In this article, we discuss the use of Generative Artificial Intelligence (GenAI) to improve the efficiency and performance of access to wireless points located in various spaces and specific places, which allows interaction with wireless mesh networks and allows the use of mobile devices to access to everything types of information in the internal environment. Furthermore, we propose the use of generative neural networks, which are one of the pillars of the GenAI, since they use a methodology from the perspective of Deep Learning, which allows analyzing a large amount of data and detecting certain types of patterns that help a better placement of access points for better reception and connectivity. Images (heat maps), access point locations, positioning points, and bandwidth are analyzed, allowing new information to be created. On the other hand, to understand and model the general architecture of the wireless Ad-Hoc network, we use two processes that are part of neural networks, such as Multilayer Perceptron (MPL), and the Radial Basis Function (RBF), which it is a function of predictors or independent variables or input variables, which allows the prediction error in the object or output variables of the wireless network architecture to be reduced. Using these two processes does help reduce blind spots, in those internal places where the wireless signal does not reach, resulting in a signal drop. Improving internal scenarios with wireless Ad-Hoc networks is what is required for better functioning and performance of the network infrastructure.

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

Generative Artificial Intelligence Using Deep Learning on Wireless Ad-Hoc Networks

  • Antonio Cortés

摘要

In this article, we discuss the use of Generative Artificial Intelligence (GenAI) to improve the efficiency and performance of access to wireless points located in various spaces and specific places, which allows interaction with wireless mesh networks and allows the use of mobile devices to access to everything types of information in the internal environment. Furthermore, we propose the use of generative neural networks, which are one of the pillars of the GenAI, since they use a methodology from the perspective of Deep Learning, which allows analyzing a large amount of data and detecting certain types of patterns that help a better placement of access points for better reception and connectivity. Images (heat maps), access point locations, positioning points, and bandwidth are analyzed, allowing new information to be created. On the other hand, to understand and model the general architecture of the wireless Ad-Hoc network, we use two processes that are part of neural networks, such as Multilayer Perceptron (MPL), and the Radial Basis Function (RBF), which it is a function of predictors or independent variables or input variables, which allows the prediction error in the object or output variables of the wireless network architecture to be reduced. Using these two processes does help reduce blind spots, in those internal places where the wireless signal does not reach, resulting in a signal drop. Improving internal scenarios with wireless Ad-Hoc networks is what is required for better functioning and performance of the network infrastructure.