StepTodayImprovement
01
Research prototype
Doctoral students and postdocs write the software for the experiment. When the grant ends they move on, and nobody on the team can take it further.
→ImprovementWe make the code testable and document it, so a new team can maintain it.
02
Funding call
The call needs a named industrial partner for the software, verification and exploitation work packages.
→ImprovementWe join the consortium as the industrial software partner and write the software parts of the proposal.
03
Clinical use
The device is used in a clinical study. Validation needs requirements, tests and traceability that research code does not have.
→ImprovementRequirements, tests and a traceability matrix are written on the code, so validation can start.
04
Model to service
After the paper, hosting, data protection and the DICOM (the standard for medical images and their exchange) connection of the model are still open.
→ImprovementThe model runs as a versioned service, connected to PACS over DICOM for research use until its regulatory route is decided.
05
Who is the manufacturer
The hospital, a spin off or an industrial partner takes the device forward, and investors ask what the regulatory route will cost.
→ImprovementA gap analysis lists what the first release needs, in work packages a business plan can budget.
06
Software lifecycle
The research code cannot be tested as it is, so the IEC 62304 file has nothing to build on.
→ImprovementWe write the IEC 62304 file on the restructured code, under the manufacturer's quality system.
07
In use or on the market
An in house device under MDR Article 5(5) cannot be transferred to another legal entity, and a CE marked product needs a complete technical file.
→ImprovementThe documentation written for the in house version becomes the base of the CE technical file.