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Workflow

From Patientto Prosthesis.

A connected digital workflow for modern prosthetics.

  1. Assess

    Understand the patient.

  2. Scan

    Capture the anatomy.

  3. Model

    Create the digital patient.

  4. Design

    Build the prosthesis digitally.

  5. Modify

    Apply clinical expertise.

  6. Validate

    Review before manufacturing.

  7. Manufacture

    Move from digital to physical.

  8. Continue the Journey

    The design becomes part of the patient's digital history.

Assess

Understandthe Patient.

Begin with the clinical information required for prosthetic design.

Patient information, measurements and clinical observations form the foundation of the digital workflow.

  • Patient information
  • Measurements
  • Clinical observations
  • Clinical notes

Patient profile

ID: P-1024

Name

A. Petrov

Age

42

Sex

Male

Clinical information

Transfemoral amputation — left side. Active lifestyle, daily use and light sports.

Activity level

450 mm

Scan

Capturethe Anatomy.

Create a three-dimensional representation of the patient's anatomy.

The digital model becomes the starting point for patient-specific prosthetic design.

  • High-resolution 3D capture
  • Accurate geometry and scale
  • Fast and easy process
  • Optimised for prosthetic design
3D scan
  1. Point Cloud

  2. 3D Mesh

  3. Clean Model

Model

Create theDigital Patient.

Prepare the 3D anatomy for design.

Anatomical landmarks and relevant geometry can be established within the digital environment.

  • Clean and accurate 3D model
  • Identify anatomical landmarks
  • Refine and process geometry
  • Ready for prosthetic design
  1. Raw Scan

  2. Processed Mesh

  3. Landmarks

  4. Clean Geometry

Anatomical Landmarks

Anatomical Landmarks

Design

Build theProsthesis Digitally.

Create the socket around the patient's anatomy and clinical requirements.

The prosthetist works directly with the 3D model rather than relying exclusively on physical modification.

  • Patient-specific design
  • Adjust dimensions and shape
  • Define thickness and relief zones
  • Set trim lines and boundaries
  1. Patient Anatomy

  2. Aligned Geometry

  3. Initial Socket

Socket Design

Modify

Apply ClinicalExpertise.

Modify the design according to clinical requirements.

  • Reduction.
  • Relief.
  • Pressure.
  • Trim lines.
  • Alignment.

The clinician remains in control.

Modification Tools

Validate

Review BeforeManufacturing.

Validate the design for fit, function and clinical performance.

Use analysis tools to check comfort, pressure distribution and range of motion before manufacturing.

  • Pressure analysis and visualisation
  • Fit and alignment verification
  • Range of motion check
  • Confident transition to manufacturing

Pressure Analysis

HighLow

Fit Check

  • Proper fit
  • No conflict
  • Uniform contact
  • Within tolerance

Range of Motion

Manufacture

Produce theFinal Prosthesis.

Manufacture the customised prosthesis using advanced fabrication technologies.

The validated design is manufactured using 3D printing and post-processing to ensure strength, comfort and durability.

  • High-precision manufacturing
  • Durable materials
  • Post-processing and finishing
  • Ready for fitting and use

The digital transformation

The Design Becomes Part ofthe Patient’s Digital History.

From scan to prosthesis, every step is recorded, validated and connected — creating a complete and continuous digital record for better care, tracking and outcomes.

  1. Scanned data
  2. Validated design
  3. Final prosthesis

One patient. One connected flow.

One patient. One connected digital workflow.

Better design. Accurate manufacturing. Improved outcomes. All in one ecosystem.

  • End-to-end digital workflow
  • Secure patient data history
  • Better clinical outcomes
  • Scalable for clinics and manufacturers