remained a difficult change foran established college was significantly easier to accomplish in a school built from scratch. Italso helped that aviation firms, for technical reasons13 as well as for reasons of a desperate labormarket, were willing to hire any and all engineers and offer them specialized training at “fullpay” on company time, as stated in the Lockheed ad. There was also the explicit expectation thatBoelter would develop a program complementary to the one at Berkeley. Finally, Boelter had nochoice but to begin with a single, unified curriculum. With but a limited appropriation, whichprovided no money for new buildings, Boelter opened the doors to his college in August 1945with a small handful of faculty and but 25 students. During
aboutcomplex global problems in a solution economy.This paper will first define cognitive innovation. Cognitive innovation, for the purpose of thispaper, is defined as identifying and applying mental models to develop a more integrative way ofthinking about complex global problem for a solution economy. Secondly, examples of howcritical thinking/problem-solving skills are applied to study complex global sustainabilityproblems during the undergraduate general education experience will be provided. Subsequently,examples of how students apply these skills during their major’s course work, including theculminating Honors Thesis are provided. It should be noted that while there are many otherentrepreneurial skills developed throughout this curriculum by
the obvious benefit tosociety, socially conscious computing endeavors to exploit the finding that students’ desire tohave a positive societal impact is a strong determinant regarding their choice of career theychoose [40]. It is worth noting that this positive societal impact is considered an inclusive term,and therefore, it includes sustainability [7], ICT4D [8], ICT4Peace [9], value sensitive design[10] and so on. We wanted our students to learn to make positive social change through themobile application development course where design and development for socially consciouscomputing were weaved into the curriculum using various strategies. Through our course, wewanted to teach the following two primary knowledge areas to the upper-level CS
in both the School of Sustainable Engineering and the Built Environment and the Division of Educational Leadership and Innovation at Arizona State University. She has a Ph.D. in Educational Technology, postgraduate training in Computer Systems Engineering, and many years of experience teaching and developing curriculum in various learning environments. She has taught technology integration and teacher training to undergrad- uate and graduate students at Arizona State University, students at the K-12 level locally and abroad, and various workshops and modules in business and industry. Dr. Larson is experienced in the application of instructional design, delivery, evaluation, and specializes in eLearning
student-team development, Table 2 is an example of the functions potentially associated with a team ofthree students focused on completing a lab project for a course in an engineering curriculum. Sauerand Arce’s [5] work offers a parallelism between sports teams and academic teams wherein theirview is that the team members are intimately coupled to the functions needed to complete a task,and they must work in harmony among the different team members to do it. This observation is alsotransferable and of value for a team of researchers working collaboratively to achieve the goal ofdeveloping a research proposal supported by the Foundry as a guiding protocol (see Section 3).After a team has been formed, a potential struggle to find successful
attitudes, mindsets, and approaches to learning to understand engineering students’ identity development. © American Society for Engineering Education, 2022 Powered by www.slayte.com Turn the Lights On! Part I An Engineering Design-Based Curriculum for Teaching 8th Grade Students Renewable Energy (Resource Exchange) Ruben D. Lopez-Parra, Barbara Fagundes, Diallo Wallace, Nrupaja Bhide, Tamara Moore, Maeve Drummond Oakes, Allison GodwinTurn the Lights On! is a project in partnership
-disciplinary relationshipsDeveloping an IT system is a resource intensive effort and is many times cost prohibitivefor a single university department. The relationship between the engineering andbusiness schools at Auburn University allowed for the development of the KSS to occurwhile simultaneously benefiting the students and faculty of each department. MISstudents were able to experience their own Capstone experience by applying theirclassroom skills to a real world problem.Integration with Design Curriculum: Constantly Involve StudentsA key to the development of the KSS was the involvement of students, both business andengineering at all levels. Students participated in weekly meetings, talking with potentialusers of the system, and presenting
Paper ID #10239Graduate students help to create a discovery-based and cooperative learningexperience about clean energy for high school students (curriculum exchange)Mr. Justin Michael Hutchison, University of Illinois Justin Hutchison, M.S., is currently a doctoral student in Civil and Environmental Engineering at the Uni- versity of Illinois. He is treasurer of the local student chapter of American Society for Engineering Edu- cation (ASEE) and a coordinator for graduate student outreach in the Civil and Environmental Graduate Student Professional Development Program. Mr. Hutchison is a National Science Foundation Graduate
and Mathematics Curriculum Reform in a Large School DistrictAbstractThe Engaging Youth through Engineering (EYE) Modules are being developed as the middlegrades part of a current K-12 partnership driven effort to meet a community’s 21st centuryworkforce needs. One purpose of the middle grades EYE Modules, besides positively impactingstudents’ beliefs and performance related to STEM (Science, Technology, Engineering andMathematics), is to serve as a catalyst for district level STEM reform. “STEM reform” related tothe EYE Modules is defined as local curriculum standards that require using engineering designchallenges and the related design process to integrate required mathematics and science contentfor all middle grades students
].Engineering educators have called for contributory ways to groom leadership understanding andcompetencies among engineering students, without further squeezing the already denseengineering curriculum [5-6]. Mentoring opportunities provide an alternative approach. Studiesshowed that mentoring experience in engineering research settings has the potential to developleadership among mentors [5, 7-8]. However, the resulting impact and what part of theleadership is developed based on this impact are still unknown. An earlier exploratory qualitative study conducted by the authors revealed that serving asmentors provided opportunities and experiences for engineering graduate student to both broadentheir understanding of leadership and practice and
). Her research and experiences include implementation of digital learning solutions, development of career pathways including educator professional development, and analysis of economic development factors impacting education and workforce development. Kris earned an Ed.D. in Curriculum and Instruction in Education Technology from the University of Florida and also holds business and teaching degrees from Clemson University and the University of South Carolina. Kris has previously worked as a professional corporate trainer, as an instructor at a two-year institution, and as a career and technology education teacher at the high school level. Kris and the CUCWD/CA2VES team aim to develop an exchange which will help
Paper ID #42139Disrupting the Curriculum: Leveraging the Engineering for One Planet Frameworkto (re)Center Sustainability in Engineering EducationCherish C. Vance, The Ohio State University Cherish Vance (she/her) is an incoming Assistant Professor in the Department of Food, Agricultural and Biological Engineering at The Ohio State University. Her research passions include engineering for sustainable development. A first-generation student, she is currently a PhD candidate and has received a Bachelor of Science in Biological and Agricultural Engineering from Texas A&M University.Dr. Patrick J. Sours, The Ohio State
Paper ID #10284Using Curriculum-Integrated Engineering Modules to Improve Understand-ing of Math and Science Content and STEM Attitudes in Middle Grade Stu-dentsJessica M Harlan, University of South Alabama Jessica M. Harlan is a PhD student in Instructional Design and Development at the University of South Alabama (USA). She is currently working with the USA evaluation team for the Engaging Youth through Engineering middle school engineering module program. Prior to her work at USA, Jessica was a train- ing officer for the Office of Research at the University of California, Davis. She continues to work as an instructional
disciplines [3]. Breaches incyber infrastructure impact everyone, not just computing professionals. It is crucial that moreundergraduate majors receive education and training that deepens their conceptual and practicalunderstanding of issues in Cybersecurity [4, 5]. Professionals in the field consider it imperative foracademic institutions to increase course development in computer security to make students bothknowledgeable and technologically prepared for future challenges in this field. As a result, we should allrecognize the importance of cybersecurity in the undergraduate curriculum. Our graduates must havesecurity skills in addition to communication, critical thinking, and analytical skills. This additional skillwill offer our majors the
underdevelopment (1). The current focus of this development is CAPTIVATE, a serious game to assiststudent veterans in mastering the calculus and physics skills that are necessary prerequisites tothe main engineering curriculum. Building on the development and lessons learned fromMAVEN, a game developed previously to help student veterans master precalculus skills, thedesign and initial implementation for CAPTIVATE involves careful consideration regardinggame and instructional design. Many of the positive aspects from the design of MAVEN havebeen implemented in CAPTIVATE. First, the overall framework developed for MAVEN hasbeen reused. This modular framework involves both a model and process that combine game,instructional, and software design in a way
Pharmaceutical Industry Applications in the Chemical Engineering Undergraduate Curriculum and K-12 EducationAbstractRowan University, in collaboration with the National Science Foundation (NSF) fundedEngineering Research Center for Structured Organic Particulate Systems (C-SOPS), isdeveloping teaching modules and problem sets to introduce students to engineering concepts inthe particle and powder technology of pharmaceutical processing and drug delivery systems. TheCenter is hosted by Rutgers University and also includes Purdue University, the New JerseyInstitute of Technology, and the University of Puerto Rico, Mayaguez. The goal of the Center isto become a national focal point for developing structured organic particulate systems used
[5]. Faculty at the University of Michigan have gone a step further todesign and implement seven “biomedical engineering in practice” modules in theirundergraduate curriculum [6]. These modules are designed to be student-centered, with most ofthe experiential learning activities occurring in the classroom. The modules led to significantlearning gains, particularly in female students. These studies show the value of incorporatingexperiential learning in the classroom with the goal of not only reinforcing course content butalso building professional engineering skills.There is a significant need for workforce development for the biopharmaceutical industry withcourses going beyond the science and emphasizing R&D skills used in process
generative artificial intelligence for self-regulated learning development through domain knowledge learning in k–12 settings,” IEEE Trans. Learn. Technol., 2024.[10] J. Southworth et al., “Developing a model for AI Across the curriculum: Transforming the higher education landscape via innovation in AI literacy,” Comput. Educ. Artif. Intell., vol. 4, p. 100127, Jan. 2023, doi: 10.1016/j.caeai.2023.100127.[11] A. S. George, “Preparing students for an AI-driven world: Rethinking curriculum and pedagogy in the age of artificial intelligence,” Partn. Univers. Innov. Res. Publ., vol. 1, no. 2, pp. 112–136, 2023.[12] I. S. Osunbunmi et al., “Board 45: Generative Artificial Intelligence (GAI)-Assisted Learning: Pushing the
, M. Besterfield-Sacre, and J. Mcgourty, “The ABET “Professional Skills” - Can they be taught? Can they be assessed?” Journal of Engineering Education, vol. 94, no. 1, pp. 41–55, 2005. [3] K. M. Yusof, A. N. Sadikin, F. A. Phang, and A. A. Aziz, “Instilling professional skills and sustainable development through Problem-Based Learning (PBL) among first year engineering students,” International Journal of Engineering Education, vol. 32, no. 1, B, SI, pp. 333–347, 2016. [4] A. Mohan, D. Merle, C. Jackson, J. Lannin, and S. S. Nair, “Professional skills in the engineering curriculum,” IEEE Transactions on Education, vol. 53, no. 4, pp. 562–571, 2010. [5] J. A. Baughman, T. J. Brumm, and S. K. Mickelson, “Student professional
AC 2012-3127: EEE (ELEMENTARY ENGINEERING EDUCATION) ADOP-TION AND EXPERTISE DEVELOPMENT MODEL: CONCEPTUALIZ-ING, ASSESSING, AND TRACKING ELEMENTARY TEACHERS’ EEEADOPTION AND EEE EXPERTISE DEVELOPMENTMs. Yan Sun, Purdue University Yan Sun is a Graduate Research Assistant of INSPIRE (Institute for P-12 Engineering Research and Learning) at Purdue University, and a Ph.D. student of learning, design, and technology at Purdue Uni- versity.Nikki Boots, Purdue UniversityDr. Johannes Strobel, Purdue University, West Lafayette Johannes Strobel is Director of INSPIRE, Institute for P-12 Engineering Research and Learning, and As- sistant Professor of engineering education and learning design and technology at Purdue University
engineering, there is a benefit to knowing something about how openteachers are to educational innovations and how likely they are to take the risks associated withadopting curriculum that effectively integrates unique and novel approaches to teaching andlearning.Using our experience with enhancing teacher capacity to teach integrated STEM throughprofessional development (PD), we have recognized that the teachers who are early adopters ofinnovation tend to have openness to multiple ideas and engage in different STEM teaching andpedagogical practices than those who are more reluctant to consider innovations. Based on ourobservations, we set out to identify and empirically document the teacher perceptions forteaching engineering and indicators of a
, and tools for interrupting implicit bias. In addition, the curriculum incorporates ethics in engineering and engineering social responsibility. The paper will describe our experiences, strategies, and challenges in developing and implementing diversity and inclusion curriculum within the engineering living and learning programs, and discuss ways to consider incorporating diversity and inclusion programs and practices in various engineering contexts. 1 The mission and vision of the Women in Engineering Program at the University ofMaryland College Park (UMD) is to cultivate inclusive and diverse
. The power of thesenew tools has become such that it is hard to imagine the practice of engineering without them.While these new tools have lessened the importance of some engineering content the majority ofthe engineering curriculum has been unaffected. Although students need to be familiar with thenew software it cannot come at the expense of a solid understanding of the fundamentals of keytopics taught in the classroom. If significant time cannot be diverted for the teaching of softwarein the classroom other methods must be used.Asynchronous computer based training gives a powerful alternative to classroom instruction forthe teaching of engineering software. The teaching of core engineering principles requiresinterpretation and a developed
also been the PI on an NSF REU site focused on multi-scale systems bioengineering and biomedical data sciences, a collaboration involving faculty in SEAS, SOM, SDS, and CLAS at UVA, as well as six partner institutions in the mid-Atlantic and Southeast. Dr. Allen has been the recipient of 11 teaching awards and honors and is an elected Fellow of AIMBE. ©American Society for Engineering Education, 2024Work-in-Progress: A collaborative, principle-focused curriculum design process for a BMEundergraduate programHow biomedical engineering (BME) students learn to approach problem-solving is critical—theymust consider ethical and societal implications; develop and implement systems of increasingcomplexity
global context. Sincethen, an introductory course on sustainability has been added to the curriculum and the studentshave founded a student chapter that has begun to participate in organizing the outreach to apartner community in a developing region.In a new course sequence on disaster-mitigating design and practice, the undergraduate civilengineering and architecture students are working together in entrepreneurially oriented teams.Faculty members and representatives from industry and from foreign aid organizations arecollaborating in guiding the courses. The course activities address several accreditationoutcomes, have been structured to expose students to all six levels of Bloom’s taxonomy ofeducational objectives, and accommodate different
AC 2010-2062: A DEVELOPING-COUNTRY CASE-STUDY APPROACH TOINTRODUCING ENVIRONMENTAL ENGINEERING STUDENTS TONONTECHNICAL SANITATION CONSTRAINTS IN DEVELOPED COUNTRIESJunko Munakata-Marr, Colorado School of MinesJennifer Schneider, Colorado School of MinesCarl Mitcham, Colorado School of MinesBarbara Moskal, Colorado School of MinesJon Leydens, Colorado School of Mines Page 15.26.1© American Society for Engineering Education, 2010 A Developing-Country Case-Study Approach to Introducing Environmental Engineering Students to Nontechnical Sanitation Constraints in Developed CountriesAbstractBy studying only closed-ended technical problems, environmental
. Page 14.818.1© American Society for Engineering Education, 2009 An Event So Rare: The Successful Effort to Change Educational Curriculum Frameworks in Massachusetts to Include Engineering and TechnologyAbstractIn the increasingly technology-driven 21st century, technological literacy became one of theimportant goals in our education. Understanding the fundamental principles of technology and anability to think critically about technological development are essential qualities needed to makethoughtful decisions. In our research work we investigated the efforts in public schools toeducate students about technology. In particular, we analyzed the process of development of theTechnology and
Title: Transforming a Technology Management Master’s Degree Curriculum into a Successful Inter-Disciplinary Program for the 21st Century Needs of Global Organizations Dr. Gad J. Selig, PMP, COPDirector, MS in Technology Management and Dual Graduate Business/Engineering Degree Programs, University of BridgeportAbstractAs organizations develop their hiring plans in the areas of business, engineering technology and management, theyare seeking a greater number of individuals with multi-disciplinary skills, competencies and backgrounds to providethem with maximum flexibility for employer assignments, greater diversity in the work force and more effectiveemployees
Title: Transforming a Technology Management Master’s Degree Curriculum into a Successful Inter-Disciplinary Program for the 21st Century Needs of Global Organizations Dr. Gad J. Selig, PMP, COPDirector, MS in Technology Management and Dual Graduate Business/Engineering Degree Programs, University of BridgeportAbstractAs organizations develop their hiring plans in the areas of business, engineering technology and management, theyare seeking a greater number of individuals with multi-disciplinary skills, competencies and backgrounds to providethem with maximum flexibility for employer assignments, greater diversity in the work force and more effectiveemployees
for their students. This paper summarizesfindings based on qualitative data collected from the first cohort’s experiences into three keyareas: expanded access to learning resources, peer-to-peer support, and student-centriccurriculum. Implementing these changes is expected to improve RET activities and outcomes forfuture cohorts. 1RET StructureThe RET site ran for six weeks from early June to the end of July. Instruction and oversight wereprimarily provided by three faculty members specializing in digital circuit design, analog circuitdesign, and curriculum development along with three graduate student mentors.During Week 1, teachers undertook two workshops on a tri-part framework for curriculumdesign: cultural relevance; concept-based