Work-Integrated Learning: An Alternative Pathway for High School Physics Vanessa Ironside, Lisa Cole, Michelle Tsui-Woods Lassonde School of Engineering, York University vanessa.ironside@lassonde.yorku.ca, lisa.cole@lassonde.yorku.ca, michelle.tsui-woods@lassonde.yorku.caAbstract k2i academy within the Lassonde School of Engineering at York University is committed todismantling systemic barriers that impact underrepresented youth in science, technology,engineering, and math (STEM), including women, Black youth, and Indigenous youth. Abarrier to pursuing engineering and many sciences in post-secondary is high schoolprerequisite courses, with grade 11
Towards Development of an Interactive Mobile Application for Teaching The UNSDG D. Singh1, R. Khanakan1, Y. Ijaz1, D. Tennakoon1, M. Jadidi1,* 1 Lassonde School of Engineering, York University, Canada * Corresponding Author: mjadidi@yorku.caAbstract In aim of a better, inclusive, accessible, and safer future, educational institutions are committedto integrating the United Nations’ 17 Sustainable Development Goals (SDG) into their curriculumdesign and course delivery. Traditionally, a plain literary review of these goals has been adoptedby educators. This tends to leave students wondering what a realistic scenario would look like, andhow they would approach an
balance my own need to integrate philosophical conversations andcritical questions into my teaching, with their need to support the professional development ofour students.Lesson 2: Positivism is alive and well but not universalOne year into my position as a staff researcher, I was invited to lead an engineering educationseminar. We did not yet have an engineering education unit in our faculty, but we did have agroup of engineering professors, staff and students interested in engineering education research.We met monthly to discuss topics of interest. As a regular attendee, I was invited to lead aseminar on social science methodology. By the time of this invitation, I was used to beingintroduced as the “social scientist,” which was comical to me
Art-Inspired Pedagogies in Engineering EducationUsing Comics, VR/AR, Gaming, and Music in Engineering EducationKai Zhuang1,2, Dimpho Radebe3, Mojgan Jadidi11: Lassonde School of Engineering, York University, Canada2: Brave49, Canada3: Faculty of Applied Science and Engineering, University of Toronto, CanadaIn recent years, there is growing recognition in engineering education that creative, humanistic,and transferable skills such as emotional intelligence, ethical leadership, and teamwork, areessential to students’ success, thriving, and contribution in university and beyond (Jarrahi et al.,2023; Lappalainen, 2015; Rottmann et al., 2015; World Economic Forum, 2020). However, mostengineering students are used to rigorous curriculums that
use female) sophomore-level weeks, and photovoice to elucidate project of photovoice with students enrolled in the metacognitive reflection experiences. entrepreneurial engineering technology was administered during design projects as program. the 4th week. a high-impact practice in engineering technology education [12]. Exploratory: n = 7 (5 male, 2 female), Semester-long nature- Student perceptions were Examine the enrolled in an upper-level inspired podcast identified and were integration of an undergraduate course creation curriculum. aligned with a framework entrepreneurial offered at a satellite Photovoice
standards in real-world contexts. Moreover, the study proposes an expansion ofthis approach to civil engineering and cybersecurity-related programs, emphasizing the broaderimplications for workforce preparedness and infrastructure resilience. By highlighting theimportance of standards education and offering a replicable model for curricular integration, thisstudy contributes to advancing standards literacy initiatives within higher education and drawsattention to their role in shaping the future engineering workforce.IntroductionStandards form the foundation of many technologies and processes used in daily life. They helpmanage safety, security, and risk across countless industries and activities [1]. In simple terms,they are documents that
linked to a vertically integrated framework of our curriculum, which combines core engineering concepts andprocess design around biodiesel plants in different courses of our program. Finally, the teams submit a “strategiesreport” (engineering logbook), where all engineering strategies to achieve the process engineering goals aresummarized and discussed. With this revamped version, we expect to guide students to assume responsibility fordesigning sustainable chemical processes while enhancing students’ career readiness.Keywords: Curriculum integration, chemical process design, sustainability.IntroductionThe integration of sustainability-related topics in the chemical engineering curriculum has beenstrategized in different teaching approaches and
knowledge of effective teaching methods grows.Asynchronous OptionIn the first year of the course, an asynchronous online option was offered, and even heavilyencouraged due to the ongoing COVID-19 pandemic. The learning method for this course wasentirely reliant on the prescribed SolidWorks videos, and since it was during the first year, itconcurrently followed the in-person curriculum. As this was the first time the course was beingoffered, it was believed that an asynchronous option would increase participation, as studentsmay be unable to return to campus for evening sessions. The student leader who sent out emailsprovided the asynchronous cohort with weekly emails to provide structure and encouragement topersist with the videos and
the lead researcher, I will form a project team of community, education, industry, andworkforce development leaders to communicate, share curriculum, and write articulationagreements to thread the training sequence together to achieve an action plan. Researchers with asocioeconomic consciousness and the ability to “recognize inequalities and injustices in societyand strive to challenge the status quo, with overtones of humility, and who possess a sharedsense of responsibility” drive social change [44].Implementing CE Education programs requires knowledge of workforce development,community, government coalitions, funding, and policy. Research activities focus on the bestpractices in these areas and are informed by socioeconomic factors that
, digitalcircuits, and microcontroller applications. This paper outlines the design and integration ofmotor-based labs and projects to enhance student engagement and application-oriented learning.Infusing motor applications could address the perceived lack of technical experience amongfreshmen. The EET program at Buffalo State originated as a 2+2 program where incomingstudents were juniors with a 2-year technical degree and often worked in the field as an associatedegree technician. For the past two decades, the program has offered a complete 4-year set ofcourses, and incoming freshmen are younger, lack technical backgrounds, and are moreunprepared in mathematics [1].Students in the DC Motor section seemed excited to test out their code for moving the
article, written by two studentleaders on an international humanitarian trip, a participant, and their instructor, delves into thecomplexities of navigating cultural differences, ethical dilemmas, and the long-term impact ofthese initiatives on both students and communities, outlining the importance of communitypartnership, sustainable practices, and ongoing dialogue in shaping responsible engagement ininternational volunteerism.Considering first-hand experiences and available literature, the paper offers insights andrecommendations for future initiatives, specifically emphasizing the need for holistic approachesthat prioritize social justice, mutual benefit, and ethical integrity. By considering whetherinternational humanitarian trips are