BalarasCAGrossmanGHenningH-MFerreiraCAIPodesserEWangLWiemkenE. Solar air conditioning in Europe – an overview. Renewable Sustainable Energy Rev2007; 11: 299–314.
2.
Pérez-LombardLOrtizJPoutC. A review on buildings energy consumption information. Energy Build2008; 40: 394–398.
3.
VakiloroayaVSamaliBFakharAPishghadamK. A review of different strategies for HVAC energy saving. Energy Convers Manage2014; 77: 738–754.
4.
ChuaKJChouSKYangWM. Advances in heat pump systems: a review. Appl Energy2010; 87: 3611–3624.
5.
RheeK-NKimKW. A 50 year review of basic and applied research in radiant heating and cooling systems for the built environment. Build Environ2015; 91: 166–190.
6.
ZhangZLiYChenB. Smoke flow in Chinese Kang. Indoor Built Environ2009; 18: 219–233.
7.
BaiGGongGYuCWOuyangZ. A combined, large, multi-faceted bulbous façade glazed curtain with open atrium as a natural ventilation solution for an energy efficient sustainable office building in Southern China. Indoor Built Environ2015; 24: 813–832.
8.
XuWSunDLiuZ. Performance criteria system for passive nearly zero energy buildings in China. Indoor Built Environ2016; 25: 1181–1184.
9.
SadineniSBMadalaSBoehmRF. Passive building energy savings: a review of building envelope components. Renewable Sustainable Energy Rev2011; 15: 3617–3631.
10.
AeleneiDHenriquesFMA. Analysis of the condensation risk on exterior surface of building envelopes. Energy Build2008; 40: 1866–1871.
11.
ManzHBrunnerSWullschlegerL. Triple vacuum glazing: heat transfer and basic mechanical design constraints. Solar Energy2006; 80: 1632–1642.
12.
MalekiBA. Shading: passive cooling and energy conservation in buildings. Int J Tech Phys Problems Eng2011; 3: 72–79.
13.
CorgnatiSPKindinisA. Thermal mass activation by hollow core slab coupled with night ventilation to reduce summer cooling loads. Build Environ2007; 42: 3285–3297.
14.
XuXYuJWangSWangJ. Research and application of active hollow core slabs in building systems for utilizing low energy sources. Appl Energy2014; 116: 424–435.
15.
LehmannBDorerVGwerderMRenggliFTödtliJ. Thermally activated building systems (TABS): energy efficiency as a function of control strategy, hydronic circuit topology and (cold) generation system. Appl Energy2011; 88: 180–191.
16.
ShenCLiX. Potential of utilizing different natural cooling sources to reduce the building cooling load and cooling energy consumption: a case study in Urumqi. Energies2017; 10: 366–366.
17.
ShenCLiX. Dynamic thermal performance of pipe-embedded building envelope utilizing evaporative cooling water in the cooling season. Appl Thermal Eng2016; 106: 1103–1113.
18.
ShenCLiX. Solar heat gain reduction of double glazing window with cooling pipes embedded in venetian blinds by utilizing natural cooling. Energy Build2016; 112: 173–183.
19.
ShenCLiX. Thermal performance of double skin façade with built-in pipes utilizing evaporative cooling water in cooling season. Solar Energy2016; 137: 55–65.
20.
ShenCLiX. Energy saving potential of pipe-embedded building envelope utilizing low-temperature hot water in the heating season. Energy Build2017; 138: 318–331.