Does Faststream work on regulated medical devices?
Yes, with design controls, traceability and a documented software lifecycle as engineering inputs from the start. The regulatory strategy is the customer's, and Faststream engineers to it.
In medical devices the regulatory path shapes the architecture, not the other way round. Design controls, traceability, a validated software lifecycle and a submission strategy are engineering inputs from the first week — because retrofitting them into a developed product means developing it again.
| Application | Platforms drawn on | Products involved |
|---|---|---|
| Connected medical device development | Connected Edge | Sensing, embedded, cloud platform |
| Connected breathalyser | Connected Edge | Sensing, BLE, cloud record |
| Practitioner and patient identity | Secure | Secure identity silicon |
| Device fleet management | Connected Edge | Device management and OTA |
| Diagnostic instrument electronics | Silicon, Connected Edge | Data acquisition controller IP, hardware design |
| Medical imaging signal chains | Silicon | Mixed-signal design, DSP slice IP |
Everything for this sector
Assembled from one registry rather than written per page, so a link added anywhere appears from both ends.
Yes, with design controls, traceability and a documented software lifecycle as engineering inputs from the start. The regulatory strategy is the customer's, and Faststream engineers to it.
Because software safety classification, risk controls and verification requirements determine partitioning, the choice between RTOS and Linux, update strategy and the evidence that must be generated alongside the code.
Tell us the specification, the constraint and the deadline. Programmes that cross silicon, radio, embedded and AI are where Faststream is strongest.