without negatively impacting other systems (treatment & recovery plan) 5. Monitor the progress (patient feedback if symptoms persist) 6. Engineer controls to prevent similar malfunctions (patient education, diet, prosthetics, etc.)The Coast Guard must intentionally seek out a diversity of “non-traditional” stakeholders duringeach of the steps outlined above. A diversity of experience, thought and perspective enriches theproblem-solving process. Our Diamond Model, shown in Figure 2, illustrates the need for“survivors” to help solve complex medical problems because the doctor alone cannot make adiagnosis without a complete understanding of the symptoms explained by the patient.For example, in a shipyard, the welder may have some
. Thesesessions addressed how to create a professional resume, prepare for interviews, and developpolite follow-ups. While students indicated that they were interested in learning more aboutetiquette, it was a topic that was not sufficiently addressed in the first year. Plans are underwayto address this issue including taking students out to a formal dinner so that they become morecomfortable with tableware and table talk. 6. Financial Security: In some of the sessions, participants quipped that they were feelinganxious about making ends meet. Some voiced they worried about whether they would be able tocomplete their degrees because they were not sure whether they should pay tuition and buybooks, or pay rent, buy food, or baby diapers. While only some
bankruptcy.” That really impacted me, made me conscious about my social class.After being interviewed by the university recruiter, Edgar realized that neither he nor his familywas in the financial position to pay for his dreamed-about education. Therefore, instead ofgiving up, Edgar made use of his aspirational resources and chose to continue with hiseducation in a more affordable university. As the literature from LatCrit theory indicates,resilience and resistance are forms of aspirational capital that Latinx students leverage toaccomplish their goals [3]. Edgar’s account represents an illustrative example of usingaspirational resources to navigate the financial struggle of paying for his college education.After Edgar adapted his plans to a
Workplace: Results of a Survey on Technical Communication Skills,” no. October, 2001.[4] S. Cerri, “EFFECTIVE COMMUNICATION SKILLS FOR ENGINEERS,” pp. 625– 629, 2000.[5] A. Keane and I. S. Gibson, “Communication Trends in Engineering Firms: Implications for Undergraduate Engineering Courses,” Int. J. Eng. Educ., vol. 15, no. 2, pp. 115–121, 1999.[6] Society of Manufacturing Engineers Education Foundation, “Manufacturing Education Plan: Phase 1 Report—Industry Identifies Competency Gaps Among Newly Hired Engineering,” 1997.[7] L. A. Riley, P. Furth, and J. Zelmer, “Assessing Our Engineering Alumni: Determinants of Success in the Workplace,” 2000 ASEE/Gulf-Southwest Sect. Annu. Conf., 2000
(afternoon). I am here to present my work onanalyzing the data curated in the resource centercsedresearch.org. The plan is to have about 10 minutes at theend of this presentation for questions, but please, feel free toask questions during the presentation if there are instanceswhere I can provide additional information about our work orprocess.Overall, we are viewing this presentation as an exploration ofdata. We are hoping to start/continue a dialog, but don’tconsider this presentation to be about presenting results, butrather the beginnings of the explorations of what this collectedand curated data may be telling us. 1 K-12 Computing Education is Growing
research intends to use a rubricto evaluate student perceptions regarding context, social interaction, and authentic learning and tocluster students into high, medium, and low categories to conduct a deeper analysis of studentexperiences using sentiment analysis and thematic analysis.AcknowledgementThe research reported in this paper was supported in part by the National Science Foundation underthe awards DMS- 1246818 and EEC-1449238 and by the Lilly Endowment Charting the FuturePhase I Planning Grant, through the Purdue Office of the Provost. This work was also supportedin part by the National Science Foundation Graduate Research Fellowship Programunder Grant No. (DGE-1842166). M.D. Ward's research is also supported by National ScienceFoundation
other community-based making websites and forums to learn about materials,electronics, tools and tooling as well as to find inspiration, methods, and procedures. Websitessuch as TinkerCAD and 123Design coupled with early desktop 3D printer such as the MakerBotbrought digital design, modeling, and printing to the non-expert, while sites such as Thingiverseshowed the non-expert what was possible. Beyond these simple making solutions, the internetprovides extensive making and manufacturing knowledge and inspiration with instruction andprojects for the laser cutter, vinyl cutter, lathe, CNC, waterjet – just to name a few. Everythingfrom how to videos, pictures of projects, and project plans are available. Many of our studentshave grown up
students about the theory and testing of the mechanics of thematerials.Pilot Data CollectionAt this early stage of implementing the project into the course, we are interested in seeing how thechanges to the course impact student performance. While true understanding of the impact of theproject will not be understood until the full research plan is implemented, student performance onexams can be analyzed during this pilot study period. To determine if the changes are maintainingthe same level of student understanding, students in three sections of the course were studied. Onecourse included the project described in this paper. This section will be referred to as theExperiment section and included 38 students. The other two sections did not include
students across different majors, which is situated to helpbring the diversity of thought and capabilities to the innovation experience and better preparestudents for the future of work. Co-learning occurs primarily within design teams, which areassigned by the instructors in the first core integrated course, and students decide their owngroups in the second core integrated course. The program overall is designed to augment the wayin which students learn across multiple semesters and plans-of-study rather than just serving asadditional courses to add to their course load. Therefore, the program is designed to provide allstudents, regardless of their major, a multi-semester learning experience focused on the actualpursuit of innovation. By doing so
inclusion of a sharedtopic, meaningful to both engineering and composition, helps to expose the inherent linkages of thediscipline to the student. Michigan Tech plans to build on this pilot study by expanding the number ofstudents enrolled in cohorts that include both engineering and composition courses.While not directly part of this study, the faculty engaged in the process found the once a week meetingswere helpful on several levels. These meetings served as: ● a brief check-in for topic progression throughout the semester ● a chance to tweak and leverage assignments or topics ● a bridge building activity between disciplines ● a means to identify students who were strugglingThese meetings were scheduled weekly on Zoom, and typically
, such as the syllabus with week by week labs spelled out and parts listclearly. The lab rules and safety were also covered. b) Transitioning to Virtual LabTo move a lab course quickly online, Instructor designed the virtual mode of instruction of ECE2200L including three parts:• Teach the content at the beginning of the lab.• Use simulation tools (such as PSpice) to model each circuit.• Show the simulation results through sharing the screen.Instructor modified the previously planned labs associated with the simulation so that studentscan perform it at home. Instructor also prepared for each virtual lab a To-Do list that serves as avery good pre-lab for the students. The To-Do list helps the student to better meet their learningobjectives for
thefundamental knowledge of machine design process, material selection, and strength, deformationand life time analysis of machine parts (ME 442), and design of common machine parts (ME443). In contrast, the ME 461/462 courses are design project oriented, mimicking the real-worldmachine designs in industry. During the course of ME 461/462, typically 3-5 students form adesign group to conduct a specific design project under mentoring of one or two facultymembers. Therein, the ME 461 focuses on project plan, budgeting, conceptual and final designs;the follow-up ME 462 focuses on revised design and budgeting, prototype fabrication of the finaldesign that is accomplished in ME 461. At the end of each semester, each group is required topresent its design
withreasonable effort. The authors chose to use National Instrument’s Web Publishing Tool to develop the remote access [3]. AUND computer acts as a LabVIEW server which hosts the internet functions. This interface also archives and provides ananalysis of gathered energy data in spreadsheet format. Text message notifications for select security features have beenimplemented.II. SYSTEM DETAILSA. Project Features, Timeline and Planning For this project, the group focused on the design of each circuit subsystems during Fall semester. This include initialLabVIEW setup to be able to test each circuits individually. In Spring, the focus was to integrate all of the circuits together,do final testing, building the demo board, and refine all LabVIEW code to
stopwatch positioned in the same videodynamic dynamometer EELMs, we plan to build and shot to enable video capture of turbineuse the Instructable turbine shown in Figure 1. spindle experimental rotationalHowever, to develop and evaluate the underlying velocity time histories for datatechniques described here, we saved time and resources analysis.by using a small pre-built disk turbine made availableby an industry partner. While this hardware switch will affect numerical quantities measured
. Cook, C.J. Foster, S. M. Moon, P.J. Phegley, R. L. Tormoehlen “Attracting Students to STEM Careers, A white paper submitted to the 2007‐ 2013 Purdue University strategic planning steering committee,” [online], available at http://www.purdue.edu/strategic_plan/whitepapers/STEM.pdf. 2453. G. Rosen, J. Silverman, and A. Chauhan, "Connecting artistically-inclined K-12 students to physics and math through image processing examples," in Digital Signal Processing Workshop and 5th IEEE Signal Processing Education Workshop, 2009. DSP/SPE 2009. IEEE 13th, 2009, pp. 419-424.4. G. Rosen, M. Usselman, and D. Llewellyn, "Relating high school
dean of engineering and thedepartment chairs of computer engineering and computer science. These visits consisted ofdiscussing Herbie’s presence and influence on campus as well as plans for the future. We tookpictures of Herbie with the campus administrators, which ended up on the university’s majorwebsites, giving Herbie significant exposure to the university community and expandingHerbie’s social network.As Herbie’s recognition progressed, we began to do “Herbie Giveaways.” These giveawaysbegan by having a basket full of candy attached to Herbie’s head and running Herbie around thehallways of campus. Students would recognize Herbie, take a piece of candy, and sometimestake pictures or videos of him. When the social media account first
students had little to no experience withcircuits. The post-workshop survey had 22 responses and slides for 24 final projects werecreated (one group project by two siblings).4.1 Student FeedbackTo help with future planning, a post-workshop survey included a few questions about theactivities and about coding in particular.Table 2 summarizes responses of the participants to the post-workshop survey. The table showsresponses of whether they agree, disagree, or have no opinion to the following statements:I had fun! (FUN)I learned something! (LEAR)The projects were too easy! (EASY)The projects were too hard! (HARD)I want to be an engineer! (ENGIN)Table 2 Post-workshop survey responses (N.O. is ‘No Opinion’) Grade Response FUN LEAR
orunderrepresented in the field. Therefore, the conclusions obtained in this study may be limited tothe students with good course performance. It is our plan to recruit underrepresented students forthe project in the future. In order to obtain the results with more statistical value, more studentswill be needed in these projects in the future. It is thus necessary to outreach local high schools forstudent recruitment. In addition, feedbacks from high school teachers are needed to further makethe project more doable to average high school students, including the minority students. WhileMATLAB Simulink offers a friendly user-interface for high-school students to develop ODEmodels, MATLAB is not free. The R language was used by the instructor to train high
7-1 Mapping Out a Course 1 hr., 45 min. Counseling Center), 7-2 Creating a Syllabus Overview of Course Planning 7-3 Diversity, Equity and Inclusion 8 Guest Lectures (Service N/A 1 hr., 10 min. Learning, Learning Support Services) 9 Delivering the Course and 8-1 Effective Assessment 1 hr., 15 min. Ensuring that Students Learn 8-2 Lecturing Basics 8-3 Lectures as Performances 10 Opportunities for Student 10-1Effective Questioning 1 hr. Learning 10-2Teaching Outside the Classroom
for Engineering Education 6Application for predicting talk time A practical application for our system involves the prediction of talk time for the different speakergroups by summing the individual segment classifications. We can compare the actual and thepredicted talk times using figures 3 and 4. Corresponding to analyses from confusion matrices, it canbe seen that PC and SC classes are predicted lesser than their actual duration while AD is predictedto have higher talk time than is the reality. With better precision, these details can be useful toteachers in planning their classes for improved participation and more equitable talk time among theparticipants. Figure 3. Actual talk time for
thelikelihood of women to enter engineering. The review of a robotics program by Weinberg, et al.(2007) as reported in this article indicated that after 7 weeks of participation, girls had a higherinterest in engineering and a more positive attitude towards engineering. Other programs havestruggled to define positive outcomes especially in the long term. [26] evaluated a 2-weekresidential science enrichment program for high-achieving eighth-grade girls. Outcomes weremeasured 4 years after the program, for both program participants and applicants who did notattend. The study found no effect of program participation on a variety of outcomes, includingscience self-concept and interest and plans for a college science major. In previous research bythis
advance their projects. At the same time, they learn and apply professional skills in planning,teamwork, communication, and conflict resolution. The large-scale, long-term projects mirrorsituations students will encounter in the workforce. As they join large ongoing projects, they areonboarded by peers, while also taking responsibility for their own learning as they get up tospeed. They deal with decisions made in previous years and with documentation developed byothers; conversely, their own documentation will become a reference for the team in the future.Students also learn and apply professional communication skills, communicating problems toappropriate teammates and navigating conflict. These skills are addressed in peer evaluations,with
current U.S. society.Reports across the world show that the proportion of women in engineering schools remains low[6]. Here, we summarize a few. In the United States, while the demographic composition ofstudents planning to major in science and engineering has become more diverse over time, thegender ratio remains poor with women receiving only 19% of the total undergraduateengineering degrees in recent years [7]. Lucas, Claxton, and Hanson [8] referring to the situationin Britain state, “lamentably low numbers of women choose to study or practice engineering.”King [9] reported a decline in the proportion of women in Australian engineering schools from apeak of 20% to 16% in 2006. Likewise, despite representing 1.3% of the U.S. population in2015
comfortable reporting gender-related harassment and discrimination. 5. ConclusionsNationally, female enrollment in undergraduate engineering degree programs is increasin but isstill trailing behind many other disciplines that were formerly male dominated. A similar trend isobserved at Fresno State, but female engineering enrollment and female representation intenured/tenure track engineering faculty remain below the national averages. The authors have setforth a methodology by which they propose to assess the quantitative effect of female faculty onfemale engineering student enrollment, retention, and graduation, which is informed byobservations from gender-balanced and female-dominated departments at Fresno State.Furthermore, plans for a
to work. Maybe ifeveryone grew up poor for the first 15 years of their life they'd have a slightly better work ethic,but what do I know?”Self-worth. Individuals described that their unbalanced workload was either leading to academicsuccesses or in some cases, failures. Achievements often translated in a rise in self-esteem, gainsin leadership skills through the form of contingency planning, or in the skepticism of anybenefits within a team structure. Personal disappointments in academic efforts were addressed inthe form of self-loathing and uncertainty leading some to question their chosen line of study. Example of Perceived Accomplishment Example of Perceived Failure “… not everyone will hold their own on the “…in my
college, regardless of major, although persisters perceived significantlymore support for computing than did non-persisters. Another important finding was that highschoolers’ responses to a single survey item about intent to persist predicted later persistencemoderately well. Seventy-two percent of those students who said in high school that they wereinterested in pursuing a CS or tech-related college major did so during college. Thus, we learnedthat for many girls, plans about future area of study remain relatively constant from high schoolto college. This finding has implications for improving how we evaluate interventions aimed athigh school women when longitudinal tracking is impractical. The SCCT-related findingssuggest which constructs are
clearer understanding of what types ofactivities they should be planning so students can best master the intended learning. Having aclearer vision of the types of activities that are more efficient for achieving different learningoutcomes also serves faculty developers and educational researchers as we study and supportfaculty in appropriately implementing active learning.Streveler and Menekse (2017) propose two frameworks to unpack and classify active learningactivities: ICAP (Chi, 2009) and KIE (Linn, 2000). When studied and more thoughtfullyunderstood, these two frameworks provide interesting perspectives on active learning from aresearch perspective. However, numerous authors have noted that these frameworks have notprovided clarity about
isunable to treat the anticipated sewage generated by the population, space might be an issuedepending on their site layout for vehicle parking and bed down areas, and the solid wastemanagement plan needs to be adjusted. The fall 2016 term (17-1) consisted of 54 students, wherethe project was completed in groups of 4-5 students. The project itself has three graded portions: 1. Executive Summary. The course instructor provides the groups with the project’s scenario, detailed submission requirements, and affords groups over two hours to reconnoiter the proposed site’s existing infrastructure. The groups compile a table quantitatively summarizing the capacity of each infrastructure system on site (i.e., water, wastewater, solid
engineering and computer science classes are taught, (d).computer laboratories are open for required study periods all afternoon (graduate student tutorswho attend morning lectures are available), (e). Fridays are set-aside for trips to engineeringemployers where students receive briefings and tours that always include some Jackson StateUniversity engineering alumni, (f). Two Fridays, during the second summer term, are set-asidefor students to pre-register for the fall semester and meet their engineering advisor one-on-one,(g). Activity directors plan weekend functions and are accessible 24/7, (h). SEEP strives to createa permanent community of Engineering Learners and (i). SEEP is cost free to the student exceptfor incidental expenses.Previous
28%. These large percentages are of concernconsidering the same equipment is used by the students 3 to 4 times per semester. Our labstudents typically work in groups of 4 to conduct experiments, and do not have a lab practicalexam on how to use the equipment. We have observed that when lab groups are not closelysupervised some students wait for others to acquire the lab exercise data, which they share, anddo not gain as much experience using the equipment. Since they know there is no exam theyknow they will not be held accountable. Our plan is to try to increase student accountability byexperimenting with smaller lab groups, requiring a practical exam, and then repeating theassessment. 5) Conclusions The technology program students were