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World J Clin Cases. Jun 6, 2026; 14(16): 119871
Published online Jun 6, 2026. doi: 10.12998/wjcc.v14.i16.119871
Letter to the Editor: Beyond the audit, real-time data integration and dedicated clinical oversight in diagnostic reconciliation
Suleman A Merchant, Department of Radiology, LTM Medical College and LTM General Hospital, Mumbai 400022, Maharashtra, India
Neesha Merchant, Department of Diagnostic Radiology, Medical Imaging, University of Toronto, Toronto M5G 2C4, Ontario, Canada
ORCID number: Suleman A Merchant (0000-0001-6513-450X); Neesha Merchant (0009-0008-1505-9095).
Author contributions: Merchant SA contributed to conceived the editorial concept, developed the central analytical framework, drafted the original manuscript, and was responsible for all substantive intellectual content including the clinical governance analysis, the Large Concept Models integration, and the critical appraisal of the Virarkar et al initiative; Merchant N assisted in the compilation and formatting of the manuscript, verified and organised the reference list, and contributed to the preparation of the final submission; both authors have read and approved the final version of the manuscript.
AI contribution statement: No AI tool was used. The manuscript was written by all authors.
Conflict-of-interest statement: The authors declare no financial conflicts of interest related to this work.
Corresponding author: Suleman A Merchant, Department of Radiology, LTM Medical College and LTM General Hospital, Sion, Mumbai 400022, Maharashtra, India. suleman.a.merchant@gmail.com
Received: February 24, 2026
Revised: March 9, 2026
Accepted: April 23, 2026
Published online: June 6, 2026
Processing time: 97 Days and 22.5 Hours

Abstract

Diagnostic disagreements between clinical and diagnostic services represent a critical blind spot in modern hospital management, often leading to treatment delays and compromised clinical trial integrity. While retrospective audits have traditionally been used to identify these gaps, they lack the agility required for real-time patient safety. This article examines the findings of Virarkar et al in their manuscript titled “Impact of a dedicated consult shift on reducing time to resolution of diagnostic disagreements: A quality improvement initiative” which introduces a dual-strategy intervention-the implementation of a dedicated consult shift combined with a real-time digital dashboard. The reported reduction in median resolution times from 20.90 to 5.02 days-a 76% improvement-represents a noteworthy demonstration that the friction of diagnostic disagreement may be amenable to structured logistical redesign. We discuss how this framework may be adapted across high-stakes specialties, including Radiology, subject to appropriate institutional prerequisites, to support the transition of diagnostic reconciliation from a passive administrative task to a proactive clinical safeguard. Unresolved diagnostic discordance may affect patient eligibility classification, endpoint interpretation, and protocol adherence in clinical trials-mechanisms through which diagnostic disagreement can compromise trial validity and which merit further investigation in the context of this intervention.

Key Words: Clinical governance; Diagnostic reconciliation; Healthcare dashboards; Quality improvement; Operational efficiency; Patient safety

Core Tip: This article examines a quality improvement initiative by Virarkar et al utilizing a dedicated consult shift and real-time digital dashboards to resolve diagnostic disagreements. The dual-strategy model achieved a 76% reduction in median resolution time. Successful replication of this approach would require institutional prerequisites including digital infrastructure maturity, interoperability of electronic systems, and clearly defined accountability structures.



TO THE EDITOR

In the complex machinery of modern tertiary care, the interval between the identification of a diagnostic disagreement and its ultimate resolution frequently represents a period of unaddressed clinical risk[1,2]. Virarkar et al[3] recently published a study in the World Journal of Clinical Cases make a valuable contribution in identifying this systemic vulnerability. Diagnostic discrepancies- ranging from radiological discordance to mismatched histopathology are recognized catalysts for medical error. In high-acuity settings, including emergency transfers to intensive care units, such disagreements reveal systemic vulnerabilities in reconciliation workflows that underscore the need for structured solutions.

Traditionally, hospital systems have relied on retrospective audits-a reactive posture that identifies systemic failures only after potential harm may have occurred[4]. The value of the approach described by Virarkar et al[3], lies in its shift toward a real-time reconciliation framework that addresses this gap in a structured and measurable manner. As clinical volumes increase and diagnostic output accelerates, the case for prospective reconciliation frameworks becomes increasingly compelling.

It should be noted that quality improvement initiatives are inherently context dependent. Factors such as concurrent workflow adjustments, the sustained durability of the reported improvements, and the redistribution of consultant workload may have contributed to the observed outcomes. These contextual variables warrant consideration before extrapolating findings to other institutional settings.

The dual-strategy: Digital agility and human oversight

The success of the intervention described by Virarkar et al[3] hinges on the transition from data collection to data visualization. Their dual-strategy model addresses both the technical and human dimensions of the reconciliation workflow. Static spreadsheets and archived reports often lack the immediacy required to influence daily clinical behavior; real-time dashboards, by contrast, function as a behavioral prompt, leveraging visual accountability to support timely action[5]. This visual accountability addresses two primary barriers.

Eliminating information asymmetry: A dashboard provides a shared, real-time view of outstanding disagreements across departments. When a disagreement is flagged, it becomes a visible, shared priority rather than a buried notification.

Reducing administrative inertia: The integration of a dedicated consult shift-facilitated by an imaging specialist acting as a proactive sentinel-ensures that the human element of the workflow is directed by data rather than searching for tasks. This reduces the cognitive load on the consultant, allowing focus on clinical nuances rather than logistical coordination. This reflects a sound understanding of human factors in medicine.

The dedicated consult shift: A structured response to cognitive multitasking

A key operational insight of the Virarkar et al[3], initiative is the recognition that reconciliation, when treated as a secondary task competing with acute patient care, is systematically deprioritized. In the high-pressure environment of modern diagnostics, cognitive multitasking can contribute to diagnostic fatigue and oversight[6]. By decoupling reconciliation from routine clinical duties and assigning a dedicated clinical officer to focus solely on disagreement resolution, the framework creates a structured environment for clinical reasoning. This design choice addresses a well-documented limitation of ad hoc reconciliation approaches and is consistent with principles drawn from high-reliability organization theory and sociotechnical models of healthcare systems, both of which emphasize the importance of role clarity, redundancy reduction, and system-level design in minimizing error.

From data to semantics: The horizon of large concept models

While the digital dashboards utilized in this study represent a meaningful advance, the future of diagnostic safety may lie in further automating the cognitive labour involved in reconciliation[7]. The transition from simple data flagging to a deeper, semantic understanding of medical intent is increasingly within reach through the application of (the yet nascent) Large Concept Models (LCMs). As established in recent foundational work[8], LCMs operate on a concept-based architecture rather than mere text prediction. Unlike conventional artificial intelligence (AI) approaches, which may encounter difficulty with the nuanced contradictions found in disparate diagnostic reports, LCMs offer a pathway toward bridging the gap between what is documented and what is clinically intended. Integrating LCM-driven insights into the dashboard framework proposed by Virarkar et al[3] could augment the dedicated consult shift with an intelligent layer capable of identifying conceptual mismatches in real time. This convergence of human expertise and concept-based AI has the potential to make diagnostic reconciliation not merely faster, but more semantically accurate.

The Virarkar-blueprint: A conceptual framework for reconciliation

The conceptual framework described by Virarkar et al[3] in their original manuscript illustrates a structurally important shift from the high-variability retrospective audit model to a streamlined, real-time consult-dashboard approach. The central structural distinction from prior reconciliation workflows is the introduction of a dedicated human node-the sentinel imaging specialist-whose role is specifically defined as converting real-time dashboard data into immediate clinical action. This design eliminates the dependency on incidental identification of disagreements and replaces it with a systematic, scheduled process. It is this structural feature-the explicit decoupling of reconciliation from routine clinical duties-that distinguishes this framework from previous approaches and accounts for the reported reduction in resolution time.

Scaling the framework: Prerequisites and considerations

The findings of Virarkar et al[3] offer a potentially transferable model for diagnostic reconciliation in high-stakes specialties. However, the feasibility of implementing a dedicated consult shift and real-time dashboard depends on a range of institutional factors. Successful replication would require digital infrastructure maturity, interoperability of electronic health record systems, sustainable staffing models that support dedicated reconciliation roles, clearly defined accountability structures, and institutional leadership engagement. In settings where these prerequisites are not yet established, phased implementation or adapted models may be more appropriate than direct adoption. These considerations do not diminish the value of the reported findings but are relevant to institutions seeking to translate this approach into their own operational contexts.

CONCLUSION

The findings presented by Virarkar et al[3] offer more than a localized quality improvement success-they represent a structured challenge to the prevailing reactive posture of hospital diagnostic governance. The 76% improvement in median resolution time is a clinically meaningful result that demonstrates the potential of combining dedicated human oversight with real-time data visualization. By situating these findings within the frameworks of high-reliability organization theory and sociotechnical systems design, the contribution of this initiative can be more fully appreciated as part of a broader movement toward proactive patient safety governance.

As healthcare systems move toward greater integration of intelligent technologies, including LCM and real-time data synthesis, the combination of dedicated clinical oversight and concept-aware AI represents a promising direction for the next generation of diagnostic reconciliation frameworks. The goal-ensuring that diagnostic disagreement is resolved before it becomes a source of harm-remains both urgent and achievable.

References
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Footnotes

Peer review: Externally peer reviewed.

Peer-review model: Single blind

Specialty type: Medicine, research and experimental

Country of origin: India

Peer-review report’s classification

Scientific quality: Grade B

Novelty: Grade B

Creativity or innovation: Grade B

Scientific significance: Grade B

P-Reviewer: Racz A, MD, PhD, Professor, Croatia S-Editor: Liu H L-Editor: A P-Editor: Xu J

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