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This article provides a detailed analysis of the architecture and technology of Scroll, helping readers understand the current network status and future development directions of Scroll. It also explains the Scroll zkEVM circuits and audits.

What are Verkle Trees, why Ethereum needs it, and how do Verkle Trees solve problems? The goal of this article is to answer these questions for readers without delving too deeply into cryptography and mathematics, helping those with some understanding of Ethereum quickly grasp the concept of Verkle Trees.

SOON Network introduces a Merkle tree structure within the Solana Virtual Machine (SVM) to address the issue of missing global state roots. This enhancement strengthens SVM's capabilities in integrity verification, fraud proofs, and cross-layer operations within the aggregation system. By embedding the state root directly into the SVM blockchain, SOON improves security and scalability, providing stronger support for SVM aggregation.

This article introduces the technical implementation of Ethereum and proposes a solution to apply machine learning to the Ethereum network to enhance security, efficiency, and scalability. Innovations have been made in Ethereum's transactions, consensus mechanisms, signature algorithms, data storage, and execution architecture. Machine learning can be applied to Ethereum for optimizing transaction processing, smart contract security, user segmentation, and network stability. Models like RFM and algorithms like DBSCAN can help identify high-value users and customize financial services. In the future, Ethereum can develop more complex machine-learning applications to improve network efficiency and security, and even achieve AI-driven governance mechanisms.

With the gradual increase in on-chain computing power, we can foresee the development of more complex models for network management, transaction monitoring, security audits, and more. These advancements aim to enhance the efficiency and security of the Ethereum network, offering unique perspectives that inspire a multitude of "AI+Blockchain" innovative combinations within the developer ecosystem.

Bitcoin's proof-of-work mechanism limits holders from earning yields directly through staking, despite Bitcoin's dominant position in market value. A significant amount of Bitcoin remains underutilized. Through the Master Protocol, users can stake Bitcoin on various Layer 2 solutions and receive LST as their staking certificate. This allows users to reinvest their LST in multiple scenarios without compromising liquidity, ensuring returns. By adopting the re-staking protocol, users can further stake LST to earn LRT, enhancing their investment capabilities and asset liquidity.

Master Protocol is an interest rate swap market and points accelerator aimed at solving BTC Layer 2 liquidity issues. This article gives an in-depth overview of the three main products of Master Protocol and provides a step-by-step guide for participating in airdrop activities, including NFT staking, trade mining, and the invitation system.

In our previous series, we explored based rollups, booster rollups and native rollups. In this article, we will examine gigagas rollups by looking at what they are trying to solve and how they work

Similar to the traditional liquidity token schemes for ETH, BTC liquidity staking aims to function like a savings account for Bitcoin, allowing users to deposit and withdraw at any time while earning interest. Additionally, the liquidity staking tokens can be used to earn returns in other DeFi projects (e.g., providing liquidity, lending, etc.). Staking on Babylon can be compared to a fixed-term deposit, offering higher returns but with less flexibility for withdrawals.

This article explains how to use proof of storage for information transmission and data processing, and applies it in areas such as cross-chain governance, cross-chain lending, and multi-chain oracles.

This article introduces Monad, a novel layer-1 blockchain that utilizes a Proof-of-Stake (PoS) consensus mechanism and Ethereum Virtual Machine (EVM) compatibility. Through parallel execution and superscalar pipeline technology, Monad significantly enhances transaction processing efficiency and system performance. This paper elaborates on Monad's technical architecture, performance optimization, and improvements over Ethereum, heralding a more efficient and decentralized blockchain future. It demonstrates how Monad drives blockchain development through technological innovation and lays the foundation for a more efficient and decentralized future.

Monad is an EVM Layer1 that achieves 100,000 TPS through parallel execution technology. After launching its testnet in January, over a dozen projects, including PancakeSwap and Layerzero, announced their participation in the ecosystem. Additionally, Monad recently completed a $225 million funding round. This article will explore Monad's architectural design, technological innovations, and key features.

While interpreting the MegaETH whitepaper, it's evident that the document often reveals a technical nerd's rigor and an overabundance of details. It discusses the current limitations of blockchain technology and how MegaETH aims to address these issues. By publicly disclosing detailed technical data and test results, it seeks to enhance the project's transparency and credibility, providing the technical community and potential users with a deeper understanding and trust in the system's performance. By specializing nodes and separating transaction execution tasks from the responsibilities of full nodes, MegaETH reduces consensus overhead.

In this article, we will go through the three key types of nodes that will shape the future of the Ethereum network: stateless nodes, stateful nodes, and full/archive nodes. We will examine how stateless nodes can enable trustless verification of new blocks using zero-knowledge proofs, how stateful nodes can provide quick and trustless access to the current state of Ethereum, and how full/archive nodes can store the entire chain history back to genesis.

The SOON Mainnet is a general-purpose Layer 2 based on Ethereum, with its core execution layer supported by the Decoupled SVM, achieving unparalleled speed and scalability. It also offers flexibility in data availability through options like Celestia, EigenDA, and Avail. This architecture is custom-built to meet the high-performance demands of modern decentralized applications, ensuring seamless execution, integration, and optimized data availability across the entire blockchain ecosystem. SOON is committed to bringing the Solana experience to every blockchain. Currently, the SOON Alpha Mainnet on Ethereum has been launched.