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LEED i Sverige och i byggprojektet Borgarfjord 3. / LEED in Sweden and in Borgarfjord 3 project.Sundqvist, Peter, Porter, Maria January 2010 (has links)
This thesis provides a good introduction to the American environmental certification system LEED, Leadership in Energy and Environmental Design, and trough compar-isons between Sweden and the United States an explanation to the systems design is given. The work is closely linked to a LEED Core & Shell project in Stockholm, Swe-den, where the goal is to reach the second highest rating in LEED - Gold. This thesis gives a broad description of the LEED system and a more profound study of the energy sector, Energy and Atmosphere. Here, for example, an analysis has been made of how the energy consumption of an imaginary building designed according to the requirements of the BBR (Swedish building code) performs in comparison to the Baseline building in LEED. The existing model of Borgarfjord 3, which served as a case study in this work, has al-so been modified to investigate the energy savings that could have been achieved by adding extra insulation to the building. A description of the problems, regarding how the Swedish district heating system (DES) is treated in LEED, is given as well as the suggested modifications. This is an issue that will be pursued during the process of shaping a new, international, version of LEED due to be launched 2012.
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Investing in Green Buildings : How sustainability factors influence investment decisions in the European real estate market?Rautio, Saara Emilia, Stancu, Matei-Andrei, Alavidehkordi, Seyedamirhossein January 2021 (has links)
No description available.
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Nano-Micro Materials Enabled Thermoelectricity From Window GlassesInayat, Salman Bin 03 November 2012 (has links)
With growing world population and decreasing fossil fuel reserves we need to explore and utilize variety of renewable and clean energy sources to meet the imminent challenge of energy crisis. Solar energy is considered as the leading promising alternate energy source with the pertinent challenge of off sunshine period and uneven worldwide distribution of usable sun light. Although thermoelectricity is considered as a reasonable energy harvester from wasted heat, its mass scale usage is yet to be developed. By transforming window glasses into generators of thermoelectricity, this doctoral work explores engineering aspects of using the temperature gradient between the hot outdoor heated by the sun and the relatively cold indoor of a building for mass scale energy generation. In order to utilize the two counter temperature environments simultaneously, variety of techniques, including: a) insertion of basic metals like copper and nickel wire, b) sputtering of thermoelectric films on side walls of individual glass strips to form the thickness depth of the glass on subsequent curing of the strips, and c) embedding nano-manufactured thermoelectric pillars, have been implemented for innovative integration of thermoelectric materials into window glasses. The practical demonstration of thermoelectric windows has been validated using a finite element model to predict the behavior of thermoelectric window under variety of varying conditions. MEMS based characterization platform has been
fabricated for thermoelectric characterization of thin films employing van der Pauw and four probe modules. Enhancement of thermoelectric properties of the nano- manufactured pillars due to nano-structuring, achieved through mechanical alloying of micro-sized thermoelectric powders, has been explored. Modulation of thermoelectric properties of the nano-structured thermoelectric pillars by addition of sulfur to nano-powder matrix has also been investigated in detail. Using the best possible p and n type thermoelectric materials, this novel energy generation technique promises 304 watts of thermoelectricity from a 9 m2 glass window utilizing temperature difference of 20 OC. In addition to be useful even during off sunshine hours of the day, these energy harvesting windows will be capable of power generation even in the absence of a cooling systems inside the building as long as a natural temperature gradient exists between the two counter environments. With an increasing trend of having the exterior of buildings and high rises entirely made up of glass, this work offers an innovative transformation of these building exteriors into mass scale energy harvesters capable of running average lighting loads inside the building hence providing a complimentary source of electricity to the main power grid.
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Research on consumer preference, attitude and consumption intention for modern wooden structures: Case-studies from Japan and China / 現代的木造建築に対する消費者の嗜好性,態度,消費意向に関する研究:日本と中国の事例研究Wen, Luo 25 September 2017 (has links)
京都大学 / 0048 / 新制・課程博士 / 博士(農学) / 甲第20719号 / 農博第2248号 / 新制||農||1054(附属図書館) / 学位論文||H29||N5085(農学部図書室) / 京都大学大学院農学研究科森林科学専攻 / (主査)教授 神﨑 護, 教授 吉岡 崇仁, 准教授 仲村 匡司 / 学位規則第4条第1項該当 / Doctor of Agricultural Science / Kyoto University / DGAM
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VALUE CREATION, VALUE SENSING, VALUE DELIVERY, AND VALUE CAPTURING MECHANISM OF GREEN BUILDING: A VALUE NETWORKWei, Bo, 0000-0001-9155-6407 January 2021 (has links)
The development and expansion of cities has led to increased public awareness of the influence of building sustainability on the environment, society, and economy. Green building eases the pressure of urbanization by saving energy, reducing waste, protecting the environment, improving the living standard, and encouraging industry. Consequently, green building has developed rapidly for 20 years. This study reviews the literature on green building, recognizes the stakeholders’ motivations for and barriers to green building development, uses value network analysis, cost–benefit analysis, and case study method for understanding value creation, value sensing, value delivery, and value capturing mechanism of green building to augment the knowledge of green building development for both academics and practitioners. This study proposes an applicable analysis tool. / Business Administration/Finance
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Green Building: Public Opinion, Semantics, And Heuristic ProcessingWebb, Christina Michelle 01 January 2005 (has links)
Research on public support for green building has, to date, been incomplete. Understanding the demographics of individuals that support green building has remained secondary to merely determining real opinions on the topic. The identity of supporters and the motivation behind their support is the focus of this research. Specifically, is support for green building dependent on the way in which the issue is framed? This research aims to focus on those that are spreading the message about green building, industry experts, and the mass public. By exposing how green building experts talk about the issue, we may begin to understand why public support for green building has yet to reach the kind of mainstream acceptance other planning and design techniques have,such as New Urbanism. I predict that green building experts perceived low levels of public awareness, with the exception of those within the Northwest region, which I believ will perceive higher levels of awareness. In addition, I assume that industry experts will be most focused on energy efficiency as a primary concept of green building. As for the public, I hypothesize that those aware of green building and individuals age 50 and older will be more likely to support green building. With the introduction of source cues, I expect that support for green building will decrease when respondents received either an environmentalism cue or a government program cue. Using survey instruments, I was able to determine that all green building experts perceive public awareness as low and do, in fact, focus their efforts on energy efficiency. With regards to the public, support was highest among those that are aware, as well as those age 50 and older. In addition, insertion of source cues decreased support for green building, with the government program source cue providing the lowest levels of support for green building.
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Modeling Architecture to manage Energy, Social, and Governance (ESG) data of commercial buildingsChungath, Joseph January 2023 (has links)
A Green building is a well-managed building both in its technical and managerial senses. To achieve a Green Building standard, real estate developers should have frameworks in place to monitor and provide information regarding the sustainable aspects of the building. ESG data of a building is related to the Energy, Social, and Governance impact made by a building during its operations, and building a standardized and scalable solution to monitor this data will allow the developers to achieve a Green Building status easily. A Building Information Model is an architectural model that can be used to manage data from within a building to help provide its stakeholders with relevant data. This thesis aimed to design a BIM to manage the ESG data of a commercial building allowing the real estate developers to monitor and manage the building more sustainably with improved transparency and with the ability to make faster data-driven decisions. Action Design Research was the research strategy used to carry out the research and semi-structured interviews along with literature reviews were conducted to collect data. Thematic Analysis was done to identify themes in the collected data and the analyzed data was used to create the artifact. The artifact was then tested in the industry by gaining feedback from the industry. The thesis successfully designed an architecture model by collaborating with the industry and suggesting a universally applicable model to manage ESG data more efficiently. The model also gives importance to external software vendors and data consumers to help make the system more scalable and adaptable.
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AN INTERNSHIP WITH YRG SUSTAINABILITY CONSULTANTSJohnson, Whitney E. 15 April 2009 (has links)
No description available.
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THE LEED GUIDELINES: A FRAMEWORK FOR THE DEVELOPMENT OF GREEN BUILDINGS AND SITESHECK, GREGORY BRYAN 02 September 2003 (has links)
No description available.
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The Indoor Environment of Green versus Non-Green BuildingsCoombs, Kanistha C. January 2015 (has links)
No description available.
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