Financial-Sector AI Governance Research Platform

BLADE-FINANCE Governance Node

BLADE-FINANCE = Boundary-Layer Authority for Decision Enforcement, Financial-Sector Node

A simulation-validated, software-enforced authority-arbitration reference architecture for financial-sector AI decision systems. It places a hardware-anchored governance layer between automated transaction-decision models and consequential financial actions, determining in real time whether a transaction is cleared autonomously, sent to supervised review, escalated for elevated confirmation, or placed on manual hold.

Design and Simulation Complete · Published on Zenodo · DOI: 10.5281/zenodo.20374692

This is a governance layer, not a trading system or a fraud product. It is an auditable, tamper-evident checkpoint that applies the same AUTHREX authority pipeline used across the BLADE platform family to the economic-security domain, aligned to the implementation framing of the U.S. Treasury Financial Services AI Risk Management Framework and the NIST AI Risk Management Framework.

Launch Governance Simulator Zenodo Record Repository Evaluation Protocol SDK Integration
BLADE-FINANCE Governance Node reference design: a 1U rack-mount authority appliance with a governance plane, an inference plane, a host security plane, and a hardware security module.
BLADE-FINANCE reference authority node (1U rack-mount). Reference design, TRL 2 hardware; no prototype has been built.

Why This Platform Exists

Financial institutions are deploying AI decision systems at the core of payments, lending, and fraud operations faster than assurance practice has matured. The U.S. Treasury has identified AI-specific risks to the financial system, and in 2024 issued the Financial Services AI Risk Management Framework (FS AI RMF) building on the NIST AI Risk Management Framework. The open question is not whether financial AI should be governed, but how to enforce that governance at decision time, with evidence an examiner can verify after the fact.

BLADE-FINANCE addresses that gap as fundamental research. It extends the AUTHREX authority-governed autonomy architecture, already instantiated across nine other operational domains in the BLADE platform family, into the economic-security domain. The same governance core that arbitrates authority for directed-energy, automotive, maritime, infrastructure, orbital, counter-UAS, agentic-AI, and swarm systems is applied to the financial transaction-decision loop, producing an auditable, tamper-evident record of every automated decision.

The contribution, stated plainly

A reusable, standards-aligned method for placing a hardware-anchored authority checkpoint in front of financial AI decisions, so that consequential actions are gated by an explicit four-tier authority model and appended to a cryptographic evidence chain rather than executed silently inside a model.

Research status: Design-specified and simulation-validated (TRL 2-4). Not operationally deployed. All evaluation uses synthetic data. Standards alignment is self-assessed and is not an official compliance, certification, or endorsement determination.

Governance That Examiners Can Verify

Three failure modes motivate the design. First, deepfake and synthetic-identity attacks defeat authentication that trusts a single channel. Second, AI-agent coordinated attacks spread small, individually unremarkable actions across many accounts, devices, and payees so that no single transaction looks anomalous. Third, low-and-slow rings deliberately stay under per-transaction thresholds, so a real-time path that clears each transaction in isolation never sees the pattern.

A model score alone cannot answer the governance question, which is not only is this transaction risky but who is authorized to let it proceed, and what is the auditable record. BLADE-FINANCE separates the decision from the model: a transaction-decision model proposes, and an explicit authority pipeline disposes, recording its reasoning to a hash-chained ledger.

What BLADE-FINANCE Is

BLADE-FINANCE is a software-enforced authority-arbitration reference architecture with an accompanying reference hardware node. The software is exercised by a deterministic, fully offline browser simulator; the hardware is a 1U rack-mount reference design specified down to a complete bill of materials, but not yet built.

8
AUTHREX pipeline stages
4
HMAA authority tiers
36
Hardware components
~$9,228
Reference BOM
TRL 3-4
Simulation / TRL 2 hw

Every decision passes through an eight-stage AUTHREX pipeline (VALIDATE, SATA, ADARA, MAIVA, HMAA, FLAME, ERAM, CARA) and is appended to a SHA-256 evidence chain over a canonical-form serialization. A four-tier Hierarchical Multi-Attribute Authority (HMAA) model routes each transaction to one of four dispositions. A population-state coordination model scores correlated behaviour across account, device, payee, and IP-cluster history, and a retrospective stigmergic swarm-review module re-examines cleared traffic to recover coordinated rings the per-transaction path lets through.

The Eight-Stage AUTHREX Pipeline, Applied Per Transaction

Each transaction enters the same authority pipeline that AUTHREX applies in every BLADE domain. VALIDATE checks schema and canonical form; SATA scores input integrity and authentication trust; ADARA assesses adversarial and deepfake signals; MAIVA aggregates multi-signal agreement; HMAA computes the authority tier; FLAME enforces a latency budget; ERAM gates residual risk; and CARA defines the recovery and hold path. The decision and its inputs are signed and appended to the evidence chain.

Transaction Decision Path Transaction + context VALIDATE schema SATA input trust ADARA deepfake MAIVA agreement HMAA authority FLAME latency ERAM risk gate CARA recovery T3 · Autonomous cleared T2 · Supervised review T1 · Elevated confirmation T0 · Manual Hold blocked SHA-256 Evidence Chain Every stage output and final disposition is serialized in canonical form and appended to a hash-chained, tamper-evident audit ledger. block n-1 block n block n+1 Stages and tiers are illustrative of the reference design; the simulator is the authoritative implementation.
Figure 1. The eight-stage AUTHREX pipeline applied per transaction. HMAA computes one of four authority tiers; the decision and its evidence are appended to a SHA-256 hash-chained ledger.

Four-Tier HMAA: Who Is Authorized To Let This Proceed

Hierarchical Multi-Attribute Authority computes a single authority tier from the upstream stage outputs and the population-state coordination score. The tier, not the raw model score, determines the disposition, and the tier assignment is itself recorded.

TierDispositionMeaning
T3Autonomous clearanceHigh trust, no coordination signal, within latency budget. The transaction proceeds and is logged.
T2Supervised reviewModerate residual risk. The transaction is queued for a human reviewer with the full evidence record attached.
T1Elevated confirmationElevated risk or coordination signal. A stronger, out-of-band confirmation step is required before the action can proceed.
T0Manual holdAdversarial pattern, integrity failure, or fail-closed condition. The action is blocked pending manual disposition.

When any stage cannot reach a confident decision, when input integrity fails, or when the latency budget is exceeded, the node fails closed to a more restrictive tier rather than defaulting to clearance. Safety is the default, not an exception.

Two Paths: Real-Time Decisions and Retrospective Ring Recovery

A purely per-transaction path is structurally blind to coordinated low-and-slow rings, because each transaction, examined alone, looks acceptable. BLADE-FINANCE adds a second path: a retrospective stigmergic swarm-review module that re-examines cleared traffic, scoring correlated behaviour across account, device, payee, and IP-cluster history to surface rings the real-time path lets through. The retrospective module claims ensemble agreement and ring detection, not Byzantine fault tolerance.

Transaction Stream 1. Real-Time Per-Transaction Path Eight-stage AUTHREX pipeline -> HMAA tier Clears, reviews, escalates, or holds each transaction latency-bounded, decision time 2. Retrospective Swarm Review Stigmergic ensemble over population state account · device · payee · IP-cluster history re-examines cleared traffic, off the decision path Per-transaction dispositions cleared / reviewed / escalated / held Recovered coordinated rings flagged for elevated review (scenario E) The reported recall is an actionable-risk triage measure, not an empirical fraud-detection rate.
Figure 2. The real-time path makes the decision; the retrospective stigmergic swarm-review path recovers low-and-slow rings the per-transaction path clears.

Dual-Plane Compute With a Hardware Root of Trust

The reference authority node separates the governance plane from the inference plane so that the authority pipeline cannot be bypassed by the model it governs. A Xilinx Kria K26 System-on-Module runs the AUTHREX governance pipeline and emits ECDSA-signed per-stage audit entries; an NVIDIA L4 GPU hosts the transaction-decision model on a separate inference plane; an Intel Xeon-D host processor coordinates the transaction and management planes; and a YubiHSM 2 within a FIPS 140-2 Level 3 tamper-evident enclosure holds signing keys, with an Infineon TPM 2.0 providing measured boot.

Plane separation

Governance plane (Kria K26), inference plane (NVIDIA L4), host security plane (Xeon-D, TPM 2.0), and key-custody plane (YubiHSM 2, FIPS 140-2 L3 enclosure). Transactions arrive over dual 10GbE SFP+; management is isolated on 1GbE.

Reference Authority Node: ~$9,228

The reference node is fully specified: 36 components, 33 electrical connections, and 32 mechanical connections, totalling approximately US$9,228. The table lists representative high-value items; the complete bill of materials, electrical connection list, mechanical connection list, and node configuration are published as downloadable artifacts below.

ComponentRoleCost (USD)
Xilinx Kria K26 SOMGovernance plane accelerator (AUTHREX pipeline, signed audit)3,000
NVIDIA L4 Tensor Core GPUInference plane (transaction-decision model)2,500
Intel Xeon-D 1747NTEHost security plane processor1,200
YubiHSM 2 (FIPS 140-2 L3)Key custody and signing950
Intel X710-DA2 10GbE SFP+Transaction-plane network interface400
2 x 600W 80-Plus Platinum PSURedundant power (N+1)400
SuperChassis 512L-200B 1URack-mount enclosure150
Infineon SLB 9670 TPM 2.0Measured boot15
Full reference node (36 components, 91 units)~9,228

1U Rack-Mount Reference Design

A 1U rack-mount server chassis (19 inch EIA-310) with a custom anodized bezel and redundant 600W C14 power supplies houses the four planes. Cooling uses six 40mm N+1 redundant hot-swap fans. The YubiHSM 2 is housed within a FIPS 140-2 Level 3 tamper-evident enclosure with epoxy potting and a screw-continuity zeroization circuit. The design targets a standard data-center rack; it is a reference specification at TRL 2, and no prototype has been built.

System Schematic

The reference wiring schematic captures the four planes, the hardware root of trust, the redundant power tree, and the tamper and zeroization circuit. It is provided as a scalable vector schematic and as a print-ready PDF.

BLADE-FINANCE authority node electrical design system schematic showing the governance, inference, host security, and key-custody planes with the redundant power tree and tamper circuit.
Electrical Design System Schematic, BLADE-FINANCE Authority Node (reference design).
Download Schematic (SVG) Download Schematic (PDF)

Browser-Based Governance Simulator

A deterministic, fully offline simulator demonstrates the complete eight-stage governance pipeline on a transaction stream, with no network access and no real financial data. It steps each transaction through VALIDATE, SATA, ADARA, MAIVA, HMAA, FLAME, ERAM, and CARA, assigns a four-tier authority disposition, and appends the decision to a SHA-256 evidence chain. Six scenarios exercise the full range of behaviour.

SCENARIO A · NOMINAL
Nominal transaction
Baseline legitimate activity. VALIDATE and SATA pass, no coordination signal appears, and HMAA grants T3 autonomous clearance.
SCENARIO B · DEEPFAKE
Deepfake authentication attack
A synthetic-identity or liveness spoof pressures the VALIDATE and SATA stages. Low authentication trust drives HMAA to elevated confirmation or a hold.
SCENARIO C · AI-AGENT
AI-agent coordinated attack
Automated multi-account pressure tests ADARA and MAIVA. The population-state coordination score raises the authority tier across correlated activity.
SCENARIO D · HIGH-VALUE
High-value / risk signals
An elevated-amount, risk-flagged transaction exercises the ERAM residual-risk gate, routing to supervised review or elevated confirmation.
SCENARIO MIX · MIXED STREAM
Realistic mixed stream
Blended legitimate and adversarial traffic measures triage behaviour across the population, with Wilson-interval confidence over a Monte Carlo run.
SCENARIO E · LOW-AND-SLOW RING
Coordinated low-and-slow ring
A ring stays under per-transaction thresholds, so the real-time path clears it. The retrospective Swarm Review module recovers it off the decision path.

The interface steps the eight-stage pipeline per transaction, supports schema-malformed and adversarial injection, reports triage metrics with Wilson score intervals, runs a Monte Carlo control and an external-dataset benchmark, and records every decision to a seed-deterministic, SHA-256 hash-chained audit ledger with golden-trace export and nine self-tests. The reported recall is an actionable-risk triage measure, not an empirical fraud-detection rate.

Launch Governance Simulator Simulation User Guide (PDF)

One Governance Core, Ten Operational Domains

BLADE-FINANCE is not a separate codebase. It reuses the same seven AUTHREX governance architectures, SATA, HMAA, CARA, MAIVA, FLAME, ADARA, and ERAM, that anchor every BLADE platform, and adds a domain-specific VALIDATE stage and the financial population-state and swarm-review modules. The diagram shows the shared core feeding the BLADE platform family across ten domains, with BLADE-FINANCE as the economic-security instantiation.

Shared AUTHREX Governance Core SATA · HMAA · CARA · MAIVA FLAME · ADARA · ERAM seven architectures, formally specified, simulation-validated EDGEdirected energy AVautomotive MARITIMEnaval INFRAinfrastructure SPACEorbital CUAScounter-UAS AGENT-HSMagentic AI SWARMmulti-agent INFRA-OTIT/OT bridge BLADE-FINANCEeconomic security · this platform Tenth operational domain. Same core; domain-specific VALIDATE, population-state, and swarm-review modules. Reuse across domains is the research claim: one validated governance core, many domain instantiations.
Figure 3. The shared seven-architecture AUTHREX core feeds the BLADE platform family across ten operational domains. BLADE-FINANCE is the economic-security instantiation.

Related platforms: Rover Testbed (~$484) · UAV Platform (~$4,200) · BLADE-EDGE (defense, ~$139K) · BLADE-AV (automotive, ~$16K) · BLADE-MARITIME (maritime, ~$43K) · BLADE-INFRA (infrastructure, ~$12K) · BLADE-SPACE (orbital, ~$505K) · BLADE-CUAS (counter-UAS, ~$43.5K) · BLADE-AGENT-HSM (agentic AI, ~$199) · BLADE-SWARM (swarm autonomy, ~$1,333/node) · BLADE-INFRA-OT (IT/OT bridge governance, 1U fanless) · BLADE-FINANCE (financial-sector governance, ~$9K). Twelve research platforms demonstrating governance-stack portability across ten domains.

Deterministic, Reproducible, and Honestly Bounded

Validation is simulation-based and reproducible. The self-test suite reports nine of nine passing. Stepping the deterministic stream to 1,000 records at seed 42 fixes the audit-ledger head hash to 7d5aaab4... and the running checksum to 0x06acd6be; any divergence indicates a modified engine or a non-conforming SHA-256 implementation. Triage confidence intervals are Wilson score intervals over a 2,000-trial run.

What the numbers do and do not claim

The reported recall is an actionable-risk triage measure, not an empirical fraud-detection rate. The retrospective swarm review claims ensemble agreement and ring detection, not Byzantine fault tolerance, and no quorum-intersection safety bound is claimed. Per-record ECDSA P-256 signing and HSM key custody are design-specified, not exercised in the browser. All inputs are synthetic.

Mapped to Federal AI Risk Guidance

BLADE-FINANCE is framed against published U.S. guidance for financial-sector AI risk, as an independent research mapping rather than any claim of endorsement or compliance certification.

GuidanceHow BLADE-FINANCE relates
U.S. Treasury Financial Services AI RMFImplementation framing for govern, map, measure, and manage functions at transaction-decision time.
NIST AI Risk Management FrameworkFoundation for the authority-tiering and evidence requirements.
Executive Order 14179Implementation-framing context for the deposit; cited as policy context, not as endorsement.

Technology Readiness and Scope

TRL 3-4 for the simulation and TRL 2 for the hardware reference design. No prototype has been built. All data are synthetic. The work has not been deployed in any financial institution, and the author has not been engaged by any institution to provide AI-governance services. It is published as fundamental research under CC BY 4.0.

Project Documentation

Complete engineering and research documentation for the BLADE-FINANCE Governance Node. All files are original work by Burak Oktenli, published under CC BY 4.0.

Research Paper (17 pp, PDF): architecture, equations, simulation results, limitations Interactive Governance Simulator (v2.2) Simulation User and Reproducibility Guide (PDF) Bill of Materials (36 components, CSV) Electrical Connections (33, JSON) Mechanical Connections (32, JSON) Node Configuration (JSON) System Schematic (SVG) System Schematic (PDF)

SDK Integration and Open Artifacts

BLADE-FINANCE shares the unified AUTHREX governance interface used across the BLADE family: a transaction-decision proposal enters the pipeline, and the node returns an authority tier, a disposition, and a signed evidence record. The complete deposit, including the paper, the simulator, the bill of materials, the connection lists, the node configuration, and the schematic, is openly published on Zenodo under CC BY 4.0.

Zenodo Record (DOI 10.5281/zenodo.20374692) Repository

About This Project

The BLADE-FINANCE Governance Node is part of the authority-governed autonomy research program by Burak Oktenli (AUTHREX Systems; Georgetown University, M.P.S. Applied Intelligence). It is the tenth BLADE platform and the first to apply the AUTHREX governance architecture to the economic-security domain, demonstrating the reuse of one validated governance core across many operational domains.

Related research architectures: SATA (sensor and input trust), HMAA (authority computation), CARA (recovery), MAIVA (multi-signal trust), FLAME (latency control), ADARA (deception-aware risk), ERAM (risk gating).

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