%0 Journal Article %1 Verichev2021 %A Verichev, K. %A Zamorano, M. %A Salazar-Concha, C. %A Carpio, M. %D 2021 %I MDPI AG %J Applied Sciences (Switzerland) %K imported %N 7 %R 10.3390/app11073251 %T Analysis of climate-oriented researches in building %U https://www.scopus.com/inward/record.uri?eid=2-s2.0-85104245073&doi=10.3390%2fapp11073251&partnerID=40&md5=4c2dc1b5239016664c124d89cd8ac83a %V 11 %X Many factors and aspects of the construction and operation of buildings depend on climatic parameters and climatic zones, so these will be fundamental for adapting and mitigating the effects of climate change. For this reason, the number of climate-oriented publications in building is increasing. This research presents an analysis on the most-cited climate-oriented studies in building in the period 1979–2019. The main themes, the typologies of these investigations and the principal types of climatic zoning used in these studies were analysed through bibliographic and manual analysis. A broad spectrum of themes directly and indirectly related to climate and climatic zones and buildings was demonstrated. It was found that 88% of all climate-oriented investigations, to one degree or another, are within the scope of the general topic of energy conservation. A thorough understanding of all climate-dependent aspects will help in designing dwellings appropriately in different climate zones. In addition, a methodology that facilitates the establishment of a typology of climate-oriented research is presented. This typology can be used in future research in different scientific areas. It was also revealed that the climate zones of the National Building Codes of China, the USA and Turkey prevailed in the studies analysed. © 2021 by the authors. Licensee MDPI, Basel, Switzerland.

@article{Verichev2021, abbrev_source_title = {Appl. Sci.}, abstract = {Many factors and aspects of the construction and operation of buildings depend on climatic parameters and climatic zones, so these will be fundamental for adapting and mitigating the effects of climate change. For this reason, the number of climate-oriented publications in building is increasing. This research presents an analysis on the most-cited climate-oriented studies in building in the period 1979–2019. The main themes, the typologies of these investigations and the principal types of climatic zoning used in these studies were analysed through bibliographic and manual analysis. A broad spectrum of themes directly and indirectly related to climate and climatic zones and buildings was demonstrated. It was found that 88% of all climate-oriented investigations, to one degree or another, are within the scope of the general topic of energy conservation. A thorough understanding of all climate-dependent aspects will help in designing dwellings appropriately in different climate zones. In addition, a methodology that facilitates the establishment of a typology of climate-oriented research is presented. This typology can be used in future research in different scientific areas. It was also revealed that the climate zones of the National Building Codes of China, the USA and Turkey prevailed in the studies analysed. © 2021 by the authors. Licensee MDPI, Basel, Switzerland.}, added-at = {2021-08-28T19:41:18.000+0200}, affiliation = {Department of Civil Engineering, University of Granada, Severo Ochoa S/N, Granada, 18001, Spain; Institute of Civil Engineering, Universidad Austral de Chile, General Lagos 2050, Valdivia, 5111187, Chile; Department of Construction Engineering and Management, School of Engineering, Pontificia Universidad Católica de Chile, Avenida Vicuña Mackenna 4860, Santiago, 7820436, Chile; PROMA, Proyectos de Ingeniería Ambiental, S.L., Granada, 18010, Spain; Administration Institute, Universidad Austral de Chile, Independencia 631, Valdivia, 5110566, Chile; UC Energy Research Center, Pontificia Universidad Católica de Chile, Avenida Vicuña Mackenna 4860, Santiago, 7820436, Chile}, art_number = {3251}, author = {Verichev, K. and Zamorano, M. and Salazar-Concha, C. and Carpio, M.}, author_keywords = {Biblio-metric; Building construction; Buildings; Climate change; Climate zones; Climate-oriented}, biburl = {https://www.bibsonomy.org/bibtex/2792b3dd33294571bf2f48084fa718288/cristiansalazar}, correspondence_address1 = {Carpio, M.; Department of Construction Engineering and Management, Avenida Vicuña Mackenna 4860, Chile; email: manuel.carpio@ing.puc.cl; Carpio, M.; UC Energy Research Center, Avenida Vicuña Mackenna 4860, Chile; email: manuel.carpio@ing.puc.cl}, document_type = {Article}, doi = {10.3390/app11073251}, funding_details = {1201052, CHILE/2019—21191227}, funding_text 1 = {Funding: This research was supported by the Agencia Nacional de Investigación y Desarrollo (ANID) of Chile, through the projects: ANID FONDECYT 1201052; ANID PFCHA/DOCTORADO BECAS CHILE/2019—21191227; and research group TEP-968 Tecnologías para la Economía Circular of the University of Granada, Spain.}, funding_text 2 = {This research was supported by the Agencia Nacional de Investigaci?n y Desarrollo (ANID) of Chile, through the projects: ANID FONDECYT 1201052; ANID PFCHA/DOCTORADO BECAS CHILE/2019?21191227; and research group TEP-968 Tecnolog?as para la Econom?a Circular of the University of Granada, Spain.}, interhash = {fd8af961d9eb04893766f6a8b48fb9cc}, intrahash = {792b3dd33294571bf2f48084fa718288}, issn = {20763417}, journal = {Applied Sciences (Switzerland)}, keywords = {imported}, language = {English}, note = {cited By 1}, number = 7, publisher = {MDPI AG}, references = {Hossain, M.U., Ng, S.T., Strategies for enhancing the accuracy of evaluation and sustainability performance of building (2020) J. Environ. Manag, 261, p. 110230. , [CrossRef] [PubMed]; de Klijn-Chevalerias, M., Javed, S., The Dutch approach for assessing and reducing environmental impacts of building materials (2017) Build. Environ, 111, pp. 147-159. , [CrossRef]; Marique, A.-F., Rossi, B., Cradle-to-grave life-cycle assessment within the built environment: Comparison between the refurbishment and the complete reconstruction of an office building in Belgium (2018) J. Environ. Manag, 224, pp. 396-405. , [CrossRef]; Pal, S.K., Takano, A., Alanne, K., Siren, K., A life cycle approach to optimizing carbon footprint and costs of a residential building (2017) Build. Environ, 123, pp. 146-162. , [CrossRef]; (2009) Buildings and Climate Change: Summary for Decision-Makers, , UNEP’s (SBCI). UNEP: Nairobi, Kenya, ISBN 978-9280730647; Peng, C., Calculation of a building’s life cycle carbon emissions based on Ecotect and building information modeling (2016) J. Clean. Prod, 112, pp. 453-465. , [CrossRef]; Liu, G., Chen, R., Xu, P., Fu, Y., Mao, C., Hong, J., Real-time carbon emission monitoring in prefabricated construction (2020) Autom. Constr, 110, p. 102945. , [CrossRef]; Pérez-Lombard, L., Ortiz, J., Pout, C., A review on buildings energy consumption information (2008) Energy Build, 40, pp. 394-398. , [CrossRef]; Pomponi, F., Moncaster, A., Embodied carbon mitigation and reduction in the built environment—What does the evidence say? (2016) J. Environ. Manag, 181, pp. 687-700. , [CrossRef]; Eguía Oller, P., Alonso Rodríguez, J.M., Saavedra González, Á., Arce Fariña, E., Granada Álvarez, E., Improving the calibration of building simulation with interpolated weather datasets (2018) Renew. Energy, 122, pp. 608-618. , [CrossRef]; Silvero, F., Lops, C., Montelpare, S., Rodrigues, F., Generation and assessment of local climatic data from numerical meteorological codes for calibration of building energy models (2019) Energy Build, pp. 188-189. , 25–45. [CrossRef]; Bai, L., Wang, S., Definition of new thermal climate zones for building energy efficiency response to the climate change during the past decades in China (2019) Energy, 170, pp. 709-719. , [CrossRef]; Verichev, K., Carpio, M., Climatic zoning for building construction in a temperate climate of Chile (2018) Sustain. Cities Soc, 40, pp. 352-364. , [CrossRef]; Xiong, J., Yao, R., Grimmond, S., Zhang, Q., Li, B., A hierarchical climatic zoning method for energy efficient building design applied in the region with diverse climate characteristics (2019) Energy Build, 186, pp. 355-367. , [CrossRef]; Walsh, A., Cóstola, D., Labaki, L.C., Performance-based validation of climatic zoning for building energy efficiency applications (2018) Appl. Energy, 212, pp. 416-427. , [CrossRef]; Praene, J.P., Malet-Damour, B., Radanielina, M.H., Fontaine, L., Riviere, G., GIS-based approach to identify climatic zoning: A hierarchical clustering on principal component analysis (2019) Build. Environ, 164. , [CrossRef]; Yang, X., Yao, L., Peng, L.L.H., Jiang, Z., Jin, T., Zhao, L., Evaluation of a diagnostic equation for the daily maximum urban heat island intensity and its application to building energy simulations (2019) Energy Build, 193, pp. 160-173. , [CrossRef]; Toparlar, Y., Blocken, B., Maiheu, B., van Heijst, G.J.F., Impact of urban microclimate on summertime building cooling demand: A parametric analysis for Antwerp, Belgium (2018) Appl. Energy, 228, pp. 852-872. , [CrossRef]; Bahramian, M., Yetilmezsoy, K., Life cycle assessment of the building industry: An overview of two decades of research (1995–2018) (2020) Energy Build, 219, p. 109917. , [CrossRef]; Aslam, M.S., Huang, B., Cui, L., Review of construction and demolition waste management in China and USA (2020) J. Environ. Manage, 264, p. 110445. , [CrossRef]; Gan, V., Lo, I., Ma, J., Tse, K., Cheng, J., Chan, C., Simulation optimisation towards energy efficient green buildings: Current status and future trends (2020) J. Clean. Prod, 254, p. 120012. , [CrossRef]; Zhai, Z.J., Helman, J.M., Implications of climate changes to building energy and design (2019) Sustain. Cities Soc, 44, pp. 511-519. , [CrossRef]; Verichev, K., Zamorano, M., Carpio, M., Effects of climate change on variations in climatic zones and heating energy consumption of residential buildings in the southern Chile (2020) Energy Build, p. 109874. , [CrossRef]; Wang, X., Chen, D., Ren, Z., Assessment of climate change impact on residential building heating and cooling energy requirement in Australia (2010) Build. Environ, 45, pp. 1663-1682. , [CrossRef]; Wang, H., Chen, Q., Impact of climate change heating and cooling energy use in buildings in the United States (2014) Energy Build, 82, pp. 428-436. , [CrossRef]; Dolinar, M., Vidrih, B., Kajfež-Bogataj, L., Medved, S., Predicted changes in energy demands for heating and cooling due to climate change (2010) Phys. Chem. Earth Parts A/B/C, 35, pp. 100-106. , [CrossRef]; Jylhä, K., Jokisalo, J., Ruosteenoja, K., Pilli-Sihvola, K., Kalamees, T., Seitola, T., Mäkelä, H.M., Drebs, A., Energy demand for the heating and cooling of residential houses in Finland in a changing climate (2015) Energy Build, 99, pp. 104-116. , [CrossRef]; Rey-Hernández, J.M., Yousif, C., Gatt, D., Velasco-Gómez, E., San José-Alonso, J., Rey-Martínez, F.J., Modelling the long-term effect of climate change on a zero energy and carbon dioxide building through energy efficiency and renewables (2018) Energy Build, 174, pp. 85-96. , [CrossRef]; Eshraghi, H., Ansari, M., Moshari, S., Gholami, J., Climatic zoning and per capita demand forecast of Iran using degree-day method (2019) Adv. Build. Energy Res, pp. 1-26. , [CrossRef]; Ramon, D., Allacker, K., De Troyer, F., Wouters, H., van Lipzig, N.P.M., Future heating and cooling degree days for Belgium under a high-end climate change scenario (2020) Energy Build, 216, p. 109935. , [CrossRef]; Far, C., Far, H., Improving energy efficiency of existing residential buildings using effective thermal retrofit of building envelope (2018) Indoor Built Environ, 28, pp. 744-760. , [CrossRef]; Silvero, F., Lops, C., Montelpare, S., Rodrigues, F., Impact assessment of climate change on buildings in Paraguay—Overheating risk under different future climate scenarios (2019) Build. Simul, 12, pp. 943-960. , [CrossRef]; Bollo, C.S., Cole, R.J., Decoupling climate-policy objectives and mechanisms to reduce fragmentation (2019) Build. Res. Inf, 47, pp. 219-233. , [CrossRef]; Geng, A., Chen, J., Yang, H., Assessing the Greenhouse Gas Mitigation Potential of Harvested Wood Products Substitution in China (2019) Environ. Sci. Technol, 53, pp. 1732-1740. , [CrossRef] [PubMed]; Deetjen, T.A., Conger, J.P., Leibowicz, B.D., Webber, M.E., Review of climate action plans in 29 major U.S. cities: Comparing current policies to research recommendations (2018) Sustain. Cities Soc, 41, pp. 711-727. , [CrossRef]; Graham, P., Rawal, R., Achieving the 2◦ C goal: The potential of India’s building sector (2019) Build. Res. Inf, 47, pp. 108-122. , [CrossRef]; Thonipara, A., Runst, P., Ochsner, C., Bizer, K., Energy efficiency of residential buildings in the European Union—An exploratory analysis of cross-country consumption patterns (2019) Energy Policy, 129, pp. 1156-1167. , [CrossRef]; Kazemi, F., Mohorko, R., Review on the roles and effects of growing media on plant performance in green roofs in world climates (2017) Urban For. Urban Green, 23, pp. 13-26. , [CrossRef]; Kojok, F., Fardoun, F., Younes, R., Outbib, R., Hybrid cooling systems: A review and an optimized selection scheme (2016) Renew. Sustain. Energy Rev, 65, pp. 57-80. , [CrossRef]; Bhamare, D.K., Rathod, M.K., Banerjee, J., Passive cooling techniques for building and their applicability in different climatic zones-The state of art (2019) Energy Build, 198, pp. 467-490. , [CrossRef]; Jiang, Y., Lu, Z., Wang, Z., Lin, B., Review of thermal comfort infused with the latest big data and modeling progresses in public health (2019) Build. Environ, 164. , [CrossRef]; Moral-Munoz, J.A., López-Herrera, A.G., Herrera-Viedma, E., Cobo, M.J., Science Mapping Analysis Software Tools: A Review (2019) Handbook of Science and Technology Indicators, , Glänzel, W., Moed, H.F., Schmoch, U., Thelwall, M., Eds.; Springer International Publishing: Cham, Switzerland, ISBN 978-3-030-02511-3; Small, H., Co-citation in the scientific literature: A new measure of the relationship between two documents (1973) J. Am. Soc. Inf. Sci, 24, pp. 265-269. , [CrossRef]; Kessler, M.M., Bibliographic coupling between scientific papers (1963) Am. Doc, 14, pp. 10-25. , [CrossRef]; Small, H.G., Koenig, M.E.D., Journal clustering using a bibliographic coupling method (1977) Inf. Process. Manag, 13, pp. 277-288. , [CrossRef]; Jarneving, B., Bibliographic coupling and its application to research-front and other core documents (2007) J. Informetr, 1, pp. 287-307. , [CrossRef]; Bastian, M., Heymann, S., Jacomy, M., Gephi: An open source software for exploring and manipulating networks (2009) Proceedings of the Third International AAAI Conference on Weblogs and Social Media, , San Jose, CA, USA, 17–20 May; Wang, Y., Lai, N., Zuo, J., Chen, G., Du, H., Characteristics and trends of research on waste-to-energy incineration: A bibliometric analysis, 1999–2015 (2016) Renew. Sustain. Energy Rev, 66, pp. 95-104. , [CrossRef]; Bartolini, M., Bottani, E., Grosse, E.H., Green warehousing: Systematic literature review and bibliometric analysis (2019) J. Clean. Prod, 226, pp. 242-258. , [CrossRef]; Leydesdorff, L., Rafols, I., Interactive overlays: A new method for generating global journal maps from Web-of-Science data (2012) J. Informetr, 6, pp. 318-332. , [CrossRef]; Blondel, V.D., Guillaume, J.-L., Lambiotte, R., Lefebvre, E., Fast unfolding of communities in large networks (2008) J. Stat. Mech. Theory Exp, 2008, p. P10008. , [CrossRef]; Lancichinetti, A., Fortunato, S., Community detection algorithms: A comparative analysis (2009) Phys. Rev. E, 80, p. 56117. , [CrossRef] [PubMed]; Rosenthal, D.H., Gruenspecht, H.K., Moran, E.A., Effects of Global Warming on Energy use for space heating and cooling in the United-States (1995) Energy J, 16, pp. 77-96. , [CrossRef]; Balaras, C.A., Droutsa, K., Argiriou, A.A., Asimakopoulos, D.N., Potential for energy conservation in apartment buildings (2000) Energy Build, 31, pp. 143-154. , [CrossRef]; de Dear, R.J., Brager, G.S., Thermal comfort in naturally ventilated buildings: Revisions to ASHRAE Standard 55 (2002) Energy Build, 34, pp. 549-561. , [CrossRef]; Kemp, P.C., Neumeister-Kemp, H.G., Esposito, B., Lysek, G., Murray, F., Changes in airborne fungi from the outdoors to indoor air; Large HVAC systems in nonproblem buildings in two different climates (2003) AIHA J, 64, pp. 269-275. , [CrossRef] [PubMed]; Tsai, F.C., Macher, J.M., Concentrations of airborne culturable bacteria in 100 large US office buildings from the BASE study (2005) Indoor Air, 15, pp. 71-81. , [CrossRef] [PubMed]; Akbari, H., Levinson, R., Rainer, L., Monitoring the energy-use effects of cool roofs on California commercial buildings (2005) Energy Build, 37, pp. 1007-1016. , [CrossRef]; Levinson, R., Akbari, H., Konopacki, S., Bretz, S., Inclusion of cool roofs in nonresidential Title 24 prescriptive requirements (2005) Energy Policy, 33, pp. 151-170. , [CrossRef]; van Hoof, J., Forty years of Fanger’s model of thermal comfort: Comfort for all? (2008) Indoor Air, 18, pp. 182-201. , [CrossRef] [PubMed]; Yang, L., Yan, H., Lam, J.C., Thermal comfort and building energy consumption implications—A review (2014) Appl. Energy, 115, pp. 164-173. , [CrossRef]; Ma, M., Cai, W., What drives the carbon mitigation in Chinese commercial building sector? Evidence from decomposing an extended Kaya identity (2018) Sci. Total Environ, 634, pp. 884-899. , [CrossRef]; Balaras, C.A., Grossman, G., Henning, H.-M., Ferreira, C.A., Podesser, E., Wang, L., Wiemken, E., Solar air conditioning in Europe—An overview (2007) Renew. Sustain. Energy Rev, 11, pp. 299-314. , [CrossRef]; de Dear, R., Brager, G.S., The adaptive model of thermal comfort and energy conservation in the built environment (2001) Int. J. Biometeorol, 45, pp. 100-108. , [CrossRef] [PubMed]; Li, D.H.W., Yang, L., Lam, J.C., Zero energy buildings and sustainable development implications—A review (2013) Energy, 54, pp. 1-10. , [CrossRef]; Bolatturk, A., Determination of optimum insulation thickness for building walls with respect to various fuels and climate zones in Turkey (2006) Appl. Therm. Eng, 26, pp. 1301-1309. , [CrossRef]; Li, D.H.W., Yang, L., Lam, J.C., Impact of climate change on energy use in the built environment in different climate zones—A review (2012) Energy, 42, pp. 103-112. , [CrossRef]; Yang, L., Lam, J.C., Tsang, C.L., Energy performance of building envelopes in different climate zones in China (2008) Appl. Energy, 85, pp. 800-817. , [CrossRef]; Hoyt, T., Arens, E., Zhang, H., Extending air temperature setpoints: Simulated energy savings and design considerations for new and retrofit buildings (2015) Build. Environ, 88, pp. 89-96. , [CrossRef]; Jiang-Jiang, W., Chun-Fa, Z., You-Yin, J., Multi-criteria analysis of combined cooling, heating and power systems in different climate zones in China (2010) Appl. Energy, 87, pp. 1247-1259. , [CrossRef]; Hong, T., Piette, M.A., Chen, Y., Lee, S.H., Taylor-Lange, S.C., Zhang, R., Sun, K., Price, P., Commercial Building Energy Saver: An energy retrofit analysis toolkit (2015) Appl. Energy, 159, pp. 298-309. , [CrossRef]; Mago, P.J., Hueffed, A., Chamra, L.M., Analysis and optimization of the use of CHP-ORC systems for small commercial buildings (2010) Energy Build, 42, pp. 1491-1498. , [CrossRef]; Ucar, A., Balo, F., Effect of fuel type on the optimum thickness of selected insulation materials for the four different climatic regions of Turkey (2009) Appl. Energy, 86, pp. 730-736. , [CrossRef]; Lam, J.C., Wan, K.K.W., Tsang, C.L., Yang, L., Building energy efficiency in different climates (2008) Energy Convers. Manag, 49, pp. 2354-2366. , [CrossRef]; de Dear, R., Brager, G.S., Cooper, D., Developing an adaptive model of thermal comfort and preference (1998) ASHRAE Trans, 104, pp. 1-18; Brager, G.S., de Dear, R.J., Thermal adaptation in the built environment: A literature review (1998) Energy Build, 27, pp. 83-96. , [CrossRef]; Wan, K.K.W., Li, D.H.W., Liu, D., Lam, J.C., Future trends of building heating and cooling loads and energy consumption in different climates (2011) Build. Environ, 46, pp. 223-234. , [CrossRef]; Fanger, P.O., (1970) Thermal Comfort. Analysis and Applications in Environmental Engineering, , Danish Technical Press: Copenhagen, Denmark; Ole Fanger, P., Toftum, J., Extension of the PMV model to non-air-conditioned buildings in warm climates (2002) Energy Build, 34, pp. 533-536. , [CrossRef]; Humphreys, M.A., Nicol, J.F., Understanding the adaptive approach to thermal comfort (1998) Proceedings of the 1998 ASHRAE Winter Meeting, 104, pp. 991-1004. , San Francisco, CA, USA, 17–21 January Oxford University: Oxford, UK; Yao, R., Li, B., Steemers, K., Energy policy and standard for built environment in China (2005) Renew. Energy, 30, pp. 1973-1988. , [CrossRef]; Chwieduk, D., Towards sustainable-energy buildings (2003) Appl. Energy, 76, pp. 211-217. , [CrossRef]; Mago, P.J., Chamra, L.M., Analysis and optimization of CCHP systems based on energy, economical, and environmental considerations (2009) Energy Build, 41, pp. 1099-1106. , [CrossRef]; Medrano, M., Brouwer, J., McDonell, V., Mauzey, J., Samuelsen, S., Integration of distributed generation systems into generic types of commercial buildings in California (2008) Energy Build, 40, pp. 537-548. , [CrossRef]; Wan, K.K.W., Li, D.H.W., Pan, W., Lam, J.C., Impact of climate change on building energy use in different climate zones and mitigation and adaptation implications (2012) Appl. Energy, 97, pp. 274-282. , [CrossRef]; Wang, J., Zhai, Z.J., Zhang, C., Jing, Y., Environmental impact analysis of BCHP system in different climate zones in China (2010) Energy, 35, pp. 4208-4216. , [CrossRef]; Wang, J., Zhai, Z.J., Jing, Y., Zhang, C., Influence analysis of building types and climate zones on energetic, economic and environmental performances of BCHP systems (2011) Appl. Energy, 88, pp. 3097-3112. , [CrossRef]; Ozkahraman, H.T., Bolatturk, A., The use of tuff stone cladding in buildings for energy conservation (2006) Constr. Build. Mater, 20, pp. 435-440. , [CrossRef]; Manzano-Agugliaro, F., Montoya, F.G., Sabio-Ortega, A., Garcia-Cruz, A., Review of bioclimatic architecture strategies for achieving thermal comfort (2015) Renew. Sustain. Energy Rev, 49, pp. 736-755. , [CrossRef]; Alaidroos, A., Krarti, M., Optimal design of residential building envelope systems in the Kingdom of Saudi Arabia (2015) Energy Build, 86, pp. 104-117. , [CrossRef]; Okeil, A., A holistic approach to energy efficient building forms (2010) Energy Build, 42, pp. 1437-1444. , [CrossRef]; Scherba, A., Sailor, D.J., Rosenstiel, T.N., Wamser, C.C., Modeling impacts of roof reflectivity, integrated photovoltaic panels and green roof systems on sensible heat flux into the urban environment (2011) Build. Environ, 46, pp. 2542-2551. , [CrossRef]; Olivieri, F., Di Perna, C., D’Orazio, M., Olivieri, L., Neila, J., Experimental measurements and numerical model for the summer performance assessment of extensive green roofs in a Mediterranean coastal climate (2013) Energy Build, 63, pp. 1-14. , [CrossRef]; Susorova, I., Angulo, M., Bahrami, P., Stephens, B., A model of vegetated exterior facades for evaluation of wall thermal performance (2013) Build. Environ, 67, pp. 1-13. , [CrossRef]; Roman, K.K., O’Brien, T., Alvey, J.B., Woo, O., Simulating the effects of cool roof and PCM (phase change materials) based roof to mitigate UHI (urban heat island) in prominent US cities (2016) Energy, 96, pp. 103-117. , [CrossRef]; Alam, M., Jamil, H., Sanjayan, J., Wilson, J., Energy saving potential of phase change materials in major Australian cities (2014) Energy Build, 78, pp. 192-201. , [CrossRef]; Zwanzig, S.D., Lian, Y., Brehob, E.G., Numerical simulation of phase change material composite wallboard in a multi-layered building envelope (2013) Energy Convers. Manag, 69, pp. 27-40. , [CrossRef]; Saffari, M., de Gracia, A., Fernandez, C., Cabeza, L.F., Simulation-based optimization of PCM melting temperature to improve the energy performance in buildings (2017) Appl. Energy, 202, pp. 420-434. , [CrossRef]; Saffari, M., de Gracia, A., Ushak, S., Cabeza, L.F., Economic impact of integrating PCM as passive system in buildings using Fanger comfort model (2016) Energy Build, 112, pp. 159-172. , [CrossRef]; van Hove, L.W.A., Jacobs, C.M.J., Heusinkveld, B.G., Elbers, J.A., van Driel, B.L., Holtslag, A.A.M., Temporal and spatial variability of urban heat island and thermal comfort within the Rotterdam agglomeration (2015) Build. Environ, 83, pp. 91-103. , [CrossRef]; Yang, F., Qian, F., Lau, S.S.Y., Urban form and density as indicators for summertime outdoor ventilation potential: A case study on high-rise housing in Shanghai (2013) Build. Environ, 70, pp. 122-137. , [CrossRef]; Morakinyo, T.E., Dahanayake, K.K.C., Ng, E., Chow, C.L., Temperature and cooling demand reduction by green-roof types in different climates and urban densities: A co-simulation parametric study (2017) Energy Build, 145, pp. 226-237. , [CrossRef]; Herter, K., Wayland, S., Residential response to critical-peak pricing of electricity: California evidence (2010) Energy, 35, pp. 1561-1567. , [CrossRef]; Yin, R., Xu, P., Piette, M.A., Kiliccote, S., Study on Auto-DR and pre-cooling of commercial buildings with thermal mass in California (2010) Energy Build, 42, pp. 967-975. , [CrossRef]; Turner, W.J.N., Walker, I.S., Roux, J., Peak load reductions: Electric load shifting with mechanical pre-cooling of residential buildings with low thermal mass (2015) Energy, 82, pp. 1057-1067. , [CrossRef]; Bartlett, K.H., Kennedy, S.M., Brauer, M., van Netten, C., Dill, B., Evaluation and determinants of airborne bacterial concentrations in school classrooms (2004) J. Occup. Environ. Hyg, 1, pp. 639-647. , [CrossRef] [PubMed]; Rintala, H., Pitkaranta, M., Taubel, M., Microbial Communities Associated with House Dust (2012) Advances in Applied Microbiology, 78. , Laskin, A.I., Sariaslani, S., Gadd, G., Eds.; Elsevier Inc.: Amsterdam, The Netherlands, ISBN 978-0-12-394805-2; Cardona, E., Piacentino, A., Cardona, F., Energy saving in airports by trigeneration. Part I: Assessing economic and technical potential (2006) Appl. Therm. Eng, 26, pp. 1427-1436. , [CrossRef]; Balaras, C.A., Dascalaki, E., Gaglia, A., Droutsa, K., Energy conservation potential, HVAC installations and operational issues in Hellenic airports (2003) Energy Build, 35, pp. 1105-1120. , [CrossRef]; Mago, P.J., Chamra, L.M., Hueffed, A., A review on energy, economical, and environmental benefits of the use of CHP systems for small commercial buildings for the North American climate (2009) Int. J. Energy Res, 33, pp. 1252-1265. , [CrossRef]; Jing, Y.-Y., Bai, H., Wang, J.-J., Liu, L., Life cycle assessment of a solar combined cooling heating and power system in different operation strategies (2012) Appl. Energy, 92, pp. 843-853. , [CrossRef]; Jing, Y.-Y., Bai, H., Wang, J.-J., Multi-objective optimization design and operation strategy analysis of BCHP system based on life cycle assessment (2012) Energy, 37, pp. 405-416. , [CrossRef]; Smith, A.D., Mago, P.J., Effects of load-following operational methods on combined heat and power system efficiency (2014) Appl. Energy, 115, pp. 337-351. , [CrossRef]; Gu, Q., Ren, H., Gao, W., Ren, J., Integrated assessment of combined cooling heating and power systems under different design and management options for residential buildings in Shanghai (2012) Energy Build, 51, pp. 143-152. , [CrossRef]; Romero Rodriguez, L., Salmeron Lissen, J.M., Sanchez Ramos, J., Rodriguez Jara, E.A., Alvarez Dominguez, S., Analysis of the economic feasibility and reduction of a building’s energy consumption and emissions when integrating hybrid solar thermal/PV/micro-CHP systems (2016) Appl. Energy, 165, pp. 828-838. , [CrossRef]; Ucar, A., The environmental impact of optimum insulation thickness for external walls and flat roofs of building in Turkey’s different degree-day regions (2009) Energy Educ. Sci. Technol. Part A Energy Sci. Res, 24, pp. 49-69; Ekici, B.B., Gulten, A.A., Aksoy, U.T., A study on the optimum insulation thicknesses of various types of external walls with respect to different materials, fuels and climate zones in Turkey (2012) Appl. Energy, 92, pp. 211-217. , [CrossRef]; Bouden, C., Ghrab, N., An adaptive thermal comfort model for the Tunisian context: A field study results (2005) Energy Build, 37, pp. 952-963. , [CrossRef]; Yang, W., Zhang, G., Thermal comfort in naturally ventilated and air-conditioned buildings in humid subtropical climate zone in China (2008) Int. J. Biometeorol, 52, pp. 385-398. , [CrossRef] [PubMed]; Candido, C., de Dear, R.J., Lamberts, R., Bittencourt, L., Air movement acceptability limits and thermal comfort in Brazil’s hot humid climate zone (2010) Build. Environ, 45, pp. 222-229. , [CrossRef]; Yao, R., Li, B., Steemers, K., Short, A., Assessing the natural ventilation cooling potential of office buildings in different climate zones in China (2009) Renew. Energy, 34, pp. 2697-2705. , [CrossRef]; van Hoof, J., Hensen, J.L.M., Quantifying the relevance of adaptive thermal comfort models in moderate thermal climate zones (2007) Build. Environ, 42, pp. 156-170. , [CrossRef]; Chow, T.T., Fong, K.F., Givoni, B., Lin, Z., Chan, A.L.S., Thermal sensation of Hong Kong people with increased air speed, temperature and humidity in air-conditioned environment (2010) Build. Environ, 45, pp. 2177-2183. , [CrossRef]; Singh, M.K., Mahapatra, S., Atreya, S.K., Adaptive thermal comfort model for different climatic zones of North-East India (2011) Appl. Energy, 88, pp. 2420-2428. , [CrossRef]; Mishra, A.K., Ramgopal, M., Field studies on human thermal comfort—An overview (2013) Build. Environ, 64, pp. 94-106. , [CrossRef]; Manu, S., Shukla, Y., Rawal, R., Thomas, L.E., de Dear, R., Field studies of thermal comfort across multiple climate zones for the subcontinent: India Model for Adaptive Comfort (IMAC) (2016) Build. Environ, 98, pp. 55-70. , [CrossRef]; de Dear, R., Kim, J., Candido, C., Deuble, M., Adaptive thermal comfort in Australian school classrooms (2015) Build. Res. Inf, 43, pp. 383-398. , [CrossRef]; Zomorodian, Z.S., Tahsildoost, M., Hafezi, M., Thermal comfort in educational buildings: A review article (2016) Renew. Sustain. Energy Rev, 59, pp. 895-906. , [CrossRef]; Moon, J.W., Han, S.-H., Thermostat strategies impact on energy consumption in residential buildings (2011) Energy Build, 43, pp. 338-346. , [CrossRef]; Bansal, V., Mishra, R., Das Agarwal, G., Mathur, J., Performance analysis of integrated earth-air-tunnel-evaporative cooling system in hot and dry climate (2012) Energy Build, 47, pp. 525-532. , [CrossRef]; Theodosiou, T.G., Ordoumpozanis, K.T., Energy, comfort and indoor air quality in nursery and elementary school buildings in the cold climatic zone of Greece (2008) Energy Build, 40, pp. 2207-2214. , [CrossRef]; Dimoudi, A., Kostarela, P., Energy monitoring and conservation potential in school buildings in the C′ climatic zone of Greece (2009) Renew. Energy, 34, pp. 289-296. , [CrossRef]; Perez, Y.V., Capeluto, I.G., Climatic considerations in school building design in the hot-humid climate for reducing energy consumption (2009) Appl. Energy, 86, pp. 340-348. , [CrossRef]; Calise, F., Thermoeconomic analysis and optimization of high efficiency solar heating and cooling systems for different Italian school buildings and climates (2010) Energy Build, 42, pp. 992-1003. , [CrossRef]; Dascalaki, E.G., Sermpetzoglou, V.G., Energy performance and indoor environmental quality in Hellenic schools (2011) Energy Build, 43, pp. 718-727. , [CrossRef]; Jokisalo, J., Kurnitski, J., Korpi, M., Kalamees, T., Vinha, J., Building leakage, infiltration, and energy performance analyses for Finnish detached houses (2009) Build. Environ, 44, pp. 377-387. , [CrossRef]; Urbikain, M.K., Sala, J.M., Analysis of different models to estimate energy savings related to windows in residential buildings (2009) Energy Build, 41, pp. 687-695. , [CrossRef]; Chan, W.R., Joh, J., Sherman, M.H., Analysis of air leakage measurements of US houses (2013) Energy Build, 66, pp. 616-625. , [CrossRef]; Didone, E.L., Wagner, A., Semi-transparent PV windows: A study for office buildings in Brazil (2013) Energy Build, 67, pp. 136-142. , [CrossRef]; Peng, J., Curcija, D.C., Lu, L., Selkowitz, S.E., Yang, H., Zhang, W., Numerical investigation of the energy saving potential of a semi-transparent photovoltaic double-skin facade in a cool-summer Mediterranean climate (2016) Appl. Energy, 165, pp. 345-356. , [CrossRef]; Hygh, J.S., de Carolis, J.F., Hill, D.B., Ranjithan, S.R., Multivariate regression as an energy assessment tool in early building design (2012) Build. Environ, 57, pp. 165-175. , [CrossRef]; de Rosa, M., Bianco, V., Scarpa, F., Tagliafico, L.A., Heating and cooling building energy demand evaluation; a simplified model and a modified degree days approach (2014) Appl. Energy, 128, pp. 217-229. , [CrossRef]; Shen, E., Hu, J., Patel, M., Energy and visual comfort analysis of lighting and daylight control strategies (2014) Build. Environ, 78, pp. 155-170. , [CrossRef]; Asdrubali, F., Bonaut, M., Battisti, M., Venegas, M., Comparative study of energy regulations for buildings in Italy and Spain (2008) Energy Build, 40, pp. 1805-1815. , [CrossRef]; Eskin, N., Tuerkmen, H., Analysis of annual heating and cooling energy requirements for office buildings in different climates in Turkey (2008) Energy Build, 40, pp. 763-773. , [CrossRef]; Jaber, S., Ajib, S., Thermal and economic windows design for different climate zones (2011) Energy Build, 43, pp. 3208-3215. , [CrossRef]; Kim, K.-H., A comparative life cycle assessment of a transparent composite facade system and a glass curtain wall system (2011) Energy Build, 43, pp. 3436-3445. , [CrossRef]; Ihm, P., Krarti, M., Design optimization of energy efficient residential buildings in Tunisia (2012) Build. Environ, 58, pp. 81-90. , [CrossRef]; Susorova, I., Tabibzadeh, M., Rahman, A., Clack, H.L., Elnimeiri, M., The effect of geometry factors on fenestration energy performance and energy savings in office buildings (2013) Energy Build, 57, pp. 6-13. , [CrossRef]; Roetzel, A., Tsangrassoulis, A., Dietrich, U., Impact of building design and occupancy on office comfort and energy performance in different climates (2014) Build. Environ, 71, pp. 165-175. , [CrossRef]; Li, C., Hong, T., Yan, D., An insight into actual energy use and its drivers in high-performance buildings (2014) Appl. Energy, 131, pp. 394-410. , [CrossRef]; Delgarm, N., Sajadi, B., Delgarm, S., Kowsary, F., A novel approach for the simulation-based optimization of the buildings energy consumption using NSGA-II: Case study in Iran (2016) Energy Build, 127, pp. 552-560. , [CrossRef]; Konis, K., Gamas, A., Kensek, K., Passive performance and building form: An optimization framework for early-stage design support (2016) Sol. Energy, 125, pp. 161-179. , [CrossRef]; El Fouih, Y., Stabat, P., Riviere, P., Hoang, P., Archambault, V., Adequacy of air-to-air heat recovery ventilation system applied in low energy buildings (2012) Energy Build, 54, pp. 29-39. , [CrossRef]; Ke, Z., Yanming, K., Applicability of air-to-air heat recovery ventilators in China (2009) Appl. Therm. Eng, 29, pp. 830-840. , [CrossRef]; Liu, J., Li, W., Liu, J., Wang, B., Efficiency of energy recovery ventilator with various weathers and its energy saving performance in a residential apartment (2010) Energy Build, 42, pp. 43-49. , [CrossRef]; Ren, X., Yan, D., Wang, C., Air-conditioning usage conditional probability model for residential buildings (2014) Build. Environ, 81, pp. 172-182. , [CrossRef]; Zhao, J., Lasternas, B., Lam, K.P., Yun, R., Loftness, V., Occupant behavior and schedule modeling for building energy simulation through office appliance power consumption data mining (2014) Energy Build, 82, pp. 341-355. , [CrossRef]; Ghahramani, A., Zhang, K., Dutta, K., Yang, Z., Becerik-Gerber, B., Energy savings from temperature setpoints and deadband: Quantifying the influence of building and system properties on savings (2016) Appl. Energy, 165, pp. 930-942. , [CrossRef]; da Graca, G.C., Augusto, A., Lerer, M.M., Solar powered net zero energy houses for southern Europe: Feasibility study (2012) Sol. Energy, 86, pp. 634-646. , [CrossRef]; Ronghui, Q., Lin, L., Yu, H., Energy performance of solar-assisted liquid desiccant air-conditioning system for commercial building in main climate zones (2014) Energy Convers. Manag, 88, pp. 749-757. , [CrossRef]; Liu, Z., Xu, W., Qian, C., Chen, X., Jin, G., Investigation on the feasibility and performance of ground source heat pump (GSHP) in three cities in cold climate zone, China (2015) Renew. Energy, 84, pp. 89-96. , [CrossRef]; Liu, Z., Xu, W., Zhai, X., Qian, C., Chen, X., Feasibility and performance study of the hybrid ground-source heat pump system for one office building in Chinese heating dominated areas (2017) Renew. Energy, 101, pp. 1131-1140. , [CrossRef]; Yang, L., Lam, J.C., Liu, J., Tsang, C.L., Building energy simulation using multi-years and typical meteorological years in different climates (2008) Energy Convers. Manag, 49, pp. 113-124. , [CrossRef]; Yang, L., Wan, K.K.W., Li, D.H.W., Lam, J.C., A new method to develop typical weather years in different climates for building energy use studies (2011) Energy, 36, pp. 6121-6129. , [CrossRef]; Hong, T., Chang, W.-K., Lin, H.-W., A fresh look at weather impact on peak electricity demand and energy use of buildings using 30-year actual weather data (2013) Appl. Energy, 111, pp. 333-350. , [CrossRef]; Kalamees, T., Jylha, K., Tietavainen, H., Jokisalo, J., Ilomets, S., Hyvonen, R., Saku, S., Development of weighting factors for climate variables for selecting the energy reference year according to the EN ISO 15927-4 standard (2012) Energy Build, 47, pp. 53-60. , [CrossRef]; Ren, Z., Chen, Z., Wang, X., Climate change adaptation pathways for Australian residential buildings (2011) Build. Environ, 46, pp. 2398-2412. , [CrossRef]; Asimakopoulos, D.A., Santamouris, M., Farrou, I., Laskari, M., Saliari, M., Zanis, G., Giannakidis, G., Douvis, C., Modelling the energy demand projection of the building sector in Greece in the 21st century (2012) Energy Build, 49, pp. 488-498. , [CrossRef]; Yang, Y., Li, B., Yao, R., A method of identifying and weighting indicators of energy efficiency assessment in Chinese residential buildings (2010) Energy Policy, 38, pp. 7687-7697. , [CrossRef]; de la Flor, F.J.S., Domínguez, S.Á., Félix, J.L.M., Falcón, R.G., Climatic zoning and its application to Spanish building energy performance regulations (2008) Energy Build, 40, pp. 1984-1990. , [CrossRef]; Singh, M.K., Mahapatra, S., Atreya, S.K., Development of bio-climatic zones in north-east India (2007) Energy Build, 39, pp. 1250-1257. , [CrossRef]; Shi, J., Yang, L., A Climate Classification of China through k-Nearest-Neighbor and Sparse Subspace Representation (2020) J. Clim, 33, pp. 243-262. , [CrossRef]; Yang, L., Lyu, K., Li, H., Liu, Y., Building climate zoning in China using supervised classification-based machine learning (2020) Build. Environ, 171, p. 106663. , [CrossRef]; Kotharkar, R., Ghosh, A., Kotharkar, V., Estimating summertime heat stress in a tropical Indian city using Local Climate Zone (LCZ) framework (2021) Urban Clim, 36, p. 100784. , [CrossRef]; Ascione, F., Bianco, N., Mauro, G.M., Napolitano, D.F., Vanoli, G.P., Building heating demand vs climate: Deep insights to achieve a novel heating stress index and climatic stress curves (2021) J. Clean. Prod, p. 126616. , [CrossRef]; Bienvenido-Huertas, D., Sánchez-García, D., Rubio-Bellido, C., Pulido-Arcas, J.A., Analysing the inequitable energy framework for the implementation of nearly zero energy buildings (nZEB) in Spain (2021) J. Build. Eng, 35, p. 102011. , [CrossRef]; Ávila-Delgado, J., Robador, M.D., Barrera-Vera, J.A., Marrero, M., Glazing selection procedure for office building retrofitting in the Mediterranean climate in Spain (2021) J. Build. Eng, 33, p. 101448. , [CrossRef]; Bai, L., Yang, L., Song, B., Liu, N., A new approach to develop a climate classification for building energy efficiency addressing Chinese climate characteristics (2020) Energy, 195, p. 116982. , [CrossRef]; Aydin, N., Biyikoğlu, A., Determination of optimum insulation thickness by life cycle cost analysis for residential buildings in Turkey (2021) Sci. Technol. Built Environ, 27, pp. 2-13. , [CrossRef]; Akan, A.E., Determination and Modeling of Optimum Insulation Thickness for Thermal Insulation of Buildings in All City Centers of Turkey (2021) Int. J. Thermophys, 42, p. 49. , [CrossRef]; Bienvenido-Huertas, D., Analysis of the Impact of the Use Profile of HVAC Systems Established by the Spanish Standard to Assess Residential Building Energy Performance (2020) Sustainability, 12, p. 7153. , [CrossRef]; Shrestha, M., Rijal, H.B., Kayo, G., Shukuya, M., A field investigation on adaptive thermal comfort in school buildings in the temperate climatic region of Nepal (2021) Build. Environ, 190, p. 107523. , [CrossRef]; Guevara, G., Soriano, G., Mino-Rodriguez, I., Thermal comfort in university classrooms: An experimental study in the tropics (2021) Build. Environ, 187, p. 107430. , [CrossRef]; O’Neill, B.C., Kriegler, E., Riahi, K., Ebi, K.L., Hallegatte, S., Carter, T.R., Mathur, R., van Vuuren, D.P., A new scenario framework for climate change research: The concept of shared socioeconomic pathways (2014) Clim. Chang, 122, pp. 387-400. , [CrossRef]; Eyring, V., Bony, S., Meehl, G.A., Senior, C.A., Stevens, B., Stouffer, R.J., Taylor, K.E., Overview of the Coupled Model Intercompar-ison Project Phase 6 (CMIP6) experimental design and organization (2016) Geosci. Model Dev, 9, pp. 1937-1958. , [CrossRef]; Edelenbosch, O.Y., van Vuuren, D.P., Blok, K., Calvin, K., Fujimori, S., Mitigating energy demand sector emissions: The integrated modelling perspective (2020) Appl. Energy, 261, p. 114347. , [CrossRef]; Zheng, S., Huang, G., Zhou, X., Zhu, X., Climate-change impacts on electricity demands at a metropolitan scale: A case study of Guangzhou, China (2020) Appl. Energy, 261, p. 114295. , [CrossRef]}, source = {Scopus}, timestamp = {2021-08-28T19:41:30.000+0200}, title = {Analysis of climate-oriented researches in building}, url = {https://www.scopus.com/inward/record.uri?eid=2-s2.0-85104245073&doi=10.3390%2fapp11073251&partnerID=40&md5=4c2dc1b5239016664c124d89cd8ac83a}, volume = 11, year = 2021 }