Nitinol plates have excellent shape - memory effect. They can adapt to different shapes according to temperature changes. In medical applications, they can provide better fixation for fractures. In engineering, they're used in temperature - sensitive control devices for accurate operation. Also, in aerospace, they help maintain structural stability in complex temperature environments and reduce weight.

shape memory nitinol ingots are used in the medical device industry (for heart stents, orthopedic implants, orthodontic lines), the aerospace industry (for engine components and spacecraft components), the automotive manufacturing industry (for engine valve springs, shock absorbers and transmission systems), the electronics industry (for microrelays, temperature controllers and thermal sensors), and the energy sector (for solar power generation). Wind turbines).

Nitinol sheets are generally not driven directly by electricity. However, it is possible to use electricity indirectly to drive nickel-titanium plates to exert shape memory effects.
The principle is to increase the ambient temperature around the nickel titanium plate through the current. Since the shape memory effect of the nickel-titanium plate is temperature-related, when the current flows through the heating element (such as the electric heating wire closely connected to the nickel titanium plate), the temperature of the heating element increases, and the temperature of the nickel titanium plate increases.

The shape memory effect of nickel-titanium alloy (nickel-titanium plate) is based on the change of crystal structure inside it.
Nitinol has two crystal structures, namely the martensitic phase at low temperatures and the austenitic phase at high temperatures. At lower temperatures, the alloy is in the martensitic phase, where it is softer and can be bent or machined into various shapes with relative ease.
When the temperature rises above a certain transition temperature (austenite end temperature), the alloy will undergo a transition from martensitic phase to austenitic phase. In this process, the alloy "remembers" its original shape and tries to return to that shape.

NIitinol sheets has shape memory effect and can restore the original shape when the temperature changes. It has superelasticity and can be restored after stress and deformation. Good biocompatibility, suitable for medical treatment; It is also corrosion resistant.

The main challenge of Ni-Ti plate positioning is its shape memory properties. During installation, it may recover its shape unexpectedly due to temperature changes, resulting in inaccurate positioning. Moreover, the nickel-titanium plate is relatively soft, and in a complex working environment, it is difficult to fix it and ensure accurate positioning.

Nitinol ingot bars are used in the medical device industry (for heart stents, orthopedic implants, orthodontic lines), the aerospace industry (for engine components and spacecraft components), the automotive manufacturing industry (for engine valve springs, shock absorbers and transmission systems), the electronics industry (for microrelays, temperature controllers and thermal sensors), and the energy sector (for solar power generation). Wind turbines).

The shape memory effect of nickel-titanium alloy (nickel-titanium plate) is based on the change of crystal structure inside it. Nitinol has two crystal structures, namely the martensitic phase at low temperatures and the austenitic phase at high temperatures. At lower temperatures, the alloy is in the martensitic phase, where it is softer and can be bent or machined into various shapes with relative ease. When the temperature rises above a certain transition temperature (austenite end temperature), the alloy will undergo a transition from martensitic phase to austenitic phase. In this process, the alloy "remembers" its original shape and tries to return to that shape.

Nitinol ingot bars are used in the medical device industry (for heart stents, orthopedic implants, orthodontic lines), the aerospace industry (for engine components and spacecraft components), the automotive manufacturing industry (for engine valve springs, shock absorbers and transmission systems), the electronics industry (for microrelays, temperature controllers and thermal sensors), and the energy sector (for solar power generation). Wind turbines).

Nitinol twisted wire has shape memory effect and super elasticity. It can be restored to its original state after deformation. It provides a relatively constant and mild force over a wide range of deformations. In addition, it has good corrosion resistance, making it stable in various environments such as the human body.

Nitinol twisted wire is mainly used in orthodontics. It can provide a continuous and gentle corrective force due to its shape - memory effect and super - elasticity. This kind of force can effectively reduce patients' discomfort and move teeth more physiologically. Also, it has good corrosion resistance and can maintain stability in the complex oral environment.

Compared with ordinary skein, nitinol twisted wire has obvious advantages.
Nitinol has shape memory effect and superelasticity. In the field of orthodontics, an appliance made of nickel titanium wire can provide sustained gentle healing. This force can effectively reduce the discomfort of the patient, and because of its good elasticity, it can maintain a relatively stable corrective force within a large deformation range, so that the tooth movement is more in line with physiological requirements, and the treatment process is more efficient.
At the same time, the corrosion resistance of nitinol twisted wire is strong, and it can maintain good stability in the complex environment of the mouth, and the service life may be longer.