Medical Industry
Vacuum brazing plays a crucial role in the manufacturing of various high-precision medical components. It is widely used in the production of surgical instruments, dental tools, orthopedic implants, and electronic medical devices such as pacemakers and defibrillators. The process allows for the joining of dissimilar metals and complex geometries without introducing impurities, making it ideal for components that require high structural integrity and cleanliness. It ensures strong, leak-tight joints in medical assemblies, which is essential for patient safety and device performance.
Articles
Cemented Carbide Ultrasonic Cutting Tools: YG10-Titanium Alloy Vacuum Brazing for High-Precision Medical Applications
Explore how YG10 cemented carbide ultrasonic cutting tools are vacuum brazed with titanium alloy for precision medical applications. Discover the advantages of vacuum brazing and how Normantherm vacuum furnaces help Indian manufacturers achieve defect-free, high-quality brazed joints.
Vacuum Brazing of Titanium-Based Dental Air Rotor Handpieces
Vacuum brazing of titanium dental air rotor handpieces ensures clean, strong joints for high-speed dental tools. Learn how Normantherm vacuum furnaces support Indian dental manufacturing with over 15 years of expertise.
YG10 and Titanium Alloy Welding for Ultrasonic Applications
Ultrasonic equipment relies on components that operate under extreme vibration, cyclic stress, and localized heat generation. Materials used in ultrasonic horns, sonotrodes, and tooling must deliver a precise balance of hardness, wear resistance, and fatigue strength.
Vacuum Heat Treatment to Demagnetize 316 Stainless Steel for India’s Medical Manufacturing Sector
Vacuum heat treatment to demagnetize 316 stainless steel restores non-magnetic properties for medical components. Normantherm furnaces offer high-vacuum, precise, and contamination-free solutions for Indian manufacturers.
Titanium Alloy Welding with Sapphire Glass for the Medical Optics & Endoscope Industry
In modern medical optics and endoscope technology, components must withstand tough conditions: repeated sterilization, mechanical stress, moisture, body fluids, and high-temperature cleaning cycles. At the same time, they must offer exceptional optical clarity, reliability, and safety for patients.