HealthTech Vertical · IoMT & Connected Devices

IoMT software that works in clinical conditions — not just controlled demos.

Building a connected medical device or wearable product means solving device reliability, data security, and clinical integration problems before the first patient is monitored. SanoWorks engineers these foundations deliberately — not as afterthoughts discovered when a hospital asks to see your device security architecture.

95%
Hospital integration success rate — e-pokratis
2
Device protocols in production — BLE and contactless rPPG
AES-256
Encryption standard applied to all device data pipelines
99.9%
Platform uptime across the e-pokratis IoMT deployment

IoMT builds fail not because the hardware is wrong — but because the software layer was never designed for clinical conditions.

The founders who reach SanoWorks after a failed IoMT build usually describe the same pattern: the device worked in the lab, the pilot started, and then the data pipeline broke under real-world conditions. Not because the hardware was faulty. Because the BLE integration was not designed for interference, the device data was not encrypted at rest, and the clinical workflow had no way to surface missed readings to the care team.

IoMT software is not complicated because device integration is technically exotic. It is complicated because the software must handle intermittent connectivity, firmware variation across device batches, PHI security requirements that differ from standard web architecture, and clinical workflow integration that most hardware teams have never had to think about. These are architecture decisions that most IoMT builds discover mid-pilot — when changing them is expensive.

The proof is e-pokratis. SanoWorks delivered BLE and contactless rPPG vital sign integration with AES-256 encryption, a 95 percent hospital integration success rate, and 99.9 percent platform uptime. That outcome does not come from a working demo. It comes from designing the device data pipeline, security architecture, and clinical integration layer correctly from the start.

You are in the right place if:

  • You are building software for a medical device, wearable, or connected health hardware product
  • Device data security — encryption, PHI handling, audit logging — must meet clinical standards
  • BLE, rPPG, or other sensor integration is in scope for your product
  • You are selling to hospitals or health systems that will audit your device security architecture
  • EHR integration is required so device data flows into the patient record automatically
  • You need a device software platform that survives a clinical deployment, not just a controlled pilot

The product categories inside IoMT and connected device software

IoMT is not one product type. It is a cluster of hardware-software integration challenges, each with its own connectivity requirements, security surface, and clinical workflow implications. SanoWorks has delivery experience across all of them.

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BLE Device Integration

Bluetooth Low Energy device pairing, data collection, and reliability engineering for clinical conditions — interference handling, reconnection logic, and missed reading detection built for production, not proof-of-concept.

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rPPG & Contactless Vital Signs

Remote photoplethysmography sensor integration for contactless vital sign measurement — heart rate, SpO2, and respiratory rate captured without physical contact, with signal processing built for clinical accuracy.

Secure Device Data Pipelines

AES-256 encrypted data pipelines from device to cloud — PHI-safe transmission, encrypted storage, audit-logged access, and backend architecture that satisfies hospital security reviews.

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Device Data Dashboards & Alerting

Clinical dashboards that surface device readings, threshold alerts, and longitudinal trends to care teams — with alert logic designed to be actionable rather than noisy.

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Hospital & EHR Integration

FHIR R4 and HL7 integration that writes device-generated data into the patient EHR record automatically — the integration layer that turns a standalone device into a health system-deployable product.

Companion Mobile & Web Apps

Patient-facing and clinician-facing apps that pair with connected devices, display readings, manage device configuration, and connect to the broader care workflow — built for clinical reliability, not consumer UX patterns.

The four architecture decisions that determine whether an IoMT product holds up in clinical deployment

Most IoMT software looks reasonable in a controlled pilot and begins to fail when deployed across real clinical environments. SanoWorks designs for production reliability from the beginning — because retrofitting device integration architecture after a failed hospital deployment is significantly more expensive than building for it upfront.

1

Device integration scoped for clinical conditions, not demo conditions

BLE integrations that work in a quiet lab fail in a hospital ward with dozens of competing Bluetooth signals. rPPG readings that are accurate in controlled lighting degrade under fluorescent clinical lighting. SanoWorks scopes device integration for the actual deployment environment — interference, firmware variation, missed readings, and edge cases — before writing integration code.

2

Security architecture designed for medical device PHI, not generic web security

Device data pipelines have different PHI exposure points than web applications — firmware storage, Bluetooth transmission, local device caching, and cloud ingestion each require specific security controls. SanoWorks designs AES-256 encryption and PHI boundary architecture for the full device data lifecycle, not just the API layer.

3

EHR integration scoped at the start, not the end

IoMT products that cannot write device data into the EHR are invisible to the care team. Products that require manual data re-entry do not get renewed. SanoWorks designs FHIR integration architecture upfront so device data flows into the patient record automatically — and so the first enterprise deal is not blocked by an integration that was never scoped.

4

Clinical workflow alignment before interface design

Clinicians interact with IoMT data differently than founders assume. Alert thresholds that make sense to an engineer create alert fatigue for a nurse. SanoWorks reviews clinical workflow requirements before any interface or alerting logic is designed — so the product reflects how care teams actually use device data, not how a product team imagined they might.

e-pokratis: BLE, rPPG, AES-256, and a 95% hospital integration success rate

The clearest proof of SanoWorks's IoMT capability is e-pokratis — a connected health platform with BLE and contactless rPPG vital sign integration, delivered and maintained in production. The device integration outcomes are documented and verifiable.

e-pokratis · IoMT · BLE + rPPG Device Integration

95% hospital integration success. AES-256 encrypted. 99.9% uptime.

SanoWorks engineered the e-pokratis IoMT platform from device integration to clinical deployment: BLE device pairing and data collection built for clinical reliability, contactless rPPG vital sign measurement with production-grade signal processing, AES-256 encryption across the full device data pipeline, and a clinical workflow layer that achieved a 95 percent hospital integration success rate. The platform did not hold up in production because the demo worked. It held up because the device integration, security architecture, and clinical workflow design were built for real deployment conditions from day one.

Read the full e-pokratis case study
95%
Hospital integration success rate
99.9%
Platform uptime in production
AES-256
Encryption across the full device data pipeline

Building an IoMT or connected device product and want to pressure-test the software architecture?

A free architecture audit can identify device integration risks, security gaps, and clinical workflow mismatches before they become expensive mid-deployment discoveries. Most IoMT audits are completed within one week.

Get a free architecture audit

Common questions about IoMT and connected devices

SanoWorks builds the software layer for medical devices and connected health hardware — BLE device integration, rPPG sensor data processing, secure device data pipelines, clinical workflow apps, and cloud backends for IoMT platforms. Proof includes e-pokratis, where SanoWorks delivered BLE and contactless rPPG vital sign integration with AES-256 encryption and a 95 percent hospital integration success rate.
IoMT security is designed into the architecture before any feature work begins. This includes AES-256 encryption for device data in transit and at rest, PHI boundary design, secure device pairing protocols, audit logging, and BAA-aware backend infrastructure. Connected medical devices introduce attack surfaces that web and mobile products do not — SanoWorks addresses them at the architecture level from day one.
The HealthSprint Framework is SanoWorks's structured delivery method for regulated HealthTech products. For IoMT, it front-loads device integration scoping, compliance architecture, and clinical workflow design in the first one to two weeks so the build phase is not blocked by hardware-software interface questions that should have been resolved earlier. Most IoMT software MVPs complete in six to nine weeks using this approach.
SanoWorks has production experience with BLE device integration and rPPG sensor data processing. The approach is protocol-first — understanding the device communication spec, data format, and reliability characteristics before writing a line of integration code. This is what separates a demo integration from one that holds up in clinical conditions.
Yes. SanoWorks has delivered FHIR R4 and HL7 integrations across major EHR systems. For IoMT products, this means device-generated data flows into the patient record without manual re-entry — the integration layer that health system buyers require before they will deploy a connected device program at scale.