
Why Is STRK Rising?
The immediate catalyst behind the market discussion was Starknet’s October 8, 2026 announcement that it was actively considering becoming a Layer 1 blockchain.
According to Unchained’s October 8 report, the project linked this possibility to its ambition of becoming a fully quantum-resistant network, with 2027 identified as the target for that security objective.
The following day’s market activity was substantial.
During the October 9 reporting snapshot, CoinGlass displayed STRK trading near $0.07392, up 31.65% over the previous 24 hours.
| STRK Market Metric | Reported Value |
|---|---|
| STRK price | $0.07392 |
| 24-hour price change | +31.65% |
| 24-hour spot trading volume | $178.20 million |
| 24-hour futures trading volume | $1.24 billion |
| Futures open interest | $159.41 million |
Source: CoinGlass STRK overview, October 9, 2026 reporting snapshot. The provider did not expose a precise UTC capture timestamp. Values are historical observations from the retrieved page, not live quotations or daily closing figures.
What caught my attention was not just the price increase, but the scale of futures trading relative to spot volume.
That indicates substantial derivatives activity, although it does not establish whether traders were predominantly opening bullish positions, closing shorts or rapidly switching exposure.
Open interest also needs careful interpretation. When the underlying token price increases, dollar-denominated open interest can rise even without an equivalent increase in the number of outstanding contracts.
I would therefore avoid describing the move as a confirmed short squeeze without reliable funding, liquidation and position-level evidence.
More importantly, a rally following an announcement does not prove that the announcement was the sole driver. General cryptocurrency-market conditions, liquidity and speculation may also have contributed.
For readers comparing the wider market, Cryptolinks maintains directories covering cryptocurrency market data and exchange statistics and other trading resources.
Is Starknet Actually Leaving Ethereum?
Not yet. And that is the most important point in this story.
Starknet currently operates as an Ethereum Layer 2 network. It uses validity proofs to verify computation while relying on Ethereum for important settlement and data-availability functions.
The October 8 discussion introduced the possibility of Starknet eventually becoming an independent Layer 1, but the language was exploratory rather than a declaration of an approved migration.
StarkWare co-founder and CEO Eli Ben-Sasson raised the possibility of greater architectural independence as a way to improve post-quantum agility.
As Crypto Briefing reported, his remarks connected the question to advances in quantum computing and artificial intelligence.
However, StarkWare, Starknet and the Starknet Foundation should not be treated as interchangeable decision-making bodies.
A company executive can suggest a new direction without that direction automatically becoming approved network policy.
StarkWare’s official post-quantum roadmap expressly states that protocol-level changes remain subject to Starknet governance approval.
I have not established a published and approved independent-L1 architecture, a complete migration procedure or an activation date.
That means it would be misleading to say Starknet has already left Ethereum, launched a replacement blockchain or confirmed a permanent separation.
What does becoming a Layer 1 actually mean?
A Layer 1 blockchain operates its own foundational infrastructure, including the mechanisms that establish consensus and finality.
Ethereum, Bitcoin and other base-layer networks are familiar examples.
A Layer 2 network typically processes transactions using its own infrastructure while relying on a base layer for specific security or settlement guarantees.
That difference is important because moving to a separate L1 is not simply a matter of changing a network label.
It raises questions about who validates transactions, where users’ data is published, how finality is established and how assets move between networks.
Readers who want to understand the architectural distinction can explore the Cryptolinks Layer 2 blockchain directory and the site’s broader blockchain resource directories.

Why Is Quantum Resistance Driving Starknet’s L1 Discussion?
To me, this is the most interesting part of the announcement.
The potential L1 transition is not primarily about increasing transaction speed or competing with Ethereum for attention. It is about gaining greater control over the cryptographic components protecting a blockchain.
Starknet uses STARK proofs, which rely on hash-based cryptographic techniques rather than the elliptic-curve assumptions used in many other proof systems.
The foundations are described in the 2018 research paper Scalable, Transparent, and Post-Quantum Secure Computational Integrity.
This gives Starknet an important starting point for post-quantum security.
But there is a distinction I would not overlook:
A post-quantum proof system does not automatically make an entire blockchain post-quantum secure.
A blockchain relies on more than a proof system. It also needs secure account authentication, state commitments, validator signatures, data availability, bridges and cross-chain communication.
Some of those components may depend on cryptographic techniques that are not expected to remain secure against sufficiently powerful quantum computers.
That is why StarkWare’s roadmap addresses several separate security surfaces rather than treating STARK proofs as a complete solution.
What StarkWare’s post-quantum roadmap proposes
On June 30, 2026, StarkWare published a three-phase roadmap for Starknet’s transition toward comprehensive post-quantum security.
Phase 1: Securing new network activity
The first phase focuses on replacing relevant Pedersen hashing mechanisms with BLAKE2-based alternatives across components of the network’s state, address derivation and chain environment.
The roadmap also discusses post-quantum signatures for consensus-related functions.
The objective is to protect newly created activity without forcing every existing user or developer to migrate immediately.
Phase 2: Addressing older smart contracts
Legacy contracts present a more difficult problem.
Existing applications may use storage structures or cryptographic assumptions that require migration before they can receive the same security guarantees as newer contracts.
StarkWare describes work on migration tools intended to reduce disruption for developers.
However, the existence of a roadmap does not prove that every deployed contract has already been migrated.
Phase 3: Removing external dependencies
This phase directly explains the interest in architectural independence.
Starknet currently inherits some cryptographic dependencies from Ethereum, including aspects of bridge messaging and blob-based data availability.
Ethereum’s EIP-4844 blob commitments use KZG cryptography, which relies on mathematical assumptions vulnerable to sufficiently capable quantum attacks.
StarkWare’s roadmap identifies that dependency while distinguishing data-availability risk from the soundness of Starknet’s STARK-based state-transition proofs.
The original June roadmap expected relevant Ethereum dependencies to be addressed as Ethereum’s own post-quantum migration progressed.
The October discussion raises a new possibility: what if Starknet could control more of that timetable itself?
For a deeper look at how experimental quantum-resistant designs can be demonstrated without transforming an entire blockchain, see our earlier Cryptolinks investigation, StarkWare’s Quantum-Resistant Bitcoin Spend Hits Mainnet.

What Would Starknet Gain by Becoming an Independent L1?
The main advantage would potentially be greater architectural control.
If Starknet operated its own base layer, it might be able to coordinate cryptographic upgrades without waiting for every corresponding Ethereum change.
That could be especially valuable when replacing signature schemes, modifying state commitments or redesigning data-availability infrastructure.
But independence would bring additional responsibilities.
| Technical Area | Current Ethereum L2 Model | Hypothetical Independent L1 |
|---|---|---|
| Cryptographic upgrades | Starknet controls important internal systems but inherits Ethereum dependencies. | Could control more components and coordinate upgrades independently. |
| Settlement | Uses Ethereum for settlement-related security guarantees. | Would need a separately defined settlement and finality model. |
| Consensus | Operates within its existing rollup and settlement architecture. | Would require clearly specified independent consensus security. |
| Data availability | Publishes relevant data through Ethereum infrastructure. | Would need an alternative data-availability arrangement. |
| Ethereum connectivity | Uses existing Ethereum bridge infrastructure. | Would need to preserve or redesign cross-chain connections. |
| Token economics | STRK supports existing network functions. | Economics could change, but no replacement model has been approved. |
The independent-L1 column describes general architectural possibilities, not a confirmed Starknet design.
Independence comes with security tradeoffs
There is a reason Ethereum’s settlement infrastructure matters.
Starknet currently benefits from the security model and established infrastructure of a major base-layer network.
Replacing those dependencies means accepting responsibility for the systems that take their place.
An independent L1 would need clear answers about validator incentives, consensus failure, data recovery, finality guarantees and cross-chain security.
Its security would have to be demonstrated through implementation and review rather than assumed because of the Layer 1 designation.
That is why I see the discussion as a tradeoff between cryptographic independence and the responsibilities of maintaining independent security.
Anyone exploring these risks should also review the Cryptolinks Blockchain Security directory, which collects resources focused on protecting blockchain users and infrastructure.
Where Does Starknet v0.14.4 Fit Into the Story?
Another important development surrounding this discussion is Starknet’s v0.14.4 upgrade.
Its official prerelease notes, published September 9, 2026, outlined a testnet target of September 15 and a mainnet target of October 5, subject to governance approval.
Those dates were originally scheduled dates. The prerelease document alone is not sufficient evidence of production activation or measured performance improvements.
The important SNIP-36 improvement
One of the most notable changes concerns SNIP-36 and client-side proving.
The release notes describe the ability to prove qualifying single-transaction virtual blocks involving workloads of up to 1.1 billion L2 gas, provided they satisfy the required Starknet OS constraints and do not rely on unsupported system calls.
In simpler terms, a developer may be able to generate a proof for a large computation that would not fit inside an ordinary transaction, then submit the proven result through the relevant workflow.
There is a performance tradeoff.
According to the notes, generating these larger proofs may take approximately one to two minutes, compared with three to five seconds for smaller proofs.
Crucially, this does not mean all ordinary Starknet transactions suddenly receive a 1.1-billion-gas limit, or that the network automatically gains a corresponding increase in transactions per second.
I would also keep this proving improvement separate from the quantum-security discussion. The documented release does not establish SNIP-36 as a direct implementation milestone for a future independent L1.
Readers who want to understand the technology behind validity proofs can start with our Cryptolinks guide to ZK-rollups.

What Could an L1 Transition Mean for STRK Holders?
A potential protocol redesign may sound bullish, especially when the market is already reacting positively.
But I would distinguish three different things: technological progress, actual network adoption and value captured by the STRK token.
They are connected, but they are not the same.
STRK already has roles associated with Starknet’s transaction fees, governance and staking ecosystem.
An independent L1 could eventually change how network security is funded, how validators are incentivized or what economic activities require STRK.
However, those possibilities depend on the eventual technical and token-economic design.
There is currently no basis for assuming that a potential transition automatically creates new token burns, additional staking rewards, a token swap, an airdrop or guaranteed price appreciation.
Three outcomes I would separate
1. Technical success: Starknet publishes and implements credible post-quantum security improvements.
2. Ecosystem success: Developers, applications and users adopt the resulting infrastructure.
3. Token-economic success: That activity translates into meaningful STRK demand under the network’s actual economic rules.
One does not automatically guarantee the next.
A technically sophisticated blockchain can struggle to attract users. A growing network may also fail to create proportional value for holders if token issuance, fees and incentives work against that outcome.
For STRK, I would pay as much attention to the eventual token model and sustained onchain activity as to the architectural announcement itself.
What I Would Watch Next
Rather than predicting the next STRK price move, I would focus on specific developments that could confirm or weaken the broader thesis.
- A formal L1 architecture proposal: A published design explaining consensus, settlement, data availability and Ethereum interoperability.
- Governance approval: Evidence that the relevant network governance process has considered and approved a defined transition.
- An updated post-quantum roadmap: Revised milestones explaining how Starknet would remove inherited cryptographic dependencies.
- A public testnet: A working environment where developers can inspect the proposed architecture.
- An account and contract migration plan: Clear guidance on what changes for wallets, applications, assets and existing smart contracts.
- Independent security assessments: External examination of the new cryptographic, consensus and bridge components.
- Sustained network adoption: Observable developer and user activity rather than relying entirely on market speculation.
For me, a governance proposal accompanied by a detailed technical specification would be a much stronger milestone than another social-media statement.
A successful testnet and independently reviewed migration plan would be stronger still.

Does the 2027 Target Mean Starknet Will Be an L1 Next Year?
No confirmed L1 launch date follows from the available statements.
The 2027 objective concerns Starknet’s stated ambition to achieve comprehensive post-quantum security.
It should not be treated as a guaranteed completion deadline or proof that the independent-L1 transition has already been authorized.
It is equally important not to mistake that project target for a prediction that quantum computers will be capable of breaking Ethereum, Bitcoin or other major networks in 2027.
The potential threat is serious enough to justify research and preparation. It does not justify presenting an uncertain technological timeline as a settled fact.

My Take: The STRK Rally Is the Headline, but the Architecture Is the Real Story
STRK’s October 9 market reaction was significant. The possibility that Starknet could eventually operate as an independent Layer 1 is also significant.
But those two developments deserve different standards of evidence.
The market data establishes a sharp rally in the observed trading window. The project discussion establishes that an architectural change is being considered.
Neither establishes that the transition will happen, that comprehensive quantum resistance has been delivered or that STRK must become more valuable.
The strongest argument for a future independent Starknet is the flexibility to control more of its cryptographic security roadmap.
The strongest reason for caution is that independence means replacing or redesigning infrastructure currently supplied by Ethereum.
Starknet already has meaningful technical foundations in STARK proofs and programmable accounts. Its roadmap also acknowledges that complete post-quantum security requires addressing inherited dependencies, legacy contracts and network-wide components.
My view is that this story becomes much more consequential when Starknet publishes an approved architecture, demonstrates its security assumptions and explains how users can migrate without sacrificing existing protections.
Until then, I see the STRK rally as a market reaction to an ambitious possibility, not confirmation of a completed Layer 1 transformation.
For continuing coverage of Starknet, Ethereum scaling, blockchain security and the wider cryptocurrency market, follow Cryptolinks News or explore the Cryptolinks homepage.
Frequently Asked Questions
Why did STRK surge in October 2026?
STRK rallied amid discussion of Starknet potentially becoming an independent Layer 1 to accelerate its post-quantum roadmap. CoinGlass displayed a 31.65% rolling 24-hour gain in the October 9 reporting snapshot. The announcement’s timing is consistent with the market narrative, but it does not prove the announcement was the only cause.
Is Starknet leaving Ethereum?
Starknet is actively considering becoming an independent Layer 1, but the available evidence does not establish an approved departure, finalized migration architecture or launch date.
Will Starknet become an L1 in 2027?
There is no confirmed independent-L1 launch date. The 2027 target has been associated with Starknet’s post-quantum security ambition, not a formally approved L1 activation schedule.
Is Starknet already quantum-resistant?
Starknet’s STARK proof system provides a strong hash-based foundation for post-quantum security. However, comprehensive network security also depends on authentication, state commitments, consensus, legacy contracts, bridges and data availability. StarkWare has documented a roadmap to address these surfaces.
Does becoming an L1 guarantee STRK will rise?
No. Any long-term effect on STRK depends on adoption, network economics, token utility, supply and market conditions. A potential architecture change does not guarantee higher token demand or a higher price.
What did Starknet v0.14.4 change?
The official prerelease notes describe expanded SNIP-36 client-side proving capabilities, including qualifying single-transaction virtual blocks up to 1.1 billion L2 gas. This is a specialized proving capability, not an automatic increase in ordinary transaction throughput.
Sources and Reporting Methodology
This analysis uses StarkWare’s official post-quantum roadmap, Starknet’s published upgrade documentation, the original STARK research paper, market data and reporting covering the October 8 announcement.
- StarkWare: Starknet’s Post-Quantum Roadmap
- Starknet Community Forum: v0.14.4 Prerelease Notes
- Original STARK Cryptography Research Paper
- CoinGlass: STRK Market Data
- CoinMarketCap: Starknet Token Market Overview
- Unchained: Starknet L1 Discussion, October 8, 2026
- Crypto Briefing: Starknet’s Potential L1 Transition
Editorial note: Original X statements were not directly accessible during verification, so their reported contents are attributed to publications covering them. Market prices are time-sensitive. The technical roadmap includes proposed and ongoing changes that must not be confused with completed deployment.
Disclaimer: This article is provided for informational and educational purposes only and does not constitute financial or investment advice. Cryptocurrencies are volatile and can result in substantial losses. Always conduct independent research before making investment decisions.
