Arbitrum vs IoTeX Scalability
Real-time TPS
Arbitrum TPS is 19X higher than IoTeX TPS
Max TPS (100 blocks)
Arbitrum max TPS is 1.64X higher than IoTeX max TPS
Max Theoretical TPS
Arbitrum max theoretical TPS is 20X higher than IoTeX max theoretical TPS
Transaction Volume
Arbitrum transaction volume is 19X higher than IoTeX transaction volume
Block Time
Arbitrum block time is 90% shorter than IoTeX block time
Finality
Arbitrum finality is 100% longer than IoTeX finality
Type
Arbitrum is a layer 2 blockchain, while IoTeX is a layer 1 blockchain
Launch Date
Arbitrum was launched 2 years after IoTeX
Arbitrum vs IoTeX Decentralization New
Nakamoto Coefficient
Arbitrum Nakamoto Coefficient is 88.88% lower than IoTeX Nakamoto Coefficient
Validators
Arbitrum has 98.61% fewer validators than IoTeX
Stake
Arbitrum has no data, while IoTeX stake is $123.8M
Consensus Mechanism
Arbitrum is Rollup (Optimistic), while IoTeX is PoS
Governance
Arbitrum and IoTeX governance are both on-chain
Arbitrum vs IoTeX Real-Time TPS Chart
Loading Data
Other Comparisons
Arbitrum Comparisons
About Blockchains
About Arbitrum
Arbitrum serves as a Layer 2 scaling solution for Ethereum, leveraging rollups to significantly boost scalability and reduce transaction costs while maintaining robust security. It enables developers to execute EVM-compatible smart contracts with a substantially higher transaction throughput and lower fees compared to Ethereum's main chain, making it a compelling platform for decentralized application development.
About IoTeX
IoTeX is a blockchain platform designed specifically for the Internet of Things (IoT) industry. It aims to address the scalability, privacy, and security challenges associated with connecting billions of devices to the internet. IoTeX utilizes a unique architecture that combines blockchain, decentralized identity, and secure hardware to create a trusted and privacy-centric infrastructure for IoT applications. It offers lightweight and efficient consensus mechanisms, support for trusted computing environments, and privacy-preserving techniques such as zero-knowledge proofs.