Republic’s students produce and ship more than 40,000wreaths, each year, to destinations throughout the United States and around the world5.Figure 1. (Left) Boys’ Republic Christmas Wreath. (Right) Final assembly and production of the wreaths. Notice along the backwall the hook line assembly line that travels throughout the various assembly areas.The challenge the engineering team addressed for this aspect of the wreath production was theapplication of the clear lacquer sealant. The project’s primary goal was to replace the manualapplication of the lacquer which can expose the workers to various chemicals if they are notwearing the necessary protection and while also alleviating the long days that can cause theworkers to become fatigued while
(CCs). The authors suspected that these transfer students might just be the tip of a large icebergof students who sought and could benefit strongly from a “supportive hand.” 1 There were noprograms at that time specifically for new transfer students in ENGR; the only option availableto learn about life at a large school for these students was to join freshmen students in an ASU101 introductory class. Transfer students averaging age 25 are not particularly enthralled to be inclass with 18 year olds who are very interested in what happened in the dorm last night. The firstauthor and director of the NSF STEM for upper division students then wrote a second successfulproposal (#0324212) to NSF to support upper division transfer students in an S
layers and separate them from the platform. Figure 1 shows an example ofcatastrophic failure where parts of the extruder were engulfed in plastic. In this case, the 3Dprinter was left unattended overnight since the time predicted by the 3D-printing program tocreate a part was about 9 hours. As the first few layers were deposited, they separated from theprinting platform and adhered to the printing nozzle of the extruder. Then, the nozzle and someportions of the extruder were encapsulated as more plastic was extruded. To remove the plasticbuild-up, a student used a heat gun to re-melt the plastic and release the extruder. However, inthe process, a plastic extruder holder was partially melted as well and had to be replaced. Figure1a shows the
that fewer than 200 undergraduate working hours were spent indeveloping and testing the computer tools, leading to a labor cost of less than $1500.Developed Computer ToolsThe seven existing computer tools are all employed in the grading and analysis of a singleassignment. Figure 1 shows the workflow that would be used in the grading and analysis of asingle class assignment, illustrating the relationship between the seven tools and theirinputs/outputs. Four of these seven tools (1.1, 2.1, 3.1, 4.1) mostly duplicate features that wouldcommonly be available for in-LMS grading workflows (such as automatically generating gradingrubrics with each student's name, or returning graded work to students) but were created tosupport and streamline the
curriculum will be the basis to understand the system level approachof specifying, breakdown, hardware/software development, and integration of an embeddedsystems course. In such a course students typically explore microprocessor architecture,instruction sets, interfacing, and real-time programming techniques in assembly language.Laboratory exercises usually consist of system level development in serial and parallel datatransfer, data acquisition, and analog input and output signal processing. The most commonchips used in microprocessor courses are the Motorola HC11/12 or the Intel 8051. Figure 1Figure 1 shows how a four year EET curriculum would map out introducing the integratedAnalog and Digital
during the second course. These types of real-world project aspects are totallydifferent from the standard course where the student shows up, takes notes, completes homeworkand exams generally on his/her own and then moves on. It has been said that Capstone is theclosest thing to a real-world experience that still includes academic credit. Proceedings of the 2019 Conference for Industry and Education Collaboration Copyright ©2019, American Society of Engineering Education Session ETD 545The external sponsorship is derived from two primary sources: 1) private sector / public sectorfunding of the projects that they want to have
sciences.Contents, tools and services provided by COPEC, through courses, publications and consultationswith national and international experts, contribute to the promotion of the professional who wantsto be privy of the new achievements and the service of man to technology.COPEC enjoys respect and recognition internationally characterized by the open discussion, thefree exchange of ideas, respectful debate, and a commitment to rigorous inquiry. Its IIE –International Institute of Education - is a bold and resilient source of innovation in highereducation [1].Educational Aspects in Current RealityWork environment worldwide has changed drastically, and today millions of professionals arealso unemployed, even in advanced economies. On the other hand
themtime, productivity, and sanity. It typically takes them 4–5 years to become as productive inresearch and as effective in teaching as they ever become. The other 5%—the “quickstarters”—meet or exceed their institution’s expectations for research productivity and score inthe top quartile of teaching evaluations in their first 1–2 years on the faculty. Boice foundthings the quick starters do that the other new faculty doesn’t do, and he also found thatthose strategies can be effectively taught.Most of us on college faculties learn our craft by trial-and-error. We start teaching anddoing research, make lots of mistakes, learn from some of them, teach some more and domore research, make more mistakes and learn from them, and gradually more or less
we have been working.Much has already been published on this program, including the evolution of CIRC.1-6 Majorhighlights will be discussed.Program HighlightsThe goals of this scholarship program have remained the same through its history. The first goalis to graduate the student. The second goal is that they will graduate in good stead with anexcellent set of experiences in addition to the classroom, including internships and researchpositions. A third goal is that the student will go right on to graduate school full-time aftergraduation and earn an engineering or computer science Master’s or Ph.D. degree. Everythingdone in this program is designed to help the student reach these three goals.An Academic Success and Professional Development
completion of renovation work currently underway, our students will have over 9,000 square feet of collaboration and fabrication space available to them throughout the DesignBuildTest sequence of classes: An undergraduate machine shop, and assembly room, and a mechatronics laboratory. Figure 1: Sequence of Courses in the Design and Manufacturing Spine (Source: Professor Diann Brei, University of Michigan) Staffing of and access to instructional labs The staffing of the instructional labs is in line with models followed by universities. Barrett et al. (2015) discovered that the most common model identified for staffing of maker spaces utilized a combination of
data collection.Motivation - Why Research on Adult Nontraditional Engineering StudentsEngineers seek to find solutions to society’s problems. The keystone to successfully attainingsolutions may be said to be diversity - diversity of our lived experiences. We can claim thatengineering, by its very nature, is dependent on teamwork and creativity of thought. Diversity Page 26.879.2increases the range and creativeness of possible solutions the team or individual can attain(1).Whereas gender and ethnic diversity are commonly studied aspects, studies involving studentage comprise a much smaller set of the available literature within the engineering
had large numbers of dots placed next to them, there wasbroad representation of the different types of attendees at each workshop, suggesting that themost highly ranked ideas will potentially serve the needs of a broad spectrum of users. Tables 1and 2 show the ideas with the most votes across the three workshops.Table 1. Top Online Resource Ideas To Address Needs of PreK‐12 Educators in EngineeringEducation from Workshop Attendees Online Resource Idea (PreK-12 Educators) CountTeacher clearinghouse 41Multi-tier PreK‐12 teacher activities that take content deeper or scale down according to
methods. This can be useful in the education of history and engineering to a generalaudience, as well as research in the same fields. This project will be recreating the constructionof one of the most famous ancient monuments: the Colosseum of Rome. Page 26.546.2 II. HISTORICAL ACCOUNTS The erection of the Colosseum (Fig. 1) was begun by Vespasian in AD 727,3, but he died inAD 79 prior to its completion. When his son Titus dedicated the Colosseum in 80, a year beforehe himself died, the top story was still incomplete11; however, Lanciani4 believed that by thistime, the structure had reached the fifth and topmost floor. In AD 81 Titus’ brother Domitianbecame the next
laboratories. One of the DHS Center of Excellence (the Coastal Hazards Center of Excellence)is also engaged to provide expertise and guidance in order to enhance EMT program’s researchcapabilities.1. I TRODUCTIOIn 2005, Hurricane Katrina [1,2] devastated the Mississippi coastal area. Hurricane Sandyslammed the eastern seaboard in 2012. Every year, many Americans face a disaster oremergency and its horrifying consequences. The need for specialists in the field of emergencymanagement has never been greater. Those in the field of emergency management must haveadequate training, experience, and education.The Department of Technology at Jackson State University has established a concentration inEmergency Management Technology to prepare our students as
one of the orientation courses is required by all students in the CoE.Since the creation of these orientation courses, evaluations and student surveys have beenregularly assessed to continuously improve curriculum and better meet the needs of the differenttypes of incoming students.Undergraduate studies in both the United States and Canada have shown that students with peer-and near-peer mentoring supports are more heavily engaged in their academic curricula and aremore socially integrated into engineering-related programs than those students without mentors.1-6 Student evaluations in both the freshman and transfer sections at the University of Oklahomareflect that the mentorship techniques that are currently in place not only encourage
flexibility of the platform weare now using these units in multiple classes. Our analysis shows that the critical properties itoffers to the learning experience are • Immersive interactive learning • Immediacy of interactive control (direct manipulation) • Tactile and experiential learningThe problems of this approach include the lack of experience of IT students with the HWThe key parameters to handling this problem are 1. Provide ready-packaged hardware that obviates the need to build circuits 2. Use a source of hardware that provides three key properties, IE a wide selection, standardized interfaces and software libraries for accessing the softwareEducational impact evaluation at this stage is mostly qualitative. An example
Program Assessment Workshops, IDEAL and the assessment webinar series. He also directs activities related to the workshop facilitator training and professional development. Page 26.1615.1 c American Society for Engineering Education, 2015 Undergraduate Facilitators’ Perspectives of Engineering Summer Programs 1. Introduction Summer programs are often used by universities to recruit students into engineering by educating and inspiring them. Programs have various target audiences and objectives. For example, some programs are targeted at
, oneremains exceptionally stable. Lessons learned with these first two partnerships, significantlycontributed to the development of guiding principles used by our faculty when organizingassociations today. These principles include: 1. Intently listen to all advice and direction given by partners and potential partners of the program 2. Attempt to follow and implement ideas provided by partners 3. As appropriate, involve and engage partners in the education process through guest lectures, industry advisory boards, and student/faculty projects 4. When requesting equipment and donations from partners develop a full or mini- proposal/statement of work that thoroughly outlines the needs and benefits to all parties 5
Session ETD 465ConceptsIn addition to the items explained above, some overall concepts are helpful to orient instructorsnew to ethics.Do No Harm. As the prime directive of ethics, all professionals should refrain from actions thatresult in harm of any type: physical, psychological, financial, legal. Initially associated withmedicine and erroneously ascribed to the Hippocratic Oath, primum non nocere came intowidespread usage in the early 20th century18 and has served as a guide for professional practicein any area related to the public good. Engineering codes capture this concept in FundamentalCanon #1, and public safety is at the forefront of a designer’s mind, especially those workingwith structures and consumer products.It is important to note
their career tofollow. There may be situations during their career where ethical questions arise. It is hopedthey reach an ethical conclusion.References: 1. Grannan, C., “What’s the Difference Between Morality and Ethics?”, www.brtitannica.com/story/whats- the-diffferenc-between-morality-and-eithics? Proceedings of the 2019 Conference for Industry and Education Collaboration Copyright 2019, American Society for Engineering Education Session ETD 465 2. Ethics Versus Morals. www.diffen.com/diffen/ethics_vs_morals. 3. American Society for Engineering Education (ASEE). www.asee.org/member
provides a greater safety factor in carrying out the overall process. Therobots shown in Figure 1, are wall mounted 6ft apart on a rigid steel structure, positioned abovean incoming conveyer, which carries the signposts. Each robot, individually, picks and stackssignposts of all lengths equal to and below 5ft and with the weight variations. Any signpostlength equal to or greater than 6ft is picked and stacked by 2 robots simultaneously.The robots in use are two Fanuc M-710iC/70 robots31, operating in dual-arm configuration.Dual-arm configuration refers to the fact that the two robotic arms work as a team to accomplishthe same task. The Fanuc M-710iC/70 robot provides a payload capacity32 of 154.32 lbs (70 kg).With the weight of the largest
awards of$2,000 up to $8,000, depending on the duration and quality of the module proposed, along with itapplicability in the discipline. Awards were announced on September 17, 2015, with the awardof the stipend to be in summer 2016 (contingent on the submission of a complete module by theend of the grant period).Depending on the proposed module content, the duration of a module could be anywhere from15-minutes to 1-to 2-hours. A complete module (slide deck or video, background information,discussion questions, assessment artifacts) must be packaged for dissemination to other teachingfaculty.Amount:The total Innovator budget is $40,000, with each award ranging from $2,000 to $8,000, andincludes an expectation that the Innovator will: • Attend
Research Organization Energy Centre (similar to theU.S. National Renewable Energy Laboratory). An overview of the Australian itinerary is shownin table 1; for more detailed descriptions of sites visited, please see Appendix B.Table 1 - Itinerary for the Australia International Renewable Energy Learning Exchange, 2013 Date Institution Visited 3/12 TAFE Directors Meeting, Sydney 3/12 Northern Sydney Institute of TAFE 3/13 Western Sydney Institute of TAFE, Nirimba Campus 3/13 Western Sydney Institute of TAFE, Richmond Campus 3/13 Commonwealth Scientific and Industrial Research Organization Energy Centre 3/14 Canberra Institute of Technology 3/16 Tropical North Queensland Institute of TAFE 3/18 Chisholm
education and outreach programs, STEM teacher development, and climate change education programs. Page 26.785.1 c American Society for Engineering Education, 2015 Flipping the Infrastructure ClassroomThis paper and its companion poster are the result of a recent (September 1, 2013) funding award fromthe National Science Foundation. The outcomes of the proposed work are: Establish and sustain the Center for Infrastructure Transformation and Education (CIT-E) as the source for infrastructure education materials that are continuously improved by a vibrant
questions beg for input from all areas of thought. Both scienceand the humanities have important things to say about human origins, for example. And solvingthe riddle of human origins appears to be the key to answering many of our biggest questions.Near the middle of the twentieth century, British scientist and novelist C. P. Snow described thedisconnect between science and the humanities in his now famous book, The Two Cultures andthe Scientific Revolution. He wrote that the intellectual life of all of western society is split intothese two cultures (science and the humanities) that have a terrible time trying to communicatewith each other, and that this is a major hindrance in solving the world’s problems.1 The tragedyhere is that humanity needs
industry.Most undergraduate computer engineering programs require a 1-year senior capstone designcourse. In this Program, team projects start in the first semester and are required in each of thefollowing semesters. As they develop through the Program, students have increasingly morecreative control over their projects and are responsible for component selection, design, testing,and implementation of their own hardware and/or software systems. Design constraints that areencountered in industry are followed, such as developing use models, cost, power, andportability. Examples include robotic toys, human interface devices, hand-held gaming consoles,and a stratospheric balloon data acquisition / telemetry system. These projects complementrigorous
wild” will be noted. Based on this feedback, we have produced four new variations on the inquiry-‐based Page 26.463.2activities. These involve: a) replacing the students’ experiments with simulations; b) replacing the students’ experiments with the students observing the experiment 1 as an in-‐class demonstration; c) the students’ watching the simulation as an in-‐class demonstration and d) replacing both
. On the right side, thefractions of each phase present areshown in a bar graph, and thecomposition of each phase is abovethe bar for that phase. In order to Figure 1 Interactive simulation for vapor-liquid-liquidrepresent the behavior on the T-x-y phase equilibrium. This simulation is located at:diagram when three phases are http://demonstrations.wolfram.com/VaporLiquidLiquidEpresent, a slider for heat added is quilibriumVLLE/.manipulated instead of temperature.In this way, when more heat is added at the temperature where three phases exist, the relativeamounts of each phase change, but the temperature remains constant until one of the phasesdisappears. A second example from thermodynamics is shown in Figure 2 for
,including “evaluate the effectiveness of a designed experiment…verify and justify the solution toa complex civil engineering problem…develop and evaluate new, advanced technicalknowledge…synthesize and explain the relevance and application of new, advanced technicalknowledge…” and so on [1]. This list is admirable in its strong connection to the field of studyand the intended purposes of graduate studies, and is one that likely represents key desired out-comes of any graduate program. However, we suggest that this list does not capture many of theknowledge, skills, and abilities (KSAs) required for success in academic settings (e.g., identifiedin typical advice to faculty publications [2]). The lived roles of engineering educators includeswork well
that will engage users and other designers, engineers and stakeholders. Compellingstories promote and manifest a user-centric approach often forgotten especially in theengineering world when focusing only to the technical approach of the problem. Here is howeffective storytelling addresses the four story message problems described above: 1. The in-the-moment response to the perfectly rehearsed narrative articulated by engineering and business students, such as John, can serve to help them identify moments when they lack empathy. He heard that his approach was ineffective because of explicit comments by the students in the class. As a result, he will try other, not so practiced approach that can encourage true