significantshortage of accessible information for both students and educators alike.This paper presents the potential of a pre-collegiate chemical engineering oriented program thataims to increase familiarity with this field of engineering by examining specific case studiespreviously conducted within summer camp programs for high school students. The programexemplifies a STEM education approach for engineering outreach through two unique examplesof chemical engineering projects in water desalination and fuel cell applications. The insightobtained from these case studies showcases how high school students' understanding of chemicalengineering can be built upon through immersive programs and projects. Each of the two casestudies presented were designed with
security issues in their software engineering careers.Students were asked to rank the learning objectives on a Likert scale of 1 to 5 where 1 was theworst ranking and 5 was the best ranking Generally, the results of the survey demonstratedstudents ranked the objectives well, with the lowest score for the objective about developing anaction plan for ethics indicating ways to improve the module in future course offering. Thehighest values were given to considering multiple viewpoints, indicating the mindset aspects ofthe project may have been successful.Based on the outcome and student feedback recommendations for future implementation of themodule in the curriculum is discussed.IntroductionThis paper describes a classroom module designed to develop
, it istherefore necessary for all SDG-interested parties to adopt an integrated approach and a systems-thinking mindset. Even though the creators of the SDGs recognized the need for understanding their intra-and inter-connections, limited research has been done to qualify and quantify them. For instance,the interest in the development literature since 2011 for understanding the food-energy-water(FEW) nexus (World Economic Forum 2011) requires looking at the interaction between SDGs02, 06, and 07 dealing with food, energy, and water security, respectively (Weitz et al. 2014).SDG 15 must also be included when considering the water-energy-land-food (WELF) nexus(Mohtar 2016). Despite the importance of the nexus in human development
graduates to be inadequately prepared in these areas [9]. Efforts toremedy this deficiency have identified a number of approaches for integrating contextualcompetence into the curriculum. For example, students‟ immersion in a real-world communitycontext is a key component of Purdue‟s NAE-recognized Engineering Projects in CommunityService (EPICS) [10], which involves students in long-term, real-world design projects. Similarly,evidence indicates that Smith College‟s TOYtech project [11], in which students are tasked withdesigning toys that introduce children to the principles of technology, helps develop students‟recognition of the importance of working well in teams and considering the societal impact ofengineering practice.The framework for
engineering disciplines (biomedical/bioengineering, chemical, civil, electrical, industrial, and mechanical). All faculty members,program chairs, and sophomore, junior and senior students at participating institutions were Page 22.430.3invited to participate in web-based surveys. The student surveys solicited respondents‟background and demographic characteristics, self-assessments of selected learning outcomes,and future career plans. The survey also queried students‟ perceptions of classroom practices,out-of-class interactions with faculty, and extracurricular experiences. Chairs were askedquestions about their curriculum, educational support
curriculum matched Grade 5 elementaryschool science class. The high school students were taught via distance instruction to learn how toengage in skills and instruction in micro-manufacture (Making skills such as soldering, basicelectronics, 3D printing, etc. and manufacturing skills such as supply chain, inventorymanagement, batch processing, production line, etc.). Tier 1 University served as a support teamfor the project, serving a myriad of roles from troubleshooting technical issues that students alonecannot solve, and providing lessons on Maker practices to incoming students, acting as advisorsfor electronics purchases necessary for science kit projects. The partnered elementary school classconsists of 15 students. Science kits were designed
STEM education research, either in isolated projects or as part of anNSF grant. Nadelson [8] conducted a mixed-methods study to determine the impact that the FCPhad on faculty members; their results indicated that participating in the FCP increasedparticipants’ knowledge of and engagement in STEM education research.University personnel often engage with pre-college teachers via mentoring relationships inResearch Experiences for Teachers [11]–[13]; however, Akerson et al. [14] reported on aprofessional development program for elementary school teachers that sought to create a CoPwith university participants. Teachers engaged in summer workshops and ongoing discussions onteaching and science pedagogy; a university faculty member and three
leaders in service to our nation.USCGA provides the U. S. Coast Guard (USCG) with approximately 190 new Coast Guardofficers each year. Each graduate earns both a commission (as Ensign, USCG) and a Bachelor ofScience degree in one of eight academic majors. Four of these majors are in engineeringdisciplines: Civil; Electrical; Mechanical; Naval Architecture and Marine Engineering.A typical cadet day at USCGA involves academics, leadership and military training, and somesort of athletic activity (NCAA division III or intramural). At least once each semester, eachcadet is required to participate in an outside community service project either individually or as agroup. All cadets must complete the academic requirements for their chosen major
interactive problems which canpromote understanding. For example, in computer science classes providing students withsnippets of code from AI, students interact with AI to complete the code [2]. Additionally, in astudy by Marquez et. al. generative AI was introduced into chemical engineering curriculum toaide in brainstorming for design [11]. AI tools can be useful in generating ideas for student groupprojects.Engineering focuses heavily on collaboration and group work, both in industry and educationalsettings. AI-powered platforms facilitate group interactions, allowing students to collaborate onprojects remotely and share real-time feedback. Facilitating group interactions is enhancedthrough AI tools that visualize group-level and individual-level
from otherengineering disciplines. The course is prerequisite to our capstone project course on softwareengineering. The architecture course does not cover general software engineering topics (such astesting, estimation, and management), but it does provide students in the capstone course withfoundation skills for software design and development. This type of architecture and designcourse should be an appropriate second level course for engineers with a minor emphasis ofsoftware.IntroductionThis paper addresses the underlying issue of where and how and why architecture and design fitinto the curriculum of courses for majors in computing and for service computing courses, whichare often taken by engineering and science majors. Historically, the
show a project thatgained the approval of the faculty from the manual arts school. The project consists of Page 23.500.4constructing a machine combined with the machines drawings accompanied with the castingmolds [12]. This curriculum approach may suggest what would be called today engineeringtechnology or hands on engineering.John D. Runkle (Washington University), who may have also been inspired by the Russian toolsystem, was agreed with Woodward that engineering education would need hands-on experience[3] . Runkle created curriculum at MIT for the mechanical arts laboratories [3]. Runkle referred tothis educational method by claiming the
the goal of offering evidence-basedpractices for countering marginalization in engineering communication practice and research. 2. Literature review and identified gapAs a profession, engineering is dominated by teamwork. In academic contexts, engineering educatorsattempt to provide meaningful teamwork experiences for students to prepare them for the profession. Theemphasis on teamwork as a learning outcome has recently increased (ABET, 2012; Patil & Codner,2007), with team projects spanning the entire engineering curriculum from first-year courses to capstonecourses (Froyd, 2005). As a learning outcome, teaming is linked to a wide range of professional skills,including communication, ethics and lifelong learning (Borrego et al., 2013
the design for the development of the new Basic Engineering course (now UNIV 1301) for engineering at UTEP: Engineering, Science and University Colleges. Developed over 5 new courses, including UTEP tech- nology & society core curriculum classes specifically for incoming freshman with a STEM background. Prof. Perez was awarded the 2014 ”University of Texas at El Paso award for Outstanding Teaching”. Prof. Perez has over thirteen years of professional experience working as an Electrical and Computer Engineer providing technical support to faculty and students utilizing UGLC classrooms and auditoriums. Mr. Perez is committed to the highest level of service to provide an exceptional experience to all of the
“implicit models made explicit”and begin to construct their own learning. While Hmelo and Guzdial’s work was focusedon software, this concept can clearly be applied universally.The aim of the approach presented in this paper is to maintain PBL’s advantages intraining students to address ill-defined real-world problems while providing sufficientscaffolding (in a manner similar to Hmelo and Guzdial’s glass-box scaffolding) toaddress cognitive architecture concerns raised by Kirschner et al. and Sweller et al. 1, 2.Tiered Scaffolding ApproachThe six-tiered approach shown in Figure 1 below was used to prepare students for PBL(here in the form of challenge problems and Thermodynamics Inquiry Projects) bymoving them up the levels of Bloom’s Taxonomy 10
following example of application represents only the firstphase of the evolutionary design paradigm, the one of information recovery. The choice of themachine used is flexible – preferably one with a good balance of mechanical, electrical, andchemical components. For these reasons, the authors chose a two-cycle gas weed trimmer. Thismakes it easier to introduce the freshmen to the interdisciplinary nature of engineering design.Currently, the authors are implementing this paradigm at IUPUI.6.2. Course arrangement The reverse engineering project was introduced as a hands-on project in freshman course“Introduction to Engineering”. The course has three parts, which include Matlab, Pro/Engineer,and electrical circuits. The project is arranged in
(1985-1998; Vicksburg, MS). He has authored/co-authored over a hundred technical papers and reports during his career in private industry, government and academia. His current research interests are nearshore wave transformations, coastal structures, tsunami inundation, hurricane surges, high performance computing, and engineering education.Ms. Qing Pang, Jackson State University Qing Pang, Instructor, Department of Electrical and Computer Engineering, College of Science, Engi- neering and Technology, Jackson State University. Page 24.475.1 c American Society for Engineering
. Description Who Undergraduate students in STEM majors who are in the process of transferring from a 2 year institution to a 4 year institution. What 2-credit class focused on a research topic in energy and the environment. Where The course occurred at the 4-year institution in the engineering program. When Late summer, one month before classes start in fall term. The timing of the class was organized to allow students to take the course at no cost. How Faculty from both institutions worked together to design the curriculum, project, and tasks. Why The team goal is to increase retention and success of STEM transfer
system architecture related tools and methods listed in Table 1 is notnew. In 1994, Shenhar [16] proposed a systems engineering education curriculum consisting of:basic studies (math, computer science, etc.), cross-disciplinary studies (hardware, software, etc.),engineering systems and technologies (introduction to a wide set of diverse systems),management studies (operations, project management, production, etc.) and system engineeringconcepts (architecture, holistic and system thinking, case studies, etc.). Similarly, Walther andRadcliff [17], in their study on competency gaps between academia and industry, surmised thatuniversity curricula should teach a more holistic view of engineering which will lead to “acentral competence which could be
educational resources and develop new ones for online lecture courses, as well as coreengineering laboratory courses that are delivered either completely online, or with limited face-to-face interactions. The initial areas of focus for laboratory course development are:Introduction to Engineering, Engineering Graphics, Materials Science, and Circuit Analysis.CALSTEP will also develop alternative models of flipped classroom instruction to improvestudent success and enhance student access to engineering courses that otherwise could not besupported in traditional delivery modes due to low enrollment. The project will also evaluate theeffectiveness of the curriculum and train other community college engineering faculty in theeffective use of the
disaster relief and concentrated solar power for electricity generation, water desalination, and engineering edu- cation. He leads a yearly effort named Project Haiti to design, build, and install a solar powered water purifier in Haiti with students on an annual basis. He teaches senior design, vehicle dynamics, and in- strumentation courses. In addition to Clean Energy his research pursuits include hybrid electric vehicles, hardware-in-the-loop modeling, simulation and control, and swarm robotics with multiple heterogenous unmanned air and ground vehicles.Ms. Ximena Toro Ms. Ximena Toro graduated with a Master’s of Science in Mechanical Engineering in the Fall of 2011 and graduated with Bachelors of Science in
Paper ID #25677Understanding Global Environment for Network Innovations (GENI) andSoftware-Defined Networking (SDN) for Computer Networking and SecurityEducationMr. Mohamed Rahouti, University of South Florida Mohamed Rahouti received an M.S. degree in Statistics in 2016 at the University of South Florida and is currently perusing a Ph.D. degree in Electrical Engineering at the University of South Florida. Mohamed holds numerous academic achievements. His current research focuses on computer networking, Software- Defined Networking (SDN), and network security with applications to smart cities. c
spent time in industry holding technical and operations-based roles and has experience with outreach projects focused on STEM education and mentoring.Tina L. Fletcher, University of Pennsylvania Tina L. Fletcher holds a Bachelor’s degree in Political Science and African American Studies from the University of Arkansas and a Master’s degree in Secondary Teacher Education from Harvard University. She served as a U.S. Government teacher at Anacostia Senior High School in Washington, D.C. where she was named the 2010 Teacher of the Year. She then served as a fundraiser and successfully raised over $20 million for President Barack Obama’s 2012 re-election campaign in addition to raising over $300 thousand for St. Jude
school year. In another paper in these Proceedings 1, the WalnutHills and Ohio State University faculty present a detailed description the Introduction toEngineering course, outline their goals for the course, and provide an assessment of the firstyear. This paper describes the course and its impact from a student’s point of view.The Introduction to Engineering course helped to give fifty-nine high school juniors andseniors a better appreciation and understanding of various engineering disciplines. With thehelp of Ohio State and General Electric, students had the opportunity to gain a head start onother college freshmen with an engineering major. The goal of the Introduction to Engineering
Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Educationwith math, physics, communication or graphic arts [Pearson, 1999] 3 [Wood et. al., 2001] 5 [Goffet. al. 2001]2. Other approaches entail consecutive classes where one class of students utilize thereports of a previous class’ work or team taught labs with instructors from different disciplines[Drake et. al., 2002]1.At Kettering University, collaborative efforts have been tested involving a selected number ofstudents in two non-concurrent courses or utilizing reports from previous course work to developa project in another class [Scheller, 2000]4. There has not been any attempt in conducting a trulyinterdisciplinary
instructors have used flipped-classroomapproaches and take-home resources, so that students could continue learning throughout hands-on activities and team-based projects [2].Regardless of schools’ efforts to provide continuity of instruction, there is a widely sharedconcern about the impact of the pandemic on students’ well-being [2], [4]. By not being able tointeract with staff and peers regularly, students take the burden of continuing their studies ontheir own shoulders [4]. This has particularly affected engineering students, who haveexperienced high levels of stress and time pressure even before the pandemic [5], [6]. Over thepast few years, engineering curriculums have been packed with a large number of complexcourses and project-oriented
activities are to focus on the hands-on aspects.The university is located in the northwest part of the state in a highly urban and industrial area.The campus serves about 9,300 students and it is primarily a commuter campus. The studentpopulation consists of about half traditional students and the other half are non-traditionalreturning students. Engineering Technology (ET) is part of the College of Technology that offersthree undergraduate majors: Mechanical Engineering Technology (MET), Mechatronics(MCET), and Electrical and Computer Engineering Technology (ECET). The OrganizationalLeadership and Supervision (OLS) Program is also, part of the College with a specialization inEnvironmental Health and Safety (EHS).Fluid Power is one of the key
engineering culture? To answer this research question, we look at the engineeringteaming experiences of African American females in a diverse range of engineering disciplines.BackgroundTeams are a necessary and vital aspect of the engineering profession, and the process of teaminghas been studied widely in engineering education research (EER) and beyond [21]–[26]. Thereal-world problems engineers face are interdisciplinary and complex, requiring a group ofindividuals offering different backgrounds and areas of expertise to solve them. As a result,group projects requiring teams have become a staple in engineering curriculum [21]. Examplesof engineering team projects include freshmen design projects to capstone senior design projects,including
withthe funding of six engineering and computer science programs: Arizona State University(manufacturing engineering), Colorado State University (electrical and computer engineering),Purdue University (mechanical engineering), University of San Diego (general engineering),University of Oregon (chemical engineering), and University of North Carolina (computerscience). Each project addressed a specific challenge in engineering and computer educationevident in the second year of the curriculum, and the goal of each project was to achieve culturaland institutional transformation during the five-year funding window. From 2015 until 2024,there have been twenty-six projects funded at a variety of four-year institutions, both research-focused
"biological clock" that imposes genuine constraints when women bear children. As anexample, Assimaki et al.’s 1 study of issues that affect the retention and professionaldevelopment of female faculty in Electrical and Computer Engineering in universities in Greecenoted that there are difficulties related to “the demands of an academic career due to the paralleldemands of the role of the woman as wife and mother.” Similarly, women’s perceptions andprofessional issues in Civil Engineering include concerns with the level of commitment that anacademic career requires in comparison to their family obligations.10 Females also take careerbreaks due to their partner’s relocation or to take care of an elder family member.11 Researchsuggests that some females
Paper ID #18536Enhancing Student Success by Combining Pre-enrollment Risk Predictionwith Academic Analytics DataDr. D. Raj Raman, Iowa State University Raj Raman is Professor in the Agricultural and Biosystems Engineering (ABE) Department at Iowa State University, where he is also University Education Program Director and Testbed Champion for the NSF Engineering Research Center for Biorenewable Chemicals (CBiRC), Director of Graduate Education for the Interdepartmental Graduate Minor in Biorenewable Chemicals, and Education Programs Co-Leader for the USDA-AFRI project CenUSA Sustainable Production and Distribution of