerebral. The traditional engineering curriculumis described by figure 2a where the Knowledge dimension informs both Action and Self. Itcan be argued that in a traditional academic curriculum Action and Self intersect to somedegree in engineering laboratory classes. However many of the laboratory classes involveprepared experimental exercises to confirm theoretical knowledge and require littlereflection. Furthermore the overcrowding at Australian universities combined with theshedding of technical staff and occupational health and safety issues have reduced, what oncewere hand-on laboratory sessions, to group demonstrations and computer simulations.The professional curriculum, shown, in
AC 2010-783: NDEP-SUPPORTED K-12 STEM OUTREACH ACTIVITIES OF THEUS AIR FORCEGerald Mora, New Mexico Tech Gerald Mora is the Director of New Mexico Tech's Technology Transfer Support Group and the State of New Mexico Partnership Intermediary for the Air Force Research Laboratory at the Kirtland Air Force Base. Mr. Mora was awarded the 2001 New Mexico Distinguished Public Service Award for his development Kirtland’s La Luz program. Mr Mora has numerous publications based on his Systems Engineering work and his passion for education outreach.Ricardo Negron, WPAFB RICARDO NEGRON--Ricardo Negron is currently the Chief of the Domestic Partnering Branch at Wright-Patterson Air Force Base (AFRL
Program Director of Electrical Engineering and Professor of Electrical Engineering and Computer Science at Milwaukee School of Engineering (MSOE). He received the Ph.D. degree from the University of Missouri in 1990 and has 20 years of experience across the corporate, government, and university sectors. He is a registered Professional Engineer in Wisconsin. He teaches courses in control systems, electronic design, and electromechanics.Owe Petersen, Milwaukee School of Engineering Dr. Petersen is Department Chair and Professor of Electrical Engineering and Computer Science at Milwaukee School of Engineering (MSOE). He is a former Member of Technical Staff at AT&T Bell Laboratories and received
1 Reception areas 4 N/A 1@2. Studio Classrooms and Teaching Laboratories Studio classrooms 4 2050, 2073, 2052, 2073 48 Teaching labs 3 1273, 1285, 1288 24 Computer classrooms 2 1191, 1203 46 Student computer labs 2 742, 744 32 Computer hardware classroom 1 630 16 Hole Montes Lecture Hall 1 1698 84 Classroom
. Page 15.765.1© American Society for Engineering Education, 2010 Integrating Hands-On Design Experiences into the CurriculumAbstractIn many Biomedical Engineering (BME) programs, design is a key component throughout thecurriculum. This may involve a combination of design problems on paper, a reverse engineeringproject, education in design methods, and hands-on fabrication experiences. In the BMEprogram at the University of North Carolina at Chapel Hill, our goal is to also provide morehands-on design opportunities in the laboratory and machine shop. We accomplished this bycreating new courses for a “design sequence” and by collaborating with an existing, requiredcourse.The design sequence consists of four courses that span the final
University,but differentiates itself by tying the two introductory courses together.3 The introductory circuitscourse develops the hardware; the “brawn”, while the introductory digital logic course programsthe controller; the “brain”.EE221: Introduction to Electrical Engineering IThe first semester ECE course on circuit analysis fabricated the robot platform and introducedthe students to the basic concepts of engineering design. In total, six hours of class andlaboratory time were specifically dedicated to the project. Three additional laboratory periodswere spent on experiments that were helpful for the project; biasing a light emitting diode (LED),signal processing of sensor data, and a sensor controlled motor operating circuit. For the
writing progress for a myriad of reasons. Good intentions to write can besidetracked by competing obligations and pressing deadlines11. For students enrolled in classes,serving as teaching or laboratory assistants, and perhaps trying to balance family or other offcampus obligations, finding time, structure, and motivation to write can prove challenging. Inresponse, they may succumb to unhealthy habit of ‘binge writing’, mistaking believing that theywill be more creative and productive if they write sporadically in bursts that lead to exhaustion4.A simple way to create effective writing habits and ensure steady progress is to set writing goals.A goal is simply an articulated desired end-state. Goal setting has received intense scholarlyattention
faculty as the expertise needed to teach each course was developed. Active learning is used in many of the core robotics courses [14]. Progressive increase in level of autonomy in each course. The robots developed in each course progress from tele-operation to line-following to total autonomy. FIGURE 2. Robotics Engineering laboratory late at night Tight integration of laboratory before a term project is due. assignments with lecture material [12]. Community-building. Many activities serve to build a sense of community amongst Robotics Engineering majors. These include
logistics associated with credit-hour limitation and student contact hours provideenormous challenges to faculty to cover all fundamental concepts and assess student outcomesthat demonstrate their readiness to move on to engineering mechanics courses that follow.Recognizing the difficulty students have in Statics, engineering faculty have discussed aboutintroducing an additional laboratory hour in the curriculum to motivate students and provide aphysical framework to demonstrate the abstract concepts. While additional contact hours willcertainly enhance learning; credit hour limitation of curricula is also a “realistic constraint”around which engineering curricula has to be designed. Integration of realistic computersimulations in and
Paper ID #8129The LowCost Vertical Axis Wind Turbine Project: An exercise in learningacross disciplinesDr. Narayanan M. Komerath, Georgia Institute of Technology This is a student-led paper guided by Professor Komerath. Dr. Komerath is a professor of aerospace engineering at Georgia Institute of Technology, and director of the Micro Renewable Energy Systems Laboratory. He has over 300 publications, over 120 of them peer-reviewed, plus 3 US Patents, and has guided 15 PhDs , 50+ MS and over 160 undergraduate research special problem projects. He is a former Chair of the Aerospace Division.Akshay Milind Pendharkar, Georgia
nanotechnology, and hownanotechnology relates to the real world. While the results in Table 2 indicated gains inknowledge about NSE concepts, we wanted a more rigorous assessment of student learning.These data were still self-reported and not focused on actual concepts and ideas of NSE andscience. In 2008, we did a complete overhaul of the summer camp. We developed a studentworkbook that provided introductory information on each activity along with a completedescription of laboratory procedures. Students also had assigned reading each night related tothe next day’s topic. The camp was designed to be much more laboratory-focused but stillincluded visits to research labs tied to the day’s topic. Each day had its own topic/theme whichincluded: intro/unique
-of-the-artindustrial equipment for ExLENT participants.The MEP will provide the foundationalknowledge in five critical areas ofmechatronics: robotics, mechanical, electricaland controls, cybersecurity, and artificialintelligence. Project participants will beimmersed in a five-week, remote, self-paced Figure 1. Regional map of partnerships.training utilizing the MEP's advancededucational materials and tools. Upon completing the MEP training, the participants willparticipate in one-week practical training at Michigan Tech laboratories (Phase II), where theknowledge obtained via the MEP will be reinforced with hands-on activities in all five criticalareas of Mechatronics.Technology
projects Instructional methods 12 Implementing flipped learning, deductive learning, and active learning Integration of design activities 11 Experiential learning, evaluating engineering and learning opportunities practices in bioengineering prototypes, new laboratory experiences (including virtual experiments), exploring bikeability in Montreal Development of instructional 10 Videos to support laboratory experiments resources or materials Assessment methods 4 Implementing formative assessments, using GenAI
topics to be taught as part of an existing graduatecourse using a total of twenty-seven lecture hours, including those proposed for Option 1, andthe third option was a set of topics for a dedicated graduate level course that includes topics fromOptions 1 and 2 with additional advanced topics. They also proposed lectures and laboratorysessions for a possible laboratory component. Their proposals are reproduced here for thebenefit of the reader and summarized in Table 2.The curriculum proposed by Chui and Mischke [11] can very well be used as a starting point forthe development of a curriculum for today’s construction management programs with neededupdates made to take advantage of recent and emerging technologies. However, since the fieldof
the resident hall. The RAs undergo background checks and are trained on working with “Minors on Campus” through Syracuse University College. We try to ensure at least one of our RAs each year is an engineering student or has a degree in engineering to help serve as a STEM mentor. Assistant to the Coordinator: We also hire one assistant to the Coordinator each year from early June through the last day of the program to help with program details such as registration, photography, Facebook administration (loading program photos during the week(s), etc. Faculty: Over 10 University faculty members and two graduate students volunteer their time and talents to provide lessons, laboratory and other
aremote-controlled racecar around a figure-8 track. As part of the activity they learn to maketradeoffs between top speed and acceleration and climbing ability as they navigate hairpin turnsand inclined ramps. The students are also introduced to the Engineering Technology program atDrexel University. As part of their introduction they meet and interact with currentundergraduate students and tour laboratory and computer facilities. The competition, lab tours,awards ceremony, and lunch together take about five hours.The goal of the competition is to attract more high-quality students to Drexel and to increase theEngineering Technology Program’s name recognition in the surrounding school districts andacademic community.The CompetitionThe competition
indicated that Pacific engineering students have a strong preference for hands-on and visuallearning. Current research in engineering education has shown that students' learning and theirability to retain concepts is enhanced when different learning styles are addressed, including theuse of visual teaching aids1, 2.The Introduction to Fluid Mechanics is a 4-credit core course for four of the seven engineeringmajors at Pacific, and has a laboratory associated with the course. The laboratory has a numberof experiment setups, ranging from small table-top units to measure fluid properties to an 18-footwater flume to study open channel flow phenomena. These experiments are augmented with in-class demonstrations used to help students visualize concepts
-minute labperiod each week in a dual-functioning bioengineering laboratory classroom. A semester-longcase study project of engineering baker’s yeast Saccharomyces cerevisiae to produce a Vitaminprecursor chemical is used to simulate an industrial synthetic biology project while applying coreconcepts covered in the lectures. A broad range of synthetic biology applications are covered inthe course content as well as via assessments and through a podcast series where academic andindustry representatives are interviewed during class. This synthetic biology course should helpothers implement similar courses, and the general structure of the course should be beneficial toothers wanting to create elective courses in popular chemical engineering
Paper ID #45738Collaborative Interactions on a Senior Capstone Design Project - Impact ofPLM Tools and StrategiesFrederick Rowell, Clemson University Frederick (Fritz) Rowell is a graduate student at Clemson University in the Department of Mechanical Engineering. He focuses on virtual engineering tools, including PLM, PDM, and Additive Manufacturing, to quicken product design cadence through coursework and human-subject studies. His professional experience includes internships at E-Z-GO in Augusta, GA, and Savannah River National Laboratory in Aiken, SC.Douglas Byrd, Clemson UniversityDr. Todd Schweisinger P.E., Clemson
instructor, the second assignment is a guided group programming exercise, the next twoassignments are performed during a laboratory session and the last assignment is an independenthomework.Data CollectionThis study was conducted in Fall 2024. Three undergraduate students who had completed theintroductory course the previous year were recruited to use ChatGPT to perform the courseassignments. We will refer to them as subjects 1, 2 and 3. They had limited programmingexperience beyond the course and no prior knowledge of how to use generative AI to write code.They did not receive any formal training on generative AI tools. They were added to the course'slearning management system for the Fall 2024 semester and were given access to all coursematerials
topics. This is true across engineering, but especially true inelectrical engineering, where the applications require great amounts of background.In an introductory class that the author has developed [1], a curriculum was explored that allowed(in the author’s opinion) a good blend between the two extremes. The formal education focusedon classroom lectures and laboratory-based exploration. However, even though the lecturesallowed for decent breadth while the laboratory allowed for decent depth, there was still a need fordeep, less-structured exploration. This piece seems to be missing in most introductory curricula,and is of the utmost importance to allow students to really solidify their knowledge.This is where the idea of the Deep Dive comes
defined by the following: i. The Learner is in a professional environment, generally in industry; ii. The Learner works towards a qualification that is relevant to the industry, and aligned with her/ his work profile; iii. The workplace is the natural setting for the delivery of the education, and is converted into a learning environment or class room/laboratory; iv. Synchronous instruction is employed to teach the fundamental principles, and applications, in core and advanced areas relevant to the domain, along with relevant laboratory sessions; v. Asynchronous means of instruction are employed to provide flexibility and ease of access, and most importantly, to keep the learner engaged constantly
. Work on a team 7. Recognize basic ethical issuesMany topics in the class are introduced lightly with the understanding that they will be exploredmore in-depth in the years to follow. The learning outcomes are accomplished through a series ofin-class activities, formal laboratory sessions, and out-of-class projects. The lab sessions focusmore on the education surrounding common lab equipment and instrumentation. Projects areteam-based, with a prompt that allows choice for creativity and uniqueness while providingconstraints. In-class activities are aimed at providing students with a starting point to labs andprojects. The in-class activities and lab prep are where Tinkercad was mainly utilized in thecourse to help aid in their learning, as
included: 1)understanding the benefits of trying research as an undergraduate student; 2) thinking like aresearcher; 3) connecting engineering interests to active research projects; 4) practicing researchskills such as problem-solving, communication and teamwork; and 5) building relationships withuniversity students, faculty and staff who can help identify research opportunities. To achievethese goals, all summer bridge students attended a research class that met two times per weekwith a dedicated professor. The class structure consisted of hands-on learning modules andexcursions to state-of-the-art laboratory facilities on campus.We collaborated with two graduate students to integrate a current research project aboutsustainable cement into the
Physics at Trinity College Dublin, Ireland, and subsequently worked as a postdoctoral research fellow at the same institution. During this time, he combined research in computational material sciences with teaching duties in undergraduate laboratories. Akinlolu then served as an assistant lecturer at the Dundalk Institute of Technology in Dundalk, Ireland, before joining the Institute of Technology Sligo (now ATU Sligo). At ATU Sligo, Akinlolu’s teaching focuses on mathematics, data analysis and information technology at both undergraduate and postgraduate levels, while his research interests include modelling promising materials for photovoltaics, photocatalytic and thermoelectric applications using state-of-the-art
Paper ID #35845Implementing strategies for virtual engineering educationMs. Hashmath Fathima, Morgan State University My name is Hashmath Fathima, a research assistant and a PhD student at Morgan State University. I am currently working on my dissertation, and my research is based on Social Media and Cyber harassment. My interests are ML, AI, and Cyber Security.Dr. Kofi Nyarko, Morgan State University Dr. Kofi Nyarko is a Tenured Associate Professor in the Department of Electrical and Computer Engi- neering at Morgan State University. He also serves as Director of the Engineering Visualization Research Laboratory (EVRL