
Centralized vs. Open AFO Design Platforms: What Really Works Best for Clinics?
, by Hugh Sheridan, 4 min reading time

, by Hugh Sheridan, 4 min reading time
Do we rely on a centralized design ecosystem like PIRO by Invent Medical — where design, validation, and production standards are tightly controlled?Or do we embrace open design platforms, where clinicians, designers, and manufacturers can work across multiple tools and technologies with more freedom?
As digital workflows continue reshaping orthotics, one of the biggest strategic questions facing clinics is where design should live.
Do we rely on a centralized design ecosystem like PIRO by Invent Medical — where design, validation, and production standards are tightly controlled?
Or do we embrace open design platforms, where clinicians, designers, and manufacturers can work across multiple tools and technologies with more freedom?
Both approaches can transform productivity — but they come with different implications for quality, cost, scalability, and independence.
Below, we unpack the pros and cons.
Centralized platforms bring everything into one controlled environment: scanning, design rules, libraries, approvals, and sometimes even manufacturing.
1. Consistency and clinical repeatability
Built-in design constraints reduce the risk of errors, ensuring more predictable outcomes across teams — especially useful for newer digital adopters.
2. Faster onboarding
Standardized workflows make it easier to train staff, scale locations, and maintain quality even with high staff turnover.
3. Integrated validation
Centralized systems often include gait logic, anatomical checks, and manufacturing presets aligned to specific printers and materials.
4. Strong support ecosystem
Updates, troubleshooting, and new features come from one vendor — reducing the workload on internal teams.
1. Vendor dependency (lock-in)
Design libraries, file formats, and production pipelines may be tied to the platform. Switching later can be costly.
2. Limited design creativity
Clinicians sometimes feel constrained when adapting complex or unusual AFO cases.
3. Innovation moves at the vendor’s pace
If a clinic wants to try new materials or printers not yet supported, it may need to wait.
Open platforms allow clinics to combine different scanners, CAD tools, and printers, often using neutral file formats and modular workflows.
1. Full flexibility
Clinicians can fine-tune designs for unique cases, hybrid solutions, and advanced biomechanical modifications.
2. Multi-vendor compatibility
Easier integration with different 3D printers, materials, and external fabrication partners.
3. Long-term ownership of knowledge
Design templates and libraries belong to the clinic — building IP and internal capability.
4. Often more economical at scale
Once teams are trained, per-case costs can drop significantly.
1. Higher training burden
Teams need deeper CAD, biomechanics, and digital workflow knowledge.
2. Risk of variability
Without strong internal standards, outcomes can differ between technicians and branches.
3. Quality assurance becomes internal work
Clinics must create their own validation protocols, documentation, and design audits.
4. Steeper learning curve for new adopters
Early mistakes can be costly if processes are not well structured.
The answer depends on where a clinic is on its digital journey.
starting digital workflows for the first time
managing multi-site operations with limited specialist staff
prioritizing consistency, speed, and risk-reduction
outsourcing production or standardizing across partners
clinics want full control and independence
complex, custom biomechanical cases are common
local manufacturing is part of the strategy
building long-term digital expertise and IP matters
More forward-looking clinics are adopting hybrid strategies:
centralized workflows for standard, high-volume AFOs
open workflows for complex, research, or specialty devices
shared internal libraries, QA protocols, and outcome tracking across both
This approach protects quality while still encouraging innovation and cost optimization.
For IMEA clinics transitioning to digital:
Digital design isn’t just about software — it’s about building reliable systems that protect patients, clinicians, and business sustainability.
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