measure student advancement inknowledge on multiple levels from Describe to Analyze as well as longitudinal studies trackingpost-graduation motivation to get involved in leading teams in technologically complex problemsolving.CONCLUSIONThe authors firmly believe that educated persons must have a clear understanding of the basicunderpinnings of modern life. This means a grounding in what modern infrastructure consists of,the impacts associated with its use, and insight into how the seemingly disparate infrastructuresystems interact to support civilization. The specific technological pieces of the infrastructureexamined could vary widely – health care systems, water supply, information technology and itsnetworks, and on and on, all represent viable
concept guided thedevelopment of survey questions that measured students’ perceived abilities, in alignment withliterature on project-based teams in engineering educational contexts [24]. The inclusive team-based learning items used the same response scale as the General Self-efficacy Scale, given theevidence of high reliability and cross-cultural validity [25]. Additionally, the survey askedstudents to rate how easy or difficult the 16 inclusive team-based learning activities felt, giventhat team-based activities can involve intercultural exchange. This strategy was informed by theconcept of intercultural effort [19], which explains that measuring students’ intergroupengagement without also measuring the effort required to engage across such
author team consists of two engineering graduate students at a research-intensive university,one engineering undergraduate student at a four-year college, and a visiting assistant engineeringprofessor at a four-year college. We are in the process of filing an IRB to account for the variouspower dynamics on this team. We come from different backgrounds and have identities thatrange across race and ethnicity, LGBTQIA+, disability, and neurodivergence. We are all multiplymarginalized in engineering. We feel like outsiders or insiders across different axes of identity inengineering spaces. This work is written from the vantage point of individuals with ADHD. Inpractice, this means we understand what it’s like to constantly engage with systems
, thermodynamics, mechanisms intersection design and theconstruction of supermileage prototype vehicles are just a few of the case studies.Materials Science students learn about the characteristics and uses for materials ranging from asimple polymer casting to phase diagrams of metallic alloys that they create and cast in class.Students learn about techniques and application process associated with many different materialsthroughout the 68 hands-on experiments.Computer Aided Design is an area that has given students in the program a superior designexperience that allows them to visualize their dreams and communicate this to other members ofthe team without simply relying on sketches and the spoken word. Students now have the abilityto animate any of their
) an ability to communicate effectivelyh) the broad education necessary to understand the impact of engineering solutions in a global,economic, environmental, and societal contexti) a recognition of the need for and an ability to engage in lifelong learningj) a knowledge of contemporary issuesk) an ability to use the techniques, skills, and modern engineering tools necessary for engineeringpractice.Engineering programs must also demonstrate that graduates have the capability to applyadvanced mathematics (including differential equations and statistics). ABET 2000 criteria arebased on the principles of outcomes assessment and a continuous improvement process relatingeducational objectives to the curriculum and to educational outcomes. Some
preparationinvolves developing students’ global identity and intercultural competence, which are crucial forsuccess in diverse environments [3]. Global identity refers to an individual’s sense of self as amember of the global community, encompassing awareness of global issues, appreciation forcultural diversity, and a sense of global responsibility [4].STEM education plays a pivotal role in addressing global challenges and driving innovation.However, STEM fields have traditionally focused on technical skills, often overlooking theimportance of intercultural competence and global awareness [5], [6] [7]. As STEM graduatesincreasingly work in multinational teams and on global projects, there is a growing recognitionof the need to integrate intercultural
solving.Competition between manufacturing companies throughout the world is forcing business leadersand employees to become creative and innovative problem solvers. As technology and changecontinue to dominant the industry, it is essential for manufacturing leaders and employees topossess the creative thinking skills to find innovative ways to compete on a global scale3.Acknowledging the future leadership roles of engineering and technology students, the author’sacademic department has taken the initiative to emphasize creative problem solving and decisionmaking. As future leaders, students will have a tremendous impact on upcoming events that willhave global effects.What is CreativityThe author’s research on the various theories of creativity is discussed
clearto the students, the student’s role in learning is recognized, and students have the agency toengage in the course material in ways that respect their identities (Holmes et al., 2023). Eventhough equitable and effective teaching depends on changes to the larger higher educationsystem, instructors play a crucial role in serving their students. The framework consists of sevenprinciples: (1) students need opportunities to engage in disciplinary learning actively, (2) toconnect to and leverage students’ diverse interests and goals, prior knowledge and experiencesenhance learning, (3) STEM learning involves affective and social dimensions, (4) identity andsense of belonging shape STEM learning, (5) multiple forms of data can provide evidence
been chosen as the teaching medium. Three main aspects of theteaching methods include: 1) In-class teaching of lecture material (i.e., casting processes) 2)Hands-on sand casting laboratory where students are engaged in conducting and assisting invarious steps of sand casting process (i.e., premixing, mold preparation, actual casting process,trimming sprues, runners, gates etc.) 3) Numerical and graphical analysis of the casting processthrough simulation. The integrated methodology would be comprised of classroom and labactivities, in which two sessions are conducted in the classroom environment, and one session isconducted in the casting lab. The first classroom lecture incorporates describing the variousaspects of the casting processes such
2. 2010 ASEE North Midwest Sectional Conference a) an ability to apply knowledge of mathematics, science and engineering; b) an ability to design and conduct experiments, as well as to analyze and interpret data; c) an ability to design a system, component, or process to meet desired needs; d) an ability to function in multidisciplinary teams; e) an ability to identify, formulate and solve engineering problems; f) an understanding of professional and ethical responsibility; g) an ability to communicate effectively; h) the broad education necessary to understand the impact of engineering solutions in a global and societal context; i) a recognition of the need for and an ability to engage in life-long learning
formed for each project and comprised of students selected on the basis of theirknowledge, grades and interest. The students are expected to work as a cohesive team with theopportunity to become team leaders and learn to communicate effectively and efficiently amongthe team members, peers, and sponsors. During these two semesters, SDP students also attempt toparticipate in design competitions and entrepreneurial projects. The course also emphasizesacquiring non-technical professional skills besides the engineering concepts; such as professionalcode of conduct, report writing, and team management which are very critical in today’s emergingglobal economies for a successful engineering career.At the end of the school year, the capstone design
systems including computers, communications, and other technologies 4. The ability to lead and to communicate effectively, both orally and in writing Page 6.584.7 5. The skills and attitudes of life-long learningProceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright © 2001, American Society for Engineering Education 6. The ability to apply knowledge, manage projects and work effectively in diverse teams. 7. The understanding of the impact of technology on society from a broad educational base and moral
for STEMeducation that they may not have received without these institutions. HBCUs arecritical in the education of minorities. Access and opportunities need to be availablefor all students to become scientists and engineers. HBCUs should be considered avital partner in collaborations. Deans in Maryland have discussed establishing a 2-year program at the community college level that can transfer into 4-year college.Guilford County: K-12 education reform for inquiry and unguided exploration in theclassroom. Engage, Explore, Explain, Elaborate, Evaluate is a motto that is beingintegrated in classes. Engineering as a discipline needs to be introduced to families assomething exciting as opposed to something fearful because of the science and
electives, humanities/socialscience electives, and off-campus activities. One idea for an innovative learning experience wasto organize and complete a high adventure expedition. Typically, projects of this nature areassociated with K-12 organizations, but Lawrence Tech faculty modified the concept to beapplicable at the college level. Faculty and students organized, planned, and completed anexpedition from Detroit to Pittsburgh by canoe. The project presented students with a multitudeof valuable life lessons. They learned about teamwork, leadership, time management,fundraising, communication, history, engineering, social issues, environment, and the GreatLakes region. The students also honed their engineering and problem solving skills in ways
conclusions, etc.), while the capstone design course provides anideal setting for assessment of the skills that are specific to the discipline of chemicalengineering. Many program outcomes (e.g., communication skills, understandingsolutions in societal/global settings) are well represented in both courses.Task 1: Identify Essential Elements for Each CourseThe specific design problem in Chemical Plant Design is different every year, and thecourse instructors have the freedom to frame specific instructional objectives for thecourse as they see fit. However, one can identify elements such as an economic analysis,an environmental impact assessment, etc., that are integral components of any chemicalprocess design. Similarly, while every Junior/Senior
general answers in the pre-survey. At the end of the workshop, they were much better able to give specifics about the role and career of an engineer. This meets one of the important goals of the workshop, to help teachers better communicate the role of an engineer to their students. Teachers were asked to quantify their understanding of different aspects of engineering on a scale of 1 to 5. Through a comparison of pre- and post- survey data, the participants demonstrated an increased level of understanding of the impact of engineering on improving life (+4% increase), the difference between science and engineering (+12% increase), the value of an engineering career (+2% increase), and the “art” aspect
with hardware 6. In your experience and opinion, did COVID-19 affect your 4.75 (Mean) capstone project? (Std. deviation: 0.43) 7. Briefly state the impact on your capstone experience due to COVID-19. Summary of the selected answers: * Lack of face-to-face interactions due to COVID restriction. * COVID made it more demanding, and it made communication and decision making harder © American Society for Engineering Education, 2022 2022 ASEE Annual Conference & Exposition From the survey results, the COVID-19 affected the team (Q6, Average: 4.75). From thedescription in Q7, students stated there was a lack of face-to
to do as well as the good students in traditional classes.”13Per Robert Half, ‘When one teaches, two learn.” With Jigsaw Learning, every student teachessomething14 (their assigned topic – a.k.a. their ‘jigsaw piece’) to their jigsaw team after they 457have read, questioned and discussed their topic in an “expert group” of different classmates. TheJigsaw Learning procedure is explained in the Methodology section below.Reasons for Choosing Jigsaw Learning for this Study:The author is a recipient of a Title III Students First Grant for engaging pedagogy and first-yearprograms, and this is their first time using and testing the Jigsaw Learning technique. Thislearning technique was chosen for
my teaching goals and methods in Rwanda originated. I workedwith Rwandan students to document spaces where global development pressure, local desires forequity, and everyday routines met. In image and text, students engaged with political, economicand cultural forces that shaped their built environment.The Rwanda Picture ProjectIn 2011, I taught an architectural theory course and a design studio at University of Rwanda, theyoung and only architecture program in Rwanda. Expecting to reinvent the country, UoR tries tocustomize the architectural education based on the cultures of the industrialized countries, in thelanguage of the global economy - English. There is no doubt that the faculty at the architecturedepartment aspires to be diverse in
-mentoring. Incorporation of engineering design experiences across the undergraduatecurriculum with linkages to the university’s engineering innovation laboratory for access toindustry projects contributes to increased student retention and persistence to graduation.CASCADE uses promising practices from research to create a retention program that includesintegrated curriculum, peer-mentoring, learning communities, and efforts that build innovationand creativity into the engineering curriculum. CASCADE vertically aligns 32 problem-baseddesign efforts from the first-year to senior-year (capstone) courses. Research on engineeringstudent learning communities indicates increased retention and student satisfaction with theirfirst-year experience 18, 33
. High school teachersunfortunately do not get as much office time as a college professor and therefore, are notalways near a phone. Numerous messages had to be left for the teachers, and follow-upphone calls and e-mails were a necessity to schedule visits, often times leading to a gapbetween initial contact and actual visit because of communication time. Future GoalsThe recruiters hope to soon host visits to the computer science department, where theprospective high school students can visit the university, meet faculty, and see actualcomputer labs. This will bring to life what a university atmosphere feels like, andhopefully allow the high school students to actually envision themselves one day sittingin
. High school teachersunfortunately do not get as much office time as a college professor and therefore, are notalways near a phone. Numerous messages had to be left for the teachers, and follow-upphone calls and e-mails were a necessity to schedule visits, often times leading to a gapbetween initial contact and actual visit because of communication time. Future GoalsThe recruiters hope to soon host visits to the computer science department, where theprospective high school students can visit the university, meet faculty, and see actualcomputer labs. This will bring to life what a university atmosphere feels like, andhopefully allow the high school students to actually envision themselves one day sittingin
private pilot. Tim leads the AT Department’s Hangar of the Future Research Laboratory, a multi-disciplinary lab focused on technology and process innovations for air vehi- cle maintenance, aligning with U.S. Next Generation Air Transportation System philosophy of embedded safety risk management and human-in-the-loop technologies. He currently teaches a highly interactive senior level maintenance management capstone course, Aircraft Airworthiness Assurance (AT402), uti- lizing Purdue’s large transport aircraft, incorporating SMS and QMS principles, engaging his students through active learning challenges and applied research projects.Dr. David M Whittinghill, Purdue University, West LafayetteRaymond A. Hansen, Purdue
understanding the domainknowledge. Finally, community centeredness focuses on methods to help students leverage theirpeers as a learning resource and to have instructors use these networks. This includes smallgroup problem solving and in class discussion. Also, community centeredness can include theeffects of the university and professional societies in facilitating students’ growth as engineers.These principles have beenencapsulated in a softwaretemplate called STAR.Legacythat we have used to helporganize our design of a learningmodule for biotechnology.Figure 1 shows the main screenof the STAR.Legacy framework(where STAR stands forSoftware Technology for Actionand Reflection) represented as a“Learning Cycle” (or an inquirycycle for learning). The
engineering technology, such as power system, power electronics, electric machines,etc, need to be revamped to deliver relevant information in light of current industrial practices.Complementary knowledge and skills including control theory, embedded system,communications, digital signal processing, etc, are needed to strengthen student knowledge andskills in communication and information technologies. The project investigator team iscomposed of three faculties in two departments, and this presentation focuses on the teachingand research initiatives in Engineering Technology (ET).Background As a supreme engineering achievement of the 20th century, U.S. power grid is one of thelargest and most capital-intensive sectors of the economy. Its total
. Likewise, the knowledge mix atOlin might well contain a robust dose of entrepreneurship due to the superb opportunityfor collaborating with Babson in this area. Informed “guesses” may need to be made toprovide a knowledge mix that covers a wide set of possible futures.Community CenteredBetter learning appears to occur in community. What are the best practices; how can wedesign learning communities that work best, function at a distance, and persist pastgraduation? Of special interest are methodologies for maintaining a learning communityas students engage in learning experiences in industry, government and internationalsettings.The Impact of New MediaNew media will radically change the way students learn. We must understand how tobest make use of
. For example, regarding interventions such as the summer bridgeprogram, COE wants to know if students are more successful than a control group of similarstudents who do not participate. With regard to benchmarking, COE may be interested in howsummer bridge programs that are having more success are designed. Residential life may beinterested in seeing if the interventions being sponsored are facilitating community developmentand whether or not students are being good residents. Residential life may also be interested inhow the residential community impacts the RAs since the existence of the living-learningcommunity changes their role: RAs assigned to the living-learning community do lessprogramming and their goals can shift to developing one-on
achievement, awareness of and attention to surrounding details, andsharpened analytical skills. While the base concept of drawing is a basic skill, the mastery of thisskill requires extensive practice and it can often be significantly impacted by the self-efficacy ofan individual. Self-efficacy is one’s belief in his or her capacity to accomplish specific tasks.Self-efficacy is important when learning new skills because it aids in mastery, and also enables usto understand skill development. Sketchtivity is an intelligent tutoring system developed by TexasA&M University to facilitate the growth of basic sketching skills and track their performance.Sketching is a form of drawing that’s focused on clear communication and generation of ideas.Skill
development of human resources and the broadereducational experience in which the individual curricular parts are connected and integrated. Wemust place emphasis on the development of students as emerging professionals with theknowledge base and capability for life-long-learning. We must engage students in engineeringfrom the day they matriculate and make the study of engineering more attractive, exciting andfulfilling. Engineering students must be given the opportunity to experience the defining activityof engineering, to design - create something that has never been. They must learn to design tomeet the full range of objectives encountered in actual practice. They must understandmanufacturing and construction and have the ability to realize
traditional deficit-based views by bringing the value of diverseperspectives to light.Although the number of neurodivergent students entering STEM education is growing, there iscurrently a shortage of research on the experiences of neurodivergent learners in STEMeducation at the higher education level [2]. This leaves these neurodivergent learnersunderrepresented and stuck facing challenges due to stigma and lack of accommodations withintheir university. Neurodivergent individuals face many barriers to engaging in STEM educationeven though they possess various strengths and talents that can be effectively applied in allhigher educational settings [3]. STEM fields seem to be desirable to many neurodivergentlearners due to common strengths such as