Material of nickel titanium spring: Made of nickel-titanium alloy, which has shape memory and superelastic properties.
Application range: In the medical field, it can be used in orthodontics and implantable devices. In aerospace, for certain components. Also in automotive industry for shock absorbers and engine parts. Additionally, in some electronic devices and daily products that require elastic elements.

Shape: wire
Material: Nickel-titanium alloy.
Properties: Superelasticity.
High flexibility.
Nickel-titanium guide wire is a medical device. Characteristics: It has superelasticity and shape memory
properties. Uses: Widely used in interventional procedures for guiding catheters and facilitating the access to targeted areas in the body.
Good durability.

Nitinol wire, a type of shape memory alloy, is known for its unique properties that enable it to return to its original shape after deformation. This extraordinary characteristic makes nitinol wire a valuable material in various industries. 

Properties:
- Composed of nickel and titanium.
- Exhibits shape memory effect and superelasticity.
Uses:
- Utilized in medical fields for orthopedic implants.
- Helps in fracture fixation and provides reliable support.

Nitinol wire has gained significant attention in various fields due to its unique properties and diverse applications. This blog delves into the intricacies of nitinol wire, covering its manufacturing process, popular uses in medical devices, automotive industry, and beyond, as well as addressing common questions associated with this versatile material.

The design of guide wire medical nitinol improves their performance in several ways. The properties of shape memory alloys allow them to regain their original shape, increasing flexibility and adaptability. Superelasticity allows them to withstand large deformations without permanent damage. Smooth surface coating reduces friction and facilitates insertion. The optimized core wire and outer sheath structure ensure good torque transmission and pusher. In addition, proper tip design improves steering accuracy and tissue penetration.

High tension nitinol spring have a wide range of applications. They are used in medical devices like stents and orthodontic appliances due to their biocompatibility and shape memory property. In the aerospace industry, they are employed in mechanisms requiring reliable and precise performance. They also find use in electronic devices for components that need to withstand repeated stress, and in automotive parts for applications such as sensors and actuators, contributing to enhanced functionality and durability.

High tensile strength Tensile nitinol ingots Application industry:
- Aerospace: Used in the manufacture of aircraft engine blades and structural components.
- Automotive: for the production of high-strength engine valves and transmission components.
- Medical: for the manufacture of orthopaedic implants and dental filaments.
- Electronics: Production of high-performance electronic connectors and springs.
- Molds: Used to manufacture high hardness tools and molds.

The working principle of Nitinol guides is based on their superelastic and shape memory properties. They can be bent and shaped to fit through the body's complex anatomy, such as blood vessels or catheters. The wire is inserted and guided to the target area, its flexibility allows it to follow the path, while its stiffness provides enough pushability to reach the destination, helping to locate other medical devices or provide treatment.

Super elastic nitinol ingot are used in orthodontics for braces due to their shape - memory property. They're also applied in medical implants and surgical instruments. In addition, they can be used in aerospace for their flexibility and resistance to deformation.

The memory effect of Shape memory nitinol spring stems from the change of crystal structure inside them. Nitinol is a shape memory alloy. At lower temperatures, the internal crystal structure of the alloy is martensitic phase, which is relatively soft and easy to deform. When the nickel-titanium spring is deformed, it can maintain this deformed shape. When the temperature is raised to a certain degree (phase transition temperature), the crystal structure of the alloy will be transformed into an austenite phase. The more regular structure of the austenitic phase will encourage the spring to return to its original memory shape, which produces a memory effect.

The nickel-titanium paperclip has several practical uses.
It can be used to hold papers together firmly. Due to its unique material properties, it is more durable and less likely to deform compared to traditional paperclips. It can also be used in creative ways for crafts or as a bookmark. Additionally, its shape memory feature might make it useful in some specialized applications where a reliable and reusable fastening method is needed.