in the pre-lab questionnaires. Thepercent increase in the average scores for all labs range between 22-75%. The percent increase orimprovement was seen to increase through the labs from lab 1 to 5; a trend that would requirefurther investigation to see if it was related to improved performance as the course progressed ordue to more familiarity in one topic than the other.Keywords: active learning, team oriented, interactive learning, student centered, students’ survey, prepost questionnaires testing.IntroductionFluid mechanics is a traditional required course in the engineering and engineering technologyprograms. Students from different majors including mechanical, electrical and/or civil engineeringare required or are interested in taking
communications and created a digital ecosystem, which allows everyone toconnect to each other easily [1-2]. People of any age have used the Internet at some level for eitherwork or personal use, e.g., ordering food, online shopping, sharing a picture and a video,videoconferencing, online education, etc. From a business perspective, the expectations ofcompanies, especially which have offices spread over a wide geographical area, have changed, asthey cannot manage their daily operation or financial activity without the Internet. Being able toaccess information at a high data rate and in a secure manner is crucial for a company in this digitalage. The huge pressure in the economy as well as in the society for highly qualified workforce indata
programs as juniors. TheePortfolio is created as part of a transfer seminar course that meets just before and during theirfirst semester at university. The course has three purposes: 1. Orient to the university 2. Synthesize learning from Associate of Science (AS) 3. Identify and complete any prerequisite knowledge for junior level courses.Some material may be included in the university freshman and sophomore course, but notincluded in associate of science courses at community college. The creation of an ePortfolioduring the transfer seminar assists with the synthesis of previous learning and filling in any gapsin knowledge needed for rest of the BS plan of study.To guide the artifact selection for the ePortfolio, university faculty reviewed
, Industry 4.0 focus, and research targetedindustry. Introduction The rise of Industry 4.0 transforms the workplace [1]. New technology reducesproduction costs while increases the product quality with more efficient work processes[2]. While it is plausible that Industry 4.0 improves people’s overall life satisfaction, atthe meanwhile, this rapid change causes anxiety among employees because advancedtechnology may replace human workers, especially blue collar workers [1, 3]. Forexample, in a traditional warehouse, workers’ job, which includes operations of pickup,delivery, and bookkeeping are highly repetitive [4]. Even for those who stayed,cooperating with machines or using new technologies bears
in each circuit state. The terminal values of each circuit state are matched with beginning values of theobjects in the next circuit state. Details of classes, methods and functions will be presented in the full paper. Thepaper presents examples of Buck, Boost, BuckBoost, and other converter topologies. This methodology is generalenough to generate waveforms in several DC-DC converters and inverters.1. INTRODUCTIONThe steady state operation of power converter is fairly complex and require clear understanding of circuitconfiguration which may not necessarily be constant over a period of time. Analysis and Spice simulation are twowell-known methods of obtaining the time-domain waveforms of voltages and currents in different parts of
c Society for Engineering Education, 2020 Workshop Development for New Frontier of Mechatronics for Mobility, Energy, and Production EngineeringAbstractMechatronics matches the new trend of convergence research [1] for deep integration acrossdisciplines such as mechanics, electronics, control theory, robotics, and productionmanufacturing, and is also inspired by its active means of addressing a specific challenge oropportunity for societal needs. The most current applications of mechatronics include e-mobility,connected and autonomous vehicles (CAV), robotics, and unmanned aerial vehicle (UAV).The growing mechatronics industries demand high quality workforces with multidisciplineknowledge and training. In this
adevice, such as entering a security code and actuating an electric door lock. Early evidenceindicates that rural kiosks can help villagers improve their economic standard of living byexpanding livelihood options and empowering them with information, tools, goods, and services(such as education and healthcare). 1 In the ever-changing culture of today, it seems that the worldcontinues to move toward “computer-facilitated self-service technologies” like ATMs,pay-at-the-pump gas stations, and self-checkout at grocery stores tend to unveil both supportersand critics of the idea. 2 A reporting kiosk is simply a stand-alone machine that resembles an ATMor it can be a dedicated computer where a probationer can report for required check-ins with
University, Stillwater, OK have been exposed to state-of-the-artautonomous vehicle technology as an interdisciplinary senior design project. The project wasintroduced as a competition among teams consisting of electrical engineering technology (EET),fire protection safety engineering technology (FPSET), and mechanical engineering technology(MET) students. The objective of the project was to design a vehicle that can autonomouslynavigate a specified course at high speed while completing an assigned mission. The learningoutcomes of the project are: (1) evaluate students for their ability to think beyond the classroomeducation while solving an important societal problem, (2) gain experience working in aninterdisciplinary team of students with diverse
magnetism and describes the new laboratories and lectures in detail. While thiseffort is an ongoing work in progress, preliminary lessons-learned and future work are discussed.Introduction and Background The link between engineering student retention and their math/science preparation haslong been recognized. It has been shown that students who perform poorly in their firstadvanced math or engineering science course are more likely to struggle or even not completetheir intended engineering degree. For example, a study done by Laugerman et al at Iowa StateUniversity showed a strong correlation between performance in the first engineering calculus andphysics course and engineering graduation rate.[1] As second study done by Bischof at
only journalarticles within the reported results. The focus of the systematized review was to findpeer-reviewed journal articles which were focused on student learning, participation andengagement experience in engineering massive open online courses.The applied search strings and subsequent results from each database are shown in Table1. There were 11 results in Education Source, 23 in Scopus, and one result in ERIC.Following the method advised in Preferred Reporting Items for Systematic reviews andMeta-Analyses (PRISMA) guide Moher (2009), four duplicates were removed from thecollated databases for a total of journal articles 35. The PRISMA flowchart Moher (2009)for the searching and refining process can be seen in Figure 1 at the end of
demonstrations for their project, they must have enough knowledgein design, analysis, fabrication, and testing. In ESET program, most courses with courseprojects use about half of the semester for regular laboratories and only about seven weeks fortheir course projects. Given the time limitation, making a gadget for the Mimi-Maker Fairecould be a challenge for some lower level courses. In Make Culture, people are supposed tolearn many knowledge and skills on their own before they can make gadgets. As students movethrough the ESET program, they know more and more about designing electronic gadgets. Control System (ESET 462) is a senior level course. Students typically take this coursetogether with their Capstone I (ESET 419), as illustrated in Fig.1
to market needsfor those with knowledge and skills in additive manufacturing. Thorsteinsson and Page [1]discussed the evolution of 3D printing and Industry 4.0 and remarked that “Industry 4.0 is touted,by many, to change the lives of millions over the next several decades. Industry 4.0 is a term thatseems to be synonymous with 3D printing, also known as additive manufacturing”.The literature suggests that students and graduates who possess direct metal additivemanufacturing techniques knowledge and skills have a career advantage compared to studentswhose knowledge and skill base is limited to plastic printing [2]. Therefore, there has been arecent interest among institutions in direct metal additive manufacturing. Many institutions
comprehend.As an alternative pedagogical method, we provide these concepts to students through laboratoryexperiments, as it is very important for electrical engineering technology students to acquirehands-on training. To facilitate understanding of the PID controller, we use the Amatrol T5552process control learning system that has a built-in Honeywell PID controller. In order to see theeffects of different control types, we experiment in three different control modes: (1)Proportional (P) mode, (2) Proportional-Integral (PI) mode, and (3) Proportional-Derivative (PD)mode. We analyze each control mode characteristics and draw comparisons among all controlmodes. Finally, we provide student course assessment and course evaluation feedback toillustrate the
. While engineering technology ethical case studies exist, most have a technical focus.In contrast, the ASEE Prism case study related to the publication of a letter to the editor fromWayne Helmer [1], a professor of mechanical engineering in Arkansas, offering the “truth aboutthe homosexual /lesbian/ bisexual/ transgender lifestyle” can prompt a classroom discussion ofsexual orientation within an engineering and legal context. The event offers engineeringtechnology students a context-based tool to evaluate the clash between statements of policy, freespeech, intolerance, and opinion. This case study exercise is designed to illustrate howprofessional and ethical standards intertwine and relate to real life situations while avoiding adebate over
Association of Fire Fighters (IAFF), the injuries rate in the fireservice is four times greater than in private industry, with almost a third of firefightingpopulation being injured in the line of duty [1]. Due to the combined physiological andpsychological demands of firefighting, firefighters must go through extensive training whichtypically takes place in a physical environment “classroom’’ with the implementation of thestandard operating guidelines taking place during live - fire training scenes [2]. These scenesrequire tremendous efforts and assets including training personnel, specialized training facilitiesand carefully planned live - fire scenes, as well as new training models for each single trainingactivity [2]. There is a claim that the
lagging. This is evident from the scant current availably of programs at alllevels of education and workforce development (EWD) nationwide. The Commonwealth ofVirginia has no EWD programs in the robotics technology area. This project was funded by theAdvanced Robotics Manufacturing (ARM) Research Institute [1] and all the requirements wererelated to Robotics Curriculum development.The challenges of the development of Robotics curriculum are well explained in the classroomenvironment [2]. The early childhood exposure to Robotics play an important benefit in roboticstechnology and is discussed in [3]. There are several U.S. Department of Education statisticsand information available [4-11] on workforce development in robotics, manufacturing
assess the performance of the project, an instrument was developed withmultiple-choice problems and survey questions for the students. The results of a field test in asophomore manufacturing class are presented. The module is available at the ASME Dropboxand the developers are seeking other colleges to promote the project and participate in thefield test.1. IntroductionAfter surveying 2500 industry engineering supervisors, early career mechanical engineers andME Department Heads it was found that 46.9% of industry supervisors state a weakness inunderstanding of standards among ME/MET graduates and 48.3% of early career engineersstate their own weakness of standards understanding1. In addition, under the programcurriculum section in the self
Design, Construction and Testing of a Soil Sterilizer- A Student Design ProjectAbstractRoot-knot nematodes are microscopic worms that live in soil and feed on the roots of manycommon garden crops. Many species can develop from egg to egg-laying adult in as little as 21to 28 days during warm summer months. Root damage causes formation of galls and gallsdamage the water-and nutrient-conducting abilities of the roots. Plants heavily infested early inthe season can die.Students’ task was to design, construct and test a soil sterilizer to kill nematodes. Sterilizershould be capable of raising sandy soil temperature by 70oF (from 60oF to130oF) in less than halfan hour. Targeted soil volume was 1.5-ft in diameter and 1-ft
, overall system operation and necessary LabVIEW TM Virtual Instruments (VIs) areprovided. This unique senior design project also provides necessary assessment data for both seniordesign and Instrumentation and Data acquisition courses in a B.S. in Engineering Technology Program.IntroductionA number of indoor irrigation systems were developed with multiple objectives such as improvedefficiency, quality, and reduced cost. A wireless plant irrigation robot system constructed based on a well-known ZigBee system investigated how to overcome the limitations of the fixed sprinkler system andavoid large space consumption [1]. The authors recommended the use of solar photovoltaic (PV) panelsand rechargeable batteries to enhance the system efficiency
correspond to ASTM standards for various materialproperty tests but do not accurately represent many real structures [1, 2].To increase students’ learning interest, enhance the understanding of knowledge, andimprove their learning outcomes in beam deflection while highlighting the effects of realprocesses, a group laboratory project has been designed and implemented at the PurdueUniversity Kokomo campus. Students here are primarily commuters, with up to 15students in a typical engineering technology class, and most classes taught in a studioformat. The campus culture tends to emphasize efficient completion of all educationaltasks performed by students. As a side benefit of the designed beam deflection laboratoryproject, students gain experience with
*NEToccupational data to determine current and future engineering technology skills neededby manufacturers.[1] As Paul Nutter et al states, “Academic programs can benefit byassessing their effectiveness to fulfill the needs and expectations of manufacturingindustries, gaining insights for appropriate curriculum revisions to enhance the job-readiness of students to serve these ‘customers’ of our academic services.” [2] Thecommittee supported the viewpoint that many students will find engineering technologya better educational fit than the existing engineering degree program offered at theuniversity.The steering committee aligned BSET goals, outcomes and proficiencies to ABETaccreditation guidelines, which will be used to track students’ mastery of the
experience while on campus. The aims of the coursewere to (1) help undergraduate students who are interested in research connect with facultypartners who are committed to mentoring undergraduates in research, (2) to guide students inreading through papers that introduce the type of research being carried out in a faculty partnerslab, (3) to guide students in drafting a mini-review of 5 papers relevant to that research, (4) toguide students in identifying and writing up a research proposal which they will complete in thelab of the faculty partner. In the first year, six academic departments out of eight participated inthis new course by offering a cross-listed course for their students under one major course taughtby one of the PIs at the STEM Center
distribution systems analysis, design automation, systems engineering, and engineering technology education. c American Society for Engineering Education, 2020 Development of Senior Design Sequence with Integration of Undergraduate Research ComponentIntroductionResearch experience for undergraduate students is a proven powerful pedagogy, which not onlyhelps students apply disciplinary knowledge and acquire workplace skills, but also contributes toimproving students’ organizational and problem-solving skills. There is extensive literaturedocumenting the value of undergraduate research on student learning [1] and the Council onUndergraduate Research (CUR) provides leadership in
. IntroductionResearch has found that higher quality mentor-mentee relationships produce better outcomes [1].Ergo, recent studies focus on discerning factors that produce higher quality mentoringrelationships. In higher education, numerous scholars have focused on mentor-menteerelationship regarding the population of college engineering students. But the impact of thementor-mentee relationship on students’ self-efficacy in STEM teaching remained scarce. Firstof all, the interactions between STEM students and their mentors are infrequently enough,particularly the ones between racial/ethnic minorities students and their mentors [2]. Second, theculprit may be the lack of structure of how to assign different mentors to students or concreatefindings of what exactly
-50%. The resultsof the study will be discussed in detail along with a description of how the authors have used thevideo tutorials for transitioning the traditional engineering technology courses to hybrid or onlinecourses.Introduction and BackgroundSeveral studies have shown that students learn better with hands-on laboratory activities. In thebook “Learning Science and the Science of Learning,” Michael. P. Clough states that [1], “beforeaddressing the role of laboratory experiences, where we wish to take students must first bearticulated”. For example, is the purpose of the laboratory exercise to develop a deep and long-lasting understanding of concepts or developing skills for effective science inquiry? However,even if the labs are
: Pilot ImplementationAbstractThis paper describes the authors’ efforts to apply project-based learning (PBL) to a senior levelmechanical engineering technology (MET) course at the University of Toledo. The work is aclose collaboration between the engineering and education faculty and the engineering librarianwith the goal of increasing the students’ information literacy and developing their METdisciplinary competency. Students were required to work in teams on a design project whichrequired library research to identify relevant engineering codes and standards, such as theASHRAE standards and codes required to design an HVAC duct system. This project goals alignwith the new ABET criterion 3 (student outcomes 1-5) and criterion 5 (curriculum
strips the end portions of the wire to connect them to terminals, breadboards,other wires, etc. Use of an early wire cutter design (Figure 1 [1]) involved applying an unnecessaryamount of force to bend a wire back and forth until the wire was broken. This left a burr on thecut pieces that needed to be smoothed off with a file. Current hand-held cutters are much improvedfrom this initial design, but there are still concerns about the impact of the repetitive task of cuttingon the upper-extremity musculoskeletal structure. Using poorly designed manual wire stripperscan cause physical health issues over a long period of time such as arthritis, wrist tendinitis andother such disorders. The overall cost of reported injuries to the upper extremities
currently serving as the Interim Chair for the Industrial Management and Technology De- partment. c American Society for Engineering Education, 2020 Introduce Virtual Reality to College Technical Training Program — Intensified VR Training for Safety and Economic EfficiencyIntroductionWith the advancement of technologies in many fields, educational technologies are becoming morediversified nowadays. Especially with the development of immersive learning and educationgamification [1], both the learner and educators are seeking innovative, effective, and cost-efficientways for education today. As educational institutions that offer technical training in colleges, theavailability of the educational technology in
, curriculum, discipline specific content (E) “Include topicsrelated to professional responsibilities, ethical responsibilities, respect for diversity, and qualityand continuous improvement” is addressed in these educational experiences(1). 1. IntroductionEngineering Technology (ET) is one of the six academic departments in the College ofEngineering (COE) at the University of Toledo and it is the largest in terms of number ofundergraduate students enrolled, currently around 1000 students. The ET Department offersABET-accredited Bachelor of Science degrees in five areas of study, namely Computer Scienceand Engineering Technology (CSET), Construction Engineering Technology (CET), ElectricalEngineering Technology (EET), Information Technology (IT), and
ASEE’s Engineering Technology Division to develop common strategies to address some of the challenges that all ET institutions faceResearch DataThe data collected at ASEE 2019 Annual Conference was gathered from 12 participants whoattended many of the engineering technology program sessions. Some of this data may speakto the nature of participants who attend the conference and not to those who are in theengineering technology space in total. Below are the questions and answers provided bythose who were interviewed. 1. What types of program do you offer (2-year or 4-year)? 4-Year BSET Program – 100% (12/12) offered this degree 2-Year Associate Program – 17% (2/12) also offered this degree Masters or PhD Program