Views: 330 Author: Lasting Titanium Publish Time: 2026-08-19 Origin: Site
Content Menu
● Why Custom Titanium Pipe Fittings Are Important in Complex Piping Systems
● Selecting the Right Titanium Grade for Elbows, Tees, and Reducers
>> Titanium Grade 2 for General Industrial Corrosion Resistance
>> Titanium Grade 5 for Higher Strength and Lower Weight
>> Titanium Grade 7 and Palladium-Enhanced Grades
● Custom Titanium Elbows for Difficult Piping Routes
>> 45-Degree and 90-Degree Titanium Elbows
>> Long-Radius and Short-Radius Elbows
>> Custom Angles, Radii, and Dimensions
● Custom Titanium Tees for Branch Connections
>> Fabricated and Seamless Titanium Tees
● Titanium Reducers for Controlled Size Transitions
>> Concentric Titanium Reducers
>> Eccentric Titanium Reducers
>> Technical Information Required for a Custom Reducer
● Standards and Documentation for Titanium Pipe Fittings
>> ASME B16.9
>> MSS SP-43 and Other Project Requirements
● Manufacturing Custom Titanium Pipe Fittings
● A Practical Specification Checklist for Buyers
● New Expert Insight: The Lowest Initial Price Is Not Always the Lowest Project Cost
● New Expert Insight: Preventing Galvanic and Installation Problems
● New Expert Insight: Geometry Should Be Checked Together With Flow and Maintenance
● Applications for Custom Titanium Elbows, Tees, and Reducers
● How Lasting Advanced Titanium Supports Global Buyers
● Frequently Asked Questions About Custom Titanium Fittings
>> 1. What is the main standard for titanium welding fittings?
>> 2. Which titanium grade is commonly used for industrial pipe fittings?
>> 3. What is the difference between a concentric and eccentric reducer?
>> 4. Can titanium elbows be manufactured in non-standard angles?
>> 5. Are titanium tees seamless or welded?
>> 6. What documents should accompany a custom titanium fitting?
>> 7. How should titanium fittings be protected during installation?
>> 8. How do buyers select between a long-radius and short-radius elbow?
>> 9. What information is needed for a custom titanium fitting quotation?
>> 10. Is titanium always more economical than stainless steel?
● Request a Custom Titanium Fitting Review
Designing a reliable industrial piping system often requires more than selecting standard components from a catalog. In complex layouts, custom titanium fittings—including elbows, tees, reducers, branches, and specially fabricated connections—can help engineers solve difficult routing, corrosion, space, pressure, and installation challenges. For systems exposed to seawater, chlorides, wet chlorine, oxidizing chemicals, brine, and other demanding media, properly specified titanium pipe fittings can provide a practical combination of corrosion resistance, low density, strength, and long-term service performance.
Shannxi Lasting New Material (Lasting Advanced Titanium) Industry Co., Ltd. provides titanium material services and customized titanium pipe fittings for international brand owners, wholesalers, equipment manufacturers, and industrial producers. Our work supports customers who require titanium elbows, titanium tees, titanium reducers, fabricated branches, and other special components for complex piping systems. We focus on helping customers select an appropriate titanium grade, fitting geometry, wall thickness, manufacturing route, welding configuration, inspection level, and documentation package.
Titanium is not automatically the best material for every application. Its performance depends on the actual process conditions, including chemical composition, temperature, concentration, flow velocity, pressure, contamination risk, and connection design. However, when conventional materials face accelerated corrosion or frequent replacement, a correctly designed titanium fitting may offer significant value over the complete service life of the system.
This guide explains how to select and customize titanium elbows, tees, reducers, and other titanium pipe fittings for demanding industrial piping applications.
Standard fittings are effective when pipe sizes, routing dimensions, pressure classes, connection types, and installation conditions are conventional. In real industrial projects, however, many piping systems must connect equipment with unusual nozzle orientations, accommodate restricted spaces, or transition between several pipe diameters within a limited footprint.
Complex piping may include limited installation space, multiple pipe sizes, non-standard center-to-end dimensions, unusual branch orientations, high-purity fluids, seawater, chloride-bearing process streams, different thermal expansion rates, and low-flow areas where erosion or stagnation can occur. In these situations, a standard elbow or tee may not provide the most practical solution.
A custom fitting can reduce the number of field welds, improve alignment, simplify installation, and reduce the need for site modification. For example, a specially fabricated branch may replace several standard fittings and short pipe sections. This can shorten the assembly, reduce potential leakage points, and make the completed system easier to inspect and maintain.
Custom geometry can also support better flow behavior. A properly designed long-radius elbow may reduce turbulence and localized pressure loss compared with a sharper turn. A correctly oriented eccentric reducer may help prevent vapor pockets or improve drainage in a horizontal liquid line. A reducing tee may provide a more compact branch connection than a standard tee combined with a separate reducer.
From a manufacturing perspective, customization should begin with the process conditions and installation requirements, not merely with the product name. "Titanium elbow" is not a complete specification. A supplier also needs to understand the titanium grade, outside diameter, wall thickness, bend radius, angle, end preparation, design code, dimensional tolerances, inspection level, and operating environment.
Commercially pure titanium Grade 2 is one of the most commonly selected titanium grades for industrial corrosion-resistant piping. It provides a useful balance of corrosion resistance, ductility, availability, weldability, and cost. For many chemical, seawater, and process-piping applications, Grade 2 is the first material considered because it can meet demanding corrosion requirements without the higher cost or fabrication complexity associated with some alloy grades.
Typical applications for Grade 2 titanium fittings include chemical processing, chlor-alkali equipment, seawater systems, desalination plants, pulp and paper equipment, heat exchangers, pharmaceutical production, food-processing equipment, and brine or process-water lines.
Grade 2 titanium pipe fittings may be supplied in accordance with ASTM B363 WPT2 when the project requires titanium welding fittings. ASTM B363 covers welded and seamless titanium and titanium-alloy welding fittings, while ASME SB363 is commonly specified for projects using ASME material designations. Buyers should confirm the required edition and any supplemental project requirements before ordering.
Grade 2 is not selected only because it is corrosion-resistant. Its ductility also makes it suitable for forming, fabrication, and welding when appropriate procedures are used. Nevertheless, forming and welding quality remain essential. A high-quality base material cannot compensate for poor joint preparation, inadequate shielding, surface contamination, or incorrect heat input.
Titanium Grade 5, commonly identified as Ti-6Al-4V, offers substantially higher strength than commercially pure titanium grades. It may be considered when a piping assembly must achieve a high strength-to-weight ratio, reduce structural weight, or withstand demanding mechanical loads.
Possible applications include aerospace-related piping, specialized lightweight assemblies, high-strength equipment skids, and systems where pressure, weight, and structural limitations must be carefully balanced. Grade 5 may also be selected when the fitting forms part of a larger load-bearing or weight-sensitive assembly.
However, Grade 5 is not a universal replacement for Grade 2. Its suitability depends on the service temperature, corrosion environment, ductility requirements, welding method, forming route, and applicable design code. In some applications, Grade 2 may offer easier fabrication and more suitable corrosion performance, while Grade 5 may be justified where mechanical strength is the primary concern.
Titanium Grade 7 contains a small amount of palladium and is used when enhanced corrosion resistance is required in selected reducing or acidic environments. Depending on the process chemistry, Grade 7 may provide an advantage over commercially pure titanium.
The decision should be based on actual process data rather than general assumptions. The following information is especially important:
1. Chemical composition of the process medium
2. Temperature and concentration
3. Flow velocity and operating pattern
4. Presence of chlorides, hydrogen, fluorides, or reducing species
5. Welding and post-weld requirements
6. Applicable piping or equipment design code
7. Availability, lead time, and total project cost
A material certificate confirms the supplied material's chemical and mechanical properties, but it does not replace a proper corrosion review. When the service is unusual or highly critical, customers should provide a complete chemical analysis and request technical confirmation before production.
Titanium 45-degree elbows are frequently used where the piping route requires a gradual change of direction. They can create a smoother offset than an arrangement using multiple sharp changes and may help reduce the number of components in a compact assembly.
Titanium 90-degree elbows are common in vertical and horizontal piping systems. They are used to redirect fluid flow around equipment, through pipe racks, and between different elevations. Both long-radius and short-radius versions may be produced, depending on the available space and the performance requirements.
For many butt-welding systems, ASME B16.9 is used as a dimensional reference for factory-made wrought butt-welding fittings. The standard provides dimensions and tolerances for common fitting configurations, but a project may require additional requirements for material, corrosion resistance, welding, inspection, cleaning, and pressure testing.
Long-radius elbows generally provide a smoother directional transition because the centerline radius is larger. This can reduce flow disturbance and local pressure loss. They are often preferred in process lines, high-flow systems, slurry-related services, and applications where turbulence or erosion must be controlled.
Short-radius elbows require less installation space and can be useful around equipment nozzles, inside compact skids, or in pipe racks with severe dimensional restrictions. Their smaller radius may create more abrupt flow changes and higher local pressure loss, so the selection should be confirmed by the piping engineer.
| Feature | Long-Radius Titanium Elbow | Short-Radius Titanium Elbow |
|---|---|---|
| Flow transition | Smoother directional change | More abrupt directional change |
| Pressure loss | Generally lower | Generally higher |
| Space requirement | Requires more room | Suitable for restricted layouts |
| Typical application | Process lines and critical flow systems | Compact equipment and tight routing |
| Potential benefit | Reduced turbulence and localized wear | Smaller overall footprint |
| Design consideration | May increase installation length | May require closer hydraulic review |
Not every project can use a standard 45-degree or 90-degree elbow. Some systems require a 30-degree angle, a compound bend, a special tangent length, or a non-standard center-to-end dimension. Depending on the diameter, wall thickness, titanium grade, quantity, and required tolerances, these fittings may be produced through controlled forming, machining, segment fabrication, or a combination of processes.
For an unusual elbow, customers should provide a detailed drawing or dimensional sketch showing the required angle, bend radius, tangent length, outside diameter, wall thickness, end preparation, and tolerance. It is also useful to indicate the orientation of any marks, branches, drain holes, or additional features.
The more complete the technical information, the lower the risk of producing a fitting that cannot be installed correctly. A component can meet the specified material grade and still create problems if its center-to-end dimension, radius, or weld preparation does not match the connected pipe system.
An equal titanium tee connects a branch with the same nominal diameter as the main run. This configuration is useful when the branch requires similar flow capacity or when a symmetrical distribution arrangement is preferred.
Equal tees are commonly considered for distribution headers, cooling-water systems, chemical circulation loops, process manifolds, utility piping, and skid-mounted equipment. In a header system, the tee design should be reviewed together with flow direction, branch spacing, velocity, pressure drop, and maintenance access.
A tee should not be selected only according to nominal size. The actual outside diameter and wall thickness of the mating pipes are equally important, especially when different standards or pipe series are involved.
A reducing titanium tee connects a smaller branch to a larger main pipe. It may be more compact and easier to install than a standard tee combined with a separate reducer.
The branch diameter should be selected based on the required flow rate, pressure drop, velocity limits, branch reinforcement, valve or instrument connection, drainage, cleanability, and future maintenance needs. In process systems, a branch that is too small may create excessive pressure loss or make cleaning difficult. A branch that is too large may increase material use and create unnecessary stress concentration.
The connection between the branch and run pipe should also be evaluated structurally. A branch opening changes the stress distribution in the main pipe, particularly under internal pressure, external loads, thermal expansion, vibration, or seismic conditions. For critical applications, the tee design should be checked against the relevant piping code or engineering specification.
Titanium tees may be manufactured by different routes. Small-diameter products may be formed, machined, or produced from tubular stock. Larger tees, unusual branches, and heavy-wall components are often fabricated from titanium pipe, tube, plate, or formed sections and then welded.
The manufacturing route depends on diameter, wall thickness, titanium grade, design geometry, production volume, dimensional requirements, and inspection expectations. A formed tee may be suitable for a repeat production order, while a fabricated tee may be more economical for a low-volume custom project.
For critical services, customers should request traceability for both the base material and the welds. Depending on the purchase order, documentation may include mill test certificates, heat-number records, welding procedures, welder qualifications, dimensional inspection reports, radiographic examination, dye penetrant testing, positive material identification, and pressure-test records.
A concentric titanium reducer keeps the centerline of the large pipe and small pipe aligned. This configuration is often used in vertical piping systems or wherever a symmetrical transition is desirable.
Concentric reducers can be considered for vertical process lines, compact pipe racks, aligned equipment connections, and systems where the centerline must remain consistent. They are also useful when the surrounding supports and equipment have been designed around a common axis.
The reducer length should be checked carefully. A short reducer may save space, but it can create a more abrupt transition. A longer reducer may provide a gentler geometry but require additional installation length. The correct choice depends on the hydraulic, structural, and layout requirements of the system.
An eccentric titanium reducer has offset centerlines. It is commonly considered for horizontal piping where engineers need to control liquid accumulation, air pockets, drainage, or elevation changes.
The flat side of an eccentric reducer may be installed flat-on-top or flat-on-bottom, depending on the process objective. Flat-on-top installation can help prevent vapor pockets in some liquid systems, while flat-on-bottom installation may support drainage or help reduce sediment accumulation in other arrangements.
There is no universal orientation rule that applies to every system. The decision should be made from the actual process conditions, pump requirements, piping slope, flow direction, cleaning procedure, and equipment arrangement. Incorrect orientation may cause air entrapment, poor drainage, unstable pump suction, or difficult maintenance.
When requesting a custom titanium reducer, specify the large-end outside diameter, small-end outside diameter, wall thickness at both ends, overall length, concentric or eccentric configuration, offset direction, end bevel, dimensional tolerance, material grade, design pressure, and design temperature.
For eccentric reducers, the drawing should clearly indicate the orientation of the offset. A reducer that is dimensionally correct but has the wrong flat-side direction may require field modification, rotation, or replacement. These errors can create additional labor, delay commissioning, and increase the risk of contamination or damage during rework.
ASTM B363 is an important specification for welded and seamless titanium and titanium-alloy welding fittings. It addresses covered fitting materials and manufacturing requirements. International projects may request ASTM B363, ASME SB363, or a purchaser-specific material specification.
Customers should confirm whether the project requires a specific grade, seamless or welded construction, heat treatment, chemical analysis, mechanical testing, supplementary testing, or third-party inspection.
ASME B16.9 provides dimensions and tolerances for factory-made wrought butt-welding fittings. It is commonly referenced for elbows, tees, reducers, crosses, and caps.
It is important to understand that ASME B16.9 does not independently define every requirement related to material selection, corrosion resistance, welding qualification, process safety, or inspection. A complete project specification may also reference a piping design code, welding standard, pressure-vessel code, cleanliness requirement, or quality plan.
Some corrosion-resistant and low-pressure applications may reference MSS SP-43 for wrought and fabricated butt-welding fittings. The final purchase specification should state the applicable standards clearly and should avoid relying on informal descriptions such as "standard titanium fitting."
A complete document package may include:
- Material test certificate
- Chemical composition and mechanical properties
- Heat-number traceability
- Dimensional inspection report
- Positive material identification
- Welding procedure specification
- Welder qualification records
- Non-destructive examination reports
- Pressure-test results
- Surface-cleanliness confirmation
- Packing and marking records
- Certificate of conformity
Clear documentation reduces uncertainty for international buyers and helps ensure that the parts can pass receiving inspection and project quality review.
Titanium requires careful fabrication control because hot titanium reacts readily with oxygen, nitrogen, and hydrogen. During heating and welding, the weld pool and heat-affected zone must be protected from atmospheric contamination. Inadequate shielding may result in discoloration, embrittlement, reduced ductility, or unacceptable weld quality.
A typical custom-fitting workflow begins with technical review. The manufacturer studies the customer's drawing, grade, dimensions, operating conditions, applicable standards, quantity, and inspection requirements. Any unclear dimensions or conflicting specifications should be resolved before material is cut.
Next, suitable titanium pipe, tube, plate, billet, or formed stock is selected. Heat numbers should remain traceable during cutting, forming, machining, welding, inspection, and final packing. Traceability is particularly important for customers operating under regulated quality systems or supplying equipment to chemical, marine, pharmaceutical, or energy projects.
Depending on the design, the fitting may be produced through hot forming, cold forming, mandrel forming, machining, hydroforming, segment fabrication, welded construction, or a combined process. The selected manufacturing route affects dimensional stability, surface condition, production time, tooling cost, and the final inspection plan.
Titanium welding normally requires high-quality inert-gas shielding. Good practice may include high-purity argon, a properly designed trailing shield, clean tools reserved for titanium, removal of oil and moisture, controlled joint preparation, qualified welding procedures, and careful visual inspection of weld color and surface appearance.
After fabrication, the inspection level depends on the service criticality and purchase specification. Dimensional inspection verifies the fitting's angle, radius, center-to-end dimensions, branch orientation, wall thickness, and end preparation. Non-destructive examination may include dye penetrant, radiographic, or ultrasonic testing, depending on the design and code requirements.
Finally, titanium fittings should be cleaned and packaged to prevent iron contamination, scratches, moisture exposure, and mechanical damage. Clean packaging is especially important for high-purity, pharmaceutical, semiconductor, oxygen-related, and contamination-sensitive systems.
Before requesting a quotation, customers should prepare as much of the following information as possible:
1. Fitting type: Elbow, tee, reducer, cross, cap, stub end, branch, or special connection
2. Material grade: Grade 2, Grade 5, Grade 7, or another approved grade
3. Material standard: ASTM B363, ASME SB363, or project-specific requirement
4. Dimensional standard: ASME B16.9, MSS SP-43, or a customer drawing
5. Size: NPS, DN, outside diameter, and mating pipe dimensions
6. Wall thickness: Schedule, nominal thickness, or minimum wall requirement
7. Geometry: Angle, bend radius, overall length, offset, branch size, and orientation
8. Connection type: Butt-weld, socket-weld, threaded, flanged, or special end
9. Operating conditions: Medium, pressure, temperature, concentration, and flow velocity
10. Inspection requirements: MTC, PMI, NDE, dimensional reports, pressure tests, and third-party inspection
11. Surface requirements: Pickling, cleaning, polishing, passivation, or special finish
12. Delivery requirements: Quantity, packaging, marking, export documents, and destination
A two-dimensional drawing may be sufficient for a straightforward fitting quotation, but a three-dimensional CAD model can reduce interpretation risk for complex assemblies. The drawing should identify all critical dimensions and should indicate whether dimensions are nominal, minimum, or subject to a specific tolerance.
Titanium fittings generally have a higher purchase price than many stainless-steel or carbon-steel alternatives. Comparing only the initial unit price can therefore produce a misleading conclusion.
A better evaluation considers the total cost of ownership, including expected service life, replacement frequency, shutdown costs, installation labor, corrosion monitoring, product contamination risk, weight and support requirements, spare-part availability, and the consequences of leakage or failure.
For an aggressive process line, a titanium reducer that operates reliably for many years may be more economical than a lower-cost fitting that requires repeated replacement. In a chemical or seawater facility, each replacement may require draining the system, isolating equipment, arranging specialist labor, disposing of contaminated materials, and delaying production.
At the same time, titanium should not be specified without reviewing galvanic compatibility, crevice conditions, welding quality, external contamination, and the actual process chemistry. Correct application engineering creates value—not the word "titanium" alone.
Customers should compare suppliers not only by price, but also by technical review capability, material traceability, documentation quality, dimensional consistency, welding control, packaging, and repeat-order performance.
Titanium is highly corrosion-resistant, but connected dissimilar metals can create design issues in certain electrolytic environments. This is particularly important in seawater systems, wet insulation, and piping assemblies that combine titanium with carbon steel, stainless steel, copper alloys, or other metals.
Before installation, engineers should review contact between titanium and carbon steel, stainless-steel transition components, insulating gaskets and sleeves, seawater exposure, wet insulation, chloride concentration, temperature, cleaning chemicals, and possible stray electrical currents.
Project controls may include approved transition joints, electrical isolation where required, compatible gasket and fastener materials, clean storage away from carbon-steel fabrication areas, protection against embedded iron particles, and proper support and alignment before welding.
The external environment also matters. Titanium fittings should not be dragged across contaminated steel surfaces or stored where iron particles, grinding dust, oil, or moisture can accumulate. The fitting surface should be protected throughout transportation and installation.
These details are especially important for custom titanium fittings installed in mixed-metal piping systems, where the performance of the complete assembly depends on the compatibility of every connected component.
A fitting can meet all dimensional requirements and still create operational problems if its geometry is not reviewed in the context of the entire system.
For example, an elbow that is too close to a pump inlet may create an unfavorable flow pattern. A tee positioned immediately upstream of an instrument may cause unstable readings. A reducer installed in the wrong direction may create a vapor pocket, drainage issue, or difficult cleaning area. A branch located too close to another weld may also make inspection and maintenance more difficult.
During design review, customers should consider:
- Straight-run requirements before and after instruments
- Pump suction and discharge conditions
- Drainability and venting
- Cleaning-in-place requirements
- Access for welding and inspection
- Support locations and thermal movement
- Valve removal and maintenance clearance
- Dead-leg control in sanitary or high-purity systems
- Potential erosion at elbows, tees, and reducers
This system-level approach helps ensure that the fitting is not only manufacturable but also practical to operate and maintain.
Custom titanium pipe fittings are commonly considered for desalination, seawater intake, brine systems, chemical processing, chlor-alkali plants, power-generation cooling water, pulp and paper bleaching, marine equipment, heat exchangers, pharmaceutical production, and specialized manufacturing skids.
In desalination systems, titanium fittings may be used in selected high-chloride services where long-term corrosion resistance is important. In chemical processing, Grade 2 or another suitable grade may be evaluated for acidic, oxidizing, or chloride-bearing fluids. In chlor-alkali equipment, material selection must consider the specific wet-chlorine or caustic environment, temperature, and process concentration.
Marine and offshore systems may require customized dimensions because of restricted equipment spaces, complex routing, and weight limitations. Pharmaceutical and high-purity applications may place greater emphasis on internal surface condition, cleanability, packaging, and contamination control.
The final suitability always depends on the complete chemical and mechanical design. A fitting supplier should work from the customer's service data rather than relying solely on a general industry label.
For foreign brand owners, wholesalers, and manufacturers, supplier capability involves more than producing a fitting with the correct nominal size. A dependable supply partner should understand how the part will be used, inspected, installed, and supplied to the end customer.
Shannxi Lasting New Material (Lasting Advanced Titanium) Industry Co., Ltd. supports international customers through material selection assistance, custom production, drawing review, heat-number traceability, quality documentation, export packing, shipping coordination, and repeat-order consistency.
Our products and services can support customers requiring standard and non-standard titanium elbows, equal and reducing tees, concentric and eccentric reducers, fabricated branches, and other titanium pipe components.
For a new project, customers should send the drawing or technical specification together with the titanium grade, pipe dimensions, operating medium, pressure, temperature, quantity, applicable standard, inspection requirements, and delivery destination. Our technical team can then review the design and recommend a suitable production and inspection route.
For distributors and brand owners, we can also discuss repeat-order requirements, private-label supply, documentation consistency, packaging expectations, and production coordination.
ASTM B363 is a principal specification for welded and seamless titanium and titanium-alloy welding fittings. International projects may request the corresponding ASME SB363 designation. The customer should confirm the required grade, construction type, testing, and supplemental requirements before production.
Titanium Grade 2 is a common choice for general corrosion-resistant piping because it combines corrosion resistance, ductility, availability, weldability, and practical cost. Grade 5 may be selected for higher mechanical strength, while Grade 7 may be considered for enhanced corrosion resistance in selected chemical environments.
A concentric reducer keeps the large and small pipe centerlines aligned. An eccentric reducer offsets the centerlines. Eccentric reducers are often considered in horizontal piping to manage air pockets, drainage, pump suction conditions, or sediment accumulation.
Yes. Depending on the diameter, wall thickness, grade, quantity, and tolerance, manufacturers may produce custom angles, bend radii, tangent lengths, and end configurations through forming, machining, fabricated construction, or a combination of these methods.
Titanium tees may be seamless, formed, machined, or fabricated and welded. The correct production route depends on the diameter, wall thickness, geometry, grade, production volume, pressure requirements, and applicable standards.
A project may require a material test certificate, heat-number traceability, dimensional inspection report, positive material identification, welding procedure documentation, welder qualification records, non-destructive examination reports, pressure-test results, and third-party inspection records.
Titanium fittings should be protected from iron contamination, scratches, oil, moisture, and mechanical damage. Clean tools should be used, and welding should follow a qualified titanium procedure with adequate inert-gas shielding. Storage should be separated from carbon-steel grinding and fabrication areas.
A long-radius elbow is generally preferred when smoother flow, lower pressure loss, and reduced turbulence are important. A short-radius elbow is useful when installation space is restricted. The final selection should consider piping layout, flow velocity, pressure drop, erosion, maintenance access, and equipment connections.
At minimum, provide the fitting type, titanium grade, pipe size, outside diameter, wall thickness, angle or reducer dimensions, connection type, operating medium, pressure, temperature, quantity, applicable standards, inspection requirements, and delivery destination. A detailed drawing is strongly recommended for non-standard components.
Not necessarily. Titanium usually has a higher initial purchase price, but it may reduce replacement, shutdown, maintenance, contamination, and leakage risks in corrosive service. The correct comparison should consider the total cost of ownership and the actual operating environment.
Complex piping deserves more than a catalog component selected by nominal size alone. The correct titanium elbow, tee, or reducer must match the process medium, geometry, wall thickness, welding method, inspection level, installation conditions, and long-term operating requirements.
Shannxi Lasting New Material (Lasting Advanced Titanium) Industry Co., Ltd. is ready to support global brand owners, wholesalers, equipment manufacturers, and industrial producers with custom titanium fitting requirements.
Send us your drawing or technical specification for a focused review of your project. Include the titanium grade, size range, operating medium, pressure, temperature, quantity, applicable standard, inspection requirements, and destination.
1. ASTM B363 and titanium pipe-fitting information: [Titanium Pipe Fittings: Elbows, Flanges, Reducers, and Tees]
2. ASME B16.9 and titanium fitting information: [Titanium Pipe Fittings and Flanges]
3. MSS SP-43 and titanium fitting types: [Titanium Pipe Fittings Manufacturer and Supplier]
4. Titanium Grade 5 fittings: [Titanium Grade 5 Pipe Fittings Manufacturer and Supplier]
5. Titanium Grade 2 fittings: [Titanium Grade 2 Pipe Fittings Manufacturer and Supplier]
6. ASME B16.9 titanium pipe bends: [ASTM B363 Titanium Pipe Bend Reference]
