Publications by authors named "Heron Molina-Lozano"

A Kalman filter can be used to fill space-state reconstruction dynamics based on knowledge of a system and partial measurements. However, its performance relies on accurate modeling of the system dynamics and a proper characterization of the uncertainties, which can be hard to obtain in real-life scenarios. In this work, we explore how the values of a Kalman gain matrix can be estimated by using spiking neural networks through a combination of biologically plausible neuron models with spike-time-dependent plasticity learning algorithms.

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Clustered-based wireless sensor networks have been extensively used in the literature in order to achieve considerable energy consumption reductions. However, two aspects of such systems have been largely overlooked. Namely, the transmission probability used during the cluster formation phase and the way in which cluster heads are selected.

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Noise levels of common sources such as vehicles, whistles, sirens, car horns and crowd sounds are mixed in urban soundscapes. Nowadays, environmental acoustic analysis is performed based on mixture signals recorded by monitoring systems. These mixed signals make it difficult for individual analysis which is useful in taking actions to reduce and control environmental noise.

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Synopsis of recent research by authors named "Heron Molina-Lozano"

  • Heron Molina-Lozano's research primarily focuses on the integration of advanced computational techniques, such as spiking neural networks, to improve system modeling and performance in various applications, including sensor networks and environmental monitoring.
  • A significant finding from his work on Kalman filtering is the potential of spiking neural networks to estimate Kalman gain matrix values, enhancing the accuracy of state-space reconstruction in real-world scenarios.
  • Additionally, his studies on wireless sensor networks highlight the importance of optimizing cluster formation and transmission probability, addressing gaps in energy efficiency and improving network performance.