Titanium Powder, Titanium Ingot, Titanium Block,Titanium Plate, Titanium Pipe, Titanium Strip, Titanium Bar,Titanium Rod,Titanium Wires,Titanium Products
medical Use:titanium is Completely Inert to Human Body Fluids, Making It Ideal for Medical Replacement Structures such as Hip and Knee Implants. Titanium Actually Allows Bone Growth to Adhere to the Implants, So They Last Longer Than Those Made of other Materials. Reconstructive Titanium Plates and Mesh that Support Broken Bones are also Commonly Used Today
titanium (melting Point: 3034 F (1668 C)). Titanium is a Reactive, Refractory Metal. the Most Common Use of Titanium and Its Alloys in the Hydrocarbon and Chemical Process Industries is in Heat Transfer Applications. It is Resistant to a Wide Range of Range of Both Organic and Inorganic Corrodents. It Finds Relatively Widespread Acceptance as Heat Exchanger Tubing for Corrosive Processes On One Side and Corrosive Cooling Water such as Seawater On the other Side. Titanium is also Commonly Used for Wet Chlorine and for Concentrated Hot Caustic Solutions. Titanium Usage is Becoming More Common as It Becomes More Cost Competitive with Conventional Corrosion Resistant Alloys such as the 300-series Stainless Steels. Titanium Can Be Useful in Mildly Reducing Applications such as Wet Alkaline Sour Overhead Condensing Systems, if They are Properly Designed and Fabricated. However, Titanium (and the other Reactive and Refractory Metals) Can Be Unstable in Strongly Reducing Environments. Selection Should Be Based On Experience or Should Be Justified By a Testing Program. Titanium Can Become Unstable in the Presence of Powerful Oxidizers. Examples Include Dry Chlorine, Red Fuming Nitric Acid and Liquid Oxygen. in Addition, Titanium Can Be Embrittled By the Formation of Hydrides”

Titanium Powder, Titanium Ingot, Titanium Block,Titanium Plate, Titanium Pipe, Titanium Strip, Titanium Bar,Titanium Rod,Titanium Wires,Titanium Products
medical Use:titanium is Completely Inert to Human Body Fluids, Making It Ideal for Medical Replacement Structures such as Hip and Knee Implants. Titanium Actually Allows Bone Growth to Adhere to the Implants, So They Last Longer Than Those Made of other Materials. Reconstructive Titanium Plates and Mesh that Support Broken Bones are also Commonly Used Today
titanium (melting Point: 3034 F (1668 C)). Titanium is a Reactive, Refractory Metal. the Most Common Use of Titanium and Its Alloys in the Hydrocarbon and Chemical Process Industries is in Heat Transfer Applications. It is Resistant to a Wide Range of Range of Both Organic and Inorganic Corrodents. It Finds Relatively Widespread Acceptance as Heat Exchanger Tubing for Corrosive Processes On One Side and Corrosive Cooling Water such as Seawater On the other Side. Titanium is also Commonly Used for Wet Chlorine and for Concentrated Hot Caustic Solutions. Titanium Usage is Becoming More Common as It Becomes More Cost Competitive with Conventional Corrosion Resistant Alloys such as the 300-series Stainless Steels. Titanium Can Be Useful in Mildly Reducing Applications such as Wet Alkaline Sour Overhead Condensing Systems, if They are Properly Designed and Fabricated. However, Titanium (and the other Reactive and Refractory Metals) Can Be Unstable in Strongly Reducing Environments. Selection Should Be Based On Experience or Should Be Justified By a Testing Program. Titanium Can Become Unstable in the Presence of Powerful Oxidizers. Examples Include Dry Chlorine, Red Fuming Nitric Acid and Liquid Oxygen. in Addition, Titanium Can Be Embrittled By the Formation of Hydrides”