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$PROVE The Private Social Graph: A DeSo Vision Powered by Succinct The Problem of Data Exploitation in Social Media As a social network architect, the core challenge is balancing user connectivity with data privacy. The Succinct ($PROVE ) protocol offers a paradigm shifting solution for Decentralized Social (DeSo). It enables the creation of a **private but interoperable social graph** using Zero Knowledge proofs. ## Verifiable Connections, Private Data Imagine a future where you can prove to a new application that you have over 10,000 followers or are a member of a specific DAO, all without revealing your entire list of connections or wallet contents. This is possible with ZK verifiable credentials. Users maintain sovereignty over their social graph, selectively disclosing proofs of their status when needed. The technology from @Succinct provides the foundation for a more private, equitable, and user-centric social media landscape. #SuccinctLabs @Succinct #prove
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$C The "Gasless" User Experience: How Account Abstraction Relies on Data Infrastructure A Technical Look at ERC-4337 $C The vision of "gasless" transactions, where users can interact with dApps without needing to hold a wallet's native gas token (like ETH), is one of the most important user experience upgrades in Web3. This is primarily enabled by a new standard called ERC-4337, or "Account Abstraction." However, this entire system relies on a specialized piece of data infrastructure to function. Here's how it works: 1. The User Action: A user wants to perform an action, like buying an NFT. They sign a "UserOperation" message, which is like a pre-approved transaction. 2. The Mempool for UserOps: This UserOperation is not sent to the normal Ethereum mempool. It is sent to a separate, specialized mempool just for these kinds of messages. 3. The Bundler: A specialized actor called a "Bundler" is constantly monitoring this special mempool for new UserOperations. The Bundler's job is to package these operations into a normal transaction and pay the gas fee on the user's behalf. The Bundler is then reimbursed, often by the dApp itself. The Critical Infrastructure: The Bundler's ability to efficiently monitor this separate mempool is a specialized data challenge. The low-latency data streams from @Chainbase Official are essential for Bundlers, who are in a competitive, time-sensitive environment. By providing a reliable stream of UserOperations, Chainbase provides the core infrastructure that enables the entire ERC-4337 ecosystem, which is now processing over 1.5 million gasless transactions per day. #Chainbase @Chainbase Official
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$KAVA The On Chain Forex Market: A Kava Thesis A New Kind of Foreign Exchange From a forex trader's perspective, the Kava ($KAVA ) network is quietly building the infrastructure for a new type of foreign exchange market. In this market, the "currencies" are not fiat, but the premier assets of major blockchain ecosystems, such as ETH and ATOM. Kava's unique architecture, supporting both EVM and Cosmos assets natively, positions it to become the primary on-chain venue for these "crypto forex" pairs. The Epicenter of Price Discovery By fostering deep liquidity for pairs like ETH/ATOM, Kava can become the epicenter for cross ecosystem price discovery. This attracts sophisticated trading firms who seek to arbitrage price differences between Kava's internal markets and external venues, driving immense, sustainable transaction volume. The long-term vision for @kava is not just to be a bridge, but to be the central exchange where the relative value of entire blockchain economies is priced in real time. #KavaBNBChainSummer @kava
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$LA The Scalability Trilemma for ZK Coprocessors An Architectural Deep Dive on Lagrange's Design $LA The world of ZK coprocessors, which provide verifiable computation for blockchains, faces its own version of the scalability trilemma. A network must balance decentralization, performance (latency), and cost. The architecture of @Lagrange Official is specifically designed to navigate these trade-offs. 1. Decentralization (The Prover Network): To prevent censorship and ensure liveness, a coprocessor must have a large, permissionless set of provers. Lagrange is designed to support a network of hundreds of independent provers, ensuring no single entity can control the system. 2. Performance (Latency): For many applications, the speed of proof generation is critical. A key innovation in Lagrange's design is "proof pipelining." This allows different stages of the proof generation process to be worked on simultaneously by different provers, much like an assembly line. This parallel workflow can reduce the end-to-end latency for a complex state proof by over 60% compared to a sequential model, bringing it down to a few seconds. 3. Cost (Proof Aggregation): Generating a ZK proof for every single cross-chain query would be prohibitively expensive. Lagrange solves this by aggregating thousands of individual state queries into a single, larger batch. The network then generates just one single ZK proof for the entire batch. This aggregation can reduce the average cost per query by over 95%, making verifiable cross-chain data economically viable for high-throughput applications. #lagrange @Lagrange Official #la
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$LA The Scalability Trilemma for ZK Coprocessors An Architectural Deep Dive on Lagrange's Design $LA The world of ZK coprocessors, which provide verifiable computation for blockchains, faces its own version of the scalability trilemma. A network must balance decentralization, performance (latency), and cost. The architecture of @Lagrange Official is specifically designed to navigate these trade-offs. 1. Decentralization (The Prover Network): To prevent censorship and ensure liveness, a coprocessor must have a large, permissionless set of provers. Lagrange is designed to support a network of hundreds of independent provers, ensuring no single entity can control the system. 2. Performance (Latency): For many applications, the speed of proof generation is critical. A key innovation in Lagrange's design is "proof pipelining." This allows different stages of the proof generation process to be worked on simultaneously by different provers, much like an assembly line. This parallel workflow can reduce the end-to-end latency for a complex state proof by over 60% compared to a sequential model, bringing it down to a few seconds. 3. Cost (Proof Aggregation): Generating a ZK proof for every single cross-chain query would be prohibitively expensive. Lagrange solves this by aggregating thousands of individual state queries into a single, larger batch. The network then generates just one single ZK proof for the entire batch. This aggregation can reduce the average cost per query by over 95%, making verifiable cross-chain data economically viable for high-throughput applications. #lagrange @Lagrange Official #la
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