When you hold a lightweight yet razor-sharp titanium alloy knife in your hand, every slice in the kitchen becomes a pleasure. The latest titanium knife from Fading is revolutionizing the traditional kitchenware market with a dual breakthrough in technology and design. According to the 2023 Kitchenware Consumer Report, titanium alloy knives now account for over […]

When it comes to high-performance materials, PEEK (Polyether Ether Ketone) and titanium alloys are two materials that consistently draw attention. Each plays a vital role in different industries, offering unique advantages. Cependant, for many engineers and procurement professionals like you, understanding the price differences between these two materials is crucial in making the right decision.

Titanium alloys are often considered difficult to machine. But why exactly is that? The main reason lies in our limited understanding of its machining mechanisms and phenomena. 01. Heat: The Main Culprit in Titanium Alloy Machining Although the cutting force required to machine titanium alloys is only slightly higher than that of steel with equivalent

High-temperature titanium alloys, also known as heat-resistant titanium alloys, are capable of long-term operation at elevated temperatures. They exhibit high creep resistance and thermal stability, maintain good fatigue performance at both room and high temperatures, and possess good room-temperature ductility. Titanium Alloys for Different Service Temperatures In 1954, the United States developed the Ti-6Al-4V alloy,

TC21 est un, tasserie élevée, and high-damage-tolerance titanium alloy. C'est un matériau crucial utilisé dans les applications aérospatiales avancées. Overvie of TC21 Titanium Alloy Key Characteristics of TC21 Titanium Alloy High Strength: L'alliage de titane TC21 a une force supérieure à 1100 MPA. Durcissement élevé: Il a une ténacité de fracture (K_ic) allant de 70 à 90

We know about titanium alloys’ high strength-to-weight ratio, excellent mechanical properties, et résistance à la corrosion, are ideal materials for aircraft and engine manufacturing. Cependant, their poor machinability has long limited their application. With the advancement of machining technology, titanium alloys have been widely used in the manufacturing of compressor sections of aircraft engines, engine nacelles, exhaust

Titanium alloys hold significant positions in aerospace, aviation, medical fields, and more due to their unique advantages. Cependant, their challenging processing characteristics have always troubled engineering professionals. Let’s find out the difficulties in titanium alloy processing and proposes corresponding strategies to provide technical support for the widespread application of titanium alloys. Challenges in Titanium Alloy

What is Titanium Dioxide? Titanium dioxide is an inorganic chemical used as a pigment to help products achieve a certain appearance, including whitening products. Some experts and publications describe it as similar to a “paint primer” used before adding color to food to give the product a uniform sheen. Its presence is common in many