and non-augmented instruction with respect to 3D printing and wind tunnelexperimentation.IntroductionDue to ease of rapid prototyping, 3D printing techniques are increasingly being adoptedin academic settings for low cost generation of educational and experimental models.Many 3D printers are available now that can print a variety of shapes and sizes indifferent materials. Instructors can now use 3D printed replicas of actual shapes for classroom teaching and demonstration. Some of these models are also used by instructors fortesting and validation of processes and validation of science. Some of the educationalexperts have used 3D printing to augment learning and have reported their findings.Ishutov [1] and his colleagues demonstrated how 3D
digital systems are presented. Results, includingengaging strategies, challenges, lessons learned of the undergraduate research based learning arediscussed.I. IntroductionThe importance of involving undergraduate students in research-based learning is presented in alarge number of publications and supported by organizations such as the Council onUndergraduate Research. Faculty members enhance their teaching and contribution to societyby remaining active in research and by involving undergraduates in research, and studentssucceed in their studies and professional advancement through participation in undergraduateresearch [1]. The Boyer Commission suggested that research-based learning should become thestandard for undergraduate education [2].With
c American Society for Engineering Education, 2018 Using Lean Principles to Improve an Engineering Technology Assessment ProcessIntroductionA commitment to quality engineering technology education requires a well-defined process ofcontinuous improvement, as well as a commitment to maintenance and management of that plan.According to Juran [1], managing for quality requires three components: 1. Planning - to determine and understand who the customers are and how to respond to their needs with appropriate processes. 2. Control - to evaluate how well the processes are meeting those needs, as well as providing feedback to all constituents 3. Improvement - to maintain and further improve the
first medicaldevice attack will certainly occur in the future.Medical equipment is defined as devices that have been cleared by the FDA that are intended tobe used for diagnostic, therapeutic, or monitoring care provided to a patient by a health careorganization [1]. Examples of medical devices include patient monitors, imaging equipmentsuch as CT scanners, and anesthesia machines. Almost all medical devices are directlyassociated with the patient in some way.Healthcare Technology Management (HTM) is the name for the profession that supports the safeand effective use of medical technology in the clinical setting. Only a few academic programsoffer training for healthcare engineering technicians and technologists, with most offered at
the majority of users in the US). Since itsversions are backward compatible, and content is never really deleted, its 17 years of operationprobably make it the longest-running learning management system around.The previous paper described Radio Button Response, Option Response (i.e., multiple choicewith more than one correct answer), and Numerical Response problem types, as well as how tocombine them into multi-part problems with calculations that carried forward through some orall of the constituent problems. It also touched on available templates and how to use capabilitiesof the Maxima algebra system, R statistics package, gnuplot plot engine, and Perl scripting [1].Other topics covered by the first paper include pedagogical benefits, such
. 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
discipline is defined as the part of the technological field thatrequires the application of scientific and engineering knowledge and methods combined withtechnical skills in support of engineering activities; it lies in the occupational spectrum betweenthe craftsman and the engineer at the end of the spectrum closest to the engineer 1, 2.The Electrical Engineering Technology (EET) program at Kennesaw State University is housedwithin the Southern Polytechnic College of Engineering and Engineering Technology (SPCEET)on the Marietta, Georgia campus. The program has gone through several changes since the mergerbetween its Kennesaw State University and its original base university Southern Polytechnic StateUniversity (SPSU) in 2015. The EET program was
, critical thinking and reading, annotation, visualswith wordsIntroductionEngineering and technology students require reading skills for effectively summarizing technicalinformation and transforming it into actionable form. Students can sharpen reading skills withpractice under increasingly complex conditions. In the 2019 National Survey of StudentEngagement (NSSE) [1] of four-year colleges and first-year university students, 54% percentnoted that there were some to no assignments that required them to summarize the materials theyread, such as articles books, or online publications. In response to the question (1e) aboutwhether they had "Analyzed or evaluated something you read, researched, or observed," 38%noted to have some or fewer such
mechanical engineering technology problems, and to fosterin students personal development to ensure a lifetime of professional success and an appreciationfor the ethical and social responsibilities of a mechanical engineering technologist and a worldcitizen. To realize such goals, especially for the education of Millennials and Generation Z,faculty need to have deeper understanding of “our” students. The characteristics of Generation Zmay include that they are the most diverse generation, grew up with smart devices, demonstratemore current online behaviors, expect modern experience but take tech for granted, are morelikely to try and figure out problems on their own first, etc. [1-5]. Such understanding will enablefaculty to develop more confidence
math [1].This paper focuses on math anxiety as it occurs in the classroom. The authors would be remiss ifthey did not acknowledge that anxiety associated with math is not only found in the classroombut even outside of academia [2]. The scope of this paper, however, will analyze commonfactors which may contribute to the emergence of math anxiety for students in academia andspecifically whether females and minority students are impacted differently from males and thegeneral holistic student population.Literature ReviewMath anxiety occurs when one lacks confidence or is hesitant when using math, as alsoevidenced from the research study of college student’s anxiety involving simple math problems.One of the biggest issues when one has math anxiety
. c American Society for Engineering Education, 2020 Math Anxiety: Engineering Technology Students Problem Solving Through Rational or Experiential ContextAbstractMath anxiety is a pernicious problem. The issue manifests in a variety of ways, some avoid mathcompletely, while others enact coping skills to avoid the use of math. This study surveys studentswho are pursuing Engineering Technology degrees and delves into the tendencies of the studentsand how they utilize certain types of problem-solving techniques. The survey utilized theinstrument Cognitive-Experiential Self Theory (CEST) [1]. The survey will help to learn theextent to which the students rely on the rational and experiential context of their lives
descriptor of a range of pedagogical approaches and methods. Defined by the founder of theScience Education Specialists program, Professor Carl Wieman, as an “interactive learningstyle” [1], for the purposes of this paper we follow in defining ‘active learning’ as: Active learning: A set of teaching tools, methods, and interactive experiences that promote the active engagement of students with topics during a learning encounter.Active learning has been adopted for use within engineering education for its ability to facilitatestudent learning, shown by both comparative reviews of work in the field such as by Prince [2]and quantitative-methods based studies such as by Freeman et al [3]. It should be noted activelearning can encompass
outdoortemperature was cool and adequate, opening balcony doors or windows while keeping the system on, etc.Daily energy consumed for each case was collected using the electrical company’s database who collectsand stores all data using smart meters for the investigated apartment.It was seen that increasing the indoor set temperature by 1-5° F for couple hours in the afternoon or atnight can save up to $80 per month or even more if combined cases were adopted. The results presentedin this study depend on the circumstances of the house where the data was collected and it may notreplicate the same/exact results if applied to other apartments/houses.The project helps the students meet the course learning outcomes in addition to ABET learning outcomesfor MET
prior to the self-study due dateA pivotal part of preparation for a visit is the engagement of faculty in the process. Theidentification of tools that can motivate instructor contributions to the preparation efforts may becritical to success. The use of faculty workshops, incentives, and one-on-one consultations maybe valuable, incorporating strategies identified in the work by Bern, et al [1].ABET on-site review requires samples of student work and course materials, typically textbooks,assignments, and exams. Since some courses may be taught only once per year, planning isgenerally required to gather the display materials. Policies and procedures may not specifyexactly which courses must be documented or how much material is required. However
findings presented in this paper maybe used by interested parties involved in STEM curriculum. IntroductionThe benefits of active learning have been supported time and again in the literature [1, 2, 3, 4, 5, 6, 7, 8,9]. By comparing student learning gains in introductory physics courses, Richard Hake was able to showthat interactive courses were over two times as effective in promoting conceptual understanding ascompared to traditional ones [6]. Freeman et al. reported results from 225 studies across STEMdisciplines, comparing traditional lecture to active learning [5]. In general, students’ average examscores were shown to improve by around 6% in active learning classes. Additionally, students
Connections: Manufacturing Manufacturing CourseFigure 1. Collaborative model for technician education.Through a formalized connection between our two sectors of the college, the credit and non-credits sides, the goal is to modernize the educational experience for our students to assure theyare more workforce ready by establishing a model curriculum that will become a blueprint forother institutions. Figure 1 depicts our collaborative model, that connects our credit side to ourCWD, and highlights manufacturing. We routinely receive solicitations from surrounding companies reaching out to ourcommunity college for technicians to fill internships and job openings, and it is important that wemeet this growing demand. Our Industry Advisory
knowledge base to formtables of subject, action, and application keywords. These tables provide an empirical databasethat will enable future evaluation of collected student definitions for accuracy. By betterunderstanding student understanding of TMs, the authors hope to provide a resource by whichthe educational community can improve their messaging and better communicate the role andvalue of technology degrees to stakeholders (i.e. students, parents, industry, etc.).I. IntroductionMuch of the research into student motivation relating to choice in science, engineering,technology, and math (STEM) majors share an underlying assumption: selection is largely basedon a correct conceptual understanding of the major [1]. However, little to no evidence
should be addressed by OER use in Construction ManagementTechnology. These include: (1) meeting required student learning outcomes, (2) improvingstudent attitudes regarding educational access, and (3) fostering adaptation of the material toenhance student learning and provide current information. Having previously established aframework for evaluating the effectiveness of implementing OER in a Construction ManagementTechnology course, the current work reports on the performance of OER use in an estimatingcourse. Two sections of the course being offered in the Fall 2019 semester are evaluated hereinbased on cost of materials and achievement of the three goals outlined. These are compared to anon-OER section of the course also being offered in
result, higher learning institutions are working towardsincorporating higher education as a dynamic regional element.The University of Texas Rio Grande Valley (UTRGV), was created in 2013 by the TexasLegislature as an unprecedented and remarkable move to bring together the assets of the twomost important regional higher education institutions: The University of Texas at Brownsville(UTB) and The University of Texas Pan American (UTPA) 1. As a new institution, UTRGV isemerging as a regional research institution working to grow as a leader among minority-servingresearch institutions.As a young institution, with an innovative organization, and with two years since it startedoperations, UTRGV can be proud of a mission on-route: to provide a high
) and oxygen from air to createelectricity. The PEM fuel cell consists of a proton exchange electrolyte membrane sandwichedbetween an anode (negative electrode) and a cathode (positive electrode). The membranesandwiched is technically termed as the Membrane Electrode Assembly (MEA) that consists ofnafion membrane, electrodes, catalyst loading, and gas diffusion layer pressed together. Since themanufacturing of the MEA is time consuming, in this study, two pieces of a 5-layer MEA waspurchased from fuel cell store with customized dimensions.Hydrogen fuel (H2) is admitted to the anode channels as the first reactant gas, where the HORtakes place in the presence of the catalyst [1], causing the splitting of hydrogen's negatively chargedelectrons
versions of asystem and/or components. Watson and Joshi [1] describe FEA methods used on asteering column mounting bracket design of an on-highway construction vehicle thatintegrates Design of Experiments (DOE) with traditional CAD and FEA tools in aconcurrent manner called DRIVE (Design Refinement by Iterative VirtualExperimentation). Another industry where FEA can be very useful is in the design ofautomated manufacturing equipment, welding fixtures, and end of arm tooling in roboticwork cells. For example, some studies [2], [3] indicate that FEA can be used to analyzethe cutting and clamping forces in certain fixture layouts, then these results can be used tooptimize the fixture design. These few studies and many more illustrate the wide uses
knowledge recognition, acquisition, absorption, and application.Therefore, the motivation of learning and the learning process itself is highly influenced by thefollowing two factors: the self-consciousness of the students with the self-driven desire forknowledge, plus the ability of the professor to keep the course attractive and informative.Flip Classroom provides a different approach to stimulate the perception and motivation ofstudents in self-driven learning, self-driven practicing, and testing. By altering from the regularteacher-centered learning patterns, Flip Classroom approach allocates the classroom time aslearner-centered activities [1]. Thus, the strategy of Flip Classroom has attracted lots ofeducational research attention during the
into two concentrations: Engineering Technology and EntrepreneurialLeadership. Over the last few years, the graduate program has seen significant growth. Studentenrollment grew from 28 in Fall 2013 to 56 in Fall 2017. As such, number of degree awardeesalso increased with an average of 15 degrees conferred in each academic year. Table 1 showsMS in Engineering Technology enrollment data and degrees conferred in the last five years. Table 1: MS in Engineering Technology Enrollment and Degree Conferred Enrollment Degree Conferred Term Headcount Term Headcount Academic Year Degrees Awarded Fall 2013 28 Spring 2014 26 2013
significant increase in college students experiencing anxiety,distress, and depression [1-3]. Beiter at el. list academics and the number one source of concern forcollege students [1]. According to Kohn and Frazer exams, pop quizzes, and being unprepared to respondto questions rank 4, 9, and 13 respectively out of the top 35 academic stress factors listed [4]. The effectof stress on learning, both positive and negative is discussed by Vogel and Schwabe [5], and Finch [6].Numerous papers have shown that frequent, short in-class quizzes enhance learning. In-class quizzeshave been shown to promote student attendance, engagement, completion of pre-class assignments, andprovide feedback on performance [7-11]. Performance feedback is useful to both