Effects of the room temperature sensor position and radiator sizing on indoor thermal comfort and energy performances

Jean Pierre Campana; Matthias Schuss; Ardeshir Mahdavi; Gian Luca Morini

doi:10.1051/e3sconf/201911101006

All issues

Volume 111 (2019)

E3S Web Conf., 111 (2019) 01006

References

Open Access

Issue		E3S Web Conf. Volume 111, 2019 CLIMA 2019 Congress


Article Number		01006
Number of page(s)		8
Section		Advanced HVAC&R&S Technology
DOI		https://doi.org/10.1051/e3sconf/201911101006
Published online		13 August 2019

Directive 2010/31/UE of the European Parliament and of the Council of 19 May 2010 on the energy performance of buildings (recast). L. 153/13, Official Journal of European Union, 18 June 2010 [Google Scholar]
S.A. Klein, W.A. Beckman, J.W. Mitchell, J.A. Duffie, N.A. Duffie, T.L. Freeman. TRNSYS 17: A Transient System Simulation Program. Madison, USA: Solar Energy Laboratory, University of Wisconsin. (2010) [Google Scholar]
D.B. Crawley, C.O. Pedersen, L.K. Lawrie, F.C. Winkelmann. Energy plus: Energy simulation program. ASHRAE Journal, 42.4: 49–56 (2000). [Google Scholar]
E. Wurtz, M. Musy L. Mora. Introduction of specific laws in zonal model to describe temperature fields and air flow patterns in mixed ventilated buildings. Journal of the Human-Environment System, 3.1: 43-59. (1999) [Google Scholar]
C. Inard, H. Bouia, P. Dalicieux. Prediction of air temperature distribution in buildings with a zonal model. Energy and Buildings, 24.2: 125-132 (1996) [Google Scholar]
E. Wurtz, F. Deque, L. Mora, E. Bozonnet, S. Trompezinsky. SIM_ZONAL: a software to evaluate the risk of discomfort: coupling with an energy engine, comparison with CFD codes and experimental measurements . Proc. Building Simulation 3: 1423–1428 (2003) [Google Scholar]
E. Wurtz, L. Mora C. Inard. An equation-based simulation environment to investigate fast building simulation. Building and Environment, 41.11: 1571-1583. (2006) [Google Scholar]
A.C. Megri, Y. Yu. New calibrated zonal model (POMA+) for temperature and airflow predictions. Building and Environment, 94.1: 109-121 (2015) [Google Scholar]
A. Daoud, N. Galanis, O. Bellache. Calculation of refrigeration loads by convection, radiation and condensation in ice rinks using a transient 3D zonal model. Applied Thermal Engineering, 28.14: 1782-1790 (2008) [Google Scholar]
J.P. Campana, M. Magni, M. Dongellini, G.L. Morini. The benchmark of a new SIMULINK library for thermal dynamic simulation of buildings. Proceedings of 3rd Building Simulation Applications conference (2017) [Google Scholar]
M. Magni, J.P. Campana, G.L. Morini. Dynamic simulations as a tool for the analysis of the interactions among the controllers of HVAC systems. Proceedings of 3rd Building Simulation Applications conference (2017) [Google Scholar]
C. Wemhöner, B. Hafner and K. Schwarzer. Simulation of solar thermal systems with CARNOT blockset in the environment Matlab Simulink. Proceedings Eurosun 2000, 2000 [Google Scholar]
R.K. Rajput. Heat and Mass Transfer. Tata McGrawhill (1999) [Google Scholar]
M. Magni, J.P. Campana, F. Ochs, G.L. Morini. Numerical investigation of the influence of heat emitters on the local thermal comfort in a room. Building Simulation. DOI: 10.1007/s12273-0.19-0506-8. [PubMed] [Google Scholar]

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[1] Directive 2010/31/UE of the European Parliament and of the Council of 19 May 2010 on the energy performance of buildings (recast). L. 153/13, Official Journal of European Union, 18 June 2010 [Google Scholar]

[2] S.A. Klein, W.A. Beckman, J.W. Mitchell, J.A. Duffie, N.A. Duffie, T.L. Freeman. TRNSYS 17: A Transient System Simulation Program. Madison, USA: Solar Energy Laboratory, University of Wisconsin. (2010) [Google Scholar]

[3] D.B. Crawley, C.O. Pedersen, L.K. Lawrie, F.C. Winkelmann. Energy plus: Energy simulation program. ASHRAE Journal, 42.4: 49–56 (2000). [Google Scholar]

[4] E. Wurtz, M. Musy L. Mora. Introduction of specific laws in zonal model to describe temperature fields and air flow patterns in mixed ventilated buildings. Journal of the Human-Environment System, 3.1: 43-59. (1999) [Google Scholar]

[5] C. Inard, H. Bouia, P. Dalicieux. Prediction of air temperature distribution in buildings with a zonal model. Energy and Buildings, 24.2: 125-132 (1996) [Google Scholar]

[6] E. Wurtz, F. Deque, L. Mora, E. Bozonnet, S. Trompezinsky. SIM_ZONAL: a software to evaluate the risk of discomfort: coupling with an energy engine, comparison with CFD codes and experimental measurements . Proc. Building Simulation 3: 1423–1428 (2003) [Google Scholar]

[7] E. Wurtz, L. Mora C. Inard. An equation-based simulation environment to investigate fast building simulation. Building and Environment, 41.11: 1571-1583. (2006) [Google Scholar]

[8] A.C. Megri, Y. Yu. New calibrated zonal model (POMA+) for temperature and airflow predictions. Building and Environment, 94.1: 109-121 (2015) [Google Scholar]

[9] A. Daoud, N. Galanis, O. Bellache. Calculation of refrigeration loads by convection, radiation and condensation in ice rinks using a transient 3D zonal model. Applied Thermal Engineering, 28.14: 1782-1790 (2008) [Google Scholar]

[10] J.P. Campana, M. Magni, M. Dongellini, G.L. Morini. The benchmark of a new SIMULINK library for thermal dynamic simulation of buildings. Proceedings of 3rd Building Simulation Applications conference (2017) [Google Scholar]

[11] M. Magni, J.P. Campana, G.L. Morini. Dynamic simulations as a tool for the analysis of the interactions among the controllers of HVAC systems. Proceedings of 3rd Building Simulation Applications conference (2017) [Google Scholar]

[12] C. Wemhöner, B. Hafner and K. Schwarzer. Simulation of solar thermal systems with CARNOT blockset in the environment Matlab Simulink. Proceedings Eurosun 2000, 2000 [Google Scholar]

[13] R.K. Rajput. Heat and Mass Transfer. Tata McGrawhill (1999) [Google Scholar]

[14] M. Magni, J.P. Campana, F. Ochs, G.L. Morini. Numerical investigation of the influence of heat emitters on the local thermal comfort in a room. Building Simulation. DOI: 10.1007/s12273-0.19-0506-8. [PubMed] [Google Scholar]