students forfuture engineering and technology development. Such new modules will allow students to haveimproved learning experience through more involvement in research and hands-on activities andbetter outcome. This paper presents the experience of undergraduate research during summer2008 supported by NSF REU program at the University of Houston on “Sensor Networks andsecurity Infrastructure”. The project also serves to upgrade existing upper level design projectsthat aim at introducing research components into the curriculum of the computer engineeringtechnology program.IntroductionWireless smart sensor networks have the ability to integrate sensing, communication andcomputation and are being implemented in a wide range of data gathering and
SystemsAbstract:With a growing number of cases of information security-breaches, there is a great need forefforts towards securing electronic systems. Embedded systems are ubiquitous systems that areused to capture, store, manipulate, and access sensitive data. The security of these systems posesseveral unique and interesting security challenges.This paper focuses on the spectrum of security: the history, the current utilizations, and thefuture. Throughout the paper, items that are of particular importance to embedded systems arehighlighted. This paper also addresses the lack of integration of embedded security educationalactivities in different undergraduate computing and engineering programs.Introduction:An embedded system is an application-specific
component in its engineering curriculum and stresses “learn by doing,” and this emphasiscan be used in projects that can help the community. Many instructors have had individualsuccess with service learning design projects, and we hope to expand these valuable learningexperiences to an even larger percentage of our students.Service LearningService-learning is a pedagogy in which students achieve academic learning objectives byworking on projects that address societal needs. Necessary, and to distinguish itself fromcommunity service, is a reflection component (Jacoby, 1996; Tsang, 2000). Students gain anappreciation for the role they can play in society by reflecting on a variety of socioeconomic andethical implications of their
practice long hours, transforming skill-based learning into exciting activities, and integrating novel risk-taking experiences within the ongoing learning [17]. The cultivation of curiosity reframes the failure into ‘Openness to Failure’. c) Sense of Agency: In the literature, a Sense of Agency has been measured as both an individual construct and a group construct. The Sense of Agency, feeling in control of one’s own actions and having an influence on the outside world [21], [18], [22], motivationally translates into a sense of joint agency by developing shared intentions and actioning on them [23]. van der Wal, Sebanz and Knoblic [23] found that Joint Agency, while
) in the view of the use of computer technology from passive tools(e.g. reading articles online) to productive tools (e.g. using Microsoft Office products to writereports).In the next section, we will highlight the successes in the classroom of Albert Padilla. Albertteaches middle school students in an urban school in N.J. He is a model teacher whose workexemplifies how a classroom teacher can successfully integrate engineering activities into theexisting curriculum. In his first lesson, he used the Design Squad’s Rubber Band Car activity toteach and engage students in the engineering design process. While designing their cars, studentsreviewed the materials available to them, asked questions, considered science concepts (e.g.motion, forces
Analysis of Practitioners and EducatorsThe National Council of Structural Engineers Association (NCSEA) Basic Education Committee(BEC) recently conducted two wide-reaching surveys asking practitioners about skills andeducational requirements they value in new hires. Structures Magazine has reported on the 2016and 2021 survey results in [12] and [13]. Additional details from the 2021 survey results wereprovided by Dong and Francis in [14]. The NCSEA BEC also conducted an educator survey in2019 focused on the structural engineering curriculum of 168 undergraduate programs, [15].Here, only the survey data on structural analysis is reported and is compared in a way that it wasnot originally presented in order to draw conclusions more directly about
opportunities, academic advisers can help to de-mystify the procedure and ignite a passion for research. Many students get involved in research late in their undergraduate careers, often by chance and learning the hard way that there are opportunities for determined students. Any academic institution can enhance its undergraduate curriculum by promoting research to those who show an interest but who might not otherwise know how to get involved.”Russell et al. [16] in their paper “Benefits of Undergraduate Research Experiences” surveyed15,000 people over the years 2002 and 2003. They developed a profile of an undergraduateresearcher and looked at their outcomes as well. It was found that undergraduate research doeslead
-authored over 85 professional journals and conference publications and 4 book chapters. Dr. Franklin was the recipient of the 1998 Presidential Career Award for Scientists and Engineers by the National Science Foundation. She is an active member of the MTT-S society in the technical area of passives, packaging, integration and microwave education and is currently an Associate Editor of the IEEE Microwave Wireless Components Letters.Dr. Wayne A. Shiroma, University of Hawaii at Manoa Page 24.119.2 c American Society for Engineering Education, 2014 A Systems-Centric
skills are missing in the undergraduate engineering curriculum?Researcher Positionality/ReflexivityThe first author is an engineer by training. I have both an undergraduate degree in civilengineering and a master’s in environmental engineering. I have spent my whole life surroundedby engineers and engineering. I have, however, not spent a significant amount of time in theagricultural sector. These two facts, along with my enjoyment of learning and people, need to beconsidered during this study. I know that I value engineering and think other people should also,however I need to be objective in the questions I ask. I also know that my lack of experience inthe agricultural sector could be a hindrance in this study. However, I have aimed to be
courses. ©American Society for Engineering Education, 2024 Work-in-Progress: Implementation of standards-based grading in a mass transfer/kinetics courseAbstract:Standards-based grading (SBG) is an alternative grading technique where grading is based onstudent demonstration of specific learning outcome (standards) mastery. While a traditionallygraded course may contain several high-stakes, high-stress exams throughout the semestergraded with partial credit, an SBG course instead allows for students to retry learning outcomeswhere they have not yet shown proficiency. In short, the focus in SBG is student learning anddemonstrated expertise of standards and not competition between students or a fight for
online teaching environment, creating modules, the role ofdiscussion, technology integration and assessment. The main goal of the “Online Course DesignWorkshop” is to teach instructors interested in developing and teaching online courses how todivide the course into modules that last approximately one to two weeks. These modules have tofurther be divided into sub-modules with topics that students can work through in about an hour. All courses were required to conform to “The 2008 – 2010 Quality MattersTM (QM)Rubric” [12]. This rubric outlines many of the practices that are generally accepted for teaching Page 25.1003.5engineering courses
, global positioning,autosteering, and vehicle autonomy will necessitate an educated and educatable agriculturalworkforce [9]. In order to provide Bachelor degree level employees that can supervise and teachother employees about the emerging electronic revolution in agriculture, collegiate programs,like Agricultural Systems Management, must bring-in students with less of a connection to theindustry. That means being competitive with other potential disciplines when recruiting students.The developed curriculum is designed to plant an interest in an agriculture-based STEM careerby exposing students to some of the more interesting elements of modern agricultural softwareand hardware to show them that they don’t have to come from a farm to be
. These MEAs are currently being developed and tested to confirm that theyare helping engineering students learn essential skills. This paper focuses on a particular MEAdealing with the introductory thermodynamic concepts of processes and uses an in-depth reflectiontool to determine the concepts that students' learned and their opinions. The premise for thisMEA surrounds the analysis of an engine cycle that needs to be modeled for thermal efficiency.The MEA was run in six separate classes in groups of four, the students were given one week tofinish and turn in a memo that described their analysis of the engine cycle. The groups thatmodeled their cycle with at least one isothermal process calculated a work output for the cycle thatwas about 25
Experiences in a Residential Learning Community: A Situated Learning PerspectiveAbstractA residential learning community (RLC) is an integration of academic and social settings thatassists learners to create meaningful learning experiences. An RLC allows students with similarinterests to live and learn together. Living in an RLC improves retention by helping studentsdevelop a sense of belonging and disciplinary identity. As such, RLCs can be a solution to studentattrition and low graduation rates among college students, which is negatively impacting economicgrowth across the United States. Developing effective RLCs involves providing authentic contextsto learners allowing them to socialize with mentors and peers while engaging in
engineering professors simply do not have the “generic problem solving skills andintegrated and structured knowledge of the engineering curriculum” cited by Rugarcia1 et al. as arequirement for teaching in an integrated fashion. The problem may actually be aggravated bythe movement of many departments to an interdisciplinary faculty comprising engineers,physical chemists, chemists, polymer scientists, and a world-renowned expert on the use of Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Education Page 6.266.7South African dung
. Bowen, “Work in Progress: Undergraduate Student Perceptions of Macroethical Issues in Aerospace Engineering,” in 2023 ASEE Annual Conference & Exposition Proceedings, Baltimore, MD: ASEE Conferences, Jun. 2023. doi: 10.18260/1-2--44383.[24] E. A. Strehl, S. Olson, C. L. Bowen, & A. W. Johnson, “Work in Progress: Navigating Undergraduates’ Perspectives on Macroethical Dilemmas in Aerospace Engineering,” in 2024 ASEE Annual Conference & Exposition Proceedings, Portland, OR: ASEE Conferences, Jun. 2024.[25] A. Gupta, “A Practitioner Account of Integrating Macro-ethics Discussion in an Engineering Design Class,” in 2017 ASEE Annual Conference & Exposition Proceedings, Columbus
. He received the B.S. degree in mathematics from Rose-Hulman Institute of Technology and the M.S. and Ph.D. degrees in electrical engineering from the University of Minnesota, Minneapolis. He was an Assistant Professor, Associate Professor, and Professor of Electrical and Computer Engineering at Rose-Hulman Institute of Technology. At Rose-Hulman, he co-created the Integrated, First-Year Curriculum in Science, Engineering and Mathematics, which was recognized in 1997 with a Hesburgh Award Certificate of Excellence. He served as Project Director a Na- tional Science Foundation (NSF) Engineering Education Coalition in which six institutions systematically renewed, assessed, and institutionalized innovative
, diffuser, and Venturi are discussed through computationalfluid dynamics analysis. Finally, the students are exposed to structured experimental proceduresto determine the flow rate and maximum pressure capabilities of each blower. The end result ofthe project is the ability to provide freshman engineering students with an introduction to severalimportant mechanical engineering topics in a relatively short time frame.IntroductionOne of the challenges of developing a cohesive engineering curriculum is that of providingstudents with experiences that will engage them with relevant engineering problems at an earlypoint in their education. A number of popular approaches exist for engaging freshman studentsin their early studies. Samples of these
) Asphalt Mixture by comparing DEM Technological and FEM UniversitySummaryIn this paper, the author presented a Distinct (Discrete) Element Method (DEM) courseoffered for graduate students. In the course work, students were taught the theory andapplication of DEM. The course served a variety of functions in the curriculum. First,students learned an advanced numerical analysis technique, which covered basicknowledge in DEM for engineering purposes. The second function was to introduce the Proceedings of the 2007 ASEE North Midwest Sectional Conference 5students to a wide range of issues common to all disciplines of engineering, includingbasic engineering problem
Page 7.803.1Shapiro text 2 is employed for mechanical engineering sequence and Cengel and Boles text 3 is Proceedings of the 2002 American Society for Engineering 1 Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationutilized for mechanical engineering technology program. The presenter introduced the TEST™software to Spring 1999 class as a means of support for calculations for a design project, whichopened the door for its further utilization in the curriculum thereafter. The student feedback hasbeen very affirming and this paper intends to present the sweet story of successful integration ofa software tool
project has twooverarching goals: 1) to give students the knowledge and understanding they will need to workwith nanotechnology in the future, and 2) to recruit and retain students in science andengineering by using nanotechnology as an example of the excitement and importance ofscientific and engineering innovations.Engineering designers are using and will increasingly continue to use options made available bynanotechnology. Therefore, engineering undergraduates must be able to integrate concepts andprinciples of nanotechnology into their knowledge bases as soon as possible. The proposedproject will introduce elements of nanotechnology throughout the undergraduate curriculum. Thelevel of detail and sophistication of the material taught will
within engineering systems thinking when designing biological systems. Mainly,we explored the students' systems thinking when participating in the International GeneticallyEngineered Machine (iGEM) Competition. This competition is an international event whereparticipants design biological systems to address societal needs [13]. A better comprehension ofthese cognitive competencies may help faculty and curriculum designers to prepare learningenvironments that help students foster their engineering systems thinking in the context ofbiological design. The specific research question is: What evidence of cognitive competencieswithin engineering systems thinking exists when multidisciplinary teams design a biologicalsystem to address a societal need
of the Andr´es Bello University. The areas of research interest are the impact, relationship and integration of the gender perspective within communications and marketing in the various areas of development, digital marketing and content marketing. ©American Society for Engineering Education, 2024 Characterization of Leadership Skills in Students: A Case Study in a Chilean Engineering SchoolAbstractLeadership in engineering entails an integration of diverse skills. Engineering leaders employa full spectrum of abilities and knowledge to develop innovations while seeking tounderstand, embrace, and address the current and future impact of their work. These leadersmust actively
practices of experienced educators in wellestablished undergraduate engineering design courses. Our research seeks to answer questions about how instruction is adjusted throughout the duration of an engineering design course to help students sequence an array of engineering design activities into coherent engineering design practices. Our research adopts the informed design teaching and learning matrix as a lens for viewing design activities [1], [2]. This WIP paper is limited to exploring teaching strategies targeting a single focal engineering design pattern – troubleshooting – within a cornerstone engineering design course. Using interview data and classroom observations, we seek to provide rich descriptions of how teaching strategies
.SummaryThe college of engineering has implemented a strategy to increase the number of engineeringstudents participating in international experiences. First, we have introduced faculty-led summerstudy abroad programs that are integrated with the curriculum and satisfy degree requirementsfor our students. Second, we have recruited student ambassadors to increase awareness ofvarious opportunities that exist. We have developed a new minor in Global EngineeringLeadership as an incentive for students while simultaneously helping to better prepare them towork effectively in a global marketplace. Finally, the college and the university have been ableto develop scholarships so students from all financial backgrounds have the opportunity to gainvaluable
, laboratories, and the bulk of the academic staff were provided by USSR as partof technical assistance. This program, too, had an organized plan to train Afghan faculty tocarry the academic operation of that institute in the future. The curriculum of Polytechnicwas devoted to the Civil Engineering, Mining, and Geology fields. The curriculum in eacharea was much more specialized at the undergraduate level than the typical undergraduateprogram in the US institutions of higher learning. The Polytechnic curriculum was a five-year BS program with six months practical. Most of the teaching materials were translatedinto the local languages, Pashto and Dari. In some cases, students in the last few semesterscould use Russian textbooks in their courses.Both male
risks which accompany deferring orunderfunding infrastructure.A SOLUTIONTo bridge this knowledge gap, new paradigms are needed which integrate infrastructure as oneof the essential elements in the modern graduate’s intellectual development, on par with basicmathematics, writing, and the physical and social sciences. Certainly, if an engineer needs to beable to parse Shakespeare to call herself educated, then a humanities major must possess a basicunderstanding of where electricity and fresh water come from and where waste goes in order to Page 25.1122.8call himself educated. Though it represents only one possible solution, a course intended to
, a Hispanic serving communitycollege, join force with San Francisco State University, a four-year university with an activemaster program, to create an internship program that integrate underrepresented minoritystudents into research. Supported by NASA 2012 CIPAIR program, five students join theElectrical Engineering research program in SFSU.The critical challenge to integrate community college students into research is to assign theactivity at an appropriate level, so that students are actually involved in the research and makecontributions. The approach here is to let students understand the research by pre-packagedcomputer simulations, and contribute to the project by hands-on tasks.Project BackgroundThe research project is to optimize an
developing and assessing Professional Development programs for these students. She has been an instructor for Communication Theory and Scientific Communication at undergraduate level.Dr. Carla B. Zoltowski, Purdue University, West Lafayette Carla B. Zoltowski is an associate professor of engineering practice in the Elmore Family School of Electrical and Computer Engineering (ECE) and (by courtesy) the School of Engineering Education, and Director of the Vertically Integrated Projects (VIP) Program within the College of Engineering at Purdue. She holds a B.S. and M.S. in Electrical Engineering and a Ph.D. in Engineering Education, all from Purdue. Dr. Zoltowski’s research interests include the professional formation of
: http://www.abet.org/eac/eac2000.htm.[2] ABET Mechanical Engineering & Engineering Mechanics Criteria 2000 (1998). Available at the WWW site: http://www.asme.org/educate/abet/progcrit.htm.[3] ABET 2000 Program Criteria: Materials and Metallurgy (1998). Available at the following WWW site: http://www.tms.org/Education/ABET2000.html.[4] M.S. Wald, “Engineering Criteria 2000,” International Journal of Engineering Education, 12, pp. 389–390 (1996).[5] Gary L. Gray and Francesco Costanzo, “On the Concept of the Interactive Classroom and its Integration into the Mechanics Curriculum,” To appear in the International Journal of Engineering Education.[6] Francesco Costanzo and Gary L. Gray, “On the Implementation of