Ta6 Titanium Alloy Tube Per Kg 99.5% Seamless Pipe

• Customization: Available
• Application: Industrial
• Shape: Steel Bar
• Model NO.: TA6
• Model Number: Gr1/Gr2/Gr3/Gr5/Gr7/Gr9/Gr11
• Product Name: Titanium Rod
• Transport Package: Exported Sea Worthy Packing
• Specification: as required
• Trademark: bolaisheng
• Origin: China

Product Description

Titanium alloy pipes, crafted meticulously from high-quality titanium alloy, can be categorized based on their composition and structure into three groups: (1) Titanium with additions of aluminum and tin. (2) Titanium combined with alloy elements like aluminum, chromium, molybdenum, and vanadium. (3) Titanium enriched with elements such as aluminum and vanadium. These pipes boast outstanding mechanical properties, superb stamping performance, and versatile welding capabilities, with welded joint strengths reaching up to 90% of the base metal. Their excellent machinability complements their high corrosion resistance against chloride, sulfide, and ammonia. When immersed in seawater, titanium pipes demonstrate superior corrosion resistance compared to aluminum alloys, stainless steel, and nickel-based alloys, along with robust water impact resistance.

Titanium Alloy Tube Properties
Titanium Alloy Tube Performance: This advanced metal is characterized by its purity and the control of impurities like carbon, nitrogen, hydrogen, and oxygen. The purest form, iodide titanium, contains impurities of less than 0.1%, resulting in low strength but high plasticity. For industrial pure titanium (99.5%), properties include a density of ρ=4.5g/cm³, a melting point of 1725ºC, thermal conductivity λ=15.24W/(m.K), tensile strength σb=539MPa, elongation δ=25%, section shrinkage ψ=25%, an elastic modulus E=1.078×10MPa, and a hardness of HB195.
Advantages of Titanium Alloy

Titanium Alloy's Distinguished Advantages Over Other Metals:
Titanium alloys feature a remarkable strength-to-weight ratio (tensile strength/density), with tensile strengths ranging from 100 to 140 kgf/mm² and a density that is only 60% of steel.
Exceptional medium temperature strength allows titanium alloys to maintain necessary strength at temperatures several hundred degrees higher than aluminum alloys, performing reliably at temperatures between 450 to 500°C.
Impressive corrosion resistance is achieved through the immediate formation of a uniform, dense oxide film on titanium's surface, providing protection against a variety of media. Titanium excels in oxidizing and neutral environments and offers superior resistance in seawater, wet chlorine gas, and chloride solutions. However, its corrosion resistance in reducing media like hydrochloric acid is limited.
Titanium alloys, such as TA7, exhibit excellent low-temperature performance, maintaining plasticity even at -253°C.
Low elastic modulus, minimal thermal conductivity, and non-ferromagnetic properties enhance the appeal of titanium alloys.
High hardness is another notable characteristic of titanium alloys.
While titanium alloys have poor stamping performance, they exhibit good thermoplasticity.
Heat treatments can yield different phase compositions and microstructures in titanium alloys. Fine equiaxed structures offer high plasticity, thermal stability, and fatigue strength, while acicular structures provide high enduring strength, creep strength, and fracture toughness. Combined equiaxed and acicular structures offer a balanced mix of desirable properties.
Common heat treatment methods include annealing, solution treatment, and aging. Annealing eliminates internal stress, improves plasticity, and stabilizes structure to enhance overall properties. Typically, α alloy and (α+β) alloy are annealed at 120 ~ 200ºC below the (α+β) -→ β phase transition point. Solution and aging treatment involves rapid cooling from high temperatures to form martensitic α 'phase and metastable β phase, followed by heat preservation to decompose these metastable phases into α phase or small dispersed second phase particles, thereby strengthening the alloy. Generally, (alpha + beta) alloys are quenched 40 ~ 100 ºC below the alpha + beta) -- - > beta phase transition point, while metastable beta alloys are quenched 40 ~ 80 ºC above this point. The aging treatment temperature typically ranges from 450 ~ 550ºC. Additionally, to meet specialized workpiece requirements, the industry employs double annealing, isothermal annealing, β heat treatment, deformation heat treatment, and other advanced metal heat treatment processes.

Product parameter

Product name	TA6 titanium pipe/tube
Material	TA0,TA1,TA2,TA3,TA4,TA5,TA6,TA7,TA9,TA10,TC1,TC2,TC3,TC4,TC6,TC11,GR1,GR2,GR3,GR5 Ti6AL4V ELI,Ti6AL7Nb,Ti13Nb13Zr,Ti1533
Specification	Titanium tube (jewelry special) specifications:ф20mm-ф28mm*(2mm,2.5mm,3mm), Thin-walled titanium tube:ф8*1.5, ф12*1, ф12.7*0.7, ф16*0.8, ф16*2, ф19*0.8, ф19*1, ф19*ф25*2, ф38*1 ,ф50*1 ,ф19*1.2, ф25*1.2
Surface state	Black surface, polished surface, polished surface (H11, H9, H8)
Standard	GB/T,GJB,AWS,ASTM,AMS,JIS
Production technology	Hot forging - Hot rolling - Annealing straightening - Polishing - Flat head - Inspection - packaging
Typical uses	Ordinary annealing state TC6 titanium alloy has good microstructure and property stability below 300ºC/5000h, and high temperature properties such as instantaneous tensile, creep and durability at different temperatures are equivalent to double annealing and isothermal annealing state. The semi-finished TC6 titanium alloy processed by ordinary annealing can meet the requirements of the service temperature of aircraft structural parts (below 300ºC).
Delivery status	Hot working state, annealing state
Export Packing	Standard Seaworthy Package

 

Technical specification

main technical parameters:
Nominal diameter DN (mm)	Measuring diameter (mm)	Material
15	18	TA2
20	25	TA2
25	32	TA2
32	38	TA2
40	45	TA2
50	57	TA2
65	76	TA2
80	89	TA2
100	108	TA2
125	133	TA2
150	159	TA2
200	219	TA2
250	273	TA2
300	325	TA2
350	377	TA2
400	426	TA2
450	480	TA2
500	530	TA2
600	630	TA2

 

Application

Titanium alloy is predominantly used in aircraft engine compressor components, with secondary applications in rockets, missiles, and high-speed aircraft structural parts. By the mid-1960s, titanium and its alloys were adopted in general industries for manufacturing electrodes in the electrolytic industry, power station condensers, oil refining heaters, seawater desalination units, and environmental pollution control devices. Titanium and its alloys have ascended as premier corrosion-resistant structural materials. Additionally, they are utilized in producing hydrogen storage materials and shape memory alloys.

China initiated research on titanium and titanium alloys in 1956. By the mid-1960s, the nation commenced industrial production of titanium materials and successfully developed the TB2 alloy.
 

 

Our Advantages

Qualitative Materials:

We utilize premium, top-grade raw materials to ensure our products deliver superior strength, resilience, and longevity.

Advanced Technology:

Our manufacturing processes incorporate cutting-edge technologies, including advanced smelting, continuous casting, and rolling techniques.

Customized Service:

We offer bespoke design and manufacturing services to meet the unique needs and requirements of our customers.

FAQ

Q1: Why choose your company?

A: With over 16 years of unparalleled industry expertise and the advantage of having our own state-of-the-art factory, we deliver exceptional services that are further enhanced by our professional and dedicated sales team.

Q2: What are your terms of payment?

A: We require a 30% T/T deposit upfront, with the remaining 70% due before delivery.

Q3: What are your delivery terms?

A: Our terms include FOB, CFR, CIF, and EXW.

Q4: What is your delivery time?

A: Our standard lead time ranges from 7 to 15 days after receiving the deposit.

Q5: Can you provide samples?

A: Yes, we offer complimentary samples if they are available in stock. However, the transportation fees must be borne by the buyer.
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