Sustainability of Green Building Practices in Residential Projects

Author(s):  
Subhankar Das

A green building is a sustainable building that has minimal impacts on the environment throughout its life. For the purposes of this report, “green building” is understood to mean construction that makes efficient use of energy and resources in every aspect. This includes the production of building materials, and the design, use, and eventual demolition of a building in any sector (commercial, residential, industrial, public buildings) and at all stages, from new buildings to “retrofitting” or adapting existing ones. The construction sector, which accounts for 10% of global GDP, has direct and indirect impacts on the environment. It produces 23% of global greenhouse gas (GHG) emissions, and buildings are responsible for between 30% and 40% of all material flows. A green building is a sustainable building that has minimal impacts on the environment throughout its life.

2019 ◽  
Author(s):  
Nilanjan Sengupta

Building construction sector can play a major role in reducing Greenhouse Gas emission through application of technologies aimed at reduction of use of building materials. Energy consumed during production of building materials and components plays a crucial role in creating environmental pollution. India is witnessing high growth in urban and rural housing, which needs more production of building materials. Permanent or semi-permanent type buildings which consume easily available conventional materials like brick, reinforced cement concrete etc. can be made Economic and Eco-friendly by lowering use of energy-consuming building materials through Cost-effective Construction Technologies. Buildings with Cost-effective Construction Technology can be designed within the parameters of the existing Indian Standards. Awareness generation among the users, proper technical and architectural guidance and easy availability of skilled manpower are of utmost importance for promotion of cost-effective technologies in India and to make them as the most acceptable case of sustainable building technologies both in terms of cost and environment.


2011 ◽  
Vol 374-377 ◽  
pp. 1254-1257
Author(s):  
Nima Amani ◽  
Seyedmohsen Hosseini

There is need to assess the potential of the construction materials for the green building future generation. Research is necessary for complete assessment of construction materials for present and future generation of green building. This paper provides a consistent basis and specific factors for construction materials based on eco-labeling sciences. Within the methodological framework, three categories of sustainable building materials’ implementation are discussed: economical implementation; environment implementation; and social implementation. The paper shows that green building improvements can be achieved with help of the choice materials based on existing factors of eco-labeling construction. Construction eco-labeling can help to select a suitable material for creating a better outdoor environment and indoor environment of building.


2015 ◽  
Vol 650 ◽  
pp. 13-20
Author(s):  
Ashok Kumar ◽  
P.S. Chani ◽  
Rajesh Deoliya

Construction industry is one of the largest consumers of the natural resources and responsible for substantial amount of CO2emission in the world. The purpose of this paper is to carry out comprehensive literature review on the low embodied energy materials and techniques used in the existing and / or new buildings in India. The paper also compares the conventional building materials and techniques, with alternative ones to assess their superiority. An investigation into the energy consumed by the building materials and techniques is computed to find out the embodied energy requirements to prove superiority of innovative construction techniques over traditional materials.


2011 ◽  
Vol 6 (3) ◽  
pp. 21-32 ◽  
Author(s):  
Robin Holzer ◽  
Zakcq Lockrem

INTRODUCTION In recent years, Houston has made great strides in green building, moving into the top ten nationally on both LEED certified and Energy Star rated structures. At the same time, fewer steps have been taken to address transportation, which accounts for one third of U.S. greenhouse gas emissions. 3 To achieve greater sustainability, architects, planners, and developers must take the space between buildings into greater account. As in other metropolitan areas, Houston's commercial developers and property owners are continuing to embrace green building standards, particularly the U.S. Green Building Council's Leadership in Energy and Environmental Design (LEED) standard for new construction. As a result, new offices, schools, institutions, and commercial buildings are increasingly efficient, incorporating a full array of technologies to minimize energy use and greenhouse gas emissions. These are major steps in the right direction, but we can and must do more. Individuals spend only part of their day in any given home, office, school, or other facility. They must also travel between other locations. According to the U.S. Environmental Protection Agency, in 2009, approximately one-third of GHG emissions came from buildings and another one-third came from transportation. If we are to reduce total GHG emissions, it will not be enough to address only buildings. The (lack of) proximity of these daily destinations to one another is a significant driver of the energy consumption and emissions of travel. Further, the quality of the public infrastructure between destinations directly affects which travel modes are available. Destinations that are well-connected by wide sidewalks, bike lanes, or transit—complete streets—are likely to be reached on foot, bike, or transit. Distances that are connected only by auto-oriented roads or highways are likely to be traversed in cars. LEED for New Construction offers 17 (out of 110) points that are related to location of a building or the transportation options serving it. 4 However, none of these points is mandatory and in many cases they can be earned too easily. For example, points are available if there is any bus or other transit stop within 1/4 mile of a project, without regard for the frequency that buses stop there or whether the connectivity that would allow someone to get from the stop to the project site exists. In order to create greener buildings, it behooves developers and others making site-selection decisions to locate new buildings in or near existing activity centers, to take advantage of proximity to other destinations, and to help enable transit service, which works best where there's density. Getting the location right is especially important for new public facilities, including civic buildings, health clinics, schools, community and senior centers, etc. Second, it behooves owners of existing buildings and local jurisdictions to work together to retrofit streets (in the same way one might retrofit an older building) to make them complete, adding safe and convenient facilities for pedestrians and cyclists. By increasing density and completing street infrastructure, we can reinforce existing locations into livable centers, increasing travel options and reducing auto dependence.


2016 ◽  
Vol 700 ◽  
pp. 256-265
Author(s):  
Nurul Akmam Naamandadin ◽  
Norhaizura Yahya ◽  
Abdul Razak Sapian

The concept of sustainable building incorporates and integrates a variety of strategies during the design, construction and operation of building projects. The use of green building materials and products represents one important strategy in the design of a building. Green building materials offer specific benefits to the building owner and building occupants such as reducing maintenance/replacement costs over the life of the building, energy conservation, improving occupant health and productivity, and greater design flexibility. Thus, the aim of this paper is to identify the similarities and the differences for the selected green assessment tools which can be obtained stage by stage of the RIBA Outline Plan of Work 2013. The study had been carried out through a comparative analysis. The finding is predicted to help the construction industry practitioners to be able to understand the assessment criteria involved at every stages in the construction process concerning on material and recourses. Especially for those who are concerned on green building and to sustain our natural environment.


2018 ◽  
Vol 2018 ◽  
pp. 1-14
Author(s):  
Mi Gan ◽  
Dandan Li ◽  
Mingfei Wang ◽  
Guangyuan Zhang ◽  
Shuai Yang ◽  
...  

The logistics facility location is always involved with great deals of investment. Its construction and operation also bring out a huge amount of the greenhouse gas (GHG) emission due to the consumption of building materials, energy, the running of trucks, and other logistics equipment. Particularly, trucking activities in the urban logistics networks (ULN) are a major source of GHG. This paper aims to formulate an eco-facility location model to minimize both the total cost of ULN construction and operation and the GHG emissions of truck trips. Based on the mathematical relations of GHG emissions rates and several macroscopic factors, which we obtained by multivariate regression analysis on a large set of empirical trucking data in our previous research, the data-driven emissions rates estimation function is acquired. Then, we link the estimation function of each trip purpose by various kinds of logistics facilities through a qualitative analysis. The eco-facility location problem is modeled by integrating the pure facility location model and the GHG emissions function. The problem is first converted to a biobjective mixed-integer program, and the Particle Swarm Optimization algorithm is applied to solve the model. Through experiments with real case, the effectiveness of the models and algorithms is verified. The eco-facility location model for ULN tends to obtain the environment-friendly location decision. Our analytical results also verify the hypothesis that locations of facility do impact the relevant truck-related GHG emissions, especially to transfer transport, as well as inbound and outbound freight.


Materials ◽  
2020 ◽  
Vol 13 (9) ◽  
pp. 2099 ◽  
Author(s):  
Juan María Terrones-Saeta ◽  
Jorge Suárez-Macías ◽  
Francisco Javier Iglesias-Godino ◽  
Francisco Antonio Corpas-Iglesias

Scarcity of raw materials, reduction of greenhouse gas emissions and reduction of waste disposal in landfills are leading to the development of more sustainable building materials. Based on these lines, this work studies the incorporation of biomass bottom ashes into ceramic materials for brick manufacture, in order to reuse this currently unused waste and reduce clay extraction operations. To this end, different groups of samples were made with different combinations of clay and biomass bottom ashes, from 100% clay to 100% biomass bottom ashes. These samples were shaped, sintered and subjected to the usual physical tests in ceramics. In turn, the mechanical resistance, color and leaching of the contaminating elements present were studied. The physical and mechanical tests showed that the results of all the families were adequate, achieving compressive strengths of over 20 MPa and leaching of the contaminating elements acceptable by the regulations. Therefore, a sustainable range of ceramics was developed, with specific properties (porosity, density, resistance and color), with a waste that is currently unused and sustainable with the environment.


2020 ◽  
Vol 12 (18) ◽  
pp. 7676 ◽  
Author(s):  
Mahmoud Sodangi ◽  
Zaheer Abbas Kazmi

Coconut palm wood is commonly regarded as a sustainable building material. Nonetheless, its adoption as a green building material by the construction industry is limited, particularly in West Africa. This paper analyses the impediments to the effective adoption of coconut palm wood in residential building construction. The research data was collected from literature reviews, expert-based surveys, and semi-structured interviews with specialists from the construction sector, African Timber Organization, governmental institutions related to forestry and construction, university professors, and researchers in the areas of sustainable building materials and construction. Thirteen crucial impediments were identified and an integrated evaluation of the impediments was conducted using the Interpretive Structural Modelling (ISM) technique to examine the hierarchical structure of the relations between the impediments. A further technique, Cross-impact Matrix Multiplication Applied to Classification (MICMAC), was used to categorize the impediments from a driving to driven perspective. This categorization provides a unique profile for the impediments, which is different from that of conventional evaluation techniques for evaluating impediments. The findings of this paper offer useful guide to practitioners and policy makers in formulating effective policies, regulations, and standards that will promote the development and wide adoption of coconut palm wood in the construction industry.


2019 ◽  
Vol 11 (14) ◽  
pp. 3806 ◽  
Author(s):  
Enrico Sicignano ◽  
Giacomo Di Ruocco ◽  
Roberta Melella

The criticality related to the consumption of operational energy and related greenhouse gas (GHG) emissions of existing buildings is clearly decreasing in new buildings due to the strategies tested and applied in recent years in the energy retrofit sector. Recently, studies have been focusing on strategies to reduce environmental impacts related to the entire life cycle of the building organism, with reference to the reduction of embodied energy (and related greenhouse gas emissions) in building materials. As part of EEA’s European EBC project, Annex 57, a wide range of case studies have been promoted with the aim of identifying design strategies that can reduce the embodied energy and related greenhouse gas emissions of buildings. The aim of this paper is to investigate the most common construction systems in the construction industry (concrete, steel, wood) through the analysis of three contemporary architectural works, with the aim of identifying the predisposition for environmental sustainability of each technological system, thus guiding the operators in the sector towards design choices more compatible with the environmental requirements recommended by European legislation.


2018 ◽  
Vol 2 (1) ◽  
pp. 1-9
Author(s):  
Nuryanto S. Slamet ◽  
Paul Dargusch ◽  
Ammar A. Aziz ◽  
David Wadley

Land reclamation activities can, directly and indirectly, impact the environment. Examples of direct effects include alterations in coastal geomorphology, variations in the chemical content of water and changes in biological composition along the littoral zone. The indirect impacts can involve geological changes and increase vulnerability to natural disasters. Reclamation processes also result in greenhouse gas (GHG) emissions from vehicle and machinery fuel use and through the release of carbon stored in vegetation, soils and sediment in mangroves and seagrass ecosystems. Considering the global extent of land reclamation, the scale of these emissions is likely to be of widespread interest. The case of Jakarta Bay provides useful insights that can contribute to the improved environmental management of kindred land development projects in Indonesia and other parts of Asia. More than 5,100 ha of new land mass is planned from the Jakarta Bay reclamation. Preliminary analysis suggests that 30% of the planned area will require more than 150.7 million cubic metres of sand sourced from 8,628 ha of marine quarry area. In this study, we examine the sources of GHG emissions in these activities and the potential opportunities available to reduce them. The audience for this paper includes policymakers, environmental practitioners, city developers and postgraduate scholars dealing with land reclamation or other major infrastructure developments.


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