Titanium Products

• Resistance to solutions of chlorites, hypochlorite, perchlorates and chlorine dioxide
• Brine solutions
• Durability
• Corrosion resistance
• Application in reducing acids
• Available in Round, square, rectangular, hydraulic etc. forms and types, these pipes are known for their hassle free performance, long service life and unmatched quality

• 1/8" NPS through 6" NPS (Sch 10S and Sch 40S)
• 3/4" NPS through 24" NPS (Sch 10S and Sch 40S)

• Outstanding corrosion resistance
• Superior strength-to-weight ratios
• Low density
• High heat-resistance
• High heat transfer capability
• Very good oxidation capabilities
• High melting point
• Low elasticity module
• Excellent erosion resistance
• Low thermal expansion coefficient

Because of its strength, unique density and corrosion resistance, titanium has found applications in many industries. For high quality tubing products, it’s often a better substance to use than competing materials like stainless steels or super alloys.

Fine Tubes manufactures titanium tubes in the following alloys:

• Alloy Ti CP - Grade 1 (UNS R50250)
• Alloy Ti CP - Grade 2 (UNS R50400)
• Alloy Ti 3Al/2.5V - Grade 9 (UNS R56320)
• Alloy Ti 6Al/4V - Grade 5 (UNS R56400)
• Alloy Ti 5Al/4V
• Alloy Ti 4Al/2.5V

• Use of low cutting speeds to minimize heat built-up. Excessive cutting speeds are much more harmful with titanium than with other materials: a 30% increase in speed can reduce tool life by 80%.
• Use of relatively high speeds of travel. Temperature is less influenced by speed of travel than by cutting speed. Travel speeds should therefore be as high as compatible with efficient working.
• Use of a large flow of cutting fluid to increase the cooling effect. Also, the fluid must be oriented directly to the cutting point. Because of the low heat conductivity, the refrigerating effect is in fact very reduced unless it is carried directly on the point at which the heat is created.
• Use of tools with controlled sharpening and their replacement as soon as they become worn. When working with a complex tooling machine or machining station due to the amortization costs of the machine, production is much more important than the lifetime of the cutting tool. lt is therefore advisable to use the tool to the limit of its capacity and to replace it as soon as its cutting efficiency starts to reduce.
• Guaranty of high stiffness for the whole machining system (machine, spindle, tool holder and tool) to compensate for the elasticity of the material and to reduce vibrations to a minimum level.
• No stopping on travel whilst the work piece and the tool are in Contact. Leaving the tool in position causes the material to be immediately hardened and over-heated and causes abrasions, seizing up and breakage of the tool.
• Items with thin wall and narrow tolerances machined out of solid bars should be pre-machined close down to final size, and kept a day for stabilization prior to final machining of the item.

Other details:

• Seamless
• Fabricated
• ERW
• Welded

Value Added Services:

• Hot Dipped Galvanizing
• Draw & Expansion
• Epoxy & FBE Coating
• Electro Polish

Titanium Seamless Pipe:

• OD - 1/8" (3.18 mm) to 1-1/2" (38.1 mm) Wall - .016" (4 mm) to .065" (1.65 mm)

• Titanium Round Bars Grade 2
• Titanium Round Bars Grade 5. Titanium Round Bars as per ASTM , GB, DIN, ASME.
• We can offer round Bar up to 750 mm Dia & 6000 mm in Length.

• As a family, titanium and its alloys have developed a mystique as a nightmare to machine. This is simply not the case. Experienced operators have compared its characteristics to those found in 316 stainless steel. Recommended practice includes high coolant flow (to offset the material's low thermal conductivity), slow speeds and relatively high feed rates.

• Titanium Grade 1-4 is pure Titanium, the other grades are alloys. Pure Titanium is used due to its high corrosion resistance, the alloys because of the extremely high strength to weight ratio.
• Grade 1. Pure Titanium, relatively low strength and high ductility.
• Grade 2. The pure titanium most used. The best combination of strength, ductility and weldability.
• Grade 3. High strength Titanium, used for Matrix-plates in shell and tube heat exchangers.
• Grade 5. The most manufactured titanium alloy. Exceedingly high strength. High heat resistance.
• Grade 7. Superior corrosion resistance in reducing and oxidizing environments.
• Grade 9. Very high strength and corrosion resistance..
• Grade 12. Better heat resistance than pure Titanium. Applications as for Grade 7 and Grade 11.
• Grade 23. Titanium-6Aluminum-4Vanadium ELI (Extra Low Interstitial) Alloy for surgical implant Applications.

• High strength
• Fine corrosion resistance
• Low density, light weight
• high/low temperature resistance
• High resistance to strong acid.alkali

• Machinery equipment, electroplating equipment, medical, all kinds of precision machinery part etc.

• Pay Mode Terms: L/C (Letter of Credit),T/T (Bank Transfer)

• Elbow short radius butt-welding 90°
• 1" through 24" nps sch 1os and 40s
• Elbow long radius butt-welding 45
• 1/2" through 48" nps sch 10s and 40s

• 1/4 " through 4" NPS

• 1/4 " through 4" NPS
• Butt welding short branch straight tee
• 1/2" through 24" NPS
• (MSS) Sch 10S and 40S

We are one of the leading organization engaged in importing and supplying Titanium Sheets. These products can be customized according to the demands of the clients. Some details of this range are:

Grades of Titanium:

• Titanium Grade: 1-4 is pure Titanium, the other grades are alloys. Pure Titanium is used due to its high corrosion resistance, the alloys are used because of their extremely high strength to weight ratio.
• Grade 1 pure titanium is of relatively low strength and high ductility and is used in plate heat exchangers
• Grade 2 pure titanium is the most used as it's the best combination of strength, ductility, and weld-ability applicable in piping systems
• Grade 3 high strength titanium, used for Matrix-plates in shell and tube heat exchangers
• Grade 5 is the most manufactured titanium alloy has exceedingly high strength high heat resistance used in aerospace and sub-sea
• Grade 7 has superior corrosion resistance in reducing and oxidizing environments widely used in the chemical industry
• Grade 9 possesses very high strength and corrosion resistance used in hydraulic piping
• Grade 11 is non-corrosive and suitable for deep drawing
• Grade 12 has better heat resistance than pure Titanium and has applications in shell and tube heat exchangers

Titanium Qualities:

• Outstanding corrosion resistance
• Superior strength-to-weight ratios
• Low density
• High heat resistance
• High heat transfer capability
• Very good oxidation capabilities
• High melting point
• Low elasticity module
• Excellent erosion resistance
• The low thermal expansion coefficient
• Use of low cutting speeds to minimize heat built-up
• Excessive cutting speeds are much more harmful with titanium than with other materials and thus a 30% increase in speed can reduce tool life by 80%
• Use of relatively high speeds of travel. Temperature is less influenced by the speed of travel than by cutting speed. Travel speeds should, therefore, be as high as compatible with efficient working
• Use of a large flow of cutting fluid to increase the cooling effect. Also, the fluid must be oriented directly to the cutting point. Because of the low heat conductivity, the refrigerating effect is in fact very reduced unless it is carried directly on the point at which the heat is created
• Use of tools with controlled sharpening and their replacement as soon as they become worn. When working with a complex tooling machine or machining station due to the amortization costs of the machine, production is much more important than the lifetime of the cutting tool. it is therefore advisable to use the tool to the limit of its capacity and to replace it as soon as its cutting efficiency starts to reduce
• Guaranty of high stiffness for the whole machining system (machine, spindle, tool holder and tool) to compensate for the elasticity of the material and to reduce vibrations to a minimum level
• No stopping on travel whilst the workpiece and the tool are in Contact. Leaving the tool in position causes the material to be immediately hardened and over-heated and causes abrasions, seizing up and breakage of the tool
• Items with thin wall and narrow tolerances machined out of solid bars should be redesigned close down to final size and kept a day for stabilization prior to final machining of the item.