Technology (ETEC), with at least 50 sustainingenrollments of 200+ students in fall 2010 according to ASEE data. On the other hand, since the1980’s only about 14 institutions have created master’s degrees in ETEC. Some M.S. programshave evolved from Master of Science in Technology (M.S.T.) or Master of Technology (M.T.)versions. One fundamental question posed in the debate is whether ETEC curricula rise to thenecessary scientific rigor of traditional M.S. degrees. This paper asserts that the M.S. in ETECshould stand on equal footing with M.S. programs in any other field and particularly inengineering when viewed from the perspective of (i) the scientific level of graduate ETECcourses; (ii) the roles that ETEC graduates perform in the engineering
. The Behavior latent variable is defined by the DISC instrument as a measurement model,where the four manifest variables Dominance (D), Influence (I), Steadiness (S), and Compliance(C) are depicted in Figure 3 [18] [19]. D I BEHAVIOR S C Figure 3. Hypothesized KEEN-TTI DISC Measurement ModelIn a similar fashion the Motivation and Skills latent variables are described by specific manifestvariables derived from TTI questionnaire items. The Motivation latent model is described by sixmanifest variables: Theoretical (TH), Aesthetic (AE
developing their original three concepts and 10 minutesmodifying other students’ concepts according to the modified 6-3-5 method.Measuring Creativity and Feasibility of the ConceptsIn this study we chose to measure the creative outcome rather than the creative personality of anindividual because the outcome is usually most important in engineering applications. There areseveral ways of measuring the creative outcome of a concept. Shah et al.’s novelty metric36 iscommonly used in engineering and was thus chosen for the innovative measurement criteria ofthis study. Before the metrics could be applied, each concept was analyzed holistically anddecomposed into a set of features. Once a set of features was identified it was then divided into a
. Page 10.508.7 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering EducationFigure 3Distribution of Learning Styles Overall 8.67% Learning Styles Acco m m oda ting As s im ilating C onverging D iverging 11 .22 % 29 .34
the terminals corresponding to input voltage, Vi, output voltage, Vo, one inductor current,iL, and controlled switch, S. The controller output variable is the switch duty cycle, δ.2.1 Fuzzy Controller Design Primarily, students will decide on the state variables of each converter topology that can betaken as the input signals to the controller. The controller-input variables include, output voltageerror, inductor current error, and inductor current, which will be used for current limiting only.Consequently, the input to the converter unit would be a signal proportional to the converter dutycycle that is actually the output of the controller. After choosing proper fuzzy variables as inputand output of the FLC, students must decide on the
. Six question items were identified as important outcomes: overall satisfaction (OS),feeling of being rewarded for efforts (RE), feeling of being stimulated and challenged (SC), op-portunities for career advancement (CA), length of time in an IT job (TJ), and salary (S). Thus,twelve regression equations were developed: six for the first job and six for the current job. Ta-ble 1 lists the outcome and predictor variables used for these analyses (All tables appear at theend of the paper). SPSS software was used in all of the analyses. The straight-forward approach to developing these relationships would be to offer all ofthe candidate predictor variables to SPSS and let it select the subset which provides the bet fit asmeasured by the
Session 3261 Ethics & HSS in Engineering Addressing the Liberal Arts in a Core Engineering Class: Theology, Philosophy, Social Ethics, and The Second Law of Thermodynamics Dr. David W. Shaw and Dr. James S. Gidley Department of Engineering, Geneva College, Beaver Falls, PAIntroductionCan an engineering professor address theological, philosophical, and social issues in a coreengineering class in a way that is relevant to the core content of the class? Our answer is yes.We have been addressing such issues for more than a decade in an introductory thermodynamicsclass required of all students in the general engineering program
consideration will be incomplete,and it will lead to possible going out of context and the outcomes may be undesirable; 3) Also, one can embed or built-in the design context within the MDT itself.Note that for each decision point the branches of the tree are generated in the same way as in theDTA. The basic question to ask is: How many ways can I accomplish this task? An example of athree-level deep Modified Decision Tree (MDT) for the system S ( Figure 3) is shown inFigure 4. The square nodes are the decision points (DPs). The circular nodes are the outcomes. Eachoutcome consists of a set of alternatives. For example, in Figure 5, the outcome node SS2 contains thealternatives m, p, and u. Also, in Figure 4, the outcomes SSj, j = 1,2,..8, can
Research We reviewed a total of 13 studies for the second component of our critical analysis.First, we reviewed classic retention studies by Astin 4,29 and Tinto 30, which have been frequentlycited as germinal research linking the construct of social engagement to college student retentionand/or academic success. Nora et al.’s study6 was reviewed as an example of more recentempirical investigations using an extensive national dataset. Next, we analyzed 10 empiricalstudies that examined relationships between peer-oriented social engagement and measures ofcollege student adjustment/persistence (e.g., retention, GPA, other persistence measures) inengineering education. We specified four criteria for the inclusion of a study in our review: a
has always been believed that if there is a “fit”between the learner‟s preferred teaching style and method of instruction, the outcome wouldbe happier and more academically successful learners, although research often fails to sustainthis theory6 . As observed from the reviewed literature, one of the main problems inassociating the magnitude of data to successful learning is that knowledge is augmenting at anexponential rate7, 5. If teaching concentrates merely on content and opportunities to developmeta-cognitive strategies are limited, alumni will experience significant difficulty keeping up-to-date with their respective disciplines5. Whilst joining in with the debate, Kolb8 saw learningas a cyclical process comprising of a series of
graduation rate, assuming continuous enrollment).Ohland et. al. [4] present an extensive analysis of retention measures and studenteducational experiences at the undergraduate level. This paper uses the large, multi-institution dataset MIDFIELD (Multiple-Institution Database for InvestigatingEngineering Longitudinal Development) which contains records of over 75,000 studentsin engineering during the years of 1988 through 1998. Ohland and his colleagues [4, 7]determined that eight-semester persistence is highly predictive of six-year graduationrates. But, using eight-semester persistence can underreport the persistence of women tograduation. In general, it is shown that paths of persistence are nonlinear, gendered andracialized, so that it‟s
onReflections. Some quotes on the personal impact of filling in Meta Reflection on Reflections areshown below. Some quotes include:Wrap-up on Points of Interest: Across a semester what was the impact of Interest Points on your attitude & interest?"Relating things to my daily life helps me to retain info better"Wrap-up on Muddiest Points:Did your responses to Muddiest Points help you identify your issues on content andconcepts?"The muddiest point helped me realize what I may not be aware of"Did discussing Muddy Point(s) at the start of next class help your understanding (or not)?"Questions other people asked helped because, many times they were questions I didn't think toask"Wrap-up on Learning Points: Did your responses on Learning Points help you
also how the direction of the force is related to the direction of the movement. If wepull straight up on the box and the upward force is less than the box’s weight we will reduce the contact force of the floor on thebox, but will do no useful work moving the box across the floor. If the force pulls directly in the direction that the box moves theforce does the most useful work. The work is therefore W = F s = F *s * cos(), where F is the size of the force, s is thedistance the object moves, and is the angle between the direction of the force and the direction of motion. Note the F s,which is read as “F dot s”. This is not the same as F * s (F times s), but is rather called the “dot product”. In general, A B =A * B * cos(), where A and B
importance of creating theseopportunities for college retention.VII. ACKNOWLEDGEMENTThis material is based upon work supported by the National Science Foundation under Grant No.DUE-1832553. Any opinions, findings, conclusions, or recommendations expressed in thismaterial are those of the author(s) and do not necessarily reflect the views of the NationalScience Foundation. The authors would like to acknowledge Jason Osei-Tutu, Dr. RuzicaTodorovic and Bridget O’ Connell for supporting our research and facilitating the Center ofExcellence for Engineering and Computer Science at Wilbur Wright College, City Colleges ofChicago. This research is derived from the research “Building Bridges into Engineering andComputer Science” that is approved by the City
an accessible and reliable assessmentsystem for assessing conceptual STEM understanding for colleges and universities that aligns withSTEM curriculum and uses Artificial Intelligence (AI) based assessment methods. Table 1: Operational Definition of Terms Term Operational Definition Example(s) Proficiency The proficiency of a person reflects the probability • Percentage correct on of answering test items correctly. The higher the static exams. individual’s proficiency, the higher the probability • Theta estimate on CATs. of a correct response. Different fields refer to proficiency as ability, latent trait, theta. Content
(Instructor 1: M = 4.79, SD = 1.64; Instructor2: M = 6.12, SD = 1.30). On average for both sections, students’ lowest ratings were for thebenefits that videos would have had during their sophomore year (M = 5.22, SD = 1.77).Figure 1 shows the distribution of student ratings for each question in the survey. Distributionsfor Questions 1, 2, and 4 were negatively skewed as students rated these aspects highly. For bothsections, distributions were similar for Question 1, “Helped in being knowledgeable aboutcurrent ethical issues in computing” and Question 4, “Picking your own ethics topics.” Instructor2’s section gave higher ratings to the importance of analyzing ethical implications of capstoneprojects. The two sections were somewhat opposite in rating
pedagogical strategies that harness the strengths of agile frameworks to enrich the educational experience of students. References[1] D. Lopatto, “Undergraduate research as a high-impact student experience,” Peer Rev., vol. 12, no. 2, pp. 27–31, Mar. 2010.[2] J. O. Shanahan, E. Ackley-Holbrook, E. Hall, K. Stewart, and H. Walkington, “Ten Salient Practices of Undergraduate Research Mentors: A Review of the Literature,” Mentor. Tutoring Partnersh. Learn., vol. 23, no. 5, pp. 359–376, Oct. 2015, doi: 10.1080/13611267.2015.1126162.[3] G. D. Kuh, “High-Impact educational practices.,” Peer Rev., vol. 10, no. 4, pp. 30–31, Sep. 2008.[4] S. Aggrawal and A. J. Magana, “Undergraduate Student Experience with Research Facilitated by Project
defined as a limit of Riemann sums. White down the limit form and then decide 𝑏on the units of ∫𝑎 𝑓(𝑥)𝑑𝑥 .Fancier version: assume g(s,t) is a function of two variables, where s is measured in v units and tis measured in w units and g is measured in o units (for output) .Write down the limit and difference quotient that is used to find ∂g/∂s.What does that make the units of ∂g/∂s ? 𝑏 𝑑What would be the units for the double integral ∫𝑎 ∫𝑐 𝑔(𝑠, 𝑡)𝑑𝑠 𝑑𝑡 ?Reflection: 1. Did you remember how to obtain units on derivatives and integrals? (Please elaborate) 2. Does this exercise refresh your understanding of calculating units from Calculus I or Linear Algebra
Murzi, H., 2023, “Board 2A: WIP: Opportunities in Cultural Dimensions between Architecture and Civil Engineering Students in Ecuador,” 2023 ASEE Annual Conference & Exposition.[10] Shaaban, K., 2013, “Practical Teaching and Its Importance in Teaching Civil Engineering,” Global Innovators Conference 2013, Hamad bin Khalifa University Press (HBKU Press), College of the North Atlantic-Qatar, Doha, Qatar,.[11] Cai, H., “A Practical Teaching Model in a Civil Engineering Course.”[12] Emzain, Z., Qosim, N., Mufarrih, A., and Hadi, S., 2022, “Finite Element Analysis and Fabrication of Voronoi Perforated Wrist Hand Orthosis Based on Reverse Engineering Modelling Method,” J. Appl. Eng. Technol. Sci. JAETS, 4
, has gained attention from the computingeducation community over the last few years [1]. The focus in PI is active student engagementthrough discussion, involving students in the answering and discussion of multiple-choicequestions. This is typically accomplished by obtaining real-time student feedback through theuse of student response systems in class as the students learn the topic.SOLID is an acronym that denotes five basic principles widely used in designing software builton the .NET platform. S stands for SRP (Single Responsibility Principle), O for OCP (OpenClosed Principle) L for LSP (Liskov Substitution Principle), I for ISP (Interface SegregationPrinciple) D for DI (Dependency Inversion Principle). The main purpose of these
Paper ID #44107Whistle While You Work: Drivers and Impacts of Happiness at Work forEngineersMr. Seth Claberon Sullivan, Texas A&M University Seth Sullivan is the Director of the Zachry Leadership Program in the College of Engineering at Texas A&M University. Prior to joining the university, he worked in consulting in the private sector and as an analyst in the U.S. Government. Heˆa C™s earned ©American Society for Engineering Education, 2024 Whistle While You Work: Antecedents and Impacts of Happiness at Work for EngineersAbstract This research explores the
improving the set of concepts available for furtherdevelopment in the design process.AcknowledgementsWe are grateful to Jamie Phillips for inviting us to his classroom to work with his students. Thiswork is funded by The National Science Foundation, Engineering Design and Innovation (EDI)Grant 0927474.References[1] Ahmed, S.; Wallace, K. M.; Blessing, L. T. M. (2003). Understanding the differences between how novice and experienced designers approach design tasks. Journal of Research in Engineering Design, 14, 1-11.[2] Cross, N. (2001). Design cognition: Results from protocol and other empirical studies of design activity. In C. M. Eastman, W. M. McCracken & W. C. Newstetter (Eds.), Design knowing and learning: Cognition in design
you think about graduate school? FemProf Participant: Even though I already did research, I didn‟t really understand very well the whole entire master‟s/Ph.D. degree process. At the first school I was a tutor, and really enjoyed that. Since I‟m studying engineering, I just don‟t want to be a teacher in high school, and didn‟t understand how to become a professor. FemProf coordinators have given me seminars and how about grad school works, and I have talked to them individually about their experiences in the doctoral degree, as the doctoral degree sounds like a super-hard thing but it‟s actually not as scary as it seems.Program directors highlight ways women can support one another in their
of the author(s) and do not necessarily reflect the views of the NationalScience Foundation (NSF). The authors also wish to thank Karen Clark, Research Assistant,Institute for Public Policy and Survey Research, Office for Survey Research at MSU for hertimely and efficient programming, survey administration, and data retrieval. We are alsoindebted to Mr. Timothy Hinds, the instructor of EGR 100, who has generously allowed us touse his class as a contact point for the CF program.Bibliography1. Seymour, Elaine and Nancy M. Hewitt (1997). Talking about Leaving: Why Undergraduates Leave the Sciences. Boulder, CO, Westview Press.2. Keller, J.M. (1983). Motivational design of instruction. Instructional-design theories and models: An
traditional formative frameworkassociated with K-12 education, but rather, in relation to what one might deem, the positiveoutcome framework associated with students majoring in STEM areas at the university level.The motivation for this approach is based on an argument that, while university students inSTEM disciplines are considered as STEM education achievements, fundamental flaws in basicconceptual mathematical knowledge persist; flaws that if more aggressively addressed at the K-12 level could result in attracting more youth to pursue STEM interests. The argument is basedon personal anecdotal evidence associated with the author‟s experiences. Hence, it does not havea rigorous foundation. Nonetheless, it is an argument that will hopefully resonate
: Summative instructional events are now presented. Knowledge and learner centered. Go public: This is a high stakes motivating component introduced to motivate the student to do well. Learner and community centered.Challenge 2…NThe following progressively more ambitious challenges enable the student to increasinglydeepen their knowledge of the topic being explored. Repeat the complete legacy cycle for eachchallenge.Reflect BackThis gives student the opportunity for self-assessment. Learner centered.Leaving LegaciesThe student is asked to provide solutions and insights for learning to the next cohort of students,as well as to the instructor(s). Community centered. The legacy cycle contains steps or activities that appeal to
Session 2155An Emerging Template for Professionally Oriented Faculty Reward Systemsthat Supports Professional Scholarship, Teaching, and Creative Engagement in Engineering Practice for the Development and Innovation of Technology D. A. Keating, 1 T. G. Stanford, 1 J. W. Bardo, 2 D. D. Dunlap, 2 D. R. Depew, 3 G. R. Bertoline, 3 M. J. Dyrenfurth, 3 A. L. McHenry, 4 P. Y. Lee, 5 E. M. DeLoatch, 6 S. J. Tricamo, 7 H. J. Palmer 8 University of South Carolina 1 / Western Carolina University 2 / Purdue University 3 Arizona State University East 4 / California Polytechnic State
the atmosphere. One protégé's mentor was described as"more interested in blowing his own horn than in any meaningful interaction." Another protégéagreed: "I have a lot of anger about my interaction with my mentor. All he did was offend andtalk and never listened to the protégés."7The Montclair State program described above relies heavily on the group as mentor, anetworking mentoring model discussed above.2, 3 As will be seen below, that approach stands insharp contrast to the Purdue's Faculty Mentoring Network program's reliance on the dyadicinteractions of mentor and protégé(s).The Faculty Mentoring Network at Purdue UniversityThe Faculty Mentoring Network (FMN) was conceived and implemented by the TeachingAcademy at Purdue University. The
the best word(s) to branch on at each point to reduce the overall error. The result tends to be a more accurate tree (as each branching word is explicitly chosen to reduce the classification error), but for a non-‐trivial increase in the amount of time needed to identify the appropriate words. Each item took between 8 and 10 hours for this algorithm to identify the final
Foundation. The authors would also like to acknowledge Lauren Gibboney, JosephLuke, James McIntyre, John Nein, and Joshua Rush for their work developing the Adaptive Maptool.6. References[1] T. L. Russell, The No Significant Difference Phenomenon. North Carolina State University, 1999.[2] D. F. Dansereau, “Node-Link Mapping Principles for Visualizing Knowledge and Information,” in Knowledge and Information Visualization, vol. 3426, S.-O. Tergan and T. Keller, Eds. Berlin, Heidelberg: Springer Berlin Heidelberg, 2005, pp. 61–81.[3] G. W. Ellis, A. Rudnitsky, and B. Silverstein, “Using concept maps to enhance understanding in Engineering Education,” International Journal of Engineering Education, vol. 20, pp. 1012–1021, 2004.[4] M. W. A