variety of ways, including student teams. This paper highlights our currentsupport strategy, including free software and training as well as increasing our event support, aswell as our plans for the future. We hope this paper helps continue this discussion of the bestways to support new engineers early in their careers.References[1] D. I. Spang, “Curriculum design and assessment to address the industry skills gap,” in 2014 ASEE Annual Conference & Exposition, 2014, pp. 24–345.[2] E. F. Crawley, D. R. Brodeur, and D. H. Soderholm, “The education of future aeronautical engineers: conceiving, designing, implementing and operating,” J Sci Educ Technol, vol. 17, no. 2, pp. 138–151, 2008.[3] K. Alboaouh, “The gap between
goal of this study is to quantify how much the use ofuncommon language affects the performance of students from diverse backgrounds. To quantifythis effect, we created SAT level math questions written with and without uncommonterminology. The questions were then distributed to volunteers as anonymous surveys. Weconducted this research with volunteers from Introduction to Civil Engineering and Introductionto Mechanical Engineering courses. Below in the following section we will detail themethodology of the research, the results of the study, the conclusion, and the planned futurework.MethodologyThe study was approved by Minnesota State University’s Institutional Review Board (IRB)before the study was conducted.The data presented in this paper
expectedlearning outcomes of this self-learning student project were to use commercial CAD and FEApackage to • reinforce fundamental understanding of the physics governed design • estimate stress and deflections for complex shaft geometries • provide useful graphical representations of the results • understand influence of boundary conditions on stress and deflections estimates • understand influence of mesh size on stress and deflections estimates use classical shaft design calculations and literature data to verify and validate the FEA results3. AssessmentThe plan for assessment of using of FEA active learning modules into Strength of Materials andMachine Design courses is two-fold. The first one is to give students assignments
piles, it is a good idea to add these as a potential optionin our game since it has high promise for future buildings that are looking to build using greentechnologies.Conclusion: To conclude, different modules in the game have been carefully developed to ensureplaying the game is educationally beneficial but also fun enough. The research team has madesignificant progress and will plan its preliminary testing in the following academic year. GeotechGame is expected to provide students seeking a career in the geotechnical field with a virtual andfun way of learning.Acknowledgements: This work was supported in part by the National Science Foundation under grant number2121277.References: [1]. USEIA, International Energy Outlook 2018
motor we planned to attach. As mentioned before, the motors that were used are from the Sparkfun kits [4]. Thesemotors are DC motors [5], but they also have an inner gearing mechanism that is connected to asecond output shaft (Figure 1a). We chose to use this second output shaft because it would give usa much higher output of power for each revolution that the door did. The design that we chose hasthe shaft, which is keyed and not perfectly round, pushed into a cutout in the shaft that matchedthe shape. To find all the measurements needed, we were able to find a drawing with all of thenecessary dimensions (Figure 1b). The shaft goes from the bottom plate of the door, which has ahole to allow the shaft to be seated inside, through the top
andis more representative of the final prototype as when compared to the initial sketch. Figure 4 – Solidworks Based Design Drawing of Prototype (in 3D)With the design finished and having briefly planned the assembly of the prototype, all requiredmaterial was procured and the prototype was constructed. The construction took place in auniversity maker’s space where there was access to a soldering iron and certain other basic toolsand resources.Table 1 - Resource List Resource Name Qty. Place of Procurement Specification Thermoelectric 18 Amazon.com The Seebeck effect-based generators Generator Pads (TEG that will be used to produce electricity Pads
forthem.AcknowledgementsThis material is based upon work supported by the National Science Foundation underIUSE/PFE: RED Grant No. 1920761. Any opinions, findings, and conclusions orrecommendations expressed in this material are those of the author(s) and do not necessarilyreflect the views of the National Science Foundation.Appendix: Questionaries for Reflection PiecesInitial Reflection Piece1) Please articulate how you are attending the class, how you plan to study, what you believe may give you difficulties, and most importantly what steps will you take to tackle those perceived difficulties.2) Please give me suggestions on what I can do to help you succeed in this class.3) Have you been classified via formal diagnosis as belonging to the neurodiversity
. Published October 4, 2017. Accessed November 3, 2021. https://www.egi.co.uk/news/pavegens- the-technology-behind-the-tile.[12] Pavegen plans to power the world with footsteps. [Video]. Youtube. https://www.youtube.com/watch?v=VD15-2Uriyc . Published January 23, 2017. Accessed November 3, 2021.[13] Introduction to Magnetism and Induced Currents. RPI Physics. Published 2002. Accessed September 30, 2021. https://www.rpi.edu/dept/phys/ScIT/InformationStorage/faraday/magnetism_a.html.[14] Floating Pins, Pull-Up Resistors, and Arduino. Programming Electronics Academy. Published 2015. Accessed November 25, 2021. https://www.programmingelectronics.com/floating-pins-pull-up-resistors-and-arduino/[15] S. Psoma, P. Tzanetis
use a Raspberry Pi as the centralcontrol computer in the robot. The external sensor was planned to integrate into a pod, whichcontains a microcontroller for receiving sensor data and sending the data packets to theRaspberry Pi. This allows the design to have the ability to integrate multiple sensors into thesensor pod. There is an additional sub-control system in the robot which is used for the purposeof motor control, this simplified the development of integrating features such as PID control forthe maneuvering mechanism of motors.In the design of the project, Power-Over-Ethernet was used. Since PoE combines communicationand power delivery into a single twisted CAT8 cable, the design of the communication sectionand powering section can be
reasoning behind the level of engagement. Thebenefits include: (i) Further understanding of the impacts of heavy trucks on joints and bridgesfor the development of better bridge maintenance plans, (ii) The effectiveness and durability ofjoint designs and joint materials, (iii) The temperature range and product conditions. Thelimitations included: (i) Funding, (ii) Resources, and (iii) Moving to greater use of asphalt plugjoints which are replaced on a routine cycle or when the conditions warrant. This insight isimportant, as it shows that there is potential for the development of more joint monitoringpractices for the benefits listed once the limitations are resolved.CONCLUSIONExpansion joint monitoring systems have proved to be very helpful in
achieved expectations. The data collection and analysis arecornerstones to building continuous improvement practices. A team of the Program’s directorand the managerial staff collected data, ran analytics and prepared the Self-assessment report.The primary duties of the APPS team were the data preparation and collection, analysis forthe compliance issues, and final filling of the SAR. Thus, that gives the insider view anddifferent experience for forming the rubrics for the ITBA program case. Method Following the plan-do-check-act problem-solving methodology[2], the NAQA criteriabecome the guiding principles. The internal processes at the Faculty of Applied Sciencesrequire the data-driven decision-making and process improvement ideology
otherwise be exposed to engineering andcreating, Young Engineers guides students in understanding mechanical cause and effectrelationships. Promoting the study of engineering in afterschool environments lends a “coolfactor” to those involved in the program. There is also a pride of creation for each project builtand taken home.Future Engineers [9] creates quarterly challenges for elementary, middle, and high schoolstudents. Many of the challenges require students to use CAD software, produce 3D models,create a scientific experimentation plan. The organization provides mentoring and challengeshave no fee to enter. Recently, they featured challenges for creating a lunar rover to captureregolith from the moon titled Lunabotics, and a challenge where
the lab exercises. Students also perform better when they have a live-coding demo or examsince they know that they will have to answer questions on their code in real-time. In futurework, we plan to combine live-coding demonstrations with limited resubmissions.2 Related WorkOur work combines competency-based grading with other techniques in an effort to find the rightcombined methodology for undergraduate programming courses at Wentworth Institute ofTechnology. This section briefly discusses the techniques used. For each, many examples ofprevious work exist, but in this paper, we only summarize the parts necessary to define ourapproach and do not do a full survey or analysis.Competency-based grading (CBG)In competency-based grading (CBG) [2
theclassroom, can improve student performance and sense of belonging [9]. Persistence in an engineeringprogram can be drastically increased through the presence of extra-curricular activities that allow forfaculty and students to interact outside of the traditional classroom setting [10]. This has motivated manyacademic institutions to reimagine their first-year engineering programs. Often these programs adhere tothe classification scheme specifying the standard components of the first year that were outlined by K.Reid and D. Reeping [11]. Although many programs fall within this classification scheme, variationsarise based on the available institutional resources, institute identity and strategic plan, and overallinstitutional inertia that may prevent
, planned activities asthey articulated their definitions of involvement, a few—like Noah—explicitly describedinvolvement as something more abstract and informal: “Involvement. . .is being present. I thinkwhen I’m involved, it means I’m a part of the thing—a part of the places and the communitiesI’m in. So yeah, that that means being present to me.”Noah’s definition of involvement is particularly important since it reflects the reality of studentslived experiences. As we continued engaging students, it became apparent that theirinvolvement, as experienced and not just defined, extends beyond easily identifiable formalinvolvement opportunities. Informal group interactions—in dining halls, during student-initiatedstudy session, when walking together
also consider the course content for each day and plan practices in advance. Duration Guided seated meditations of 3-5 minutes 1-2 times a week are likely to work well for first-year engineering courses. Students also requested a few longer practices be included when possible. Logistics Test the required technology before implementing these practices in-class to ensure the best practice experience for the students and the most efficient use of instructional time. Engagement Regularly encourage students to participate in the practices but do not force students. Also, urge students to reflect on their practice and how it has changed throughout the course.References[1] American
what abilities or skills you want to gain, not the grade you want to get. While setting goals for course grades is important, do not include them here. • Explain why you set each one of these goals. In other words, why are they important to you? • Close with a discussion of how you propose to achieve each one of your goals. In other words, what is your plan? • Look back on the three personal goals you set at the beginning of the semester in Reflection 2. NOTE: If you did not submit Reflection 2, you must post a separate journal entry for it before completing Reflection 3. It will not
remote wipe. The rating will be on a 5-point scale ranging from 1(stronglyagree) to 5 (strongly disagree).Data backup and disaster recovery. Participants will rate how they deal with data backup and disasterrecovery. The questions include having a backup plan for data and Apps, the insurance of mobile devices,and the ability to restore data and Apps in the event of a failure. The rating will be on a 5-point scaleranging from 1(strongly agree) to 5 (strongly disagree)Perception of security. Participants will rate how they perceive mobile device security. The questionsinclude their perception of the importance of mobile device security in general, how they perceive threats,and the importance of having antivirus software on their device. The rating
constants. The plan was to solve the dual and primal problemsand then use the primal-dual relationships to determine the design equations for the primal 4variables. The design equations results were initially published in a paper in 2015[6] and laterin a book[7].The primal objective function, Y(x), is to minimize production costs which are: Y(x) = r1x1 + r2x2 (18)Subject to the Cobb-Douglas production constraint, which is: q = A x1α x2β (19)The variables are: The input constants
LMS andGoogle Scripts were excellent resources and many components of our tools were informed byprior work. Before starting any similar project, it is a good idea to check whether someone hasalready done part or all of it, or whether the LMS is planning to implement a similar feature inthe near future.Overall, this project has proven valuable in saving faculty time on grading, course administrationprocesses, and facilitating career-advancing research projects. We have been pleased with ourresults and encourage others to seek or develop their own process improvements and synergies.We are also happy to share our tools upon request.6. References[1] V. J. Shute, “Focus on formative feedback,” Review of educational research, vol. 78, no. 1,pp. 153
lessons learned from this first year. In this secondyear, we are adding parents to the planning team. The 2020-2021 pilot showed us that parentswere keen on the activities but challenged to participate regularly, thus including theirknowledge and experience on the leadership team along with additional interview efforts willprovide new perspectives on the design of the events and participation challenges. This will helpus attenuate the sessions to better serve more of the families. We also anticipate that with a returnto in-person events, the participation in research activities (surveys, feedback, and interviews)will improve. We will also be able to better capture photographs and observations of the designand discussion processes. With the
financial calculator and close with interpolation between tabulatedfactors.) Or using Eq. 1b in a spreadsheet: PW = −100,000 + PV(5.5%,85 − 62, −425*12) = −$34,337Note that the data values should be entered into a data block and not hard coded into the formula. Fig. 2. Annuity PW vs. age at death for female.Table 1 supports many variations by changing the age when income begins, the gender, interestrate, or the expected age at death. While the 5.5% interest rate used here is best supported byspreadsheets, if tabulated factors are the planned tool then an integer value for the inflation rateis suggested.Another example matched to PW coverage is finding the number of years until the PW is worth80% of the investment at
possibly create new jobs for maintenance. • DRONE: This could lead to illegal surveillance or aid in delivering disaster relief. • LIFT: The product will be marketed towards large corporations, so it should have a neutral design.Area 5: Environmental Factors • JET: The proposed solution could generate a larger wake, affect aquatic life, and increase noise pollution. • SCRIP: Ensuring that the product uses a clean power source, utilizes recyclable materials, and there is a plan for the end of the product’s lift will decrease environmental impact. • DRONE: Using drones instead of cars and planes will reduce the carbon footprint of package delivery. • LIFT: A drone for package delivery will decrease the
understand the robustness of the model and enable predictions at different teachingmethods, the dataset was divided into different groups. Each group consists of the coursesoffered in the same year of the academic plan. The initially developed model was employed forpredicting failure risk in students. Table 1 summarises the accuracy and precision of theprediction model in the various teaching methods. Table 2. Accuracy and precision of the prediction model in different teaching methods Performance Traditional Teaching Online Teaching In-person teaching indicator (flipped format) Accuracy 91.9
project and how it helps overcome the onlineteamwork challenges will be discussed. We will also describe a team formation process, wherestudents are allowed to select their own teams and have control over the membership as theproject progresses. Plans for future work to assess the efficacy of this project structure and teamformation process will be discussed as well.IntroductionTeamwork is an important part of engineering and an integral part of project-based learning.While incorporating team projects in face-to-face engineering courses is commonplace,implementing a team project in an online course has its own unique challenges [1]. One obviousdifficulty is collaborating on a project whose components are handled by students in differentphysical
, Brandon began his life as a civilian planning on using my GI-Bill for education but decided to enter the general workforce. He worked a number of different jobs such as landscaping and factory work from 2005 to 2009. In 2009, Brandon started working at Wal-Mart. In 2012 he obtained his American Board of Opticianry (ABO) certification. In 2014 he became a student at Fort Scott Community College (FSCC). While there, Brandon was a Phi Theta Kappa (PTK) member, and STEM Club President. He graduated from FSCC in spring of 2018, Summa Cum Laude with my Associates of Science & Pre-Engineering degree. In Fall of 2018, Brandon continued his education at Pittsburg State University (PSU). He majors in Electrical Engineering
. Financial Aid Assistantships (typ.) Corp. tuition plans & self funded Time to Complete Varies, 5–6 yrs avg from BS Varies (5 years with 3 cr/sem) Residency Required Yes, min. 1 year 5 days Master’s Required No Yes (not “master’s along the way”) Departments/Majors Traditional engineering Customized and interdisciplinaryDiscussion and ConclusionThe online D.Eng. supports several strategies related to Penn State’s strategic initiatives: • Transforming Education: Providing an opportunity for advanced study to professionals whose interests lie more in applied research and practice will expand the realm of research
some applications, the use of motion platforms [4], [5]further amplifies the realism of the virtual environment. Along with the development offunctionality and realism, VR has seen a continuous rise in its affordability and a mushroomingsoftware and hardware industry [6], [7].The expansion of VR applications to education was but obvious. This aspect is recognized byparents. In a study in 2017 [8], of over 12,000 parents, 64% of them who did not own a VRdevice were of the opinion that VR will provide educational experiences, as compared to 84% ofthe parents who owned a VR device. According to a 2018 survey [9], 28% of a sample of 350university respondents had deployed VR to some extent and 53% had plans to do so. A review ofliterature [10
- tions, trigonometric identities and equations, the inverse trigonometric functions, polar coordinates. Applications involving triangles, vectors in the plane, and complex numbers. • Calculus: Limits, continuity, derivatives and integrals of functions of one variable with applications.Students participated in 18 hours of math sessions throughout Monday through Thursday, and onFriday, they were encouraged to schedule an appointment with the Testing Learning Center oncampus to take the Accuplacer. A description of the Accuplacer can be found below.Social, Team-Building, and Student Success Activities: In addition to attending math sessions, thestudents interacted with peer mentors, who planned daily activities to help the students
' participation in EDC increased 40% 60% 0% 0% 0% 100% 0.025their desire to pursue a Science, Technology,Engineering or Math (STEM) careerI plan to use the Ender Pro 3D printer for future 60% 20% 20% 0% 0% 100% 0.18(non-EDC) activities with students Legend: SA: Strongly Agree, A: Agree, N: Neutral, D: Disagree, SD: Strongly DisagreeConclusionEDC 2022: Eagle-3D was successful in achieving its primary objective of developing anengaging engineering experience to increase participant’s knowledge of 3D printing and theengineering design process. A statistically significant increase in the participant’s pre/post-testscores was observed. This correlated with the self-reporting survey questions