software algorithms. However, eLearningenvironments can be created that include some of the capabilities of expert teachers and allowstudents to work independently with a virtual teacher looking over their shoulder. Feedback to astudent in an educational software program can have significant and sometimes unintendedconsequences that impact learning effectiveness and persistence. The proposed mini-hintspresented here are an attempt to improve the learning environment in the Spatial Vis trainingapp, and have been developed using guidance from pedagogical theory. This is a Work inProgress, and the actual effectiveness of the mini-hints will have to be assessed througheducational trials.References[1] S. Sorby, “Educational research in developing 3-D
strikingdifference was in the course belonging score on the survey at the end of the semester: 2017average 6.9 (among n=16; small n but nearly 100% rated at highest level of 7) versus 2018average 5.9 (n=64) and 2019 average 6.1 (n=57). The smaller class with shared lecture,recitations, and labs and a high concentration of diverse students appeared to foster communitysignificantly more than the larger 2018 and 2019 courses. But this group also had a much higherpercentage in the Goldshirt cohort which had participated in a summer bridge program togetherprior to the semester. In addition, the larger non-respondent rate in 2017 may be a confoundingfactor; students who felt a stronger connection to the course perhaps opted to take the survey andconsented to
based assessment, the study of periodic gratings used as antennas and in antenna systems, high power microwave interactions with large complex cavities, anechoic chambers, and anechoic chamber absorbing materials. Since 2000, he has been concentrating on engineering education pedagogy, engineering pro- gram accreditation, and outcomes based assessment for both engineering programs and general education. His research continues in the area of inclusive excellence in engineering and computer science programs.Dr. Christina Paguyo, University of Denver Christina H. Paguyo, PhD, is the Director of Academic Assessment at the University of Denver. Her re- search interests focus on designing and examining educational environments
teaching to largesections the focus becomes measuring the students’ ability in solving homework problems and taking tests. Moreand more in higher educatioq we are being exposed to the notions of active and co-operative learning models,and the focus is tending toward small group interaction and group learning. A class structure with large sectionscertainly does not facilitate this mode of instruction.+ There was a relatively even distribution of the types of students in engineering economy classes. This was a bitsurprising to me because I had developed a belief that EE’s, ME’s, ChemE’s and CE’S were, in these days of“squeezed” credit hours, tending to de-emphasize engineering economy in their curricula (or eliminate it) in lieuof other discipline
“GoldWave” by ChrisCraig is offered for trial as shareware from:http://www.goldwave.com/This program is more versatile than the two above, being capable of displaying both the time andfrequency domain representation of both channels sampled by the soundcard. The main aim ofthis program is the use of the sound bord for the recording and reproduction of sound (wave)files. A small registration fee is requested from the user.In some instances, as mentioned for the Spectrum Analyzer, it is desirable to perform a moredetailed analysis of the DSP board output. That would be the case in which the response of thealgorithm in the DSP board to an impulse or rectangular pulse (step) needs to be observed indetail. In these cases the desired input signal could
Paper ID #5788Engineering Education Experience, E3, for Teachers: A Professional Devel-opment Workshop for 6–12 Engineering EducationBette Grauer, Kansas State University Assistant Dean for Retention, Diversity, and Inclusion, College of Engineering, Kansas State UniversityDr. Karen L Roberts, Upward Consulting Dr. Roberts has more than 30 years experience in K-12 and higher education. As Executive Director of Teaching and Learning for a large school district in Kansas, her responsibilities included facilitating professional development, program development, along with curriculum and instruction. She has worked with K-12
Quinnipiac University that is common to all fourengineering disciplines offered. Among the three common courses, it is the only one with atechnical content, requiring analytical work and problem solving. The importance of EngineeringEconomics in Engineering Curricula has been carefully examined in literature, see e.g. Zoghi(2015)18, and the cross-disciplinary nature of the classes were recognized and utilized in teachingpractice through team-based (Martinazzi, 1998)19 and project-based (LeBlanc and Boulanger,2014)20 methods. Commonality across the engineering programs ensures a large class size andmultiple sections. Having multiple sections, and a sufficient sample size in each section, providesthe opportunity for control and treatment groups within
7.279 7.615 0.447 1.000 -0.14 71 54Pell Grant recipient 7.484 7.850 0.421 1.000 -0.14 63 70However, for either USF or ASU individually, flipped instruction was slightly (non-significantly) better for multiple-choice performance, while at AAMU, there were statisticallysignificant differences and large effect sizes in favor of blended instruction. These results aredetailed in Tables 2-4. With the free-response questions, there were slightly better results withblended instruction at USF and AAMU, and the reverse was true at ASU, although thedifferences were non-significant. With the combined free response data, the results wereassociated with small effect sizes
Technology (Web-Net Tech) Certificate Program beingdeveloped as part of the project, distinctive features of the program, innovative teaching/learningstrategies being incorporated into the program, and first year accomplishments and results.The Web-Net Tech Program is being developed by Erie Community College in collaborationwith the University at Buffalo, guided and supported by education-industry partners. This NSFproject (Jeanette Neal, PI; Peter Scott, Co-PI) is designed to assist industry to meet its needs for awell-trained Information Technology (IT) workforce and prepare student s for professionalcareers in IT, focusing on the high-demand area of web-network technology. We define web-network technology to be the design, deployment and
”), modulation capabilities of liquid crystals. Figure 1 shows amounted onto a circuit board. They have become a popular picture of a 16x2 (16-character by 2-row) LCD “characterand powerful vehicle for implementing digital circuits— module”—as used in this project. LCDs are used in a wideespecially due to their “rapid-prototyping” capability [6]. variety of applications—as large screens (from LCDThat is, they can be programmed and tested right at your desk televisions to computer monitors), and as small screens (e.g.via a USB cable connected to a computer with FPGA design watches and calculators). They are useful for displayingsoftware. Although FPGA technology and embedded information and
role in accomplishing this mandate. Research shows that children only spend approximately 18.5% of their waking time inside classroom environments, 4leaving the majority of their time available for learning during outofschool time. In addition to large blocks of time, informal programs have other unique benefits over formal schooling. They offer lowstakes assessments and a greater variety of topics to explore (school curricula tend to focus narrowly on math and literacy due to testing policies). They have also been shown to more deeply engage participants, better encourage direct interaction with realworld phenomena, and
graduating from a prestigious experiential leadership training program in the Spring of 2010. His unique perspectives on leadership come from experiences in both small, private companies with at most ten people to large, public companies that include upwards of fifteen thousand. He has worked as a facilitator, trainer, engineer, mentor, and leader within his ten years of industry experience. As part of a legacy greater than himself, Noah is a true believer in the divine, and seeks strength through diversity in both perspectives and open and honest dialogue. Noah holds a Bachelor’s of Science in Computer Science from the School of Engineering and Applied Science at the University of Virginia, located in Charlottesville
acculturation process. Inaddition, this process can impact students of diverse backgrounds inequitably, with minoritizedstudents facing more negative mental health consequences and feeling like they are lesssupported than their non-marginalized peers. This study explored measures of program climateto assess how students’ perceptions of diversity, equity, and inclusion efforts impact SEMstudents’ self-reported mental health.In this work, we performed a quantitative analysis on the Health Minds Network (HMN) data onSEM graduate students. We calculated bivariate statistics and developed regression models foreach of the four outcome measures while accounting for relevant demographic measures. Wefirst show that there have been changes in students’ self
, Schulich School of Engineering provides acomprehensive tutorial assistance by hiring upper-year Engineering students to work asLearning Assistants in a dedicated, large class room (Devon Academic Resource Centre)where Energy Engineering students can study and seek assistance all day. This learningassistance commitment is at least twice as generous as that offered to other programs andis designed to help the students transition to the new Energy Engineering program.ENER 340 has the following syllabus for the 6-week long Summer term.1. Week 1. Ordinary Differential Equations. Review of single variable calculus– emphasis on chain rule and definite integral–and particle dynamics. Motivation and applications of ordinary differential equations
of South Carolina Beaufort (USCB) studying Computer Science, soon to graduate in December of 2021. I am a first generation college student within my family in the United States. I take an interest in learning how technological solutions are utilized and the effectiveness of these solu- tions. Additionally, I want to be able to understand real-world problems and potential solutions to assess these issues. During the summer of 2021, I took the opportunity to work with an early learning organization, The Children’s Center (TCC), in South Carolina. Continuing the project started by a peer at USCB and working with another peer the summer of 2021, I learned the importance of working with real world problems and
Simulation, Product DevelopmentProcess Engineering, Project Engineering, Decision and Risk Analysis, Systems Integration,Performance Assessment, System Launch Considerations, System Life-Cycle Costing, QualityEngineering, etc.As part of the course and program requirements, students work in E-teams which can includeoutside technical experts as team members or advisors. The E-teams seek funding by completingNCIIA Advanced E-team proposals8 or SBIR/STTR proposals and presenting their businessplans at investor-attended colloquiums and competitions.It is anticipated that the pioneering Systems Engineering Entrepreneurship course and program,with its rigorous cutting edge SE tools and techniques especially in Technology FunctionDeployment, Requirements
file serving as the "table ofcontents". These are placed in a single compressed file on the author's personal website. A technicianfrom Bethlehem University must then download the file in the off hours and install it on a local server.As stated before, it is impractical to upload such a large file from New York.Bethlehem University uses Moodle for its e-learning software. It is practical for the author to use this forposting grades, assignments and other small documents. It can also be used to collect most assignments.Students also use email as the means of submitting assignments and questions to the instructor.A BU faculty member is assigned a one-credit load to act as onsite coordinator. He meets with the classonce a week. At this meeting
1997 with a Hesburgh Award Certificate of Excellence. He served as Project Director a National Science Foun- dation (NSF) Engineering Education Coalition in which six institutions systematically renewed, assessed, and institutionalized innovative undergraduate engineering curricula. He has authored over 70 papers and offered over 30 workshops on faculty development, curricular change processes, curriculum redesign, and assessment. He has served as a program co-chair for three Frontiers in Education Conferences and the general chair for the 2009 conference. Prof. Froyd is a Fellow of the IEEE, a Fellow of the American So- ciety for Engineering Education (ASEE), an ABET Program Evaluator, the Editor-in-Chief for the
). In fact, 78 of the 101 colleges transferred less than 30 students, and44 colleges had fewer than 15 transfers each. In light of the current budget crisis in California, asignificant number of these small engineering programs will have difficulty sustaining theirprograms due to cancellation of courses with low enrollments. Size Distribution of CC Engineering Programs Frequency (# of colleges) 20 15 10 5 0
). As part of his joint appointment with UAF’s College of Engineering & Mines and Geophysical Institute, Dr Hatfield teaches courses in electrical and aerospace engineering, conducts UAS research in support of ACUASI, and participates in STEM outreach activities. In addition, Dr Hatfield administers UAF’s Aerospace Engineering Programs and serves as faculty advisor for the university’s student chapter of the American Institute of Aeronautics & Astronautics. Prior to joining UAF in 2013, Dr Hatfield was a US Air Force officer where he served in numerous capacities over a 28-year career. Dr Hatfield’s assignments included 2 tours teaching at the USAF Academy (Department of Astronautics, ’92-’96, ’99-’02) and
engineering principles and design into existing science classes that can becontinued year after year and last through and beyond the training period 6. Some of the keyfactors identified for effective professional development include: engaging teachers in practicingconcrete tasks related to teaching, assessment, and observation of learning; drawing uponteachers' questions, inquiry, and experiences; including time for collaboration, sharing andexchange of ideas and practices; building on teachers' current work with students; and providingmodeling, coaching, and problem-solving around specific areas of practice.The planning of professional development programs that effectively lead to desired teachingpractices is not a simple process. Too often, short
Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering Education”The software was easy to learn and the students had little difficulty navigating the program. Itwas limited to 2-D problems, but this was not a major problem for an introductory course. Thein-class tutorial and in-class assignment allowed small computer glitches or common operatorerrors to be identified and corrected either by the instructor or classmates. These exercisesreduced student frustration and demand on instructor time.The homework assignments required students to work independently and iron out the details ofthe FE method on smaller scale problems with "correct" answers prior to the larger and open
) Exploring the Role of Visualization and Engagementin Computer Science Education, Working group reports from ACM SIGCSE/ITiCSE on Innovation and technologyin computer science education.[3] Korhonen, A. and Malmi, L. (2000) Algorithm Simulation with Automatic Assessment, Proc. 5th ACMSIGCSE/SIGCUE Conference on Innovation and Technology in Computer Science Education.[4] Dann, W., Cooper, S. and Pausch, R. (2000) Making the Connection: Programming with Animated Small World,Proc. 5th ACM SIGCSE/SIGCUE ITiCSE Conf. on Innovation and technology in computer science education .[5] Cooper, S., Dann, W. and Pausch, R. (2000) ALICE: A 3-D Tool For Introductory Programming, Journal ofComputing Sciences in Colleges, 15.[6] Rosenberg, J. and Kölling, M. (1997
positions in programs that need them,particularly within the government. As acquisition programs continue to evolve from individualsystems to systems of systems, this shortage will only become more acute”.3The National Academy of Engineering Report on the 21st Century Engineering GrandChallenges not only points out to the engineering challenges but also the Eco-systems nature ofthe challenges and thus the need to foster end-to-end Systems Thinking; “. . . contemporarychallenges from bio-medical devices to complex manufacturing designs to large systems ofnetworked devices- increasingly require a systems perspective. This drives a growing need topursue collaborations with multidisciplinary teams of technical experts. Important attributesfor these
flow impedance data,when the need tip is located in the joints and the tendon, were collected from pig feet. Experimentalresults demonstrated that tissue flow impedance serves as a good indicator for needle tip locations. Theproject was financially supported by the university Office of Technology Transfer. This paper describesthe technical aspects of the project and discusses the students’ experience, outcome assessment, and themulti-party partnership. I. INTRODUCTION AND BACKGROUNDThree years after the General Engineering program was established at East Carolina University, thedepartment had their first group of seniors. Given the “general” nature of the program, a broad variety ofsenior projects was made
“thinking outside of the box” in the scientific discovery process. Following is afull description of the summer camp which was intended in part to forward the purpose of theERC Education and Outreach Program and the overall vision of the Engineering ResearchCenter. Also included are 1) assessment procedures utilized to measure change in camperlearning over time; 2) discussions surrounding ways the concepts of creativity and innovationwere intrinsically linked to summer camp activities; and 3) future directions.Nano-to-Bio Summer CampHeld in summer 2009, the Nano-to-Bio Summer Camp was the result of a major collaborationamong partnering institutions, utilizing faculty and mentors from two geographically distantcampuses. This five-day commuter camp
surveys, end-of-semester interviews, and reflective essays, thisstudy provides a comprehensive assessment of the relationship between ICC and SOB. Thefindings will offer practical insights for faculty development programs and suggest pathways forembedding ICC training across engineering curricula.Moreover, the study contributes to the broader discourse on educational equity by highlightingthe role of culturally competent teaching in mitigating the systemic barriers faced byunderrepresented students. By fostering an inclusive and culturally aware classroomenvironment, ICC-trained professors can help bridge the gap between diverse studentpopulations and the traditionally homogenous engineering community. This research not onlyunderscores the
perceptions aremeasured using assessment instruments as well as subjective observations. The study ofMirzamoghadam and Harding5 outline the success story of capstone design project thatpartners an industry sponsor with a interdisciplinary engineering student team, whereby eachindustrial participant contributes a preset budget defined thus promoting the request forproposal (RFP) means of program sponsorship. In the work of Morgan et al.6 feedback fromindustry and faculty experiences in product development led to a rigorous productdevelopment process in capstone design projects. As detailed in Morgan et al.6 the processstarts with a customer, followed by system requirements derivation, a feasibility study, acreation of test matrix and test plans
every week for 50 minutes per meeting. While the official coursedescription states that it consists of three weekly lectures with no laboratory components, theinstructor lectures twice a week while reserving the third class meeting for an active learning inclass project session where students implement the concepts they have learned about in the twolectures in that week.The student performance will be assessed via three different categories: 1. Weekly assignments: every week, students will be given homework problems pertaining to the lecture contents. In addition, students will have to implement a programming assignment during the third class meeting every week. Students will submit a weekly assignment including the solved
problem solving in reinforced concrete design due to someidentifiable difficulties. The main difficulties are lack of teaching aid to clearly explain thecomplexities of the various structural design principles, inability of individualized tutoring andinadequate or non-existent of visual learning environment, and inability to inspire students tointeractively study structural design concepts. The teaching methodology presented in this paperis based on presenting students with an individualized, interactive and guided learningenvironment. The main elements of this approach are: a means of assimilating the studentsinteractive learning knowledge and behavior (user model), representation of the instructor’sguidance and assessment knowledge (tutor model