The use of Ti-Ni1 Super Elastic Nitinol Tubes in medical devices has several benefits. First, their superelasticity allows them to adapt well to the dynamic environment of the body, such as the movement of the stent to the blood vessels. Secondly, they have good biocompatibility, which reduces the risk of rejection. In addition, their shape memory effects help to place and function correctly during surgery.

Ti-Ni1 Super Elastic Nitinol Tube can generally be used in certain high - temperature environments. Their properties remain stable up to a specific temperature range related to their phase - transformation temperature. However, extremely high temperatures beyond this range may affect their super - elasticity and shape - memory characteristics.

In order to make a Ti-Ni1 Super Elastic Nitinol Tube, titanium and nickel are first melted and alloyed in precise proportions. The alloy is then processed by methods such as extrusion or stretching to form a tubular shape. Heat treatment is a crucial step, which involves careful control of temperature to induce hyperelastic phase transition properties. The entire process requires strict control of parameters to ensure the desired hyperelastic properties.

Ti-Ni1 Super Elastic Nitinol Tube is a tubular product made of titanium and nickel alloy. It has significant superelasticity, which means that it can withstand a large deformation and then return to its original shape when the applied force is cancelled. This property makes it valuable in many applications such as medical devices and aerospace components.

One challenge with using superelastic Ti-Ni1 Super Elastic Nitinol Tube compared to other materials is their high cost. In addition, the manufacturing process requires precise control of parameters to ensure the desired hyperelastic properties. Their long-term stability and potential for fatigue failure in repeated use require careful consideration. In addition, sterilization procedures for medical grade test tubes can sometimes affect their performance.

Shape memory nitinol rod can be made into a variety of shapes.
It can be made into a straight line and used for simple support structures, such as orthopedic implants in the field of medical devices to help fix fracture sites. It can also be bent into various curved shapes, such as orthodontic wires, which can use the shape memory effect to return to a pre-set shape at the right temperature, thereby exerting gentle and sustained corrective force on the teeth.
Shape memory nitinol rod can be made by special processing processes, such as forging, wire drawing, etc., to make nickel titanium alloy materials into rods, and can be shaped according to design requirements to a certain extent. However, these processes usually require precise temperature control and specialized equipment, because the shape memory properties of Nitinol are closely related to temperature.

Shape memory nitinol rod are usually made through several steps. First, nickel and titanium are melted and alloyed in a specific ratio. Then, the alloy is processed through techniques like forging and drawing to form rods. Heat treatment is also crucial to enable the shape - memory property.

Shape memory nitinol rod have a shape - memory effect due to their unique crystal structure. When the rod is deformed at a certain temperature, its crystal lattice changes. But when heated to a specific transformation temperature (usually around body temperature in medical applications), the crystal lattice reverts to its original state, causing the rod to return to its pre - set shape.

nitinol medical straight wire is widely used in medicine. It's used in orthodontics for braces due to its shape - memory property and super - elasticity. It's also applied in medical stents to help keep blood vessels or other tubular structures open.

Shape memory nitinol wire has several advantages. It has excellent elasticity and can return to its original shape after deformation. In orthodontics, it provides a constant gentle force to move teeth effectively. In medical stents, it can adapt to the shape of vessels and maintain unobstructed blood flow.

Surface:Polished surface
Phase transition temperature (Afc) : -50℃ ~ 100℃
Density: Approximately 6.45g/cm³
Tensile strength: 700-1000MPa
Feature:Shape memory, superelasticity, corrosion resistance, biocompatibility
Elongation rate: 15-50%
size: 2-200mm
Length:0.5-3m
Production process:Bending, Welding, Decoiling, Cutting
Application environment: Industry, medical care

Shape memory nitinol wire are mainly used in orthodontics for teeth alignment. They're also used to make stents in vascular surgery to keep blood vessels open.