Blockchain Fundamentals

Learn what Maximal Extractable Value is, how it works, and why transaction ordering creates arbitrage, front-running, and risks in blockchain systems.

Learn how parallelism enables blockchains to process transactions simultaneously, improving performance and scaling modular systems.

A technical breakdown of blockchain performance, covering throughput, latency, finality, execution limits, and how modern architectures scale securely.

Explains stateless blockchain clients, how they verify state without storage, and why stateless design is critical for scalability and decentralization.

Gas fees and TPS are often treated as headline metrics. Article explains what actually matters, why they’re often misunderstood, and how to evaluate blockchains

A clear guide to blockchain layers L0, L1, and L2 - how they work together and why they matter for scalability and interoperability.

Discover how transaction classification unlocks true parallelism in blockchain, increasing throughput, reducing fees, and enabling scalable dApps.

Explore the differences between stateless and stateful execution in modular blockchains, including impacts on scalability, security, and real-world L2 designs.

Explore Decentralized Autonomous Organizations (DAOs) in blockchain. Learn how DAOs work, their modular designs, cross-chain potential, and real-world use cases