Christian Inard 
- (2023): A state-space model to control an adaptive facade prototype using data-driven techniques. In: Energy and Buildings, v. 296 (October 2023).
- (2017): Assessment of Direct and Indirect Impacts of Vegetation on Building Comfort: A Comparative Study of Lawns, Green Walls and Green Roofs. In: Procedia Environmental Sciences, v. 38 ( 2017).
- (2016): A New Performance Indicator to Assess Building and District Cooling Strategies. In: Procedia Engineering, v. 169 ( 2016).
- (2022): Multi-agent simulation of collective self-consumption: Impacts of storage systems and large-scale energy exchanges. In: Energy and Buildings, v. 254 (January 2022).
- (2021): Dynamic thermal perception: A review and agenda for future experimental research. In: Building and Environment, v. 205 (November 2021).
- (2014): Cool materials impact at district scale—Coupling building energy and microclimate models. In: Sustainable Cities and Society, v. 13 (October 2014).
- (2016): Fast POD method to evaluate infiltration heat recovery in building walls. In: Building Simulation, v. 10, n. 1 (September 2016).
- (2019): An insight into the thermal behaviour of a building based on a metamodel for cooling energy consumption. In: Advances in Building Energy Research, v. 15, n. 4 (January 2019).
- (2019): Data mining of building performance simulations comprising occupant behaviour modelling. In: Advances in Building Energy Research, v. 13, n. 2 (July 2019).
- (2015): Microclimate and building energy consumption: study of different coupling methods. In: Advances in Building Energy Research, v. 9, n. 2 (July 2015).
- (2013): Short-term storage systems of thermal energy for buildings: a review. In: Advances in Building Energy Research, v. 7, n. 1 (May 2013).
- (2011): Modelling the radiative exchanges in urban areas: A review. In: Advances in Building Energy Research, v. 5, n. 1 (May 2011).
- (2009): Fast method to predict building heating demand based on the design of experiments. In: Energy and Buildings, v. 41, n. 6 (June 2009).
- (2009): A new methodology for the design of low energy buildings. In: Energy and Buildings, v. 41, n. 9 (September 2009).
- (2011): Microclimatic coupling as a solution to improve building energy simulation in an urban context. In: Energy and Buildings, v. 43, n. 7 (July 2011).
- (2011): Free-running temperature and potential for free cooling by ventilation: A case study. In: Energy and Buildings, v. 43, n. 10 (October 2011).
- (2016): Simulation tools to assess microclimate and building energy – A case study on the design of a new district. In: Energy and Buildings, v. 114 (February 2016).
- (2017): A metamodel for building energy performance. In: Energy and Buildings, v. 151 (September 2017).
- (2018): Development of a multiobjective optimization procedure dedicated to the design of district energy concept. In: Energy and Buildings, v. 178 (November 2018).
- (1996): Prediction of air temperature distribution in buildings with a zonal model. In: Energy and Buildings, v. 24, n. 2 (July 1996).
- (2019): A metamodel for long-term thermal comfort in non-air-conditioned buildings. In: Architectural Engineering and Design Management, v. 16, n. 6 (November 2019).
- (2020): A metamodeling method to study the nonlinearity of building thermal behavior. In: Journal of Building Engineering, v. 28 (March 2020).
- (2014): A hydrothermal model to assess the impact of green walls on urban microclimate and building energy consumption. In: Building and Environment, v. 73 (March 2014).
- (2013): Reduced-scale study of transient flows inside mechanically ventilated buildings subjected to wind and internal overpressure effects. In: Building and Environment, v. 62 (April 2013).
- (2012): Reduced-scale study of wind influence on mean airflows inside buildings equipped with ventilation systems. In: Building and Environment, v. 58 (December 2012).
- (2005): A global approach of indoor environment in an air-conditioned office room. In: Building and Environment, v. 40, n. 1 (January 2005).
- (2016): Construction cost and energy performance of single family houses: From integrated design to automated optimization. In: Automation in Construction, v. 70 (October 2016).
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