Titanium Tubes & Components

Titanium Bar & Rod

2024-04-07

Titanium bars are a solid metal with good flexibility, corrosion resistance, and wear resistance. They also have excellent impact resistance and high strength and can withstand tremendous pressure. In addition, titanium bars have a low density, which can reduce weight and save energy. Titanium Bar Performance ● Low Density and High Strength ● Excellent Corrosion Resistance ● Good resistance to the effect of heat ● Excellent Bearing on cryogenic property ● Nonmagnetic and Non-toxic ● Good thermal properties Titanium bars are used extensively in the medical, aerospace, and chemical industries. FD Titanium offers a titanium bar of good quality at a reasonable price. If you have any questions or requests. Please let us know by sending an email to [email protected] Grades of Titanium Bar Titanium bars are available in a variety of grades. The most common grades are GR1, GR2, GR3, GR4, GR5, GR7, GR9, GR23. ● Grade 1 can be used in the drawing parts for its good elongation and corrosion resistance. ● Grade 2 is used most widely in commercially pure titanium ● Grade 3 is almost used in pressure vessels. ● Grade 4 can be used in some fittings parts and fastening pieces, but complex shapes need 300 degrees Celsius to form. ● Alloy grade 5 (Ti-6Al-4V) is widely used in titanium alloys because of its comprehensive mechanical and chemical properties. ● Alloy grade 7 adds little palladium in CP titanium and has the most excellent corrosion resistance; of course, it costs more. ● Alloy grade 9 (Ti-3Al-2.5V) is widely used in golf clubs and bicycle girders. ● Alloy grade 23, ELI (extra low interstitial), can be used in the medical appliance. Chemical Composition of Titanium Bar Mechanical Properties of Titanium Bar Specification of Titanium Bar ASTM B348 Titanium and Titanium Alloy Bars and Billets AMS 4928 Titanium Alloy Bars, Wire, Forgings, Rings, and Drawn Shapes (6Al-4V), Annealed ASTM F67 Unalloyed Titanium for Surgical Implant Applications (UNS R50250,…

Grade 9 Titanium for Bicycle frames and Wheelchairs

2024-04-07

INCREASE YOUR SALES REVENUE 5x WITHOUT CHURNING YOUR CUSTOMER BECAUSE FABRICATING YOUR BRAND’S BICYCLE OR WHEELCHAIR FRAMEWITH OUR TITANIUM (3Al-2.5V) GRADE 9 TUBES, THERE ARE ZERO COMPLAINS.WHY?BECAUSE WE ARE THE BEST TITANIUM SUPPLIERTOTALLY DIFFERENT THAN YOUR CURRENT SUPPLIERHOW?BE OUR GUEST FOR 02 MINUTES When we talk about a material’s sustainability, we refer to its quality and lifecycle and how it will differentiate your product from your competitors. Our Titanium Grade 9 (3Al-2.5V) tubes have been outstanding over the past years, with a total output of 600+ tons in supply to various businesses. WE CLAIM TO PROVIDE Ti 3Al-2.5V. Let’s take you briskly through the production process to generate the Grade 9 Titanium. The extraction process is convoluted and, therefore, expensive. First, the titanium sponge is created through delicate steps of formation of titanium chloride. The titanium sponge is hydraulically compressed to produce compacts, and then, in the purest titanium, 3% aluminum and 2.5% Vanadium are added to produce Ti 3Al-2.5V. WHAT MAKES US UNIQUE Our Seamless Titanium tubes have been unique since the beginning because we follow exquisite procedures to extrude these seamless tubes you may not have heard of before. In the US, almost all high-end bicycle and wheelchair frames are manufactured using 3Al-2.5V tubes compliant with ASTM B-338, an aerospace material-compliant standard. Therefore, they are rugged, light, and robust. Some suppliers compromise the tube’s integrity by adding surplus or scrap material. However, we provide you with all the certificates required to test the material using rigorous criteria. DO YOU KNOW? Our Titanium is Vacuum Annealed Our titanium is vacuum annealed before and after undergoing the Pilger mill. Due to work on the job, the tube gets hardened. It builds stresses; therefore, to relieve these stresses, we pass through an additional process of vacuum annealing to avoid brittle failure during Pilger mill or mitigate residual…

Titanium Tube

2024-04-07

Are You Looking for Titanium Tubes? Titanium tubes are hollow cylinders crafted from titanium, which is renowned for its exceptional strength, lightweight nature, and corrosion resistance. Titanium’s powerhouse properties suit various uses, from aircraft components to weaponry and sports equipment like golf clubs. These tubes stand out for their lightweight design, corrosion resistance, and lack of susceptibility to rust. FD Titanium has more than 15 years of experience in titanium tube manufacturing. We offer tubes of good quality at a reasonable price. If you have any questions or requests about Grade 2, Grade 9 (Ti-3Al-2.5V) or Grade 5 (Ti-6Al-4V). Please let us know by sending an email to [email protected] Welded Titanium Tube Seamless Titanium Tube Titanium Alloy Tubing Low finned & Ribbed Titanium Tube What is a Titanium Tube? Have you ever marveled at the extraordinary performance of aerospace vehicles? Enter titanium tube – the unsung hero of high-performance engineering. These are not just any tubes; they are precision-engineered cylinders that harness the extraordinary properties of titanium. Renowned for its strength, lightweight nature, and corrosion resistance, titanium is the material of choice for applications that demand the absolute best. You might not realize it, but titanium tubes are likely present in many aspects of your life. Titanium’s versatility knows no bounds, from the gear you use at the gym to the technologies that protect our military. It’s not just about performance; titanium tubes also offer safety benefits, thanks to their ability to withstand extreme temperatures and resist fatigue under repeated stress. Specifications of Titanium Tube Titanium tubes are available in various specifications and grades to meet the demands of different applications. Common grades include Grade 2 and Grade 9, each offering different levels of strength and corrosion resistance. We provide a range of sizes from 1/4-inch OD up to 6-inch…

Enhancing Performance with 3Al-2.5V Titanium: A Technical Overview for Engineers and Designers

2024-04-01

Among all the existing materials, titanium stands out for its exceptional strength-to-weight ratio, corrosion resistance, and biocompatibility. There are many alloys and there is also pure titanium, but various grades offer a unique blend of properties that make it the ideal choice for a lot of industrial applications. And one of them is Grade 9 titanium. This alloy, also known as 3Al-2.5V titanium. (3% aluminum-2.5% vanadium), combines the easy fabrication of pure grades with the strength of alloyed ones. This combination makes it an excellent choice for seamless tubes over welded alternatives. Excellent Mechanical Properties Let´s talk about the extraordinary mechanical properties of Grade 9 Titanium, that makes this material essential for some critical components in engineering applications. Here are some of those great properties: 1. The tensile strength lies between 621 to 862 MPa, ideal for high loads subjected structures. 2. Its yield strength(the limit of elastic behavior before plastic deformation), spans from 485 to 734 MPa. 3. The elongation rate of 10-15% proves its ductility. 4. The modulus of elasticity of 107 GPa confirms its stiffness. Such a combination of strength, ductility, and stiffness is a must for applications in, for example, aerospace engineering. Landing gears or hydraulic systems just to name some of them, are components that must resist high stresses without being deformed. Titanium Grade 9 easily fulfil these requirements. But there is more. Only few materials can conform the high strict aerospace standards like AMS 4943, AMS 4944, and AMS 4945. And Grade 9 Titanium is one of them. Industrial Applications Tubes made of 3Al-2.5V Titanium are used beyond their well-known use in bicycle frames. We just talked about the aerospace sector, where those tubes are present in the manufacturing of hydraulic systems, airframes, engine components and compressor blades due its excellent strength-to-weight ratio and corrosion resistance at elevated temperatures….

5 misunderstandings about titanium

2024-03-20

Contents Titanium is one of the most important and valuable metal today. It has become a popular choice due to its high strength-to-weight ratio, corrosion resistance, and other benefits. The key points are super light, very strong, and expensive. However, there are still some common misunderstandings about Titanium. Myth 1: Titanium is a new material. Titanium is considered a rare metal because it is dispersed in nature and difficult to extract. But it is relatively abundant, ranking tenth among all elements. However, it is also much more than much cheaper than gold and platinum. Titanium ores are mainly ilmenite and rutile, widely distributed in the crust and lithosphere. In 1791, Reverend William Gregor in the UK found this metal. In 1795, Martin Heinrich Klaproth named it Titanium. In 1940, W.J.Kroll made it into pure Titanium. Titanium has been discovered for over 200 years. Still, its limited application is primarily due to the difficulties in refining it, which has resulted in most people needing to be made aware of this material. Therefore, Titanium is not a new material. Myth 2: Titanium is very expensive. Titanium is indeed expensive, but just compared to common metals like Aluminum, Steel, Copper, etc. It is not as expensive as gold, silver, palladium, etc. Why is Titanium expensive? Titanium is known for its high cost due to its scarcity and difficulty in extracting and processing. The complex and energy-intensive process of refining titanium ore into usable metal increases its price. The traditional titanium smelting process is the “Kroll process,” which uses sodium or magnesium to reduce TiCl4, obtaining Titanium. Since Titanium is made above the melting point, the resulting Titanium is spongy, referred to as “sponge titanium.” However, the Kroll process is discontinuous, has a long process flow, and involves multiple steps. Additionally, TiCl4 is…

What is CP titanium?

2024-03-11

CP Titanium Titanium is a chemical element that has a silver color and is known for its lightweight, high strength, and corrosion resistance. It is often used in aerospace, medical implants, and other applications requiring high strength and low weight. One type of titanium that has gained significant attention recently is CP Titanium or Alloy titanium. What Is CP Titanium? Commercial Pure (CP) Titanium is pure titanium that has not been alloyed with other metals. It comprises 99.6% titanium and small amounts of oxygen, nitrogen, carbon, hydrogen, and iron. This purity makes it attractive for applications requiring high corrosion resistance and biocompatibility, such as medical implants and jewellery. The resulting titanium sponge is then melted and processed into various forms, such as bars, plates, tubes and sheets. The chemical of CP Titanium Four distinct categories of Commercial Pure Titanium are designated as grade 1, grade 2, grade 3, and grade 4. Grade 1 of Pure Titanium exhibits the best resistance to corrosion, ease of shaping, and the most minor tensile strength. Conversely, grade 4 provides the greatest tensile strength while maintaining reasonable formability. Mechanical Properties of CP Titanium CP Titanium has low strength, so its primary use is for lightweight and corrosion resistance. Applications of CP Titanium CP Titanium has a wide range of applications in various industries. Some of the most common applications include:Aerospace: CP Titanium is widely used in the aerospace industry for its high strength-to-weight ratio and corrosion resistance. It is used in aircraft surface. Medical implants: CP Titanium is biocompatible, making it an ideal material for medical implants such as joint replacements, dental implants, and spinal implants.Jewellery: CP Titanium is a popular material for jewellery due to its strength, corrosion resistance, and lightweight.Chemical processing: CP Titanium is used in chemical processing equipment due to its high…

Is Titanium Metal Magnetic ?

2024-02-28

Introduction: In this article, we aim to examine and analyze the magnetic properties of titanium metal from a professional standpoint. Titanium, a widely used metallic element, has long been recognized for its outstanding properties such as high strength, low density, and excellent corrosion resistance. However, its behavior towards magnetism is a subject of scientific inquiry that necessitates a comprehensive evaluation. Magnetic Behavior of Titanium: The magnetic behavior of a material depends on its atomic structure and the arrangement of its electrons. Titanium is classified as a paramagnetic material, which means it possesses a weak attraction to magnetic fields when subjected to an external magnetic force. Crystal Structure and Magnetic Properties: To understand the magnetic behavior of titanium, it is crucial to explore its crystal structure. Pure titanium typically adopts a hexagonal close-packed (HCP) crystal structure at room temperature and below. The arrangement of its atoms in a specific crystal lattice determines the extent of its magnetic properties. In the case of titanium, the HCP structure imposes certain restrictions on its magnetic response, resulting in the minimal magnetization observed. Influence of Impurities: Impurities or alloying elements present in titanium can influence its magnetic behavior. For instance, when combined with specific elements such as iron or nickel, titanium can form intermetallic compounds that exhibit ferromagnetic properties. However, in its pure form, titanium remains paramagnetic or diamagnetic, depending on the temperature and the presence of other elements. Measurement Techniques: Accurate characterization of magnetic properties requires reliable measurement techniques. Several methods such as SQUID magnetometry, vibrating sample magnetometry (VSM), and magnetoresistance measurements can be employed to assess the magnetic behavior of titanium. These techniques enable scientists to determine the susceptibility, magnetization, and response of titanium under different conditions and magnetic fields. Conclusion: In conclusion, titanium metal can be considered paramagnetic, possessing a weak attraction…

History of the Ti-3Al-2.5V Alloy Tube in aerospace

2024-02-26

Titanium is one of the most plentiful elements on the earth’s surface, being fourth among the structural elements. Because of this abundance and the unique properties that titanium offers, it was the natural choice of aircraft designers to become the favored material for constructing airplanes. When compared on a strength-to-weight ratio basis, Titanium alloy has demonstrated superiority over most other structural aerospace materials. The low density, slightly over half that of steel, and high strength combination have increased titanium usage so that every modern military and commercial aircraft contains significant quantities of this material. Because of the very stringent demands of the aerospace industry, the development of many titanium alloys has occurred. These alloys greatly increase the strength of pure titanium while retaining the weight advantage. An alloy of titanium was needed as a tubing material that would decrease the weight of the hydraulic system while offering high-strength properties. The Ti-6Al-4V alloy was the first choice, as it was already the workhorse of this industry. Efforts to make tubing from this alloy were unsuccessful, so an alternate was sought. CP Titanium proved to be useful for ducting but did not have the strength for most hydraulic applications. A leaner alloy, using the same alloying elements as the Ti-6Al-4V, proved to be sufficiently malleable for tube manufacture and provided a very useful set of properties for application in hydraulic systems. This alloy, Ti-3Al-2.5V, can be cold worked by standard tube making processes, is weldable and can be strengthened by a combination of cold working and subsequent heat treatment to a wide range of strengths inductivities. Since the late 1960s the aircraft hydraulic systems have used more and more of this titanium alloy tubing. While unalloyed titanium is still used in some aircraft hydraulic tubing, most of the new hydraulic tubing applications…

Eddy Current Testing for Titanium Tube

2023-02-14

Eddy current testing always called ET on Nondestructive testing of metallic materials. The basic principle of eddy current testing: Placing the coil with alternating current on the metal plate to be tested or outside the metal tube to be tested. At this time, an alternating magnetic field will be generated in and near the coil, which will generate a vortex-shaped induced alternating current in the test piece, called eddy current. The distribution and size of eddy current depend not only on the shape and size of the coil, the size and frequency of AC current, but also on the conductivity, permeability, shape and size of the specimen, the distance from the coil and whether there are cracks on the surface. Therefore, under the condition of keeping other factors relatively unchanged, the change of magnetic field caused by eddy current can be measured by a detection coil, and the size and phase change of eddy current in the specimen can be inferred, and then the information about the change of conductivity, defects, material conditions and other physical quantities (such as shape, size, etc.) Or the existence of defects can be obtained. However, because the eddy current is an alternating current with skin effect, the detected information can only reflect the situation on the surface or near the surface of the specimen. 2. Application: According to the shape of the test piece and the purpose of testing, different types of coils can be used, usually including through type, probe type and plug-in type. The pass-through coil is used to detect titanium tube, titanium rod and titanium wire. Its inner diameter is slightly larger than that of the detected titanium tube. When it is used, the detected object passes through the coil at a certain speed, and defects such as cracks, inclusions and…

Why titanium alloy is a difficult-to-machine material?

2023-02-13

Why do we think that titanium alloy is a difficult-to-machine material? Because of the lack of deep understanding of its processing mechanism and phenomenon. 1． Physical performance at titanium processing The cutting force of titanium alloy is only slightly higher than that of steel with the same hardness, but the physical performance of machining titanium alloy is much more complex than that of machining steel, which makes the machining of titanium alloy face enormous difficulties. The thermal conductivity of most titanium alloys is very low, only 1/7 of that of steel and 1/16 of that of aluminum. Therefore, the heat generated in the process of cutting titanium alloy will not be quickly transferred to the workpiece or taken away by the chips, but will be gathered in the cutting area, and the temperature generated can be as high as more than 1 000 ℃, so that the cutting edge of the tool is rapidly worn, cracked, and built-up edge is generated, and the rapidly worn cutting edge generates more heat in the cutting area, which further shortens the life of the tool. The high temperature generated in the cutting process also destroys the surface integrity of titanium alloy parts, resulting in the decline of geometric accuracy of parts and the appearance of work hardening which seriously reduces their fatigue strength. The elasticity of titanium alloys may be beneficial to the performance of parts, but in the cutting process, the elastic deformation of the workpiece is an important cause of vibration. The cutting pressure causes the “elastic” workpiece to move away from the tool and rebound, so that the friction between the tool and the workpiece is greater than the cutting action. The friction process also generates heat, which aggravates the problem of poor thermal conductivity of titanium alloys. This problem…

Titanium Tubes & Components

Titanium Bar & Rod

Grade 9 Titanium for Bicycle frames and Wheelchairs

Titanium Tube

Enhancing Performance with 3Al-2.5V Titanium: A Technical Overview for Engineers and Designers

5 misunderstandings about titanium

What is CP titanium?

Is Titanium Metal Magnetic ?

History of the Ti-3Al-2.5V Alloy Tube in aerospace

Eddy Current Testing for Titanium Tube

Why titanium alloy is a difficult-to-machine material?

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