’ cited sources arerelevant, current, and authoritative, it is possible that this tension between extent and quality ofsources cited could create noise within our data. Furthermore, this study currently does notinclude a survey component that asks students to note whether they have received informationliteracy training previously or concurrently in any of their other courses, such as their first-yearwriting course. For these students, practice effects may impact their performance [23].We look forward to discussing this program’s design, evaluation methods, preliminary findings,and study limitations with colleagues at the 2021 Annual Meeting. We will welcome feedbackfrom members of the community on possible improvements we can make prior to the
not encourage creativity or innovation[1]. Innovation can bedefined as a new and valued product, process, or concept that has been introduced to the marketor society[2]. Engineering educators should better prepare students for careers in innovation. Indoing this, they must “undermine their students’ blind commitment to the engineering paradigm”[3] which is centered around the scientific approach to knowledge making. To accomplish thischallenge, the exploration of paradigms such as ones used in the schools of business,communications, and political science is suggested. Incorporating this exploration will allow theengineering and technology student to critically reflect on and debate the beliefs, practices, andvalues of their paradigms and
sustainability topics as well as two questionson the final exam that related to sustainability.CE 282 implementation consisted of a lecture for the fall semester, and both a lecture and in-class activity during the spring semester. Only the sustainability ALM regarding Life Cycle CostAnalysis was covered for both semesters. For the spring semester, the in-class activity consistedof an example problem where students used given information on multiple design alternatives,and asked to compute the life cycle cost analysis for each alternative. Upon completion of the in-class activity, students engaged in an instructor-led group discussion on the results of theactivity. For assessment methods, only the in-class activity work was collected.CE 320 is only
, communication skills, andprofessionalism. As a foundation for sustained success in mechanical engineering, additionalcourse topics include: lifelong learning, time management, community and professional service,and career development. Laboratory: two hours.Course Objectives: Students who successfully complete the course requirements should be ableto: 1) Explain the engineering profession and engineering ethics. 2) Use technical communication skills to explain the results/analysis of introductory laboratory exercises. 3) Explain engineering analysis and design. 4) Analyze data collected during laboratory exercises. 5) Analyze the impact engineering has had on the modern world. 6) Design a simple engineering device, write a design
(from traditional lecture to flippedclassroom), iii) addition of guest industry lectures, iv) addition of a peer mentored experienceand end-of-term engineering design project, and v) increased credit hour from one-credit to two-credits. Table 1 shows a summary of all of the major changes from 2015 to 2019.Research Objective: To assess, across multiple cohorts, how a peer mentored engineering designexperience influences students’ sense of community and stem confidence and influence theiroverall valuation of an introductory engineering course. The cohorts include the following:current freshman completing experience, sophomores one year removed from the experience,juniors two years removed from the experience, and seniors who never engaged in
advancing the long-terms goals of economic growth, societalprosperity, and environmental protection. While there is an on-going debate on the majorchallenges to sustainability, most engaged in these discussions would suggest that issues such aspopulation, water, the built environment, and energy2 are at the forefront.The population discussion is particularly relevant given the fundamental goal of a high quality oflife for all global citizens. This suggests that civil infrastructure systems (CIS) that provide basicneeds such as water treatment and sanitation and shelter must be addressed. Water is critical tomeeting human needs, preserving the natural environment, and advancing economic activities.The CEE community plays a vital role in managing
(StockerCenter), Right: A welcome center that does not resemble any real-world buildings on Ohio Universitycampus.2.2 The Groupthink ExerciseThe Groupthink exercise was originally developed by Michael Ernst at M.I.T. as a way to demonstrate theimportance of team communication in software specification processes.9 The original version of thisexercise was based on paper and pencil. It was time consuming and error prone to tally the results of theexercise by the instructor or the teaching assistant. To improve the speed and accuracy of resultcalculation, and to further engage students, Liu and his students developed the Groupthink learning aid inSecond Life. 9 Researchers at Ohio University have used the Groupthink exercise and the Second LifeGroupthink
(StockerCenter), Right: A welcome center that does not resemble any real-world buildings on Ohio Universitycampus.2.2 The Groupthink ExerciseThe Groupthink exercise was originally developed by Michael Ernst at M.I.T. as a way to demonstrate theimportance of team communication in software specification processes.9 The original version of thisexercise was based on paper and pencil. It was time consuming and error prone to tally the results of theexercise by the instructor or the teaching assistant. To improve the speed and accuracy of resultcalculation, and to further engage students, Liu and his students developed the Groupthink learning aid inSecond Life. 9 Researchers at Ohio University have used the Groupthink exercise and the Second LifeGroupthink
varioussociocultural settings, a mentor network that offers students the opportunity to work withmultiple mentors based on students’ needs, a customizable approach to paths and schedules forindividualized research experiences, pervasive use of social media to ensure coherence withineach student cohort and its scientific and social communities, and constant engagement ofstudents and mentors with ASEE support to achieve professional development goals.The program aims to foster international collaboration as well as intercultural understanding andexchange, while also achieving the scientific goal of advancing cross-disciplinary understandingof autonomy in complex natural environments. The result will have a transformative impact onaddressing societal challenges
, component, or process to meet desired needs (d) an ability to function on multi-disciplinary 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 (j) a knowledge of contemporary issues (k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.II. Project-Based Service LearningThe first step towards broadening the curriculum is
exposing them tofun hands-on in class projects. The proposed course redesign employs the Tablet PC-basedCollaborative Project-Based Learning model (CPBL) that has been proven to be effective in ourupper division computer engineering courses. This paper presents our current progress on theCCLI project. To study the impact of the CPBL model in freshman/sophomore level courses, aseries of interactive in-class projects was developed that: 1) stimulate students’ learning andmake them more engaged in the classroom; 2) tie the theory taught in class to real-world designexperience; and 3) provide a clearer insight into possible engineering careers. So far five in-classprojects using Verilog HDL design, simulation, and synthesis with Xilinx FPGA boards
onModel-Eliciting Activies (MEAs) whereby students are engaged in an iterative process ofdesign-test-revise cycle in order to develop richer explanations and problem solve. An importantgoal in elementary STEM curriculum is the opportunity to develop a community that shares andbuilds on each other’s STEM knowledge. As with MEAs, MPP and model-based reasoning amajor goal is to create authentic learning environments that mimic ways diverse communities oflearners, learn and develop understanding. It is important to realize that students engaged invisual thinking are challenged to create representations that are representative of their ideas. Page
Paper ID #26485Building a Functional Cardiograph Over Four Semesters: Part 2 – Program-ming a MicrocontrollerDr. Gail Baura, Loyola University Chicago Dr. Gail Baura is a Professor and Director of Engineering Science at Loyola University Chicago. While creating the curriculum for this new program, she embedded multi-semester projects to increase student engagement and performance. Previously, she was a Professor of Medical Devices at Keck Graduate In- stitute of Applied Life Sciences, which is one of the Claremont Colleges. She received her BS Electrical Engineering degree from Loyola Marymount University, her MS
inspiring prospective and current students to be successful engineers,and by continuing engagement with alumnae in engineering industries. CPP WEpromotes a close community for female engineering students through proactiveretention activities and seeks to create an environment in which women can thrive inthe classroom and beyond in their careers. 16There are four program outcomes of CPP WE that focuses on K-12 students,prospective students, current students and alumni. 17The purpose of the CPP WE Advisory Board is to advance the mission and outcomesof CPP WE to enhance recruitment, retention
make a distinct impact on higher education programs,specially in the field of engineering.2. Academic context of the present researchOver the past five years, the Faculty of Applied Sciences at the Université de Sherbrooke(Quebec, Canada), has been quite concerned with how well its students were prepared to face thedemands and challenges that most engineering professions are now requiring. In the Departmentof Civil Engineering, a major effort is being made to ameliorate learning activities andassessment modes. The Department is also engaged in the development of new case studies thatwill be used throughout the program in order to help illustrate specific issues of the profession, aswell as motivate team work, initiative and critique.The
responsibilities and communications in a team environment, and experience the demandsassociated with primary responsibility of an ongoing, multi-day experiment. This last objectiveis particularly useful for students who are considering graduate school, since manyundergraduate students have not yet had experience in taking on responsibility for the success ofexperiments beyond the confines of a scheduled lab period. Problem-based learning activities inthe context of a wastewater treatment course have been identified as a particularly effective wayof achieving program outcomes5, with a primary advantage of such activities being increasedstudent engagement and higher level problem solving and communications.Project ApproachThe pedagogical approach that was
market (or promote) the program. This paper takes a critical look at anumber of studies on curriculum development and learning in higher education. It examines therole that should be given to students’ conception about learning, instructors’ experience andteaching philosophies, and the impact of curriculum organization on students’ performance in thedesign and implementation of educational innovations. The best aspects of the new innovationsin power engineering curriculum are then combined with other components that are deemednecessary to come up with what a model power engineering program should look like.IntroductionCurrent SituationThe steady decline in enrollment and interests in power engineering area has been noticed for awhile, and has
registered professional engineer with APEGA (Association of Professional Engineers, Geologists and Geophysicists of Alberta). Prior to her career at MacEwan, Shelley worked in industry as a research engineer and a consulting engineer for several years.Dr. Jeffrey A Davis P.Eng., Grant MacEwan University Dr. Davis’ research focuses on pedagogical topics such as student engagement, active learning, and cognitive development. Projects he is currently working on include ”Development of a risk assessment model for the retention of students”, ”Development of Student Assessment Software”, and ”Improving Student Engagement through Active Learning”. American c
Research in Sustainable Energy and theEnvironment Across Disciplines through an NSF-funded REU Site, 122nd ASEE AnnualConference & Exposition, Seattle, WA, June 14-17.[2] Li, H., Jin, K., & Abdelrahman, M. (2017). REU student engagement during and after REUprogram: a case study comparing individual project with group project, 2017 ASEE AnnualConference & Exposition.[3] Li, H., Jin, K., & Abdelrahman, M. (2018). How to Increase the Impacts of REU Experiencein an Interdisciplinary Research Based REU Site, 2018 ASEE Annual Conference & Exposition.[4] Alpert, C. L., Levine, E., Barry, C. F., Isaacs, J., Fiorentino, A., Hollar, K., & Thate, K.(2009). Tackling Science Communication with REU Students: A Formative Evaluation of
. Developed by a team ofuniversity professors, high school teachers, working engineers, and leading researchers, theInfinity Project puts engineering in the hands of high school students in a fun, cost-effective,hands-on curriculum. The Infinity Project provides a complete turnkey solution including world-class curriculum, state-of-the-art technology, and best-in-class professional development formath and science teachers. A business model was adopted that requires schools to make timeand monetary investments, thereby helping to insure rigorous assessment. The curriculum iscurrently taught in high schools across the nation and is making a big impact – nearly 100% ofparticipating students would recommend the course to a friend, over 50% of
Page 26.493.7understanding the research experience and funding history of candidates applying for faculty positions, and how a candidates’ background may/not align with the department’s strategicvision. Graduate students find DIA2 useful while on the academic job market because it helpsidentify a set of institutions to explore openings at because they have researchers who sharesimilar research or pedagogical interests. NSF personnel use DIA2 to understand the projects intheir funding portfolio, and to inform future funding decisions. These are some of thepreliminary insights on how DIA2 adds value to the community, but the greatest impact of DIA2is realized in how users continue to leverage the knowledge and networks resulting from whatDIA2
. Page 23.35.5Previous PBL applications in construction education show the satisfactory results. The PBLapproach will be able to bring positive impact on CEM courses. The following summarize somecharacteristics when PBL is incorporated into CEM courses 29, 33, 35: Learning can be initiated with real-world problems which require specific CEM domain knowledge to think critically and solve the problems. Problems can drive students motivated and engaged in the student-centered and self- directed learning. Students as a group can be actively involved in problem-solving, thereby improving their social, communication, and collaboration skills.With the understanding of these PBL characteristics, the roles of
process to meet desired needsd) An ability to function on multi-disciplinary teamse) An ability to identify, formulate, and solve unstructured Industrial Engineering problemsf) An understanding of professional and ethical responsibilityg) An ability to communicate effectively through written reports and oral presentations to stakeholders within Industrial Engineering problem domainsh) The broad education necessary to understand the impact of engineering solutions in a global and societal contexti) A recognition of the need for, and an ability to engage in life- long learning Page 7.229.3j) A knowledge of contemporary issues “Proceedings
for Engineering Education ETD 315At the post-secondary level, a meta-analysis of 225 studies of undergraduate STEM courses,comparing student performance in traditional lecture and active learning courses, students intraditional lecture courses were 1.5 times more likely to fail the courses than their peers in activelearning courses [2].When designing instruction, the active learning model [3] of experiential learning includes fourkey components: 1) engaging students in a concrete experience based on the content beingtaught, 2) providing students with the opportunity to make observations and reflect on theseobservations, 3) allowing students to analyze
climate impacts in their communities, what youth learn in schools and how theyexperience it outside of the classroom rarely connect. Furthermore, a STEM education thatincludes community perspectives is rarely present in K-12 engineering and science curricula [6],further widening the gap between what learners know and how learners use what they know totackle problems in their communities. Though many students fare through this type of education,a lack of connection between students' lived realities –culturally and linguistically– excludesyouth from engaging in engineering and science [6] and [7]. Our work defines engagement in engineering design practices as a process of criticallyexamining the building of technologies and solutions while
needs and helped raise funds for adeserving organization in the community. Students were responsible for all aspects of theproject from start to end, including planning, management, marketing, fundraising, logistics, andimplementation. General objectives for the project approach used were to: Enhance student learning, content integration and engagement by enriching the connection between classroom learning and real world applications, and Integrate the university into the community and allow students to be on the forefront of that connection.Student learning outcomes addressed through this project and through related course topics wereas follows: 1. Develop a strategic management process 2. Identify mutually
ethics does not seem up to the task ofpreparing students for the ethical and moral dilemmas they will encounter as professionals.15-17Evidence has shown that people who engage in unethical behavior as students continue to do soas employees18 generating significant costs for the employer and community at large 14,18. Ethicscourses which focus on teaching a set of rules do not seem to have the intended impact. Studentsdo not necessarily incorporate these rules, but rely instead on a pre-existing but largelyunexamined set of beliefs. 20,21 Thus, there is a need to promote critical thinking, self-reflectionand the ability to analyze situations from multiple points of view.20 We believe the proposedapproach will do just that putting students in
students enrolled in a community college expect to earn a bachelor’s degree, yet less than40% of students transfer to a four year institution within five years of their initial communitycollege enrollment.9 One of the factors that impedes students’ progress, particularly in STEM isclear pathways and systemic support between the community colleges and the 4-yearinstitutions.11 A recent report by the National Research Council and National Academy ofEngineering, “Community Colleges in the Evolving STEM Education Landscape: Summary of aSummit” provides a guideline on how to develop a supportive STEM transfer ecosystem.12In response to PCAST’s recommendation for 1 million more STEM professionals in the nextdecade and the potential impact a large
others. Allof these laboratory activities include additional features such as a splash screen, a menu ofoptions controlled through serial communication, options for resetting the programs, clearing thescreen or the computer terminal, quitting the program, and a “heart bit” LED light that shows theuser that the program is active.The last laboratory activity of the semester needs to be completed in two laboratory worksessions of 3 hours each, it uses an Inertial Measurement Unit (IMU) sensor that includes anaccelerometer to detect changes in acceleration in different axes. The laboratory activity prior tothe year 2021 asked the student to collect this data from the sensor and represent it on a screen inthe form of a circle that moves according to
model systems to predict fluid movement and its impacts on the environment. Dr. Ahn is also actively engaging undergraduate students in various research. She has demonstrated commitment to innovation in teaching and engineering education. ©American Society for Engineering Education, 2023Innovative Outreach for Careers in the Water and Wastewater UtilitiesAbstract: A USEPA funded project titled WaterWorks aimed at exposing careers in water andwastewater utilities to K-12 educators and students is currently in progress. WaterWorks,consists of four contemporary core K-12 educational modules titled WaterMobile, WaterTalk,WaterPal and WaterCave to excite the next generation to join our