In this article
Key takeaways
- AI adoption in healthcare is already broad, but it has been driven by individuals choosing tools, not by systems being redesigned around them.
- Using an AI tool and integrating AI into care are different things. The difference is data access, placement in the workflow, accountability and a record of what happened.
- Healthcare data is fragmented across systems and formats. AI can only be as useful as the context it can reliably reach.
- The EHR is where clinical work happens, so integration with it decides whether AI saves time or adds a step.
- Models will keep improving for everyone. The lasting advantage sits in the infrastructure around them: data, integration, workflow and governance.
Most technology arrives in healthcare through the front: a procurement process, an implementation plan, a training schedule, a go-live date. AI has largely skipped that queue.
A patient pastes a lab result into a chatbot the night before an appointment. A physician asks an assistant to tighten up a referral letter. A billing specialist uses one to decode a payer’s denial language. None of this needed an IT ticket, and much of it is genuinely useful. But none of it, on its own, means a health system has adopted AI.
That distinction is easy to miss, because the adoption numbers are striking. It is also the distinction that matters most for what comes next. Healthcare has no shortage of people using AI. What it mostly doesn’t have yet is AI that is wired into the records, data and workflows that care actually runs on.
This piece is about that gap: why it exists, why it is harder to close in healthcare than in most industries, and why closing it depends less on better models than on better infrastructure.
AI is already part of everyday healthcare work
Whether people in healthcare will use AI is no longer an open question. They already do, on both sides of the exam room.
of physicians incorporate at least one AI use case into their practice, up from 38% in 2023
AMA, 2026 physician surveyAI use cases per physician on average, up from 1.1 in 2023
AMA, 2026 physician surveyof U.S. adults use AI tools or chatbots for health information or advice every month, up from 17% in 2024
KFF, June 2026 pollLook at where that use shows up and a pattern appears.
- Patient questions
Understanding a lab result, preparing questions before a visit, deciding whether a symptom can wait. Patients bring these to AI because it answers immediately and in plain language.
- Clinical documentation
Drafting visit notes, summarizing long charts, rewriting instructions for patients. The AMA’s survey found that documentation and summarization are where most physician use and enthusiasm currently sit.
- Research and reference
Summaries of research and standards of care. Nearly 40% of physicians in the AMA survey now use AI this way in their workflows, 26 points more than in 2024.
- Finding information
Locating the one relevant detail in a long record, a dense policy document or a payer’s coverage rules.
- Administrative work
Prior authorization letters, appeal drafts, coding questions and scheduling messages: the work that surrounds care rather than care itself.
What these uses have in common is that the person is doing the integrating. They decide what to share with the tool, they carry the output back to whichever system needs it, and they are the only check on whether it was right. That works, up to a point. It is also exactly where the limits begin.
Using AI is not the same as integrating it
When a clinician uses a general-purpose AI tool, the tool sees only what they paste in. It doesn’t know what was in last week’s note, what the most recent potassium was, or which medications were stopped at discharge. Its answer lands in a chat window, and from there it travels by copy and paste.
Integrating AI means something else. The system can read the right information for this patient, with permissions that match the user’s. Its output appears inside the workflow where the decision is made. Someone is accountable for reviewing it. There is a record of what it saw and what it produced. And when it gets something wrong, the organization finds out because the system is monitored, not because one user happened to notice.
| Dimension | Using an AI tool | AI integrated into care |
|---|---|---|
| Context | Whatever the user remembers to paste in | Pulled from the record for the right patient, limited to what the user may see |
| Where output goes | A chat window, then copy and paste | Into the workflow: a draft note, an inbox message, a work queue |
| Review | Depends on the individual, in the moment | A defined step before anything reaches the chart, the patient or a claim |
| Record | Usually none inside the organization | Inputs, model and prompt version, output and approver are logged |
| Data protection | Depends on the tool and what was shared | Covered by vendor agreements, access controls and the security program |
| When it’s wrong | Caught if someone happens to notice | Measured, monitored and fed back into the system |
Why healthcare raises the bar
In many industries, a tool that is usually right and saves effort is an easy win. Healthcare has a few characteristics that make the integration step both harder and more important.
- The systems of record are central and long-lived. Clinical work runs through the EHR, and changing how it behaves touches every department that depends on it.
- The data is sensitive by default. Almost everything that makes an AI system useful is protected health information, with obligations attached to every place it travels.
- Errors aren’t cosmetic. A wrong date in a marketing email is embarrassing. A wrong dose in a discharge summary is something else entirely.
- Work is shared across roles. One patient’s care passes through scheduling, nursing, physicians, pharmacy, billing and the patient. AI that helps one role but breaks the hand-off to the next hasn’t really helped.
- Reliability is expected, not hoped for. A tool that’s unavailable during clinic hours, or behaves differently after an unannounced update, creates work instead of saving it.
The regulatory side of this, from BAAs to technical safeguards, is covered in our guide to HIPAA-compliant AI. This article is about the engineering and operating model around it.
In a lot of healthcare AI today, the person using the tool is the integration layer. That doesn’t scale, and it shouldn’t have to.
AI is only as useful as the data it can reach
Ask an experienced clinician what they need to make a decision and the answer is rarely a single number. It’s the trend, the history, the specialist’s note, the medication that changed last month, the context that explains why a result is or isn’t worrying. AI needs the same thing. Without it, even a very capable model is answering a narrower question than the one being asked.
The difficulty is that a patient’s story almost never lives in one place.
Four problems tend to surface as soon as an AI project tries to use this data:
- Fragmentation. Information is spread across the EHR, departmental systems, other organizations and patient-facing apps, each with its own identifiers and update cycle.
- Quality. Duplicate records, stale problem lists, free-text fields holding what should be structured values, and codes that mean slightly different things in different systems.
- Structure. Lab values and medication lists are usually structured. The reasoning, the part that explains why, mostly sits in narrative notes and scanned documents.
- Movement. Data crossing organizational boundaries often arrives as a document rather than as data, and has to be matched and reconciled before it is useful.
of U.S. hospitals routinely found, sent, received and integrated patient information electronically in 2023, up from 28% in 2018. Real progress, and still short of a majority.
ASTP/ONC, interoperability data brief, 2024None of this is news to anyone who has worked on a healthcare data project. What has changed is that AI raises the stakes. A dashboard built on incomplete data shows a misleading chart. An AI system built on incomplete data writes a confident paragraph. For a deeper look at the standards involved, see our healthcare interoperability guide.
The EHR is where AI becomes useful, or doesn’t
Most clinical work happens inside the EHR: orders, notes, results, messages, the inbox. A clinician who has to leave that environment, open another tool, re-establish which patient they’re looking at, paste in context and then carry the answer back has gained something, and paid for it in clicks and attention.
That’s why the same AI capability can feel transformative in one setting and pointless in another. A summary that appears inside the chart, for the right patient, when the clinician opens the encounter, saves time. The identical summary in a separate window is one more thing to check.
- DataLabs, notes, medications, imaging, outside records
- EHRSystem of record and the place work happens
- AIReads context, drafts, summarizes, flags
- ClinicianReviews, edits and decides
- PatientReceives care, instructions and follow-up
Every arrow in that chain is an integration someone has to build, secure and maintain. In practice, that involves:
- Standards-based access. FHIR APIs give applications a consistent way to read, and increasingly write, clinical data. Certification rules under the 21st Century Cures Act require certified EHRs to offer standardized FHIR-based APIs, which has made this far more practical than it was a few years ago.
- The feeds that already exist. A great deal of real-time clinical data still moves as HL7 v2 messages through interface engines. An AI system that ignores those feeds is working from an incomplete picture.
- Launch in context. SMART on FHIR lets an application open inside the EHR already knowing the user and the patient, so nobody has to re-identify anyone by hand.
- Write-back. The most useful output usually has to land somewhere: a draft note, a task, a message. Writing back safely, with attribution and a review step, is harder than reading.
- Context, not just data. Knowing that a result was flagged, who ordered it and what happened at the last visit is often the difference between a useful summary and a generic one.
We’ve written in more detail about HL7 v2 and FHIR trade-offs in EHR integration pipelines and about FHIR-based data exchange.
Deploying AI is the start of the work, not the end
Traditional software mostly does the same thing tomorrow that it did today. AI systems differ in ways that matter: their output varies, their behavior can shift when a model or prompt changes, and their mistakes tend to look plausible rather than obviously broken. That makes oversight an ongoing activity, not a sign-off at launch.
“Governance” can sound bureaucratic. In practice it comes down to a short list of questions that someone should be able to answer for every AI use in the organization:
Who approved this, and for what?
A clear intended use, and an equally clear list of what the system is not for.
Who reviews the output?
Defined review points depending on whether output reaches a chart, a patient or a claim.
What did it see and produce?
An audit trail of inputs, model and prompt versions, outputs and approvals.
Is it still working?
Ongoing measurement against a clinician-reviewed test set, not only a pre-launch demo.
Who can see the data?
Access controls, vendor agreements and data handling that match the sensitivity of health information.
What happens when it’s wrong?
An escalation path, a fallback, and a way to switch it off without stopping care.
Clinicians want a hand in this. In the AMA’s 2026 survey, 85% of physicians said they want to be consulted on, or responsible for, bringing AI into their practice. The factors they rated most important for wider adoption were validation of safety and efficacy (88%) and assurances about data privacy (86%). Governance is how those expectations turn into day-to-day practice.
Human involvement is a design decisionDecide in advance which outputs can go straight to a work queue, which need review, and which should never be automated. Leaving it to individual judgment in the moment is how review slowly turns into rubber-stamping.
Our post on enterprise AI governance, risk and compliance goes further into frameworks and operating models.
The model is one layer of the system
Put the previous sections together and a picture forms. A useful healthcare AI system is a stack, and the model is one layer in it. Governance isn’t another layer on top; it surrounds all of them.
-
Layer 1Data
The questionIs the information complete, current and trustworthy?
Without itConfident answers built on partial context.
-
Layer 2Integration
The questionCan the system reach that information, and put results where the work happens?
Without itCopy and paste, and a tool nobody opens twice.
-
Layer 3 · most visibleAI model
The questionCan it read, summarize, draft or flag well enough for this task?
Without itNothing to integrate.
-
Layer 4Clinical workflow
The questionDoes the output arrive at the right moment, for the right person, in the right place?
Without itExtra steps for people with none to spare.
The questionWho is accountable, what is logged, and how do we know it still works?
Without itNo basis for trusting it at scale.
The layers depend on each other in both directions. A strong model on weak data underperforms. Good data with no integration never reaches anyone. A well-integrated tool with no oversight is a problem waiting to be found. In our experience, healthcare AI projects that stall are rarely stuck on the model. They’re stuck a layer below it, or a layer beside it.
Where the next wave of healthcare AI will be built
Models will keep getting better, and quickly. That progress is real and welcome. But because it is available to everyone, a better model on its own is a shrinking advantage. The slower, harder and more durable work is everything that lets a model do something useful inside a specific health system.
For healthcare organizations, and for the companies building for them, that points to a handful of places to focus:
Data connectivity
Reliable pipelines from the systems that hold patient data, with identity matching and quality checks, so AI works from the full picture rather than whatever was easiest to reach.
EHR and workflow integration
AI that opens in context, writes back drafts for review, and shows up at the moments where decisions are actually made.
Interoperability by default
Building on FHIR and existing exchange standards instead of one-off connectors, so each new use case doesn’t start from zero.
Governance as infrastructure
Audit trails, evaluation suites, access controls and monitoring built into the platform, rather than bolted onto each project after the fact.
Reusable foundations
Shared services for identity, consent, logging and evaluation that every AI use case can rely on, so the tenth deployment is easier than the first.
None of this is as visible as a new model release. It tends to show up as an absence: no copy and paste, no surprising outputs, no project that worked in the pilot and stalled in production. It is also the work that decides whether AI becomes part of how care is delivered, or stays a set of clever tools on the side.
Questions we hear about healthcare AI infrastructure
What is the infrastructure gap in healthcare AI?
It is the distance between how widely AI is used in healthcare and how little of that use is connected to the systems care runs on. Patients and clinicians use AI tools every day, but most of those tools cannot reach the patient record, write back into the workflow, or operate under an organization’s audit and oversight. Closing the gap is mostly data, integration and governance work rather than model work.
What is the difference between using AI and integrating AI in healthcare?
Using AI means a person brings information to a tool and carries the answer back. Integrating AI means the system can read the right patient context with appropriate permissions, deliver its output inside the clinical workflow, route it through a defined review step, and keep a record of what it saw and produced.
Why does EHR integration matter for healthcare AI?
Most clinical work happens inside the EHR. AI that runs in context, for the right patient and at the moment a decision is made, saves time. The same capability in a separate window adds steps. Integration through standards such as FHIR APIs, SMART on FHIR launch and existing HL7 v2 feeds is what lets AI read context and write back safely.
What does AI governance look like for a healthcare organization?
In practice it is a short set of answerable questions for every AI use: who approved it and for what, who reviews the output, what is logged, how performance is measured over time, who can see the data, and what happens when the system is wrong or unavailable.
Closing the gap
Healthcare didn’t wait for permission to start using AI. Patients and clinicians found it useful and brought it in themselves. That is a strong signal about demand, and a fair warning about risk.
The organizations that get the most out of the next few years will treat that signal as a brief. Take the uses people have already shown they want, and build the data, integration and oversight that let those uses run safely inside the system rather than beside it. The models will keep improving without anyone’s help. The infrastructure won’t.
If your most promising AI use case worked perfectly tomorrow, which of your systems would it need to talk to, and how many of those connections exist today?
Building AI into a healthcare system?
We design and build the parts around the model: EHR and FHIR integration, data pipelines, governance and evaluation, so AI works inside the workflows your teams already use.
Sources
- American Medical Association: 2026 Physician Survey on Augmented Intelligence (March 2026)
- KFF: Tracking Poll on Health Information and Trust, use of social media and AI for health information (June 2026)
- ASTP/ONC: Raising the bar on interoperability, a decade of data (June 2024)
- ASTP/ONC: Standardized API for patient and population services, 45 CFR 170.315(g)(10)
- HL7: SMART App Launch specification
Figures reflect the cited sources as of October 6, 2026. Survey results are self-reported.