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A New Spinach Respiratory Prediction Method Using Particle Filtering Approach | IEEE Journals & Magazine | IEEE Xplore

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A New Spinach Respiratory Prediction Method Using Particle Filtering Approach


SIR particle filtering structure (N particles) for spinach respiratory prediction: particle initialization, particle prediction (state transition), particle weight calcul...

Abstract:

Nowadays, agricultural and food technology require the integration of advanced computer technology and sophisticated computational approach for enhancing the characteriza...Show More

Abstract:

Nowadays, agricultural and food technology require the integration of advanced computer technology and sophisticated computational approach for enhancing the characterization and quality of produces and their products. Huge amount of data was gathered and it needs to be processed and analyzed with confidence that the useful information is being extracted accurately. Therefore, sophisticated computing methods are the most important parts of the overall system. Particle filtering has been recognized as an efficient tool to deliver the accurate state model prediction especially in highly nonlinear and non-Gaussian dynamical systems. In this work, a particle filter (PF) was designed for parameter estimation of respiratory of spinach storage under modified atmosphere. The Michaelis-Menten model was examined in this work for spinach respiratory mechanism under different atmospheric storage conditions to illustrate the performance of the method. The estimating results from the PF were compared to the conventional estimation techniques widely used in literature. From the experimental and computational results, we found that the particle filtering method delivers higher accuracy, outperforming the existing conventional regression method and the extended Kalman filter.
SIR particle filtering structure (N particles) for spinach respiratory prediction: particle initialization, particle prediction (state transition), particle weight calcul...
Published in: IEEE Access ( Volume: 7)
Page(s): 131559 - 131566
Date of Publication: 12 September 2019
Electronic ISSN: 2169-3536

Funding Agency:


References

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