OPTIMIZATION OF THE ALGORITHM FLOW GRAPH WIDTH IN NEURAL NETWORKS TO REDUCE THE USE OF PROCESSOR ELEMENTS ON SINGLE-BOARD COMPUTERS

The article presents a method for optimizing the algorithm flow graph of a deep neural network to reduce the number of processor elements (PE) required for executing the algorithm on single-board computers. The proposed approach is based on the use of a structural matrix to optimize the neural network architecture without loss of performance. The research demonstrated that by reducing the width of the graph, the number of processor elements was reduced from 3 to 2, while maintaining network performance at 75% efficiency. This approach is significant as it expands the potential applications of neural networks in embedded systems and IoT, enhancing the efficiency of computational resource utilization on devices with limited computational capabilities, ensuring effective use of resources. Keywords: Neural network, algorithm flow graph, algorithm optimization, IoT

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Publication Details

Journal
Komp'ûternì sistemi ta merežì
Published
2024-12-01
DOI
https://doi.org/10.23939/csn2024.02.232
Primary Topic
Neural Networks and Applications
Type
article
Field-Weighted Citation Impact
0.00
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article

OPTIMIZATION OF THE ALGORITHM FLOW GRAPH WIDTH IN NEURAL NETWORKS TO REDUCE THE USE OF PROCESSOR ELEMENTS ON SINGLE-BOARD COMPUTERS

Nataliia Huzynets, Y. Fastiuk
Komp'ûternì sistemi ta merežì
Neural Networks and Applications
article

OPTIMIZATION OF THE ALGORITHM FLOW GRAPH WIDTH IN NEURAL NETWORKS TO REDUCE THE USE OF PROCESSOR ELEMENTS ON SINGLE-BOARD COMPUTERS

Nataliia Huzynets, Y. Fastiuk
article en

Abstract

The article presents a method for optimizing the algorithm flow graph of a deep neural network to reduce the number of processor elements (PE) required for executing the algorithm on single-board computers. The proposed approach is based on the use of a structural matrix to optimize the neural network architecture without loss of performance. The research demonstrated that by reducing the width of the graph, the number of processor elements was reduced from 3 to 2, while maintaining network performance at 75% efficiency. This approach is significant as it expands the potential applications of neural networks in embedded systems and IoT, enhancing the efficiency of computational resource utilization on devices with limited computational capabilities, ensuring effective use of resources. Keywords: Neural network, algorithm flow graph, algorithm optimization, IoT

Komp'ûternì sistemi ta merežìVol. 6(2)
Openalex Percentile: Top 77%
Neural Networks and Applications
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