Summary MegaETH achieves a fundamental architectural breakthrough in EVM execution performance, achieving over 100,000 TPS and a block time of 10 milliseconds through a dedicated node architecture and a novel state management system based on a SALT database. This protocol successfully addresses the long-standing I/O bottleneck that has constrained EVM chains, making it the first truly "real-time blockchain" suitable for latency-sensitive applications such as on-chain gaming and high-frequency trading. MegaETH, co-invested by Vitalik Buterin and Dragonfly Capital, raised $20 million in seed funding and achieved 35,000 TPS in production stress tests, processing 11 billion transactions. However, the project currently faces significant decentralization challenges, such as operating with a single sequencer and a partially opaque token economic model (with 53% of the supply pegged to undisclosed key performance indicators). MegaETH's market capitalization reached $2 billion before its IPO, and while its technological differentiation is significant, its decentralization roadmap and economic transparency warrant close monitoring. MegaETH Research 1. Project Overview and Strategic Positioning MegaETH is an EVM-compatible Layer 2 blockchain designed for real-time applications, aiming for block times below 10 milliseconds and throughput exceeding 100,000 TPS. The protocol will officially launch its public mainnet on February 9, 2026, having already successfully completed stress tests, processing 11 billion transactions at a sustained throughput of 15,000 to 35,000 TPS. Its core concept is to support applications requiring real-time interaction that were previously impossible with blockchains, such as competitive games and order book transactions, as well as interactive social protocols. MegaETH's architectural approach represents a fundamental rethinking of EVM execution constraints, rather than incremental optimization. MegaETH Architecture Documentation 2. System Architecture: Dedicated Nodes and State Management Node Specialization Model MegaETH revolutionizes traditional blockchain architecture through dedicated node types with drastically different hardware requirements: This specialization enables sequencers to achieve unprecedented performance while maintaining verification accessibility. The stateless validator model is particularly innovative, allowing validators to verify blocks using cryptographic witnesses provided by sequencers without storing state. Ultimate Goal: Maximizing Performance SALT Database: Solving the I/O Bottleneck The SALT (Small Authentication Large Trie Tree) database is a core technological innovation of MegaETH, designed to solve the fundamental I/O bottleneck limiting EVM performance: 100% In-Memory State Tree: The entire authentication structure resides in memory, eliminating disk I/O latency; Performance Independence: Throughput is independent of state size (millions of keys versus billions of keys); Parallel Updating Capability: The CPU-intensive design scales linearly with the number of cores; Vector Commitments: Replaces the Merkle Patricia Trie tree with a more efficient cryptographic structure In traditional Ethereum, state root updates take up to 10 times longer than transaction execution itself. SALT reduces this overhead to near zero, allowing sequencers to focus on execution rather than I/O waiting for states. Ultimate Goal: SALT Breakthrough Execution Model: Mini-blocks and Parallelization MegaETH employs a dual-block architecture to balance performance and compatibility: Mini-blocks: 10-millisecond intervals, lightweight metadata for real-time execution; EVM blocks: 1-second intervals, complete metadata to ensure ecosystem compatibility; Execution before sorting: Parallel transaction processing before final sorting; No Gas Limits: Eliminating computational limitations for applications. The mini-block implementation provides the same rollback guarantees as traditional blocks, making it a first-class citizen in the security model, rather than optimistic pre-confirmation. Ultimate Goal: 10-millisecond blocks 3. Technical Comparison: MegaETH vs. Monad Parallel EVM Key Difference: MegaETH's unique characteristics allow it to outperform homogeneous architectures, but it requires trusting the liveness of the sequencer. Monad maintains tighter integration between consensus and execution, but faces traditional scalability limitations. Monad Testnet Dashboard 4. Performance Analysis and Trade-offs Verified Features The January 2026 stress test provided empirical validation of MegaETH's performance claims: Sustained 35,000 TPS: Under a mixed workload of ETH transfers and AMM swaps; 11 billion transactions: Processed within a 7-day test window; Fees below $0.0002: Extremely low transaction costs during the stress test; Real-time gaming: Multiple games ran smoothly during peak load. These results significantly outperform current EVM L2 capabilities and approach Solana-level throughput while maintaining EVM compatibility. 99Bitcoins Hardware Decentralization Trade-offs This dedicated architecture inevitably introduces trade-offs regarding centralization: Sequencer Centralization: Current single sequencers require data center hardware (100+ cores, 1-4TB memory) Verification Democratization: Stateless validators support consumer hardware verification. Progressive Decentralization: The roadmap includes multiple sequencers and permissionless nodes. This model simulates modern cloud infrastructure, where heavy computation is centralized, while verification is distributed. The security model relies on Ethereum for final settlement and on EigenDA to guarantee data availability. Ultimate Goal: Integrate EigenDA.5. Protocol Economics and Token Economics MEGA Token Allocation MegaETH employs a structured token allocation method, with a significant portion allocated to performance-based incentives: The KPI-based allocation (approximately 5.3 billion tokens) represents an innovative mechanism that links token issuance to actual network utility rather than a fixed issuance schedule. However, as of January 2026, specific performance trigger conditions and vesting details remain undisclosed. "Blocks" USDm Stablecoin Integration MegaETH boasts a native yield stablecoin ecosystem: USDm: A native white-label stablecoin from Ethena; Support: BlackRock BUIDL treasury products + cryptocurrency collateral; Yield Generation: Underlying assets generate yield to subsidize the protocol; Fee Reduction: Yields are used to subsidize sequencer fees for live applications. This integration provides a built-in economic mechanism that generates protocol revenue while maintaining low transaction fees. DL News 6. Ecosystem Development and Application Signals MegaMafia Ecosystem Portfolio A meticulously crafted ecosystem focused on latency-sensitive applications: Gaming and Interactive Applications: Showdown TCG (Digital Trading Card Game) Stomp GG (PvP Battle Platform) Smasher (Real-time Arcade Game) AveForge (On-chain Arena Battle) Crossy Fluffle (Trading-based Platform Game) DeFi and Trading Infrastructure: SectorOne (Dynamic Liquidity Market Maker) Kumbaya (Ecosystem DEX Including Cultural Assets) Prism (DeFi Super Application Aggregator) World Markets (Unified CLOB Exchange) Hit.One (Gamified Leverage Platform) Infrastructure and Interoperability: Aori (Cross-chain Intent Protocol) RedStone (Push Oracle Network) LayerZero & Wormhole (Cross-chain Bridge) Telis (Settlement Netting Engine) Focusing on gaming and trading applications, cleverly leveraging MegaETH's latency advantages. While building a differentiated ecosystem from general L2, MegaETH tweets: 7. Risk Assessment and Governance Centralization Risks Sequencer Control: Single sequencer operations during the Frontier beta represent a significant centralization risk. Upgrade Authority: The team controls protocol upgrades before the decentralized roadmap is implemented. Proofer Dependency: Stateless validators rely on witnesses provided by sequencers for verification. Technical Risks Novel Cryptography: SALT vector commitments have less practical experience than Merkle Patricia Tries. Throughput Guarantee: The claim of 100k TPS has not been verified under adversarial conditions. EigenDA Dependency: Security relies on an external data availability layer. Decentralization Roadmap The protocol outlines a progressive decentralized path: Multiple Sequencer Rotation: Multiple approved sequencers will be introduced after mainnet launch. Permissionless Proofers: Community-operated proof generation will be enabled. Governance Transition: Upgrade control will be transferred to token-based governance. Completely permissionless verification: Opening the sequencer role to competitive markets. Aside from the mainnet launch in February, specific timelines for these milestones are yet to be determined. MegaETH Documentation 8. Investment Assessment and Strategic Conclusion Dimensional Rating (1-5 points) Strategic Investment Recommendation MegaETH is a highly attractive technology investment for top-tier funds with a strong Ethereum inclination. Its architectural innovations address fundamental limitations in EVM execution. The protocol's performance advantages are structurally guaranteed by its dedicated node architecture and SALT database, building a sustainable moat for latency-sensitive applications. Key Investment Considerations: Technical Due Diligence: Verify SALT cryptography and stateless verification security proofs; Decentralization Milestones: Require specific timelines for multi-sequencer implementation; KPI Transparency: Require disclosure of specific performance triggers for the 53% token allocation; Ecosystem Development: Monitor the migration of gaming/transaction applications from other chains; Ethereum Consistency: Assess long-term compatibility with the Ethereum modular roadmap. Conclusion: Invest in stages based on the progress of decentralization. MegaETH's technological achievements justify investment at its current final valuation of $2 billion, but continued investment should depend on its ability to deliver on promised decentralized milestones and a transparent token economic model. The protocol represents the most significant advancement in EVM execution performance since the Rollup breakthrough.

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🚨Is Uniswap about to implement fee controls? 100% community support, major proposal moves to the next stage! The Uniswap community has just passed the crucial "Fee Switch" temperature check proposal, with 100% unanimous approval. Next, it will enter the formal on-chain governance voting stage. If passed: 🔹 UNI token may enable protocol revenue capture 🔹 LP/protocol revenue distribution mechanism may be redesigned 🔹 Uniswap's business model will undergo a historic change This could be a major event impacting the value of the UNI token, protocol revenue, and the strategic landscape of DEXs. Uniswap has had zero protocol fees for the past five years. If this is indeed implemented, it will be a complete upgrade for the entire DEX field, and a surge in UNI's value is not far off.