3D Scan → PrintOrthoticsProstheticsGrasshopperPatient-Specific
# anatomy · algorithm · fabrication
Clinical knowledge meets
computational form.
↓ scroll_to_explore()
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// about.me
BIO
I design patient-specific medical devices at the intersection of clinical
knowledge and computational form. With a background in architecture and 6+
years as a physiotherapist specialising in musculoskeletal rehabilitation,
I build parametric pipelines that go from anatomical scan data to functional
orthoses — understanding both the biomechanical requirements and the geometry
that fulfils them.
Patient-specific prosthetic cover generated from a 3D body scan. The contralateral limb is mirrored and parametrically refined in Grasshopper — from anatomical data to FDM-printed shell in a single digital pipeline.
The geometry adapts entirely to the individual's anatomy. No manual modelling — the algorithm reads the scan, generates the form, and outputs print-ready geometry.
// 2026_coxa.gh
COXA
CT ScanGrasshopperTPMS Lattice
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Patient-specific hip prosthesis stem with a TPMS lattice core. Parametric geometry in Grasshopper shapes the outer stem to the femoral canal; a triply-periodic minimal surface fills the interior — tuned to balance load transfer with osseointegration.
The lattice is not drawn manually — it emerges from a mathematical field across the stem volume. Bone integrates into the porous structure while the dense outer shell handles primary loading. From CT scan to print-ready geometry in a single computational pipeline.
// 2026_planta.gh
PLANTA
Pressure MapVoronoiGrasshopper
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Parametric shoe sole with a Voronoi lattice structure driven by foot pressure data. A pressure map captured from gait analysis informs the cell density — high-pressure zones get denser, reinforced geometry while low-pressure areas open up for flexibility and ventilation.
The pipeline connects biomechanical sensor data directly to generative geometry in Grasshopper — from pressure scan to 3D-printable sole in a single parametric workflow.
// 2025_cranium.gh
CRANIUM
3D ScanGrasshopper3D Print
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Patient-specific cranial helmet generated from a 3D head scan. Parametric surface logic in Grasshopper adapts the geometry to therapeutic requirements — from anatomical scan data to printed orthosis in a single digital pipeline.
Asymmetric head shapes are captured precisely by the scan. The algorithm calculates corrective geometry and generates a customised shell — no manual intervention between scan and print.
// 2025_brachium.gh
BRACHIUM
3D ScanGrasshopper3D Print
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Patient-specific arm orthosis generated from a 3D body scan. Parametric geometry in Grasshopper adapts to anatomical contours — from scan data to FDM-printed shell in a single digital pipeline.
The biomechanical requirements of the upper limb determine the form. Scan data drives the geometry — the result is a functional orthosis fitted precisely to the individual body.
// collaboration.init()
LET'S BUILD.
Open to collaboration with medical device companies, orthopedic labs,
rehabilitation clinics, and digital health teams — anywhere a clinical
problem needs a computational solution.
