Ethereum News
STRK staking and the path to decentralized execution

The 45 million token delegation from StarkWare to smaller validators drives the current STRK staking landscape. I recommend STRK staking because the permissionless design allows any user to participate in the network security. As of the latest data, the total amount of STRK staked reaches 88,824,576.64 tokens. This stake accounts for 3.93% of the 2,259,283,270 circulating supply. Validators must attest to randomly selected blocks during each epoch to ensure network health. Staking v2 introduced these block attestation requirements and allowed validators to change commission rates under specific, strict conditions. As of June 30, the network saw 310 million STRK staked with 77 out of 121 validators actively attesting blocks.
Provider
Annual Percentage Yield (APY)
Bitrue
10.00%
On-chain
5.98%
XT
1.50%
Gate
0.88%
Binance
0.16%
The staking mechanism requires 20,000 STRK to run a full node. The current validator landscape shows high concentration among a few players. Argent holds 31,789,734.747 STRK, while Karnot holds 16,734,057.944 STRK. This concentration of assets among the top two validators creates a centralization risk that exceeds previous thresholds. You should check the specific validator rules before committing your funds to a large pool. On-chain STRK staking yields around 5.98% annual return, which exceeds the rates provided by most centralized exchanges. For those who avoid hardware costs, operators like P2P.org provide delegation with 0% fees. This allows users to delegate their STRK to larger operators to maximize rewards.
The transition to Rust-based sequencers
The move from a Python-based sequencer to a Rust-based architecture removes the primary bottleneck for transaction processing. The original sequencer used Python, a language that predates many blockchain technologies. Python requires code to be interpreted rather than compiled, which creates a drag during cryptographic functions like encoding and decoding. The new Rust-based sequencer overcomes this by using a compiled language with no garbage collector. This shift facilitates much higher transaction speeds. The new architecture uses four sequencers in rotation with Tendermint-like consensus to coordinate operations. The implementation of the new Rust-based sequencer architecture provides the necessary computational efficiency to manage transaction batches while the Papyrus local state management system handles the data through a simple key and value storage structure.
The new components include a Blockifier that creates state diffs and a Cairo Virtual Machine that executes contracts. These tools work to reduce block time from 30 seconds to 6 seconds. Cairo-native execution provides a 4.5x improvement at execution time for Cairo steps. This speed helps the network target block times of 1.5 seconds. The transition to the Rust language provides the computational speed required to handle high transaction volumes while the new blockifier component handles state diffs more efficiently than the previous Python-based implementation. The new sequencer also uses a local state management system with Papyrus to harness the power of a local database and a simple key/value storage structure. Performance gains also come from the S-two prover. The S-two MVP promises to reduce proving time for 2B L2 gas blocks from 24 minutes to under 3 minutes and decrease proving costs by at least half.
Independence from Ethereum
The community voted 93.52% in favor of researching an independent post-quantum Layer 1 on October 22. This vote included approximately 3,200 participants. This research aims to remove the dependency on Ethereum’s elliptic-curve cryptography. A draft whitepaper for this transition arrives in November. Starknet uses STARK proofs, which are hash-based and quantum-resistant by design. The current L2 status relies on Ethereum for data availability and bridging. While Starknet runs on STARK proofs, its bridge and data availability still depend on Ethereum’s elliptic-curve crypto. An independent L1 would allow the network to set its own security timeline, aiming for 2027 instead of waiting for Ethereum’s 2029 target.
The network reached Stage 1 ZK-Rollup status because it possesses no central operators, real smart contracts, real proofs, and a diverse security council. This status means users can exit the system without needing permission. The research into a post-quantum L1 is non-binding and does not change the current status of the network. The community must hold a separate vote before any real transition occurs. Will the community approve the transition to a post-quantum L1 after the whitepaper arrives in November?
Regulatory realities and ecosystem growth
Regulatory decisions affect how the Starknet Foundation distributes rewards. The Foundation allocated 50 million STRK to reward early contributors who participate in technical discourse or organize events. However, the Foundation prohibits the offer, sale, and delivery of STRK in the U.S. This decision excludes U.S. residents and citizens from the reward plan. This move mirrors decisions by projects like Blur to avoid regulatory uncertainty in the United States. The SEC maintains that most crypto assets are unregistered securities, creating a rugged terrain for such distributions. The network currently holds $134 million in total value locked.
The staking environment remains active with many participants. In addition to STRK, users can find yield through other liquid staking protocols like Endur. Early users of Endur receive an airdrop of all the revenue the protocol has generated so far. The network continues to expand its ecosystem through new games and DeFi tools. To participate in staking, users need a Starknet wallet such as Argent or Braavos. Users transfer STRK or ETH to the wallet and then connect it to a staking platform to complete the process. Argent also launched its Lite Card, which allows users to spend USDC held on Starknet anywhere Mastercard is accepted.