Opportunities for Using Analytical Hierarchy Process in Green Building Optimization
Abstract
:1. Introduction
2. Methodology
3. Scope and Specifications
4. AHP Scheme
5. AHP Combination Approaches
5.1. AHP Approach
5.2. AHP-ILP
5.3. AHP-MILP
5.4. AHP-GP
5.5. AHP-QFD
5.6. AHP-ANN
5.7. AHP-GA
5.8. AHP-SWOT
5.9. AHP-DEA
5.10. AHP–ANP
5.11. AHP-GIS
5.12. AHP-LCSA
5.13. AHP-Fuzzy
5.14. EAHP-Fuzzy
5.15. AHP-Fuzzy-Delphi
5.16. AHP-Fuzzy-GRA
5.17. AHP-Fuzzy-IRP
6. Results and Discussion
7. Limitations of This Study
8. Conclusions and Future Work
Author Contributions
Funding
Informed Consent Statement
Acknowledgments
Conflicts of Interest
Nomenclature
CSW | Compressed Shopper Waste | SNS | Spallation Neutron Source |
AI | Artificial Intelligence Algorithms | DEA | Data Envelopment Analysis |
GA | Genetic Algorithms | DFUZZY | Delphi-Fuzzy Method |
MILP | Mixed Integer Linear Programming | FCJ | Fuzzy Comprehensive Judgment |
ILP | Integer Linear Programming | R&D | Research and Development |
AHP | Analytic Hierarchy Process | GRA | Grey Relational Analysis |
GP | Goal Programming | ANP | Analytic Network Process |
QFD | Quality Function Deployment | LCA | Life-Cycle Assessment |
LCSA | Life Cycle Sustainability Assessment | CBA | Choosing By Advantages |
G-SEED | Green Standard for Energy and Environment Design | GIS | Geographic Information System |
LCC | Life Cycle Cost | FL | Fuzzy Logic |
ANN | Artificial Neural Network | EBP | Error Backpropagation |
TS | Tabu Search | DMUs | Decision-Making Units |
EPC | Energy Performance Contracting | IRP | Interpretive Ranking Process |
KPIs | Key Performance Indicators | CSFs | Critical Success Factors |
SWOT | Strengths, Weaknesses, Opportunities, and Threats | EMA | Environmental Management Accounting |
MCDM | Multi-Criteria Decision Making | TBL | Triple Bottom line |
HES | Hydrogen Energy Storage | GSC | Green Supply Chain |
EAHP | Extended Analytical Hierarchy Process | FACEM | Fuzzy-AHP Comprehensive Evaluation Method |
BREEAM | British industrial building and domestic green building. | FAHP | Fuzzy Analytical Hierarchy Process |
CRSE | Coastal Reclamation Suitability Evaluation | EUL | Egyptian Universities Library |
MCMP | Multi-Criteria Mathematical Programming | FEAHP | Fuzzy Extended Analytical Hierarchy Process |
RT | Real-Time |
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Scheme | Objective | Applications | Authors | Date | Country |
---|---|---|---|---|---|
AHP | indoor and outdoor environment | Environment | Bing et al. | 2010 | China |
Green Buildings | Environment | Ali et al. | 2012 | Malaysia | |
characteristics of ‘viable’ methods | Methods | Arroyo et al. | 2012 | Theoretical | |
energy saving | Energy | Yang and Suo | 2014 | China | |
apartment building | Environment, Energy | Choi et al. | 2014 | China | |
site of urban parks | Environment | Elahe et al. | 2014 | Iran | |
aspects of green technology | Energy, Water | Jawdat et al. | 2014 | Amman | |
green stores | Energy | Wei et al. | 2015 | China | |
industrial building direction | Environment | Wang | 2014 | China | |
Construction Management | Construction Management | Amos et al. | 2004–2014 | Theoretical | |
Sustainability and Costs | Environment | Ryan et al. | 2017 | Florida | |
Sustainability assessment | Refurbishment | Syahrul et al. | 2018 | Malaysia | |
Green building & sustainability studies | Environment | Fatma et al. | 2019 | Turkey | |
Habitability Performance and Sustainability | Environment | Hyang et al. | 2019 | Korea | |
Sustainability and Costs | Environmental efficiency | Ryan et al. | 2020 | Florida | |
life-cycle performance | Design assessment | Al-Saggaf et al. | 2020 | Theoretical | |
sustainable assessment | Energy and resourses | Payyanapott and Thomas | 2020 | India | |
assessment plan components | structural plan practice | Xingkai | 2021 | China | |
building quality | assessment framework | Eryürük et al. | 2021 | Theoretical | |
building rating frameworks | green building | Chodnekar et al. | 2021 | India | |
Selecting building materials | Construction | Abdulhafeez | 2022 | Saudi Arabia | |
Decision making | Infrastructure construction | Solomon et al. | 2022 | Ethiopian | |
planning elements determenation | Sustainable urban regeneration | Jihad et al. | 2022 | Dubai | |
Zero-energy buildings | Building Retrofitting | Sobhi | 2022 | Saudi Arabia | |
Energy | sustainability | Yadegaridehkordi et al. | 2022 | Malaysia | |
Stakeholder satisfaction | Building design quality | Şule et al. | 2022 | Theoritical | |
AHP–ILP | Material selection | Manufacturing | Braglia et al. | 2001 | Theoretical |
Sub-component selection | Manufacturing | Akgunduz et al. | 2002 | Theoretical | |
AHP–MILP | Transportation route selection | Logistics | Korpela et al. | 2002 | China |
Airlift task selection | Government | Stannard and Zahir | 2006 | Canada | |
AHP–GP | Scheduling selection | Logistics | Zhou et al. | 2000 | China |
Customer data method selection | Service | Badri | 2001 | Emirate | |
IT-based project selection | Health-care | Kwak and Lee. | 2002 | Korea | |
Trust factor selection | Industry | Radclive and Schniederjans | 2003 | USA | |
AHP–QFD | Facility location selection | Logistics | Chuang. | 2001 | Theoretical |
Product design selection | Manufacturing | Kwong and Bai | 2003 | Theoretical | |
Facility location selection | Logistics | Partovi | 2006 | Theoretical | |
Rapid process selection | Manufacturing | Hanumaiah et al. | 2006 | Theoretical | |
building design | Inhabitant thermal | Varolgüne et al. | 2021 | Turkey | |
AHP–ANN | Convenience location selection | Logistics | Kuo et al. | 2002 | Taiwan |
AHP–GA | Job schedule selection | Manufacturing | Chang and Lo. | 2001 | Theoretical |
route selection | Logistics | Chan and Chung. | 2004 | Theoretical | |
route selection | Logistics | Chan and Chung. | 2004 | China | |
route selection | Logistics | Chan et al. | 2004 | China | |
route selection | Logistics | Chan et al. | 2005 | China | |
route selection | Logistics | Chan and Chung. | 2005 | Theoretical | |
route selection | Logistics | Chan et al. | 2006 | Theoretical | |
Energy assessment | Energy | Fahem et al. | 2017 | Algerian | |
AHP–SWOT | evaluation in forest planning | Environment | Kurttila et al. | 2000 | Finland |
assessment in rural tourism planning | Tourism | Kajanus et al. | 2004 | Finland, Germany | |
evaluation adoption | Agriculture | Shrestha et al. | 2004 | USA | |
evaluation planning | Environment | Masozera et al. | 2006 | Rwanda | |
evaluation analysis | Manufacturing | Shinno et al. | 2006 | Japan | |
AHP–DEA | Government location selection | Government | Takamura and Tone. | 2003 | Japan |
Facility layout selection | Manufacturing | Yang and Kuo. | 2003 | Taiwan | |
Performance evaluation | Government | Saen et al. | 2005 | Iran | |
Facility layout selection | Manufacturing | Ertay et al. | 2006 | Theoretical | |
AHP–ANP | Building Energy Efficiency | Environment | Pengpeng. | 2013 | China |
built environment | Environment | Joseph et al. | 2012 | Theoretical | |
AHP–GIS | Green Store Buildings | Landscape | Wei | 2015 | China |
AHP-LCSA | mid-rise buildings | Environment | Navid et al. | 2014 | Canada |
AHP-Fuzzy | low-carbon Constructions | Emission | Ling et al. | 2013 | China |
Energy Demand in New Building | Energy | Hai et al. | 2013 | Theoretical | |
Green design: env. Management | Environment | Chan et al. | 2014 | China | |
Green Buildings Application | Environment | Lan et al. | 2014 | Taiwan | |
Assessing coastal sustainability | Environment, Socio-eco | Fen et al. | 2014 | China | |
GIS | Environment, economic | Katerina et al. | 2015 | Macedonia | |
illuminating system | Light | Yong et al. | 2015 | China | |
energy R&D resources | Energy | Seong et al. | 2015 | Korea | |
Mountainous Area | Economic | Tang et al. | 2015 | China | |
Academic building | Energy | Ardisa et al. | 2020 | Indonesia | |
green building | building location | Li et al. | 2020 | China | |
green building | Environment, Energy | Yan et al. | 2021 | China | |
EAHP-Fuzzy | Sustainable materials | Environment | Peter | 2013 | Theoretical |
Energy Saving | Energy | Jian | 2014 | China | |
AHP-Fuzzy–Delphi | Sustainable development | Energy | Sung et al. | 2011 | Taiwan |
Energy design | Environment, Energy | Kuang et al. | 2012 | Taiwan | |
public buildings | Environment | Sung | 2013 | Theoretical | |
Sustainability assessment | Environment | Alapure et al. | 2014 | India | |
gas power plant | Gas | Saffarian | 2015 | Turkey | |
AHP-Fuzzy-GRA | Energy storage selection | Environment, Energy | Alev et al. | 2013 | Theoretical |
AHP-Fuzzy-IRP | Risk factors of green supply chain | Manufacturing | Sachin et al. | 2015 | China |
AHP–TOPSIS | Smart construction | Internet platforms | Kang et al. | 2022 | Theoritical |
Fuzzy AHP-TOPSIS | Green score measurement | Hospitality Industry | Sujan et al. | 2022 | Oman |
No. of Papers | Ref. [23] | Our Study |
---|---|---|
Scope of work | Constructions | Green Buildings |
No. of papers | 77 | 117 |
Covered of Years | 2004–2014 | 2000–2022 |
No. of Countries | 22 | 17 |
The highest year of publication | 2007 | 2014 |
The location of highest conducted research | USA | China |
Published | Taylor & Francis | MDPI |
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Elshafei, G.; Katunský, D.; Zeleňáková, M.; Negm, A. Opportunities for Using Analytical Hierarchy Process in Green Building Optimization. Energies 2022, 15, 4490. https://doi.org/10.3390/en15124490
Elshafei G, Katunský D, Zeleňáková M, Negm A. Opportunities for Using Analytical Hierarchy Process in Green Building Optimization. Energies. 2022; 15(12):4490. https://doi.org/10.3390/en15124490
Chicago/Turabian StyleElshafei, Ghada, Dušan Katunský, Martina Zeleňáková, and Abdelazim Negm. 2022. "Opportunities for Using Analytical Hierarchy Process in Green Building Optimization" Energies 15, no. 12: 4490. https://doi.org/10.3390/en15124490
APA StyleElshafei, G., Katunský, D., Zeleňáková, M., & Negm, A. (2022). Opportunities for Using Analytical Hierarchy Process in Green Building Optimization. Energies, 15(12), 4490. https://doi.org/10.3390/en15124490