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Explore articles on AI-driven diagnostics, and the evolution to daignostics. The searchable library of selected articles comes from leading sources across Demographics, Finance and Technology. Each article is tagged for easy browsing, making it simple to explore trends, analysis and insights from around the world.

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dAIgnostics: how Machine Learning and foundation models will change in vitro diagnostics

Machine Learning and foundation models are poised to reshape in vitro diagnostics, enabling more biomarkers, higher accuracy, and greater personalisation.

These advances could transform how tests are designed, deployed, and interpreted. In this emerging landscape, daignostics – AI-driven diagnostic approaches  promise smarter, faster, and more tailored insights, supporting distributed healthcare and empowering providers to make data-driven decisions. While regulatory, trust, and implementation challenges remain, the rise of ML and foundation models signals a new era in daignostics, where AI complements human expertise to improve patient outcomes.

Author: Jamie Sykes Macleod (March 20, 2025)

TTP

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Unveiling the future: the impact of artificial intelligence in diagnostic pathology

Artificial intelligence is rapidly reshaping diagnostic pathology, from histology to cytology. Advanced machine learning and foundation models can detect patterns invisible to the human eye, improving accuracy and efficiency. These innovations are driving the next generation of daignostics, where AI augments human expertise to accelerate diagnosis, reduce error, and enable more personalised patient care.

While adoption faces challenges such as explainability, data bias, and clinical integration, the trend is clear: AI-powered diagnostics is becoming central to modern pathology, helping clinicians make faster, more informed decisions while maintaining quality and safety standards.

Author: Kartavya Kumar Verma (August 10, 2025)

Springer Nature

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A scoping review on the role of AI, deep learning, and large language models in alleviating problems in medical deserts

In regions known as medical deserts – where healthcare facilities, specialists or diagnostics are scarce – advanced AI methods offer a promising lifeline. This review shows how tools such as large‑language models, deep‑learning analytics and tele‑health platforms can power new forms of daignostics, extending diagnostic reach into underserved areas. While infrastructure, training and trust remain obstacles, the potential for AI‑driven diagnostics to bridge care gaps is clear.

In short: the future of diagnosing in remote or underserved populations lies in harnessing machine‑assisted daignostics to level the access playing‑field.

Authors: Zdeslav Strika, Karlo Petkovic, Robert Likic, Ronald Batenburg (January 10, 2025)

University of Zagreb School of Medicine

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Diagnostic performance of artificial intelligence for dermatological conditions: a systematic review focused on low- and middle-income countries to address resource constraints and improve access to specialist care

In a shift from traditional diagnostic reimbursement models, this study shows how daignostics – AI‑driven diagnostic systems – demand new payment frameworks.

The authors introduce an “AI Score” that quantifies AI’s data complexity, disease‑complexity and clinical involvement. Using this, they map distinct billing categories for subspecialist support, full‑AI diagnostics, and hybrid human‑AI workflows. The model shows that when AI handles most of the work, reimbursement should reflect that autonomy rather than being bundled in older human‑centric codes.

With proper structuring, daignostics can become cost‑neutral or even cost‑saving for payers by reducing downstream costs (e.g. fewer mis‑diagnoses, fewer repeat tests). The article signals that the future of diagnostics isn’t just the technology – it’s how we pay for what the machine and the human together deliver.

Authors: Olivier Uwishe­ma, Malak Ghezzawi, Nicole Charbel et al (September 29, 2025)
International Journal of Emergency Medicine

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Artificial intelligence in healthcare diagnosis: evidence-based recent advances and clinical implications

Across healthcare systems strained by rising demand and specialist shortages, AI‑driven diagnostic tools are rapidly evolving. Methods such as deep‑learning image analysis, predictive modelling, and tele‑consultation platforms illustrate how autonomous daignostics can improve reach, precision, and efficiency. While regulatory hurdles, integration challenges, and data reliability remain, the potential for AI to transform diagnostic practice is evident.

Ultimately, machine‑assisted daignostics could redefine how and where diagnoses are delivered, making advanced care more widely attainable.

Authors: Jay BhattSweny Jain, and Dhiraj Devidas Bhatia (October 08, 2025) 

Royal Society of Chemistry (RSC)

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Reducing misdiagnosis in AI‑driven medical diagnostics: a multidimensional framework for technical, ethical, and policy solutions

As AI systems become increasingly integrated into clinical workflows, the risk of misdiagnosis remains a critical concern. This review outlines a multidimensional framework for improving accuracy, addressing technical, ethical, and policy dimensions of AI in healthcare. Techniques such as deep‑learning analytics, automated image interpretation, and predictive modelling illustrate how autonomous daignostics could support clinicians, reduce errors, and standardise diagnostic decision‑making across diverse settings. Challenges around data quality, algorithm transparency, and regulatory oversight persist, but structured approaches show promise in mitigating these risks.

In essence, daignostics represents a pathway toward reliable, scalable, and ethically guided AI‑driven diagnostics, potentially transforming how healthcare systems identify and respond to disease.

Authors: Yue Li, Xin Yi, Jia Fu, Yujing Yang, ChuJie Duan, Jun Wang (October 31, 2025)
Frontiers Media S.A.