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4/ On decentralisation, complexity is not to be underestimated. Holistic coverage requires strength across 3 pillars: 🔸Data 🔸Compute 🔸Algorithms Achieving 'DE' aspect in each layer presents its unique challenges, @ASI_Alliance collaboration is purpose-built to tackle them

8/ Notably, @Fetch_ai's ASI-1 highly optimised MMLU has achieved a perf. versatility arguably better than exist. models from industry leaders @OpenAI @deepseek_ai. Ranking top 4/9 across benchmarked sub-domains, ASI-1 stands out as a holistic model suited for enterprise-grade adoption.

9/ With a robust underlying LLM infra, @Fetch_ai is poised to democratise DeAI access across dApps, autonomous agents etc. Not surprising, @InferiumAI announced its strategic integration with ASI-1 Mini to enable perf. analytics for AI inference & agents.

10/ This marks the beginning of a new era of adoption for the @ASI_Alliance ecosystem. Backed by a promising roadmap spanning infrastructure tooling & advanced algorithmic models, 2025 is set to bring a wave of novel innovations. This could redefine the AI x Web3 landscape.

Smart contracts are self-executing contracts with the terms of the agreement written directly into lines of code. They are stored and replicated on a blockchain, a decentralized and distributed ledger technology. Key Characteristics: 1. Autonomous: Smart contracts execute automatically when conditions are met. 2. Decentralized: Smart contracts are stored on a blockchain, making them decentralized and resistant to censorship. 3. Immutable: Smart contracts are immutable, meaning their code cannot be altered once deployed. 4. Transparent: Smart contracts are transparent, with their code and execution visible to all parties. How Smart Contracts Work: 1. Coding: A developer writes the smart contract code in a programming language (e.g., Solidity for Ethereum). 2. Deployment: The smart contract is deployed on a blockchain (e.g., Ethereum). 3. Trigger: A trigger event occurs (e.g., a payment is made). 4. Execution: The smart contract executes automatically, following the predetermined rules. Use Cases: 1. Supply Chain Management: Smart contracts can automate payment and inventory management. 2. Digital Identity: Smart contracts can securely manage digital identities and authentication. 3. Decentralized Finance (DeFi): Smart contracts enable lending, borrowing, and trading of cryptocurrencies. 4. Voting Systems: Smart contracts can ensure secure and transparent voting processes. Benefits: 1. Increased Efficiency: Smart contracts automate processes, reducing the need for intermediaries. 2. Improved Security: Smart contracts are tamper-proof and resistant to censorship. 3. Enhanced Transparency: Smart contracts provide a clear and transparent record of transactions. Challenges and Limitations: 1. Scalability: Smart contracts can be slow and expensive to execute on certain blockchains. 2. Regulatory Uncertainty: Smart contracts exist in a gray area, with unclear regulatory frameworks. 3. Security Risks: Smart contracts can be vulnerable to hacking and exploits. Platforms for Smart Contracts: 1. Ethereum: The most popular platform for smart contracts, with a large developer community. 2. Binance Smart Chain: A fast and low-cost platform for smart contracts, built by Binance. 3. Polkadot: A decentralized platform that enables interoperability between different blockchain networks. Smart contracts have the potential to revolutionize various industries by providing a secure, transparent, and efficient way to execute agreements. However, it's essential to address the challenges and limitations associated with smart contracts to ensure their widespread adoption. Thank you...🙂 $ETH $SOL $BTC $SOON $FARTCOIN $BROCCOLI $BUBB $TUT $BGSC $JELLYJELLY $TSTBSC $CEC $T2T2 $ZZZ $ASI $MGT $PI $ALCH $ARC