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Hi!

Welcome to AIMedily.

Today, I’m writing this newsletter next to my son, who’s feeling a bit under the weather. I’m hoping he wakes up much better tomorrow.

Here’s what stood out this week.

🤖 AIBytes

Researchers studied whether using AI as part of everyday hospital care could improve how sepsis is detected, documented, and treated. And whether this could improve patient outcomes.

🔬 Methods

Hospital: Lausanne University Hospital (CHUV), Switzerland

Patients:

  • 97,559 hospital stays in intervention wards

  • 25,851 hospital stays in matched control wards

Hospitals introduced a Sepsis Learning Health System that included:

  • A standard sepsis care pathway

  • A centralized sepsis registry

  • HERACLES, an AI model that continuously monitors patients

Every 6 hours, it classified patients as no sepsis, possible sepsis, or confirmed sepsis

📊Results

Sepsis detection:

  • AI identified sepsis in about 9–10% of hospital stays

  • Routine ICD-10 coding identified only 2–4%

AI accuracy (confirmed sepsis):

  • AUROC: 0.88

  • Precision: 0.76

  • Recall: 0.62

Documentation:

  • Sepsis coding improved significantly in AI-supported wards.

  • No improvement was seen in control wards.

Mortality:

  • In-hospital mortality decreased in AI-supported wards.

  • 90-day mortality also decreased.

  • No similar improvement occurred in control wards.

Care delivery:

  • Patients were more likely to receive antibiotics within 1 hour when the sepsis pathway was followed.

🔑 Key Takeaways

  • AI worked best when used as part of a system, not as a stand-alone alert.

  • Traditional coding misses many sepsis cases.

  • AI-supported care was linked to lower mortality.

  • Continuous monitoring and clinician involvement were critical.

🔗 Despraz J, Matusiak R, Nektarijevic S, et al. An artificial intelligence-powered learning health system to improve sepsis detection and quality of care. npj Digital Medicine. 2026;9:106. doi:10.1038/s41746-025-02180-2

This review looks at how AI and machine learning are being used to study microRNAs (miRNAs) in cancer for diagnosis, prognosis, and biomarker development.

🔬 Methods

Data discussed:

  • Large public databases (e.g., TCGA, GEO)

  • Clinical cohorts from multiple cancer types

AI approaches:

  • Traditional Machine Learning

  • Deep learning models

  • Newer foundation and transformer-based models

Clinical use cases:

  • Cancer detection

  • Cancer subtype classification

  • Risk prediction and prognosis

📊 Results

  • Single miRNA biomarkers have not been accurate enough for routine clinical use.

  • Better results are seen when multiple miRNAs are combined into panels.

  • Some AI-based miRNA panels achieved AUC values above 0.90 in studies across several cancer types.

  • A serum miRNome model predicted the tissue of origin for 13 solid tumors with about 90% accuracy in early-stage disease.

  • AI models perform better than traditional statistics when combining miRNA data with clinical information.

  • miRNA-based therapies are still experimental:

    • Some trials were stopped due to immune-related toxicity, including inflammatory reactions.

    • Challenges remain with delivery, safety, and regulation.

🔑 Key Takeaways

  • AI has improved how miRNAs are studied in cancer, especially for diagnostic panels.

  • Results are promising, but most tools are not ready for routine clinical use.

  • miRNA-based treatments face important safety and delivery barriers.

🔗 Jurj, A., Dragomir, M.P., Li, Z. et al. MicroRNAs in oncology: a translational perspective in the era of AI. Nat Rev Clin Oncol (2026). https://doi.org/10.1038/s41571-025-01114-x

🦾TechTools

  • Autonomous AI diagnostic that detects more than mild diabetic retinopathy in adults with diabetes—no specialist image interpretation required.

  • Provides an immediate, point-of-care result to guide referrals.

  • FDA De Novo–cleared, designed to expand access to diabetic eye screening in primary care settings.

  • Ambient AI platform that captures clinical conversations and generates structured, specialty-specific notes directly inside the EHR.

  • Extracts key clinical elements to support coding and revenue cycle optimization, going beyond basic scribing.

  • Workflow automation (scheduling, reminders, admin support) to reduce documentation and operational burden.

  • Helps you quickly see the full picture by pulling together EHR data, claims, labs, and notes.

  • It’s used mainly in primary care and value-based care to highlight care gaps and improve documentation.

  • It works inside the EHR, with use shaped by clinical priorities and team workflows.

🧬AIMedily Snaps

  • ACCESS (Advancing Chronic Care with Effective, Scalable Solutions) Medicare Model (Link).

  • Can Medical AI Lie? Large Study Maps How LLMs Handle Health Misinformation (Link).

  • Price Explores Challenges of Medicine, AI, and the Need for a Doctor ‘In the Loop’ (Link).

  • Op-ed: Experience-centered AI is the future of healthcare innovation (Link).

  • Invisible Text Injection and Peer Review by AI Models (Link).

🧪Research Signals

  • AI succeeds in diagnosing rare diseases (Link).

  • Assessment of Short-Answer Questions by ChatGPT in a Medical School Course (Link).

  • AI tool predicts over 1,000 diseases years before they happen — and more are on the way (Link).

  • A scoping review of silent trials for medical artificial intelligence (Link).

  • The Missing Dimension in Clinical AI: Making Hidden Values Visible (Link).

  • Bridging AI and Clinical Reasoning (Link).

🧩TriviaRX

Which life-saving medical breakthrough was discovered in 1928 after a scientist returned from vacation and noticed mold growing in a petri dish?

A. Insulin
B. Penicillin
C. The polio vaccine
D. Cortisone

Now, the answer from last’s weel TriviaTX:

B. The smallpox vaccine

In 1796, Edward Jenner inoculated 13-year-old James Phipps with material from a cowpox lesion, demonstrating protection against smallpox.

That’s all for this week.

As always, thank you for taking the time to read.

You’re already ahead of the curve in medical AI — don’t keep it to yourself. Forward AIMedily to your colleagues who’d appreciate the insights.

Until next Wednesday.

Itzel Fer, MD PM&R

Follow me on LinkedIn | Substack | X | Instagram

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