2006-807: COMPUTER-MEDIATED COMMUNICATION IN A DISTRIBUTEDDESIGN STUDIOJeong Han Woo, Western Illinois University Jeong-Han Woo is an assistant professor of the Department of Engineering Technology at Western Illinois University. His research interests include knowledge management in the AEC industry, BIM (Building Information Model), IT( Information Technologies) on the design and construction industry, and construction process simulation. His e-mail address is j-woo@wiu.edu.Mark Clayton, Texas A&M UniversityRobert Johnson, Texas A&M University Page 11.342.1© American Society for Engineering
objectives associated with the completion of eachtask.Table 1. Student Tasks and Learning Objectives Task Learning Objective1 Complete introductory tutorials for three After completing this task the student will be dimensional computer-aided design able to execute drawing commands such as: (CAD) line, trim, rotate, mirror, and length. Also, the student will be able to assign elements to layers and snap to objects2 Interpret plan, elevation and section After completing this task the student will be drawings for the George
AC 2009-904: COMPUTER-AIDED PHYSICAL MODELS: INTRODUCING NURBSAND FABRICATION IN CONCEPTUAL ARCHITECTURAL DESIGN PROJECTSStan Guidera, Bowling Green State University Dr. Stan Guidera is a registered architect and an Associate Professor in Architecture at Bowling Green State University. His areas of specialization are in Building Information Modeling and design visualization. Page 14.354.1© American Society for Engineering Education, 2009 Computer Aided Physical Models: Introducing NURBS and Fabrication in Conceptual Architectural Design ProjectsAbstractThis paper documents the activities
learned from mechanization, (2) PeterMcCleary’s article, “Some Characteristics of a New Concept of Technology”4 for ideas on howwe experience technology and (3) Christopher Alexander’s work on contextual appropriatenessand fit,5, 6 along with my own writings.Lessons from MechanizationSiegfried Giedion’s 1940’s work is important here because there are parallels between the effectsof CAD and computer automation, in parts of the design process now, and the lessons he learnedwhen complicated handcrafted processes are transformed through mechanization during theIndustrial Revolution. Giedion argues that the mechanization process requires three things: (1)the understanding of the steps of hand movement, (2) standardization of components and (3
dimensional variations are manipulated.A generative computing application that is rapidly expanding in use is Grasshopper, which runswith Rhino 3D. This expanded can be attributed to two factors. First, the extensive modelingcapabilities of Rhino 3D, particularly in terms of nurbs (non-uniform rational b-spline) curve andsurface modeling, has lead to its widespread adoption among architectural educators andprofessionals. The command structure has many parallels with applications AutoCAD as well as3D Studio, thus reducing the learning curve for students already familiar with this application.Secondly, the graphical interface of Grasshopper provides an explicit representation of thegeometric relationships and sequences used to generate the digital
AC 2007-254: EVALUATING THE EFFECTIVENESS OF E-LEARNING IN AUNIVERSITYMing-yin Chan, Hong Kong Polytechnic UniversityKwok-wai Mui, Hong Kong Polytechnic University Page 12.696.1© American Society for Engineering Education, 2007 Evaluating the effectiveness of e-learningAbstract Computer assisted instruction and assessment is increasingly being adopted withinthe university sector to complement more traditional methods of teaching and learning.Much focus is often given to the advantages of exploiting technology, and the ability tostore, manipulate and report data. However, teachers and trainers are increasingly aware thatstudents and learners are beginning
AC 2012-3908: THE ROAD TO CREATING, EVALUATING AND CHANG-ING A BIM LEARNING ENVIRONMENTMrs. Blythe Marlow Vogt, Kansas State University Blythe Marlow Vogt joined the faculty in architectural engineering & construction science and manage- ment at Kansas State University in Jan. 2008. She received her B.S.A.E. from K-State in 2001 and com- pleted her M.S.A.E. from K-State in 2010 related to curriculum development in architectural engineering and construction science with regards to building information modeling. Vogt is currently pursuing her Ph.D. in electrical and computer engineering with an emphasis in engineering education/outreach under the supervision of Dr. Noel Schulz. During 2001-2008, Vogt was employed
Paper ID #10134Introduction to Architectural Structures: Lessons Learned from Parti PrisPedagogyProf. Keith E. Hedges, Drury University Keith Hedges is an Assistant Professor of Architecture and teaches the architectural structures sequence at Drury University. Keith’s teaching repertoire includes seventeen different courses of engineering topics at NAAB (architecture) and architecture topics at ABET (engineering) accredited institutions. His interests involve the disciplinary knowledge gap between architecture and engineering students in higher education
Proceedings. 1988.(8) R. Felder, R. Brent. “Cooperative Learning in Technical Courses: Procedures, Pitfalls, and Payoffs.” ERICDocument Reproduction Service Report ED 377038. 1994.(9) Conner, M. – Hodgings, W. (2000): Learning Styles. www.learnativity.com/learningstyles.htm Page 12.572.11(10) D. Kolb, R. Boyatzis, C. Mainemelis. Experiential Learning Theory: Previous Research and New Directions.R. J. Sternberg and L. F. Zhang (Eds.), Perspectives on cognitive, learning, and thinking styles. NJ: LawrenceErlbaum, 2000.(11) M. Conroy. Computer Power and Consulting. www.cpccorp.com
AC 2010-331: SCHOLARSHIP OF ENGAGEMENT AND PROJECT BASEDLEARNING: EXPERIENTIAL BASED LEARNING PROJECT FORCONSTRUCTION MANAGEMENT STUDENTS AT WESTERN CAROLINAUNIVERSITYRonald Miers, Western Carolina UniveristyGeorge Ford, Western Carolina University Page 15.1053.1© American Society for Engineering Education, 2010 Scholarship of Engagement and Project Based Learning: Experiential based learning project for construction management students at Western Carolina UniversityAbstract The Peggy Crosby Center located in Highlands, North Carolina is a multi-use complex that wasbuilt in the late 1800’s. Originally built as a private dwelling and after many
AC 2011-1559: CONNECTING CONCEPTS IN SUSTAINABLE DESIGNAND DIGITAL FABRICATION: A PROJECT-BASED LEARNING CASESTUDYDr. Stan Guidera, Bowling Green State University Stan Guidera is an architect and chair of the Department of Architecture and Environmental Design at Bowling Green State University. His primary teaching and research area is in 3D applications for com- puter aided design for architecture and Building Information Modeling. Jon Stevens is an instructor in the Department of Architecture and Environmental Design at Bowling Green State University. His primary teaching and research areas are design studios, design-build, and intrductory computer aided design for architecture and construction.Jon M. Stevens
Paper ID #15461Learning From the ”Big Box Store” - An Alternative Strategy for TeachingStructural SystemsDr. Stan Guidera, Bowling Green State University Stan Guidera is an architect and a Professor in the Department of Architecture and Environmental Design at Bowling Green State University. He teaches design studios and computer modeling courses related to digital applications in design, design visualization, and computer animation. He has conducted work- shops, published, and presented papers at national and international conferences on a variety of digital design topics including design visualization, building
concepts suggests that curricula should be organized inways that lead to conceptual understanding” (p. 42). This conceptual learning allows students torepresent their knowledge through abstractions that can connect the disparate components of newproblems. Druckman and Bjork12 say that this type of analogical learning transfer “leads to theinduction of general schema for the solved problems that can be applied to subsequent problems” Page 26.932.3(p. 43). Where conceptual learning supports the transfer of knowledge to new contexts, theserequirements to translate construction knowledge through the functionalities of computer
AC 2009-1758: INTEGRATING ELECTRICAL CONTRACTING INDUSTRY INTOTHE ARCHITECTURAL ENGINEERING EDUCATIONAL SETTING TOPROMOTE LEARNINGMahmoud Alahmad, University of Nebraska, LincolnJamie Tills, University of Nebraska, LincolnSteven Swanson, University of Nebraska, Lincoln Page 14.755.1© American Society for Engineering Education, 2009 Integrating Electrical Contracting Industry into the Architectural Engineering Educational Setting to Promote LearningAbstractReception and processing of information are the elements of learning. How theinformation is presented is a critical element in student comprehension. In mostengineering institutions, theory and fundamental
successful effortsto improve student learning in structural dynamics based on forced vibration testing1,2 of large-scale and full-scale buildings.Figure 1-(a) Building to shake (b) Computational model (ETABS3).Course descriptionCourse objectives: Reinforce dynamic structural analysis concepts relevant to engineers Visualize structural response to dynamic loading Demonstrate the physical existence of natural frequencies and mode shapes in real structures Create analytical models that accurately represent the structures being investigated Compare experimental quantities with analytical model quantities such as natural frequency and mode shapes Experimentally determine the structural damping
concepts and the interplay of color, form andlight: the standard tools of every architect. This study into architectural technical education looks at the use of scaledphysical miniatures (hand built models) to study the relationships betweenbuildings systems and interior architecture. Through the use of surveymethodology, it explores questions about the value of scaled miniatures primarilyin comparison to their popular, computer generated partners. More specifically,this study assesses student perception of their value and also examines theusefulness of scaled miniatures upon the learning of craftsmanship, selection ofmaterials, presentation techniques and the correct juxtaposition of buildingelements within building assemblies that are
, students will become further challenged to calibrate their modelsand check the accuracy of the results. “Even though information technology is a powerfulreality, an indispensable, rapidly developing, empowering tool, computers do not contain theessence of teaching and learning, which are deeply human activities. So we have to keep ourmeans and ends straight” 4. With the inevitable increase in the use of computers in engineeringapplications, a solution to this problem of inaccurate modeling is quickly needed.A unique laboratory exercise was recently developed to address the problem of inaccuratemodeling. Senior undergraduate students in their terminal analysis course were challenged withthe task of predicting the natural periods of vibration of a
Engineering program at this university is in fact one of the mostintense structural engineering programs in the country requiring 203 quarter units to completeand upper division courses in integrated design of buildings using concrete, steel, wood andmasonry along with seismic design of buildings. The department is however housed in theCollege of Architecture and Environmental Design rather than the College of Engineering. Thisoverall research study explores the learning styles of different engineering disciplines and thelearning styles preferred by students who select these disciplines as academic majors and careers.The work in progress centers on surveys of students in engineering programs at this university.A preliminary survey of women in the
the230,000-square-foot Electrical and Computer Engineering (ECE) Building, namedR&D Magazine’s 2016 Laboratory of the Year.3 The net-zero-ready facility has earnedattention for its sustainability features, yet its success also hinges on design elementsthat draw explicit links between research and learning, and students and faculty.Most notably, the building’s five-story interdisciplinary lab and research tower — withsome of the most advanced facilities dedicated to undergraduates anywhere in thenation — also includes private and group offices at two corners of the building. Fusinginstructional labs, research labs, offices, and informal learning spaces in a singlestructure enables chance intellectual collisions among undergraduates, grad students
constructiontechniques found at the Visitor and Administrative Center sustainable building on the field trip,then either taken on a real field trip of the sustainable building or instructed to take a virtual tourof the same facility. Following their field trips, both groups of students were given the samepost-test and their respective learning assessed and compared. Students were also given aqualitative survey to assess their assigned field trip type. The results of this study will providefaculty with an understanding of the relative benefits of integrating a field trip, real or virtual,into their courses.Introduction:The goal of this paper is to examine if an interactive, computer-based, “virtual” field trip (non-avatar) can be as effective to student learning
tools hasincreased dramatically in architectural education. However, with adoption of BIM applicationsin professional practices, including even smaller firms which would not typically have resourcesto adopt advanced technologies [9], it could be anticipated that, for architectural graduates,previous employment criteria such as proficiency with computer aided drafting will besupplanted by expectations that graduates will be proficient with 3D computing skills andpossess skills related to building information modeling. However, as object-orientedprogramming and parametric modeling that provide the core for functionality BIM applications,3D modeling is easier to learn and use when utilizing a BIM application [2]. While important in
Future for Architecture Education andPractice, Carnegie Foundation.Burke, L. (2005). Transitioning to Online Course Offerings: Tactical and Strategic Considerations.Journal of Interactive Online Learning, Vol. 4, No.2, Fall 2005.Harrison, A., Bramson, R., (2002). Art of Thinking, Berkley Publishing Group, New York.Tomei, L. (2004). The Impact of Online Teaching on Faculty Load: Computing the Ideal Class Size forOnline Courses. International Journal of Instructional Technology and Distance Learning, January.http://itdl.org/journal/jan_04/article04.htmYoung, S. (2003). Cost to Instructors in Delivering Equated Online and On-campus Courses. The Journalof Interactive Online Learning. Vol. 1, No.4, Spring
, and it is imperative that a new learning tool be employed to educate students tounderstand the language of construction and construction drawings.This paper addresses the need for developing such a learning tool. Using the computer programSketchUp, a catalog of 3D manipulative computer models were created and incorporated into avariety of academic Construction Drawing and Analysis class exercises. This tool enabledstudents to manipulate, orbit, zoom in/out, and have selective viewing of constructioncomponents learning models. These activities allow students to dissect a building structure anddevelop an understanding how building components inter-relate. The analysis of comparativestudents using the models showed a positive direction in
courses at Michigan Technical University than their peers who had nottaken the spatial skills course. The study suggests that physical models can be helpful to manystudents.13In another study, Harris et al found that biology students who had used hand-held models andmolecular imaging programs together over several weeks ―produced higher quality answers tocertain higher-order questions than students who only used computer imaging programs duringthe same time period.‖ 14 The authors conclude that their finding and those of previous studies— by Wu and Shah15 (chemistry), Roberts et al16 (biochemistry) and Sorby17 (engineering) —indicate a relationship between tactile model use and student learning gains.Kuo et al found in their 2004 study that
22.682.6DOF model. Throug gh this proceess, the studeents determinned that theyy needed to choose c the semi-rigid diaphgram option in ETABS to incorporate the diaphragm flexibility. The resultingfundamental frequency for the their semi-rigid diaphragm computational model was 5.6 Hz.This prediction compared very closely with the experimental result of 5.3 Hz. From thiscomparison the students not only learned a valuable lesson with regards to the modeling of floorand roof diaphragms. They also gained significant insight into the effect of wall and buildingmass modeling on predicted behavior.Mode ShapesThe next phase of the exercise is to have the students
information regarding software support was also a limitation, as the instructorhad limited experience with the analysis software, which provided difficult when attempting totroubleshoot errors that students encountered. Therefore, there was extra time spent learning thesoftware and utilizing limited resources available.The results of the student structures were analyzed individually, and then compared to each otherfor analysis. Results were taken from several factors, including model structure, still visualrenderings, animated visual renderings, and computed Autodesk Ecotect data. Not all of theresults for each student were the same, due to previously mentioned limitations. Majority of theresults extracted were similar, but not all of the students
collaboration.The ARCE department offers a sequence of five support courses that are taken by architectureand construction management students and gives them a solid grounding in statics, properties ofmaterials and structural systems. The final two courses in this sequence are titled Small ScaleStructures and Large Scale Structures. These two courses are unusual in that they are designednot for ARCE students but solely for the ARCH and CM students.In presenting these two culminating courses, this paper addresses the background of the supportcourse sequence, the role these two courses play in the five course sequence and their goals,learning outcomes, content and methodologies and approaches. This paper will also describe theinterdepartmental assessment
visualization students can learn time-space relationship in construction schedule more effectively. Scheduling is based on taskactivities and 4D models can help understand this process better. This paper demonstratesvarious 3D visualization, VRML and walk-through animation of construction progress as afunction of time (schedule). The techniques to develop 4D construction visualizations aremeticulously demonstrated with examples. Considering the interest of youths in computer gamesthese days, the use of a 4D visualization will develop a lot of interest amongst them, and willmotivate them to try to better understand and retain important concepts of construction. Thetechniques demonstrated through 4D virtual construction models can potentially be a
figuration of the physicall structure inncluding the Page 23.1168.2removablle braces, fleexible founddations, diaphhragm attachhment, and the t associateed structuraldynamic behavior. Itt also detailss the use of the t shaking devices d empployed to exccite the builddingstructure and the softtware and haardware neceessary to obttain the buildding responsse. Mostimportanntly the concepts and exeecution of the learning modules
experiments. These experiments not onlyimproved learning of the topics by applying the theory to realistic engineering systems1, theexperiments also served as a point of comparison for the computational models that manystudents cited as typically lacking and the reason they failed to take the necessary steps tocalibrate the models in previous assignments.In order to expose students to the challenges of accurate foundation modeling, students wereasked to determine the appropriate boundary conditions for following three structures:1) A campus structure with a braced frame lateral system founded on embedded concrete pillars.2) An off-campus podium slab structure with concrete columns founded on grade beams. Theslab supports an office building currently