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Parameter estimation of photovoltaic module using bio-inspired firefly algorithm | IEEE Conference Publication | IEEE Xplore

Parameter estimation of photovoltaic module using bio-inspired firefly algorithm


Abstract:

The current-voltage characteristics of photovoltaic module are non-linear, multivariable and multi-modal and difficult to optimize the electrical intrinsic parameters. Th...Show More

Abstract:

The current-voltage characteristics of photovoltaic module are non-linear, multivariable and multi-modal and difficult to optimize the electrical intrinsic parameters. The conventional methods are incapable to optimize the parameters of photovoltaic module with high accuracy. Recently, the bio-inspired algorithm such as firefly algorithm has attracted the intention to optimize the non-linear and complex systems, based on the flashing patterns and behavior of firefly's swarm. Further, the firefly algorithm is nature-inspired stochastic optimization algorithm is among the most powerful algorithms. Moreover, the firefly algorithm is proposed in this paper to extract the electrical intrinsic parameters of photovoltaic module (Photowatt-PWP 201) in which 36 polycrystalline silicon cells are connected in series, at 45°C and 1000W/m2 from experimental current-voltage. The current predicted values with the photovoltaic module obtained analytical model are in good agreement with the experimental values used for the photovoltaic module parameters estimation.
Date of Conference: 14-17 November 2016
Date Added to IEEE Xplore: 20 July 2017
ISBN Information:
Electronic ISSN: 2380-7393
Conference Location: Marrakech, Morocco
References is not available for this document.

I. Introduction

The behaviour of photovoltaic module in current-voltage and voltage-power has been described by complex and nonlinear analytical equations. The solar module model is complex, with nonlinear function varying with temperature and solar irradiation and difficult to identify its parameters by the conventional methods [1]. Several mathematical models and many studies are focused on the modelling of poly-crystalline [2] solar cell and developing several electric models with different level of complexity. Therefore, it is vital to produce more accurate models that can better reveal the actual behaviour of solar cell and photovoltaic module. Since the photovoltaic module model has double non-linearity in the current-voltage and in the intrinsic parameters, multi-variable and multi-modal problem with many local optima, the analytical methods [3] [4] such as Quasi-Newton method (N-R) [5] can't extract the parameters accurately and require certain conditions such as continuity, convexity and differentiability for being applicable, and due of the nonlinearity of current-voltage makes the analytical optimization techniques unable to effectively solve the parameter identification problem. Therefore, because of their great potentials in solving modern global optimization for nonlinear and complex system, the use of the meta-heuristic stochastic optimization algorithms has received considerable attention recently such as Nelder-Mead and Modified Particle Swarm Optimization (NM-MPSO) [6], pattern search (PS) [7], Genetic Algorithm (GA) [8] and Simulated Annealing algorithm (SA) [9] have been used to extract and identify the parameter estimation issue. However, most of cited algorithms trapped at local points and have large values of errors, and more capable algorithms are still need to extract the optimal parameters for solar cell and photovoltaic modules.

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References

References is not available for this document.