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ニチノール合金
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Superelastic Nitinol Wire for Biomedical Stents and Guidewires

Superelastic Nitinol Wire for Biomedical Stents and Guidewires

ブランド名: DLX
モデル番号: ニッケルのチタニウムの合金ワイヤー
Moq: 5kg
支払条件: L/C、D/A、D/P、T/T、Western Union、MoneyGram
供給能力: 月額500トン
詳細情報
起源の場所:
中国
証明:
CE
熱膨張:
13-17 µm/mK
壁の耐久性:
±3-5%
合金かどうか:
合金
標準サイズ:
1220mm*2440mm*3mm/4mm/5mm/6mm
サイズ:
5から250mm
伸長:
30-60%
熱伝導率:
9.8 w/m・k
最終的な強さ:
620~790 MPa
高温性能:
高温で強度と酸化抵抗を維持します
ニッケル含有量:
72% (最小)
表面処理:
、陽極酸化されて、終わった製造所はブラシをかけられて磨いた
拉伸強度 Rm:
965 N/mm2
HSコード:
7507120000
アドバンテージ:
速い受渡し時間
抗張力:
760-1030 MPA
供給の能力:
月額500トン
ハイライト:

Superelastic Nitinol wire for stents

,

Nitinol alloy biomedical guidewires

,

Nitinol wire with superelastic properties

製品の説明
Superelastic Nitinol Wire: Properties and Biomedical Uses
Key Specifications
Attribute Value
Thermal Expansion 13-17 µm/mK
Wall Tolerance ±3-5%
Alloy Composition Nickel-Titanium Alloy
Standard Size 1220mm*2440mm*3mm/4mm/5mm/6mm
Available Sizes 5 to 250 mm
Elongation 30-60%
Thermal Conductivity 9.8 W/m·K
Ultimate Strength 620-790 MPa
High Temperature Performance Maintains strength and oxidation resistance at high temperatures
Nickel Content 72% (Min)
Surface Treatment Anodized, Brushed, Mill Finished, Polished
Tensile Strength Rm 965 N/mm²
Hs Code 7507120000
Key Advantage Fast Delivery Time
Tensile Strength 760-1030 MPa
Product Overview
Superelastic Nitinol Wire for Biomedical Stents and Guidewires 0

Superelastic Nitinol wire represents a significant advancement in nickel-titanium alloy technology, combining exceptional flexibility with remarkable durability. This specialized wire features unique shape memory properties that allow it to stretch and return to its original form without permanent deformation, making it particularly valuable for biomedical applications such as stents and guidewires.

With a balanced composition of approximately 50% nickel and 50% titanium, our Nitinol wire offers superior corrosion resistance and biocompatibility, meeting the stringent requirements of medical device applications. Our production process ensures strict adherence to ASTM F2063 standards, guaranteeing reliable performance in critical medical and industrial environments.

Material Composition and Grades

Our superelastic Nitinol wire is manufactured with precision-controlled materials:

  • Nickel content: 54.5-57.0%
  • Titanium: Balance
  • Trace elements (carbon <0.05%, oxygen) carefully controlled for optimal biocompatibility
  • Advanced melting, drawing, and heat treatment processes to achieve consistent superelastic properties
  • Transition temperature range: -20°C to 40°C for biomedical applications
Grade Specifications
Grade Chemical Composition Transformation Temperature (Af) Range Tensile Strength (MPa) Elongation (%) Main Applications
NiTi-01M (Superelastic) Ni: 54.5-57.0%, Ti: Balance -25~35°C 800-1100 10-20 Medical orthodontic wires, root canal files, vascular stents
NiTi-02 Ni: 55.0-56.5%, Ti: Balance 0~80°C 700-1000 8-15 Shape memory alloys, temperature control devices
CuNiTi (Ternary Alloy) Ni: 54.0-56.0%, Cu: 0.5-2.0%, Ti: Balance -25~35°C 850-1200 12-25 Medical guidewires, sutures, staplers
NiTiFe Ni: 54.5-57.0%, Fe: 0.1-2.0%, Ti: Balance -50~20°C 900-1300 10-18 Low-temperature applications, aerospace components
NiTiCr Ni: 54.5-57.0%, Cr: 0.1-0.5%, Ti: Balance -20~40°C 1000-1400 8-15 High-strength medical devices, bone fixation devices
Key Features and Benefits
  • Exceptional superelasticity with up to 8% strain recovery
  • Tensile strength range: 800-1500 MPa for demanding applications
  • Available in custom diameters from 0.05mm to 3mm
  • Superior corrosion resistance due to titanium-rich oxide layer
  • Excellent biocompatibility for medical implants
  • Maintains performance in saline and acidic environments
  • Long-term durability reduces replacement costs
Superelastic Nitinol Wire for Biomedical Stents and Guidewires 1 Superelastic Nitinol Wire for Biomedical Stents and Guidewires 2 Superelastic Nitinol Wire for Biomedical Stents and Guidewires 3
Applications

Superelastic Nitinol wire serves critical functions across multiple industries:

  • Biomedical: Vascular stents, surgical guidewires, orthodontic wires, catheter components, endoscopic devices
  • Robotics: Flexible actuators, precision movement components
  • Aerospace: Vibration dampers, lightweight structural elements
  • Automotive: Safety mechanisms, temperature-responsive components
  • Industrial: High-performance springs, sensors, and actuators
Market Trends
  • Global market value projected to grow from $1.3 billion (2025) to $2.7 billion (2033)
  • 8.5% CAGR driven by biomedical and industrial applications
  • Increasing demand for minimally invasive surgical devices
  • Growing adoption in electric vehicle battery thermal management
  • Focus on sustainable, recycled nickel and titanium materials
  • Regulatory emphasis on high-purity, biocompatible alloys
About Our Manufacturing

Our 12,000㎡ ISO 9001-certified facility features complete capabilities for research, production, testing, and packaging, with an annual output of 1,200 tons. All products undergo rigorous simulated environment testing including high temperature, high pressure, and corrosion tests before dispatch.

We provide comprehensive multilingual after-sales support and technical consulting to ensure optimal product performance and application success.

Superelastic Nitinol Wire for Biomedical Stents and Guidewires 4 Superelastic Nitinol Wire for Biomedical Stents and Guidewires 5
Frequently Asked Questions
What is superelastic Nitinol wire?

A nickel-titanium alloy wire with exceptional flexibility and shape recovery, ideal for biomedical applications like stents and guidewires.

What materials are used in superelastic Nitinol wire?

Approximately 50% nickel and 50% titanium, with trace amounts of carbon (<0.05%) and oxygen controlled for biocompatibility and performance.

What are the key grades of superelastic Nitinol wire?

Superelastic grades are tuned for high elasticity, with variations in transition temperatures (-20°C to 40°C) for specific biomedical or industrial uses.

What are the main biomedical applications?

Used in stents, guidewires, orthodontic wires, catheter components, and surgical tools due to its flexibility and biocompatibility.

How does it resist corrosion?

Its titanium-rich oxide layer provides excellent resistance to bodily fluids, saline, and chemical environments, ensuring long-term implant safety.

What is the tensile strength?

Typically ranges from 800-1500 MPa, offering high strength and elasticity for demanding biomedical applications.