AI Game Theory explained for Multi-Agents
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Published 2024-08-03
From Multi-Agent reinforcement Learning (MARL) to Multi-Agent Imitation Learning (MAIL): new insights to build more intelligent Ai devices that generate value.
New Financial Investment AI devices
The video discusses the application of multi-agent intelligent systems in financial investment, highlighting the shortcomings of traditional AI models in capturing the strategic interactions within financial markets. Traditional financial AI models often fail because they neglect the dynamic interplay between market participants, including institutional investors, hedge funds, individual traders, and automated algorithms. The speaker proposes using game theory, specifically the concept of correlated equilibrium, to enhance AI's ability to anticipate and respond to market dynamics. The shift from value equivalence, which mirrors past performance, to regret equivalence aims to minimize potential losses by considering counterfactual scenarios. New algorithms, MALICE and BLADE, are introduced to address these challenges, leveraging imitation learning and counterfactual information to better navigate the complexities of financial markets.
More powerful Cybersecurity AI
In cybersecurity, the video underscores the need for proactive AI systems capable of anticipating and mitigating threats, rather than merely reacting to past incidents. The Microsoft global IT outage is cited as a case where traditional cybersecurity measures fell short. The proposed solution involves developing AI systems that can understand and predict the motivations and actions of cyber attackers. This requires moving from value equivalence to regret equivalence, focusing on minimizing potential damage from unforeseen attacks. By employing multi-agent imitation learning and Markov games, the AI can simulate strategic interactions and deploy pre-emptive countermeasures. The algorithms MALICE and BLADE are repurposed here to enable AI to actively seek insights from expert responses to novel attack strategies, aiming to create a resilient cybersecurity infrastructure.
Markov Game based Multi-Agent Imitation Learning with creative AI Agents? Disobey your central intelligence!
The video explains the distinction between multi-agent reinforcement learning and multi-agent imitation learning, emphasizing the latter's utility in scenarios where defining explicit reward functions is challenging. Multi-agent imitation learning involves AI agents learning by observing and mimicking the actions of expert demonstrators. The framework of Markov games is utilized to model the interactions between multiple agents in a shared environment, incorporating elements of game theory and decision-making under uncertainty. The objective is to minimize the regret gap, ensuring that AI agents not only match expert performance but also explore new strategies within defined boundaries. This approach is illustrated through practical examples, including autonomous vehicles and Mars rovers, highlighting the potential for combining imitation learning with reinforcement learning to enhance AI adaptability and decision-making in complex environments.
Regarding MALICE and BLADE (all rights w/ authors):
Multi-Agent Imitation Learning:
Value is Easy, Regret is Hard
arxiv.org/pdf/2406.04219v1
00:00 Beyond Imitation Learning
00:15 New Investment AI devices
05:39 Adaptive Cyber Defense AI (next gen)
11:43 Multi-Agent Reinforcement Learning
13:51 Multi-Agent Imitation Learning - MAIL
16:36 Markov Game Theory
21:37 Value Equivalence for MAIL
24:20 Regret Gap explained
30:44 Value Equivalence and Regret Minimization
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All Comments (4)
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Thank you for an outstanding intro and an explanation to the paper. I already see application of this in my field of work.
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Thank you for explaining these advanced AI agent, self learning concepts so clearly! You are appreciated!!
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hello sir, i just saw your video on finetuning the t5 model for summerization and it was the best tutorial. Can you also make tutorial on finetuning BART model for summerization as well please??i have a college project for finetuning bart and cant figure out how to do it, it will be a huge help if you make a video on int
