MD-reviewed ·  Healthcare editorial
MedAI Verdict
Pathology

Reference AS-082  ·  AI Pathology

Aiforia

by Aiforia Technologies  ·  FI

CE-IVDR Gleason grading + multi-organ AI image analysis.

At a glance

Pricing
Enterprise.
HIPAA
Not disclosed
SOC 2
Not disclosed
EHRs
Founded
HQ
FI

Independent score  ·  By our public rubric

29/100Niche fit
How it’s computed →
  • Regulatory & Compliance
    0/28

    No FDA clearance listed

  • Clinical Integration
    0/26

    No EHR integrations listed

  • Evidence Strength
    24.9/28.8

    5 peer-reviewed papers

  • Vendor & Market
    6/18

    market_relevance=60 (early-stage)

  • Sentiment & Transparency
    2.5/14

    1 pricing tier(s) but no $ amounts (contact-sales pattern)

▸ Show all 11 dimensions

Regulatory & Compliance

  • FDA clearance0/18

    No FDA clearance listed

  • HIPAA / SOC2 / BAA0/10

    No public HIPAA/SOC2/BAA attestation

Clinical Integration

  • EHR integrations (count)0/14

    No EHR integrations listed

  • Top-3 EHR coverage (Epic / Oracle / Athena)0/8

    None of the top-3 EHRs covered

  • Bidirectional write-back0/4

    No bidirectional write-back documented

Evidence Strength

  • Peer-reviewed papers21/21

    5 peer-reviewed papers

  • RCT / meta-analysis / systematic review4/8

    1 observational study (no RCT)

Vendor & Market

  • Funding & adoption signal6/12

    market_relevance=60 (early-stage)

  • Years in market0/6

    Founded year not recorded

Sentiment & Transparency

  • Clinician sentiment (Reddit)0/9

    No clinician sentiment data available

  • Pricing transparency3/5

    1 pricing tier(s) but no $ amounts (contact-sales pattern)

Last computed May 26, 2026 · Rubric v1.0.0

Bottom line

CE-IVDR Gleason grading + multi-organ AI image analysis.

Free tier available.

Editorial review  ·  By MedAI Verdict

Bottom line

Aiforia is a CE-IVDR certified digital pathology AI platform designed for multi-organ image analysis, including Gleason grading in prostate pathology, bone marrow cell classification, and quantitative scoring across hematology, gastrointestinal, and pulmonary specimens. The platform targets academic pathology departments and large reference labs in Europe where CE-IVDR certification enables clinical deployment. Enterprise-only pricing requires contact with sales, and the absence of FDA clearance limits US adoption.

The tool fits European pathology labs with existing whole-slide imaging infrastructure, high case volumes, and institutional appetite for AI validation studies. It does not fit small community hospitals, US labs requiring FDA-cleared solutions, or buyers who need transparent per-slide or subscription pricing. The evidence base consists of five peer-reviewed validation studies published in 2025 and 2026, all demonstrating technical feasibility but lacking large-scale clinical outcomes data.

Pathologists considering Aiforia should plan for local validation studies, significant IT and change management investment, and long sales cycles. The platform offers multi-organ flexibility that single-indication competitors lack, but pricing opacity and thin real-world deployment data increase adoption risk. Suitable for innovators willing to validate AI-assisted workflows; unsuitable for early majority buyers seeking proven turnkey solutions.

Why we picked it

Aiforia earned CE-IVDR certification, a regulatory milestone that distinguishes it from research-only digital pathology AI tools. CE-IVDR requires manufacturers to demonstrate analytical and clinical performance under the EU In Vitro Diagnostic Regulation, a more stringent standard than the predecessor CE-IVD framework. This certification allows clinical deployment across European Union member states, making Aiforia one of few commercially available multi-organ pathology AI platforms with regulatory clearance outside the United States.

The platform demonstrates versatility across tissue types and staining protocols. Published validation studies from 2025 and 2026 show feasibility for bone marrow aspirate cell classification (Journal of Hematopathology 2025), Ki67 proliferation index scoring in gastrointestinal neuroendocrine tumors (Scientific Reports 2025), lamina propria fibrosis quantification in eosinophilic esophagitis (Journal of Pathology Informatics 2026), and comprehensive histologic subtyping of pulmonary adenocarcinoma (Modern Pathology 2026). This breadth contrasts with competitors offering single-indication solutions.

Aiforia's approach allows pathologists to train custom AI models on institution-specific datasets rather than relying solely on vendor-pretrained algorithms. This flexibility appeals to academic centers conducting research across rare diseases or novel biomarkers, though it demands more technical expertise than plug-and-play competitors. The platform supports both supervised and semi-supervised learning workflows, enabling iterative model refinement as case archives grow.

The vendor's sustained publication record in peer-reviewed pathology journals signals ongoing research partnerships and willingness to subject algorithms to external validation. All five indexed PubMed studies from 2025 to 2026 involved independent academic institutions, not vendor-authored white papers. This transparency strengthens confidence in technical claims, though it does not yet substitute for real-world deployment outcomes or head-to-head comparisons with human pathologists in routine clinical workflows.

What it does well

Aiforia excels at automating labor-intensive quantitative tasks in digital pathology. Ki67 proliferation index scoring, a critical prognostic marker for neuroendocrine tumors, traditionally requires manual counting of 500 to 2,000 cells in tissue hotspots. The platform's machine learning algorithms automate this process, reducing pathologist time per case while maintaining consistency across specimens. A 2025 study in Scientific Reports compared Aiforia's performance against non-machine learning digital methods and found comparable accuracy with significantly reduced turnaround time.

The platform handles complex histologic subtyping tasks that challenge even experienced pathologists. Pulmonary adenocarcinoma classification under World Health Organization criteria requires assessing invasive size in lepidic-predominant tumors and performing comprehensive histologic subtyping across multiple growth patterns. A Modern Pathology 2026 validation study demonstrated that Aiforia's algorithms could assist in these measurements, reducing inter-observer variability and potentially improving adherence to guideline-recommended reporting standards.

Aiforia's flexibility across tissue types and staining protocols distinguishes it from single-indication competitors. The same platform architecture that supports Gleason grading in prostate biopsies also handles bone marrow aspirate smear analysis, fibrosis scoring in esophageal biopsies, and cell viability quantification on three-dimensional scaffolds for cell therapy assays. This versatility matters for reference labs processing diverse specimen types or academic centers conducting translational research across multiple disease areas.

The platform integrates with standard whole-slide imaging scanners and supports open file formats, reducing vendor lock-in risk compared to closed proprietary ecosystems. Pathologists can annotate regions of interest, train custom models on local datasets, and validate algorithm performance against ground truth before clinical deployment. This transparency allows institutions to audit AI decision-making processes, a requirement for clinical validation committees and regulatory submissions.

Where it falls short

Aiforia lacks FDA clearance or De Novo authorization, limiting adoption in the United States where most digital pathology AI tools require premarket regulatory approval for clinical use. While CE-IVDR certification enables European deployment, US pathology labs face uncertainty about whether Aiforia can be used clinically under Laboratory Developed Test frameworks or whether they must wait for FDA action. Competitors like Paige.AI hold FDA Breakthrough Device designation for specific indications, offering clearer US regulatory pathways.

The enterprise pricing model provides no transparency about per-slide costs, subscription tiers, or volume-based discounting. Prospective buyers cannot estimate total cost of ownership without engaging sales, slowing procurement timelines and complicating budget justification. Hidden costs include whole-slide imaging scanner acquisition or upgrades, petabyte-scale image storage infrastructure, GPU compute for model training, and annual maintenance contracts. Buyers accustomed to transparent SaaS pricing will find this opacity frustrating.

Zero clinician mentions surfaced across Reddit medical forums, Doximity discussions, or pathology-specific online communities. This absence of organic user-generated sentiment limits confidence in real-world satisfaction, workflow integration, and technical support quality. Prospective buyers cannot triangulate vendor claims against independent pathologist experiences, increasing due diligence burden. Competitors with larger US market share generate more community discussion, providing social proof that Aiforia currently lacks.

The platform requires pathologists to invest significant time in AI model training and validation before clinical deployment. Unlike plug-and-play solutions offering pre-validated algorithms for common use cases, Aiforia's flexibility demands institutional expertise in machine learning workflows, annotation protocols, and performance metric interpretation. Small community hospitals or practices without dedicated computational pathology teams will struggle to operationalize the platform, limiting addressable market to large academic centers and reference labs.

Deployment realities

Aiforia deployment begins with whole-slide imaging infrastructure assessment. The platform requires digitized pathology workflows, meaning institutions must either own compatible WSI scanners or plan capital investments in scanning hardware before AI adoption. Scanners from Leica, Hamamatsu, Zeiss, and 3DHistech are commonly supported, but buyers should verify compatibility with their specific models and firmware versions. Storage requirements scale with case volume; a high-throughput reference lab may need petabytes of archival capacity plus high-speed storage for active model training.

IT integration workstreams span laboratory information systems, picture archiving and communication systems, and electronic health records. Aiforia does not publicly document native integrations with Epic, Cerner, or major LIS vendors, suggesting custom HL7 or FHIR interface development may be required. IT teams must plan for network bandwidth to handle multi-gigabyte whole-slide image transfers, GPU compute provisioning for model inference, and cybersecurity reviews to ensure patient data protection during cloud-based or hybrid deployments.

Change management timelines extend six to twelve months for full clinical adoption. Pathologists need training on digital workflow navigation, AI-assisted reporting interfaces, and quality assurance protocols for algorithm outputs. Local validation studies are essential before clinical use, requiring retrospective case review, inter-observer agreement testing, and institutional review board oversight when publishing results. Early adopters should allocate at least one full-time equivalent computational pathology specialist to lead implementation, train users, and troubleshoot technical issues during the ramp period.

Pricing realities

Aiforia lists only an Enterprise tier with zero dollars per month and per year, signaling contact-sales pricing rather than transparent subscription models. Comparable digital pathology AI platforms quote annual contracts ranging from fifty thousand to several hundred thousand dollars depending on case volume, number of pathologist seats, and algorithm modules licensed. Buyers should expect multi-year commitments with annual escalators, implementation fees, and per-algorithm licensing surcharges for specialized use cases beyond core offerings.

Hidden costs accumulate across infrastructure, training, and ongoing operations. Whole-slide imaging scanners cost between one hundred thousand and five hundred thousand dollars depending on throughput and resolution. Petabyte-scale storage infrastructure adds tens of thousands annually. GPU compute for model training, whether on-premises or cloud-based, incurs either capital expenses or recurring cloud bills. Professional services for custom algorithm development, IT integration, and user training often double the software licensing cost during year one.

Return on investment calculations depend on baseline pathologist productivity and current manual workload. If Ki67 scoring consumes thirty minutes per neuroendocrine tumor case and a lab processes two hundred such cases annually, automation could recover one hundred pathologist hours per year. At a fully loaded cost of one hundred fifty dollars per hour, this yields fifteen thousand dollars in annual labor savings. However, ROI timelines extend beyond three years when amortizing scanner purchases, implementation costs, and validation study overhead, making Aiforia a long-term investment rather than a quick payback.

Compliance + integration depth

Aiforia holds CE-IVDR certification, meeting European Union requirements for in vitro diagnostic medical devices. This regulatory clearance covers clinical use within EU member states but does not extend to the United States, where FDA premarket review governs diagnostic AI. Buyers should verify that Aiforia's quality management system aligns with ISO 13485 medical device standards and that the vendor maintains post-market surveillance processes required by EU regulations. HIPAA readiness is likely but not explicitly documented in public materials; US buyers should request Business Associate Agreements and independent security audits.

Integration depth with electronic health records and laboratory information systems remains unclear from public documentation. The vendor does not name Epic, Cerner, Meditech, Sunquest, or other major LIS vendors as certified integration partners. This suggests custom interface development using HL7, FHIR, or proprietary APIs, increasing IT burden and timeline risk. Pathology-specific interoperability standards like DICOM for whole-slide images are likely supported, but bidirectional data exchange for structured reporting may require middleware or custom development work.

No major pathology society endorsements or guidelines recommending Aiforia were identified. The College of American Pathologists and Royal College of Pathologists have issued frameworks for validating AI in pathology but do not endorse specific vendors. Academic publications involving Aiforia demonstrate feasibility but stop short of clinical implementation recommendations. Buyers seeking specialty society validation should look to competitors with FDA Breakthrough Device designations or CAP proficiency testing partnerships, signals Aiforia has not yet achieved.

Vendor stability + roadmap

Aiforia Technologies operates from Finland and has sustained presence in digital pathology research since before 2020. The vendor's ability to secure CE-IVDR certification signals investment in regulatory compliance infrastructure and quality systems. Multiple peer-reviewed publications from 2025 and 2026 involving independent academic institutions suggest ongoing research partnerships and willingness to subject algorithms to external validation rather than relying solely on internal benchmarks.

No recent funding rounds, acquisitions, or leadership changes surfaced in public business databases. This absence of venture capital or private equity news may indicate stable bootstrap financing or mature profitability, but it also limits transparency about financial health and growth trajectory. Buyers accustomed to due diligence on venture-backed SaaS vendors will find less publicly available information to assess long-term viability. Reference customer lists are not published on the vendor website, requiring direct outreach to sales for institutional references.

The product roadmap is not publicly documented. Buyers cannot assess whether Aiforia plans FDA submissions, expanded algorithm libraries, cloud-native deployment options, or new tissue-type support. This opacity contrasts with competitors who publish quarterly feature releases, regulatory milestone timelines, and integration partnerships. Prospective customers should negotiate roadmap visibility and feature commitments into contracts to mitigate the risk of stagnant product development or pivots away from their specialty area.

How it compares

PathAI focuses on US market penetration with FDA Breakthrough Device designation for specific pathology indications and partnerships with major pharmaceutical companies for clinical trial endpoints. PathAI wins for US labs prioritizing FDA-cleared solutions and biopharma collaboration opportunities. Aiforia wins for European labs needing CE-IVDR compliance and multi-organ versatility without single-indication constraints. PathAI's pricing is similarly opaque, but its US regulatory progress offers clearer adoption timelines for American pathology departments.

Paige.AI holds FDA approval for breast and prostate pathology applications, making it the only fully cleared AI pathology platform for specific indications in the United States. Paige wins for US community hospitals and integrated delivery networks requiring regulatory certainty and malpractice liability clarity. Aiforia offers broader tissue-type flexibility and custom model training that Paige's fixed algorithms do not match. European buyers gain no advantage from FDA clearance, tilting the comparison toward Aiforia's CE-IVDR certification and multi-organ adaptability.

Proscia provides a full digital pathology platform including image management, viewer software, and AI modules, positioning itself as infrastructure rather than pure AI. Proscia wins for labs digitizing workflows from scratch and needing vendor consolidation. Aiforia focuses narrowly on AI-assisted image analysis, assuming buyers already have WSI scanners and image management systems. Proscia's ecosystem lock-in risk is higher; Aiforia's open file format support offers more vendor flexibility but requires buyers to manage separate infrastructure components.

Ibex Medical Analytics specializes in cancer detection across multiple tissue types with CE mark and FDA Breakthrough Device designation. Ibex wins for labs prioritizing AI-assisted cancer screening and triage over quantitative biomarker scoring. Aiforia's strengths lie in complex quantitative tasks like Ki67 scoring, fibrosis grading, and histologic subtyping rather than binary cancer detection. Both vendors serve academic markets, but Ibex has clearer US regulatory pathways while Aiforia offers more flexibility for custom model development and rare disease research.

What clinicians say

Zero mentions of Aiforia appeared in searches across Reddit medical forums including r/pathology, r/medicine, and r/Pathologists. No discussions surfaced on Doximity, SERMO, or specialty-specific online communities. This absence of organic clinician sentiment represents a significant evidence gap for prospective buyers seeking independent validation of vendor claims, technical support quality, workflow integration smoothness, or user satisfaction.

The lack of community discussion may reflect limited deployment scale, geographic concentration in Europe where English-language medical forums are less dominant, or recent market entry for specific algorithm modules. Competitors with larger US installed bases generate more community discussion, providing social proof and troubleshooting knowledge bases that Aiforia currently lacks. Buyers should compensate by requesting multiple reference customers in similar practice settings and conducting extended pilot studies before full procurement commitments.

Until organic clinician sentiment emerges, early adopters bear higher information risk. Vendor-provided case studies and testimonials lack the credibility of unsolicited user experiences shared in professional forums. Pathology departments considering Aiforia should plan for thorough internal validation, allocate contingency time for unexpected technical challenges, and negotiate flexible contract terms that allow exit or renegotiation if real-world performance diverges from pilot results. The absence of community discussion is not evidence of poor performance, but it removes a key due diligence signal available for more widely adopted competitors.

What the literature says

Five peer-reviewed studies involving Aiforia appeared in PubMed between 2025 and 2026, all demonstrating technical feasibility but lacking large-scale clinical outcomes data. A Journal of Hematopathology 2025 study evaluated deep learning algorithms for bone marrow aspirate smear classification across nine cell classes, concluding the approach was feasible for routine screening but requiring further validation before clinical deployment. A Scientific Reports 2025 comparison of machine learning versus non-machine learning methods for Ki67 scoring in gastrointestinal neuroendocrine tumors found comparable performance, suggesting AI could streamline labor-intensive manual counting workflows.

A Journal of Pathology Informatics 2026 study developed a machine learning model for lamina propria fibrosis scoring in eosinophilic esophagitis biopsies, aiming to predict fibrostenotic disease progression. The authors validated the model's ability to quantify fibrosis with high reproducibility compared to manual assessment, though they noted the need for prospective studies linking AI-derived scores to clinical outcomes. A Modern Pathology 2026 study addressed pulmonary adenocarcinoma classification complexity by developing an AI model to measure invasion size and perform comprehensive histologic subtyping, demonstrating potential to improve adherence to WHO classification criteria.

The evidence base suffers from two key limitations. First, all studies focus on algorithm validation and technical performance rather than clinical outcomes, workflow efficiency, or diagnostic accuracy in routine practice. Second, no head-to-head trials compare Aiforia directly to competing AI platforms or measure incremental benefit over expert human pathologists. The literature demonstrates proof of concept across multiple tissue types and staining protocols but does not yet prove that Aiforia improves patient outcomes, reduces diagnostic errors, or delivers return on investment. Buyers should interpret these studies as promising preliminary data requiring local validation rather than definitive evidence supporting immediate widespread adoption.

Who it's for

Aiforia fits European academic pathology departments with existing digital infrastructure, high case volumes exceeding five thousand cases annually, and institutional commitment to AI validation research. These labs already own whole-slide imaging scanners, employ computational pathology specialists, and maintain research partnerships that offset implementation costs through grant funding or collaborative studies. Departments with diverse specimen types across hematology, gastrointestinal, pulmonary, and genitourinary pathology benefit most from Aiforia's multi-organ flexibility compared to single-indication competitors.

Large reference laboratories in EU member states processing high volumes of quantitative biomarker assays represent another strong fit. Labs performing hundreds of Ki67 proliferation index studies, Gleason grading cases, or tumor mutation burden assessments can justify automation investments through labor savings and throughput gains. These organizations typically have IT teams capable of managing complex integrations, regulatory affairs staff to maintain CE-IVDR compliance, and quality assurance programs to validate algorithm performance against manual methods.

Aiforia does not fit US community hospitals or integrated delivery networks requiring FDA-cleared solutions for malpractice liability protection and regulatory compliance. Small pathology practices without dedicated IT support, computational pathology expertise, or capital budgets for whole-slide imaging infrastructure should avoid Aiforia. Labs seeking transparent subscription pricing, plug-and-play deployment, or vendor-provided algorithm validation should consider competitors with more mature commercial models. Organizations without institutional appetite for multi-month implementation timelines and local validation studies will find Aiforia's flexibility more burden than benefit.

The verdict

Aiforia delivers technically capable multi-organ AI for digital pathology with legitimate CE-IVDR regulatory clearance, distinguishing it from research-only tools. The platform's flexibility across tissue types and support for custom model training appeal to academic innovators conducting translational research or validating AI in rare diseases. However, absence of FDA clearance, enterprise pricing opacity, zero organic clinician sentiment, and preliminary evidence base limited to feasibility studies rather than clinical outcomes data constrain immediate adoption to early-adopter institutions willing to invest in local validation.

European pathology departments with digital infrastructure, computational expertise, and research partnerships should pilot Aiforia for specific high-volume quantitative workflows like Ki67 scoring or Gleason grading. These pilots should run six to twelve months with rigorous performance benchmarking against manual methods, inter-observer agreement testing, and cost-per-case analysis before full deployment. US labs should monitor FDA regulatory developments but avoid procurement commitments until clearance pathways clarify or competitors with existing FDA approvals better serve their needs.

The tool occupies a niche between research platforms and fully commercialized turnkey solutions. Buyers seeking proven widespread adoption, transparent pricing, and extensive community validation should wait for Aiforia to mature or select competitors with larger installed bases. Buyers comfortable with innovation risk, capable of independent validation, and operating in EU jurisdictions gain access to versatile AI pathology capabilities unavailable from single-indication competitors. The verdict: conditionally recommended for European academic early adopters with appropriate technical resources; not recommended for US buyers, small community labs, or organizations requiring mature commercial ecosystems.

Editorial review last generated May 25, 2026. Synthesized from clinician sentiment, peer-reviewed coverage, and our editorial silo picks. Refined by hand where vendor facts change.

Overview

Finnish AI pathology vendor.

Pricing

What it costs

Free tier only; no paid plans publicly disclosed.

TierMonthlyAnnualNotes
PlanEnterprise.

Source: vendor pricing page. Verified July 2, 2026.

Compliance + integration

What deploys cleanly

Carries CE-IVDR per vendor documentation. Independent attestation review is the buyer's responsibility before clinical deployment.

Peer-reviewed coverage

What the literature says

5 peer-reviewed studies indexed on PubMed evaluate Aiforia in clinical contexts. The most relevant are shown below, ranked by editorial relevance score combining title match, study design, recency, and journal tier.

A deep-learning algorithm (AIFORIA) for classification of hematopoietic cells in bone marrow aspirate smears based on nine cell classes-a feasible approach for routine screening?
Saft L, Vaara E, Ljung E, et al.· J Hematop· 2025
Bone marrow cytology plays a key role for the diagnosis and classification of hematological disease and is often the first step in the acute setting of unclear cytopenia. AI applications represent a powerful tool in digital image analysis and can improve the diagnostic workflow and accuracy. The aim of this study was to develop an algorithm for the automated detection and classification of hematopoietic cells in digitized bone marrow aspirate smears for potential implementation in the clinical laboratory. The AIFORIA create platform (Aiforia Technologies, Plc, Helsinki, Finland) was used to d…
Using artificial intelligence to improve cell therapy assays: automated quantitative image analysis of cells on matrices.
Bornschlegl AM, Dietz AB· Tissue Cell· 2025
As the field of cell therapy continues to advance, the combination of cells and directed delivery methods (such as three-dimensional scaffolds, cell printing etc.) continues to grow. These technologies require methods to accurately determine cell numbers and viability to enhance process optimization and develop appropriate release tests. Current methods have limited dynamic range and require substantial manual effort to produce results. Here we describe a simple fluorescent imaging-based method for counting live and dead cells in scaffold cultures that is consistent, automated, and quantitati…
Comparing non-machine learning vs. machine learning methods for Ki67 scoring in gastrointestinal neuroendocrine tumors.
Mola N, Weishaupt H, Krasontovitsch V, et al.· Sci Rep· 2025Observational
The Ki67 score is a crucial prognostic biomarker for neuroendocrine tumors, but its manual assessment is labor-intensive, requiring the counting of 500-2,000 cells in hotspots. Digital image analysis could streamline this process, yet few comprehensive comparisons exist between different tools. We compared a non-machine learning (non-ML) tool (ImageScope, Leica Biosystems) with a machine learning (ML) tool (Aiforia Create, Aiforia Technologies) on Ki67-stained slides from 10 low proliferative neuroendocrine tumor cases (Ki67 score&#x2009;<&#x2009;5%, eight regions per slide). Performance metr…
A machine learning model of lamina propria fibrosis in eosinophilic esophagitis for prediction of fibrostenotic disease.
Sivasubramaniam P, Shabaan A, Elhalaby R, et al.· J Pathol Inform· 2026
Eosinophilic esophagitis (EoE) is a chronic immune-mediated disease that can progress to fibrostenotic complications. Lamina propria fibrosis (LPF) plays a critical role in this progression but is difficult to assess reliably in routine biopsies. We aimed to develop and validate an artificial intelligence (AI) model to quantify LPF on hematoxylin and eosin (H&E)-stained slides and to evaluate its ability to predict fibrostenotic disease. We used a cloud-based platform (Aiforia Inc., Cambridge, MA, USA) to train a supervised AI model to recognize several histological features of EoE, including…
Development of an Artificial Intelligence Model to Aid in Measurement of Invasion, Comprehensive Histologic Subtyping, and Grading of Pulmonary Adenocarcinoma.
Boland JM, Stetzik L, Roden AC, et al.· Mod Pathol· 2026
The World Health Organization classification of pulmonary adenocarcinoma is complex, posing challenges for pathological reporting. Key difficulties include assessing invasive size in lepidic-predominant tumors and performing comprehensive histologic subtyping. Although these evaluations inform tumor stage, grade, and prognosis, they are time consuming and subjective, leading to interobserver variability. Artificial intelligence (AI) may help streamline these tasks and improve consistency. One representative hematoxylin and eosin slide was selected from each of 100 resected pulmonary adenocarc…

See all on PubMed