Titanium Rod
Titanium Rod is solid metal bars made from titanium. They are typically produced through a process called hot rolling, which involves heating the titanium to a high temperature and then passing it through a series of rollers to shape it into a bar. Titanium Rods are known for their high strength-to-weight ratio, excellent corrosion resistance, and biocompatibility, which makes them ideal for use in a wide range of applications, including aerospace, medical implants, and industrial equipment. They are available in a variety of sizes and grades, depending on the specific application requirements.
Advantages of Titanium Rod
Low density
Titanium Rods are remarkably lightweight (approximately 60% lighter than iron) which not only means they are easy to work with but makes them a great choice for aerospace and other high-performance applications where every bit of weight matters.
Strength
Despite being lightweight, titanium is just as strong as steel and can be strengthened by alloying and deformation processing. Thanks to their low density and ability to withstand extreme temperatures, Titanium Rods are commonly used for aircraft, spacecraft and missiles.
Resistance to corrosion
Whether it's used indoors or outdoors, titanium is a metal that will last several years because a thin layer of oxide forms on the surface and makes it difficult for materials to penetrate. This means Titanium Rods are ideal for buildings and marine applications.
High melting point
Titanium Rods have an exceptionally high melting point of 1668°C - Approximately more than 400°F than steel and 2000°F above aluminium - Which makes them suitable for an array of high-temperature applications.
Good thermal resistance
When compared with other metals, titanium has a low coefficient of thermal expansion which means it won't contract or expand anywhere near as much when put under extreme pressure. This is why Titanium Rods are frequently used in the construction industry where a rigid yet lightweight framework is desirable.
Biocompatible
Whilst some metals (i.e. iron, steel and aluminium) can be toxic to humans, this isn't the case with titanium. As a result of being biocompatible with human tissues and bones, titanium can be safely inserted into the body - Either to strengthen broken bones or for dental implants - without causing an adverse reaction.
Why Choose Us
Our Factory
Xi'an Zhanwo Metal Materials Co., Ltd. is located in the University Town High-tech Industrial Park, Chang'an District, Xi'an City, Shaanxi Province, China. We have been focusing on nickel-titanium memory alloy and tantalum-niobium products for more than 13 years.
Excellent Team
The company now has a professional nickel-titanium memory alloy wire R&D team and a nickel-titanium alloy cutting-edge technology public relations team. It has created a rare and precious metal team integrating R&D, design and production. It is an expert in the field of high-performance alloys and high-precision processing.
Rich Experience
We focus on the production of nickel-titanium memory alloy and have more than 13 years of production experience
Global Sales
Our products are exported to excellent companies in related fields all over the world and have been recognized and praised internationally. We have close cooperation with the United States, Italy, Germany, Vietnam, Indonesia, South Korea, etc.
Titanium Round Bars maintain usable strength at temperatures far higher than those deemed safe for more conventional light alloys, making it an appealing metal for applications requiring high specific strength at temperatures ranging from sub-zero to 600°C.
Titanium Rods have tensile strengths of about 1400MPa, which is equivalent to the strengths of many structural steels.
Another important feature of Titanium Rods is their resistance to corrosion in a wide range of natural and chemical environments, especially in terms of pitting and stress corrosion cracking. The corrosion resistance of the material is far superior to that of stainless steel in some applications, especially where chlorides are present.
It is used in heat exchange devices, traditionally replacing glass and glass covering, has allowed for significant reductions in equipment size, whilst its use in mechanical components such as pumps & valves has resulted in new durability requirements.
Titanium Rods are common in construction material for process plants that treat chlorides and dilute hydrochloric acid, which is a common feature in modern processes that use chloride catalysts.
Types of Titanium Rod
CP grade 2 Titanium Rods
Cp grade 2 Titanium Rods are made of commercially pure titanium and are the most widely used type of Titanium Rod. Grade 2 cp titanium has good weldability, formability, and corrosion resistance. It is often used in chemical processing and marine applications.
CP grade 3 Titanium Rods
Cp grade 3 Titanium Rods are made of commercially pure titanium and are similar to cp grade 2 Titanium Rods in terms of weldability, formability, and corrosion resistance. However, cp grade 3 titanium has slightly higher strength and is often used in aerospace applications.
Titanium grade 5 bars
Titanium grade 5, or ti-6al-4v, is a commonly used titanium alloy. It is composed of 90% titanium, 6% aluminium, and 4% vanadium. One popular form of titanium grade 5 is the titanium grade 5 bar. Hot rolling or forging the alloy into a cylindrical shape will manufacture these bars. They are widely used in aerospace, medical, automotive, and marine industries.
Titanium grade 7 bar
Titanium grade 7 bar is another popular form of titanium alloy. Grade 7, also known as ti-0.2pd, is a corrosion-resistant alloy containing 99.2% pure titanium and 0.2% palladium. This combination of elements provides grade 7 with enhanced resistance to corrosion in various environments, including highly oxidizing and reducing conditions.
Alloyed Titanium Rods
Alloyed Titanium Rods are made of an alloy of titanium and another metal, such as aluminium or vanadium. These bars are stronger than cp-grade Titanium Rods and are often used in high-strength applications such as aircraft construction.
Beta Titanium Rods
Beta Titanium Rods are made of an alloy of titanium and other metals, such as molybdenum or zirconium. They have excellent flexibility and can be used in various applications that require high strength and flexibility, such as biomedical implants.
Aerospace components: Reduced weight aids in increased speed, which is why Titanium Rods are used in aircraft frames, engines, and landing gear. Most engine components, such as shafts, blades, discs, and casings, are made of titanium so it can withstand temperatures ranging from sub-zero to 600°C. Titanium Rods, owing to their high strength, corrosion resistant, and lightweight properties, are an ideal alternative for all areas of the aerospace industry. They're frequently used in vast amounts to create space shuttles and military planes.
Automotive: Titanium Rods are mainly used in the automotive industry of motorsport racing to attach parts in sports cars, decreasing total weight and increasing the speed and efficiency of the vehicle.
Biomedical/hospitals: Titanium Rods is one of the most biocompatible metals on the periodic table, which means that it can be consumed in vast quantities without causing damage to the body. Titanium Rods are also used in hip replacements and dental instruments. Titanium Rods are ideal for medical equipment because they can be accurately cut to size and are highly durable and long-lasting due to increased wear and tear resistance, high elasticity, and heat and cold formability.
Architecture and art: The Titanium Rod is popular for sculptures and constructions because of its sturdy, attractive appearance. Especially in skyscrapers, Titanium Rods and sheets are employed. Buildings can be protected by Titanium Rods. The leaning tower of Pisa in Italy, for example, is strengthened and supported by titanium.
Industrial uses: Titanium is the industry's top priority because of its long lifespan, light weight, corrosion and heat resistance, and low cost. In the industrial sector, titanium components come in a range of shapes and sizes. Titanium is used in petroleum, mining, power plants, and wastewater treatment plants.
Process of Titanium Rod
The first step is the processing of sponge, which includes the chlorination of titanium rutile-ore derived from beach sand. Coke and chlorine are combined with rutile which produces titanium tetrachloride, which is then reacted to the magnesium in the enclosed system. The method of vacuum distillation is used to extract magnesium to recycle it.
In the Electron Beam furnace or Vacuum Arc Reduction furnace, the sponge is melted with metal elements such as tin, aluminum, vanadium, zirconium, and molybdenum. It will create re-melting electrodes that can be die-cast or VAR melted into slabs- the Titanium Rod resulting from further processing of cast or forged slab.
The processing process of Titanium Rod from spongy titanium to blank.
Production process of traditional Titanium RodThe traditional process of Titanium Rod is to cast spongy titanium into ingot, and then produce the bar by forging and rolling. Spongy titanium is the most primitive material for producing titanium. When it is smelted, the initial material for titanium processing - titanium ingot will be obtained.
(1)Pressing electrode, pressing titanium sponge through a press to form a dense titanium sponge pressing block electrode;
(2) Vacuum melting, at 1700 ~ 1800°C and -103pa, three times of vacuum melting were performed on the titanium sponge pressing block electrode
(3) To open the billet. Under the condition of 1000℃, the billet is opened by oil press and finally pressed into a square billet; It should be noted that the life of the Titanium Rod is reduced due to the high pressure when the blank is opened. Therefore, when the Titanium Rod is die forged by the closed die forging method, the volume of the original blank must be strictly limited by the closed die forging method, which complicates the preparation process. Whether to use closed die forging, from the interest and technological feasibility of two aspects. Open die forging, the burrs of blank weight loss of 15% to 20% of the clamping part manufacturability waste (if the forgingl conditions must leave this part) accounted for 10% of the weight of the blank flash metal relative loss is usually increases with blank weight reduction, some asymmetric structure, area difference is bigger, and there are difficult to fill local forgings, burrs consumption as much as 50% for closed die forging are no burrs losses, but the blocking process is complex, you need to add more transitional type slot, will no doubt increase the ancillary expenses.
Then only thermal treatment and cutting of the final blank. The forging temperature and deformation degree are the basic factors that determine the microstructure and properties of the alloy. Titanium Rod heat treatment is different from steel heat treatment, die forging is usually used to make shape and size close to the waste. It does not determine the structure of the alloy. Therefore, the process specification of the final work step of Titanium Rod is of special importance. It is necessary to make the overall deformation of the blank not less than 30% of the deformation temperature does not exceed the phase transition temperature, in order to make the Titanium Rod at the same time to obtain higher strength and plasticity, and should strive for the temperature and deformation degree in the whole deformation of the blank as far as possible uniform distribution.
(4)The first rolling, at 970 ~ 980℃, the preliminary rolling mill into cylindrical shape blank;
(5) Second rolling, at the condition of 950℃, rolling mill into blank parts.There are many rolling methods, which can be classified according to different characteristics.According to the characteristics of metal flow and deformation, there are forward extrusion, reverse extrusion and special extrusion. Special extrusion includes hydrostatic extrusion, continuous extrusion, lateral extrusion, combined extrusion, compound extrusion, sheath extrusion, peeling extrusion, water seal extrusion, bitter mold extrusion, powder extrusion, semimolten extrusion, liquid extrusion, etc.Extrusion is classified by temperature, including hot extrusion, warm extrusion and cold extrusion. Hot extrusion and cold extrusion are two main branches of extrusion, and they are mainly used in metallurgical industry system. Application of cold extrusion in mechanical industry system; The development of warm extrusion is relatively late and the application scope is also small.
The Importance of Efficient Titanium Rod Processing Procedures
Selecting the right titanium alloy
The first step in maximizing efficiency in Titanium Rod processing is to carefully select the appropriate titanium alloy for the specific application. Different titanium alloys possess varying properties, such as strength, corrosion resistance, and heat resistance. By selecting the right alloy, manufacturers can ensure that the processed Titanium Rods meet the required specifications, minimizing the need for additional processing steps and reducing waste.
Proper handling and storage
Efficiency in Titanium Rod processing begins with proper handling and storage. Titanium is a sensitive material that can easily become contaminated or damaged if mishandled. It is crucial to use appropriate lifting and transportation equipment, as well as to store Titanium Rods in a clean and controlled environment to prevent oxidation or other forms of degradation.
Precision cutting and machining
Precision cutting and machining are essential steps in Titanium Rod processing. Utilizing advanced cutting tools and techniques, manufacturers can achieve accurate dimensions and smooth surfaces, minimizing the need for additional finishing processes. High-speed machining and computer numerical control (cnc) technology can significantly enhance the efficiency and precision of Titanium Rod cutting and machining.
Heat treatment and annealing
Heat treatment and annealing are critical processes in Titanium Rod processing, as they help improve the material's strength and ductility. By carefully controlling the temperature and duration of the heat treatment process, manufacturers can achieve the desired mechanical properties while minimizing energy consumption and reducing processing time.
Surface finishing and polishing
Surface finishing and polishing are important steps in Titanium Rod processing to achieve the desired aesthetic appearance and improve corrosion resistance. By using appropriate abrasives, polishing compounds, and techniques, manufacturers can efficiently achieve smooth and visually appealing surfaces, reducing the need for additional surface treatment processes.
Inspection and quality control
Efficient Titanium Rod processing procedures include rigorous inspection and quality control measures. By implementing non-destructive testing techniques, such as ultrasonic testing and visual inspection, manufacturers can quickly detect any defects or inconsistencies in the processed Titanium Rods, ensuring that only high-quality products are delivered to customers.
Packaging and transportation
Proper packaging and transportation are vital to preserving the integrity of Titanium Rods during storage and transit. By using suitable packaging materials and techniques, manufacturers can protect the processed Titanium Rods from physical damage, oxidation, and contamination. Efficient logistics planning and reliable transportation methods also contribute to minimizing lead times and ensuring timely delivery.
Waste management and recycling
An efficient Titanium Rod processing procedure includes effective waste management and recycling practices. Titanium scrap and excess material generated during the processing can be recycled to minimize waste and reduce costs. Implementing sustainable waste management strategies not only improves efficiency but also demonstrates environmental responsibility.
Continuous process improvement
Maximizing efficiency in Titanium Rod processing is an ongoing effort that requires continuous process improvement. Manufacturers should regularly analyze data, identify bottlenecks, and implement measures to optimize the processing procedures. By embracing new technologies, updating equipment, and fostering a culture of innovation, manufacturers can stay ahead of the competition and achieve sustainable efficiency gains.
Training and skill development
Efficient Titanium Rod processing heavily relies on well-trained and skilled personnel. Providing comprehensive training programs and opportunities for skill development ensures that operators are equipped with the necessary knowledge and expertise to perform their tasks efficiently. Continuous training also promotes safety, reduces errors, and enhances overall productivity.
High strength-to-weight ratio
Titanium is known for its exceptional strength while being lightweight. Titanium Rods offer a high strength-to-weight ratio, making them suitable for applications where weight reduction is crucial, such as aerospace and automotive industries.
Excellent corrosion resistance
Titanium has excellent corrosion resistance, even in harsh environments, due to the formation of a protective oxide layer on its surface. This makes Titanium Rods highly resistant to corrosion from chemicals, saltwater, and atmospheric conditions.
Biocompatibility
Titanium is biocompatible, meaning it is compatible with the human body and does not cause adverse reactions. This property makes Titanium Rods ideal for medical applications, including implants and surgical instruments.
High temperature resistance
Titanium Rods can withstand high temperatures without losing their strength or structural integrity. This makes them suitable for applications in industries such as aerospace, where components may be exposed to extreme heat.
Low thermal expansion
Titanium has a low coefficient of thermal expansion, meaning it expands and contracts minimally with temperature changes. This property makes Titanium Rods dimensionally stable, ensuring their performance and integrity in various temperature conditions.
Non-magnetic
Titanium is non-magnetic, which makes Titanium Rods suitable for applications where magnetic interference needs to be minimized, such as in certain scientific and electronic equipment.
Excellent fatigue resistance
Titanium Rods exhibit excellent fatigue resistance, allowing them to withstand repeated stress and load cycles without failure. This property makes them suitable for applications subjected to dynamic loads, such as aircraft components.
Our Factory
Xi'an Zhanwo Metal Materials Co., Ltd. is located in High-tech Industrial Park, University City, Chang'an District, Xi'an City, Shaanxi Province, China. Our company mainly produces and sells rare and precious metal products, including nitinol, tantalum-niobium, tungsten-Nickel, zirconium-hafnium, and titanium products. Nitinol and tantalum-niobium products are the main products of our company. We have been focusing on the nitinol alloy industry and tantalum-niobium products for more than 13 years. Our company's product types include: wire, plate, pipe, rod, target, foil, screw, spring, nitinol jewelry and jewelry accessories, titanium products and titanium crafts, and various customized parts, etc. Relying on the resource advantages of China Titanium Valley and Baotai Group, our company has cooperated with the technical personnel of Northwest Nonferrous Metals Research Institute to train and gather a group of high-level, refined, and professionally skilled personnel for the company.
Certificate
Passed CE certification, IS09001 quality system certification, and obtained a number of patent certificates.
FAQ
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Pure Titanium Rod