Load and weather profile, and time simulation impacts for the PEPITE PV/H2 project

C. Darras (1) , Christophe Thibault (1) , Marc Muselli (1, 2) , Philippe Null Poggi (1) , S. Melscoet (1) , Jc Hoguet (1) , Eric Pinton (3) , F. Gailly (4) , Christophe Turpin (5)

1 SPE - Sciences pour l'environnement
2 International Organization for Dew Utilization
3 LITEN - Laboratoire d'Innovation pour les Technologies des Energies Nouvelles et les nanomatériaux
4 LAPLACE - LAboratoire PLasma et Conversion d'Energie
5 LAPLACE-GENESYS - Groupe ENergie Electrique et SYStémique

This paper concerns the impacts of the meteorological data, the choice of the load profile, and the time simulation (1e11 years) on the energy flows and on the H2/O2/H2O storage sizing in a photovoltaic/fuel cell/electrolyzer hybrid system (PEPITE project). The simulations were computed with the ORIENTE software. 4 load profiles have been investigated (3 diurnal and one nocturnal) with an identical daily consumption (26 kWh). According to load profiles, the gap observed between the most favorable and the most disadvantageous years induces H2 storage variations rates between 45.5% and 55.3%. Furthermore, if we compare the most penalizing meteorological year with the sizing when we simulate several successive years, we also obtain variation rates (ration between the standard deviation and the corresponding averaged value) ranges from 24.4 to 37.9% for the 3 diurnal profiles. The nocturnal profile presents specific results because it is unsustainable. The main conclusion of this work is the great importance to consider several consecutive years of tilted irradiation data, 7 in our case, to size the H2/O2/H2O storages.

Mots clés: Hydrogen; Electrolyzer; Hybrid system; Fuel cell; Renewable energy; Photovoltaic

Domaines: Physique Générale [physics.gen-ph]; Ingénierie de l'environnement

C. Darras, Christophe Thibault, Marc Muselli, Philippe Null Poggi, S. Melscoet, et al.. Load and weather profile, and time simulation impacts for the PEPITE PV/H2 project. International Journal of Hydrogen Energy, 2010, 35, pp.10138-10147. ⟨10.1016/j.ijhydene.2010.07.106⟩. ⟨hal-00591010⟩