Starknet 的账户抽象：迈向后量子密码学的量子飞跃

Starknet 的账户抽象旨在简化向抗量子密码学的过渡，提供优于其他主要区块链的结构优势。

In the bustling world of blockchain innovation, Starknet is making waves with its unique approach to a looming threat: quantum computing. The project's account abstraction design, a cornerstone of its architecture, is positioning it as a frontrunner in the race to adopt quantum-resistant cryptography.

在熙熙攘攘的区块链创新世界中，Starknet 以其独特的方法应对迫在眉睫的威胁：量子计算，掀起了波澜。该项目的账户抽象设计是其架构的基石，将其定位为采用抗量子密码学竞赛中的领跑者。

Starknet's Edge: Account Abstraction and Quantum-Resistant Wallets

Starknet 的边缘：账户抽象和抗量子钱包

Unlike its peers like Bitcoin and Ethereum, Starknet's accounts are already programmable smart contracts. This isn't just a fancy feature; it's a strategic advantage. According to StarkWare, the developers behind Starknet, this means quantum-resistant wallets can be seamlessly deployed without the usual headache of network forks or disruptive migration events. Imagine upgrading your security without changing your address or losing your hard-earned digital assets – that's the Starknet promise.

与比特币和以太坊等同类产品不同，Starknet 的账户已经是可编程的智能合约。这不仅仅是一个奇特的功能；这是一个战略优势。 Starknet 背后的开发者 StarkWare 表示，这意味着抗量子钱包可以无缝部署，而不会出现通常令人头痛的网络分叉或破坏性迁移事件。想象一下，在不更改地址或丢失来之不易的数字资产的情况下升级您的安全性——这就是 Starknet 的承诺。

The current Achilles' heel for many blockchains is ECDSA, the signature scheme that's widely used but highly vulnerable to quantum attacks. Starknet, however, is already ahead of the curve. Developers have successfully demonstrated Falcon-512 accounts, written in Cairo, with S2morrow building a working implementation and OpenZeppelin publishing deployable contracts. Falcon, for those keeping score, is on track to become a NIST standard, with final publication expected in late 2026 or early 2027. This isn't just talk; it's tangible progress.

目前许多区块链的致命弱点是 ECDSA，这种签名方案被广泛使用，但极易受到量子攻击。然而，Starknet 已经走在了前面。开发人员已成功演示了在开罗编写的 Falcon-512 帐户，S2morrow 构建了一个工作实现，OpenZeppelin 发布了可部署的合约。对于那些记分的人来说，Falcon 有望成为 NIST 标准，最终发布预计将于 2026 年底或 2027 年初发布。这是切实的进步。

Navigating the Ethereum Interdependency

探索以太坊的相互依赖关系

Now, let's be real, no one's claiming to be fully quantum-proof overnight. Starknet openly admits that its entire stack isn't yet quantum-resistant. While its STARK proof system is hash-based and robust at the verification layer, there are still dependencies on Ethereum for settlement, data availability, and bridging. These areas, along with the Cairo VM's secp256k1 and secp256r1 syscalls (which support L1-to-L2 messaging and the Ethereum bridge), remain susceptible to quantum risks. It's like having a bulletproof vest but leaving your helmet at home.

现在，让我们面对现实吧，没有人声称一夜之间就能完全量子证明。 Starknet 公开承认其整个堆栈尚不具备量子抗性。虽然其 STARK 证明系统是基于哈希的，并且在验证层非常强大，但在结算、数据可用性和桥接方面仍然依赖以太坊。这些区域以及 Cairo VM 的 secp256k1 和 secp256r1 系统调用（支持 L1 到 L2 消息传递和以太坊桥）仍然容易受到量子风险的影响。这就像拥有防弹背心但将头盔留在家里一样。

However, Starknet has a clear vision for tackling this. They propose that an independent L1 (Layer 1) could integrate post-quantum protection from the ground up, effectively securing accounts, validators, and the network infrastructure entirely. This proactive approach highlights their commitment to a truly quantum-resistant future, rather than just patching existing vulnerabilities.

然而，Starknet 对于解决这个问题有着明确的愿景。他们提出，独立的 L1（第 1 层）可以从头开始整合后量子保护，从而有效地保护帐户、验证器和网络基础设施的整体安全。这种积极主动的方法凸显了他们对真正抗量子未来的承诺，而不仅仅是修补现有的漏洞。

The Road Ahead: A Collective Journey

前进的道路：集体之旅

While the exact timeline for quantum threats remains a topic of debate – Hedera, for instance, suggests it's not

虽然量子威胁的确切时间表仍然是一个争论的话题，例如 Hedera 表示，这并不是一个问题。