Make Informed Health Decisions
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Author
Dr George LaliotisReviewed by
Gevorg NazaryanClinical decision support (CDS) has been around for years, yet many healthcare organizations still struggle to get real value from it. Although CDS systems are widely implemented, real-world clinician use remains modest, with only around 34% uptake reported in some studies.
Alerts are ignored, recommendations are questioned, and clinicians often end up relying on their own judgment anyway. Now AI has entered the picture, promising to fix what traditional CDS could not. In practice, it has raised a practical question: if AI is so capable, why does clinical decision support still feel inconsistent across real-world settings?
For many decision-makers, the challenge is no longer whether AI belongs in clinical decision support, but how and where it should be applied. Different solutions claim to solve the problem, yet outcomes vary widely.
So the real question is what problems AI actually solves in clinical decision support, and which types of solutions are considered effective in practice.

WAIT.
I know this can feel like a lot at the beginning. If the table looks confusing right now, don’t worry: the sections below explain how everything fits together.
| Solution | Clinical Workflow Integration | Rule-Based Detection | Diagnostic Reasoning | Context Awareness | Explainability | Enterprise CDS |
|---|---|---|---|---|---|---|
| Epic Systems | Yes | Yes | No | No | Yes | Yes |
| Oracle Cerner | Yes | Yes | No | No | Yes | Yes |
| Docus | Yes | Yes | Yes | Yes | Yes | Yes |
| PathAI | Yes | No | Yes | Yes | No | Partial |
| Aidoc | Yes | No | Yes | Yes | No | Partial |
If you’re still unsure, here’s a quick recap
In everyday use, clinical decision support has mostly relied on rules and alerts. When a value crosses a predefined threshold, the system triggers a notification, usually inside the EHR. The idea is simple: highlight potential issues early and support guideline-based care. Over time, however, clinicians began receiving so many alerts that many of them were ignored, even when they mattered.
AI changed the expectations for what CDS could do. Instead of relying only on static thresholds, AI can recognize patterns across multiple data points, track trends over time, and prioritize what truly needs attention rather than surfacing every possible alert. In theory, this moves CDS closer to how clinicians actually think: focusing on context, relevance, and likelihood, not just individual values.
At the same time, this shift revealed an important limitation. While AI expanded what clinical decision support can do, it also exposed the constraints of how most CDS systems are currently built and deployed.
AI-powered clinical decision support can look very different from one solution to another. Some tools focus on knowledge retrieval, others on workflow automation, and others on data analysis. Before comparing specific solutions, it helps to be clear on the core capabilities that actually matter in practice.
1. Integration with existing clinical systems.
AI-CDS should work within the systems clinicians already use, including EHRs, rather than forcing separate tools or parallel workflows. Poor integration often leads to low adoption, no matter how advanced the technology is.
2. Support for clinical knowledge and evidence.
Effective CDS does more than surface data. It connects insights to trusted clinical knowledge, guidelines, or evidence, so clinicians understand why a recommendation is being made.
3. Ability to interpret diagnostic data, not just flag abnormalities.
Simply marking results as “high” or “low” adds limited value. More useful systems can interpret diagnostic data in context, recognizing patterns and relationships across multiple results.
4. Context awareness.
Clinical decisions rarely depend on a single value. AI-CDS should consider trends over time, combinations of findings, and relevant patient factors, rather than treating each data point in isolation.
5. Explainability and trust.
For AI to be used consistently, clinicians need to understand how conclusions are reached. Systems that offer clear reasoning and transparency are far more likely to be trusted than black-box outputs.
6. Fit into real clinical workflows.
Even accurate insights lose value if they appear at the wrong time or in the wrong place. AI-CDS should support decision-making without adding steps, interruptions, or unnecessary alerts.
Today, there is no single solution that fully and equally satisfies all of these criteria. AI-powered CDS solutions are best understood by the problems they prioritize, rather than by how many boxes they claim to check. With that in mind, let’s look at how current solutions approach clinical decision support.

If you’ve researched AI clinical decision support before, you’ve probably noticed something confusing: every article lists different companies. That is because many sources mix together knowledge databases, infrastructure platforms, and workflow tools, even though they serve very different purposes.
To keep things clear, we’ll focus here only on solutions that actually support clinicians during the clinical decision-making process.
Epic provides clinical decision support that is deeply embedded within EHR workflows. Its CDS capabilities focus on detecting abnormalities, enforcing guidelines, and surfacing alerts or reminders at the point of care. AI is used selectively to improve prioritization and risk identification, while most decision logic remains rule-based.
Oracle Cerner offers enterprise-grade CDS within large healthcare systems, combining rules, analytics, and selective AI to support clinical and operational decisions. Its strength lies in standardization and scale, supporting consistent decision-making across organizations.
Docus is designed to act as an AI intelligence layer for diagnostic data, focusing on interpretation rather than simple detection. It combines diagnostic context, trends, and patient-specific factors to support more informed clinical decisions, while remaining compatible with existing clinical systems.
PathAI applies AI to diagnostic pathology, using machine learning models to analyze complex tissue and imaging data. The platform supports diagnostic reasoning by identifying patterns and features that may be difficult to detect consistently through manual review. Its approach demonstrates how AI can move beyond threshold-based detection toward deeper diagnostic interpretation within a specific clinical domain.
Aidoc applies AI to medical imaging workflows, prioritizing and interpreting findings to support faster and more accurate diagnostic decisions. It demonstrates how AI reasoning can be applied to specific diagnostic domains within clinical environments.
Now that you’ve seen how these solutions work in practice, you can revisit the comparison table above with a clearer perspective.
Beyond the solutions discussed above, there are other AI clinical decision support platforms that approach clinical decision-making differently.
AI in clinical decision support is not about finding a single “best” solution. It’s about understanding how different tools support decisions in different ways, depending on workflow, data, and clinical context. As AI continues to evolve, the real value will come from solutions that move beyond alerts and isolated insights and fit naturally into how clinical decisions are actually made.
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