fifth-year. These safety moments demonstrate ourcommitment to safety and the importance to always keeping safety as a priority.Background The idea of a safety moment is not new. The concept stems from OSHA’s Toolbox talks, as well assafety leadership initiatives [1]. Simply put a safety moment focuses attention about a particular risk, task,scenario and how to handle it [2]. In industry, safety moments are short and concise single topics typicallylasting 3-5 minutes held at the beginning of a meeting or event to promote a safety-first mentality [1,2]. Acrossthe engineering community safety moments are adapting to promote wellbeing; representative companiesinclude [3]: Caterpillar, General Motors, Pepsi Cola Co., Clark Construction, and
is common to create lithium by exposing the materialto very high temperatures which requires a vast amount of energy. Furthermore, lithium ionbatteries are not recycled as frequently as they should be. This is demonstrated by the EU’s goalto use 4% recycled lithium by 2030. That means, currently less than 4% of the lithium comes fromrecycled materials [1]. While there are many ways to combat this problem, our group has createda heart rate monitor (normally powered by lithium ion batteries) that is powered by body heat.Body heat is a clean source of energy as it makes use of thermal energy that is otherwise wasted.However, body heat as an energy source generates little energy compared to sources such as solar,or fossil fuels, it is still
mindset refers to an established set of attitudes, behaviors,beliefs, and dispositions. By this definition, the Entrepreneurial Mindset (EM) is associated withcharacteristics and attitudes entrepreneurs commonly exhibit. In the literature, the most commoncharacteristics and attributes associated with entrepreneurs include opportunity seeking, need forachievement, adaptability, tolerance of risk and risk management, creativity, perseverance undersetbacks, understanding the needs of people, and lifelong learning (see [1] for a review). Theresearch also suggests that the general characteristics of entrepreneurs are very diverse as theycome from different backgrounds and personalities. Regardless of their differences, allentrepreneurs go through a
Lucca in Winter Garden, Florida. American c Society for Engineering Education, 2023The Women of Color inEngineering CollaborativeASEE CoNECD ConferenceFebruary 26 - March 1, 2023 Supported by the National Science Foundation under Award No. 2040634 1 Session Objectives ´ Understand why the Women of Color in Engineering Collaborative was created ´ Learn about the process used to bring almost 30 organizations together in a virtual environment
conventions and reproducing previously worked examples [1], [2], [3]. Astrictly procedural approach to statics can lead to superficial understanding of fundamentalconcepts such as the force interaction between contacting bodies [4].Engineers communicate and apply concepts such as force interactions using a language ofmultiple representations that include pictorials, diagrams, graphs, symbols, numbers, andnarrative language [5]. Representation translations can be an effective strategy for buildingconceptual understanding because they provide opportunities for students to resolvemisconceptions (or naïve conceptions) and build mental models of the underlying meaning therepresentations communicate [6]. Studies in chemistry education have shown the
to enhance their understanding of engineering content. Dr. Goodridge is an engineer- ing councilor for the Council on Undergraduate Research (CUR) and has been active in consulting for international companies/entities such as SIEMENS and USAID. American c Society for Engineering Education, 2022 A Qualitative Study of Spatial Strategies in Blind and Low Vision IndividualsIntroductionSpatial ability is a cognitive intelligence related to the capacity to generate, retain, retrieve, andtransform well-structured visual images [1]. The number of various constructs of spatial abilityhas not been agreed upon, nor has a complete
Students in the Materials Intensive Engineering Departments: Successes Among Unexpected Challenges https://monolith.asee.org/public/conferences/309/papers/35762 Dwayne Arola1,2, Sandra Maddox1, Eleftheria Roumeli1, Lilo Pozzo1,3, Junlan Wang1,2, Ismael Fajardo4 1 Department of Materials Science and Engineering, University of Washington, Seattle, WA, 2 Department of Mechanical Engineering, University of Washington, Seattle, WA 3 Department of Chemical Engineering, University of Washington, Seattle, WA USA 4 Department of Education, City of Seattle, Seattle, WA
as transfer students, and represent a growing student population in the United States [1].Transfer students are generally considered to be more motivated to study engineering than firstyear students, but they usually face many academic, social, and/or psychological challenges duringthe transfer process [2]. As a result, many transfer students obtain a lower GPA in their first year 1after the transfer process is complete. This phenomenon is often referred to as “transfer shock”.As a result, transfer students generally have lower graduation rates with respect to their peers.A study of existing literature reveals that the most common barriers to
other engineering education institutions: at heart, the project aims to helpstudents better understand, and hence be better prepared for, their post-graduation futures. Lackof student preparation in all dimensions needed to succeed in the engineering environment–a“misalignment” between engineering education and practice has long been noted, and manyengineering graduates still endure a challenging transition to the workforce [1], [2]. To addressthis need, engineering educators have incorporated project-based learning in the curriculum [3],[4], [5], including capstones [6] and design projects [7]. [7] proposes more broadly that“curriculum developers and instructors should employ an integrative approach where studentscan connect their use of
its contribution to climate change. Amazon at this point had alreadypledged to use renewable energy sources for some of its infrastructure, but had not madea large commitment nor agreed to release figures about its carbon footprint unlike a fewother tech companies.Activist employees created a climate proposal (which was rejected by shareholders at the annualshareholder’s meeting in May 2019). In April 2019, the group posted an open letter to AmazonCEO Jeff Bezos and Amazon’s directors asking for the company to take more comprehensivemeasures to address climate change. Posted on the website Medium, the letter has more than8,100 signatures, representing 1% of the company’s workforce (Peltz, J. 2019).In September 2019, 1,800 employees from
education, during and post pandemics Mory Ghomshei1, Farzan Ghaffari, William Oching British Columbia Institute of Technology (BCIT), Burnaby, B.C., Canada 1- Corresponding author: mmohieddinghomshei@bcit.caKey Words: Engineering Education, Effect of Pandemic on Higher Education, Covid-19Pandemic. Engineering Education During PandemicsAbstractCorvid-19 Pandemic was a turning point in post-secondary education. Engineering educationwas specially impacted by the Pandemic, due to its experimental and real-world components,which are often difficult, if not impossible, to be effectively and efficiently delivered online.While some text-based courses can be delivered remotely, there are major
pressing reason isthe cheating which occurs in exams in an online setting. Notable cases of academic cheating withthe transition to an online mode of learning include Boston University cheating in Spring 2020[1], Boston University cheating in Fall 2020 [5], Texas A & M University cheating in Fall 2020[2].It is inevitable to acknowledge the need for rethinking curricular development and assessmentstrategies for effective use in an online mode of learning. This paper talks about effectivecurricular development and assessment strategies for use in engineering courses used for ABETAssessment taught in an online setting.ABET AccreditationThis section describes the ABET assessment development and mapping process, and theorganization of the
is a key component of CEL and can be challenging toimplement [1].CEL has been shown to be highly impactful in shaping educational experiences of students inuniversity [2], [3]. However, it can also be resource intensive, necessarily taking time and effortto cultivate community partners and establish strong relationships. These strong relationships areimportant to ensure the project will benefit all stakeholders in a meaningful way. Ensuring this isoccurring can be difficult and there is a rich literature on critical service learning which examinesthese challenges [4]–[6].Both University of British Columbia (UBC) Campuses have undertaken studies on experientiallearning, including CEL [7], [8]. Both studies have recommended support to equip
perspectives of STEMuniversity education and career paths [1] – [3].This paper describes the development of a new engineering outreach program, Engineering 11,by the School of Engineering, University of British Columbia, Okanagan (UBCO) throughcollaboration with the Central Okanagan School District (SD 23). UBCO Engineering 11consists of several modules covering a wide range of engineering disciplines and subjects, suchas civil, environmental, mechanical, biomedical and electrical engineering, and engineeringethics, aiming to provide senior high school students an opportunity to explore the manydisciplines of engineering and career pathways. The course is designed to be taughtcollaboratively by a physics teacher of SD 23 and faculty and graduate
remotelyand experience hands on operation to train muscle memory.The advancement of novel technology in virtual reality (VR) in the game industry and medical fields [1]–[5] enabled users to experience immersive environments to simulate real life like scenarios. Additionally,clinical studies have shown significant improvement in human health recovery with the assisted VRmotor trainings [6]. Virtual environments can serve as a mediator between the human operator and therobotic arms to improve perception of the equipment. In this study we explore the effectiveness of a VRsimulated Fanuc robotic arm as a remote learning tool. We replicated the existing robotics laboratory inthe VR environment to provide realistic experience to the students in the