NK10681 Nickel Titanium Capillary Tube, Nitinol Capillary

Nickel Titanium Capillary Tube, Nitinol Capillary Description

Nickel Titanium Capillary Tube, Nitinol Capillary is produced from a near-equiatomic Nickel Titanium alloy known for its shape memory and superelastic properties. The tube is manufactured with strict control of wall dimensions and microstructural consistency, ensuring predictable thermal and mechanical responses. Its design supports applications that benefit from precise actuation and high fatigue resistance, making it suitable for critical engineering environments.

Nickel Titanium Capillary Tube, Nitinol Capillary Characteristics

*The above product information is based on theoretical data and is for reference only. Actual specifications may vary.

Chemical Composition

Nickel Titanium Capillary Tube, Nitinol Capillary Applications

Electronics
- Used as microfluidic channels in semiconductor test platforms to dissipate heat by leveraging consistent wall thickness and precision dimensions.

Healthcare
- Applied as tubing components in minimally invasive devices to achieve controlled fluid delivery by leveraging uniform lumen geometry.

Industrial
- Serves as conduit elements in actuator systems to maintain cyclical performance by leveraging the material's shape memory and superelastic properties.

Nickel Titanium Capillary Tube, Nitinol Capillary Packing

The product is packaged in anti-static, moisture-resistant pouches and cushioned within sealed, impact-absorbing containers. Packaging measures include strict humidity control and contamination prevention protocols. Storage is recommended in a cool, dry environment to preserve alloy integrity. Custom packaging options, such as reinforced cases or compartmentalised boxes, are available upon request.

Additional Information

Nickel Titanium alloys exhibit a reversible martensitic transformation that underpins their unique shape memory and superelastic properties. This phase transition enables the material to recover preset forms after deformation, which is critical in applications demanding both flexibility and strength. Understanding these thermal-mechanical properties is key when integrating Nitinol components into high-reliability systems.

Advancements in processing techniques continue to refine the microstructure of Nitinol capillary tubes. Precision drawing and thorough surface treatments ensure minimal variability, contributing to improved performance in demanding engineering and industrial environments. This ongoing development supports innovative applications across multiple sectors by addressing stringent operational requirements.