- Compare
- ICP vs IoTeX
ICP vs IoTeX Scalability
Real-time TPS
ICP TPS is 684X higher than IoTeX TPS
Max TPS (100 blocks)
ICP max TPS is 31X higher than IoTeX max TPS
Max Theoretical TPS
ICP max theoretical TPS is 105X higher than IoTeX max theoretical TPS
Transaction Volume
ICP transaction volume is 684X higher than IoTeX transaction volume
Block Time
ICP block time is 80.8% shorter than IoTeX block time
Finality
ICP finality is the same as IoTeX finality
Type
ICP and IoTeX are both layer 1 blockchains
Launch Date
ICP was launched 2 years after IoTeX
ICP vs IoTeX Decentralization New
Nakamoto Coefficient
ICP Nakamoto Coefficient is 46X higher than IoTeX Nakamoto Coefficient
Validators
ICP has 20X more validators than IoTeX
Stake
ICP stake is 9.54X higher than IoTeX stake
Consensus Mechanism
ICP is Proof of Useful Work, while IoTeX is PoS
Governance
ICP and IoTeX governance are both on-chain
ICP vs IoTeX Real-Time TPS Chart
Loading Data
Other Comparisons
ICP Comparisons
About Blockchains
About ICP
The Internet Computer enables you to build anything without traditional IT and Big Tech. It hosts decentralized serverless compute that’s simpler, immune to cyber attack, unstoppable, and controllable by DAOs. Next-generation smart contracts (named Canisters) that hold both code and state enable truly Decentralized AI. Canisters use Chain Fusion technology to write transctions directly to other chains without centralized bridges, enabling secure multi-chain dapps. Build social, defi, games, e-commerce, enterprise or any kind of application or service on ICP. The internet is evolving.
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.