Category Archives: Technology and Informatics

Posts related to technology, gadgets, cloud, informatics, or just about anything that is/can be/plugs into a computer. Relationship to radiology optional.

AI Can Raise the floor, But People Determine The Ceiling.

AI readiness is often treated as a technical skill, as though one could study for it, take a test, and be done. It is a pitfall particularly in education – what does it even mean to teach residents to be ready for the AI age?

Researchers at UT Austin asked 523 early-career professionals to do client-like work with an AI agent, then compared their results with an AI-only baseline. About half were “AI Amplifiers”: they did better than AI alone. A quarter were “Delegators”: their work was about as good as the AI’s. The rest, “Apprentices,” did worse, even though they were not necessarily less capable.

Yes – about a quarter of the early-career professional appeared to produce worse outputs when using AI compared to than just having it done by AI alone. (The reality is probably that the researchers were better prompt engineers than the apprentices).

Strong users framed the problem, used real domain knowledge, checked the output, and refined it over several rounds. AI was used as a collaborator that needed direction and oversight.

This feels familiar in resident education. An algorithm can produce a useful first pass. Safe clinical value still depends on whether the clinician asks the right question, spots what does not fit, and knows what to do next.

The lesson is not to teach longer prompts. It is to teach judgment in the workflow: frame, check, refine, decide.

AI can raise the floor. People still determine the ceiling.

Source: McCombs School of Business, University of Texas at Austin.

Navigating AI Decisions: Going Beyond “Buy vs Build”

Conceptual illustration of an AI buy-versus-build crossroads with governance and monitoring decisions

“Should we buy or build?” is usually the first question organizations ask about radiology AI. It is useful, but it is no longer the whole question.

Today, you can choose from cleared clinical algorithms, enterprise AI platforms, generative-AI tools, and internally developed workflows. The real challenge begins after a contract is signed or a prototype works. AI becomes another clinical system: one that can help, distract, confuse, or quietly change behavior.

Anyone who has lived through an enterprise IT rollout, PACS replacement, or hospital merger (let alone lead an aspect of it) knows the pattern. Installation is only one part of deployment. The hard work is making a tool fit the people, data, incentives, exceptions, and failure modes of the place where it will be used.

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AI Reimbursement Is Becoming a Workflow Problem

CMS has proposed a new way to recognize and potentially pay for certain software-based clinical services (always start with the fact sheet – far more readable than the full text). This may matter in radiology, but it does not mean every AI tool will suddenly be reimbursed by Medicare.

The proposal calls these tools Software as a Medical Service. Examples include software that extracts useful information from medical images, such as heart blood-flow analysis, fracture-risk scores, or brain MRI comparisons. CMS would give some of these services their own payment category while it learns more about how they are used.

Medicare is beginning to acknowledge that some software can provide clinical information beyond a simple workflow aid, and it augments rather than replace physician work (Radiologists have been saying this for a while, and other -ologies expected to follow as product lines expand). Still, the proposal is temporary and limited. Many AI tools would not qualify for separate payment, and payment will depend on appropriate ordering, documentation, billing, and medical necessity.

Clear language matters – CMS differentiates between assistive, augmentative, and autonomous. Software that helps a radiologist work faster (assistive) is different from software that provides new, clinically useful measurements (augmentative). Both differ from a system that makes a diagnosis without a clinician (autonomous). Administrative tools such as scheduling or drafting messages can be useful, but they are not diagnostic services.

The bigger challenge is workflow. Buying or building a tool is only the beginning. All of it involve some form of cost. Hospitals must integrate it into their systems, review privacy and security, train staff, check its performance, document its use, bill correctly, manage denials, and show that it improves care. On the flip side, a billing code alone does not guarantee revenue.

For radiology leaders, the practical next step is to take inventory: Which software tools are already in use? What do they add to patient care? Are eligible services being documented and billed correctly? What do they cost, and what clinical decisions do they improve?

CMS’s proposal is a meaningful step, but not a windfall. The opportunity is to identify the software services that provide distinct value, and build reliable workflows around them.

“The Moon is Orange” – When the Air Gets Visible

On the way to summer camp yesterday morning, my kids pointed to the sky and said “look the moon is orange!”

The strange thing about bad air is that it is usually abstract until it is not. It turns out, that was the sun at 8 am on a ‘sunny day.‘ There was so much ash in the air that you could directly stare at the sun with the naked eye, even mistaking it as the moon.

On Thursday morning, Cleveland’s sky made air quality very concrete. The sun looked filtered, the horizon was soft, and everything had that slightly apocalyptic orange-gray cast that we have now learned to associate with Canadian wildfire smoke.

A dim orange sun over Cleveland streets through heavy Canadian wildfire smoke.
I took this photo from my car at 8am. Smoke from Canadian wildfires dimmed the Cleveland sky on July 16.

And so I wondered if we could turn this situation into a little project of our own.

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FDA AI Guidance and the Hard Part of Transparency

The least glamorous part of AI in radiology may turn out to be the most important: telling people what changed.

That sounds simple. It is not. A diagnostic AI tool may be trained on one dataset, validated on another, deployed inside a PACS or reporting workflow, monitored after release, and then updated when the model, threshold, input, interface, or intended environment changes. Somewhere in that chain, a radiologist is expected to decide whether to trust a box, a score, a contour, a triage flag, or a sentence.

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AI Readiness as an Educational Obligation

I wrote a guest editorial in Academic Radiology about AI readiness as a practical educational obligation, rather than an optional informatics side quest.

The piece responds to a study of medical undergraduates and radiology trainees in China, but the issue is broader: enthusiasm and exposure do not equal competence. Radiologists need enough AI literacy to recognize workflow fit, automation bias, governance gaps, and the limits of machine suggestions. Most trainees will not become model developers.

They still need to become safe, skeptical operators who can use AI with confidence and accountability in real clinical environments, worldwide, across diverse resource settings today.

A Tiny Rocket Altimeter, Or How To Make Model Rocketry Slightly More Complicated

My 8-year-old has been into model rocketry for the past few years. Like a lot of good hobbies at that age, it has the right mix of building, anticipation, mild danger, and a satisfying countdown.

The only problem is that we live in Cleveland, and Cleveland winter is not exactly the most launch-friendly operating environment. Model rockets and lake-effect snow do not have a natural partnership. So for a good part of the winter, we talk about launches, plan launches, look at parts, imagine future launches, and wait.

A model rocket launch setup on a grassy field with launch gear nearby.
The launch-day setup, finally outside after a winter of planning. That on the mount is an Estes minimum diameter rocket called Hi-Flier

Somewhere in that waiting period, the project shifted from “let’s launch rockets” to “what if we could measure what the rocket is actually doing?”

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When AI Saves Time but Steals Your Evening

There is a lot of AI-generated, AI-related content out there lately. This HBR article seems to stand out with interesting findings. It’s behind a paywall, but here are the takeaways.

Generative AI was supposed to buy us time. An eight-month field study inside a ~200-person U.S. tech company suggests it can do the opposite: it intensifies work.

  • First, AI lowers skill barriers, so people take on tasks they previously wouldn’t. This means designers writing code, analysts drafting research, clinicians spinning up analyses. That feels empowering, but it also creates downstream “cleanup” work for others who must review, correct, and integrate AI-assisted output.
  • Second, AI makes work frictionless enough that it seeps into the in-between moments. Lunch breaks, late evenings, the quick “one more prompt.” The result is blurrier boundaries and less real recovery.
  • Third, AI encourages parallelism: multiple drafts, multiple threads, constant checking. That boosts throughput, but it also fragments attention.

The article goes on to describe a vicious cycle in which the more your colleagues do it, the more it becomes a culture, one in which you feel compelled to keep up. Using more AI.

I’ve felt a version of this personally. A few years ago, I stopped blogging regularly to make more time for kids and life outside work. With generative AI, getting a post out is genuinely easier. It’s a idea and some prompts, edits, and reviews away. But it still has to happen sometime… which, for me, often means well into the evening, in the dark, with the quiet (adorable) snoring noises of kids nearby.

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What Radiology Teaches Us About AI and the Workforce

Health systems frequently ask whether artificial intelligence will ultimately reduce the need for clinicians. Radiology provides one of the clearest real-world answers to date. AI changes the mechanics of work far more than it changes the need for expertise.

I had the privilege to speak with CNN on this topic recently. The story is out now.

In imaging operations, AI is already being used to support exam prioritization, improve image reconstruction, and reduce friction in routine workflows. These contributions are meaningful, particularly in high-volume environments. But they do not displace clinical judgment, professional accountability, or responsibility for patient outcomes. In practice, the performance gains attributed to AI are inseparable from expert oversight and careful integration into clinical teams.

We use AI as a capacity and quality multiplier, not as a substitute for our training. That line is difficult to walk and gets thinner as products improve, but the thought matters. Deploying it primarily as a justification for workforce reduction or skill substitution introduces avoidable risk to patient safety and physician trust.

Success ultimately go to those investing in workflow, governance structures, and building solution that define clear roles for both humans and machines. Radiology may be an early example, but the underlying lesson extends well beyond imaging.

The FDA has an Idea, or 10, on Good Machine Learning Practice

Good machine learning practices goes beyond the chip

The U.S. FDA, Health Canada, and the UK’s MHRA have unveiled 10 guiding principles for Good Machine Learning Practice (GMLP) in developing AI/ML medical devices. These principles aim to ensure safety, efficacy, and quality in healthcare innovation. Key focuses include leveraging multi-disciplinary expertise, implementing good software and security practices, ensuring representative clinical study participants and data sets, maintaining independence between training and test data sets, and emphasizing the performance of the human-AI team. These guidelines also highlight the importance of clear user information, robust testing, and ongoing monitoring of deployed models to manage re-training risks and maintain performance.

Read the full GMLP draft on the FDA website.

1-Minute Summary

Here are the ten principles of GMLP.

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