Green building technologies (GBTs) have advanced significantly, as a result of the advantages to society, economy, and environment. It might lead to more environmentally friendly growth, considering climate change. The primary goal of GBTs is to utilize water, energy, and other resources sparingly in a balanced manner. Green buildings (GBs) have advantages in terms of reduced energy use and emissions, low operating and maintenance costs, improved productivity, and health. To determine the future course for sustainable green building technologies, a critical analysis of current residential projects in the field is mandatory. Conducting research that pertain to sustainable construction practices minimizing natural resources, are reasonably priced, are planned and built with the possibility of future growth. This article looks at how green building construction is going on, based on case study and offers suggestions for more research and development that will be required for residential projects leading to a sustainable future.
Zhang C, Cui C, Zhang Y, Yuan J, Luo Y, Gang W. A review of renewable energy assessment methods in green building and green neighborhood rating systems. Energy and Buildings. 2019;195:68–81.
2.
Mustaffa NK, Mat Isa CM, Che Ibrahim CKI. Top-down bottom-up strategic green building development framework: Case studies in Malaysia. Building and Environment. 2021;203:108052.
3.
Jain M, Siva V, Hoppe T, Bressers H. Assessing governance of low energy green building innovation in the building sector: Insights from Singapore and Delhi. Energy Policy. 2020;145:111752.
4.
Razmjoo A, Nezhad MM, Kaigutha LG, Marzband M, Mirjalili S, Pazhoohesh M, et al. Investigating Smart City Development Based on Green Buildings, Electrical Vehicles and Feasible Indicators. Sustainability. 13(14):7808.
5.
Steinemann A, Wargocki P, Rismanchi B. Ten questions concerning green buildings and indoor air quality. Building and Environment. 2017;112:351–8.
6.
Awad J, Jung C. Evaluating the Indoor Air Quality after Renovation at the Greens in Dubai, United Arab Emirates. Buildings. 11(8):353.
7.
Babu S, Lamano A, Pawar P. Sustainability assessment of a laboratory building: case study of highest rated laboratory building in Singapore using Green Mark rating system. Energy Procedia. 2017;122:751–6.
8.
Liu Y, Lu Y, Hong Z, Nian V, Loi TSA. The “START” framework to evaluate national progress in green buildings and its application in cases of Singapore and China. Environmental Impact Assessment Review. 2019;75:67–78.
9.
Liu Q, Wu S, Lei Y, Li S, Li L. Exploring spatial characteristics of city-level CO2 emissions in China and their influencing factors from global and local perspectives. Science of The Total Environment. 2021;754:142206.
10.
Saka N, Olanipekun AO, Omotayo T. Reward and compensation incentives for enhancing green building construction. Environmental and Sustainability Indicators. 2021;11:100138.
11.
Sartori T, Drogemuller R, Omrani S, Lamari F. A schematic framework for Life Cycle Assessment (LCA) and Green Building Rating System (GBRS). Journal of Building Engineering. 2021;38:102180.
12.
Sezer AA, Fredriksson A. Environmental impact of construction transport and the effects of building certification schemes. Resources, Conservation and Recycling. 2021;172:105688.
13.
Qiu Y, Kahn ME. Impact of voluntary green certification on building energy performance. Energy Economics. 2019;80:461–75.
14.
Díaz-López C, Carpio M, Martín-Morales M, Zamorano M. Analysis of the scientific evolution of sustainable building assessment methods. Sustainable Cities and Society. 2019;49:101610.
15.
Seyedabadi MR, Eicker U, Karimi S. Plant selection for green roofs and their impact on carbon sequestration and the building carbon footprint. Environmental Challenges. 2021;4:100119.
16.
Elnaklah R, Walker I, Natarajan S. Moving to a green building: Indoor environment quality, thermal comfort and health. Building and Environment. 2021;191:107592.
17.
Jain A, Babu DrKA. AN EXAMINATION OF CUTTING-EDGE DESIGN AND CONSTRUCTION METHODS CONCERNING GREEN ARCHITECTURE AND RENEWABLE ENERGY EFFICIENCY FOR TIER-II CITIES OF INDIA. Archives for Technical Sciences. 2024;31(2):57–69.
18.
Chi B, Lu W, Ye M, Bao Z, Zhang X. Construction waste minimization in green building: A comparative analysis of LEED-NC 2009 certified projects in the US and China. Journal of Cleaner Production. 2020;256:120749.
19.
Han K, Zhang J. Energy-saving building system integration with a smart and low-cost sensing/control network for sustainable and healthy living environments: Demonstration case study. Energy and Buildings. 2020;214:109861.
20.
Leung BCM. Greening existing buildings [GEB] strategies. Energy Reports. 2018;4:159–206.
21.
Raj BP, Meena CS, Agarwal N, Saini L, Hussain Khahro S, Subramaniam U, et al. A Review on Numerical Approach to Achieve Building Energy Efficiency for Energy, Economy and Environment (3E) Benefit. Energies. 14(15):4487.
22.
Liu J, Chen X, Yang H, Shan K. Hybrid renewable energy applications in zero-energy buildings and communities integrating battery and hydrogen vehicle storage. Applied Energy. 2021;290:116733.
23.
Madathil D, V RP, Nair MG, Jamasb T, Thakur T. Consumer-focused solar-grid net zero energy buildings: A multi-objective weighted sum optimization and application for India. Sustainable Production and Consumption. 2021;27:2101–11.
24.
Janjua SY, Sarker PK, Biswas WK. Sustainability implications of service life on residential buildings – An application of life cycle sustainability assessment framework. Environmental and Sustainability Indicators. 2021;10:100109.
25.
Fatourehchi D, Zarghami E. Social sustainability assessment framework for managing sustainable construction in residential buildings. Journal of Building Engineering. 2020;32:101761.
26.
Asadi S, OmSalameh Pourhashemi S, Nilashi M, Abdullah R, Samad S, Yadegaridehkordi E, et al. Investigating influence of green innovation on sustainability performance: A case on Malaysian hotel industry. Journal of Cleaner Production. 2020;258:120860.
27.
Zuo J, Zhao ZY. Green building research–current status and future agenda: A review. Renewable and Sustainable Energy Reviews. 2014;30:271–81.
28.
Ferrara M, Vallée JC, Shtrepi L, Astolfi A, Fabrizio E. A thermal and acoustic co-simulation method for the multi-domain optimization of nearly zero energy buildings. Journal of Building Engineering. 2021;40:102699.
29.
Zhang SC, Yang XY, Xu W, Fu YJ. Contribution of nearly-zero energy buildings standards enforcement to achieve carbon neutral in urban area by 2060. Advances in Climate Change Research. 2021;12(5):734–43.
30.
Saini L, Meena CS, Raj BP, Agarwal N, Kumar A. Net Zero Energy Consumption building in India: An overview and initiative toward sustainable future. International Journal of Green Energy. 2022;19(5):544–61.
31.
Mewes D, Monsalve P, Gustafsson I, Hasan B, Palén J, Nakakido R, et al. Evaluation Methods for Photovoltaic Installations on Existing Buildings at the KTH Campus in Stockholm, Sweden. Energy Procedia. 2017;115:409–22.
32.
Balabel A, Alwetaishi M. Towards Sustainable Residential Buildings in Saudi Arabia According to the Conceptual Framework of “Mostadam” Rating System and Vision 2030. Sustainability. 13(2):793.
33.
Jeong Y, Lee M, Kim J. Scenario-Based Design and Assessment of renewable energy supply systems for green building applications. Energy Procedia. 2017;136:27–33.
34.
Wang L, Zheng D. Integrated analysis of energy, indoor environment, and occupant satisfaction in green buildings using real-time monitoring data and on-site investigation. Building and Environment. 2020;182:107014.
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