Starknet is considering becoming an independent Layer 1 blockchain as part of a plan to prepare for future quantum-computing risks. The network has set 2027 as a target for full quantum resistance, according to its public announcement. The idea is under consideration; Starknet has not announced an approved migration or a governance vote. That difference matters for anyone following STRK: this is a strategic discussion, not a confirmed network change.
The question connects two subjects: how blockchains can update their cryptography, and how much control an Ethereum Layer 2 has over its own security timeline. A move to Layer 1 could give Starknet more direct control over some upgrades. It would also mean taking responsibility for more parts of the network. Neither outcome is automatic, and neither guarantees a higher STRK price.

What Starknet has said so far
Starknet’s public message says it is “actively considering” becoming an L1 and links the possibility to a goal of becoming fully quantum-resistant, targeting 2027. That wording describes an option being examined. It does not say that Starknet has decided to leave Ethereum, that developers have finished a migration design, or that users need to move funds.
Public coverage of the announcement also reported that no formal proposal or vote had been scheduled at the time. The next useful evidence would be a detailed technical plan, a governance process, or a timeline that explains what changes and when. Until then, headlines that describe an “Ethereum exit” should be read as shorthand for a possibility, not a completed decision.
The quantum work itself is broader than a single announcement. Starknet has explored quantum-safe account designs and described a roadmap for adapting cryptographic components. A demonstration can prove that one method works in a controlled setting. It cannot establish that every wallet, bridge, contract, sequencer, and settlement path is protected.
Why a Layer 2 cares about quantum resistance
Most blockchain wallets use digital signatures. In simple terms, a signature is a mathematical proof that a transaction was authorized by the owner of an account. A sufficiently capable quantum computer could threaten some cryptographic systems used to create those proofs. Researchers and developers therefore study post-quantum alternatives before such machines become a practical threat.
This is a long-term security concern, not a claim that current blockchains can already be broken by known quantum computers. The risk is about preparation time. Networks need to test new cryptography, support it in wallets, upgrade contracts, coordinate exchanges, and help users understand whether they need to take action.
Starknet’s Layer 2 design adds a dependency question. As an L2, Starknet posts information to Ethereum and relies on Ethereum for important settlement and data-availability functions. This design can let an L2 benefit from Ethereum’s security. It also means that some changes touching those functions depend on Ethereum’s own technical choices and schedule.

What an independent L1 could change
The clearest potential advantage is control. If Starknet operated as its own L1, its developers and community could decide more directly when and how to change parts of the protocol. That could make it easier to coordinate a security upgrade across consensus, transaction execution, and data handling.
But independence comes with work. Starknet would need to explain how its own consensus and validator system would secure the chain, how users would verify data, and what role Ethereum would continue to play. The network would also have to show that its security budget and decentralization remain strong enough for applications and users.
Apps and infrastructure providers would need clear migration instructions. Wallets, bridges, exchanges, DeFi protocols, indexers, and custody services may all need to support new assumptions. A technically sound design can still be difficult to adopt if users do not know whether addresses change, whether assets need to move, or how a transition is protected.
There are also trade-offs in the other direction. Keeping Ethereum as a settlement layer can preserve a familiar security relationship and liquidity connection. A standalone L1 could make some upgrades faster, but it may reduce the simplicity of relying on Ethereum for certain guarantees. The decision is therefore not just “more secure” versus “less secure”; it is a choice about control, dependencies, and who bears responsibility.
STRK price: a sharp rally meets a scheduled supply release
CoinGecko’s October 15 snapshot showed STRK near $0.0816, with about $183 million in 24-hour trading volume. The price was far below the roughly $0.119 level reported on October 11, a pullback of about 31% from that short-term peak. The rally had therefore lost momentum before the October 15 token release. Data feeds differ during volatile periods, so treat these as dated reference points, not a universal executable quote. (Sources: CoinGecko STRK market page; October 11 market report.)
Starknet’s official token schedule says up to 127 million STRK is unlocked monthly on the 15th from April 2025 through March 2027. That equals 1.27% of the 10 billion maximum supply. The October release is transferable supply, not an automatic market sell. But after a fast run-up and a pullback, traders may be more sensitive to recipients selling into the market. (Source: Starknet token schedule.)
For the near-term chart, the $0.08 area is a practical pivot around the current quote. Holding above it while spot volume remains healthy would suggest buyers are absorbing supply. A sustained break below $0.08 would weaken that read; reclaiming the $0.10 area would show a stronger recovery, while the earlier $0.119 peak remains a larger resistance reference. These are conditional levels drawn from recent prices, not targets.
The quantum-resistant L1 discussion may explain attention, but it is not yet a delivered technical upgrade. A durable price case would need both market demand and concrete milestones: a detailed proposal, governance steps, migration design, and evidence that applications and users support the change.

What to watch next
- A formal technical proposal that defines what “fully quantum-resistant” covers.
- A public governance plan and any vote or community feedback.
- How Ethereum settlement and data availability fit into the final design.
- Wallet, bridge, and application plans that explain what users would need to do.
- STRK volume and open interest after the initial headline reaction.
Readers who want to trade STRK derivatives should first confirm that the STRK-USDT contract is available in their region and review its contract details. Create a Tapbit account only if the product is available to you, then use the platform’s displayed risk and margin information.
How to trade STRK-USDT on Tapbit
- Register or sign in and prepare USDT for the futures wallet.
- Open the STRK-USDT contract page and confirm the contract is available in your location.
- Choose margin mode, leverage, order type, position size, and any take-profit or stop-loss levels.
- Review fees, margin, and estimated liquidation price before placing the order; monitor the position and close it from the same contract page.
Register on Tapbit to access the platform. Futures involve substantial risk; use the displayed product terms to make your own decision.
For a separate look at STRK’s earlier price move and token-unlock context, see Tapbit Learn’s STRK price and unlock article.
FAQ
Is Starknet leaving Ethereum?
Not yet. Starknet has said it is considering an independent L1, but it has not announced a completed migration decision.
Is Starknet quantum-resistant today?
The project has described work and experiments toward that goal. The 2027 target is a roadmap objective, not proof that every network component is already protected.
Does this announcement make STRK a buy?
No single announcement determines a token’s value. Price also depends on adoption, liquidity, token supply, market sentiment, and whether the technical plan advances.

