Digital Design, BIM, and Digital Fabrication: Utilization and Integration in Architectural Engineering Curriculums Abstract This paper presents the findings of a study conducted to investigate both current andpotential roles of computer modeling, design visualization, building information modeling, anddigital fabrication in architectural engineering curriculums. Data was collected to document thecurrent status of the utilization of architectural CAD applications in architectural engineeringprograms and to identify curricular areas faculty perceive as having potential for additionalintegration of digital media. Additionally, the paper documented the extent to whicharchitectural
AC 2011-1958: A PRACTICE-ORIENTED APPROACH TO TEACHINGUNDERGRADUATE DATA MINING COURSEDan Li, Northern Arizona University Dr. Dan Li received her Ph.D. degree in Computer Science from the University of Nebraska - Lincoln, in 2005. She is currently an Assistant Professor in the Electrical Engineering & Computer Science De- partment at the Northern Arizona University. Her current research interests include large-scale databases, spatio-temporal data mining, information security, and computer science education. Page 22.85.1 c American Society for Engineering Education, 2011 A
Paper ID #32412Uneven Playing Field: Examining Preparation for Technical Interviews inComputing and the Role of Cultural ExperiencesStephanie J. Lunn, Florida International University Stephanie Lunn is presently a Ph.D. candidate in the School of Computing and Information Sciences at Florida International University (FIU). Her research interests span the fields of Computing and Engineer- ing Education, Human Computer Interaction, Data Science, and Machine Learning. Previously, Stephanie received her B.S. and M.S. degrees in Neuroscience from the University of Miami, in addition to B.S. and M.S. degrees in Computer Science
be aware ofwhat to expect during the hiring process [11], schools should relay such information early on inthe curriculum. They can offer guidance about websites and resources that may be beneficial fordeveloping technical skills (e.g., Leetcode3 , GeeksForGeeks4 , HackerRank5 , or Cracking theCoding Interview [31]), and can offer mock interview practice. They could also make studentsaware of professional opportunities, and the importance of applying to computing internships togain practical experience [51]. Some programs actively target students earlier in their careers,such as Microsoft’s Explore program6 , intended for students in their first or second year ofcollege. However, students may not be aware such options exist, and this
AC 2008-1359: A COMMON US-EUROPE CURRICULUM: AN APPROACH FORREAL-TIME SOFTWARE INTENSIVE SYSTEMSAndrew Kornecki, ERAU MSEE, PhD, Professor; engaged in a variety of research projects sponsored by the FAA, NSF, Florida State, and the industry (~$700K as the PI, ~$2.5M as co-PI); author and co-author of over 80 refereed papers in journals and conference proceedings; construction of real-time and safety critical software, embedded systems, computer simulation and aviation software, control and computer engineering education; teaching in undergraduate and graduate engineering programs on three continents; established ERAU Real-Time Software Laboratory; consulting and providing training for
students in Whitacre College of Engineering (WCE) at Texas Tech University follow a common core curriculum in their first and second semesters of study. The First common First Year (FCY) curriculum was implemented in Fall2020 and formed to introduce certain basic skills to engineering students; and acquaint students with the interaction of skills, techniques, logic, and creativity in engineering problem formulation and solving. The FCY curriculum includes classical foundational studies in calculus, chemistry, physics, English, and new studies in computational thinking (programming/ data science), Bioinspired engineering design class, and Ethics/humanities science. Since the first-year experience is critical in the long-term academic growth
description of the design. Figure 5. Example of one team’s redesign of the computer casing.VI) Student Feedback and CommentsThe students were given regular opportunities to provide feedback about the class. The feedbackwas used to gauge student interest in the class activities, to indicate what students were learning,and to monitor for any unanticipated consequences of the curriculum. In addition, since theIntroduction to Engineering class is considered to be a work-in-progress, the student feedbackwas used to implement continuous improvement of the course. Two particular methods that weused to collect student responses were an on-line web posting form and an end of coursequestionnaire
is thought that the reason for such limiteddiscussion on this concept is due to its assumed inclusion in engineering curricula. This is likelyto be the case to some extent, for example, the co-author teaching the Computational Modelingcourse always included example problems based on engineering applications. However, therewas previously no effort to promote the use computational modeling techniques in applicablecourses taught concurrently. The authors perceived this as a missed opportunity to reinforceintradisciplinary learning or knowledge transfer early in the engineering curriculum. In theabsence of these efforts, students may not be exposed to these knowledge transfer requirementsfor problem solving until their senior level courses. The
University of Waterloo. He is the author of a textbook on power electronics, published by Prentice-Hall. He is a registered Professional Engineer in the state of Indiana. He is a senior member of IEEE. Ahmed’s current interests include embedded system design, electric vehicle, and VHDL design. c American Society for Engineering Education, 2018 Software Hardware Integration of System Design Discipline in Electrical and Computer Engineering TechnologyAbstractThe paper expounds the practices utilized in teaching an undergraduate curriculum in Electricaland Computer Engineering / Technology from the perspective of System Design. This approachis a paradigm shift from the piecemeal
ASEE 2014 Zone I Conference, April 3-5, 2014, University of Bridgeport, Bridgpeort, CT, USA. Introducing Programming into the Physics Curriculum at Haverhill High School Using the R Language Katherine Aho and Kavitha Chandra Ed Roberts Department of Electrical and Computer Engineering STEM Academy University of Massachusetts Lowell Haverhill High School Lowell, MA, USA Haverhill, MA, USA Katherine_aho@student.uml.edu
, and to the nature of the student that we arecurrently educating.The paper discusses the changes in the curriculum that have been made necessary by the changein the student makeup coming from the traditional on-campus program and from the distancelearning program known as TELETECHNET. The typical student has changed from being afull-time, recently graduated from high school or community college transfer, to being a part-time, full-time working adult. The nature of his work is often as technician, draftsman, or evenjunior engineer at an engineering design firm.The authors’ philosophy on the necessity for integrating the use of computers and software in theteaching of design and analysis is presented. An equally strong insistence is placed on
Session 3532 Integrating Engineering into the Secondary School Curriculum -- A New Approach Thomas G. Johnson Computer Engineering and Computer Science Department California State University, Long BeachAbstract The realization that a secondary school education often provides very little exposure to whatan engineer actually does at work has led the Computer Engineering and Computer ScienceDepartment of the California State University, Long Beach to approach this problem in a novelway. Specifically, we have designed a new single
Paper ID #20414Development of an Integrated Electro-mechanical Energy Conversion Systemto Support Undergraduate Electrical Engineering CurriculumDr. Kenan Hatipoglu, West Virginia University Insttitute of Technology Kenan Hatipoglu is an assistant professor at Department of Electrical and Computer Engineering at West Virginia University Institute of Technology. He completed his Master of Science degree in Electrical Engineering at University of Louisville, Kentucky in 2008 and joined Tennessee Tech University in 2009 to pursue his Ph.D. in Electrical (Power) Engineering. He completed his graduate study in August 2013
been in practice for a very long time.Scholars have defined Problem-based learning as minds-on, hands-on, focused, experientiallearning (Wilkerson & Gijselaers, 1996). Instructors are considered to serve as problem solvingcolleagues assigned with the responsibility of promoting interest and enthusiasm for learning Aproblem-based curriculum is significantly different from the traditional discipline centeredcurriculum (Woods, 1994). Instructors are also encouraged to act as cognitive coaches who can nurture anenvironment that can support open inquiry (Barrows, 2000). It is important that the aims andobjectives of problem-based learning are reflected in every aspect of the learning environmentcreated. Problem-based curriculum should
, Satisfaction (ARCS) model of motivation to design an Internet-of-Thingsthemed curriculum for CS students in grades 9-12. The ARCS framework is used as aconceptual framework to unpack high school students’ motivational influences inengineering/computer science project-based learning via a series of focus groups. Using theinsights obtained from First and Second cycle coding based qualitative analysis, IoT-basedCS curricular modules that align with Grades 9-12 Computer Science Teachers Association(CSTA) standards were developed. The curricular design centered around creating learner-focused scaffolding in project-based learning environments, improving the relevance of theclassroom content with the real-world context that students have experiences in or
type of numerical method challenge as it arose naturally in the ChEn coursework, with physical insight intact. Problems: Though with effort could be done well, very taxing and challenging for instructors a d TA . Fast-paced within the modules; students who did not pick up Mathematica (or Matlab) conventions firmly and just-in-time could be left behind. Relied ca ef c ab a a a c , c d - c a a lecturers (valuable, but at times vulnerable) At worst, danger of devolving into diffuse, unfocused treatment of computation over the curriculum.2007 - E periential approach, follo ed b
Curriculum for High School FemalesAbstractComputer Science (CS) Frontiers is a 4-module curriculum, 9 weeks each, designed to bring thefrontiers of computing to high school girls for exploration and development. Our prior work hasshowcased the work in developing and piloting our first three modules, Distributed Computing,Artificial Intelligence (AI), and the Internet of Things (IoT). During the summer of 2022, wepiloted the completed curricula, including the new Software Engineering module, with 56 highschool camp attendees. This poster reports on the newly developed software engineering module,the experiences of 7 teachers and 11 students using the module, and our plans for improving thismodule prior to its release in
Paper ID #9796A Multi-Tier Approach to Cyber Security Education, Training, and Aware-ness in the Undergraduate Curriculum (CSETA)Dr. Nikunja Swain P.E., South Carolina State University Dr. Swain is currently a Professor at the South Carolina State University. Dr. Swain has 25+ years of experience as an engineer and educator. He has more than 50 publications in journals and conference proceedings, has procured research and development grants from the NSF, NASA, DOT, DOD, and DOE and reviewed number of books on computer related areas. He is also a reviewer for ACM Computing Reviews, IJAMT, CIT, ASEE, and other conferences and
Paper ID #37030Biologically Inspired Design for Engineering Education-9th/10th Grade Engineering Unit (Curriculum Exchange)Roxanne Moore (Research Engineer II) Roxanne Moore is a Senior Research Engineer in the G.W. Woodruff School of Mechanical Engineering and the Center for Education Integrating Science, Mathematics, and Computing (CEISMC) at the Georgia Institute of Technology. Her research focuses on design and engineering education with a focus on promoting diversity and inclusion. She has served as PI and co-PI for grants from multiple sponsors including NSF and Amazon totaling more than $9M. In addition, her
. Page 1.7.5 $hx~j 1996 ASEE Annual Conference Proceedings ‘“q!!!..!;Bibliography1] Froyd Jeff, Integrated Engineering Curricula, these Proceedings, Session 1230.2] Richards, Don E., A New Sophomore Engineering Curriculum - The Rose-Hulman Experience, these Proceedings, Session 1230.3] Kinney, John J., The Use of COmputer Algebra Systems in Courses in Probability and Statistics for Engineersz these Proceedings, Session 3520.Biographical InformationJohn Kinney is Professor of Mathematics at Rose-Hulman Institute of Technology where hehas taught courses in probability and statistics for engineers and scientists since 1974. Heholds a Ph.D. degree in Statistics from Iowa State University. He is
and offering of sequence of specialized courses. In these courses the processof particle transport, deposition and removal and re-entrainment was described. Anextensive web for the course materials was developed and the courses were taughtsimultaneously at Clarkson University and Syracuse University.Course Modules These combined research and curriculum development (CRCD) courses arecomposed of four modules. The models are: • Fundamental of particle transport, dispersion, deposition and removal. • Computational modeling of particle transport, deposition and removal. • Experimental study of particle transport, deposition and removal. • Industrial applications of particle transport, deposition and removal.The front page of
what was beingtaught and how it was being taught. Leading us was our mission that technology programs, bynature, must equip graduates with “hands-on” skills that make them immediately useful in entry-level positions in industry. In addition, our curricula must keep pace with the rapidly changingfields within electronics and computer technology. We believe the new curriculum and pedagogywill accomplish that.The restructuring consisted of course deletions, significant course modifications and many newcourses. In addition, course tracks were formed within each program. For EET, there are nowtwo tracks: Mechatronics, Communications and Networks, and for CET Programming andMicroprocessor tracks are included.This paper describes the details of our
undergraduate courses effectively in areas of heat transfer2, machine design,and various areas in undergraduate research3.Traditionally students at the author’s institute have learned the concepts of fluid dynamicsthrough textbooks and few lab demonstrations on selected topics. Our curriculum does not offerseparate fluid lab experiments or CFD simulation class. An elective course on final elementanalysis (FEA) offers basics of computer simulations on partial differential equations on Page 25.1410.2complicated geometery but with limited topics of solid mechanics and stress analysis.Therefore, students were never exposed to computer simulation experience on
courseAbstractOver the past years, our team has taken a concerted effort to integrate computational modules intocourses across the undergraduate curriculum, in order to equip students with computational skillsin a variety of contexts that span the field of Materials Science and Engineering. This effort hasproven sustainable during the recent period of online transition of many courses, illustrating oneof the benefits of computational modules. The most recent addition to our set of modules includeda visualization component that was incorporated into our introductory freshman course for thefirst time in Fall 2019. Students can perform this module either using local computer labs, accessthose resources remotely, or via their own computers. In the Fall of 2020
Cisco equipment on a single PC.I. BACKGROUNDLaboratory work and hands-on experience are critical aspects of engineering learning. AtTechnology Systems Department of East Carolina University, we offer a unique ICT(Information and Computer Technology) program which is different from the traditionalcomputer science curriculums. The ICT program emphasizes on delivering hands-on experienceand teaches students practical skills that can be used right after they graduate. Many courseswithin the ICT program provide training for the students to obtain the equivalent industrycertificates. The contents and quality of these courses attract a large number of students into theprogram. The student enrollment was increased rapidly during the past three years
2004, American Society for Engineering Educationcontrol. A cooperative development of an Automation, Data Acquisition and Control Laboratorywith National Instruments is being initiated to augment the efforts in the Thermodynamics lab.With this effort, WIT faculty hope to spread the technology throughout the lab curriculum andintroduce a new state of the art Laboratory. Table 1. Approximate costs of the Equipment. Equipment Approximate Costs Minilab - Turbo Jet Engine $35,000 Rankine Cycler $24,000 Exhaust System $35,000 10 Computers For Simulations
critical thinking abilities they needto responsibly navigate and contribute to an AI-driven world.1. IntroductionArtificial Intelligence (AI) has become a transformative force across industries, redefining theworkforce and global problem-solving approaches, from healthcare innovations to environmentalsustainability efforts [1], [2]. Just like integrating computer science understanding and skills intothe curriculum has gained momentum in recent years, so is true for AI. Students need to betterunderstand how the technology works and how to use it properly. Despite the need for studentsto understand how AI works, disparities in Kindergarten through 12th grade (K-12) AI educationpersist. This leaves many students unprepared to navigate an AI
c American Society for Engineering Education, 2013 Developing System-Thinking Oriented Learning Modules of Networked Measurement Systems for Undergraduate Engineering Curriculum Xiaojing Yuan1, Heidar Malki1, Gangbing Song2, Xiaohui Yuan3 1. Engineering Technology Department, University of Houston 2. Mechanical Engineering Department, University of Houston 3. Computer Science and Engineering Department, University of North TexasAbstractThis paper describes the design of a set of system-thinking oriented learning modules of networkmeasurement systems for data acquisition and instrumentation courses. The courseware wasdesigned based entirely on open source components
Session 1526 Development of a Laboratory Curriculum Devoted to the Thermal Management of Electronics Nicole DeJong Okamoto, Tai-Ran Hsu San Jose State UniversityIntroductionEffective cooling of electronics has emerged as a challenging and constraining problem of thenew 21st century. The economic market demands ever faster computer clock speeds while at thesame time smaller physical enclosures. Computers, cell phones, and even automotive electronicsystems are becoming smaller and smaller. Since computer chip heat fluxes (the rate of heattransfer per unit
packages will be made according to the devel-oped criteria. This will be followed by conclusions based on the comparison. Page 3.2.2 1998 ASEE Annual Conference Session: 2520 - Computers in Education Page 3PROBLEM SET DEVELOPED FOR THE COMPARISON Table (1) summarizes the complete problem set which was developed for compar-ison purposes. Within this set there are representative problems from almost everyrequired course in a typical chemical engineering curriculum. The mathematicalmodels required for defining the various problems include: 1. Single and several simultaneous nonlinear algebraic equations (NLE’s). 2