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Baoji Lihua Nonferrous Metals Co., Ltd.
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Your Professional & Reliable Partner.
Baoji Lihua Non-ferrous Metal Co., Ltd. was established in 2006. The company relies on theadvantages of Baoji industry and its strong technical support. It has been engaged in theproduction and sales of non-ferrous metals such as titanium, tantalum and nickel for many years.The factory covers an area of 800 square meters. The factory has strong technical equipment. There are more than 20 sets of CNC machines, milling and drilling machines, and the annualproduction value is more than 30 million ...
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China Baoji Lihua Nonferrous Metals Co., Ltd. HIGH QUALITY
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Internal professional design team and advanced machinery workshop. We can cooperate to develop the products you need.
China Baoji Lihua Nonferrous Metals Co., Ltd. MANUFACTURING
Advanced automatic machines, strictly process control system. We can manufacture all the Electrical terminals beyond your demand.
China Baoji Lihua Nonferrous Metals Co., Ltd. 100% SERVICE
Bulk and customized small packaging, FOB, CIF, DDU and DDP. Let us help you find the best solution for all your concerns.

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Can Titanium Melt?
Titanium, like all substances, has a specific set of physical properties, and one of the most important of these is its melting point. Titanium can indeed melt. The melting point of titanium is approximately 1,668 °C (3,034 °F). This relatively high melting point is a significant characteristic of titanium and has important implications for its processing and applications.   Melting Point in Relation to Bonding 1. Metallic Bonding - The high melting point of titanium can be attributed to its metallic bonding. In titanium, the atoms are held together by strong metallic bonds. These bonds result from the delocalization of electrons among the metal atoms. The positively charged titanium nuclei are attracted to the sea of delocalized electrons, creating a strong cohesive force. This force requires a significant amount of energy to be overcome, which is why a high temperature, such as 1,668 °C, is needed to melt titanium. 2. Comparison with Other Metals - When compared to some other common metals, titanium's melting point is quite high. For example, aluminum has a melting point of approximately 660 °C (1,220 °F), which is much lower than that of titanium. Iron has a melting point of around 1,538 °C (2,800 °F), which is also lower. The higher melting point of titanium gives it certain advantages in applications where high - temperature resistance is required. Melting and Processing of Titanium 1. Industrial Melting Methods - In industrial settings, there are specific methods used to melt titanium. One of the most common methods is the use of an electric arc furnace. In this process, an electric arc is used to generate the high temperatures required to melt titanium. Another method is electron beam melting, where a high - energy electron beam is focused on the titanium to heat and melt it. These methods are carefully controlled to ensure the purity of the melted titanium and to avoid contamination. 2. Challenges in Melting - Melting titanium is not without challenges. One of the main issues is its reactivity. Titanium has a high affinity for oxygen, nitrogen, and hydrogen at high temperatures. These elements can contaminate the melted titanium and degrade its properties. To prevent this, special melting techniques and protective atmospheres are used. For example, melting is often carried out in a vacuum or in an inert gas atmosphere, such as argon, to minimize the uptake of these reactive elements. Applications Related to Melting and High - Temperature Resistance 1. Aerospace Industry - The ability of titanium to withstand high temperatures without melting is crucial in the aerospace industry. Components such as jet engine parts are exposed to extremely high temperatures during operation. Titanium's high melting point, combined with its other properties like high strength - to - weight ratio and corrosion resistance, makes it an ideal material for these applications. For example, turbine blades in jet engines can be made of titanium - based alloys, which can operate at high temperatures without deforming or melting. 2. High - Temperature Industrial Processes - In some high - temperature industrial processes, titanium's resistance to melting is also valuable. For instance, in certain chemical reactions that occur at elevated temperatures, titanium reactors or containers can be used. These can maintain their integrity and not melt or corrode during the process, ensuring the safety and efficiency of the industrial operation. In conclusion, titanium can melt at a relatively high temperature of 1,668 °C. Its melting point is related to its metallic bonding, and melting it in industrial settings requires special methods and precautions due to its reactivity. The high melting point of titanium also makes it suitable for applications in industries where high - temperature resistance is essential.
Understanding Titanium Flange Grades and Applications: Key to Performance and Selection
Understanding Titanium Flange Grades and Applications: Key to Performance and Selection   Titanium flanges, an essential component in various industries such as aerospace, oil and gas, chemicals, and marine, are valued for their excellent corrosion resistance, lightweight, high strength, and high-temperature endurance. In the manufacturing of titanium flanges, selecting the appropriate titanium alloy grade is critical, as it directly impacts the flange's performance and service life. This article will provide an in-depth overview of different titanium flange grades, their characteristics, and how to choose the right titanium flange material based on specific application needs.   What is a Titanium Flange? A titanium flange is a mechanical component used to connect pipes, valves, pumps, and other equipment. Its primary function is to create a sealed connection in fluid transport systems to prevent fluid leakage. In high-pressure, high-temperature, and corrosive environments, titanium flanges are the ideal choice due to their outstanding mechanical properties and corrosion resistance. The different grades of titanium alloys determine the flange's performance, including tensile strength, corrosion resistance, and machining difficulty. Understanding these grades helps engineers and procurement teams select the appropriate titanium flanges based on specific requirements.   Common Titanium Flange Grades Titanium alloys are typically classified based on their chemical composition, mechanical properties, and suitable applications. Below are several common titanium alloy grades and their uses in titanium flange production.   1. Grade 2 Titanium (Ti-2) Grade 2 titanium is the most common titanium alloy material, generally used in less demanding environments. It consists of 99.2% titanium, offering good strength, ductility, and corrosion resistance. Grade 2 titanium flanges are widely used in industries such as chemical processing, marine, medical, and food processing. Due to its high machinability and reliable performance, Grade 2 titanium flanges are ideal for applications under moderate pressure conditions. Features: Suitable for most acidic and alkaline environments, especially chloride and sulfuric acid. Strong corrosion resistance, capable of withstanding seawater and other corrosive fluids. Moderate strength, suitable for low to medium pressure systems.   2. Grade 5 Titanium (Ti-6Al-4V) Grade 5 titanium, also known as Ti-6Al-4V, is an aluminum-vanadium alloy that provides higher strength and better fatigue resistance. Its composition includes 90% titanium, 6% aluminum, and 4% vanadium, making it one of the most widely used titanium alloys. Grade 5 titanium flanges are commonly used in aerospace, oil and gas, and high-temperature, high-pressure applications. Features: Excellent high-temperature strength and corrosion resistance. Suitable for high-strength applications, such as aerospace, deep-sea operations, and oil platforms. High strength and fatigue resistance, but machining is more challenging.   3. Grade 7 Titanium (Ti-0.2Pd) Grade 7 titanium is a titanium-niobium (Nb) alloy, known for its exceptional corrosion resistance, particularly in highly acidic and oxidizing environments. Grade 7 titanium flanges are ideal for applications in the chemical industry where they are exposed to strong acids, such as hydrofluoric acid. Its superior corrosion resistance makes it a perfect choice for certain demanding environments. Features: Exceptional resistance to acid corrosion, especially in harsh acidic environments. Lower strength compared to other titanium alloys, ideal for applications where corrosion resistance is prioritized over strength. Commonly used in chemical reactors, acid liquid transfer pipelines, and other specialized industries.   4. Grade 9 Titanium (Ti-3Al-2.5V) Grade 9 titanium is an alloy with lower aluminum and vanadium content, offering good weldability and high strength. It is widely used in applications that require medium strength and good machinability. Grade 9 titanium flanges are often found in aerospace and high-performance sporting equipment. Features: High strength and excellent machinability. Suitable for applications requiring both high strength and good welding properties. Commonly used in sporting equipment, aerospace, and other high-performance applications.   How to Choose the Right Titanium Flange Grade? Operating Environment: Different grades of titanium alloys offer varying levels of corrosion resistance and high-temperature performance. For chemically reactive environments such as chlorides or sulfuric acid, Grade 7 or Grade 2 titanium flanges should be considered. For high-temperature, high-pressure oil and gas or aerospace environments, Grade 5 titanium flanges are preferred. Mechanical Properties: The tensile strength and wear resistance of titanium alloys vary with the grade. For high-strength applications, such as deep-sea drilling or aerospace, Grade 5 or Grade 9 titanium flanges are ideal. Machining Difficulty: The difficulty of machining titanium alloys increases as the alloy grade rises. Grade 2 titanium flanges are easier to machine and are suitable for general applications, while Grade 5 and Grade 7 titanium flanges require more advanced machining equipment and expertise.
Old Customers in Indonesia Recommend To Friends To Buy Titanium Rods From LHTi
I recently had an old customer in Indonesia who really liked the titanium rod products produced by our company. He was very satisfied with our product quality and technical support, so he took the initiative to recommend our titanium rods to his friends. I feel very gratified and proud to win the trust and recognition of our regular customers. Their recommendation has undoubtedly greatly increased our influence in the local market and opened the door for us to further explore new markets. Our engineering team has been carefully designing and producing high quality titanium rod products. We adopt advanced processing technology and strict quality control measures to ensure that each product can meet customer requirements in dimensional accuracy, material properties and surface quality. Our quality control personnel thoroughly test each product to ensure that its performance indicators fully meet customer expectations. At the same time, we will also provide detailed instructions and professional technical support to help customers smoothly apply our products to their production process. As a company that values customer experience, we communicate with our customers in a passionate and professional manner, fully understand their specific needs, and provide tailor-made solutions. I believe that through our continuous quality products and services, we will be able to further win the trust and good reputation of customers. If you or your friends have any needs for our products and services, please feel free to contact me. I will do my best to support and help you.  

2025

02/25

The Science Behind Titanium’s Melting Point
  Basic Facts About Titanium Titanium is a lightweight, strong, and corrosion-resistant transition metal with atomic number 22 and chemical symbol Ti. It has two types: α-type, which has a hexagonal crystal system, and β-titanium, which has a cubic crystal system. The most common titanium compound is titanium dioxide, used to manufacture white pigments. Titanium is relatively abundant, ranking tenth among all elements. It exists in almost all organisms, rocks, water bodies, and soils. Titanium requires the Kroll or Hunter process to extract it from the primary ore, mainly ilmenite and rutile.   Properties of Titanium Titanium is a metal with a metallic luster and ductility. It has low density, high mechanical strength, and easy processing. A new heat-resistant titanium alloy that can withstand temperatures of 600℃ or higher has been developed.   Titanium alloys have good low-temperature resistance, making them ideal for low-temperature equipment such as storage tanks. Titanium is known for its anti-damping performance, which makes it useful for medical ultrasonic crushers and high-end audio speakers.   Titanium is non-toxic and compatible with human tissues, making it popular in medical industry. The similarity between titanium's tensile strength and yield strength indicates poor plastic deformation during forming. The thermal resistance of titanium is low, allowing for a reduction in wall thickness while maintaining heat transfer performance.   The elastic modulus of titanium is 106.4 GPa, which is 57% that of steel. The following is the ionization energy data of titanium (in kJ/mol) M-M+ 658 M+ – M2+ 1310 M2+ – M3+ 2652 M3+ – M4+ 4175 M4+ – M5+ 9573 M5+ – M6+ 11516 M6+ – M7+ 13590 M7+ – M8+ 16260 M8+ – M9+ 18640 M9+ – M10+ 20830 Crystal number: a = 295.08 pm b = 295.08 pm c = 468.55 pm α = 90° β = 90° γ = 120° What is the Melting Point of Titanium? The melting point of pure titanium is theoretically higher than most metals. To be precise, the melting point of titanium is 1725°C (or 3135°F). Titanium has a high melting point due to the strong chemical bonds between its atoms. These strong bonds give titanium excellent corrosion resistance and allow it to withstand high temperatures without deforming or breaking into other compounds.   Why is it Essential to Know the Melting Points of Titanium? To comprehend the characteristics of titanium, it is vital to be aware of the melting point of various metals. This factor influences the metal's utility and performance in various applications. It also impacts the metal's manufacturing process and fabrication ability.   Factors Affecting Melting Temperature of Titanium As you explore the melting temperature of titanium, you will find that this metal starts to melt at 1725°C in its pure form. However, you may notice some variations depending on the level of purity. For instance, if the diffusion mobility of atoms in titanium is changed, the melting point may shift by 450°C. Hence, some titanium alloys may have higher melting points. Here are some examples of the most common titanium alloy melting points: Ti 6AL-4V: 1878 – 1933°C Ti 6AL ELI: 1604 – 1660°C Ti 3Al 2.5: ≤1700°C Ti 5Al-2.5S: ≤1590°C It's important to remember that processes such as dispersion strengthening can significantly improve the melting point of titanium.   Comparison Of Melting Points Of Titanium And Other Metals Here are the melting points of titanium and some other commonly used metals for comparison: Titanium: 1670°C Aluminum: 660°C Aluminum Bronze: 1027-1038°C Brass: 930°C Copper: 1084°C Cast iron 1127 to 1204 Carbon steel 1371 to 1593 Chromium: 1860°C Gold: 1063°C Inconel: 1390-1425°C Incoloy: 1390 to 1425°C Lead: 328°C Molybdenum: 2620°C Magnesium: 349 to 649°C Nickel: 1453°C Platinum: 1770°C Ruthenium: 2482°C Silver: 961°C Stainless Steel: 1375 – 1530°C Tungsten: 3400°C Vanadium: 1900°C Zirconium: 1854°C Zinc: 420°C   The Impact of Titanium's Melting Point on Its Properties and Applications The melting point of titanium is a crucial physical property that greatly affects the properties and uses of titanium materials. It is mainly reflected in the following aspects: Preparation Process The high melting point of titanium makes its preparation process quite complicated. Special preparation processes such as high-temperature melting or powder metallurgy are generally required to obtain high purity titanium material. Mechanical Properties The high melting point of titanium ensures its high thermal stability and resistance to thermal expansion, making it less susceptible to deformation and plastic deformation. Therefore, the mechanical properties of titanium are usually quite stable, with good tensile strength and elastic modulus. Heat Treatment Titanium materials with high melting points are less prone to phase transformation during heat treatment, with excellent heat treatment performance and stable microstructure. It can improve the comprehensive properties of materials, such as hardness, strength, and toughness. Application Scope The high melting point of titanium also limits its application scope, mainly in aerospace, nuclear energy, and other high-temperature, high-strength, and corrosion-resistant environments. It is used in precision equipment and devices such as aviation engines, fuselage skeletons, ship structural components, medical implants, etc.   How to Improve The Melting Point of Titanium? Its solid structure and physical properties determine the melting point of titanium. Several aspects must be considered to improve its melting point, such as purity, crystal form, alloy elements, and special processes. Higher-purity titanium materials generally have higher melting points. To achieve this, high-purity raw materials must be used, and impurities must be minimized during preparation.   The crystal form of titanium also affects its melting point. For instance, the melting point of a half-titanium alloy is higher than that of a half-titanium alloy. Therefore, studying the effects of titanium materials with various crystal forms is essential. The elements added to titanium alloys also significantly impact their melting point. By adjusting the type and content of alloy elements, the melting point of titanium can be improved. For instance, some high-temperature structured titanium alloys use special elements such as rare earth elements and transition metals to increase their melting point.   Special processing and heat treatment techniques can also improve the melting point of titanium materials. For example, new processes such as plasma arc melting and laser cladding can effectively improve the melting point of titanium materials.   The melting point of titanium is one of its essential physical properties, which significantly impacts the properties and applications of titanium materials. The melting point of titanium is approximately 1660 ℃, and its specific value depends on factors such as titanium purity, alloying elements, and crystal structure. Therefore, to improve its melting point, it is necessary to consider multiple aspects, including purity control, appropriate alloy selection, crystal structure adjustment, and special techniques.

2025

02/25

DOES TITANIUM RUST ?
Metals rust and corrode as the result of the metal breaking down when exposed to extreme, wet or acid dominated environments. All metal eventually experiences this kind of break down. Some metals, however, are more resistant to them than others. This is the case of the titanium that is common today.   Titanium is a popular metal that is recognized as more durable and stronger than steel, yet is lighter and more flexible than steel. These properties of titanium make it a popular metal used in chemical plants, airplanes, and various military and engineering applications. Titanium is also used in rifles and air guns. Titanium can withstand extreme temperature and exposure to salt water. It has been hailed as one of the strongest, most durable metals around.   Characteristics of Titanium Titanium is a resilient metal that is also highly reactive. When titanium is exposed to certain environments such as those with hot nitric acid, chlorine, salt water and extreme temperatures, titanium oxide is created on the surface of the titanium. This titanium oxide can occur quickly. It provides a strong, durable, almost impenetrable barrier that protects the pure titanium metal underneath it from further corrosion.   Pure titanium is resistant to rusting and corrosion from liquids including chemicals, acids, and saltwater as well as various gases because of its oxide barrier.   As the name oxide implies, oxygen is needed to produce this barrier. In vacuum-like environments, where oxygen is limited, titanium will corrode and rust quickly. Pure titanium that is completely rust and corrosive resistant, however, is rare and hard to find and produce. Many titanium parts and objects are made of a titanium alloy which includes the combination of various levels of titanium and other metals. Because they are not made of pure titanium, they are susceptible to rust and corrosion. Being more resistant to rust and corrosion than other metals and metal alloys, common titanium used today has the appearance of not rusting or corroding and is more durable and longer-lasting than other metals.   Titanium shavings, like shavings from other metals, are highly reactive and flammable even in relatedly low temperatures. This makes titanium a poor choice for some mechanical operations. Titanium oxide comes in the form of a white powder. This protective barrier does eventually break down, but it takes many years to do so. With its slow corrosion process, titanium is a good choice for piping. Unlike pipes made from other metals, titanium piping typically doesn't require an additional protective coating.   Cleaning Titanium While titanium is tough, durable and rust and corrosion resistant in harsh conditions, it is still susceptible to tarnishing and requires regular, though little cleaning and maintenance.   Titanium is a metal that is easy to maintain, mainly in part because of its unique titanium oxide barrier. With titanium, one doesn't need a fancy store-bought cleaner. DIY cleaning solutions of warm water and jewelry cleaner, mild liquid dish soap or window cleaner works great on sprucing up the appearance of titanium. It's important to note that one should avoid using any bleach or chlorine-based products as these can damage and worsen the look of titanium. After cleaning, dry the titanium with a soft, clean cloth. Colored or dyed titanium pieces, however, should be wiped extra carefully as the coloring can be rubbed off. For titanium that is scratched or tarnished, special metal polisher works best with its oxidation remover properties.   Common Uses For Titanium Titanium has many favorable properties that make it ideal for a variety of uses and applications. It is lightweight, durable, strong, is long-lasting, and is resistant to heat, acid, salt water and chemicals. It is also less prone to rust and corrosion than other metals and alloys. You'll find titanium piping in power plants, desalination plants, off-shore drilling platforms and in everyday private and commercial structures and factories. Titanium is also found in many everyday objects in the home as well.   Titanium Metal Uses One doesn't have to look far to see the widespread use of titanium metal. As titanium is resistant to moisture, certain chemicals, and extreme temperatures, the metal is found in a variety of manufacturing facilities, desalination plants, oil and gas facilities and ocean platforms, power plants and chemical reactors. With its light weight and long life span, titanium piping is a popular addition for a variety of buildings from business offices to hospitals to hotels.   The military and aerospace engineering firms use titanium parts in aircraft, weapons, and vehicles because of its ability to handle extremely high temperatures, and its rust and corrosion resistance. Titanium is found in a variety of car parts such as mufflers and exhaust pipes and in a number of outdoor gear such as hunting knives, fishing reels and poles, golf clubs, air rifles and air pistols.   Titanium Powder Uses Titanium oxide is also used in a variety of ways. Its bright white pigmentation is commonly used as the base for white paint, white colored pencils and white crayons.   The white titanium oxide is also used in make-up such as foundation, blush, lip gloss, and body glitter. It lightens the color of toner and its slight sparkle enhances the shine of body powders and lip gloss.   If you want a strong, long-lasting, corrosion resistant material for your next project, consider titanium. At the Titanium Processing Center, you'll find a variety of titanium grades, parts, sheet size and more to meet your project's needs. Our expert staff can help you pick out the perfect grade, size and part you need. Titanium Processing Center also offers fabrication and sawing services so you can get the exact titanium product you want.

2025

02/19