Sustainable and affordable prefab housing systems with minimal whole life energy use

被引:18
作者
Bras, Ana [1 ]
Ravijanya, Chippagiri [2 ]
de Sande, Veronica Torres [1 ]
Riley, Mike [1 ]
Ralegaonkar, Rahul, V [2 ]
机构
[1] Liverpool John Moores Univ, Built Environm & Sustainable Technol Best Res Ins, Liverpool, Merseyside, England
[2] VNIT, Dept Civil Engn, Nagpur, Maharashtra, India
关键词
Sustainable materials; Life cycle; Embodied and operational energy; Agro-industry waste; Prefab housing; Bio-concrete; EMBODIED ENERGY; CONSTRUCTION MATERIALS; BUILDINGS; CHALLENGES; CARBON; INDIA;
D O I
10.1016/j.enbuild.2020.110030
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
Housing units of around 20 million need to be constructed in India by 2022. One key challenge for government and industry is high demand for sustainable and affordable housing. This paper introduces the results of an industry focus group meeting with Indian Concrete Institute (ICI) and industrial associates, regarding needs for housing construction, novel products design and service life increase. Results show that present design methods for buildings and structures in India need improvement, from a whole life energy use perspective at a material and system level, service life improvement and real monitoring of buildings and structures. More than 50% of respondents are not happy with the existing buildings design codes as they do not help on energy use minimisation. Materials inefficiency in design, disconnection with real operational use and lack of durability tend to increase with high construction speed. It is highlighted that many of the technologies are not proven in local environments which is inhibiting their use, including reusing of blended ashes from agro-industry waste. Almost 240 million tonnes of CO2 eq are emitted per year by Indian agricultural industry, which justify their re-use. Precast components are highlighted as a suitable solution in modular housing construction. (c) 2020 Elsevier B.V. All rights reserved.
引用
收藏
页数:8
相关论文
共 21 条
[1]   Material efficiency: A white paper [J].
Allwood, Julian M. ;
Ashby, Michael F. ;
Gutowski, Timothy G. ;
Worrell, Ernst .
RESOURCES CONSERVATION AND RECYCLING, 2011, 55 (03) :362-381
[2]  
[Anonymous], 2017, Plan Maestro de Electrificacion 2016-2025 [Master Electrifcation Plan 2016-2025] Estudio y gestion de la demanda electrica, P1
[3]  
Arup, 2012, BUILD PERF GAP CLOS
[4]   Embodied energy of buildings: A review of data, methods, challenges, and research trends [J].
Azari, Rahman ;
Abbasabadi, Narjes .
ENERGY AND BUILDINGS, 2018, 168 :225-235
[5]   Effect of construction materials on embodied energy and cost of buildings-A case study of residential houses in India up to 60 m2 of plinth area [J].
Bansal, Deepak ;
Singh, Ramkishore ;
Sawhney, R. L. .
ENERGY AND BUILDINGS, 2014, 69 :260-266
[6]  
Biswas W.K., 2014, International Journal of Sustainable Built Environment, V3, P179, DOI [10.1016/j.ijsbe.2014.11.004, DOI 10.1016/J.IJSBE.2014.11.004]
[7]   Energy and Economic Impact on the Application of Low-Cost Lightweight Materials in Economic Housing Located in Dry Climates [J].
Cecilia Borbon-Almada, Ana ;
Alejandra Rodriguez-Munoz, Norma ;
Najera-Trejo, Mario .
SUSTAINABILITY, 2019, 11 (06)
[8]   Embodied energy in residential buildings-towards the nearly zero energy building: A. literature review [J].
Chastas, Panagiotis ;
Theodosiou, Theodoros ;
Bikas, Dimitrios .
BUILDING AND ENVIRONMENT, 2016, 105 :267-282
[9]   Measuring embodied carbon dioxide equivalent of buildings: A review and critique of current industry practice [J].
De Wolf, Catherine ;
Pomponi, Francesco ;
Moncaster, Alice .
ENERGY AND BUILDINGS, 2017, 140 :68-80
[10]   New advancements, challenges and opportunities of multi-storey modular buildings - A state-of-the-art review [J].
Ferdous, Wahid ;
Bai, Yu ;
Tuan Duc Ngo ;
Manalo, Allan ;
Mendis, Priyan .
ENGINEERING STRUCTURES, 2019, 183 :883-893