Environmental and economic implications of energy efficiency in new residential buildings: A multi-criteria selection approach
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[1] Geoffrey P. Hammond,et al. Embodied energy and carbon in construction materials , 2008 .
[2] Robert H. Crawford,et al. A framework for the integrated optimisation of the life cycle greenhouse gas emissions and cost of buildings , 2018, Energy and Buildings.
[3] Delia D’Agostino,et al. What is a Nearly zero energy building? Overview, implementation and comparison of definitions , 2019, Journal of Building Engineering.
[4] Sarel Lavy,et al. Need for an embodied energy measurement protocol for buildings: A review paper , 2012 .
[5] Enedir Ghisi,et al. Decision-making process for improving thermal and energy performance of residential buildings: A case study of constructive systems in Brazil , 2016 .
[6] Jacek Żak,et al. Application of AHP and ELECTRE III/IV methods to multiple level, multiple criteria evaluation of urban transportation projects , 2015 .
[7] Anne Grete Hestnes,et al. Energy use in the life cycle of conventional and low-energy buildings: A review article , 2007 .
[8] G. Heravi,et al. Multi-criteria group decision-making method for optimal selection of sustainable industrial building options focused on petrochemical projects , 2017 .
[9] Nashwan Dawood,et al. Designing low carbon buildings : a framework to reduce energy consumption and embed the use of renewables , 2013 .
[10] Sarel Lavy,et al. Identification of parameters for embodied energy measurement: A literature review , 2010 .
[11] M. Ramachandran,et al. Application of multi-criteria decision making to sustainable energy planning--A review , 2004 .
[12] Danny S. Parker,et al. A framework for the cost-optimal design of nearly zero energy buildings (NZEBs) in representative climates across Europe , 2018 .
[13] Edward A. Lee,et al. Prototyping the Next Generation EnergyPlus Simulation Engine , 2015, Building Simulation Conference Proceedings.
[14] Theodoros Theodosiou,et al. Embodied Energy and Nearly Zero Energy Buildings: A Review in Residential Buildings , 2017 .
[15] Pascal Henry Biwole,et al. Multi-Objective Optimization Methodology for Net Zero Energy Buildings , 2018 .
[16] Teresa M. Mata,et al. LCA of constructing an industrial building: focus on embodied carbon and energy , 2018, Energy Procedia.
[17] Giovanni Dotelli,et al. Life cycle assessment of refurbishment strategies for historic buildings , 2013 .
[18] Esther H. K. Yung,et al. Hybrid Input-Output Analysis of Embodied Carbon and Construction Cost Differences between New-Build and Refurbished Projects , 2018, Sustainability.
[19] L. D. Danny Harvey,et al. Net climatic impact of solid foam insulation produced with halocarbon and non-halocarbon blowing agents , 2007 .
[20] Luisa F. Cabeza,et al. Life cycle assessment (LCA) and life cycle energy analysis (LCEA) of buildings and the building sector: A review , 2014 .
[21] Amar Bennadji,et al. A multi-criteria group decision-making method for the thermal renovation of masonry buildings: The case of Algeria , 2016 .
[22] Edgar G. Hertwich,et al. Evaluation of process- and input-output-based life cycle inventory data with regard to truncation and aggregation issues. , 2011, Environmental science & technology.
[23] DongHun Yeo,et al. Sustainable design of reinforced concrete structures through embodied energy optimization , 2011 .
[25] Steve Goodhew,et al. A Decision Making System for Selecting Sustainable Technologies for Retail Buildings , 2013 .
[26] Jamie Goggins,et al. The assessment of embodied energy in typical reinforced concrete building structures in Ireland , 2010 .
[27] Zachary A. Collier,et al. Sustainable roofing technology under multiple constraints: a decision-analytical approach , 2013, Environment Systems and Decisions.
[28] Antonio García-Martínez,et al. Life cycle assessment (LCA) of building refurbishment: A literature review , 2017 .
[29] Alexandre Szklo,et al. Optimization model for evaluating on-site renewable technologies with storage in zero/nearly zero energy buildings , 2018, Energy and Buildings.
[30] Jin Si,et al. Assessment of building-integrated green technologies: A review and case study on applications of Multi-Criteria Decision Making (MCDM) method , 2016 .
[31] Luis Fabián Fuentes-Cortés,et al. Integration of distributed generation technologies on sustainable buildings , 2018 .
[32] Petros A. Pilavachi,et al. Technological, economic and sustainability evaluation of power plants using the Analytic Hierarchy Process , 2009 .
[33] Shady Attia,et al. Strategic Decision Making For Zero Energy Buildings in Hot Climates , 2010 .
[34] Jan Christoph Steckel,et al. Truncation Error Estimates in Process Life Cycle Assessment Using Input‐Output Analysis , 2018 .
[35] Delia D׳Agostino,et al. Assessment of the progress towards the establishment of definitions of Nearly Zero Energy Buildings (nZEBs) in European Member States , 2015 .
[36] Thomas Olofsson,et al. Multidisciplinary Optimization of Life-Cycle Energy and Cost Using a BIM-Based Master Model , 2019, Sustainability.
[37] Nobuyoshi Yamaguchi,et al. Analytic hierarchy based policy design method (AHPo) for solving societal problems that require a multifaceted approach , 2010, Eur. J. Oper. Res..
[38] D. D’Agostino. Moisture dynamics in an historical masonry structure: The Cathedral of Lecce (South Italy) , 2013 .
[39] Agis M. Papadopoulos,et al. State of the art in thermal insulation materials and aims for future developments , 2005 .
[40] Atse Louwen,et al. Re-assessment of net energy production and greenhouse gas emissions avoidance after 40 years of photovoltaics development , 2016, Nature Communications.
[41] B. V. Venkatarama Reddy,et al. Embodied energy of common and alternative building materials and technologies , 2003 .
[42] Delia D’Agostino,et al. Energy consumption and efficiency technology measures in European non-residential buildings , 2017 .
[43] Paolo Maria Congedo,et al. Cost-optimal design for nearly zero energy office buildings located in warm climates , 2015 .
[44] Ignacio Zabalza Bribián,et al. Life cycle assessment of building materials: Comparative analysis of energy and environmental impacts and evaluation of the eco-efficiency improvement potential , 2011 .
[45] Edmundas Kazimieras Zavadskas,et al. Multi-criteria decision-making system for sustainable building assessment/certification , 2015 .
[46] Muhammad Aslam Uqaili,et al. Simulation tools application for artificial lighting in buildings , 2018 .
[47] P. Melià. Multi‐criteria Decision‐Making for Marine Protected Area Design and Management , 2017 .
[48] Warit Jawjit,et al. Assessing environmental performance by combining life cycle assessment, multi-criteria analysis and environmental performance indicators , 2007 .
[49] Delia D’Agostino,et al. Criteria and structure of a harmonised data collection for NZEBs retrofit buildings in Europe , 2017 .
[50] Evangelos Triantaphyllou,et al. Multi-criteria Decision Making Methods: A Comparative Study , 2000 .
[51] Xiaocun Zhang,et al. Analysis of embodied carbon in the building life cycle considering the temporal perspectives of emissions: A case study in China , 2017 .
[52] Giovanni Dotelli,et al. Environmental impacts of natural and conventional building materials: a case study on earth plasters , 2014 .
[53] Theodoros Theodosiou,et al. Embodied energy in residential buildings-towards the nearly zero energy building: A literature review , 2016 .
[54] Dorota Chwieduk,et al. Towards modern options of energy conservation in buildings , 2017 .
[55] Bo K. Wong,et al. Group decision making in a multiple criteria environment: A case using the AHP in software selection , 2002, Eur. J. Oper. Res..
[56] Luca Castellazzi,et al. Towards Nearly Zero Energy Buildings in Europe: A Focus on Retrofit in Non-Residential Buildings , 2017 .
[57] Raymond J. Cole,et al. Life-cycle energy use in office buildings , 1996 .
[58] T. L. Saaty. A Scaling Method for Priorities in Hierarchical Structures , 1977 .
[59] Alberto Moro,et al. Electricity carbon intensity in European Member States: Impacts on GHG emissions of electric vehicles , 2017, Transportation research. Part D, Transport and environment.
[60] Jiangjiang Wang,et al. Weighting methodologies in multi‐criteria evaluations of combined heat and power systems , 2009 .
[61] Craig Langston,et al. Reliability of building embodied energy modelling: an analysis of 30 Melbourne case studies , 2008 .
[62] L. Mazzarella,et al. Data on energy consumption and Nearly zero energy buildings (NZEBs) in Europe , 2018, Data in brief.
[63] Rouzbeh Shad,et al. Developing an Iranian green building assessment tool using decision making methods and geographical information system: Case study in Mashhad city , 2017 .
[64] Giovanni Dotelli,et al. Life cycle assessment of natural building materials: the role of carbonation, mixture components and transport in the environmental impacts of hempcrete blocks , 2017 .
[65] Giuseppe Lembo,et al. Multi-criteria decision-making for fisheries management: A case study of Mediterranean demersal fisheries , 2015 .
[66] Andrew R.J. Dainty,et al. Establishing and weighting decision criteria for building system selection in housing construction , 2012 .
[67] Popi Konidari,et al. A multi-criteria evaluation method for climate change mitigation policy instruments , 2007 .
[68] R. Costanza,et al. Embodied energy and economic valuation. , 1980, Science.
[69] D. Parker,et al. Data on cost-optimal Nearly Zero Energy Buildings (NZEBs) across Europe , 2018, Data in brief.
[70] Adolf Acquaye,et al. Operational vs. embodied emissions in buildings—A review of current trends , 2013 .
[71] Igor Linkov,et al. Comparative risk assessment and environmental decision making , 2005 .
[72] Rahman Azari,et al. Embodied energy of buildings: A review of data, methods, challenges, and research trends , 2018, Energy and Buildings.
[73] César Martín-Gómez,et al. Investigation of the thermoelectric potential for heating, cooling and ventilation in buildings: Characterization options and applications , 2019, Renewable Energy.
[75] P. Bertoldi,et al. Data on European non-residential buildings , 2017, Data in brief.
[76] Catarina Thormark,et al. A low energy building in a life cycle - its embodied energy, energy need for operation and recycling potential , 2002 .
[77] D. ürge-Vorsatz,et al. The relationship between operational energy demand and embodied energy in Dutch residential buildings , 2018 .
[78] Ravi Prakash,et al. Life cycle energy analysis of buildings: An overview , 2010 .
[79] Jyrki Wallenius,et al. An early history of multiple criteria decision making , 2016 .
[80] M. Garetti,et al. A tool to estimate materials and manufacturing energy for a product , 2010, Proceedings of the 2010 IEEE International Symposium on Sustainable Systems and Technology.
[81] Robert H. Crawford,et al. The significance of embodied energy in certified passive houses , 2013 .
[82] Barbara J. Lence,et al. Assessing the performance of sustainable technologies: a framework and its application , 2007 .
[83] Monica Lavagna,et al. Selecting design strategies using multi-criteria decision making to improve the sustainability of buildings , 2018, Building and Environment.
[84] Thomas L. Saaty,et al. The analytic hierarchy process : planning, priority setting, resource allocation , 1980 .
[85] Moncef Krarti,et al. Enhanced Sequential Search Methodology for Identifying Cost-Optimal Building Pathways , 2008 .
[86] S. Corgnati,et al. Use of reference buildings to assess the energy saving potentials of the residential building stock: the experience of TABULA Project , 2014 .
[87] Ralph L. Keeney,et al. Decisions with multiple objectives: preferences and value tradeoffs , 1976 .
[88] D W Pennington,et al. Life cycle assessment: Part 1: Framework, goal and scope definition, inventory analysis, and applications , 2004 .
[89] Jiangjiang Wang,et al. Review on multi-criteria decision analysis aid in sustainable energy decision-making , 2009 .
[90] Thomas Lützkendorf,et al. Net-zero buildings: incorporating embodied impacts , 2015 .