shown.industry (Fig. 1). files taken from SolidWork files of designed parts. The PMMA sheets are bounded chips. The CONCLUSIONS together using high-strength cement while the PDMS chip encasements. Then, we use transparency of acrylic Figure 3. Drawing of the selected Hex structure (~ 0.75 mm inner
previously. His research interests include Mixed-signal/RF circuit design and testing, measurement automation, environmental & biomedical data measurement, and educational robotics development.Simon CastroOctavio CarrilloRene VillegasChristoph Ruepprich, Texas A&M UniversityProf. Kevin MylesZach Adelman ©American Society for Engineering Education, 2022 1 Session XXXX Capstone project progress on the floating buoy IoT device development for mosquito research 1 Byul Hur, 1Simon Castro
is taught over three quarters, starting inthe fall quarter. The fall quarter covers medical imaging physics, descriptors of image quality,radiography, fluoroscopy, mammography, and optical imaging. The winter quarter covers computedtomography (CT) and magnetic resonance imaging (MRI). The spring quarter covers nuclear medicine(radiopharmaceuticals, planar radionuclide imaging, single-photon emission computed tomography(SPECT), and positron emission tomography (PET)) and ultrasound. Table 1 contains the list of lecturestaught during the course. Each quarter is graded individually and doctoral and master’s students must passall three quarters to progress with their degree. Table 1. List of lecture topics from the 2020-21
, eliminating the meaning of an expert on the topic. Historically,education methods tend to evaluate grades as ordinary targets rather than using the grading system as themeasurement tool of the students' learning. When implemented correctly, self-directed learning withinprojects puts challenging learning first rather than the binary pass or fail credits [1]. All the while,professors need to set the level of expectation on the topic and let students pace themselves. If the studentcan spark their own passion rather than a professor force-feeding material, more questions may be askedleading towards further understanding. After all, the professor is the expert on the material; therefore,SDL can only add responsibility towards learning for everyone
conventional water treatment techniques to mitigate cHABs events thatoccur massively and irregularly. The application of technologies for HABs mitigation is limiteddue to the following reasons: 1) Scalable and efficient technology is critical. Increasing thetreatment capacity up to lake scale while keeping low capital cost and energy consumptionrequires more research in field application; 2) Potential technologies need to act as emergentresponse to the cHABs. Due to the environmental factors mentioned above, the periodic bloomscan rapidly occur and then disappear when the local conditions do not favor their growth. So, atreatment process with high removal efficiency is needed to react to the cHABs during monthsperiod; 3) Ecological affects are another
Sinchana Sulugodu Shashidhara Dept of EECS Syracuse University Syracuse, NY USA ssshashi@syr.eduAbstractThe disparity of women in STEM (Science, Technology, Engineering, and Mathematics) discipline have beena persistent problem in the United States of America. Research suggests that women who join STEMdiscipline leave very frequently to care for their families, financial setbacks, personal obligations, and callto active-duty program. Returning women, very rarely choose to pursue STEM education or cannot enterthe STEM workforce because - 1) these fields are constantly
Observations, reflection, and goal setting, support development of evidence- supported pedagogy in engineering peer educators Celia Evans1, Lisa Schneider-Bentley1, Jena Rozanski2, Jordan Johnson2, and Ryan Sauve1 1 Engineering Learning Initiatives, Cornell University, 2College of Engineering Cornell UniversityAbstractIn higher education, the role of undergraduate educators is growing. Teaching teams in large coursesoften have a mix of graduate and undergraduate teaching assistants (TAs). We employ and trainundergraduate ‘Academic Excellence Workshop (AEW) Facilitators’ who, in pairs, lead weeklycollaborative learning sessions that parallel challenging core courses. In training sessions, we introduceand
activity involves utilizingsimulation to design a full-scale production system given an assembly system prototype. Inaddition to the traditional technical engineering objectives, the project engages the key elementsof the entrepreneurial mindset including curiosity, connections, and creating value. Both theproject outcomes and results of a student survey support the benefits of this approach.1. IntroductionThe concept of the entrepreneurial mindset is described by Bosman and Fernhaber [1] as “theinclination to discover, evaluate, and exploit opportunities.” All engineers need to have technicalengineering skills to perform their daily jobs, however, those engineers that are highly successfullook beyond the calculations, part specifications, process
media representations of Black women on their STEM identity development.Specifically, we answer the following research questions: 1) How does the proportion of Blackwomen compare to that of other racial groups in STEM roles in popular science fiction films and2) How are Black female characters represented in STEM and non-STEM roles in popular sciencefiction films? This study found that Black women are scarcely represented in Both STEM and no-STEM roles in the science fiction films. Moreover, in the sample of films analyzed for this study,Black women have not been cast in a lead or co-lead role in any film. The findings highlight theneed for greater non-stereotypical representation of Black women in popular films to provide rolemodels for young
, as shown in Table 1. Table 1. Post-Program Student Responses, NYSED Program Question Response YES SORT OF NO Before this activity, did you know what anaerobic digestion was? 3 12 11 After the activity, do you feel confident telling someone what 12 13 1 anaerobic digestion is? Are you seeing connections between the ideas today and things you 14 7 4 learning in the classroom?Approximately 30 students who participated in the multi-lesson after-school programs wereadministered a brief pre-post survey
1 Implementation of a Mind-Controlled Wheelchair Garrett Stoyell, Anthony Seybolt, Thomas Griebel, Siddesh Sood, Md Abdul Baset Sarker, Abul Khondker, Masudul Imtiaz Department of Electrical and Computer Engineering Clarkson University Potsdam, NY stoyelgm@clarkson.edu Abstract—The application of a brain-computer interface to of this project was to serve
The portrayal of faculty wellbeing in popular media: a comparison of STEM vs non-STEM facultyFaculty are key players in the success of colleges and universities, performing the teaching, research,and service necessary to keep programs thriving. However, it is often challenging to balance theirmultiple commitments, resulting in lower motivation [1]. Such challenges are heightened for facultyfrom different marginalized groups [2]. The perceived challenges of faculty work, including those of poorwork-life balance, have been identified as a deterrent to new generations of graduate students topursue faculty careers [3]. In a large survey of graduate students at the University of California System, itwas identified that students’ career goals
happens to micro-vessels when blocked and how thesurrounding vessels compensate and redirect flow. The use of a PDMS chip allows forreproducible and easily visualized results without the need for an animal model. Students learnmicrofluidics, image acquisition and analysis, microfabrication, and MATLAB® simulations aswell as gain an appreciation of the fluid dynamics of microvascular blood flow in health anddisease.IntroductionMicrofluidic devices have been applied to many areas of cutting-edge research, they allow forhigh throughput while using minimal supplies, more control over the environment, potential forautomation, and ability to test different parameters easily [1]. Students typically learn fluiddynamics through lectures based in theory
: K-12 Education, STEM Outreach, STEM Education, Engineering Education,Equity Diversity and Inclusion, K-12 OutreachIntroductionThe k2i academy at the Lassonde School of Engineering - York University works with K-12education sector partners to design and implement programs that address systemic barriersto opportunities in STEM. In 2019, the Ontario Network of Women in Engineering reportedthat 24.4% of undergraduate engineering students were women. (ONWiE, 2019) In 2016,Engineers Canada reported that only 1% of undergraduate engineering students enrolled inaccredited engineering programs identified as Indigenous peoples. (Engineers Canada,2016) In this paper, we will share our experience in designing a program that addressessome of the
the motion and functions that a Prosthetics can be classified into two types: Fully actuatednatural hand can perform, like grasping various objects, and under-actuated. A fully actuated prosthetic is usuallytactile feeling, recognition, and manipulating different equipped with actuators corresponding and replicating theshaped objects. This design was performed by a movement of a natural hand with 27 degrees of freedom: 4 inMechanical Engineering Freshman in his very first each finger, 3 for extension and flexion, and 1 for abductionsemester in college after completing a rigorous literature and adduction. [2] [3] The main disadvantage of fullyreview. The design experience
Visual Verbal Integrated (VIVID) Comics - A pedagogy for teachingtransferable and humanistic skills in EngineeringKai Zhuang1,2, Dimpho Radebe3, Mojgan Jadidi 1, and Evan Hu21: Lassonde School of Engineering, York University, Canada2: Brave49, Canada3: University of Toronto, Canada0: AbstractTransferable, humanistic, and future-ready skills, such as emotional intelligence and ethicalleadership, are essential for students’ success, thriving, and contribution, particularly intechnical fields such as engineering. However, many engineering students, beingtechnically-focused, find these topics difficult to engage with and may lose interest andmotivation along the way.We have been developing and piloting a novel pedagogy, called Visual Verbal
face to succeed in engineering have been extensively documented[1]. Experiences with the “chilly climate” have shown to deter women from persisting inengineering and other STEM degrees [2]. Although women faculty in engineering haveovercome such challenges throughout their academic career, they continue to face challengesrelated to gender disparities in academic environments [3]. On the other hand, their condition asminorities in male dominated areas can be evaluated as an advantage given the presence ofstrategies for their advancement, such as affirmative action [4]. In this literature review, we payattention to some of the challenges these accomplished women faculty face throughout thepipeline: from graduation to hiring as well as in
the field of engineering.IntroductionCalls for enhancing science, technology, engineering, and mathematics (STEM) pathways andexperiences have proliferated over the past two decades [1] – [3]. As careers and global jobmarkets continue to evolve and expand, so too does the need for more diverse perspectives andqualified individuals to engage in both new and existing engineering and technological roles [4].This need has led to an enhanced research effort in STEM engagement during younger years(e.g., elementary and middle school) to better understand how children’s early experiences withSTEM may influence their interest in various disciplines and educational or career pathways [5].This effort has been challenging, particularly for the field of
interactive learning and practical hands-onexperience. Recently, integration of flipped classrooms and gamification is designed and practiced inmany different engineering courses, which has been demonstrated with a significant increase in learninginterest, attitude, and student-instructor interaction[1]–[4]. The framework of such integration forperson-centered education in engineering courses could potentially enable students to acquire self-reflective competencies and self-motivated problem solving. For example, Kahoot!, a flexible andsimple tool that works on any devices, is being used widely at different levels of education system tocreate, play, and share games in the form of quizzes and homework[5]. Furthermore, new game features,like the Jumble
problems facing the world. Undergraduate engineeringstudents enrolled in two sophomore-level engineering courses at Clarkson University (CU), onetechnical course (n = 19) and one sociotechnical course (n = 15), completed a pilot survey duringthe fall 2021 semester. Student responses to a set of open-ended questions at the end of thesurvey were explored to find differences between the two courses, as well as gender-relateddifferences within and between each course, across three categories, to understand how thecourse had affected students’: (1) sense of belonging in engineering; (2) views of the relationshipbetween engineering and social justice; and (3) views of the relationship between engineeringsocial responsibility. Their responses revealed
student-centered techniques into their lectures is common in faculty, the additional timecommitment is a typical barrier. This work describes a pilot program called the “Interactive LearningCollaborative” that supports trained teaching assistants (TAs) in designing and implementing interactiveactivities and retrospective post-assessments in lectures, in partnership with faculty. The objectives of thepilot were to 1) provide engineering TAs opportunities to practice activity design and implementation, 2)improve students’ comprehension of the material through peer interaction and reflection in lectures, andin doing so, 3) demonstrate to faculty these pedagogies and their positive impact on student perception.In the fall of 2021, TAs met with a
focuses on (1) how to design and change educational and work systems through studies of practicing engineers and educators and (2) how to help students transition into, through and out of educational and work systems.Monique Ross Assistant Professor, Knight Foundation School of Computing and Information Sciences and STEM Transformation Institute at Florida International University, research interests include broadening participation in computing through the exploration of: 1) race, gender, and identity in the academy and industry; 2) discipline-based education research that informs pedagogical practices that garner interest and retain women and minorities in computer-related fields. She uses her scholarship to
circuit elements without defining the restrictions of therequired design leads to a circuit that will fail to meet the specifications.To obtain a deeper understanding, students are required to investigate the relation of differentdesign parameters from different aspects, visualize the dependency of circuit performance onvarying different parameters, and comparing design simulations with built circuits.In order to obtain a final circuit design that satisfies the requirements and meets the requiredfunctionality, students will be practicing the Kolb’s Experimental Learning model [1] shownin figure 1. Students go through a ring process between mathematical derivations, parametersetups and calculations, circuit simulations, model testing, circuit
materials and that played a large role in how the design process developed. It wasdetermined that the best way to meet this cost constraint would be to minimize both the overallsize and the complexity of the materials tester while still maintaining maximum functionality,efficiency, and overarching design objectives; a hand-operated materials tester with translatingcrossheads was thus chosen. Although this eliminated the possibility of testing high-strengthmetals and ceramics, the materials testing machine still maintained the ability to test materialswith strength up to that of mild steel, while the simplicity significantly reduced cost. A materialschart, shown in Table 1 and Table 2, was developed to determine the tensile strength of a widerange
(anduniversity) culture that values evidence-based teaching practices. Specifically, the NSF-fundedproject aims to make active learning (AL) the default method of instruction in early STEMcourses across the institution. The project builds on existing work on grassroots change in highereducation (Kezar and Lester, 2011) to study the effect of communities of practice on changingteaching culture. Within departments, the project leadership has created course-basedcommunities of practice that include instructors for the targeted courses, as well as otherdepartment faculty interested in broadening adoption of evidence-based teaching practices.The Physics and Astronomy Department at the R-1 institution at which this study takes placebegan engaging in change
, benefits thepersonal growth of the students themselves and the nation to keep up the excellence and overallleadership. However, international students, especially graduate students, in the United Statesmight fall into several exclusive issues and dilemmas that negatively influence the constructionof their academic identity [1]. Firstly, changing policies on visas and immigration havenegatively and systematically affected international graduate students arriving on U.S. campuses.This uncertainty due to changes in the political climate and global events unproportionallyimpacts students from countries such as Iran and China [2]–[4]. Secondly, an internationalstudent visa has a limited duration and associated criteria to ensure legitimate status. They
engineering identity.They have maintained and unquestioned technology as a core concept usually associated withengineering and value-neutral artifacts developed to solve problems by applying only specializedknowledge.Nevertheless, this conception of technology is far from reality. As currently accepted, technologyis a corpus of sociohistorically contextualized knowledge that embodies its creator’s culture,opening the door to diverse engineering conceptions [1]. In that sense, if a monolithicperspective of engineering continues, it is possible to consider technology as one kind of materialmanifestation of the engineering subculture, which includes only one set of shared commongoals, particular priorities, beliefs, values, and the specific jargon