# What is claimed > Twenty claims; claims 1, 2, 19 and 20 stand on their own. Gavin Robert McGowen · interstellarblends.com. This site describes a patent application. It offers no token, security or investment. Canonical: https://velocityprosperity.com/claims/ ## The scalpel - Claim 1: “A digital currency ecosystem comprising” an AI-driven fee mechanism, a quantum-resistant blockchain, quadratic voting, a fund and a compliance module. - Claim 2: the network “configured to perform autonomous velocity-governing operations”, its seven steps closed by feedback. - Claims 19 and 20 claim the same loop as stored instructions and as a method. ## In plain words The claims define what the application seeks to protect. Claims 1, 2, 19 and 20 stand on their own; the other sixteen add detail to claim 2. **Claim 1 *Independent* A digital currency ecosystem comprising:** an AI-driven dynamic adjustment mechanism configured to optimize transaction fees and user rewards in real-time using a deep Q-network trained via reinforcement learning; a quantum-resistant blockchain utilizing NTRU lattice-based cryptography with a proof-of-stake consensus mechanism adjusted by AI-driven fee optimization for securing transactions; a decentralized autonomous organization (DAO) governance module employing quadratic voting implemented via smart contracts for decision-making; an economic stimulation fund for reinvesting a portion of transaction fees into societal initiatives guided by AI optimization and DAO decisions; a regulatory harmonization module for ensuring compliance across multiple jurisdictions using automated know-your-client (KYC) and anti-money laundering (AML) processes, wherein the AI-driven dynamic adjustment mechanism, the quantum-resistant blockchain, the DAO governance module, the economic stimulation fund, and the regulatory harmonization module are interconnected via a closed-loop feedback system optimizing transaction efficiency through AI-driven parameter adjustments. **Claim 2 *Independent* A distributed digital-currency ledger network configured to perform autonomous velocity-governing operations, the network comprising:** a plurality of validation nodes maintaining a shared ledger and independently processing ledger transactions; a telemetry subsystem configured to obtain ledger-operation telemetry representing at least transaction activity, network participation, economic operation, validation operation, governance operation, value-allocation operation, and ledger formation; a control-state subsystem configured to generate, from the ledger-operation telemetry, a common control-state representation that is reproducible by the plurality of validation nodes; an adaptive control mechanism configured to process the common control-state representation and generate a parameter-state update comprising an economic operating parameter and a network operating parameter, the economic operating parameter controlling an economic operation of the distributed digital-currency ledger network and the network operating parameter controlling a corresponding ledger operation; a parameter-transition control mechanism configured to constrain the parameter-state update according to an authorized transition rule; a parameter-state distribution subsystem configured to generate a parameter-state package comprising the constrained parameter-state update, an update identifier, an effective ledger interval, and authentication data, and to distribute the parameter-state package to the plurality of validation nodes, wherein: each validation node is configured to verify the parameter-state package, activate the constrained parameter-state update as an activated parameter state at the effective ledger interval responsive to the verification, and apply the activated parameter state during ledger operation to control transaction admission, validation operation, and ledger-record formation, and the economic operation and the corresponding ledger operation are applied using the activated parameter state as a coordinated network operating state; and a feedback subsystem configured to measure post-activation ledger-operation telemetry produced by application of the activated parameter state and provide the post-activation ledger-operation telemetry to a subsequent control cycle of the adaptive control mechanism. **Claim 3 *On claim 2* The distributed digital-currency ledger network of claim 2, wherein:** the adaptive control mechanism comprises a machine-learning model trained via reinforcement learning; and the adaptive control mechanism is configured to generate the parameter-state update by selecting the parameter-state update from a plurality of candidate parameter-state updates using the machine-learning model. **Claim 4 *On claim 3* The distributed digital-currency ledger network of claim 3, wherein:** the machine-learning model comprises a deep Q-network comprising at least two layers; and the adaptive control mechanism is configured to select the parameter-state update by: applying a deterministic forward pass of the deep Q-network to the common control-state representation using a set of committed weights, to produce a plurality of output values each corresponding to a candidate parameter-state update of the plurality of candidate parameter-state updates; and selecting, as the parameter-state update, a candidate parameter-state update corresponding to a highest output value among the plurality of output values. **Claim 5 *On claim 2* The distributed digital-currency ledger network of claim 2, wherein the authentication data comprises a digital signature generated using a post-quantum digital signature scheme that is distinct from a key-encapsulation mechanism used by the distributed digital-currency ledger network for confidentiality.** **Claim 6 *On claim 5* The distributed digital-currency ledger network of claim 5, wherein:** the post-quantum digital signature scheme comprises a lattice-based digital signature scheme, a hash-based digital signature scheme, or some combination thereof; and each validation node of the plurality of validation nodes is configured to verify the parameter-state package by verifying the digital signature using a public key corresponding to a source of the parameter-state package. **Claim 7 *On claim 2* The distributed digital-currency ledger network of claim 2, wherein:** the plurality of validation nodes are configured to operate a distributed consensus protocol, and the network operating parameter governs a consensus operation of the distributed consensus protocol comprising validator eligibility determination, validator selection, validation weighting, quorum determination, ledger finality determination, or some combination thereof. **Claim 8 *On claim 7* The distributed digital-currency ledger network of claim 7, wherein:** the distributed consensus protocol comprises a proof-of-stake consensus protocol under which each validation node of the plurality of validation nodes stakes a respective token amount, the network operating parameter comprises a minimum validator stake threshold, a validator reward share, a stake weighting, a governance quorum, a finality-related parameter, or some combination thereof; and a value of the network operating parameter is clamped to an authorized range by the parameter-transition control mechanism independent of an output of the adaptive control mechanism. **Claim 9 *On claim 2* The distributed digital-currency ledger network of claim 2, further comprising a governance subsystem configured to receive a plurality of votes cast by token holders of the distributed digital-currency ledger network with respect to a proposal affecting the economic operating parameter, the network operating parameter, a value allocation, or some combination thereof,** wherein each validation node is further configured to activate the constrained parameter-state update as the activated parameter state responsive to a governance authorization associated with the proposal. **Claim 10 *On claim 9* The distributed digital-currency ledger network of claim 9, wherein:** a token cost of casting a vote of the plurality of votes is a nonlinear function of a number of votes cast in the vote; the nonlinear function is equal to a square of the number of votes cast in the vote; the governance subsystem is configured to determine that the proposal has passed responsive to a participation rate meeting or exceeding a governance quorum and a total number of yes votes exceeding a total number of no votes; and the governance subsystem is further configured to: consume a locked token amount corresponding to votes cast on a side of the proposal matching an outcome of the proposal, responsive to the proposal passing, and refund a locked token amount corresponding to votes cast on an opposing side of the proposal. **Claim 11 *On claim 2* The distributed digital-currency ledger network of claim 2, wherein the economic operating parameter comprises an allocation of a portion of transaction-derived value collected from transactions admitted under the activated parameter state to a treasury, and further comprising a treasury subsystem configured to:** determine, for a proposed disbursement from the treasury, whether a balance of the treasury after the proposed disbursement would remain at or above a reserve floor, and disburse the proposed disbursement to a recipient responsive to the balance remaining at or above the reserve floor and the recipient satisfying a committed eligibility criterion. **Claim 12 *On claim 11* The distributed digital-currency ledger network of claim 11, wherein:** the reserve floor is calculated from an average disbursement from the treasury over a trailing plurality of ledger intervals, and the treasury subsystem is further configured to route a surplus portion of the balance of the treasury to at least one additional approved initiative, responsive to the balance exceeding a target reserve calculated from the reserve floor. **Claim 13 *On claim 2* The distributed digital-currency ledger network of claim 2, further comprising a compliance subsystem configured to:** determine a jurisdiction associated with a transaction admitted under the activated parameter state; calculate a compliance risk score for the transaction from a plurality of weighted factors associated with the jurisdiction, and route the transaction to a disposition state based on a comparison of the compliance risk score to at least one threshold. **Claim 14 *On claim 13* The distributed digital-currency ledger network of claim 13, wherein:** the at least one threshold is adjustable, within a bounded range, by the parameter-state update generated by the adaptive control mechanism; and the compliance subsystem is configured to determine the jurisdiction by applying a committed jurisdiction-to-rule mapping identifying at least one applicable regulatory requirement for the jurisdiction. **Claim 15 *On claim 2* The distributed digital-currency ledger network of claim 2, wherein:** the post-activation ledger-operation telemetry is associated with a cycle identifier corresponding to a defined measurement window, and the control-state subsystem is configured to construct the common control-state representation for the subsequent control cycle by normalizing the post-activation ledger-operation telemetry using statistics computed over a fixed historical window preceding the cycle identifier. **Claim 16 *On claim 15* The distributed digital-currency ledger network of claim 15, wherein the control-state subsystem is further configured to, responsive to determining that a portion of the post-activation ledger-operation telemetry is a missing or stale portion for a given ledger interval:** forward-fill the missing or stale portion using a corresponding portion of the ledger-operation telemetry from a preceding ledger interval and a defined decay factor, prior to constructing the common control-state representation for the subsequent control cycle; and cause the parameter-state distribution subsystem to withhold distribution of a further parameter-state package while the missing or stale portion persists. **Claim 17 *On claim 2* The distributed digital-currency ledger network of claim 2, further comprising a privacy subsystem configured to:** receive, for a transaction admitted under the activated parameter state, a proof verifying that the transaction satisfies a predetermined condition without revealing a private input value used to satisfy the predetermined condition; and record a nullifier associated with the proof; and reject a subsequent transaction associated with a nullifier matching the recorded nullifier, wherein the post-activation ledger-operation telemetry measured by the feedback subsystem for the transaction comprises a public result of verifying the proof. **Claim 18 *On claim 2* The distributed digital-currency ledger network of claim 2, wherein:** the adaptive control mechanism comprises a deep Q-network; the authentication data comprises a post-quantum digital signature; the plurality of validation nodes are configured to operate a proof-of-stake consensus protocol; the network operating parameter comprises a validator reward share; the economic operating parameter comprises an allocation of a portion of transaction-derived value collected from transactions admitted under the activated parameter state to a treasury; and the distributed digital-currency ledger network further comprises: a governance subsystem configured to receive a plurality of votes cast with respect to a proposal under a quadratic-cost voting mechanism, wherein each validation node is further configured to activate the constrained parameter-state update as the activated parameter state responsive to a governance authorization associated with the proposal; a compliance subsystem configured to route a transaction admitted under the activated parameter state to a disposition state based on a compliance risk score; and a privacy subsystem configured to verify a proof for a transaction admitted under the activated parameter state, the proof verifying that the transaction satisfies a predetermined condition without revealing a private input value used to satisfy the predetermined condition. **Claim 19 *Independent* A non-transitory computer-readable medium storing instructions that, when executed by one or more processors coupled to a memory storing the instructions, cause the one or more processors to perform operations comprising:** obtaining ledger-operation telemetry representing transaction activity, network participation, economic operation, validation operation, governance operation, value-allocation operation, and ledger formation on a shared ledger maintained by a plurality of validation nodes; generating, from the ledger-operation telemetry, a common control-state representation that is reproducible by the plurality of validation nodes; generating, using an adaptive control mechanism configured to process the common control-state representation, a parameter-state update comprising an economic operating parameter and a network operating parameter, the economic operating parameter controlling an economic operation of a distributed digital-currency ledger network and the network operating parameter controlling a corresponding ledger operation; constraining the parameter-state update according to an authorized transition rule, to produce a constrained parameter-state update; generating a parameter-state package comprising the constrained parameter-state update, an update identifier, an effective ledger interval, and authentication data; distributing the parameter-state package to the plurality of validation nodes; activating the constrained parameter-state update as an activated parameter state at the effective ledger interval, responsive to each of the plurality of validation nodes verifying the parameter-state package; applying the activated parameter state during ledger operation to control transaction admission, validation operation, and ledger-record formation, wherein the economic operation and the corresponding ledger operation are applied using the activated parameter state as a coordinated network operating state; measuring post-activation ledger-operation telemetry produced by application of the activated parameter state; and providing the post-activation ledger-operation telemetry to a subsequent control cycle of the adaptive control mechanism. **Claim 20 *Independent* A computer-implemented method for controlling operation of a distributed digital-currency ledger network, the method comprising:** obtaining, by one or more processors coupled to a memory storing instructions for execution by the one or more processors, ledger-operation telemetry representing transaction activity, network participation, economic operation, validation operation, governance operation, value-allocation operation, and ledger formation on a shared ledger maintained by a plurality of validation nodes; generating, from the ledger-operation telemetry, a common control-state representation that is reproducible by the plurality of validation nodes; generating, using an adaptive control mechanism configured to process the common control-state representation, a parameter-state update comprising an economic operating parameter and a network operating parameter, the economic operating parameter controlling an economic operation of the distributed digital-currency ledger network and the network operating parameter controlling a corresponding ledger operation; constraining the parameter-state update according to an authorized transition rule, to produce a constrained parameter-state update; generating a parameter-state package comprising the constrained parameter-state update, an update identifier, an effective ledger interval, and authentication data; distributing the parameter-state package to the plurality of validation nodes; activating the constrained parameter-state update as an activated parameter state at the effective ledger interval, responsive to each of the plurality of validation nodes verifying the parameter-state package; applying the activated parameter state during ledger operation to control transaction admission, validation operation, and ledger-record formation, wherein the economic operation and the corresponding ledger operation are applied using the activated parameter state as a coordinated network operating state; measuring post-activation ledger-operation telemetry produced by application of the activated parameter state; and providing the post-activation ledger-operation telemetry to a subsequent control cycle of the adaptive control mechanism. The question ## What does the VP2.0 application claim? Twenty claims: a digital currency ecosystem (claim 1); a ledger network that governs its own velocity through a measured, bounded, authenticated control cycle (claim 2), with sixteen claims that add detail to it; and the same cycle as stored instructions (claim 19) and as a method (claim 20). **The sources in full every quotation on this page, where it stands** > “A digital currency ecosystem comprising:” > — VP2.0 · Claim 1 > “A non-transitory computer-readable medium storing instructions that, when executed by one or more processors coupled to a memory storing the instructions, cause the one or more processors to perform operations comprising:” > — VP2.0 · Claim 19 > “A computer-implemented method for controlling operation of a distributed digital-currency ledger network, the method comprising:” > — VP2.0 · Claim 20 > “A distributed digital-currency ledger network configured to perform autonomous velocity-governing operations, the network comprising:” > — VP2.0 · Claim 2 How it is read claims 3 to 18 each name an earlier claim, and every chain of them leads back to claim 2 (counted from the claims’ own words).