1 - 11 |
Development and application of a simple BEMS to measure energy consumption of buildings Yuan J, Farnham C, Emura K |
12 - 22 |
An occupant-based energy consumption prediction model for office equipment Wang ZX, Ding Y |
23 - 34 |
Gated ensemble learning method for demand-side electricity load forecasting Burger EM, Moura SJ |
35 - 46 |
Thermal-physical behavior and energy performance of air-supported membranes for sports halls: A comparison among traditional and advanced building envelopes Suo H, Angelotti A, Zanelli A |
47 - 52 |
The energy saving potentials of zone-level membrane-based enthalpy recovery ventilators for VAV systems in commercial buildings Wang LP, Curcija D, Breshears J |
53 - 64 |
Performance study of counter-flow indirect evaporative air coolers Pandelidis D, Anisimov S, Worek WM |
65 - 74 |
Residential heating energy consumption modeling through a bottom-up approach for China's Hot Summer-Cold Winter climatic region Wang Z, Zhao Z, Lin BR, Zhu YX, Ouyang Q |
75 - 89 |
Temporal knowledge discovery in big BAS data for building energy management Fan C, Xiao F, Madsen H, Wang D |
90 - 107 |
Developing a simplified methodology to calculate Co-2/m(2) emissions per year in the use phase of newly-built, single-family houses Castellano J, Castellano D, Ribera A, Ciurana J |
108 - 114 |
Experimental study of energy performance in low-temperature hydronic heating systems Hesaraki A, Bourdakis E, PIoskic A, Holmberg S |
115 - 126 |
Demand controlled ventilation indoor climate and energy performance in a high performance building with air flow rate controlled chilled beams Ahmed K, Kurnitski J, Sormunen P |
127 - 134 |
Life cycle energy analysis of museum buildings: A case study of museums in Hangzhou Ge J, Luo XY, Hu J, Chen SQ |
135 - 142 |
Investigation of cooling load reduction in buildings by passive cooling options applied on roof Sabzi D, Haseli P, Jafarian M, Karimi G, Taheri M |
143 - 156 |
Life cycle energy and carbon assessment of double skin facades for office refurbishments Pomponi F, Piroozfar PAE, Southall R, Ashton P, Farr ERP |
157 - 173 |
Control algorithms for dynamic windows for residential buildings Firlag S, Yazdanian M, Curcija C, Kohler C, Vidanovic S, Hart R, Czarnecki S |
174 - 182 |
Risk analysis of housing energy efficiency interventions under model uncertainty Chalabi Z, Das P, Milner J, Davies M, Hamilton I, Jones B, Shrubsole G, Wilkinson P |
183 - 194 |
A comparative study of the environmental impact of Swedish residential buildings with vacuum insulation panels Karami P, Al-Ayish N, Gudmundsson K |
195 - 208 |
In situ optimization methodology for ground source heat pump systems: Upgrade to ensure user comfort Cervera-Vazquez J, Montagud C, Corberan JM |
209 - 216 |
Using multiple regression analysis to develop energy consumption indicators for commercial buildings in the US Amiri SS, Mottahedi M, Asadi S |
217 - 229 |
Retrofitting with low-temperature heating to achieve energy-demand savings and thermal comfort Wang Q, Ploskic A, Holmberg S |
230 - 244 |
An assessment of the relationship between embodied and thermal energy demands in dwellings in a Mediterranean climate Rossello-Batle B, Ribas C, Moia-Pol A, Martinez-Moll V |
245 - 254 |
Thermal window insulation Konroyd-Bolden E, Liao ZY |
255 - 266 |
Numerical investigation on the airflow characteristics and thermal comfort in buoyancy-driven natural ventilation rooms Yang XF, Zhong K, Kang YM, Tao TY |
267 - 273 |
A developed procedure to predict annual heating energy by heat- and energy-recovery technologies in different climate European countries Kassai M, Nasr MR, Simonson CJ |
274 - 290 |
A new validated TRNSYS module for simulating latent heat storage walls Al-Saadi SN, Zhai ZQ |
291 - 303 |
Investigation of soil thermal saturation and recovery under intermittent and continuous operation of EATHE Mathur A, Surana AK, Verma P, Mathur S, Agrawal GD, Mathur J |
304 - 315 |
High resolution measured domestic hot water consumption of Canadian homes George D, Pearre NS, Swan LG |
316 - 327 |
Analyzing energy savings potential of the Chinese building materials industry under different economic growth scenarios Ouyang XL, Lin BQ |
328 - 333 |
Comparison of empirical and modelled energy performance across age-bands of three-bedroom dwellings in the UK Summerfield AJ, Oreszczyn T, Palmer J, Hamilton IG, Lowe RJ |
334 - 352 |
Visualization of energy and water consumption and GHG emissions: A case study of a Canadian University Campus Abdelalim A, O'Brien W, Shi ZX |
353 - 360 |
Shape-stabilized phase change materials based on fatty acid eutectics/expanded graphite composites for thermal storage Tang XH, Zhu B, Xu MH, Zhang W, Yang Z, Zhang YF, Yin GL, He DN, Wei H, Zhai XQ |
361 - 368 |
Determination of optimum insulation thickness for building walls with moisture transfer in hot summer and cold winter zone of China Liu XW, Chen YM, Ge H, Fazio P, Chen GJ, Guo XG |
369 - 376 |
Reducing solar effect on the glazing material based on using non-linear patterns Lin SJ, Li HH |
377 - 384 |
Thermal bridging analysis on cladding systems for building facades Theodosiou TG, Tsikaloudaki AG, Kontoleon KJ, Bikas DK |
385 - 396 |
A new systemic approach to improve the sustainability performance of office buildings in the early design stage Kreiner H, Passer A, Wallbaum H |
397 - 406 |
Thermal comfort in naturally ventilated buildings with double skin facade under tropical climate conditions: The influence of key design parameters Barbosa S, Ip K, Southall R |
407 - 417 |
Adaptive thermal zone modeling including the storage mass of the building zone Kossak B, Stadler M |