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yetecevm (❖,❖)

yetecevm (❖,❖)

@yetecevm2

Second account @yetecevm contribute @ritualnet

web3 Katılım Ocak 2026
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yetecevm (❖,❖)
yetecevm (❖,❖)@yetecevm2·
my main account @yetecevm I want to explain the reason why I created a second x account. because the main x account was shadow banned which made my posts invisible. it took a week to recover I want to continue contributing. Im feeling bad if I didn't post a daily @ritualnet
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Skyzee (❖,❖)
Skyzee (❖,❖)@SuperSkyzee·
In Ep #6, we broke down how Ritual solves the manipulation risk in on-chain AI computation through Modular Computational Integrity. We explored the three proving mechanisms developers can choose from (ZK Proofs, Optimistic Fraud Proofs, and TEEs), and why modular design matters more than one-size-fits-all security. The core idea is making sure AI computation results can't be spoofed by rogue nodes. But securing computation integrity is only half the puzzle. What good is a secure AI if it can't act on its own without external triggers? Welcome to @ritualnet Deep Dive Eps #7 : The Automation Era, Scheduled Transactions & Smart Agents. In the conventional blockchain world, there's an open secret that's rarely discussed, smart contracts are fundamentally asleep. They lack the internal ability to independently decide when to wake up, monitor market price movements, or execute routine functions. For a smart contract to work, an external party (a user with a crypto wallet) or a centralized script bot must send a transaction and pay gas fees to trigger it. This is what I call The Sleeping Beauty Problem. In today's DeFi ecosystem, if you want to run automated tasks like liquidating underwater loans, harvesting yield farming rewards every 24 hours, or rebalancing a portfolio, you as a developer are forced to rely on third party Keeper networks (like Gelato Network) or even depend on cron jobs on centralized Web2 AWS servers. This fundamentally creates a single point of failure. If that external server goes down or your Keeper bot runs out of gas funds, your dApp's entire automation system collapses completely. Ritual understands that automation dependent on centralized Web2 entities is not a reflection of the true Web3 future. Therefore, this network has overhauled the fundamental EVM architecture by embedding automation functionality directly at their base protocol level. Within the Ritual ecosystem, transactions can be specially configured for recurring or conditional smart contract function calls. This revolutionary innovation is called Scheduled Transactions. Thanks to this native functionality, execution can occur automatically and purely on-chain without relying whatsoever on external keeper intervention. Smart contracts on the Ritual network can truly wake themselves up autonomously when certain time parameters are reached or when specific blockchain state conditions are met. Now, let's combine all the infrastructure foundations we've thoroughly dissected in previous episodes. When you marry EVM++ Sidecars (the network's ability to process heavy AI models directly on-chain) with Scheduled Transactions (the contract's ability to move autonomously without external triggers), you no longer just have ordinary smart contracts. You've just given birth to a new operational entity, Smart Agents. These Smart Agents aren't just rigid static trading algorithms like typical arbitrage bots. We're talking about fully autonomous intelligent agents, living permanently inside the blockchain, capable of managing their own crypto wallets, and possessing an AI brain to process data and make complex financial decisions in realtime. The ability to deploy autonomous Smart Agents opens portals to various next generation decentralized applications: 1️⃣ Autonomous & Dynamic DeFi Vaults: Imagine a DeFi vault that doesn't just lock funds, but continuously analyzes global market sentiment in realtime through AI models on Sidecars. Using Scheduled Transactions, this vault can independently move funds to liquidity pools with the safest and highest yields, then adjust its risk tolerance levels without any human developer intervention whatsoever. 2️⃣ Frictionless DAO Treasury Management: A Decentralized Autonomous Organization (DAO) can lock their AI governance models on-chain. These AI models can be scheduled to automatically distribute salaries to contributors, adjust monthly marketing budgets, and even sell treasury assets to protect cash value based on community approved risk parameters, all done trustlessly without waiting for slow, bureaucratic human executive multisig processes. 3️⃣ Living Web3 Gaming NPCs: In future on-chain games, Non Playable Characters (NPCs) no longer move based on monotonous If-Then scripts. They are Smart Agents that continuously patrol, learn and adapt to human players' economic tactics, respond to ingame economic conditions, and even autonomously negotiate asset trades thanks to protocol level automation. By eliminating the need for external bots and embedding AI automation natively, Ritual isn't just saving infrastructure costs for developers. They're laying the most crucial foundation for a machine to machine economy in the Web3 landscape. This is a new era where AI agents and smart contracts can transact, collaborate, and evolve independently atop a trustless, censorship resistant computing network. What use case hits different for you? Drop a comment below 🤔 📚Source: Official Ritual Documentation ritualfoundation.org/docs/ The series continues. Stay locked in. 🕯️
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Skyzee (❖,❖)@SuperSkyzee

In Ep #5, we broke down how Ritual protects AI developers through Verifiable Provenance and on-chain monetization. The core idea is making sure your AI model doesn't get stolen. But securing the model itself isn’t enough if the computational results can be manipulated mid execution. Imagine an on-chain AI model managing your multi million dollar DeFi portfolio. Suddenly, without warning, that AI commands a smart contract to dump all your assets into a single anonymous wallet. How do you know that was purely a logical algorithmic decision, and not the result of a rogue node runner manipulating the data to drain your funds? Welcome to @Ritualnet Deep Dive #6 : Modular Computational Integrity & Defeating Rogue Nodes. In the Web2 world, AI is a secret black box. You feed it a prompt, you get an answer, but you never actually know the mathematical processes happening inside that massive corporate server. You are forced into blind trust. But in Web3, our core mantra is, Don't trust, verify. The problem is, reverifying an AI computation involving billions of parameters directly on a blockchain is technically and financially impossible. If we delegate this AI processing to external off-chain nodes, what’s the guarantee those nodes won’t spoof the results for their own financial gain? To solve this fatal manipulation risk, Ritual introduces a fundamental concept called Modular Computational Integrity. Instead of forcing the entire ecosystem and its developers into one rigid security standard, Ritual designed its architecture to be completely modular. This approach acknowledges reality, not all decentralized applications (dApps) require the same level of security, compute cost, or execution speed. Ritual gives developers the absolute freedom to choose and stack the proving mechanisms that best fit their specific business models and use cases. Within this modular integrity framework, dApp builders can secure their AI computations through three highly adaptable options. The first option is Zero-Knowledge Proofs for absolute cryptographic guarantees. If a dApp handles high value financial transactions, like an autonomous DeFi lending protocol or AI controlled on-chain insurance, developers can opt for ZK proofs. ZK provides absolute mathematical proof that the AI computation was executed exactly according to the original model, with zero data leakage or logic manipulation. This is the highest level of unhackable security, though it demands more time and compute costs. The second option is Optimistic Fraud Proofs, leaning on game theory and economic guarantees. For use cases requiring high speed and low costs, like AI driven NPC movements in Web3 games or SocialFi apps, developers can use the Optimistic model. The default assumption is that all network nodes act honestly. But, if a node is caught lying or returning fake AI results, other validator nodes can submit a Fraud Proof to the main network. This instantly slashes and confiscates the crypto assets of that rogue node. The third option relies on Trusted Execution Environments (TEE) as a hardware guarantee. Heavy computations can also prove their integrity by running inside highly isolated hardware safes (enclaves). TEEs send cryptographic attestations to the main network, proving that the AI matrix code running inside that hardware was never intervened with, altered, or even snooped on by outsiders, not even by the physical owner of the server itself. Why is this modular design so brilliant? The answer is simple, because the landscape of AI and ZK cryptography is evolving at an exponential rate. If cryptographers invent a brand new integrity proving method next year that is significantly lighter and faster than current ZK or Optimistic proofs, the Ritual network won't need to tear down its entire blockchain architecture with a massive hard fork. The network can simply add this new proving module like a plug and play Lego brick. With Modular Computational Integrity, Ritual isn't just securing on-chain AI for today's infrastructure. They are effectively building a decentralized compute ecosystem that is immune to technological obsolescence and ready to absorb any future innovation The series continues. Stay locked in. 🕯️ __________________________ 📚 Source: Official Ritual Documentation ritualfoundation.org/docs/ @joshsimenhoff @Jez_Cryptoz @0xMadScientist @dunken9718 @cryptooflashh #Ritual #AI #Blockchain #Verify

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jepannyaa (❖,❖)
jepannyaa (❖,❖)@jepannyaa·
gRitual This is Part #43 Drawing Ritual PFP 📷 : @batagor Ritual isnt just a model execution, Its a structured invocation . The model is called,logic is executed, output is produced, and state is written onchain. Without structure, infinity is just unbounded chaos. With structure, computation becomes organized force. Modern wars arent won by whoever is strongest, theyre won by whoever is most coordinated. Ritual doesnt add power it disciplines power #gRitual @ritualfnd @ritualnet
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jepannyaa (❖,❖)@jepannyaa

gRitual This is Part #42 Drawing Ritual PFP 📷 : @rizann67 How important Privacy Preserving LLM Inference? The goal is simple Let a third party run the model without them being able to see your input. Approaches like Secure Multi Party Computation (SMPC) offer a cryptographic solution by splitting the data across multiple servers, ensuring that no single party can reconstruct or read the full input. Without privacy preserving inference, AI will always rely on trust. And in centralized systems, trust always has limits. The future of AI isnt just about building smarter models. Its about whether your data remains yours when the model runs. #gRitual @ritualnet @ritualfnd

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callmehannn
callmehannn@callmehannnnnnn·
AI Needs a New Fee Market And Resonance Solves It 1). Introduction Blockchains create markets for trusted computation. In the early days that market was simple, users submitted transactions, paid fees, and validators included the highest bidders in blocks. The model worked because most transactions were computationally similar. But as blockchain technology evolved, computation became more complex, and now with AI entering the picture, the old fee market designs are no longer enough. This is where Resonance comes in. 2). From Simple Transactions to Smart Contracts On Bitcoin, transactions were relatively uniform. Sending 1 BTC or 10 BTC didn’t significantly change computational cost, the fee market could simply prioritize higher fees. With Ethereum computation became variable. Smart contracts introduced operations with different levels of complexity. Gas was introduced to measure resource usage, and later EIP-1559 refined how fees are determined. Over time upgrades like EIP-4844 introduced additional resource dimensions, while networks such as Solana optimized execution through parallel processing. Despite these improvements, one assumption remained computation could still be reduced to standardized resource metrics. 3). The Challenge of Heterogeneous AI Compute AI workloads are fundamentally different from traditional blockchain transactions. They may require : - GPUs instead of CPUs - Specialized hardware - Large memory allocations - Multi node coordination - Nonlinear execution costs There is no single universal metric that accurately captures these differences, AI computation is heterogeneous and often nonfungible. This creates a coordination challenge : - Which tasks should be executed? - Which nodes should execute them? - How should pricing be determined? - How can fairness and efficiency be maintained? 4). Resonance function? Resonance developed within Ritual, is designed to handle heterogeneous computation directly. Instead of forcing all tasks into a single gas metric, Resonance treats the network as a two sided marketplace Demand side Users submit AI tasks and specify how much execution is worth to them. Supply side Nodes offer compute resources with their own hardware configurations and cost structures. Resonance matches supply and demand in a way that : - Maximizes overall value creation - Allocates tasks efficiently - Compensates nodes fairly - Maintains verifiability and decentralization 5). Why This Matters for Ritual Ritual is building decentralized AI execution infrastructure. That includes : - Model inference - Proof generation - Privacy preserving computation - Hardware specific execution Without a mechanism like Resonance, coordinating this complexity at scale would be inefficient or economically unstable. 6). Conclusion Blockchain fee markets have evolved from simple transaction auctions to more sophisticated resource pricing systems. But AI introduces a new level of heterogeneity that demands an even more advanced coordination mechanism. Resonance represents that next evolution. gRitual💚 @ritualnet @ritualfnd
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Ritual × Arweave Decentralized Storage for Trustless AI AI sovereignty isn’t just about decentralized execution. It’s also about where models live, how their data is stored, and whether their history can be trusted. That’s why the integration between Ritual and Arweave is a meaningful step forward for decentralized AI infrastructure. Through this collaboration, Ritual brings permanent, trustless storage into its AI stack ensuring that models, proofs, and data remain immutable and verifiable over time. • Why Storage Matters for Decentralized AI AI models are more than just code. They evolve, get finetuned, generate outputs, and produce proofs. When this entire lifecycle depends on centralized servers, it introduces trust assumptions and single points of failure. By integrating Arweave, Ritual ensures that : > AI models can be stored permanently > Metadata and proofs remain tamper-proof > Historical versions are preserved > Data is accessible across the ecosystem • How Arweave Integrates Into the Ritual Stack The integration spans both Ritual Chain and Infernet in two key ways : Storage Layer for AI Models Arweave functions as a decentralized storage layer for AI models. Nodes within the Ritual network can dynamically upload and download models directly from Arweave. This removes reliance on centralized hosting providers and enables transparent model versioning. Every update can be preserved, creating an immutable record of development over time. Permanent Storage for Artifacts and Metadata AI systems generate critical artifacts such as : > Model metadata > Proof related data > Privacy artifacts > Zero knowledge programs > NFT assets > Static application data Arweave serves as the permanent repository for these artifacts. Ritual Chain nodes can asynchronously reference this data for verification, compliance, or proof validation workflows. • Dedicated Arweave Bundlers To ensure efficient processing of storage requests, Ritual and Arweave are collaborating on Dedicated Arweave Bundlers. These bundlers aggregate multiple storage transactions into optimized batches before submission to the Arweave network. The result is improved reliability, streamlined workflows, and greater efficiency for developers building on Ritual. • Unlocking a New AI Primitive The integration enables new design possibilities for decentralized AI applications. Model Versioning and Provenance For applications requiring auditability such as DeFi protocols or governance systems maintaining a transparent history of model updates is critical. Arweave provides an immutable ledger of model development, ensuring full traceability and integrity verification. • Verifiable AI Through ZK Artifacts Zero knowledge proofs are increasingly important for verifying AI computations. By storing ZK programs and their associated metadata on Arweave, Ritual ensures these artifacts remain transparent and tamper proof. Users can independently verify computation results long after execution. • Immutable Vector Database Storage For RAG based workflows, the integrity of embeddings and source data is essential. By storing vector data immutably on Arweave, Ritual enables : > Permanent embeddings > Verifiable source data > Auditable AI responses • Advancing AI Sovereignty True AI sovereignty requires decentralization across the full stack execution, storage, proofs, and historical data. Ritual provides decentralized AI execution infrastructure, arweave provides permanent, censorship resistant storage. • Looking Forward This integration unlocks new opportunities for : > Fully auditable AI agents > Permanent AI artifacts > Trustless model distribution > Compliance ready decentralized AI systems As decentralized AI continues to evolve, integrations like Ritual × Arweave demonstrate how infrastructure layers can combine to enable more secure, transparent, and resilient applications. gRitual💚 @ritualnet @ritualfnd

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nat die (! 𝕜𝕒𝕞𝕒𝕝𝕫) | (❖,❖)
gRitual fren Most blockchains were built to process transactions not run complex computation. If every node has to repeat the same heavy task (like AI inference), it becomes extremely inefficient. That’s why a new idea is emerging: Expressive Blockchains. Networks where nodes can specialize in different types of compute. Projects like @ritualnet are exploring this direction turning blockchains into real infrastructure for AI. @ritualfnd @Jez_Cryptoz
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Raka (❖,❖)
Raka (❖,❖)@NineMay_ID·
Ever wondered how AI models actually "talk" to data on the blockchain? Most setup are stuck with one storage type, which is super limiting but Ritual Modular Storage Integration change the game, think of it like a "universal adapter" or a menu of plugin. Instead of being locked in Ritual lets smart contract directly read and verify massive datasets whether they’re on Web2 (like Hugging Face) or Web3 (like Arweave). No messy infra just seamless data flow for AI powered dApps, it’s basically the bridge that unite Web2 and Web3 data for onchain use! @ritualnet | @ritualfnd #RitualComic edition w/ @puffssrenjn
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