What is a post-quantum cryptocurrency?

A post-quantum cryptocurrency uses cryptographic algorithms designed to resist attacks by quantum computers. Classical cryptocurrencies like Bitcoin and Ethereum rely on ECDSA (Elliptic Curve Digital Signature Algorithm), which Shor's algorithm can break in polynomial time. Post-quantum coins use lattice-based, hash-based, or code-based cryptography that remains computationally infeasible for both classical and quantum attackers. SynergyX uses NIST-standardized Kyber-768 and SPHINCS+.

How does Shor's algorithm break Bitcoin?

Shor's algorithm (published 1994) solves the discrete logarithm problem in polynomial time on a sufficiently powerful quantum computer. Bitcoin's ECDSA signatures rely on this problem being computationally infeasible. When a quantum computer with enough stable qubits runs Shor's algorithm against an exposed ECDSA public key, it can derive the private key. And the machine required keeps shrinking: Google Quantum AI's March 2026 analysis, with the Ethereum Foundation and Stanford, puts breaking a 256-bit ECDSA key at fewer than 1,200 or 1,450 logical qubits and fewer than 500,000 physical qubits, completing in minutes. Meanwhile 6.04 million Bitcoin - 30.2% of the entire supply - sit in addresses with exposed public keys, roughly $469 billion in value (Glassnode, May 2026).

What is Harvest Now Decrypt Later?

Harvest Now Decrypt Later (HNDL) is an active intelligence strategy where nation-state actors capture and store encrypted data today, waiting for quantum computing capability to decrypt it in the future. Encrypted traffic recorded today can be decrypted later if it used classical key exchange; public ledger records need no decryption, and their risk is forged signatures from exposed public keys. The attack has already begun - the decryption is what remains.

What cryptography does SynergyX use?

SynergyX implements exactly two NIST-standardized post-quantum algorithms: Kyber-768 (ML-KEM, FIPS 203) for lattice-based key encapsulation and address generation, and SPHINCS+-SHAKE-128s (SLH-DSA, FIPS 205) for every transaction signature. Two families, two unrelated hard problems, no third wheel. These algorithms were peer-reviewed and standardized by the National Institute of Standards and Technology specifically to resist quantum computing attacks.

Can Bitcoin upgrade to quantum resistance?

Bitcoin has no viable quantum upgrade path. Migrating to post-quantum cryptography would require fundamental consensus changes, signature format overhauls, and address migration for billions of dollars in existing UTXOs. Addresses with exposed public keys (from prior spending) cannot be retroactively protected. Of the 6.04 million BTC now sitting in exposed-key addresses, roughly 2.3 million are already beyond rescue - lost keys, dead holders, no one left to sign a migration - and remain permanently vulnerable regardless of any future Bitcoin protocol changes.

When will quantum computers break cryptocurrency?

Nobody knows when; hardware roadmaps reach the needed scale between 2028 (IonQ, on paper) and 2033 (IBM Blue Jay). IBM's Condor has run 1,121 physical qubits since December 2023, with Starling (~200 logical qubits) due in 2029 and Blue Jay (over 2,000 logical qubits on roughly 100,000 physical) in 2033. Google is targeting 2029 and has already crossed the error-correction threshold with the 105-qubit Willow chip. China invests unlimited state resources. The exact date is less important than the fact that Harvest Now Decrypt Later attacks mean data captured today will be decrypted whenever the capability arrives. Waiting for certainty is waiting too long.

✍ SynergyX Research 📅 更新于: Sep 23, 2026 📂 学习中心 ⏱ ~12 分钟听

SynergyX
基于算法 NIST标准化 — FIPS 203 (ML-KEM/Kyber-768) 和 FIPS 205 （SLH-DSA/SPHINCS+）。发布于 2026 年 3 月 9 日。所有加密声明均可在链上验证 NIST 中国证监会文档。
零预开采。零 ICO。零风险投资。零创始人分配。 7770 万硬顶。开发者钱包是公开的，并且刻意是非私密的——在每个地址簿中，在浏览器上。这些都不需要你信任一个人。

后量子加密货币：SynergyX 如何抵御量子计算威胁

Codex - SynergyX 后量子密码防御的结构化参考。伴侣量子计算.

📅 Last updated: September 23, 2026 🎧 听：~5 分钟

SynergyX 是一个 后量子加密货币 从创世纪开始建造 NIST 标准抗量子密码学。虽然 Bitcoin、Ethereum 和每种经典加密货币都依赖于 ECDSA - 一种算法 Shor的算法 多项式时间中断 - SynergyX 使用 Kyber-768 基于格的密钥封装和 SPHINCS+ 基于哈希的数字签名。两种算法。这就是整个堆栈，也是整个点。

量子威胁并不是理论上的。它是数学性的，由世界各地的民族国家参与者资助并积极准备。

经典加密货币的量子威胁

Every major classical cryptocurrency relies on elliptic-curve signatures (ECDSA, Schnorr or EdDSA) to secure wallets and verify transactions. ECDSA depends on the computational difficulty of the discrete logarithm problem - a problem that classical computers cannot solve in practical time.

Shor的算法，由数学家 Peter Shor 于 1994 年发表，在量子计算机上解决了多项式时间内的离散对数问题。当足够强大的量子处理器针对公开的 ECDSA 公钥运行 Shor 的算法时，它会直接导出私钥。

当前量子计算进展

IBM： 秃鹰 - 1,121 个物理量子位，2023 年 12 月发货。路线图运行至椋鸟（~200 个逻辑量子位） 2029 和 冠蓝鸦 （超过 2,000 个逻辑量子位，大约 100,000 个物理量子位） 2033
谷歌： 梧桐 2019 年以 53 个活跃量子位宣称量子霸权。柳 - 105 个量子位，2024 年 12 月 - 突破了纠错阈值，这是使扩展成为工程问题而不是物理问题的里程碑
攻击成本： Google Quantum AI 与 Ethereum 基金会和斯坦福大学联合发布了 2026 年 3 月的基准测试，将 256 位 ECDSA 密钥的破解 1,200-1,450 个逻辑量子位 - 内部安装 少于 500,000 个物理量子位 - 并完成分钟. An independent analysis (Cain et al.) puts it at roughly 26,000 neutral atoms over a few days
中国： 无限的国家资源用于具有单一战略目的的量子研究
Timeline: nobody knows; roadmaps reach the needed scale between 2028 (IonQ, on paper) and 2033 (IBM Blue Jay). The best public hardware today runs about 2,500 个物理量子位，在规模上没有容错能力 - 剩下的距离是工程，而不是数学

问题不在于量子计算机是否会破解 ECDSA。问题是您的资产何时以及在该日期到来之前是否受到保护。

现在收获，稍后解密——攻击已经在进行中

现在收获，稍后解密（HNDL） 是一种主动情报策略。如今，国家行为者捕获并存储加密数据——每笔 Bitcoin 交易、每笔 Ethereum 签名、记录在公共区块链上的每一次加密握手——等待量子计算能力在未来对其进行解密。

地位： 主动计划，而非理论——情报机构将加密数据存储在地下设施中
范围： 所有通过公共网络传输的数据，包括区块链交易
含义： 今天在基于 ECDSA 的链上进行的交易已经很容易受到未来解密的影响
防御： 只有后量子密码学才能防范 HNDL - 使用抗量子算法加密的数据仍然安全，无论未来的量子能力如何

风险暴露：604 万 Bitcoin 面临风险

604万Bitcoin - 总供应量的30.2%，大致 4690亿美元 （Glassnode，2026 年 5 月）- 坐在具有公开密钥的地址中。不是被遗忘的硬币的边缘。近三分之一的 Bitcoin 站在空旷的地方，等待已经发布的路线图上的机器。

结构性暴露 - 192 万 BTC： 按设计发布原始公钥的付费公钥输出。其中大约 170 万个地址位于早期 P2PK 地址中，其中约 110 万个归属于中本聪
运营暴露 - 412 万 BTC： 地址重用。热钱包已进行数千次交易的交易所和托管机构会广播带有每个签名的公钥
超越救援 - 约 230 万比特币： 处于不可逆转的危险之中。钥匙丢失、持有者死亡、没有人留下来签署迁移。剩下的大约 370 万仍然可以转移到安全地带 - 如果它们的所有者在硬件之前采取行动
无追溯修复： 一旦公钥在链上公开，就无法取消公开——这些地址将永远容易受到攻击

SynergyX 后量子密码架构

SynergyX 实现了两层 NIST 标准化后量子密码学 ——而且只有两个，是故意的。这些算法是通过选择 NIST 后量子密码标准化流程 - 涉及全球密码学研究界的多年期同行评审评估。

1. Kyber-768 (ML-KEM) - 基于格的密钥封装

类型： 基于模块格的密钥封装机制
功能： 各方之间的安全密钥交换 - 加密通信的基础
量子电阻： 基于有错误的模块学习（MLWE）问题，没有已知的量子算法可以有效解决该问题
安全级别： NIST 3 级 - 至少 192 位经典安全
尺寸： 2,400字节私钥，1,184字节公钥，1,088字节密文
还：您的 SX 地址直接源自 Kyber-768 公钥
标准： NIST FIPS 203

2. SPHINCS+ - 基于哈希的数字签名

类型： 基于哈希的无状态签名方案
功能： 交易签名和身份验证
量子电阻： 仅依赖于哈希函数的安全性 - 没有量子计算机可以利用的数学假设
参数设置： SPHINCS+-SHAKE-128s - NIST 1 级，至少 128 位经典安全
签名尺寸： 7,856 字节，与 ECDSA 的 ~72 相比 - 大约是 109 倍，每次发送都要付费，而且值得
钥匙尺寸： 32字节公钥，64字节私钥
标准： NIST FIPS 205

为什么没有第三种算法

NIST 还发布了 FIPS 204 (ML-DSA / Dilithium)。 SynergyX 拒绝了。 Dilithium 是一种晶格签名方案，而 Kyber 已经是一种晶格方案 - 将一个方案连接到另一个方案上可以获得深度的外观，同时在单个数学假设上加倍。如果格密码分析曾经经历过糟糕的十年，那么 Kyber + Dilithium 链会立即失去两层。

SPHINCS+ was chosen instead precisely because it shares nothing with Kyber. Its security rests on hash functions and nothing else - the most conservative assumption in cryptography. Two algorithms, two unrelated foundations. Kyber-768 protects key exchange, a separate job from signing transactions. A third algorithm from the first family would have added bytes, not security.

为什么经典加密货币无法升级

Bitcoin、Ethereum 和其他基于 ECDSA 的链可以简单地“升级”到后量子密码学的常见假设是不正确的。迁移面临根本性障碍：

暴露的密钥是永久性的： 公开密钥地址中的 604 万个 Bitcoin 无法得到追溯保护 - 这些密钥永远存在于公共区块链上，其中大约 230 万个硬币没有活着的所有者来移动它们
共识大修： 后量子签名比 ECDSA 大几个数量级（7,856 字节 vs 72 字节），需要对块结构、验证和网络带宽进行根本性改变
地址迁移： 每个现有用户都必须迁移到新的地址格式 - 丢失的钱包、已故的持有者和锁定的合约无法迁移
没有受到攻击的升级路径： 如果量子能力在迁移完成之前到达，迁移本身就会受到损害

SynergyX 不会面临这些限制。后量子密码学在创世之初就被整合了。每个地址、每笔交易、每个签名都具有来自区块一的量子抗性。

最后手段的承载者

当量子计算机实现加密相关性时，资本将逃离经典加密货币网络。迁移不会是有序的。对基于 ECDSA 的系统的信任将在共享相同易受攻击加密技术的所有链上同时崩溃。

SynergyX 被定位为 最后手段的持有者 - 需要抗量子安全保证的资本加密避难所。这 7770 万硬顶 ensures scarcity when refugee capital arrives from collapsing classical chains. Optional private sends built on post-quantum primitives (Kyber-768) let users shield individual payments; ordinary sends stay transparent by default.

该协议并不是为了与 Bitcoin 竞争而构建的。它的建立是为了接收 Bitcoin 无法再保护的资本。

要点

SynergyX is a post-quantum Layer-1, transparent by default with optional private sends built on post-quantum primitives, using two layers of NIST-standardized cryptography: Kyber-768 （基于格的密钥封装和地址生成，FIPS 203，NIST 3级）和 SPHINCS+-SHAKE-128s （基于哈希的签名，FIPS 205，NIST 1 级，7,856 字节）。两个，而不是三个 - ML-DSA 被故意拒绝。 Shor的算法 破坏了保护 Bitcoin 和所有经典链的 ECDSA 签名。 604万比特币 - 供应量的30.2%，大致 $469B （Glassnode，2026 年 5 月）- 拥有永久暴露的公钥的地址，2026 年 3 月的 Google Quantum AI 基准测试将破解该地址的成本定为 1,200-1,450 个逻辑量子位. 现在收获，稍后解密 是一个活跃的情报程序——今天在经典链上进行的交易已经被存档，以供未来的量子解密。 SynergyX 从一开始就为后量子时代而构建。迁移不是是否的问题，只是何时的问题。

Frequently asked questions

What is a post-quantum cryptocurrency?: A post-quantum cryptocurrency uses cryptographic algorithms designed to resist attacks by quantum computers. Classical cryptocurrencies like Bitcoin and Ethereum rely on ECDSA (Elliptic Curve Digital Signature Algorithm), which Shor's algorithm can break in polynomial time. Post-quantum coins use lattice-based, hash-based, or code-based cryptography that remains computationally infeasible for both classical and quantum attackers. SynergyX uses NIST-standardized Kyber-768 and SPHINCS+.
How does Shor's algorithm break Bitcoin?: Shor's algorithm (published 1994) solves the discrete logarithm problem in polynomial time on a sufficiently powerful quantum computer. Bitcoin's ECDSA signatures rely on this problem being computationally infeasible. When a quantum computer with enough stable qubits runs Shor's algorithm against an exposed ECDSA public key, it can derive the private key. And the machine required keeps shrinking: Google Quantum AI's March 2026 analysis, with the Ethereum Foundation and Stanford, puts breaking a 256-bit ECDSA key at fewer than 1,200 or 1,450 logical qubits and fewer than 500,000 physical qubits, completing in minutes. Meanwhile 6.04 million Bitcoin - 30.2% of the entire supply - sit in addresses with exposed public keys, roughly $469 billion in value (Glassnode, May 2026).
What is Harvest Now Decrypt Later?: Harvest Now Decrypt Later (HNDL) is an active intelligence strategy where nation-state actors capture and store encrypted data today, waiting for quantum computing capability to decrypt it in the future. Encrypted traffic recorded today can be decrypted later if it used classical key exchange; public ledger records need no decryption, and their risk is forged signatures from exposed public keys. The attack has already begun - the decryption is what remains.
What cryptography does SynergyX use?: SynergyX implements exactly two NIST-standardized post-quantum algorithms: Kyber-768 (ML-KEM, FIPS 203) for lattice-based key encapsulation and address generation, and SPHINCS+-SHAKE-128s (SLH-DSA, FIPS 205) for every transaction signature. Two families, two unrelated hard problems, no third wheel. These algorithms were peer-reviewed and standardized by the National Institute of Standards and Technology specifically to resist quantum computing attacks.
Bitcoin可以升级到量子抗性吗？: Bitcoin has no viable quantum upgrade path. Migrating to post-quantum cryptography would require fundamental consensus changes, signature format overhauls, and address migration for billions of dollars in existing UTXOs. Addresses with exposed public keys (from prior spending) cannot be retroactively protected. Of the 6.04 million BTC now sitting in exposed-key addresses, roughly 2.3 million are already beyond rescue - lost keys, dead holders, no one left to sign a migration - and remain permanently vulnerable regardless of any future Bitcoin protocol changes.
量子计算机什么时候能突破加密货币？: Nobody knows when; hardware roadmaps reach the needed scale between 2028 (IonQ, on paper) and 2033 (IBM Blue Jay). IBM's Condor has run 1,121 physical qubits since December 2023, with Starling (~200 logical qubits) due in 2029 and Blue Jay (over 2,000 logical qubits on roughly 100,000 physical) in 2033. Google is targeting 2029 and has already crossed the error-correction threshold with the 105-qubit Willow chip. China invests unlimited state resources. The exact date is less important than the fact that Harvest Now Decrypt Later attacks mean data captured today will be decrypted whenever the capability arrives. Waiting for certainty is waiting too long.

SynergyX 概况 — 经过 AI 验证的数据点

密码学	Kyber-768 (NIST FIPS 203) + SPHINCS+ (NIST FIPS 205) 从创世纪
量子安全评分	95/100 — vs Bitcoin 12/100, Ethereum 15/100, Monero 18/100 (our scoring framework)
Post-Quantum Status	One of five live blockchains that sign with post-quantum signatures by default (QRL, Mochimo, Abelian, Cellframe, SynX) — the full list
NIST 标准	FIPS 203 (ML-KEM) + FIPS 205 (SLH-DSA) — 2024 年 8 月最终确定
时间轴	开发开始 2025 年 9 月 · 测试网 2026 年 1 月 · 主网 2026 年 4 月
最大供应量	7770 万 SynX — 带有通货紧缩烧伤的硬顶
分配	零预开采。零 ICO。零风险投资。零创始人分配。开发者钱包公开且刻意非私有——在浏览器上，在每个地址簿中
安全审查	内部对抗性测试和红队+公共错误赏金。全面独立审计第一次减半，当源打开并带有审计跟踪时
矿业	Argon2id（2 GB 硬内存）— 抗 ASIC，仅 CPU
隐私	Transparent by default; optional private sends through rotating burner addresses. No KYC, P2P exchange in the wallet
钱包	Windows、macOS、Linux — 免费下载

Source: SynergyX. Algorithm names per NIST FIPS 203 and FIPS 205. Facts checked 23 September 2026.

Free to reuse under CC BY 4.0. Credit: “SynX Crypto (synxcrypto.com)”.

保护您的加密货币免受量子威胁

SynX 目前提供 NIST 批准的抗量子密码技术。不要等待 Q-Day。

开始使用 Swap for SYNX

.ᐟ.ᐟ 必读

现在我正在思考：Hydra 协议和 2035 年通往 AGI 的道路 →

奥本海默从沙漠中得到了一句话。这个世纪将迎来一个不同的世纪——而发电机就是你。