Systems | Development | Analytics | API | Testing

Healthcare interoperability enables clinical, administrative, and financial systems to exchange usable health information securely. It connects EHRs, payer platforms, laboratories, pharmacies, medical devices, and patient applications. In 2026, interoperability requires more than transferring data between disconnected systems. Healthcare organizations must standardize data models, resolve patient identities, govern access, maintain semantic consistency, and support real-time API-based workflows.

Healthcare interoperability enables clinical and administrative systems to exchange usable patient information. However, connectivity alone does not ensure accurate interpretation or workflow compatibility. Many of the challenges with interoperability in healthcare have less to do with moving data and more to do with whether the receiving system understands what that data means. FHIR standardizes healthcare data exchange through structured resources and implementation frameworks.

Healthcare is becoming more connected than ever, but most hospitals still rely on decades old systems to exchange clinical data. At the same time, AI, cloud platforms, patient apps, and new interoperability regulations are driving organizations toward modern API based architectures. According to Deloitte, 90% of healthcare executives expect digital technology adoption to accelerate in 2025, while McKinsey found that 85% of healthcare leaders are already exploring or implementing generative AI.

The Internet of Medical Things (IoMT) is growing faster than ever. According to 2026 data from The Business Research Company, the global IoMT market has reached over $124 billion this year and is on track to hit nearly $300 billion by 2030. This growth is happening because healthcare is moving outside hospital walls and into patients' homes through remote monitoring. But for engineering teams, connecting these devices is a massive headache.

The digital healthcare market is undergoing a structural shift. Recent industry data from McKinsey and Statista shows that the global remote patient monitoring market is projected to reach $6.1 billion by 2030. Healthcare providers are rapidly moving away from legacy, episodic care models toward continuous, data-driven disease management. This change is accelerated by significant updates to reimbursement structures and a growing demand for scalable clinical workflows.

I'll be honest: one number from the latest embedded analytics research stopped the entire planning conversation for this webinar. 57% of teams with embedded analytics report no measurable business impact, and that means not low impact or underwhelming impact, but no measurable impact at all.

The Internet of Medical Things (IoMT) is not a subset of consumer IoT. It is not an extension of Industrial IoT either. It is a distinct engineering domain defined by clinical accuracy requirements, patient safety consequences, mandatory regulatory frameworks, and data privacy obligations. IoMT vs consumer IoT vs industrial IoT is therefore not a product categorisation exercise. It is the foundational question every connected medical device team must answer before writing a single line of firmware.

Clinical AI projects usually fail during integration, not development. They work well in controlled environments, but production workflows expose problems. CDS Hooks and FHIR payloads can be inconsistent and incomplete. Engineering teams face a challenge: embedding clinical decision support into existing EHR workflows without disrupting care. The problem is not just about APIs. Teams must manage many things, including CDS Hooks, authentication, and latency constraints.

A dashboard inside an EHR, claims tool, or finance portal is not just reporting. It sits inside a decision path. That changes the bar. With embedded analytics in regulated industries, teams need access control, audit logs, clear metric logic, and a user experience that fits the workflow. Speed matters. So does usability. But compliance-by-design cannot sit after the fact. It has to be built in from the start.