You are an absolute dumb fat pig, Super Tardnet. Your entire critique relies on a fundamental misinterpretation of UTXO-based privacy primitives, Pedersen commitments, Sphinx onion routing, and basic network topology. When you claim that Monero's one-time public keys are "not really one-time" because they appear first as an output and later as an input in a transaction, you expose a profound misunderstanding of how stealth addresses and ring signatures actually work. Every Monero output uses a cryptographically unique one-time destination public key generated via P=Hₛ(rA)G+B When a user spends that output, they construct a unique key image I=x⋅Hₚ(P) to prevent double-spending without revealing which output in the ring is the real spend. Referencing a past output in a ring signature as a decoy is standard mixin behavior (it is not key reuse). The Chainalysis examples you continually cite do not represent cryptographic vulnerabilities or blockchain leaks; they rely on out-of-band metadata, centralized exchange KYC logs, bad user OPSEC, address reuse at custodial swap endpoints, or legacy zero-decoy transactions from years past. Monero blockchain itself has never leaked spend histories, and conflating out-of-band operational security blunders with cryptographic protocol failure is pure intellectual dishonesty. Also, your attempts to dismiss FCMP++ by comparing it to Lightning's Sphinx routing are equally nonsensical. FCMP++ (Full-Chain Membership Proofs) replaces RingCT's 16-element decoy rings with Curve Trees and zero-knowledge membership proofs, expanding the anonymity set from 16 to the entire cumulative history of outputs on the network, effectively rendering ring-selection heuristics mathematically impossible. In contrast, Lightning's onion routing offers nowhere near this level of privacy. While Sphinx encrypts routing hops, intermediate nodes along a payment path must know the exact HTLC amount and CLTV expiry passing through their channel in order to update local channel commitment transactions. Claiming intermediate routing nodes don't know the routed amount is factually false. Even with Multi-Path Payments, large routing hubs holding massive network liquidity can trivially perform timing, flow, and volume correlation analysis to reconstruct split payments and link sender to receiver. And framing the fact that a sender knows how much they sent to a recipient as a "privacy leak" is perhaps your most absurd mental gymnastic yet. Monero hides transaction amounts on-chain from all third parties using Pedersen Commitments (C=aG+bH) verified via Bulletproofs+. A sender knowing the precise amount they transferred to a recipient is how basic arithmetic works, not a protocol flaw. Meanwhile, you completely ignore Lightning's glaring structural vulnerability: Active channel probing! Because Lightning channel balances are transient state commitments, any low-cost probe node can send fake payment probes across the network to continuously map balance changes across public channels. This allows malicious actors or government surveillance hubs to monitor payment flows in real time and deanonymize transacting parties with extreme statistical confidence without ever needing access to private keys. Ultimately, you are trying to benchmark base-layer cryptographic privacy against an off-chain routing network that fundamentally relies on public topology, gossip protocols, and heavily centralized liquidity hubs run by regulated corporations. Lightning's threat model inherently exposes users to traffic analysis, Sybil attacks, and active network surveillance by intermediate routing partners. Monero secures privacy at Layer 1 by default, I mean, concealing sender, receiver, and transaction amount simultaneously without forcing users to rely on centralized routing hubs, navigate channel liquidity constraints, or expose their financial states to active network probing. Trying to build a veneer of technical superiority for Lightning while weaponizing out-of-band user errors against Monero doesn't change the underlying mathematics, you stupid cunt. Monero provides battle-tested, default protocol-level privacy, while Lightning's privacy model remains demonstrably fragile and leaky in practice. nevent1qvzqqqqqqypzpnumqmdahcgvwls8mf7gdya9l4xdp0mluet5ny7gh2r6untyqrq8qyt8wumn8ghj7un9d3shjtnyd968gmewwp6kytcpramhxue69uhhxetpwf3kstnwdaehgunpwf3ks6tkv4ejucm0d5hsqgpdptq4etd2a388lq6367pn9yu3ldc96g8584xd0m6t4us6zyu0aqs9dmly