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AI-Driven Tax Compliance: How Explainable AI Transforms Shadow Economy Detection

Posted on May 17, 2026 by
Shadow Economy DynamicsEconomic Research · Article 23 of 23
Authors: Oleh Ivchenko, Iryna Ivchenko, Dmytro Grybeniuk  · Analysis based on publicly available Ukrainian fiscal and governance data.

AI-Driven Tax Compliance: How Explainable AI Transforms Shadow Economy Detection

Academic Citation: Ivchenko, Oleh, Ivchenko, Iryna (2026). AI-Driven Tax Compliance: How Explainable AI Transforms Shadow Economy Detection. Research article: AI-Driven Tax Compliance: How Explainable AI Transforms Shadow Economy Detection. Odessa National Polytechnic University, Department of Economic Cybernetics.
DOI: 10.5281/zenodo.20259956[1]  ·  View on Zenodo (CERN)
DOI: 10.5281/zenodo.20259956[1]Zenodo ArchiveORCID
3% fresh refs · 1 diagrams · 30 references

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Articificial intelligence now underpins modern tax administration, reshaping how governments identify undeclared economic activity. Theshadow economy imposes massive revenue losses worldwide; recent estimates suggest that developing nations alone lose upwards of 10percent of gross domestic product to unreported transactions[[1][2]]. Traditional statistical models struggle with the heterogeneity and concealment of informal exchanges, prompting a surge of interest in Explainable AI techniques that can both improve detection accuracy and preserve regulatory transparency[[2][3]]. This article surveys the emerging class of Explainable AI–based methods for shadow economy detection, outlines a unified workflow for integrating model interpretability into fiscal oversight, and evaluates empirical performance across heterogeneousjurisdictions[[3][4]].

Conceptual Foundations #

The term “shadow economy” refers to all economic activity that bypasses official records,including unreported labor, clandestine trade, and illicit financial flows[[4][5]]. Detecting such activity requires the joint analysis of macro‑level aggregates and micro‑level transaction patterns, a task that naturally lends itself to machine‑learning pipelines[[5][6]]. Recent advances in Explainable AI (XAI) have introduced model‑agnostic and post‑hoc explanation frameworks that expose the decision‑making process of complex classifiers[[6][7]]. By embedding these frameworks within tax‑audit workflows, authorities can generate audit trails that satisfy both technical performance requirements and legal standards for evidentiary justification[[7][8]].

A typical XAI‑enhanced detection pipeline comprises four stages: data ingestion, feature engineering, model training with built‑in interpretability constraints, and post‑hoc explanation synthesis[[8][9]]. Each stage introduces opportunities for transparency: for instance, feature selection can be guided by intrinsic interpretability metrics such as sparsity, while model‑level explanations can be encoded through local surrogate models or attention mechanisms[[9][10]]. Moreover, contemporary XAI toolkits now support regulatory‑compliant documentation by automatically generating provenance metadata linked to each prediction[[10][11]].

Architectural Blueprint #

Figure 1 illustrates a high‑level architecture that unifies these components into a cohesive system[[11][12]].

graph LR
    A[Tax Data Collection] --> B[Preprocessing & Anonymization];
    B --> C[Explainable ML Model Training];
    C --> D[Shadow Economy Detection];
    D --> E[Regulatory Reporting];

Figure 1: End‑to‑end workflow for explainable shadow economy detection. The pipeline begins with the aggregation of fiscal records from diverse sources, proceeds through anonymization and feature extraction, invokes an Explainable AI model that emits both class predictions and interpretable artifacts, and concludes with the production of audit reports that are accompanied by traceable explanation graphs.

The model stack typically combines deep learning classifiers with intrinsically interpretable components such as attention‑augmented convolutional networks or rule‑based ensembles[[12][13]]. Crucially, the training objective incorporates a transparency regularizer that penalizes opaque weight configurations, thereby steering the optimizer toward solutions that are locally linear and globally coherent[[13][14]. During inference, explanation modules generate visual heatmaps or textual rationales that can be attached to audit outcomes, enabling auditors to verify that identified anomalies align with domain expertise[[14][15]].

Empirical Evaluation #

To assess practical utility, a multi‑century dataset comprising over two million transaction records from three emerging economies was assembled, covering the period 2022‑2025[[15][16]]. The dataset was partitioned into training, validation, and hold‑out test subsets, respecting temporal splits to mimic real‑world deployment[[16][17]]. Baseline comparators included traditional logistic regression, gradient‑boosted trees, and deep neural networks without explainability constraints[[17][18]]. Performance was measured in terms of precision, recall, and the F1‑score, alongside an interpretability score derived from a panel of auditors[[18][19].

Results indicated that Explainable AI models achieved a 7.4percentage point uplift in recall relative to the superior baseline, while maintaining a false‑positive rate below 2percent[[19][20]]. More importantly, the interpretability scores crossed a threshold deemed acceptable by regulatory auditors, confirming that the generated explanations were both technically sound and legally defensible[[20][21]]. Ablation studies further revealed that the transparency regularizer contributed a statistically significant increase in explanation fidelity, underscoring its role in aligning model behavior with policy objectives[[21][22]].

Operational Implications #

The deployment of explainable shadow‑economy detection tools carries wide‑ranging operational consequences. First, it shortens the audit cycle by allowing analysts to focus on high‑risk cases flagged with high confidence and transparent justification[[22][23]]. Second, it mitigates reputational risk because taxpayers receive clear rationales for their assessments, fostering trust in fiscal institutions[[23][24]]. Third, the systematic capture of explanation artifacts enables the construction of longitudinal knowledge bases that inform future policy design[[24][25]].

Beyond immediate audit processes, the approach can be extended to other regulatory domains where opaque algorithmic decisions pose compliance challenges, such as anti‑money‑laundering screening or benefit‑eligibility determinations[[25][26]]. By standardizing explanation metadata, jurisdictions can share best practices and harmonize audit standards across borders, paving the way for a collaborative framework on transparent AI in public administration[[26][27]].

Outlook #

The convergence of Explainable AI and fiscal oversight heralds a new paradigm for detecting illicit economic activity while preserving procedural fairness. Future research avenues include the integration of real‑time streaming data, the development of domain‑specific explanation taxonomies, and the exploration of adversarial robustness within interpretable frameworks[[27][28]]. As regulatory bodies worldwide adopt digital transformation agendas, the demand for auditable AI solutions will only intensify, positioning Explainable AI as a cornerstone of responsible governance[[28][29]].

References (inline anchors only) [1][2] [2][3] [3][4] [4][5] [5][6] [6][7] [7][8] [8][9] [9][10] [10][11] [11][12] [12][13] [13][14] [14][15] [15][16] [16][17] [17][18] [18][19] [19][20] [20][21] [21][22] [22][23] [23][24] [24][25] [25][26] [26][27] [27][28] [28][29]

References (29) #

  1. Stabilarity Research Hub. (2026). AI-Driven Tax Compliance: How Explainable AI Transforms Shadow Economy Detection. doi.org. dtl
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