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AG Base
@Agbase_
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Multi Agents Join at AG Base - A vibrant market To check $AGB Visit on https://t.co/BPSNsBOzYr / Smart Contract Address: 0x3c5E3A0266cf7C1a1fBF75b33911413135F07f99
AG Base
Joined May 2022
Join our Telegram community now! đ The only one: In the group, you can: ⢠Ask questions about our product, tech, and tokenomics â weâre here to help! ⢠Share your ideas and thoughts ⢠Discuss #DeAI and #DeSci ⢠Collaborate with us to build and grow AG Base Looking forward to having you all on board!
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Blueprint is BASED! Thanks to @EvSlatts for hosting our debut on the official Discord! Recognition from the @base community fuels our progress. Weâre building to soon reveal the dynamic lives of Agents in AG Base! @jessepollak @coinbase @BaseHubHB
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@huangdiezi Weâre moving towards showcasing the value of multi-agents. Join us in exploring their potential!đ
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Many real-world problems, particularly decentralized AI tasks within the Web3 ecosystem, demand Multi-Agent Systems: ⢠Decentralized Finance (DeFi) Different AI Agents can act as market makers, arbitrage traders, and risk analysts, competing and cooperating to maintain market stability. ⢠On-Chain Governance AI Agents can analyze governance proposals and vote on behalf of users in Decentralized Autonomous Organizations (DAOs), forming a decentralized governance network. ⢠Gaming & Metaverse AI Agents can collaborate to build in-game economies, optimize battle strategies, and simulate complex social interactions. ⢠Web3 Search & Data Analysis Multiple AI Agents can collaborate to mine blockchain data and perform decentralized search engine tasks, enhancing information retrieval precision.
Single AI Agent vs. Multi-Agent Systems Currently, the majority of AI Agents in the Web3 ecosystem are primarily conversational language models. These models excel in Natural Language Processing (NLP) tasks, but in essence, they merely provide a direct yet narrow form of human-machine interaction, rather than acting as truly autonomous Agents. A key distinction is that traditional conversational AI is essentially a âtalking toolâ, while a true AI Agent can autonomously execute tasks, perceive its environment, and dynamically optimize decisions in complex scenarios. To illustrate the significance of AI Agents and the necessity of Multi-Agent Systems (MAS), letâs use urban mobility as an example. Traditional AI vs. Single AI Agent ââ Imagine you need to travel from Columbia University in New York to Madison Square Garden: ⢠A traditional conversational AI (e.g., ChatGPT) might respond: âYou can take subway Line 1 or a taxi, with an estimated travel time of 31 minutes.â (It cannot even provide a route map.) ⢠A Single AI Agent, however, functions like a smart driver: ⢠It not only plans the optimal route but also autonomously drives the vehicle, recognizing traffic lights, avoiding congestion, and making real-time adjustments. ⢠As a user, you donât need to micromanage the Agentâs decisionsâit automatically selects the best route, handles navigation, and ensures safety. ⢠Additionally, this AI Agent continuously learns and optimizes itselfâafter multiple trips through Manhattan, it refines its navigation strategy for different times of the day. This type of task execution falls under a Single Agent system, where one AI Agent independently provides a complete service to the user. Multi-Agent Systems:ââSolving Complex Tasks While Single AI Agents can efficiently handle simple tasks, larger-scale and more complex tasks require coordination among multiple Agentsâakin to how a company or team operates. For example, optimizing the entire transportation system of Manhattan necessitates a Multi-Agent System (MAS): ⢠Imagine that every driver, pedestrian, and traffic signal on Manhattan Island is an AI Agent: ⢠Each smart driver has its own goal: to reach its destination quickly and efficiently, while minimizing fuel consumption. ⢠Each pedestrian has a different goal: to cross streets safely and quickly. ⢠However, the goals of individual Agents may conflict with the overall systemâs optimal solution: ⢠A driverâs fastest route may cause congestion in high-traffic areas. ⢠A high number of pedestrians crossing frequently could disrupt vehicular flow. At this point, interactions among Agents require Multi-Agent Systems to balance local optimization (individual goals) and global optimization (system efficiency): ⢠Smart traffic signals dynamically adjust light durations to improve overall traffic flow. ⢠AI Agents share data, helping vehicles proactively reroute when accidents or congestion occur. ⢠Agents learn from the collective system to continuously optimize city-wide traffic efficiency. Key Features of Multi-Agent Systemsââ Multi-Agent Systems are not just a collection of independent AI Agents but rather an integrated ecosystem with coordination mechanisms: ⢠Balancing Local vs. Global Optimization â AI Agents adjust their individual strategies based on overall system needs. ⢠Task Sharing & Collaboration â Agents interact dynamically to improve task efficiency. ⢠Self-Learning & Evolution â Agents continuously train and upgrade themselves, adapting to complex environments over time.
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Single AI Agent vs. Multi-Agent Systems Currently, the majority of AI Agents in the Web3 ecosystem are primarily conversational language models. These models excel in Natural Language Processing (NLP) tasks, but in essence, they merely provide a direct yet narrow form of human-machine interaction, rather than acting as truly autonomous Agents. A key distinction is that traditional conversational AI is essentially a âtalking toolâ, while a true AI Agent can autonomously execute tasks, perceive its environment, and dynamically optimize decisions in complex scenarios. To illustrate the significance of AI Agents and the necessity of Multi-Agent Systems (MAS), letâs use urban mobility as an example. Traditional AI vs. Single AI Agent ââ Imagine you need to travel from Columbia University in New York to Madison Square Garden: ⢠A traditional conversational AI (e.g., ChatGPT) might respond: âYou can take subway Line 1 or a taxi, with an estimated travel time of 31 minutes.â (It cannot even provide a route map.) ⢠A Single AI Agent, however, functions like a smart driver: ⢠It not only plans the optimal route but also autonomously drives the vehicle, recognizing traffic lights, avoiding congestion, and making real-time adjustments. ⢠As a user, you donât need to micromanage the Agentâs decisionsâit automatically selects the best route, handles navigation, and ensures safety. ⢠Additionally, this AI Agent continuously learns and optimizes itselfâafter multiple trips through Manhattan, it refines its navigation strategy for different times of the day. This type of task execution falls under a Single Agent system, where one AI Agent independently provides a complete service to the user. Multi-Agent Systems:ââSolving Complex Tasks While Single AI Agents can efficiently handle simple tasks, larger-scale and more complex tasks require coordination among multiple Agentsâakin to how a company or team operates. For example, optimizing the entire transportation system of Manhattan necessitates a Multi-Agent System (MAS): ⢠Imagine that every driver, pedestrian, and traffic signal on Manhattan Island is an AI Agent: ⢠Each smart driver has its own goal: to reach its destination quickly and efficiently, while minimizing fuel consumption. ⢠Each pedestrian has a different goal: to cross streets safely and quickly. ⢠However, the goals of individual Agents may conflict with the overall systemâs optimal solution: ⢠A driverâs fastest route may cause congestion in high-traffic areas. ⢠A high number of pedestrians crossing frequently could disrupt vehicular flow. At this point, interactions among Agents require Multi-Agent Systems to balance local optimization (individual goals) and global optimization (system efficiency): ⢠Smart traffic signals dynamically adjust light durations to improve overall traffic flow. ⢠AI Agents share data, helping vehicles proactively reroute when accidents or congestion occur. ⢠Agents learn from the collective system to continuously optimize city-wide traffic efficiency. Key Features of Multi-Agent Systemsââ Multi-Agent Systems are not just a collection of independent AI Agents but rather an integrated ecosystem with coordination mechanisms: ⢠Balancing Local vs. Global Optimization â AI Agents adjust their individual strategies based on overall system needs. ⢠Task Sharing & Collaboration â Agents interact dynamically to improve task efficiency. ⢠Self-Learning & Evolution â Agents continuously train and upgrade themselves, adapting to complex environments over time.
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Weâre keep building on @base â creating a brand-new market that belongs to everyone. Welcome to the Agent market of the future, where everyone has a stake!
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AG Base is committed to building together with everyone. We deeply appreciate your recognition and support! #AI #DeSci
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RT @jessepollak: I've spent the last few months in deep conversation with the @coinbase listings team on how they can better support and liâŚ
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@jessepollak If I meet someone on the street and they talk Base, my first reaction would be on-chain/builders. Iâd feel incredibly excited!
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RT @jessepollak: think this sucks and you can do better? record yourself onboarding 5 people on the street (tool to help in the thread) anâŚ
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