We are a titanium manufacture with more than 10 years experience, titanium basic products and other titanium customized fabrication, contact info: karen.yang@bjmkgs.com
Titanium can be extracted through Kroll's process or Hunter's process. Kroll's process involves reducing titanium tetrachloride with magnesium at 800°C to produce titanium sponge and magnesium chloride. Hunter's process reduces titanium tetrachloride with sodium in a series of steady-state reactions to produce titanium and sodium chloride. The brittle titanium sponge produced requires further processing like purification and melting to produce ductile titanium for applications such as jet engine components, air frames, and spacecraft.
Titanium is extracted mainly from its ore rutile through the chloride process or the Kroll process. In the chloride process, rutile is converted to titanium tetrachloride which is then purified and oxidized back to titanium dioxide. In the Kroll process, titanium tetrachloride is reduced with magnesium to form titanium sponge. Titanium has a silvery metallic color and is strong yet lightweight, making it useful for applications in aircraft, naval ships, implants, and more. It is also consumed to produce titanium dioxide, which has a wide variety of uses.
The Home Ministry has asked for a ban on ammonium nitrate production in India due to safety risks. This would negatively impact ammonium nitrate producers. Stakeholders need to consider how important ammonium nitrate is for the country's economy and find ways to mitigate risks to producers. Ammonium nitrate is a key ingredient in explosives and is widely used in mining and infrastructure development, which are important industries for India's growth.
Gilligan and Nikoloski 2016 The extraction of uranium from brannerite - ALTA ...Rorie Gilligan
This document summarizes a study on extracting uranium from brannerite ore through acid leaching. Brannerite is an important uranium source that is difficult to process using conventional methods. The study found that brannerite dissolution is strongly dependent on temperature and slightly on acid concentration. Higher temperatures and more acidic conditions improved uranium extraction. Altered or cracked regions of brannerite leached more readily. Associated gangue minerals like fluorite promoted leaching but phosphates suppressed dissolution and formed a titanium oxide coating. Further optimization is needed to account for interference from gangue minerals.
Nitric acid is manufactured through Ostwald's process, which involves the catalytic oxidation of ammonia by air over a platinum catalyst heated to 800°C, forming nitric oxide. The nitric oxide is cooled and oxidized to nitrogen dioxide, which is then absorbed in water in an absorption tower to produce nitric acid solution. The dilute nitric acid is further concentrated by distillation under reduced pressure to obtain approximately 98% nitric acid.
Nitric acid is a strong, corrosive mineral acid that is colorless, though older samples appear yellowish. It is produced commercially at 68% concentration through three main methods, including the arc process. The arc process involves passing air through an electric arc chamber where nitrogen and oxygen combine at high temperatures to form nitric oxide, which is then oxidized to nitrogen dioxide and absorbed to produce nitric acid.
The document provides information about nitric acid, including its physical and chemical properties, manufacturing processes, uses, and production in Pakistan compared to worldwide. It describes nitric acid as a colorless liquid used to make fertilizers, dyes, and explosives. Three common industrial methods are discussed for manufacturing nitric acid: the Chile saltpeter method using sodium nitrate, Birkland-Eyde's method using air, and Ostwald's ammonia oxidation process. Nitric acid production in Pakistan is compared to global production levels, and major Pakistani nitric acid producers are listed.
Titanium can be extracted through Kroll's process or Hunter's process. Kroll's process involves reducing titanium tetrachloride with magnesium at 800°C to produce titanium sponge and magnesium chloride. Hunter's process reduces titanium tetrachloride with sodium in a series of steady-state reactions to produce titanium and sodium chloride. The brittle titanium sponge produced requires further processing like purification and melting to produce ductile titanium for applications such as jet engine components, air frames, and spacecraft.
Titanium is extracted mainly from its ore rutile through the chloride process or the Kroll process. In the chloride process, rutile is converted to titanium tetrachloride which is then purified and oxidized back to titanium dioxide. In the Kroll process, titanium tetrachloride is reduced with magnesium to form titanium sponge. Titanium has a silvery metallic color and is strong yet lightweight, making it useful for applications in aircraft, naval ships, implants, and more. It is also consumed to produce titanium dioxide, which has a wide variety of uses.
The Home Ministry has asked for a ban on ammonium nitrate production in India due to safety risks. This would negatively impact ammonium nitrate producers. Stakeholders need to consider how important ammonium nitrate is for the country's economy and find ways to mitigate risks to producers. Ammonium nitrate is a key ingredient in explosives and is widely used in mining and infrastructure development, which are important industries for India's growth.
Gilligan and Nikoloski 2016 The extraction of uranium from brannerite - ALTA ...Rorie Gilligan
This document summarizes a study on extracting uranium from brannerite ore through acid leaching. Brannerite is an important uranium source that is difficult to process using conventional methods. The study found that brannerite dissolution is strongly dependent on temperature and slightly on acid concentration. Higher temperatures and more acidic conditions improved uranium extraction. Altered or cracked regions of brannerite leached more readily. Associated gangue minerals like fluorite promoted leaching but phosphates suppressed dissolution and formed a titanium oxide coating. Further optimization is needed to account for interference from gangue minerals.
Nitric acid is manufactured through Ostwald's process, which involves the catalytic oxidation of ammonia by air over a platinum catalyst heated to 800°C, forming nitric oxide. The nitric oxide is cooled and oxidized to nitrogen dioxide, which is then absorbed in water in an absorption tower to produce nitric acid solution. The dilute nitric acid is further concentrated by distillation under reduced pressure to obtain approximately 98% nitric acid.
Nitric acid is a strong, corrosive mineral acid that is colorless, though older samples appear yellowish. It is produced commercially at 68% concentration through three main methods, including the arc process. The arc process involves passing air through an electric arc chamber where nitrogen and oxygen combine at high temperatures to form nitric oxide, which is then oxidized to nitrogen dioxide and absorbed to produce nitric acid.
The document provides information about nitric acid, including its physical and chemical properties, manufacturing processes, uses, and production in Pakistan compared to worldwide. It describes nitric acid as a colorless liquid used to make fertilizers, dyes, and explosives. Three common industrial methods are discussed for manufacturing nitric acid: the Chile saltpeter method using sodium nitrate, Birkland-Eyde's method using air, and Ostwald's ammonia oxidation process. Nitric acid production in Pakistan is compared to global production levels, and major Pakistani nitric acid producers are listed.
This document describes the extraction and properties of titanium. It discusses how titanium is extracted via the chloride process or by reducing titanium dioxide with carbon or magnesium. It explains the purification of titanium chloride and oxidation back to titanium dioxide. Some key properties of titanium include its silvery metallic color, high melting point, low density, and strength at high temperatures. It is used in aircraft, ships, and implants due to these desirable properties.
The document discusses the extraction process of titanium from its common mineral sources such as rutile and ilmenite. It involves upgrading the titanium content of ilmenite through smelting or acid leaching. Titanium dioxide is extracted from these sources and converted to titanium tetrachloride via chlorination. The titanium tetrachloride is then reduced to titanium metal using magnesium or sodium in the Kroll process. The properties and applications of titanium in aerospace, chemical and nuclear industries are also mentioned.
This document provides information on the element titanium. It begins with a brief history of titanium's discovery. It then discusses titanium's physical properties, common ores that contain titanium like rutile and ilmenite, and the extraction processes developed by Kroll and Hunter to produce titanium metal. The document outlines some common titanium alloys produced by adding elements like aluminum and vanadium. Finally, it discusses applications of titanium in various industries like aerospace, medical implants, and automotive due to its high strength to weight ratio and corrosion resistance.
Titanium is extracted from its two most common ores, rutile and ilmenite. Rutile has a tetragonal crystal structure and is the preferred polymorph of titanium dioxide. Ilmenite is an iron-titanium oxide mineral. Titanium is extracted from these ores through chlorination to produce titanium tetrachloride, which is then purified and reduced, often using magnesium or sodium, to produce titanium sponge. Titanium has a variety of applications due to its high strength-to-weight ratio and corrosion resistance, including use in aircraft, armor, ships, and prosthetics.
The document discusses the extraction of titanium from its main ores, rutile and ilmenite. It describes the discovery and properties of titanium. The Kroll process is discussed as the primary industrial process for extracting titanium by reducing titanium tetrachloride into sponge titanium. Applications of titanium include use in aircraft, missiles, spacecraft, and chemicals due to its high strength-to-density ratio and corrosion resistance.
The document discusses the extraction of titanium from its main ores, rutile and ilmenite. It describes the discovery and properties of titanium. The Kroll process is discussed as the primary industrial process for extracting titanium by reducing titanium tetrachloride into sponge titanium. Applications of titanium include use in aircraft, missiles, spacecraft, and chemicals due to its high strength-to-density ratio and corrosion resistance.
- Aluminum is extracted from bauxite ore through the Bayer process, which purifies the aluminum oxide. The aluminum oxide is then electrolyzed in a cryolite solution to produce aluminum metal.
- Titanium is extracted from rutile ore by first converting it to titanium tetrachloride, then reducing it with magnesium or sodium to produce titanium metal.
- Improving extraction methods involves using cheaper or less energy intensive reduction processes like indirect carbothermic reduction of aluminum.
Titanium is extracted mainly from the ore rutile through the chloride process or the Kroll process. In the chloride process, rutile is converted to titanium tetrachloride which is then purified through distillation before being oxidized to titanium dioxide. Alternatively, the Kroll process reduces titanium tetrachloride to titanium metal using magnesium. Titanium has many uses due to its high strength to weight ratio, including in aircraft, ships, implants, and steel and stainless steel alloys.
Metal ores contain metals combined with other elements like oxygen or sulfur. Sulfide ores are converted to oxides through roasting, which produces sulfur dioxide as a waste product. Metals are extracted from their ores through reduction, using reducing agents like carbon or hydrogen to remove oxygen. Aluminum requires electrolysis due to its reactivity, while titanium and tungsten use sodium or magnesium due to carbide formation. Recycling scrap metals reduces environmental impacts versus extracting new metals.
Metal ores contain metals combined with other elements like oxygen or sulfur. Sulfide ores are converted to oxides through roasting, which produces sulfur dioxide as a waste product. Metals are extracted from their ores through reduction, using reducing agents like carbon or hydrogen to remove oxygen. Aluminum requires electrolysis due to its high reactivity, while titanium and tungsten use sodium or magnesium as reducing agents instead of carbon. Recycling scrap metals reduces environmental impacts compared to extracting virgin metals.
This document summarizes the contact process for producing sulfuric acid. It involves three main steps: 1) sulfur is burned to produce sulfur dioxide, 2) the sulfur dioxide is converted to sulfur trioxide in the presence of a catalyst, and 3) the sulfur trioxide is dissolved in concentrated sulfuric acid to produce oleum, which is then diluted with water to form concentrated sulfuric acid. The major raw materials are sulfur, air, and water. Sulfuric acid has many industrial uses such as fertilizer and metal production.
Metals are usually found as metal oxides or sulfides in ores. To extract the metal, the ore undergoes a reduction reaction where a reducing agent removes the oxygen. Common reducing agents include carbon, carbon monoxide, and hydrogen. Extraction of iron uses carbon in a blast furnace, while aluminum requires an electrolysis process due to its high reactivity. Recycling scrap metals provides environmental and economic benefits by reducing waste and saving energy compared to extracting from ores.
The document summarizes the process of converting iron ore into steel. It involves two main steps:
1. Production of molten iron from iron oxides through reduction in rotary kilns using carbon monoxide produced from coal and limestone. This yields a product called RPCC that is around 70% metallic iron.
2. Steel making which involves removing impurities from the molten iron through oxidation and producing molten steel. Key processes include vanadium recovery, using oxygen to create slag and stirring the metal, and the KOBM process to blow oxygen and further purify the molten iron into steel.
Titanium is a lustrous transition metal with low density and high strength. It is produced commercially from titanium dioxide via the Kroll process. Titanium has excellent corrosion resistance and high strength at elevated temperatures, making it useful for applications in aerospace, marine, chemical and biomedical industries. It exists in two crystal structures, hexagonal close-packed at lower temperatures and body-centered cubic at higher temperatures, and can be alloyed to modify its properties for different applications.
Sulfuric acid is produced via the contact process, which involves three main steps:
1) Sulfur is burned to produce sulfur dioxide gas.
2) Sulfur dioxide is converted to sulfur trioxide gas over a vanadium pentoxide catalyst.
3) Sulfur trioxide is dissolved in concentrated sulfuric acid to form oleum, which is then diluted with water to produce 98% sulfuric acid.
This document summarizes three titanium chlorides - titanium dichloride, titanium trichloride, and titanium tetrachloride. It provides their chemical formulas, melting and boiling points, molecular masses, and common applications. Titanium dichloride contains two chlorides with titanium and reacts with water. Titanium trichloride is violet colored and used in organic synthesis. Titanium tetrachloride is colorless and an important intermediate in producing titanium metal and titanium dioxide pigment.
Titanium production is a capital-intensive and energy-intensive process requiring high temperatures and special processing techniques due to titanium's reactivity. It involves multiple steps including chlorinating titanium ore to produce titanium tetrachloride, reducing it with magnesium to form titanium sponge, and then melting the sponge in an electric arc furnace to produce ingots. Producing parts from ingots also requires multi-step milling and fabrication processes that are complicated by titanium's hardness and reactivity which increase costs.
Titanium is a silver-white transition metal that is characterized by light weight and high strength. It is corrosion resistant but cannot be used in dry chlorine gas, as it will react violently and decompose or combust. Titanium maintains stability only when the moisture content in chlorine gas is above 0.5%. Though titanium is dispersed and difficult to extract from nature, making it rare, it is relatively abundant as the tenth most common element. The main titanium ores are ilmenite and rutile. Extraction requires the Kroll process or Hunter process. The most common titanium compound is titanium dioxide, used to make white pigments, while other compounds have industrial applications as catalysts or for smoke screens.
The document discusses the extraction of various metals from their ores. It describes how very reactive metals like sodium and aluminum require electrolysis to extract them from molten ores due to their high reactivity. Less reactive metals like iron can be extracted by heating their ores with carbon to reduce the metal oxides. Specific examples discussed include the extraction of aluminum from bauxite using electrolysis, tin from cassiterite by heating with carbon, and iron from iron oxide in a blast furnace. The extraction of lead through electrolysis of molten lead bromide is also summarized.
Bellows forming Bellows can be formed by hydroforming, roll forming and mechanical bulging. However, due to the large deformation resistance of titanium, the rebound is serious, the plastic deformation ability is poor, and the cold hardening process, Using roll forming and mechanical bulging method, the equipment is complex, high scrap rate, high cost.
Titanium bellows have properties suitable for manufacturing bellows such as working temperature, cyclic stress resistance, and corrosion resistance. However, titanium has poor formability due to its high work hardening rate and poor plastic deformation ability. This makes the production of titanium bellows very difficult. Titanium is also active chemically and can react with elements like carbon, hydrogen, nitrogen and oxygen at high temperatures, making the material brittle. For these reasons, only a small number of studies have reported the production and use of titanium bellows so far.
This document describes the extraction and properties of titanium. It discusses how titanium is extracted via the chloride process or by reducing titanium dioxide with carbon or magnesium. It explains the purification of titanium chloride and oxidation back to titanium dioxide. Some key properties of titanium include its silvery metallic color, high melting point, low density, and strength at high temperatures. It is used in aircraft, ships, and implants due to these desirable properties.
The document discusses the extraction process of titanium from its common mineral sources such as rutile and ilmenite. It involves upgrading the titanium content of ilmenite through smelting or acid leaching. Titanium dioxide is extracted from these sources and converted to titanium tetrachloride via chlorination. The titanium tetrachloride is then reduced to titanium metal using magnesium or sodium in the Kroll process. The properties and applications of titanium in aerospace, chemical and nuclear industries are also mentioned.
This document provides information on the element titanium. It begins with a brief history of titanium's discovery. It then discusses titanium's physical properties, common ores that contain titanium like rutile and ilmenite, and the extraction processes developed by Kroll and Hunter to produce titanium metal. The document outlines some common titanium alloys produced by adding elements like aluminum and vanadium. Finally, it discusses applications of titanium in various industries like aerospace, medical implants, and automotive due to its high strength to weight ratio and corrosion resistance.
Titanium is extracted from its two most common ores, rutile and ilmenite. Rutile has a tetragonal crystal structure and is the preferred polymorph of titanium dioxide. Ilmenite is an iron-titanium oxide mineral. Titanium is extracted from these ores through chlorination to produce titanium tetrachloride, which is then purified and reduced, often using magnesium or sodium, to produce titanium sponge. Titanium has a variety of applications due to its high strength-to-weight ratio and corrosion resistance, including use in aircraft, armor, ships, and prosthetics.
The document discusses the extraction of titanium from its main ores, rutile and ilmenite. It describes the discovery and properties of titanium. The Kroll process is discussed as the primary industrial process for extracting titanium by reducing titanium tetrachloride into sponge titanium. Applications of titanium include use in aircraft, missiles, spacecraft, and chemicals due to its high strength-to-density ratio and corrosion resistance.
The document discusses the extraction of titanium from its main ores, rutile and ilmenite. It describes the discovery and properties of titanium. The Kroll process is discussed as the primary industrial process for extracting titanium by reducing titanium tetrachloride into sponge titanium. Applications of titanium include use in aircraft, missiles, spacecraft, and chemicals due to its high strength-to-density ratio and corrosion resistance.
- Aluminum is extracted from bauxite ore through the Bayer process, which purifies the aluminum oxide. The aluminum oxide is then electrolyzed in a cryolite solution to produce aluminum metal.
- Titanium is extracted from rutile ore by first converting it to titanium tetrachloride, then reducing it with magnesium or sodium to produce titanium metal.
- Improving extraction methods involves using cheaper or less energy intensive reduction processes like indirect carbothermic reduction of aluminum.
Titanium is extracted mainly from the ore rutile through the chloride process or the Kroll process. In the chloride process, rutile is converted to titanium tetrachloride which is then purified through distillation before being oxidized to titanium dioxide. Alternatively, the Kroll process reduces titanium tetrachloride to titanium metal using magnesium. Titanium has many uses due to its high strength to weight ratio, including in aircraft, ships, implants, and steel and stainless steel alloys.
Metal ores contain metals combined with other elements like oxygen or sulfur. Sulfide ores are converted to oxides through roasting, which produces sulfur dioxide as a waste product. Metals are extracted from their ores through reduction, using reducing agents like carbon or hydrogen to remove oxygen. Aluminum requires electrolysis due to its reactivity, while titanium and tungsten use sodium or magnesium due to carbide formation. Recycling scrap metals reduces environmental impacts versus extracting new metals.
Metal ores contain metals combined with other elements like oxygen or sulfur. Sulfide ores are converted to oxides through roasting, which produces sulfur dioxide as a waste product. Metals are extracted from their ores through reduction, using reducing agents like carbon or hydrogen to remove oxygen. Aluminum requires electrolysis due to its high reactivity, while titanium and tungsten use sodium or magnesium as reducing agents instead of carbon. Recycling scrap metals reduces environmental impacts compared to extracting virgin metals.
This document summarizes the contact process for producing sulfuric acid. It involves three main steps: 1) sulfur is burned to produce sulfur dioxide, 2) the sulfur dioxide is converted to sulfur trioxide in the presence of a catalyst, and 3) the sulfur trioxide is dissolved in concentrated sulfuric acid to produce oleum, which is then diluted with water to form concentrated sulfuric acid. The major raw materials are sulfur, air, and water. Sulfuric acid has many industrial uses such as fertilizer and metal production.
Metals are usually found as metal oxides or sulfides in ores. To extract the metal, the ore undergoes a reduction reaction where a reducing agent removes the oxygen. Common reducing agents include carbon, carbon monoxide, and hydrogen. Extraction of iron uses carbon in a blast furnace, while aluminum requires an electrolysis process due to its high reactivity. Recycling scrap metals provides environmental and economic benefits by reducing waste and saving energy compared to extracting from ores.
The document summarizes the process of converting iron ore into steel. It involves two main steps:
1. Production of molten iron from iron oxides through reduction in rotary kilns using carbon monoxide produced from coal and limestone. This yields a product called RPCC that is around 70% metallic iron.
2. Steel making which involves removing impurities from the molten iron through oxidation and producing molten steel. Key processes include vanadium recovery, using oxygen to create slag and stirring the metal, and the KOBM process to blow oxygen and further purify the molten iron into steel.
Titanium is a lustrous transition metal with low density and high strength. It is produced commercially from titanium dioxide via the Kroll process. Titanium has excellent corrosion resistance and high strength at elevated temperatures, making it useful for applications in aerospace, marine, chemical and biomedical industries. It exists in two crystal structures, hexagonal close-packed at lower temperatures and body-centered cubic at higher temperatures, and can be alloyed to modify its properties for different applications.
Sulfuric acid is produced via the contact process, which involves three main steps:
1) Sulfur is burned to produce sulfur dioxide gas.
2) Sulfur dioxide is converted to sulfur trioxide gas over a vanadium pentoxide catalyst.
3) Sulfur trioxide is dissolved in concentrated sulfuric acid to form oleum, which is then diluted with water to produce 98% sulfuric acid.
This document summarizes three titanium chlorides - titanium dichloride, titanium trichloride, and titanium tetrachloride. It provides their chemical formulas, melting and boiling points, molecular masses, and common applications. Titanium dichloride contains two chlorides with titanium and reacts with water. Titanium trichloride is violet colored and used in organic synthesis. Titanium tetrachloride is colorless and an important intermediate in producing titanium metal and titanium dioxide pigment.
Titanium production is a capital-intensive and energy-intensive process requiring high temperatures and special processing techniques due to titanium's reactivity. It involves multiple steps including chlorinating titanium ore to produce titanium tetrachloride, reducing it with magnesium to form titanium sponge, and then melting the sponge in an electric arc furnace to produce ingots. Producing parts from ingots also requires multi-step milling and fabrication processes that are complicated by titanium's hardness and reactivity which increase costs.
Titanium is a silver-white transition metal that is characterized by light weight and high strength. It is corrosion resistant but cannot be used in dry chlorine gas, as it will react violently and decompose or combust. Titanium maintains stability only when the moisture content in chlorine gas is above 0.5%. Though titanium is dispersed and difficult to extract from nature, making it rare, it is relatively abundant as the tenth most common element. The main titanium ores are ilmenite and rutile. Extraction requires the Kroll process or Hunter process. The most common titanium compound is titanium dioxide, used to make white pigments, while other compounds have industrial applications as catalysts or for smoke screens.
The document discusses the extraction of various metals from their ores. It describes how very reactive metals like sodium and aluminum require electrolysis to extract them from molten ores due to their high reactivity. Less reactive metals like iron can be extracted by heating their ores with carbon to reduce the metal oxides. Specific examples discussed include the extraction of aluminum from bauxite using electrolysis, tin from cassiterite by heating with carbon, and iron from iron oxide in a blast furnace. The extraction of lead through electrolysis of molten lead bromide is also summarized.
Bellows forming Bellows can be formed by hydroforming, roll forming and mechanical bulging. However, due to the large deformation resistance of titanium, the rebound is serious, the plastic deformation ability is poor, and the cold hardening process, Using roll forming and mechanical bulging method, the equipment is complex, high scrap rate, high cost.
Titanium bellows have properties suitable for manufacturing bellows such as working temperature, cyclic stress resistance, and corrosion resistance. However, titanium has poor formability due to its high work hardening rate and poor plastic deformation ability. This makes the production of titanium bellows very difficult. Titanium is also active chemically and can react with elements like carbon, hydrogen, nitrogen and oxygen at high temperatures, making the material brittle. For these reasons, only a small number of studies have reported the production and use of titanium bellows so far.
Aerospace and aerospace materials are very demanding, not only requires high strength materials, high temperature, corrosion resistance, and requires good shape and good processing performance, but also to take special surface treatment technology to increase its strength and hardness.
Contact info: Karen.yang@bjmkgs.com
Titanium Deep Water / Underwater Camera HousingLeon Chen
Titanium Deep Water / Underwater Camera Housing,
Anti-seawater corrosion, anti-deep pressure, the dive depth. Meanwhile titanium non-magnetic, will not be found by the mine, has a very good anti-guard effect.
Contact info: Karen.yang@bjmkgs.com
Titanium is a strong, lightweight metal. It is also strong as steel but 45% lighter. It is also twice as strong as aluminium. The heat transfer properties of titanium approximate those of admiralty brass and copper nickel.
Baoji Mingkun Nonferrous Metal co., ltd is a leading manufacturer of titanium and titanium alloy products established in 2007. They specialize in plates, bars, pipes, wire and special-shaped pieces made from titanium, tantalum, nickel, zirconium, niobium, and their alloys. Their products serve markets such as oilfield, marine, automotive, industrial, and military through manufacturing processes like forging, rolling, and machining of titanium grades including Grade 1, 2, 5, 7, and 9.
This document contains an email address - Titaniumalloy@bjmkgs.com. No other context or information is provided about the purpose or intended recipient of the email address. The email address listed may be used for contacting an individual or organization regarding an unspecified topic or matter.
Titanium Bars & Rods
grade5 titanium alloy forged bars
ASTM B348-GR5 titanium alloy bars
● Product Description
Titanium bars and billets can be round, rectangular and hexangular in different sizes. They are all made from quality titanium ingots.
Bar products can meet various standards, including ASTM B348, ASTM F67, ASTM F136 and AMS 4928. And the grades can be Commercial Pure, Grade 5, Grade 6, Grade 7, Grade 12 and Grade 23.
Usually we have some most common bars in stock, such as bars of Grade1, Grade 2 and Grade 5. And we can offer prompt delivery worldwide!
● Grade
Grade1 Ti
Grade2 Ti
Grade5 Ti-6Al-4V
Grade6 Ti-5Al-2.5Sn
Grade7 Ti-0.2Pd
Grade9 Ti-3Al-2.5V
Grade12 Ti-0.3Mo-0.8Ni
Grade23 Ti-6Al-4V ELI
● Sepcification
ASTM B348, ASTM F67, ASTM F136, AMS 4928, MIL-T-9047
● Size:
Diameter: 1mm up to 300mm
Length by custom request!
Titanium sheet and plate are defined with the only difference of sizes. All these products are made from titanium slabs by cold rolling or hot rolling. ASTM B265 is the most common used standard. We can also supply materials as per AMS 4911, ASTM F136 etc. Annealed materials can be furnished as descaled and sandblasted on your request.
We have a rich stock of these products in CP and 6Al4V alloy, and they can be cut to any custom sizes at reasonable charge. Please contact our sales department if you have interest.
Baoji mingkun nonferrous metal co.,ltd is a leading manufacturer of titanium products such as bars, tubes, pipes, fittings and finished components. They process titanium to meet customer specifications using forging, rolling, and machining. They offer titanium in common grades including Grades 1, 2, 5, 7 and 9 for markets such as oilfield, marine, industrial, military, and automotive to reduce weight and increase corrosion resistance and strength.
Discover timeless style with the 2022 Vintage Roman Numerals Men's Ring. Crafted from premium stainless steel, this 6mm wide ring embodies elegance and durability. Perfect as a gift, it seamlessly blends classic Roman numeral detailing with modern sophistication, making it an ideal accessory for any occasion.
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The Most Inspiring Entrepreneurs to Follow in 2024.pdfthesiliconleaders
In a world where the potential of youth innovation remains vastly untouched, there emerges a guiding light in the form of Norm Goldstein, the Founder and CEO of EduNetwork Partners. His dedication to this cause has earned him recognition as a Congressional Leadership Award recipient.
Storytelling is an incredibly valuable tool to share data and information. To get the most impact from stories there are a number of key ingredients. These are based on science and human nature. Using these elements in a story you can deliver information impactfully, ensure action and drive change.
NIMA2024 | De toegevoegde waarde van DEI en ESG in campagnes | Nathalie Lam |...BBPMedia1
Nathalie zal delen hoe DEI en ESG een fundamentele rol kunnen spelen in je merkstrategie en je de juiste aansluiting kan creëren met je doelgroep. Door middel van voorbeelden en simpele handvatten toont ze hoe dit in jouw organisatie toegepast kan worden.
𝐔𝐧𝐯𝐞𝐢𝐥 𝐭𝐡𝐞 𝐅𝐮𝐭𝐮𝐫𝐞 𝐨𝐟 𝐄𝐧𝐞𝐫𝐠𝐲 𝐄𝐟𝐟𝐢𝐜𝐢𝐞𝐧𝐜𝐲 𝐰𝐢𝐭𝐡 𝐍𝐄𝐖𝐍𝐓𝐈𝐃𝐄’𝐬 𝐋𝐚𝐭𝐞𝐬𝐭 𝐎𝐟𝐟𝐞𝐫𝐢𝐧𝐠𝐬
Explore the details in our newly released product manual, which showcases NEWNTIDE's advanced heat pump technologies. Delve into our energy-efficient and eco-friendly solutions tailored for diverse global markets.
How are Lilac French Bulldogs Beauty Charming the World and Capturing Hearts....Lacey Max
“After being the most listed dog breed in the United States for 31
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HR search is critical to a company's success because it ensures the correct people are in place. HR search integrates workforce capabilities with company goals by painstakingly identifying, screening, and employing qualified candidates, supporting innovation, productivity, and growth. Efficient talent acquisition improves teamwork while encouraging collaboration. Also, it reduces turnover, saves money, and ensures consistency. Furthermore, HR search discovers and develops leadership potential, resulting in a strong pipeline of future leaders. Finally, this strategic approach to recruitment enables businesses to respond to market changes, beat competitors, and achieve long-term success.
Garments ERP Software in Bangladesh _ Pridesys IT Ltd.pdfPridesys IT Ltd.
Pridesys Garments ERP is one of the leading ERP solution provider, especially for Garments industries which is integrated with
different modules that cover all the aspects of your Garments Business. This solution supports multi-currency and multi-location
based operations. It aims at keeping track of all the activities including receiving an order from buyer, costing of order, resource
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The Genesis of BriansClub.cm Famous Dark WEb PlatformSabaaSudozai
BriansClub.cm, a famous platform on the dark web, has become one of the most infamous carding marketplaces, specializing in the sale of stolen credit card data.
Zodiac Signs and Food Preferences_ What Your Sign Says About Your Tastemy Pandit
Know what your zodiac sign says about your taste in food! Explore how the 12 zodiac signs influence your culinary preferences with insights from MyPandit. Dive into astrology and flavors!
[To download this presentation, visit:
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This PowerPoint compilation offers a comprehensive overview of 20 leading innovation management frameworks and methodologies, selected for their broad applicability across various industries and organizational contexts. These frameworks are valuable resources for a wide range of users, including business professionals, educators, and consultants.
Each framework is presented with visually engaging diagrams and templates, ensuring the content is both informative and appealing. While this compilation is thorough, please note that the slides are intended as supplementary resources and may not be sufficient for standalone instructional purposes.
This compilation is ideal for anyone looking to enhance their understanding of innovation management and drive meaningful change within their organization. Whether you aim to improve product development processes, enhance customer experiences, or drive digital transformation, these frameworks offer valuable insights and tools to help you achieve your goals.
INCLUDED FRAMEWORKS/MODELS:
1. Stanford’s Design Thinking
2. IDEO’s Human-Centered Design
3. Strategyzer’s Business Model Innovation
4. Lean Startup Methodology
5. Agile Innovation Framework
6. Doblin’s Ten Types of Innovation
7. McKinsey’s Three Horizons of Growth
8. Customer Journey Map
9. Christensen’s Disruptive Innovation Theory
10. Blue Ocean Strategy
11. Strategyn’s Jobs-To-Be-Done (JTBD) Framework with Job Map
12. Design Sprint Framework
13. The Double Diamond
14. Lean Six Sigma DMAIC
15. TRIZ Problem-Solving Framework
16. Edward de Bono’s Six Thinking Hats
17. Stage-Gate Model
18. Toyota’s Six Steps of Kaizen
19. Microsoft’s Digital Transformation Framework
20. Design for Six Sigma (DFSS)
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Titanium bars melting method
1. Titanium Bars Melting Method
Preparation of metal titanium raw materials mainly rutile,
which contains more than 96% TiO2. The lack of rutile
countries, such as the Soviet Union, is made of ilmenite
"high titanium slag", which contains about 90% TiO2.
Due to natural rutile prices and reserves decreased,
countries tend to use titanium oxide made of titanium
material, that is, high titanium slag and artificial rutile.
2. Preparationof titaniumprocess
Titanium was discovered in 1791, and the first pure
titanium was made in 1910, the middle experienced a
hundred years. The reason is: titanium in the nature of
the very lively, very easy and oxygen, nitrogen, carbon
and other elements of the combination, to extract pure
titanium needs very harsh conditions.
3. Industrial commonly used sulfuric acid decomposition of
ilmenite method of preparation of titanium dioxide,
titanium dioxide and then made from titanium.
Concentrated sulfuric acid treatment of ground ilmenite
(concentrate), the following chemical reactions occur:
FeTiO3+3H2SO4 == Ti(SO4)2+FeSO4+3H2O
FeTiO3+2H2SO4 == TiOSO4+FeSO4+2H2O
FeO+H2SO4 == FeSO4+H2O
Fe2O3+3H2SO4 ==Fe2(SO4)3+3H2O
4. In order to remove the impurity Fe2 (SO4) 3, iron is
added, Fe3 + is reduced to Fe2 +, and the solution is
cooled to below 273K, so that FeSO4.7H2O (green alum)
is crystallized as a by-product.
Ti (SO4) 2 and TiOSO4 hydrolysis precipitation of white
metatitanate precipitation, the reaction is:
5. Ti (SO4) 2 + H2O == TiOSO4 + H2SO4
TiOSO4 + 2H2O == H2TiO3 + H2SO4
Calcined metatitanic acid that is made of titanium
dioxide:
H2TiO3 == TiO2 + H2O
Titanium tetrachloride is reduced by metal thermal
reduction using metallic titanium. The TiO2 (or natural
rutile) and carbon powder mixed heating to 1000 ~
1100K, chlorination treatment, and the formation of
TiCl4, steam condensation.
TiO2 + 2C + 2Cl2 = TiCl4 + 2CO
In the 1070K with molten magnesium in argon to reduce
the TiCl4 available porous titanium sponge:
TiCl4 + 2Mg = 2MgCl2 + Ti
6. This titanium sponge after crushing, into the vacuum arc
furnace smelting, and finally made a variety of titanium.
It can also be reacted: Ti + 2CI2 = TiCI4
The resulting TiCI4 is decomposed by high temperature
(about 1250 ° C)
TiCI4 = Ti + 2CI2
Thereby obtaining a pure titanium rod.