AC 2010-493: INTEGRATING SUSTAINABILITY INTO STUDIO DESIGNCURRICULUMDaniel Davis, University of Hartford Page 15.774.1© American Society for Engineering Education, 2010 INTEGRATING SUSTAINABILITY INTO STUDIO DESIGN CLASS CURRICULUMAbstractAt the University of Hartford, we have established an architectural program founded onintegration. Architecture by its very nature is connected to other disciplines, yet architecturaleducation is often criticized for a lack of integration in the curriculum. By increasing theawareness of the interrelationship between different areas of study, we are attempting to strike anew and more effective
, the extent to which these applications are utilized in the curriculumbeyond those specific courses, and the extent to which programs are including content on,building information modeling. As a result, a research study was conducted to collect datarelated to the use of these technologies in curriculums. More specifically, the study focused onarchitectural engineering curriculums based on two assumptions. First, it is assumed thatarchitectural engineering education emphasizes an integration of both engineering andarchitectural design content, a position supported by review of many AE programs. Second, it isassumed that industry developments such as the GSA mandate will require all disciplinesinvolved in design and construction to utilize
system design to actual loads.Section 1.3 Using Building Performance Simulation for Education and Praxis Integrating building performance simulation into the design curriculum affects twocrucial parameters. First, the use of building performance simulation provides a horizon uponwhich to ground the design of a building. Too often contemporary architecture students aretaught to exercise unbridled formal ambitions that lack grounding in engineering, costestimation, or constructability. While teaching design is a critical aspect of architecturaleducation, it must be balanced with an approach that grounds architecture within its broaderframework of collaboration. At the more advanced levels of engineering and architecturaleducation, the
time to cladding. This would also be valuable. Some additional classroom time and coordination with the architecture practice course might help.ConclusionsARCE 316, Structural Integration in Architecture, was introduced in Spring Quarter 2014.Significant effort was expended in the preparation of the course, including the development ofgoals, learning outcomes and content, frequent consultation and coordination with theArchitecture Department and review by the Architectural Engineering Curriculum Committeeand faculty. The effort paid off. Based on reviews of completed assignments and exams,discussions with architectural faculty and an end-of-quarter student survey the course is believedto have been a success and met its goals
workshops, to seven week design studios, to 15- Page 23.1307.7week seminars. One of the main goals of the curriculum is to “identify and applyintegrated performance metrics and assessment methods and tools,” and it does thismainly through the incorporation of the IES VE6 software. The software plays a criticalrole in the integrated approach of the courses, and provides a flexible, modularsimulation platform with a wide range of simple and advanced analyses. The IES VEsoftware provides an easy to use front end for Radiance and can handle advancedHVAC system design and calibration. The University of Minnesota curriculum serves asa good example of how critical
Institute of Architects (AIA). Invite construction professionals to campus to discuss the CM industry. We have already started this process, but need to increase the effort.CM Track LEED Opportunities: Research and explore options for working sustainability into the CM curriculum. We need to start this process very soon as sustainability has become an integral part of every industry but especially the design and construction industry.CurriculumWe have modified our existing AET Program track to create three tracks. The existing track hasbecome the GS track. The CM and AD tracks have clustered electives and created new coursesto deliver the necessary education for these more focused tracks. The decision of what track totake is made after the
betweenarchitecture and engineering. It includes capstone design courses that cover the major areas.The integration aspects of different disciplines of architectural engineering will be discussed. Aswell as, we will discuss the integration of safety and fire protection in the curriculum. Thehistory of the architectural engineering curriculum at University of Wyoming will be alsocovered. Future plans to evaluate the effectiveness of the curriculum in term of learningoutcomes.History of Architectural Engineering at University of Wyoming:Over USA, only 18 programs of architectural engineering are accredited by ABET (AccreditationBoard for Engineering and Technology). Architectural Engineering program at University ofWyoming (UW) is one of the oldest programs in
benefits of industry integration in capstone projects are documented in prior literature.However, student led teaming with industry partners further enhances student learning in thefollowing program outcomes identified in the ‘a’ through ‘k’ ABET criteria as follows: (c) an ability to design a system ….within realistic constraints. As students explore and define the capstone project, they gain an understanding for the real life constraints such as budget, schedule, etc. (e) an ability to identify, formulate, and solve engineering problems. Most engineering courses focus on solving the problem. The capstone experience is an ideal opportunity to allow students the experience of identifying and formulating the
project team.Currently, research into integrated practice is being supported by professional institutes,including the American Institute of Architects and other architectural, engineering, andconstruction related organizations. It is imperative that the curriculum in professional programsreflect current practices by introducing students to multidisciplinary models and emergingtechnologies.The Class PhilosophyThe idea of offering a building envelopes course started as an idea to expose students to designand construction issues dealing with the facade; massing, materials, attachment, day lighting,thermal comfort, sequencing, and fabrication. In addition to these topics, the course has becomean experimental course in building information modeling
practice but to engineering and engineeringtechnology education as well.Past reports and studies have been prepared by the American Society for Engineering Education(ASEE), the National Academy of Engineers and the American Society Civil Engineers (ASCE)discussed that the changes are needed for improvement of engineering education. Numerousstudies revealed that the engineering curriculum of today still does not provide the foundationnecessary to ensure the engineer’s success in the 21st century. In the past, the skills workersacquired would serve them well for decades. In the 21st century, however, an engineer’s successor a company’s success will be measured against how well they can adapt to new conditions andtechnologies. Thus to remain
2006-974: INTEGRATING STUDY ABROAD AND COOPERATIVE EDUCATION:A CASE STUDYStan Guidera, Bowling Green State University DR. STAN GUIDERA is an Associate Professor in the Architecture/Environmental Design Studies Program in the College of Technology at Bowling Green State University. He teaches design studios, advanced CAD and computer modeling courses, and advanced computer rendering and animation classes. He is a registered architect and has used computer-aided design extensively in design studios as well as in professional practice. Page 11.793.1© American Society for Engineering Education, 2006
architectural design, energy, lighting, building code are learned differently and in differentstage of the curriculum. In this paper, our objective is to combine both the architectural aspects, as well asthe building code requirements in different phases. Very few works have been developed to address theapplication of the building code during the design process. John Ruskin (2011) described process step-by-step.In this paper our objective is describe the integration of the building code into architecture design process. Page 24.1231.3A comprehensive case will be presented.ASEE Annual Conference, 2014 2. Methodology: 2.1. Conceptual
building design process to achieve the most efficient,economical, and environmentally friendly design.IntroductionLife Safety and Fire protection are an essential part of the MEP design process. This is whysafety and fire protection should be considered as an integral part of the ArchitecturalEngineering curriculum and should be addressed early on in the design process.Architectural Engineering as a single integrated field of study, compared to other engineeringdisciplines, is in and of itself a multi-disciplined engineering approach. ArchitecturalEngineering includes the design of various building systems including heating, ventilation andair conditioning (HVAC), plumbing, fire protection, electrical, lighting, and structural systems.The Illinois
0.0% 10.0% 20.0% 30.0% 40.0% 50.0% 60.0% 70.0% 80.0% Figure 7: Student evaluation of instructor emphasis on technical issues in the design studio.In addition to the closed-ended questions outlined in the graphs above, the students surveyed weregive an open-ended opportunity to add any observations they might have about technical teachingin the curriculum. Of the 53 undergraduate students who responded to the survey, 20 gave answersto this question. The most dominant themes that emerged in these answers were desires forincreased integration between the required technical courses and the design studio. A number ofstudents placed the emphasis on the studio environment as a place to achieve this aim
of multi-disciplinary studies into the viability ofconverting used shipping containers into an Intermodal Steel Building Unit (ISBU) studentdormitory. Initial studies are slated to begin in January, 2010 and will follow upon those studiesnoted in this paper that were conducted at IUPUI.Students in the third year of the Architectural Engineering Technology program at CNA inCanada will be conducting detailed technical design studies in three key areas of this applicationunder cold climate conditions, while ensuring that all applicable codes and life-safety standardsare met. These particular studies include: ≠ Investigation into options for exterior cladding systems; ≠ Design and integration of all mechanical and
, theories and real-worldapplications of BIM. These readings also addressed other important global topics such assustainable design and building performance related to LEED certification. The intent of thereadings was to introduce not only the practice of using BIM software, but also the theory andconcepts of integrated practice in the building design and construction industry. The readingswere selected in order to give the students insight into the potential uses and benefits of BIM andintegrated practice, and also to educate them about the current state of practice and theimplementation difficulties that remain to be overcome. The authors felt it extremely importantto give the students an understanding that BIM tools are only really useful in the
course.IntroductionEngineering design projects that focus on real world problems can help prepare students for thechallenges that they will face later in research settings and industry. In some architectural and/orcivil engineering curricula, students are exposed to design in first-year and/or senior capstonecourses. In an existing academic curriculum that lacks first-year and/or senior capstone coursesit may not be feasible to add new courses that are entirely focused on design. As an alternative tostandalone design courses, design components can be integrated into other courses that arealready part of the curriculum. Bucciarelli1, in a review of a workshop held by the EngineeringCoalition of Schools for Excellence in Education and Leadership (ECSEL), describes a set
,” and canon 6 holds that “engineers shall act in such a manneras to uphold and enhance the honor, integrity, and dignity of the engineering profession and shallact with zero tolerance for bribery, fraud, and corruption.” The CPC believed that an engineer’sobligation to serve his or her client faithfully and to be vigilant in eschewing fraud anddishonesty created a clear ethical obligation for the engineer in this case to report with strictaccuracy the time spent on his client’s project.The engineer claimed that he had initially questioned the order to falsify his time sheets but saidthat his supervisor had given what, at the time, appeared to be plausible explanations of why theoverbilling was neither dishonest nor unethical. The engineer said
book Constructing Complexity, William Mitchellreferenced to shift to digital design in architecture stating that “buildings were once materializeddrawings, but now, increasingly, they are materialized digital information – design with the helpof computer-aided design systems, fabricated by means of digitally controlled machinery, puttogether on-site with the assistance of digital layout and positioning devices, and generallyinseparable from flows of information through global computer networks.”[2]However, design exploration is an integral aspect of the design process in any discipline.Traditionally sketching has functioned as a primary conceptual design tool due to itsindeterminacy and ambiguity. Goel [3] suggested that the ambiguity in
Design program for Ivy Tech Community College Columbus between 2006 and 2009. His research interests are: temporary shelter systems for post-disaster relief, living and working in extremely small environments, human-product - environment interaction, product development and usability, and human-centered design. Page 22.446.1 c American Society for Engineering Education, 2011DESIGNING STEM KIOSKS: AN EXPLORATORY STUDENT PROJECT TO TEACH ERGONOMICS AND HUMAN FACTORSAbstractThis paper explains how sophomore-level Interior Design students in a three-dimensional studioclass were involved in
. According to Bernard Gordon, the founder andCEO of Analogic Corporation, “Engineering is an unforgiving and demandingenvironment and for students to succeed as engineers, they must go far beyond theories,simulations, and exam-taking.” By introducing active learning and teamwork to theclassroom environment, students will have the skills they need to transition fromuniversity to the real world.3.1.1 – Active LearningActive learning may be defined as any instructional method that engages students in thelearning process. Integrating activity and engagement to the traditional lecture allowsactive students the opportunity to use their unique set of learning skills while stillimpacting reflective students who typically respond well to passive lectures2,7
experience serving as the catalyst for this paper. He is now a major proponent of the Bedford Program within the School of Engineering and anticipates future collaborative work with the School of Architecture to develop formal assessment processes for continuous improvement of the program.Mark Mistur, Rensselaer Polytechnic Institute Mark Mistur is the Associate Dean of Architecture and Associate Professor at Rensselaer Polytechnic Institute where he has been instrumental in developing a curriculum based on the inclusion of theoretical, design, and technical intelligences as necessarily integral to a progressive architectural design. His teaching and research focuses on innovations driven both by
in Service Learning and Civic Engagement in a Studio Course with an ADA Accessible ProjectAbstractResearch findings confirm that service learning can benefit students, faculty, institutions, andcommunities by offering “real world” experience to students and quality design solutions tocommunities or organizations.2, 7 Currently, many universities have integrated service learningand civic engagement in university mission statement and curricula. However, the students’emotional and psychological pattern in the design process through service learning has not beenexplored. This paper presents the result of the assessment of a service-learning project in a studiocourse for sophomore students majoring in interior design. The project
practitioners have not been studied yet. Therefore, an analysis ofoutcomes at the level of collaborative team design performance, specifically at the conceptuallevel is absolutely needed.Process and MethodologyProject Requirement and Studio Activities In the studio students concentrate on design process and resolution of an independentproject. The project is the demonstration of the students’ ability to synthesize and integrate theirknowledge and skills learned in all their professional coursework. The senior studio includes theexpectation that a fully developed comprehensive project will evolve. The studio also providesstudents with an opportunity to independently develop the program for their capstone projectutilizing their experience and
, as well as how different kinds of value systemcan be re-examined. The optimal way of realizing inter-disciplinary collaboration and itsrespect methodology can be proposed. As a pedagogical model for integrating the sustainabledesign issues, the course curriculum: “Construction System for Planning and Design” then can beopen to students in the fields of engineering, construction, design, and landscape planning.In the following paragraphs, we will first describe the case of the engineering planning process ofthe Elephant-Hill eco-tourism pedestrian path. After redefining the concept of sustainableplanning, design, and engineering professionals via co-working, we confirm a fundamentalhidden dilemma: the value systems of different disciplines
prominence and the line thatseparates the different roles in the construction industry has already become blurred. Thetwo professions are so interrelated that the industry values a background in both fields.Increasingly more universities across the country and the world have an ArchitecturalEngineering curriculum. However, most existing programs emphasize training inArchitectural Engineering with significantly less emphasis placed on structuralengineering. In this report, I devised an undergraduate curriculum(s) at NC StateUniversity to build a professional career in building/bridge design with strong emphasisin both the structural as well as the architectural aspects. This plan may serve as a modelfor programs interested in a similar training path
entitled“Engineering Sustainable Design and Construction.” The course pairs students frominterdisciplinary teams with community partners to address real-world sustainability designproblems geared toward public service in the US as well as in other nations across the world. Page 13.1127.6The student design teams were vertically integrated to include architectural and mechanicalengineering students to provide realistic solutions to provided design problems14.Boston Architectural College has a program in sustainable design and presently offers acertificate in the subject area. The certificate program is an option for individuals that areultimately
examination of schoolperformance related to relevant student performance criteria used in theaccreditation process. It includes a review of the seismic design content ofarchitecture programs and the methods used to teach seismic design in an effort tochart how students learn seismic design concepts at various institutions. Findingsinclude information about regional influences and the professional profile ofinstructors as well as faculty assessment of currently available teaching materialsand identification of future teaching materials needs. Most significant is evidencesuggesting that although most schools of architecture address the concepts centralto seismic design across the curriculum in a variety of courses, there are barriersthat may prevent
funded MIST Space Vehicle Mission Planning Laboratory at the University of Maryland Eastern Shore. In 2010, he joined Eastern Michigan University as an Associate Dean in the College of Technology and currently is a Professor in the School of Engineer- ing Technology. He has an extensive experience in curriculum and laboratory design and development. Dr. Eydgahi has served as a member of the Board of Directors for Tau Alpha Pi, as a member of Advi- sory and Editorial boards for many International Journals in Engineering and Technology, as a member of review panel for NASA and Department of Education, as a regional and chapter chairman of IEEE, SME, and ASEE, and as a session chair and as a member of scientific and
. A completely new view isheld of what it is meant by learning and how it takes place.Is e-learning different from traditional teaching and learning? In e-learning, it is the learner, not the facilitator, who controls the learning pace andorder of learning experiences, and to a certain extent, the selection of which experiences area part of the course. Each learner may experience different learning outcomes through thesame curriculum. E-learning can take place when and where learners want it to, making iteasier to integrate learning with a definite procedure. However, e-learning is never morethan a mouse click from engaging or quitting. They can start or drop out at any moment.Web designers can never take the motivation of the learners