Your wifi Router helps AI read your mind and map out the humans in that house for pinpoint attack with 5G
Your WiFi Router helps AI read your mind and maps out the humans in your home for pinpoint attack by 5G
How your WiFi router helps AI read your mind…. (side note: You wait until they start talking about sleep interrogation technology which they’ve had for a very long time
We can now decode dreams and recreate images of faces people have seen, and everyone from Facebook to Elon Musk wants a piece of this mind reading reality
Airport Scanners Show something People’s Arms And Brains!!
AI Routers & Network Mind: A Hybrid Machine
Q-routing (DRQ-routing), which uses information gained through backward and forward exploration to
accelerate the convergence speed. In [11], [12], Reinforcement Learning (RL) was successfully applied
in wireless sensor network routing, where the sensors and sink nodes could self-adapt to the network
environment. However, in a multiagent system, single-agent RL suffers from severe non-convergence.
Instead, applying multiagent RL to improve the cooperation among network nodes is more feasible, and
there have been a series of works on ML-driven routing based on multiagent RL.
2.1.2 Multiagent Reinforcement Learning
In [13], [14], Stone et al. proposed the Team-Partitioned Opaque-Transition RL (TPOT-RL) routing algo-
rithm, which allows a team of network nodes working together toward a global goal to learn how to
perform a collaborative task. In [15], Wolpert et al. designed a sparse reinforcement learning algorithm
named the Collective Intelligence (COIN) algorithm, in which a global function is applied to modify the
behavior of each network agent. In contrast, the author of [16] proposed a Collaborative RL (CRL)-based
routing algorithm with no single global state. The CRL approach was also successfully applied for delay-
tolerant network routing in [17]. However, in an inherently distributed system, state synchronization
among all routers is extremely difficult, especially with increasing network size, speed, and load. With
the development of SDN technology, centralized AI-driven routing strategies have received considerable
attention.
2.2 Centralized Routing
In [18], Stampa et al. proposed a deep RL (DRL) algorithm for optimizing routing in a centralized
knowledge plane. Benefiting from the global control perspective, the experimental results showed very
promising performance. In [19], Lin et al. applied the SARSA algorithm to achieve QoS-aware adaptive
routing in multilayer hierarchical software-defined networks. For each flow, the controller updated the
optimal routing strategy based on the QoS requirements and issued the forwarding table to each node
along the forwarding path. In [20], Wang et al. proposed a RL-based routing algorithm for Wireless Sensor
Networks (WSNs) named AdaR. In AdaR, Least-Squares Policy Iteration (LSPI) is implemented to achieve
the correct tradeoff among multiple optimization goals, such as the routing path length, load balance, and
retransmission rate. However, the overhead incurred for centralized AI control is high.
3 AI-DRIVEN NET WORK ROUTING
In this section, we first propose a three-layer logical functionality architecture for AI-driven networking.
Then, we discuss the problem of how far away the intelligent control plane can be located from the
Mind-reading AI turns thoughts into words using a brain implant
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