Technical Specifications & Micro-Machining Limits
|
Processing Feature |
Standard Offering Range (Metric) |
Standard Offering Range (Imperial) |
|
Base Raw Materials |
Superelastic Nitinol (NiTi Alloy), Cobalt-Chromium (Co-Cr Alloy) |
Superelastic Nitinol, Cobalt-Chromium Alloy |
|
Laser Cutting Kerf |
< 20 μm |
< 0.0008" |
|
Machining Accuracy |
≤ ±5 μm |
≤ ±0.0002" |
|
Structural Geometry |
Thin walls, narrow struts, ultra-fine mesh interlocking structures |
Thin walls, narrow struts, fine interlocking mesh networks |
|
Special Feature Features |
Integrated through-holes and blind-holes laser profiling |
Precision through-holes and blind-holes execution |
|
Edge & Kerf Quality |
Pristine cut surface, zero slag, burr-free, zero internal residue |
Smooth finish, zero dross, burr-free, clean internal lumen |
|
Post-Processing Finish |
Electropolished, super-finished, chemically stripped |
Ra ≤ 0.1 μm super-finished surface matrix |
Target Applications & Clinical Intended Use
Coronary Intervention
High-accuracy mesh fabrication for drug-eluting balloon-expandable coronary stent systems to treat ischemic heart disease.
Peripheral Vascular Therapy
Self-expanding nitinol stent frames optimized for superficial femoral artery (SFA), iliac, and carotid stenosis treatment.
Neurovascular Revascularization
Ultra-thin strut intracranial stent matrices designed for aneurysm bridging and ischemic stroke clot retrieval support.
Anatomical Plaque Modification
Precision micro-cutting allows the stent to scaffold heavily calcified lesions, ensuring uniform radial scaffolding without structural kinking.
