motivated students to read andunderstand the ASTM standards disregarding the class size and topics.I. IntroductionUnderstanding engineering codes and standards are undoubtedly essential for success in anengineering career. Engineering curricula need adequate training to prepare students to remember,understand, and apply these professional standards. Based on the Revised Bloom's Taxonomy [1],Remembering, Understanding, and Applying are lower-order thinking skills that then help developcritical thinking skills. The laboratory course design strategy discussed in this paper is the secondquarter of a four-level senior mechanical engineering laboratory course developed to enhancestudents' higher-order thinking skills [2].Engineers are known to be hands
, regardless of their engineering concentration and lay theinitial work for future performance enhancements for the students, educators, and policymakersin the STEM areas.IntroductionBangladesh's engineering and technology sectors are expanding as the country's economydevelops. Despite the country's relatively low level of economic growth, its engineering studentshave achieved remarkable academic performance, becoming some of the world's most qualifiedengineers. Researchers have demonstrated that self-efficacy, or the positive attitudes individualshold about their skills to accomplish activities, influences how they operate in a particulardomain, such as mental health and others [1, 2]. Increasingly, research findings indicate thatpsychological and
Monitoring Industry-ClassroomProgram for Undergraduate Biomedical Engineering Students Dr. Alexis Ortiz-Rosario,1 and Ali Kaveh Rahimi21 Department of Biomedical Engineering, The Ohio State University, Columbus OH, USA; 2Ohio AtHome Health Care Agency, Columbus, OH, USA AbstractThe at-home remote monitoring sector of healthcare is a growing industry. This healthcaremarket is valued at $24 billion, and it is projected to reach $166 Billion by 2030 [1]. Thisgrowing industry has unique challenges and can promote unique learning opportunities forundergraduate biomedical engineering students [2]. A collaborative industry-classroomprogram was developed along with Ohio At Home Health Care Agency
, technology can be used to improve how educators teach [1] as well asenable new modalities of pedagogical techniques [2]. The successful implementation oftechnologies relies heavily on an instructor’s knowledge of the technology and ability tointegrate it into their class [3]. Researchers have studied the barriers and dynamics of technologyadoption by faculty members. Some of these barriers include perceived usefulness (or lackthereof), structural constraints (such as technical support), lack of time to learn new technologies,and varying levels of faculty proficiency with technology, among others [4].With such a wide variety of technological tools and approaches designed to improve the learningexperience available on the market today, it is
integrating engineering practices into the science curriculum [1]. Inaddition, in 2018, 46% of high schools reported offering at least one stand-alone engineeringcourse [2]. However, less than 20% of the teachers who are currently teaching these standaloneengineering courses have a major or minor in engineering or an engineering-related discipline,and the majority are not certified to teach engineering [3]. In addition, it was reported in 2018that only 3% of elementary teachers, 10% of middle school science teachers, and 13% of highschool science teachers had completed even a single course in engineering [2].Research has demonstrated that the perceptions that K-12 teachers hold about engineers andengineering are often inaccurate. When K-12 teachers
competence, in particular related to professionalism andcommunication. Student perceptions are detailed, and implications for engineering educationare discussed. IntroductionConnections between college degree completion and successful entry into the workforce is a goalfor educators and external stakeholders alike. Postsecondary leaders and federal and statepolicymakers have identified STEM fields as critical for economic competitiveness [1], [2],including ASEE’s efforts to advocate for key priorities in science and technology legislation [3].College officials are also focused on curricular and co-curricular efforts to ensure STEM studentsuccess. To this end, work-related experiential activities (WREAs) such
learning and robotics together withthe specific machine learning and robotics applications in autonomous systems, the first author hasexplored the Machine Learning Course and Robotics Course currently available in differentUniversities [1-7]. Especially, during her 8 weeks summer visiting at Stanford University, shealso had a chance to explore resources to integrate into the course. Based upon all these works, shesuccessfully adapted/developed course EGR 391- Intermediate Research Topic Course to aResearch-based Course on Machine Learning and Robotics by combining teaching, research,and engagement. This course is especially designed for the team of junior undergraduate studentswho are participating in the NSF EIR and NASA ULI projects.The
Time Engineering and technology ethical considerations Learning Sociotechnical impacts of cellular agriculture innovations Create claims and context from various media sources Goals Consider multiple solutions (NGSS K-2-ETS 1-2) Frame the problem (NGSS K-2-ETS 1-1) Weigh and choose criteria and constraints for their design (NGSS K-2- ETS1-2) Understand their client to meet their needs (NGSS K-2-ETS1-2) Communicate ideas and thinking to partners, groups, outside audiences (SL 1.1D, 2.1D, 1.4
, specifically: 1) the ways in which a brief ecological belonging intervention should becustomized for different course contexts; 2) the key mechanisms underpinning how theintervention supports proximal and distal student outcomes; and 3) the efficacy and mechanismsby which course onboarding strategies involving leadership messaging and community learningprocesses are successful across varied course, departmental, and university contexts intransforming each targeted course.In this paper, we focus on the third component and describe our process for building buy-in withleadership and faculty regarding this intervention. As a part of this process, we have gatheredsurvey information to understand instructor willingness to use this intervention in their
process improvements is a Digital Twin [1, 2]. Digital twin is a digitalrepresentation of a physical system, commonly in a form of a mathematical model thatrepresents dynamic behavior of a cyber-physical object. Digital twin provides severalcapabilities to engineers: (a) what-if analysis during design process, (b) predictive health-basedmaintenance, and (c) process control and adaptive scheduling. According to Grieves andVickers “While the terminology has changed over time, the basic concept of the Digital Twinmodel has remained fairly stable from its inception in 2002. It is based on the idea that adigital informational construct about a physical system could be created as an entity on itsown. This digital information would be a twin of the
evidence-basedpractices to achieve transformative, systemic and sustainable change that will increase thegrowth rate in the number of BIPOC and women obtaining undergraduate/graduate engineeringdegrees and establish a future growth rate that can substantially close the participation gaps. Theshare of engineering degrees awarded to women and/or those who are Black, Indigenous andPeople of Color (BIPOC) in the United States over the past decade reflects only slow progress inthe efforts to increase representation of these groups at the undergraduate and graduate levels.And for men who identify as Black, Indigenous, and/or People of Color, the percentage ofmaster’s and doctoral engineering degrees being awarded has actually declined in recent years[1
uncertainties. In this paper 6061 Aluminum (Al) and 1008 CarbonSteel (CS) were welded together using Resistance Spot Welding for two groups: one with aSilicon Carbide powder (SiC) added as a coating and one without the powder. Welding oftencauses metals to change in composition, which can lead to a decline in physical properties,including strength and corrosion resistance. Even more so when the welded pieces are dissimilarmetals. In this paper it was found that the corrosion resistance of the welded joint in acidicenvironments (1% HCl at 35, 45, and 55 Celsius) increased when the SiC powder was added. Itwas also found that the tensile strength of the welded joint increased in the samples that thepowder was used in. If Engineering students understand
plays a key role in addressing global inequity and injustice.Enabling engineers to address complex technological challenges like climate change requires thedevelopment of new skills such as evaluating justice dimensions of engineering andcollaborating with diverse communities [1].Conventional engineering education emphasizes technology-based attributes such as analyticalskill development, technical knowledge, and creative problem solving and leaves little time forstudents to deeply engage with the social implications of their work [2] [3]. However, in recentyears, there has been an increased effort to incorporate social justice into engineering education[4-9]. One method has been to encourage students to take social justice-based electives
control the rover remotely. The GUI program obtains the GPSlocation of the rover and displays the location of the rover on a map. For the control of the rover,ROS (Robot Operating System) was utilized. A Raspberry Pi 3B+ board is used as anintelligence unit of the system. The collected samples can be brought to a laboratory for furtheranalysis. In this paper, the details of the amphibious sampling rover and the educational lessonsvia this capstone project are presented.I. Introduction Mosquitos may lay eggs in shallow waters or wet areas near the shore of lakes, ponds, andrivers [1-3]. Although the exact location of where mosquitoes lay eggs depends on the mosquitospecies or the local environment available to the mosquitos, water is a necessity
increasing the gradingload on the instructor.IntroductionComputer Networks is a core undergraduate course in most curricula in the computingdisciplines. ACM curricula recommendations for computing list computer networks as anelement of computing knowledge 1 2 . It is typically taught as an introductory course to the field ofcomputer networks in the upper division. The course has been taught for decades and has grownto incorporate the advancements in the field, as evidenced by the textbooks published in thefield 3,4,5 . The textbooks and the experts in the field have an informal consensus on the courselearning outcomes.Grading is an essential tool to assess students’ achievement of course learning objectives.Point-based systems have been known to
- sity since 2011. His teaching and research interests focus on structural engineering, structural concrete, infrastructure, and educational reform. ©American Society for Engineering Education, 2023 Development of an assessment for measuring knowledge transferred between the classroom and structural engineering practice.IntroductionIt is well documented that humans are not adept at the process of transferring knowledge learnedin one setting to another in which the underlying principles are the same, but the outwardappearance is different from that in which the learning took place [1]-[7]. Knowledge transfer(“transfer”’) is something that is often assumed in
engineering, the use of role models has been touted as one way to increase the number ofgirls pursuing engineering majors and careers, e.g., [1]. However, based on findings from fourth-and fifth-grade girls participating in an engineering outreach program, we question whetheryouth in this age group are looking for engineering role models, and we challenge theassumption that youth take up an individual as a role model simply because a program attemptsto position them in this way. This has led us to question what role these “models” play in theminds and lives of youth, and we argue that it may differ from what we have believed. In thisstudy, we seek to answer the following: 1) Are elementary-aged girls looking for role models?;2) How do girls perceive
software and hardware tools, and theneed to ensure students apply sufficient engineering rigor in their analysis and design of projectsolutions.IntroductionProject-based learning (PBL) is an active pedagogy in which student learning is achievedthrough the completion of hands-on project work, and it has become an integral aspect ofengineering curricula worldwide. This trend is largely a response to a perception that engineeringstudents graduate with insufficient design experience, underdeveloped professional competenciessuch as communication skills and teamwork, and a poor understanding of the many societalcontexts in which engineers must operate [1]. PBL is viewed as a powerful tool for addressingthese needs, as project work is self-directed in
research to maximize research impact. Each workshop includes videocontent, a workbook, and a moderator guide, with workshops designed to be deployed either in‐person or virtually facilitated by a workshop moderator.In designing our interventions, we considered alignment with guidelines provided by the Councilon Undergraduate Research (CUR), which include curating engaging and high‐impactopportunities, creating a community of student scholars, peer mentoring, opportunities for earlyand sustained involvement, and program assessment [1].To assess the impact of our workshop-based interventions on student research productivity andattitudes toward research, we developed a retrospective, post-experience survey and a one-yearfollow-up survey for students
technical andaffective capacities. Effective means of developing technical skills exist; they form the core oftraditional engineering curriculums. Development of affective capacities traditionally receivedless attention despite indications of their importance. Stolk and Harari, for instance, identified aneed for further investigation of connections between engineering college students’ motivationand cognitive development [1]. Introduction of entrepreneurship in engineering design offersone approach that may enhance these traits. Prior research conducted in an introductoryengineering course suggests that interaction with a “real” customer, other than the courseinstructor, enhances students’ perceived capacity to perform design tasks such as
have been adopted widely in undergraduate robotics curricula. The kitcontains various mechanical components, sensors, actuators, and a microcontroller (Cortex). Thekit provides instructions to build a mobile robot with a simple arm on top. Using this kit, studentscan go through the process of construction, electronics assembly, and programming. The VEXrobot has been used to implement waypoint navigation, map building, and path planning [1]. However, VEX robots primarily focus on motion control and low-level sensing, and they donot have a vision sensor (such as a CCD camera). As a result, it does not provide an onboard imageprocessing capability. In recent years, cameras have become more widely used on robots, allowinga representation of the
and Operations Research from the Pennsylvania State University. ©American Society for Engineering Education, 2023 Navigating Intersectional Identities in Civil Engineering Education and Practice1 Introduction:Underrepresentation is a well-known and researched topic in academia, specifically forengineering that remains a White, male-dominated field [1]. Underrepresentation is defined by “apopulation’s representation in education and employment that is smaller than their representationin the U.S population.” It is also defined by the uniformity of representation by field, forexample, “Although women have reached parity with men among S&E bachelor’s degreerecipients—half
Professor of Mathematics Education in the Teaching, Leaming and Edu- cational Leadership Department at Binghamton University. Her research interests include (1) examining individual’s identity(ies) in one or more STEM disciplines, (2) understanding the role of making a.11d tinkering in formal and informal learning environments, and (3) investigating family engagement in and interactions around STEM-related activities. Before joining BU, she completed a post-doctoral fellow- ship at Indiana University-Bloomington. She earned a Ph.D. in mathematics education from Clemson University.Dr. Jungsun Kim, Indiana University-Bloomington Jungsun Kim, Ph.D. is a research scientist at Indiana University at Bloomington. Her research
professional engineer, but they do not necessarily view theknowledge acquired in college as foundational principles. Thus, they often struggle transferringand applying fundamental engineering principles to the engineering applications encountered inthe workforce. According to Bransford et al. [1], ‘it is left to the student to transfer theoreticalknowledge to the solving of problems.’ Furthermore, according to the Federal HighwayAdministration (FHWA) [2], “most undergraduate structural engineering curricula do not fullyprepare students for professional practice in bridge engineering. Bridge design firms arechallenged to educate new engineers on topics that are beyond what is considered normal ‘on-the-job-training.’ …there is a need for college-level
, point to the efficacy of short-term internationalresearch opportunities as learning, perspective altering, and motivating experiences forundergraduates who identify with underrepresented groups and for undergraduates in general.1. IntroductionThe impacts of short-term study abroad programs are considered in the literature [1, 2, 3, 4] butinformation regarding mentored undergraduate research in STEM disciplines completed throughtwo-week international programs is limited as is material regarding impacts of suchprogramming for students identifying with underrepresented groups. Outcomes from two short-term international programs in STEM, one offered in the Yucatan in collaboration with Mexicanuniversities and the other in Belize, are considered
objectives wereachieved.Keywords: Phase-field method, mechanical engineering, graduate education, online teaching,computational approach1. IntroductionPhase-field method has emerged as a powerful and flexible tool for simulating the formation andevolution of microstructures in a wide variety of physical processes in materials. A distinctadvantage of this method is that it removes the need of explicitly tracking complex of interfacesand instead allows the prediction of the morphology evolution at micro- to mesoscale by followingthe growth kinetics of key microstructural features [1]. Because of such advantages, by now thephase-field method has been extensively applied to model different types of phase transformationsin various materials, such as
presents the NextGen roadmap to address theparticipation of underrepresented minorities in the STEM disciplines by Alumni participants ofthe programs, now represented in the Professoriate, the K-12, Industry and Agency settings. Theupdated responses to the 2022 survey will be presented along with data from the LinkedIntracking data.IntroductionParticipation from all communities across our nation is a national imperative for the US toremain competitive and US higher education programs must produce more graduates in theSTEM disciplines. A comprehensive evaluation of Alliance programs nationally in 2006 by theUrban Institute provided a blueprint and recommendations building on best practices by NYCLSAMP members (1991-2004) [1]. In the past two and a
students at the Algebra II placement level. Together, this means that students takingENGR 2100 are not making as much progress towards their degree as other students in thecollege during their first semester and that students who might benefit from some of the topics inENGR 2100 don’t have access because they placed into a higher level of math.Starting in Fall 2022, ENGR 2100 was revised to satisfy the requirements of a Personal Wellnesscourse within the WMU Essential Studies Program, a rethinking of WMU’s general educationprogram. The approach of integrating wellness into first-year coursework has been discussed byother researchers (e.g., [1]). Eight student learning outcomes were identified for the course(bolded and italic indicates
water properties such as water temperature andpH, and it can send the data over the internet. A user can also control the sliding light sourceover the internet. A GUI program using the .NET framework can access data and control theinstrumentation. The images can be stored on a local microSD card. For the main controller, aBeagleBone Black board was used, and the sliding platform was implemented using a steppermotor. In this paper, the details of the mosquito breeding environment testing instrumentationand the educational lessons learned via this engineering capstone project are presented.I. Introduction Mosquito larvae can be found in stagnant water in abandoned or discarded tires [1-3].Abandoned tires left outdoors can collect stagnant water
students in a learning experience, which can further lead them to computer science,mechatronics, electrical engineering, and electrical engineering technology career pathways. Thepaper also presents sample Arduino projects showcased through readily available Arduinosimulators.IntroductionAs time progresses, so does the development of technologies, which affect the world around us[1]. Nowadays, computers are found in almost every facet of a person’s daily life, ranging fromsensors used in various devices [2] to personal devices and home devices, as well as advancedcomputing that supports various daily activities. Computers can be found on a personal level inthe form of a smartphone, which can allow people to communicate with each other across