Architectural Vision

Digital asset stability is conventionally measured by the adequacy of backing reserves. However, current market realities demonstrate that this single-minded focus on the traditional financial 'Vault' creates a dangerous supervisory blind spot. Our research, conducted at the Rutgers Continuous Auditing and Reporting Lab (CARLab) in partnership with Auditchain Labs AG, advances a critical paradigm shift: true digital asset stability is a joint reserve-and-infrastructure problem. Even fully backed assets can become functionally inaccessible to users if the underlying blockchain plumbing (Layer 0) fails due to congestion, smart contract vulnerabilities, cross-chain bridge exploits, or Maximal Extractable Value attacks (MEV).

BNP Execution Pipeline

At the center of this research is the Blockchain Network Participation (BNP) Disclosure Taxonomy, developed by Auditchain Labs AG and submitted for proposed operationalization to the FDIC, OCC, and NCUA during the implementation phase of the GENIUS Act. The BNP Taxonomy transitions digital asset assurance from point-in-time financial audits to continuous, executable technological governance. Comprising 148 input questions and 125 output disclosure elements formatted in machine-readable XBRL-JSON, it is the first algorithmic approach to monitoring infrastructure risk, centralization risk, and shadow intermediation under emerging frameworks like the GENIUS Act. Rutgers CARLab's role in this research is to exhibit the taxonomy's architecture and to empirically validate its completeness using a multi-agent AI methodology.

The framework is designed as a sophisticated, automated pipeline encompassing three distinct phases of operational security:

1. Input/Output Mapping

The algorithmic ingestion and standardization of raw data directly from Blockchain Nodes, Affiliate Systems, and third-party APIs into an XBRL-JSON Mapping Engine.

2. Validation Architecture

A continuous, three-tiered validation process—incorporating structural schema checks, arithmetic risk-weighting calculations via formula linkbases, and temporal anomaly detection—executed without human intervention.

3. Evasion Detection

The culminating generation of automated alerts for high-risk conflicts (e.g., reserve mismatches, hidden liabilities, or MEV conflicts) and a real-time regulatory audit consensus dashboard.

This webpage presents the structural design of the BNP Taxonomy — Auditchain Labs AG's proposal for a global standard for machine-readable digital asset assurance and continuous systemic safety — alongside Rutgers CARLab's ongoing empirical research into its regulatory coverage.

Disclosure Questionnaire
XBRL Taxonomy
1Blockchain Protocols Utilized
Q1–Q6 · 6 questions
1:1
BlockchainProtocolsUtilizedAbstract
6 elements
2Direct Network Participation
Q7–Q36 · 30 questions
1:1
DirectNetworkParticipationAbstract
30 elements
3Affiliate Network Participation
Q37–Q59 · 23 questions
1:1
AffiliateNetworkParticipationAbstract
23 elements
4Concentration & Systemic Risk
Q60–Q69 · 10 questions
1:1
AggregatedConcentrationAbstract + SystemicRiskAssessmentAbstract
10 elements
5Operational Controls & Policies
Q70–Q78 · 9 questions
1:1
OperationalControlsAndPoliciesAbstract
9 elements
6Multi-Network Disclosure
Q79–Q114 · 36 questions
1:1
BlockchainNetworkParticipationByNetworkTable
36† elements Axis: BlockchainNetworkIdentifierTypedAxisReuses Sec 1–2 concepts
7Affiliate Disclosure Table
Q115–Q136 · 22 questions
1:1
AffiliateNetworkParticipationByAffiliateTable
22† elements Axis: AffiliateIdentifierTypedAxisReuses Sec 3 concepts
New
8Third-Party Service Providers
Q137–Q148 · 12 questions
1:1
ThirdPartyServiceProviderArrangementsAbstract
12 elements Axis: ThirdPartyServiceProviderIdentifierTypedAxis
Sections 6–8 are hypercube tables that reuse concepts from Sections 1–3 via typed dimension axes. The 90 unique concrete concepts generate 148 disclosure questions when dimensional instances are included.