Berachain vs Integritee
Berachain vs Integritee Scalability
Real-time TPS
Berachain has no data, while Integritee TPS is 0.1 tx/s
Max TPS (100 blocks)
Berachain has no data, while Integritee max TPS is 14.42 tx/s
Max Theoretical TPS
Berachain has no data, while Integritee max theoretical TPS is 1,500 tx/s
Transaction Volume
Berachain has no data, while Integritee transaction volume is 344 txns
Block Time
Berachain has no data, while Integritee block time is 12.86s
Finality
Berachain has no data, while Integritee finality is 30s
Type
Berachain has no data, while Integritee is a parachain
Launch Date
Berachain has no data, while Integritee was launched on Mar 21, 2022
Berachain vs Integritee Decentralization
Nakamoto Coefficient
Berachain has no data, while Integritee Nakamoto Coefficient is 279
Validators/Miners
Berachain has no data, while Integritee has 1,000 validators
Stake/Hashrate
Berachain has no data, while Integritee stake is $126.8M
Consensus Mechanism
Berachain has no data, while Integritee is Nominated Proof of Stake
Governance
Berachain has no data, while Integritee governance is on-chain
Berachain vs Integritee Developer Activity New
Developers
Berachain has no data, while Integritee has 94 developers
Repos
Berachain has no data, while Integritee has 26 repos
Commits
Berachain has no data, while Integritee has 4,786 commits
Stars
Berachain has no data, while Integritee has 263 stars
Watchers
Berachain has no data, while Integritee has 45 watchers
Other Comparisons
Berachain Comparisons
About Blockchains
About Berachain
Berachain is a high-performance EVM-Identical Layer 1 blockchain utilizing Proof-of-Liquidity (PoL) and built on top of the modular EVM-focused consensus client framework BeaconKit.
About Integritee
Integritee is a blockchain project focused on providing privacy-preserving solutions for dApps and smart contracts. It aims to enable confidential computing on public blockchains, allowing sensitive data to be processed securely without compromising privacy. Integritee utilizes trusted execution environments (TEEs), such as Intel SGX, to create secure enclaves where data can be processed confidentially. This ensures that data remains encrypted and inaccessible to anyone, including the network validators or operators, while it is being processed. This idea opens up new possibilities for privacy-focused applications in finance, healthcare, and so on.