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Appendix B – Eco-Charrette Report
Appendix B – Eco-Charrette Report 2010 Facility Master Plan Factoria Recycling and Transfer Station November 2010 2010 Facility Master Plan Factoria Recycling and Transfer Station November 2010 Appendix B‐1: Factoria Recycling and Transfer Station ‐ Eco‐Charrette – Final Report. June 24, 2010. Prepared for King County Department of Natural Resources and Parks‐‐ Solid Waste Division. HDR Engineering, Inc. Appendix B‐2: Initial Guidance from the Salmon‐Safe Assessment Team regarding The Factoria Recycling and Transfer Station – Site Design Evaluation. July 15, 2010. Salmon‐Safe, Inc. Appendix B‐1: Factoria Recycling and Transfer Station ‐ Eco‐Charrette – Final Report. June 24, 2010. Prepared for King County Department of Natural Resources and Parks‐‐ Solid Waste Division. HDR Engineering, Inc. Table of Contents PART 1: ECO‐CHARRETTE...................................................................................................................... 1 Introduction and Purpose ......................................................................................................................... 1 Project Background and Setting ................................................................................................................ 1 Day 1. Introduction to the Sustainable Design Process ........................................................................... 3 Day 2: LEED Scorecard Review ................................................................................................................. 4 The LEED Green Building Certification -
What Knowledge Is of Most Worth in Engineering Design Education?
Integrated Design: What Knowledge is of Most Worth in Engineering Design Education? Richard Devon Sven Bilén 213 Hammond 213 Hammond Pennsylvania State University Pennsylvania State University PA 16802 PA 16802 [email protected] sbilé[email protected] Alison McKay Alan de Pennington Dep’t. of Mechanical Engineering Dep’t. of Mechanical Engineering University of Leeds University of Leeds Leeds LS2 9JT, UK Leeds LS2 9JT, UK [email protected] [email protected] Patrick Serrafero Javier Sánchez Sierra Ecole Centrale de Lyon Esc. Sup. de Ingenieros de Tecnun 17 Chemin du Petit Bois Universidad de Navarra F-69130 Lyon-Ecully, France 20018 San Sebastián, Spain [email protected] [email protected] Abstract This paper is based on the premise that the design ideas and methods that cut across most fields of engineering, herein called integrated design, have grown rapidly in the last two or three decades and that integrated design now has the status of cumulative knowledge. This is old news for many, but a rather limited approach to teaching design knowledge is still common in the United States and perhaps elsewhere. In many engineering departments in the United States, students are only required to have a motivational and experiential introductory design course that is followed several years later by an experiential and discipline-specific capstone course [1]. Some limitations of the capstone approach, such as too little and too late, have been noted [2]. In some departments, and for some students, another experiential design course may be taken as an elective. A few non-design courses have an experiential design project added following a design across the curriculum approach. -
BEYOND SUSTAINABILITY THROUGH REGENERATIVE ARCHITECTURE Regenerative Urban Landscapes
BEYOND SUSTAINABILITY THROUGH REGENERATIVE ARCHITECTURE Regenerative Urban Landscapes SAM NEMATI Thesis Report Master of Fine Arts in Architecture and Urban Design Year 5 Studio 12 Tutors: Alejandro Haiek, Carl-Johan Vesterlund, Andrew Bellfild, Tom Dobson Spring 2020 Umeå School of Architecture Umeå University 4640 Words Sam Nemati Thesis Report Spring 2020 Contents Table of Figures ............................................................................................................................................ 2 Abstract ........................................................................................................................................................ 3 Introduction .................................................................................................................................................. 4 Methodology ................................................................................................................................................ 5 CHAPTER 1: Beyond sustainability through regenerative architecture ..................................................... 6 1. Climate Change and Regenerative Architecture ................................................................................... 6 2. Regenerative Architecture in Practice .................................................................................................. 7 2.1. Case Study: Playa Viva, Mexico (2009) .............................................................................................. 8 3. Regenerative -
Multifarious Approaches to Attain Sustainable Fashion
Dr. Nidhi L Sharda is an Associate Professor in the Department of Multifarious Approaches to Knitwear Design at National Institute of Fashion Technology, Bangalore. In Attain Sustainable Fashion the decade and a half of her profes- sional life, she has extensively utilized Dr. Nidhi L. Sharda, Mr. Mohan Kumar VK her applied research which focuses Dept. of Knitwear Design, National Institute of Fashion Technology, Bangalore on the area of apparel and textile [email protected] design. Her applied research focuses on the area of textile and costumes Abstract with research experience in the field Fashion is a huge industry and affects environmental, economic and social system in of natural dyes, sustainable fashion, many ways. Exploitation of resources for ever changing trends in fashion is immense clothing and craft. and providing these demands put enormous pressure on the environment. In such a situation sustainable practices in every human activity has become important and fashion Mr. Mohan Kumar VK is an Assistant is not less affected by this drive. Fashion professionals have to play major role to Professor & Centre Coordinator of the inculcate the concept of sustainable fashion with responsibility in their product line. It Department of Knitwear Design at is important that while designing, designer should understand the benefits of sustain- National Institute of Fashion able operation starting with concept development level. In this paper design solutions Technology, Bangalore. He has 9 years for sustainable fashion are inferred in a design school scenario. The main idea to do so of teaching experience in NIFT. As a is to develop more sensible and responsible designs, which can be better solutions for designer, NIFT being his Alma Mater, sustainable fashion. -
A Guide to Environmentally Sustainable Landscape Architecture Products
A Guide to Environmentally Sustainable Landscape Architecture Products jonite.com/a-guide-to-environmentally-sustainable-and-long-lasting-landscape-architecture-products May 23, 2019 Landscape architects play an essential role in creating design interventions to ensure environmental sustainability. As we’ve explained in our other post on architectural trends that are here to stay (link), sustainability and climate adaptation strategies have not only been increasingly in the focus, but is here to stay. Sustainable architecture aims to incorporate elements of green design into various parts of the building. The main goal is to strike a beautiful harmony between green life and architecture to preserve nature and improve the quality of living. Green buildings are designed in a way to be built in a way that reduces harmful impact on the environment. What is environmentally sustainable design? 1/13 Environmentally sustainable design (or environmentally-conscious design, eco-design) is the philosophy of designing physical objects, the built environment and services to comply with the principles of ecological sustainability. Its core idea is to eliminate wastefulness and minimise environmental impact through architecture design. There are some common principles in sustainable design that most designers take into consideration when scoping out their design projects. They include the following: Choosing low-impact materials: These come in the form of choosing products that have high recycled content incorporated in the manufacturing process. Also, designers may choose materials that are locally sourced to reduce the carbon footprint of transporting materials to the project site. Choosing energy-efficient materials: Designers may also take the time to understand the material’s basic manufacturing processes and make their choice based on the energy involved in producing their selected materials. -
244 Project 1 = 10% Sustainability 101 Design Manifesto
244 PROJECT 1 = 10% SUSTAINABILITY 101 DESIGN MANIFESTO WHAT • Write your vision for your career through a personal manifesto. Present it in the form of an 11X17” colour poster. Use concept, layout and typography to share your vision in a unique way. • Your target audience is future industry employers. Imagine that employerw will decide who to hire based on this poster. WHY • To document your understanding of sustainable design and to explore how you see it influencing your future practice. • To practice communicating a message quickly and engagingly in a poster format, using concept, layout, imagery, typography, etc. • To give you an opportunity to implement design principles such as balance, scale, colour, figure/ground and framing. HOW • Review the links to examples of past design manifestos for inspiration. • Consider what you’ve uncovered about sustainable design. What resonates with you? What elements of sustainable design will you apply in your work? • Design a poster that includes your name and demonstrates that you understand the four pillars of sustainability. Write your manifesto in one or several paragraphs. It’s a poster, so keep it to 150 words maximum. • Consider the vernacular and the sensibilities of your target audience. • Consider what kind of design will best reflect you and your personality as a designer. • Combine two different type families in your design, and use at least three levels of type hierarchy. • Consider how to inject your personal voice into the copy itself and the typography. • Sketch different ideas. Revise and refine. • Post a jpg/png of your poster on your blog along and provide a rationale. -
Building for the Future: Sustainable Home Design
Building for the Future Sustainable Home Design John Quale, Assistant Professor and ecoMOD Project Director University of Virginia School of Architecture U.S. Department of Energy environmental impact of buildings electricity usage carbon emissions source: www.architecture2030.org U.S. Department of Energy environmental impact of buildings • the U.S. generates and uses more energy than any other nation; more than half is used in the construction or operation of buildings • the U.S. is the world's largest generator of greenhouse gas emissions • the average single-family home in the U.S. emits more than 22,000 pounds of carbon dioxide each year (from the electricity generated by utilities to run the home, and oil or gas powered appliances and equipment in the home) this is more than twice the amount emitted by the typical American car • each day the sun directly radiates more than 10,000 times the amount of energy required in the world • less than 10 percent of single-family residences are designed by architects; of those, most are for the wealthy U.S. Department of Energy what is green design? design and construction practices that significantly reduce or eliminate the negative impact of buildings on the environment and occupants in five broad areas: . site . water . energy . materials . comfort U.S. Department of Energy how is it measured? energy and water use monitoring utility bills life cycle analysis / assessments post occupancy evaluations carbon neutrality assessments certification processes such as LEED or Energy Star or Earthcraft U.S. Department of Energy who is responsible? clients architects engineers landscape architects planners contractors policy makers government officials U.S. -
Examples of Integrated Design
IEA Solar Heating and Cooling Task 23 Presents: Examples of Integrated Design Five Low Energy Buildings Created Through Integrated Design Editor Gerelle van Cruchten, Damen Consultants, Arnhem, The Netherlands Contributions by Susanne Geissler, Austrian Ecology Institute, Vienna, Austria Nils Larsson, Canmet Energy Technology, Ottawa, Canada Christina Henriksen, Esbensen Consulting Engineers, Copenhagen, Denmark Matthias Schuler, Transsolar, Stuttgart, Germany Douglas Balcomb, NREL, Golden CO, USA Charts Günter Löhnert, Solidar, Berlin, Germany Lay out Hans Weggen, Wageningen, The Netherlands Print Advadi, Arnhem, The Netherlands Five low energy buildings created through integrated design integrated through buildings created energy low Five Examples of Integrated Design of Integrated Examples 2 Examples of Integrated Design Five Low Energy Buildings Created Through Integrated Design SHC Task 23: ‘Optimization of Solar Energy Use in Large Buildings’ Austria Canada Denmark Finland Germany Japan Netherlands Norway Spain Sweden Switzerland United States AUGUST 2000 3 Contents 4 Introduction 5 1.1 IEA, Solar Heating and Cooling Programme, Task 23 1.2 Stories of integrated design Lessons learned 6 2. Lessons learned Case Stories 7 Austria 8 3.1 The challenge to design an ‘ecological’ building in co-operation Canada 14 3.2 Integrated design works in a competitive market Denmark 20 3.3 Create a building as an example for ‘our common future’ Germany 26 3.4 An atmospheric office USA 30 3.5 Student performance improved by daylighting Five low energy buildings created through integrated design integrated through buildings created energy low Five Examples of Integrated Design of Integrated Examples 4 1 Introduction 1.1 IEA, Solar Heating and Cooling Programme, Task 23 Within the International Energy Agency (IEA) a comprehensive program of energy co-operation is carried out among the member countries. -
Regenerative Architecture: a Pathway Beyond Sustainability Jacob A
University of Massachusetts Amherst ScholarWorks@UMass Amherst Masters Theses 1911 - February 2014 2009 Regenerative Architecture: A Pathway Beyond Sustainability Jacob A. Littman University of Massachusetts Amherst Follow this and additional works at: https://scholarworks.umass.edu/theses Part of the Environmental Design Commons, and the Other Architecture Commons Littman, Jacob A., "Regenerative Architecture: A Pathway Beyond Sustainability" (2009). Masters Theses 1911 - February 2014. 303. Retrieved from https://scholarworks.umass.edu/theses/303 This thesis is brought to you for free and open access by ScholarWorks@UMass Amherst. It has been accepted for inclusion in Masters Theses 1911 - February 2014 by an authorized administrator of ScholarWorks@UMass Amherst. For more information, please contact [email protected]. REGENERATIVE ARCHITECTURE: A PATHWAY BEYOND SUSTAINABILITY A Thesis Presented by Jacob Alexander Littman Submitted to the Department of Art, Architecture and Art History of the University of Massachusetts in partial fulfillment of the requirements for the degree of MASTER OF ARCHITECTURE May 2009 Architecture + Design Program Department of Art, Architecture and Art History REGENERATIVE ARCHITECTURE: A PATHWAY BEYOND SUSTAINABILITY A Thesis Presented by Jacob Alexander Littman Approved as to style and content by: ____________________________ Skender Luarasi, Chairperson ____________________________ Ray K. Mann, Member ____________________________ Thom Long, Member ____________________________________ William Oedel, Department Head Department of Art, Architecture and Art History ABSTRACT REGENERATIVE ARCHITECTURE: A PATHWAY BEYOND SUSTAINABILITY MAY, 2009 JACOB LITTMAN, B.A., UNIVERSITY OF MASSACHUSETTS AMHERST M.A., UNIVERSITY OF MASSACHUSETTS AMHERST Directed by: Professor Skender Luarasi The current paradigm in the field of architecture today is one of degeneration and obsolete building technologies. Regenerative architecture is the practice of engaging the natural world as the medium for, and generator of the architecture. -
Integrated Design Process Guideline
Integrated Design Process Task 23 Optimization of Solar Energy Use in Large Buildings Subtask B Design Process Guidelines Günter Löhnert sol°id°ar planungswerkstatt Andreas Dalkowski architects and engineers Berlin, Germany Werner Sutter Architekten B+S Zug, Switzerland Version 1.1 Berlin / Zug, April 2003 A Guideline for Sustainable and Solar-Optimised Building Design INTEGRATED DESIGN PROCESS GUIDELINE CONTENTS 0. Preface......................................................... 2 1. Introduction ................................................... 1 2. Considerations of Design..................................... 6 3. Design Process Development Model .......................12 ACKNOWLEDGEMENT 4. Key Issues in Design Process................................22 The guideline was supported by fruitful comments from several experts and practitioners. The authors wish to 5. Design Process Recommendations .........................35 express particular appreciation to the Task 23 experts, 6. Implementation of Integrated Design Process ...........55 Gerelle van Cruchten, The Netherlands Anne Grete Hestnes, Norway 7. Glossary .......................................................59 Pierre Jaboyedoff, Switzerland Nils Larsson, Canada 8. Sources ........................................................61 Bart Poel, The Netherlands Matthias Schuler, Germany 9. IEA Task 23 Participants ....................................62 Maria Wall, Sweden Zdenek Zavrel, The Netherlands and to contributing outside experts Roman Jakobiak, Germany Thomas Lützkendorf, -
Integrated Design Process and Integrated Project Delivery Rocky Mountain ASHRAE Technical Conference 2011
The Integrated Design Process and Integrated Project Delivery Rocky Mountain ASHRAE Technical Conference 2011 Presented for April 15, 2011 PttiPresentation OtliOutline Evolution of the Design Process Definitions Design Effort Curve Practicing Integrated Design Disintegrated / Dysfunctional IDP Tips for Integrated Design IDP and LEED Certification Conclusion Q & A Contact / Resources QtiQuestions When you hear the term “Integrated Design”, what comes to mind? Do you associate Integrated Design with sustainability? Is Integrated Design critical to the success of every project? EltiEvolution of the DiDesign Process Building Design is increasing in complexity at an exponential rate. Emphasis on total building performance is forcing the design/construction industry to perform at a higher level. Integrated Design represents an evolution in the construction industry. Design and construction firms are struggling with information overldload, growing bibusiness complilexity and associdiated rikisk and compliance challenges, as well as increasing complexity managing internal and external collaboration. Firms are faced with the challenge of continually assimilating and updating the firm’s computer and communications technology, and ensuring that everyone involved in a project is on the same page, with the same information and versions of key documents. DfiitiDefinitions Integrated Design Process (IDP): A discovery process optimizing the elements that comprise all building projects and their inter‐relationships across increasingly larger fields in the service of efficient and effective use of resources. Source: ANSI/MTS WSIP Guide, 2007 Integrated Project Delivery (IPD): A project delivery approach that integrates people, systems, business structures and practices into a process that collaboratively utilizes the talents and insights of all participants to optimize project results, increasing value to the Owner, reduce waste, and maxiiimize effic iency thhhrough all phases of design, fabrication, and construction. -
Potentials and Systems in Sustainable Landscape Design
Potentials and Systems in Sustainable Landscape Design Erica Ko Editor Werner Lang Aurora McClain csd Center for Sustainable Development II-Strategies Site 2 2.2 Potentials and Systems in Sustainable Landscape Design Potentials and Systems in Sustainable Landscape Design Erica Ko Based on a presentation by Ilse Frank Figure 1: Five-acre retention pond and native prairie grasses filter and slowly release storm water run-off from adjacent residential development at Mueller Austin, serving an ecological function as well as an aesthetic amenity. Sustainable Landscape Design quickly as possible using heavy urban infra- structure. Today, we are more likely to take Landscape architecture will play an important advantage of the potential for reusing water role in structuring the cities of tomorrow by onsite for irrigation and gray water systems, for allowing landscape strategies to speak more providing habitat, and for slowing storm water closely to shifting cultural paradigms. A de- flows and allowing infiltration to groundwater signed landscape has the ability to illuminate systems—all of which can inspire new forms the interactions between a culture’s view of for integrating water into the built environ- its societal structure and its natural systems. ment. Water can be utilized in remarkable Landscape architecture employs many of the variety of ways–-as a physical boundary, an same design techniques as architecture, but is ecological habitat, or even a waste filtration unique in how it deals with time as a function system. A large-scale example of an outmoded of design (Figure 2), its materials palette, and approach is the Rio Bravo/Rio Grande, which how form is made.