Engineering Innovation in Health(EIH) capstone design program at the University of Washington (UW), multidisciplinary studentteams design, construct, and test a technical innovation to address a pressing unmet needproposed by a health care professional [1], [2]. During this process, they investigate a holisticrange of factors that contribute to the project’s development and impact (e.g., stakeholders,existing solutions, market opportunity, intellectual property, regulations, and reimbursement).Much of the learning in capstone design courses occurs outside the classroom environmentthrough hands-on and typically on-site experiences, which are forms of active and student-centered learning [3], [4]. For example, students may shadow or observe
MEstudents. The MET students have mathematical knowledge up to Calculus II, where the MEstudents have mathematical knowledge up to Calculus IV and Differential Equations. This studyalso compares the overall performance between the ME and MET students.Introduction:Engineering economics is a required course in the mechanical engineering program as well asmany other engineering disciplines. It is also a part of the Fundamental of Engineering (FE)Exam. Students are expected to receive about 8 to 10 problems belong to EngineeringEconomics. As a result, a large number of students takes this particular course at our institution.In this survey, the Needy et. al. [1] showed that the majority of Engineering Economics classconsists of above 30 students. In our
deep learning. This is a significant resultgiven that we did not advise students on why we were asking them to reflect, or what we hopedthey would gain from the activity. Our study provides quantitative evidence that answeringreflection prompts correlates with improved performance on exams and qualitative evidence thatstudents believe that reflection can help with conceptual understanding and deep learning.Reflection should be considered as a strategy for helping students think critically about coursematerial.Key Words: Reflective practice, Quantitative Study, Computer Organization1 IntroductionIt is important for college students to understand the “big picture” of their undergraduatecurriculum and how it prepares them for their careers [1
content in order to build on what students haveapparently learned in the lower-level classes, and ensure that students learn all cybersecuritytopics, and particularly about networking topics and common software vulnerabilities. 1 IntroductionSoftware vulnerabilities in commercial products are an issue of national security, financial andeconomic stability, and consumer confidence. Data breaches caused by these vulnerabilities canlead to interruptions in public services, monetary loss, and loss of privacy. The 2020 VerizonData Breach Investigation Report [1] indicates that there were 3,950 data breaches in 2020 in theUnited States. Software vulnerabilities continue to increase as tracked by National Institute ofStandards and Technology (NIST
engineering course for the students prior to the pandemic. Results include student feedbackfrom mid-semester and end-of-semester evaluations using Likert scale responses and open-endedquestions. This paper augments the limited work that has been published regarding flippedclassrooms in heat transfer, addressing challenges faced by both the instructor and the students.IntroductionResearch in engineering education strongly supports the use of active learning strategies in theclassroom.1-5 However, introductory heat transfer courses are often taught using traditionallecture methodologies. Among the suggested pedagogical strategies for incorporating activelearning, flipped classrooms have received significant attention for engaging students
Capacity of Airthe pipe, and water level height difference at Constant Pressure (1 atm)within the manometer were recorded. 𝑑1 Inner Diameter of CylindricalIncreasing the air velocity resulted in an Pipe (17 mm) [3]increasing mass flow rate, which in turn 𝑑2 Outer Diameter of Pitot Tubeincreased the Reynolds number of the air (3 mm) [3]flow. Increasing the mass flow rate also 𝐷ℎ Hydraulic Diameter of theresulted in increasing heat transferred to the
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
) Design User Safety Component Guidelines Internet of Mounting Things (IoT) and Dashboard Enclosure Microcontroller and WIFI Access Figure 1 - Focus areas with arrows indicating constraining parameters that must be considered in the design of the IoT PSIdeas must be translated from those base disciplines into embedded systems concepts in order tocomplete objectives
20°C ± 0.5°C with humidity below 50% is the most effective way toeliminate these errors. The collaborative partnership that created the lab evolved from asix-sigma study conducted by the industry partner, focusing on metrology skills [1] andis discussed in more detail in the work by Stahley, et al. Other courses have beendeveloped by the author and more information on those courses can be found from anadditional paper [2].Class in Production Design and SpecificationThe class utilized to introduce measurement and GD&T focuses on production designand specification. The course description is © American Society for Engineering Education, 2022 2022 ASEE Illinois-Indiana Section Conference Proceedings | Paper ID 36106
baccalaureate engineeringprogram must include “an ability to communicate effectively with a range of audiences” [1]. Therequirements for accrediting baccalaureate engineering technology programs assert that graduatestudents must have “an ability to apply written, oral, and graphical communication in broadlydefined technical and non-technical environments” as well as “an ability to function effectively asa member and a leader on technical teams” [1]. Specifically, in aviation programs, according tothe Aviation Accreditation Board International (AABI), both baccalaureate and graduate degreesmust demonstrate that graduates are able to “work effectively on multi-disciplinary and diverseteams” and “communicate effectively, using written and oral
programs and showcasing some © American Society for Engineering Education, 2022 2022 ASEE Illinois-Indiana Section Conference Proceedings | Paper ID 36135exciting hands-on projects completed by department students. These steps will help TheDepartment of Engineering Technology at SHSU get back on track with higher enrollment. Mr. F.Zakaria from Washington Post accurately stated, “The pandemic has upended the present. But ithas given us a chance to remake the future.” Strategies AdoptedThe Department of Engineering Technology adopted some existing recruitment and outreachstrategies as discussed in literature. One such strategy is PLAN [1], which stands for Preparation,Location
ourstudents when learning from their homes with the present limitations. These activities allowstudents to explore phenomena through “remote” labs (not simulations), project generation usinga supply of pre-existing materials (constraints that any project has at any time), and in particular,the development of projects based in easy to find at home materials.In this paper, the Author will present three strategies to promote STEM education throughremote learning: 1) Laboratory activities for college-level students 2) Hands-on activities forhigh-school students through informal education settings, and 3) Activities for the public at largethrough social media (Facebook liv and YouTube) and sponsored by public institutions. TheAuthor implemented these
female population based on the 2019 census [1]. Engineering and technology havealways had an important role in addressing the needs of society, it is now gaining recognition foraddressing societal problems. This is recognized and enhanced by an increased representation of womenespecially women of color. This change will result in a positive outcome by bringing more diverse waysof thinking and innovation to the classroom as well as companies that employ them.Literature shows that there are many different reasons for lower recruitment and retention rates forwomen in Engineering and Technology which include preconceived notions on the nature of work andgender stereotypes in these fields. Additionally, there is a lack of access to women role models
critical thinking with regards to designing and performing an experiment wasdeveloped and implemented.The idea originated from solving an example problem in the textbook11. Sample problem 7.3states: © American Society for Engineering Education, 2022 2022 ASEE Illinois-Indiana Section Conference Proceedings | Paper ID 35748 Figure 1 Drop Weight Bending Impact Test11Students were asked to design their own experiments to verify the impact theory they justlearned from the chapter. Here is a short summary of the impact theory. Fig. 2 shows anidealized version of a freely falling mass impacting a structure11. The structure is represented bya spring as all structures have some elasticity. Figure 2(a
are utilized to drive the Production Part ApprovalProcess (PPAP) and inform the OEM and the supplier about the capability of thesupplier.Learning ObjectivesThe learning objectives for this paper are summarized below: 1. Learn how a university capstone-design class incorporated a Coordinate Measuring Machine to create a productive assignment integrating measurement and quality concepts. 2. Demonstrate how the class linked measurement and quality to the overall product lifecycle process for a supplier and an Original Equipment Manufacturer (OEM). 3. Discuss a possible one-page lab report format utilizing proper terminology for a succinct and direct document.1. IntroductionSeveral years ago, Purdue Polytechnic
calibration accuracy over time. We leverage Open LearnerModels to create and share such visualizations. Also, introducing descriptive digital tags intoassessment material is a useful method to effectively organize and analyze both group andindividual student performance information for such visualizations.We added digital tags to create tag-organized assessments for an undergraduate bioengineeringcourse. The assessments prompted students to self-evaluate after each question. When studentswere weekly presented with tag-enhanced OLMs, one visualizing their calibration and other theirrelative performance to class, there was an overall improvement in calibration accuracy movingfrom Exam 1 to Exam 3, both for low and high performers.Keywords: Calibration
. © American Society for Engineering Education, 2022 2022 ASEE Illinois-Indiana Section Conference Proceedings | Paper ID 36140IntroductionWhile the United States has in the past been a pioneer in the development of technological marvelsand engineering breakthroughs, in today’s day and age, there is a shortfall of qualifiedprofessionals taking up careers in the Science, Technology, Engineering & Mathematics (STEM)professions. According to the 2009 report from the National Assessment of Educational Progress[1], the proportion of students who are proficient in Science drops from 32% in 4th grade to 21%in 12th grade, leading to a lesser than desired proportion of students planning to pursue STEMmajors in college. This number further dwindles
andengineering technology programs. These courses place students in teams with anassigned project that simulates working in an industrial setting; fulfills the ABETrequirement of working in a technical team;1-3 and is an intentional contrast to thelectures, homework and tests which the typical student has experienced over theprevious three years. Assessment of the individual student on a technical team ischallenging when submitted content is a team effort.4 Some students in these teamsbecome “hitchhikers”5 or “free riders”6 and cause other team members to resent workingwith these individuals. Peer evaluation or rating is one way that instructors gain insightinto the team dynamics that may identify “hitchhikers” or “free riders.” Adjustingindividual
product.To implement the peer mentorship model applied in this study, junior and senior levelengineering students were hired to serve as peer mentors. They were each assigned 1-2freshman design groups, and expected to meet with these students 3-4 times throughout thesemester. Each peer mentor met in-person with their groups, but this could likely be conductedover video conferencing. For convenience, they were encouraged to meet with their groupsbefore each milestone was due to serve as technical and project management mentors. Peermentors were expected to review project documentation, design process progress, and be aresource for the completion of the project. At the beginning of the semester, a short, 1 hourmeeting was held between peer mentors and
a workshopon equity and inclusion in teams with a focus on common manifestations of gender exclusion onteams. New teamwork assignments included: the early development of an articulation of teamvalues and management strategies; and a reflection and revision of that articulation one monthlater. The individual pulse-checks asked students: to rate their team on a 1-10 scale foreffectiveness, enjoyment, and equity; to comment on these ratings; and an option to raise a “redflag,” which would prompt an instructor to reach out to that student for a confidential check-in.In the new TA program, three students—who had taken the course the prior year—were eachassigned a set of teams with which to hold regular check-ins. Methods for evaluating
— Illumination; Image Enhancement; Computer Vision ; Real-timeAlgorithm; Reflectance Model; Shadow SegmentationI. INTRODUCTION Our visual perception contributes a great deal when we need to analyze and interprete our environment. Likewise, with the proliferation of artifitial intelligence (AI) in all aspect of technological innovations, computer vision, a subset of AI, emerges as a key player. The importance of computer vision in multimedia, robotics, autonomious driving, medicine, and education, to name a few industries, is well established [1]. While our visual cortex performs image analysis effortlessly and with excellent efficiency, however visual perception in computer vision remains a challenging task. One such challenge is the presence of
Society for Engineering Education, 2022A Practical Method for Improving Diversity, Equity, and Inclusion in Nuclear Science Mr. James Olson, Rensselaer Polytechnic Institute Dr. Li Liu, Rensselaer Polytechnic Institute Mr. Malcolm Porterfield, Rensselaer Polytechnic InstituteBackground and Motivation Rensselaer Polytechnic Institute (RPI) is the oldest operating private school of scienceand school of engineering among those that were established in any English-speaking country[1]. Starting with civil engineering in the 1820's, RPI has continually evolved available curriculato meet societal goals. Since the early 1990's, societal progress
radios fortransmitting and receiving signals, and microwave imaging algorithms to generate real-time 3Dimages. The 3D microwave images can help in assessing progress during the constructionprocess or during inspections of existing structures for timely repairs. The use of this systemcan lead to more robust construction and structures and provide a lower-cost and precise solutionthan conventional NDT. The Vivaldi antenna is a useful configuration due to its simplicity, wide BW, and end-fire radiation pattern with low side-lobe levels and high gain at microwave frequencies [7]. The Vivaldi antenna is also known as a tapered slot antenna (TSA), flared or notch antenna, end-fire slot, and other related names [1]. High gain antennas are used to
Active and Project-Based Learning in Medical Device DesignIntroductionThe field of Biomedical Engineering has grown rapidly in recent years. The Bureau of LaborStatistics states that there were approximately 19,300 jobs in Biomedical Engineering in 2020and that employment of Biomedical Engineers is expected to grow by approximately 6% overthe next 10 years [1]. Many students in Biomedical, Mechanical, and Electrical Engineeringpursue careers in the medical device industry after graduation. To properly prepare engineeringstudents for careers in the medical device industry, students must complete multiple hands-ondesign projects and receive training on unique aspects of the medical device industry, such asdesign control guidance of
warehouses do not have a fully automatic system of inventorymanagement. Items must be scanned manually, or there are people who are required to updatespreadsheets or databases to track inventory. Manual inventory management can occupy a lot of thecompany’s time, resources, and money [1]. In addition to the aforementioned issues, manual erroris a major factor in the problem of inaccurate or inefficient management of inventory. The additionof an automated inventory system would increase a company’s efficiency and free up resources toinvest in other aspects of the business. Currently, there are no available systems that fully automate the inventory tracking process.There have only been prototypes and research projects, but none have been released to
, Northeastern University, Boston, MA 02115 email: heiman@neu.edu; http://northeastern.edu/heiman/research/index.htmlProf. Haridas Kumarakuru, Northeastern University Haridas Kumarakuru, PhD, MInstP. Assistant Teaching Professor, Department of Physics, College of Science, Northeastern University, Boston, MA 02115 Email: h.kumarakuru@northeastern.edu American c Society for Engineering Education, 2022 Cast-off Smartphone for Controlling Electronic Appliances Kyle Sawicki1,2, Bavesh Matapathi1,2, Nathan Israeloff 1, Don Heiman1, and Haridas Kumarakuru1* 1 Department of Physics Northeastern University
positive, both in terms of student feedback and perceived effect on studentperformance.IntroductionCapstone projects are a common way to culminate an undergraduate engineering education andin fact are required for accreditation. As outlined by ABET (Accrediting Board for Engineeringand Technology) in General Criterion 5: Curriculum, students should have “a culminating majorengineering design experience that 1) incorporates appropriate engineering standards andmultiple constraints, and 2) is based on the knowledge and skills acquired in earlier course work”(ABET, 2021). Capstone Projects have many advantages, but they can get off track for a varietyof reasons. This can fuel disparate results, both technically and in terms of students