#High-temp alloys for aerospace

[hannahciara]

Choosing the Right High-Temp Metal for Your Industry

When working in high-temperature environments, selecting the right heat-resistant metal is critical to ensuring durability, efficiency, and safety. Industries such as aerospace, power plants, and chemical processing demand materials that can withstand extreme heat, oxidation, and corrosion. This guide will help you compare the best high-temperature metals for your specific industry needs.

Industry-Specific Applications

Aerospace – Aircraft and spacecraft components require metals with high strength and oxidation resistance. Nickel-based alloys like Inconel and Hastelloy are widely used due to their excellent performance under extreme heat and pressure.

Power Plants – Boilers, turbines, and heat exchangers in nuclear and fossil fuel power plants need metals that can endure continuous high temperatures. Stainless steel and titanium alloys offer great heat and corrosion resistance.

Chemical Processing – Harsh chemical environments demand metals that resist corrosion and high temperatures. Hastelloy and Monel provide outstanding performance in acidic and high-heat conditions.

Comparing Common High-Temp Metals

Metal

Strength

Oxidation Resistance

Corrosion Resistance

Inconel

High

Excellent

Good

Hastelloy

Very High

Excellent

Excellent

Titanium Alloys

Moderate

Good

Excellent

Stainless Steel

Moderate to High

Good

Good

Monel

High

Moderate

Excellent

Frequently Asked Questions (FAQs)

Q: What is the best high-temperature metal for aerospace applications? A: Nickel-based alloys like Inconel and Hastelloy are the top choices for aerospace due to their high strength and oxidation resistance.

Q: Which metal is best for extreme corrosion resistance? A: Hastelloy and Monel offer superior corrosion resistance, making them ideal for chemical processing and marine applications.

Q: How do I choose the right heat-resistant metal for my industry? A: Consider factors such as temperature limits, corrosion exposure, mechanical stress, and cost-effectiveness before making a selection.

Call to Action

Selecting the right high-temp metal can improve the performance and longevity of your equipment. Need expert advice? Contact us today for personalized recommendations on the best high-temperature alloys for your industry!

[chhajedalloys]

Alloy Steel Sheets & Plates Exporters

Alloy Steel Plates Supplier is defined as having 1.5% to 5% total alloy content. Its common alloying elements are manganese, silicon, chromium, nickel, molybdenum, and vanadium, which contain as many as four or five of these alloys in varying amounts. which is been used by the manufacturers who works with petrochemical industries, oil and gas industries, chemical industries, shipbuilding etc. Alloy steel wear plates is a smooth, chromium carbide rich overlay plate manufacturers and Supplier by a patented production process maximizing abrasion resistance and reducing hang up.

Alloy Steel Sheet is been designed from alloys such as chromium, molybdenum, nickel, manganese, silicon so on, they are industrial product that is generally used in various industries applications. 4130 alloy steel sheet is low-alloy steels containing chromium and molybdenum as strengthening agents. It provides good strength and toughness, weldability and machinability. Alloy steel 4340 sheet is a heat treatable low alloy steels which contains nickel, chromium, molybdenum, they are commonly used for heavy duty industrial, aerospace and automotive applications.

It has high strength and toughness in heat treated condition. 6150 alloy steel sheet is useful in heavily stressed machinery parts including gears, shafts, hand tool components and pinions. It is a fine grained, highly abrasion resistant carbon-chromium alloy steel. Alloy Steel Plates Grades are ASTM A387 Gr 5, ASTM A387 Gr 9, ASTM A387 Gr 11, ASTM A387 Gr 12, ASTM A387 Gr 22 and ASTM A387 Gr 91.

Specification Schedule of Alloy Steel Sheets & Plates

SpecificationsASTM A387 / ASME SA387Thickness1mm-300mmWidth 1000mm, 1219mm, 1500mm, 1800mm, 2000mm, 2500mm, 3000mm, 3500mm, 4050mm etcLength2000mm, 2440mm, 3000mm, 5800mm, 6000mm, 12000mm, 15000mm etcSurface2B, 2D, BA, NO.1, NO.4, NO.8, 8K, mirror, checkered, embossed, hair line, sand blast, Brush, etching Manufacturer and SupplierFinishHot rolled plate (HR), Cold rolled sheet (CR)FormCoils, Foils, Rolls, Plain Sheet, Shim Sheet, Strip Manufacturer and Supplier

Chemical Properties of Alloy Steel Sheets & Plates

GradesCMnPSSICrMoASTM A387 Grade 50.15 max0.3 – 0.60.0350.030.5 max4.00 – 6.000.45 – 0.65ASTM A387 Grade 90.15 max0.30 – 0.60.030.031.0 max8.0 – 10.00.9 – 1.1ASTM A387 Grade 110.05 – 0.170.4 – 0.650.0350.0350.5 – 0.801.0 – 1.50.45 – 0.65ASTM A387 Grade 120.05 – 0.170.4 – 0.650.0350.0350.15 – 0.40.8 – 1.150.45 – 0.6ASTM A387 Grade 220.05 – 0.150.3 – 0.60.0350.0350.5 max2.0 – 2.50.9 – 1.1

Mechanical Properties of Alloy Steel Sheets & Plates

Tensile StrengthYield StrengthElongationin 200mm (%)Elongation in 50mm (%)70-90 ksi, 485-620 MPa45 Ksi, 310 MPa1822

Equivalent Standard of Alloy Steel Sheets & Plates

Material GroupCommon NameTypeUNSForging Spec.Casting Spec. EquivalentDINDIN W. NoApplicationLow ASMoly SteelC-1/2MoK12822A182-F1 cl2A217-WC115M031.5415Up to 470ºC* (875ºF)AS Chrome Moly1.1/4Cr-1/2MoK11572A182-F11 cl2A217-WC613CRM0441.7335Up to 593ºC (1100ºF)2.1/4Cr-1MoK21590A182-F22 cl3A217-WC910CRM09101.7380Up to 593ºC (1100ºF), HP steam5Cr-1/2MoK41545A182-F5/F5aA217-C512CRMO1951.7362High temp refinery service9Cr-1MoK90941A182-F9A217-C12X 12 CrMo 9 11.7386High temp erosive refinery service9Cr-1Mo-VA182-F91A217-C12AX 10 CrMoVNb 9 11.4903High pressure steam

[awilli-recruitment]

Orbital Welding Techniques for Joining High-Strength Metal

In the world of advanced manufacturing, high-strength metals are often the materials of choice due to their durability, resistance to heat, and overall performance in extreme conditions. Industries such as aerospace, automotive, power generation, and semiconductor manufacturing rely heavily on these materials, which require precise and reliable joining techniques. Orbital welding, a specialized form of automated welding, has emerged as a powerful solution for joining high-strength metals with exceptional quality and efficiency.

This article will explore orbital welding techniques for joining high-strength metals, highlighting the benefits, the types of materials that can be welded, and the key factors to consider when using orbital welding in such applications.

Orbital welding is an advanced welding process that uses a rotating electrode to create a continuous weld around a workpiece, typically a pipe or tube. Unlike traditional welding, which requires the welder to manipulate the torch manually, orbital welding uses automation to maintain precise control over the welding process. The workpiece is fixed in place while the electrode moves in a circular motion, ensuring uniform heat distribution and weld consistency.

This technique is especially useful for high-strength metals that require tight tolerances and superior weld integrity. Orbital welding systems often feature a power supply, control unit, welding head, and a computer system that automates and monitors the entire process.

Key Advantages of Orbital Welding for High-Strength Metals

Consistent Weld Quality: Orbital welding ensures uniformity in the weld bead, producing high-quality, repeatable welds every time. This is especially important when working with high-strength metals, where imperfections in the weld can lead to catastrophic failure under stress.

Minimal Heat Input: High-strength metals often have low tolerance for excessive heat. Orbital welding is highly effective at controlling heat input, reducing the risk of thermal distortion or metallurgical changes that could weaken the joint.

Precision and Control: Orbital welding offers highly accurate control over weld parameters such as voltage, current, and speed. This precision is crucial when working with high-strength materials that demand tight control to maintain their mechanical properties.

Automated Process: As a fully automated process, orbital welding reduces the potential for human error. Automation ensures that each weld is performed with the same exacting standards, making it ideal for high-strength metal applications where consistency is key.

Reduced Risk of Contamination: Orbital welding can be conducted in a controlled environment with reduced exposure to contaminants like oxygen, which can compromise the integrity of the weld. This is important when welding reactive metals like titanium or exotic alloys used in aerospace and high-performance applications.

Common High-Strength Metals Welded Using Orbital Welding

Orbital welding is widely used to join a variety of high-strength metals, particularly in industries where performance and reliability are critical. Some of the most common metals welded using orbital welding techniques include:

Stainless Steel: Stainless steel is often used in applications where corrosion resistance, high strength, and durability are essential. Orbital welding ensures strong, high-quality joints in stainless steel pipes, tubes, and other components used in industries such as pharmaceuticals, food processing, and petrochemical manufacturing.

Titanium: Titanium’s exceptional strength-to-weight ratio and resistance to corrosion make it an ideal material for aerospace, medical, and chemical industries. Orbital welding is highly effective in joining titanium due to its ability to produce clean, precise welds in this highly reactive metal.

Inconel: Inconel alloys, such as Inconel 625 and Inconel 718, are used in high-temperature applications, particularly in the aerospace and power generation sectors. Orbital welding helps maintain the integrity of Inconel’s high strength and resistance to oxidation, even under extreme conditions.

Nickel Alloys: High-strength nickel alloys are used in environments where resistance to high temperatures and corrosion is necessary. Orbital welding ensures that these alloys retain their mechanical properties after the welding process.

Aluminum Alloys: Certain aluminum alloys, especially those used in the aerospace industry, require precise welding techniques to avoid distortion and loss of strength. Orbital welding can achieve the precision needed to maintain the strength of the weld joint.

Considerations for Orbital Welding of High-Strength Metals

While orbital welding offers numerous advantages, there are several factors to consider when using it for high-strength metal joining.

Material Compatibility: Not all high-strength metals are compatible with orbital welding. Some materials may require specialized electrodes or filler materials to achieve optimal welds. It’s important to understand the specific requirements of the material you are working with, including the type of alloy, its melting point, and its thermal conductivity.

Welding Position: Orbital welding is commonly used to weld tubes and pipes, which are often placed in a horizontal or vertical position. However, certain high-strength metals may require adjustments to the welding setup to accommodate the material’s specific welding position requirements.

Weld Pool Control: Maintaining control over the molten weld pool is essential when working with high-strength metals. These materials tend to cool quickly, which can affect the weld’s appearance and strength. Advanced orbital welding systems are designed to maintain a steady, controlled heat source to manage this issue.

Pre-Weld Preparation: Preparing high-strength metals for orbital welding is crucial to ensure the integrity of the joint. Surface contamination, oxidation, or dirt can compromise the weld, so proper cleaning, often through processes like acid cleaning or abrasive cleaning, is necessary. For reactive metals like titanium, a clean, controlled atmosphere is especially important to prevent contamination.

Post-Weld Heat Treatment: In some cases, high-strength metals may require post-weld heat treatment to relieve residual stresses or improve the mechanical properties of the weld. Post-weld heat treatment can help prevent cracking or other issues that may arise due to the welding process.

Filler Material: Some high-strength metals require filler materials to produce a strong, reliable weld. In orbital welding, the use of the correct filler material ensures that the final weld joint maintains the desired strength and resistance to fatigue, corrosion, or other forces.

Conclusion

Orbital welding is a highly effective technique for joining high-strength metals, offering unmatched precision, repeatability, and efficiency. Whether you’re working with stainless steel, titanium, nickel alloys, or other specialized materials, orbital welding ensures high-quality welds that can withstand the most demanding conditions.

With its ability to control heat input, minimize contamination, and produce consistent results, orbital welding is ideal for industries where material strength, reliability, and performance are critical. A professional orbital welding training is required to work on large scale industries such as Semiconductor, Pharmaceuticals, Oil and Gas etc. As technology continues to evolve, orbital welding will remain an essential tool for engineers and manufacturers working with high-strength metals across various applications.

[elleysgroup]

When To Use Heat Resistance Wires?

Have you ever thought about why some wires can handle high temperatures and others melt at the touch of a button? You should know when to use of outstanding quality of a heat-resistant wires whether you're a professional expert or someone who likes to do their own work. Let me talk about the good things about these lines and how they could be used to solve this important problem.

What Are Some Types Of Lines That Can Handle Heat?

As the name suggests, heat-resistant wires don't change shape when they get hot. They are made of metals that can handle high temperatures, like iron-chromium-aluminium alloys or nickel-chromium alloys.

Why Using Heat-Resistant Wires Is A Good Idea:

The following things can be done with heat-resistant wires:

Ovens And Boilers Are Examples Of Industrial Heat Sources

Heat-resistant lines are needed in places like chemical processing plants and manufacturing complexes. Regular cords break down quickly, but these wires make sure that things like kilns, stoves, and ovens keep working safely.

Systems For Cars

A network of heat-resistant wires under your car makes sure that many of the electrical parts work right. These lines are made to withstand the high temperatures that come from burning things. They make sure that your engine tracking and lighting systems work right and keep you safe while you drive.

Applications In Aerospace:

In the flight business, where temperatures can change quickly, lines that can stand up to high and low temps are essential. These lines are strong enough to handle the harsh conditions of space or high-speed flying, whether they are in an aeroplane's engine or a spacecraft's electrical system.

Appliances For The Home:

Home appliances like hair dryers and toasters need lines that can handle high temperatures in order to work right. Customers can rest easy knowing that these lines will keep things from getting too hot and starting fires.

When to Use Wires That Can Handle Heat?

You might be able to save money and keep people safe if you know when to use heat-resistant wires. Take a look at these situations:

Places That Are Known For Being Very Hot:

Use heat-resistant lines if your wiring will be exposed to temperatures above 100°C (212°F) so it doesn't melt or break.

Running All The Time:

It is important to have heat-resistant lines for users who need to work constantly in hot places, like factories, to make sure that they are safe and reliable.

Important Mechanisms:

Medical tools and spaceship technology are two examples of systems that must always work. Buying wire from Indian Wire Companythat can handle high temperatures may help make sure this happens.

Long-Term Use And Durability:

Heat-resistant wires will last longer and be more reliable, so you will not have to replace or fix them as often. It will help you save time and money.

Conclusion

In electrical engineering, it is very important to use lines that can handle high temperatures. No matter if you're working with big tools, going on a trip, or just making breakfast bread, these unique lines will keep you safe, reliable, and comfortable. When you need something that can stand up to high temperatures, remember heat-safe lines.

[metalforgeindia]

Carbon Steel Weld 90 Elbow Long Radius - Metal Forge India

Carbon steel weld 90 elbows long radius is an essential component used in various industries. It is a pipe fitting that changes the direction of the pipeline by 90 degrees. The long-radius elbow has a larger radius than the short-radius elbow, which results in a smoother flow of the fluid.

In this comprehensive guide, we'll cover everything you need to know about Carbon Steel Weld 90 Elbow Long Radius, and why Metal Forge India is the best manufacturer, supplier, stockist, and exporter in India for this product.

Introduction

Before we delve deeper, let's define a butt-weld elbow. It is a pipe fitting that connects two pipes of different sizes to change the direction of the flow. There are different types of butt weld elbows, including 45 degrees, 90 degrees, and 180 degrees. 

Carbon Steel Weld 90 Elbow Long Radius is. Simply put, it is a type of pipe fitting that allows for a change in the direction of piping systems. The "90" in its name refers to the angle of the elbow, which is 90 degrees. The "long radius" indicates that the radius of the curve of the elbow is longer than the standard radius. This makes it ideal for applications where a more gradual turn is needed. Carbon Steel Weld 90 Elbow Long Radius is preferred over other materials because of its durability, resistance to corrosion and abrasion, and cost-effectiveness.

Advantages of Carbon Steel Weld 90 Elbow Long Radius

One of the main advantages of Carbon Steel Weld 90 Elbow Long Radius is its strength and durability. This product is designed to withstand high levels of pressure and stress, making it ideal for use in applications where reliability is crucial. Additionally, it is resistant to corrosion and abrasion, ensuring that it will last longer than other materials that may be affected by these factors. Another advantage is that it is a cost-effective option for piping systems, which can save money without sacrificing quality.

Sizes and Dimensions

When selecting Carbon Steel Weld 90 Elbow Long Radius, it's important to consider the appropriate size and dimensions for your application. Metal Forge India offers Carbon Steel Butt weld 90 elbow Long Radius up to 48″ with wall thickness ranging from 1.5 mm thickness up to 40mm for varied sizes.

Be sure to consult with their experts to select the most appropriate size and dimensions for your project.

Specification of Carbon Steel Weld 90º Elbow Long Radius

Family

Elbow 90º Long Radius

Grades

ASTM A182, A105, A105N, A350 LF2, A182 F5, A182 F9, A182 F11, A182 F22, A182 F91. Low Temp ASTM/ASME SA350 LF2 and Stainless Steel ASTM/ASME SA182 F304/L & F316/L.

Material

stainless steel elbows, carbon steel elbows, alloy steel elbows, and elbows in special alloys such as Monel, Inconel, and Hastelloy

Classes

2000#, 3000#, 6000#, and 9000#

Size

Elbow up to 48″ with wall thickness ranging from 1.5 mm thickness up to 40mm for varied sizes

Type

Seamless, welded (ERW), Fabricated

Finish

Short Blast, Sand Blast, Electropolish

Marking

Metal Forge India Specs, Desc, Heat no

Shape

90 Degree Elbow Long Radius

Manufactured by

Metal Forge India

Thickness

SCH 5 SCH 160

Variation

Long Radius, Short Radius

End

Beveled

Packing

Protected by Cap

Applications of Carbon Steel Weld 90 Elbow Long Radius

Carbon Steel Weld 90 Elbow Long Radius is used in a variety of industries. As it is preferred for its strength, durability, and resistance to corrosion and abrasion. It is an essential component of piping systems used for transporting liquids, gases, and other materials.

Here are some of the applications of Carbon Steel Weld 90 Elbow Long Radius including;

Petrochemical industry

Pharmaceutical industry 

Food industry

Aviation and aerospace industry

Architectural decoration industry

Oil and Gas Pipeline industry and many more.

The manufacturing process of Carbon Steel Weld 90 Elbow Long Radius:

Metal Forge India follows a rigorous manufacturing process for their Carbon Steel Weld 90 Elbow Long Radius products. They source high-quality raw materials, which are tested for composition and other factors to ensure that they meet industry standards. The products are then manufactured through a precise process that includes hot forming, cold forming, or extrusion. The products are thoroughly tested and inspected to ensure that they meet quality and safety standards.

Importance of Choosing the Right Manufacturer

Choosing the right manufacturer for Carbon Steel Weld 90 Elbow Long Radius is crucial for ensuring that you receive a high-quality product that meets industry standards and regulations. A reliable manufacturer will also offer excellent customer service and support. Metal Forge India is the leading Carbon Steel Weld 90 Elbow Long Radius manufacturer, supplier, stockist, and exporter in India. They have a proven track record of delivering high-quality products that meet industry standards and exceed customer expectations. Their team of experts is committed to providing excellent customer service and support to ensure that their customers are satisfied with their products and services.

Final Thoughts!..

Carbon Steel Weld 90 Elbow Long Radius is an essential component of piping systems used in various industries. It offers several advantages, including strength, durability, and resistance to corrosion and abrasion. Metal Forge India is the leading manufacturer and Supplier of Carbon Steel butt- weld 90 Elbow Long Radius. With us, we have a huge stock of them, manufactured using quality materials. We not only manufacture carbon steel forged fittings and flanges our esteemed clientele spans the globe, including but not limited to the United Arab Emirates, United States, Germany, South Korea, Russia, Singapore, France, Thailand, Turkey, Vietnam, and Indonesia.

To learn more about how our products can enhance your piping system needs, please do not hesitate to get in touch with us today.

[materialsscienceandengineering]

Researchers 3D print a lightweight aluminum-and-cerium-based alloy

Oak Ridge National Laboratory researchers have additively manufactured a lightweight aluminum alloy and demonstrated its ability to resist creep or deformation at 300 degrees Celsius.

Materials that can perform under high pressure, high temperature environments are needed for automotive, aerospace, defense and space applications. The alloy, which combines aluminum with cerium and other metals, was printed using a laser powder bed system that deposits one thin layer of material at a time for precise results. Researchers printed pistons made of the alloy for deployment inside of a full-scale engine.

"Using powder-bed 3D printing allowed the alloy to rapidly solidify into fine, stable strengthening particles in the microstructure, resulting in the remarkable high-temp creep resistance we measured," ORNL's Ryan Dehoff said. "We expected notable improvements, but were surprised by how strong and stable these alloys proved to be."

Read more.

[petrometinc001]

8 STEPS OF ROUND BAR MANUFACTURING PROCESS

Round Bars Manufacturer, SS, MS Round Bars Manufacturing Process

Round Bar is a long, cylindrical stock of metal bars that has numerous industries and businesses. Shafts are the most common use. Standard diameters range up to 24′′ from 1/4′′. There can be other sizes. Round Bar is offered in many types of metal including hot-rolled steel, cold-rolling steel and aluminium. Petromet Flange Inc. is a Round Bar Manufacturer in India with the highest reliability. We were a prominent part of Indian market growth and exports of quality. We manufacture round bars in various shapes, sizes and specifications according to customer needs.

Stainless Steel Round Bar is one type of product made of ss materials. Different types of SS Round Bars are used in various industries. Stainless Steel Bars are used for their strength and corrosion resistance.

SS and MS Round Bars Specifications

SS Round Bar Sizes, Round Bars Standards, MS Round Bar Chemical Properties, Round Bar Mechanical Properties

Round Bar Standards: ASTM Round Bars, ASME Round Bars

Round Bar Dimensions: ASTM, ASME, and API

SS Round Bar Size: 3mm to 350mm in diameter

MS Round Bar Length: Random, Fix & Cut Length

Round Bar Finish: Bright, Polish & Black

Round Bar Material: Monel Round Bars, Hastelloy Round Bars, Copper Round Bars, Inconel Round Bars, Incoloy Round Bars, Titanium Round Bars, Bronze Round Bars, Tin Bronze Round Bars, GunMetal Round Bars

Round Bar Forms: Square Bar, Round Bar, Hex Bar, Flat Bar, Wire In Black & Bright Finish Bar

Inconel Round Bars Manufacturing Process:

There are 8 steps for the Round Bars manufacturing process.

Raw Material Selection/Collection & Testing for Round Bars

Chemical Testing & Physical Testing

Heating

Hot Rolling of Round Bars for proper shape

Targeted Inspection for the best quality of Bars

Water Quenching in Controlled Environment

Hot Inspection Process – To Check the quality of Final products.

Physical testing of Round Bars

Shipped to Client

Different types of Round Bars

Stainless Steel Round Bar

Carbon Steel Round Bar

Alloy Steel Round Bars

Copper Round Bar

Copper Alloy Round Bar

Duplex Steel Round Bar

Leaded Bronze Round Bar

Tin Bronze Round Bar

GunMetal Round Bar

Bronze Round Bar

Titanium Round Bar

Hastelloy Round Bar

Incoloy Round Bar

Monel Round Bar

Applications and Uses of Round Bar.

SS Round Bars Uses for Pipeline engineering

Inconel Round Bars Uses for Oil & gas industry

Round Bars Uses for Mechanical engineering

Monel Round Bars Uses for Plant engineering

Round Bars Uses for Marine industry

MS Round Bars Uses for Wastewater management

Round Bars Uses for Chemical industry

Bronze Round Bars Uses for Petrochemical industry

Round Bars Uses for the Power industry

Carbon Steel Round Bars Uses for Aerospace

Round Bars Uses for the Food processing industry and many more

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[hannahciara]

Why Aerospace and Marine Industries Prefer Accromet’s Metal Plates

Introduction

In industries where strength, durability, and corrosion resistance are critical, Accromet’s metal plates have become the preferred choice. From aerospace components to marine structures, our high-quality stainless steel, titanium, and exotic alloy plates offer superior performance in demanding environments.

Why Aerospace and Marine Sectors Trust Accromet’s Metal Plates

1. Exceptional Strength and Durability

Accromet supplies high-strength metal plates like titanium plates, stainless steel plates, and Inconel plates, designed to withstand extreme pressure, temperature variations, and mechanical stress. Aerospace applications require lightweight yet robust materials, while marine industries depend on high-load-bearing plates that resist wear and tear.

2. Superior Corrosion and Oxidation Resistance

Harsh environments expose metals to saltwater corrosion, oxidation, and chemical reactions. Accromet’s marine-grade stainless steel plates and corrosion-resistant titanium plates ensure longevity in offshore platforms, ship hulls, and aerospace fuselage structures.

3. Heat Resistance for High-Performance Applications

High temperatures in jet engines, turbines, and marine propulsion systems demand materials that resist heat degradation. Our high-temp alloy plates, including Inconel and Monel plates, provide unmatched thermal stability and oxidation resistance.

4. Precision Engineering and Machinability

Aerospace and marine industries require precision-machined components for aircraft structures, shipbuilding, and offshore drilling rigs. Our forging rings and precision-cut metal plates meet stringent manufacturing standards, ensuring high-performance results.

5. Compliance with Industry Standards

Accromet’s metal plates comply with ASTM, AMS, and MIL-SPEC standards, ensuring quality assurance, traceability, and material reliability in aerospace and marine projects.

Frequently Asked Questions (FAQs)

1. What types of metal plates does Accromet offer for aerospace and marine applications?

Accromet provides stainless steel plates, titanium plates, Inconel plates, Monel plates, and other exotic alloys that meet aerospace and marine industry requirements.

2. Why is titanium a preferred choice for aerospace applications?

Titanium offers an ideal balance of high strength, lightweight properties, and corrosion resistance, making it suitable for aircraft structures and jet engines.

3. How do Accromet’s metal plates perform in saltwater environments?

Our marine-grade stainless steel and titanium plates are engineered for superior corrosion resistance, ensuring long-term durability in oceanic and offshore applications.

4. Can Accromet customize metal plates based on project specifications?

Yes! We offer custom sizes, thicknesses, and material grades to match specific aerospace and marine industry needs.

5. Are Accromet’s metal plates certified for aerospace and marine use?

Yes, our materials meet industry standards, including ASTM, AMS, and MIL-SPEC, ensuring compliance for high-performance applications.

Get the Best Metal Plates for Aerospace & Marine Applications

Accromet is your trusted supplier of high-performance metal plates for aerospace, marine, and industrial applications. Whether you need titanium, stainless steel, or exotic alloy plates, we provide materials engineered for durability and strength.

📞 Contact us today for expert guidance and a custom quote!

🔗 Request a Quote | 📩 Get in Touch

[steelflanges-blog]

Custom Plate Flange: 304 Non-standard Plate Flange

FOB PriceUSD 1 - 1,900/Piece

PortNingbo or Shanghai Port

MOQ1 Piece

Supply Ability1000 Pieces Per Day

Payment TermsL/C,T/T,Western Union,MoneyGram

PackagingSeaworthy plywood cases or pallets

Delivery2 - 10 days

Quick Details

Size: 4" (DN100)

Material: 304 Stainless Steel

Place of Origin: Zhejiang, China (Mainland)

Brand Name: Yaang

Standard or Nonstandard: Non-standard

Technics: Forged

Connection: Welding

Shape: Round

Standard: ASME, etc

Type: 304 Non-standard Plate Flange

Packaging & Delivery

Packaging Details:Seaworthy plywood case or as customer requestsDelivery Detail:2 - 10 days after receiving the deposit

Specifications

2. Size: 4" (DN100)

    WT: Sch10S

4. Pressure: 600#

Composition ranges for 304L grade stainless steel

Grade

C

Mn

Si

P

S

Cr

Mo

Ni

N

304L

min.

max.

-

0.030

-

2.0

-

0.75

-

0.045

-

0.030

18.0

20.0

-

8.0

12.0

-

0.10

Type

304 Non-standard Plate Flange

Size

4" (DN100) WT: Sch10S

Standard or Nonstandard

Non-standard

Material

Stainless Steel: ASTM A403 WP304, 304L, 310, 316, 316L, 321, 347, 904L

Carbon Steel: ASTM A234 WPB, WPC ASTM A105 WPHY 42, 46, 52, 56, 60, 65, 70

Alloy Steel: ASTM A234 WP1, WP5, WP9, WP11, WP22, WP91

Duplex Stainless Steel: F51, 2205, F53, 2507, etc

Surface treatment

Applications

Petroleum,chemical,power,gas,metallurgy, shipbuilding, construction, etc

APPLICATIONS:                                      

1. Petrochemical industry

2. Pharmaceutical industry

3. Food industry

4. Aviation and aerospace industry

5. Architectural decoration industry

6. Oil and gas industry

Other Features:

1) Chemical and Physical characteristic: durable, corrosion resistant and high-temperature resistant

2) We also produce flange with special specifications according to customers’ requirements;

The Non-standard flange is also called custom flange, it means the flange is not as per the international standard of flanges. Commonly it is designed for special application.

Dimensions of Custom Flange:

A flange has many dimensions data to design,in the flange standards, those flanges dimensions are indicated clearly . When we design and produce the custom flanges, we do not have any standard for reference, then we have to confirm all the dimensions. When you order the custom flange, please show all the details or requirements to our factory.

Pressure:

America Series: Class 150 ,Class 300, Class 600, Class 900A ,Class 1500,Class 2500.

Europe Series: PN2.5,PN6,PN10,PN16,PN25,PN40,PN63,PN100,PN160,PN250,PN320,PN400.

Flange Facing Types:

America Series: Flat face(FF), Raised face(RF), Tongue(T), Groove(G), Female(F), Male(M), Ring type joints face (RJ/RTJ)

Europe Series: Type A(Flat Face), Type B(Raised Face), Type C(Tongue), Type D(Groove), Type E(Spigot), Type F(Recess), Type G(O-Ring Spigot), Type H(O-Ring Groove)

Yaang, is a proud china custom flange manufacturer, offering ASME code tube sheets, precision flanges, and custom flanges featuring ANSI 150 lbs. to 3000 lbs. Yaang manufacture flanges utilizing stainless steels, carbon steel, high temp alloys, and super duplex materials. Sizes up to 160" in diameter are possible, and we provide finish painting and plating.

Our Non-standard flange can produced based on the common standard, and do some amendment according to our customers’ requirement.

Where can we find the high quality Custom Plate Flange: 304 Non-standard Plate Flange.

You can visit this website: www.yaang.com (Yaang Pipe Industry Co., Limited).

If any inquiry about products, please feel free to contact us sales@yaang.com

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Non-standard Flange: 2205 Custom Plate Flange

Custom Plate Flange: ANSI 2507 Non-standard Plate Flange

Custom WNRF Flange: 2507 Non-standard WNRF Flange

[hannahciara]

The Future of High-Temperature Metals: Trends and Innovations

High-temperature metals play a critical role in industries where extreme heat resistance and durability are essential. From aerospace and power plants to industrial manufacturing, the demand for advanced materials that can withstand high thermal stress is continuously growing. This article explores the latest advancements in metal technology, the rise of superalloys, and what the future holds for high-temperature materials.

Advancements in High-Temperature Metal Technology

1. New Alloy Compositions

Modern metallurgy is focusing on nickel-based superalloys, titanium alloys, and refractory metals like tungsten and molybdenum. These alloys offer improved oxidation resistance, higher melting points, and better mechanical strength under extreme conditions.

2. Additive Manufacturing & 3D Printing

The emergence of 3D printing is transforming the way high-temp metals are manufactured. This technology allows for complex geometries, reduced material waste, and enhanced performance in applications like turbine blades and heat exchangers.

3. Advanced Coatings for Thermal Protection

To further enhance durability, ceramic coatings and oxidation-resistant layers are being developed. These coatings extend the lifespan of high-temperature components, reducing maintenance costs and downtime in industrial operations.

4. Lightweight High-Strength Alloys

The aerospace and automotive industries are increasingly adopting lightweight yet strong high-temperature metals to improve fuel efficiency and performance. Materials such as gamma titanium aluminides (TiAl) are gaining traction due to their superior strength-to-weight ratio.

The Rise of Superalloys and Their Impact

Superalloys are a class of high-performance metals engineered to withstand extreme temperatures, mechanical stress, and corrosive environments. These materials are crucial for industries requiring high strength, thermal stability, and oxidation resistance.

Key Benefits of Superalloys:

Exceptional Heat Resistance – Withstand temperatures above 1,000°C (1,832°F).

High Strength-to-Weight Ratio – Ideal for aerospace and energy sectors.

Superior Corrosion & Oxidation Resistance – Essential for power plants and chemical industries.

Extended Lifespan – Reduced material degradation in harsh environments.

Industries Benefiting from Superalloys

Aerospace & Aviation – Jet engines, turbine blades, exhaust systems.

Power Generation – Gas turbines, nuclear reactors, heat exchangers.

Automotive & Motorsport – High-performance engine components.

Medical Industry – Surgical tools, implants, prosthetics.

FAQs on High-Temperature Metals

1. What are the most heat-resistant metals?

Nickel-based superalloys, tungsten, molybdenum, and titanium alloys are among the most heat-resistant metals used in industrial applications.

2. Why are superalloys important for aerospace applications?

Superalloys can endure extreme temperatures and high mechanical stress, making them ideal for jet engines, turbines, and heat shields.

3. How does 3D printing impact high-temperature metal production?

3D printing allows for precision engineering, reducing waste and enabling the creation of complex metal parts that were previously impossible with traditional manufacturing.

4. Are high-temperature metals environmentally sustainable?

Many advancements focus on recyclable materials and energy-efficient production methods, reducing the environmental impact of metal manufacturing.

Call to Action

As industries evolve, so does the need for cutting-edge high-temperature metals. Accromet specializes in premium-quality superalloys and high-temp metals designed to withstand the most demanding applications.

📞 Contact us today to find the perfect high-temperature metal solution for your industry!

[hannahciara]

Why 330 Stainless Steel Sheets Are the Best Choice for High-Temperature Applications

When it comes to heat-resistant stainless steel, choosing the right alloy is crucial for industries that operate in extreme temperatures. 330 stainless steel sheets stand out as a top choice due to their exceptional strength, oxidation resistance, and durability in high-heat environments. In this article, we explore why 330 stainless steel applications are ideal for industries such as petrochemical, furnace construction, and power generation.

Understanding High-Temperature Environments

Many industrial applications expose materials to extreme heat, oxidation, and thermal cycling. Industries like aerospace, metallurgy, and chemical processing require metals that maintain structural integrity and resist scaling at elevated temperatures. Choosing the wrong material can lead to premature failure, costly maintenance, and downtime.

Performance of 330 Stainless Steel in Extreme Heat

330 stainless steel is engineered specifically for high-temp alloys applications. It offers:

Superior Oxidation Resistance: Resists scaling and oxidation in temperatures up to 2100°F (1150°C).

High Strength at Elevated Temperatures: Maintains mechanical integrity in extreme heat conditions.

Corrosion Resistance: Resists carburization and nitriding, making it suitable for chemical and furnace applications.

Thermal Expansion Control: Reduces warping and structural degradation over time.

How 330 Stainless Steel Compares to Other Stainless Steel Grades

Property

330 Stainless Steel

304 Stainless Steel

316 Stainless Steel

309 Stainless Steel

Maximum Temperature Resistance

2100°F (1150°C)

1500°F (815°C)

1600°F (870°C)

1900°F (1038°C)

Oxidation Resistance

Excellent

Moderate

High

Very High

Corrosion Resistance

High

Moderate

Excellent

High

Common Applications

Furnaces, petrochemical, power plants

Food processing, architecture

Marine, medical

Heat exchangers, kilns

Real-World Applications of 330 Stainless Steel Sheets

Industrial Furnaces: Used for heat-treatment baskets, radiant tubes, and refractory supports.

Petrochemical Industry: Withstands extreme chemical exposure in processing plants.

Power Generation: Essential for boiler tubes and exhaust systems exposed to high heat.

Aerospace: Applied in turbine engines and exhaust systems.

Frequently Asked Questions (FAQs)

Q: What makes 330 stainless steel better than other high-temp alloys? A: 330 stainless steel sheets provide superior oxidation resistance, high mechanical strength, and excellent durability compared to 304 stainless steel or 316 stainless steel.

Q: Can 330 stainless steel be used in corrosive environments? A: Yes, 330 stainless steel applications include industries dealing with chemical processing and harsh environments due to its excellent resistance to carburization and nitriding.

Q: Is 330 stainless steel easy to fabricate? A: While 330 stainless steel is more rigid than lower-grade alloys, it can be welded and machined with the right techniques.

Choose Accromet for High-Quality 330 Stainless Steel Sheets

At Accromet, we provide premium 330 stainless steel sheets designed to withstand the most demanding industrial applications. Our high-temp alloys ensure durability, reliability, and cost-effectiveness.

Looking for the best stainless steel solution? Contact Accromet today to discuss your project needs and get a quote!

[hannahciara]

Why High-Temp Metals Are Essential for Aerospace and Defense Industries

Introduction

The aerospace and defense industries operate in some of the most extreme environments, requiring materials that can withstand high temperatures, intense pressure, and corrosive conditions. High-temperature metals play a crucial role in ensuring the durability, efficiency, and safety of critical components. In this article, we’ll explore why high-temp metals are indispensable in these industries and how Accromet’s high-temperature alloys meet these rigorous demands.

What Are High-Temperature Metals?

High-temp metals, also known as heat-resistant alloys, are materials designed to endure extreme heat without losing strength or corroding. Common high-temp alloys include:

Inconel – Ideal for jet engines and exhaust systems

Titanium alloys – Lightweight and heat-resistant for aerospace structures

Stainless steel (330 SS, 310 SS) – Used in military-grade applications

Hastelloy & Haynes alloys – Corrosion-resistant for extreme conditions

Why Are High-Temp Metals Essential in Aerospace & Defense?

1. Withstanding Extreme Heat & Pressure

Aircraft engines, turbine blades, and missile components experience temperatures exceeding 2000°F. Nickel-based superalloys, like Inconel, retain their strength and resist thermal fatigue, making them critical for engine performance.

2. Lightweight Yet Strong Structural Integrity

In aerospace, reducing weight without compromising strength is key. Titanium alloys offer high strength-to-weight ratios, making them perfect for airframes, landing gear, and spacecraft components.

3. Corrosion & Oxidation Resistance

Exposure to high altitudes, marine environments, and extreme conditions leads to oxidation and corrosion. Stainless steel (330 SS) and Hastelloy ensure durability in fuel systems, heat exchangers, and military-grade applications.

4. Enhancing Fuel Efficiency & Performance

High-temp metals contribute to improved fuel efficiency by allowing engines to operate at higher temperatures. This reduces fuel consumption and increases the performance of jet turbines and defense equipment.

5. Ensuring Safety & Reliability

Failure in aerospace or defense applications can be catastrophic. Heat-resistant alloys provide long-lasting performance, thermal stability, and resistance to mechanical stress, ensuring aircraft, missiles, and defense systems function reliably under pressure.

Industries & Applications Using High-Temp Metals

✔ Aerospace – Jet engines, heat shields, exhaust systems ✔ Defense & Military – Missile components, armored vehicles, submarines ✔ Space Exploration – Spacecraft heat shields, rocket nozzles ✔ Power Generation – Gas turbines, nuclear reactors

FAQs on High-Temp Metals for Aerospace & Defense

1. What are the best high-temp metals for aerospace applications?

Nickel-based superalloys (Inconel, Hastelloy), titanium alloys, and 330 stainless steel are among the best choices due to their heat resistance, strength, and lightweight properties.

2. How do high-temperature metals improve fuel efficiency in aircraft?

By allowing engines to operate at higher temperatures without failure, high-temp alloys enhance fuel efficiency and reduce emissions.

3. Why is titanium preferred in aerospace structures?

Titanium alloys offer high strength, low weight, and excellent heat resistance, making them ideal for aircraft and spacecraft.

4. Are high-temp metals corrosion-resistant?

Yes, materials like Hastelloy, stainless steel (330 SS), and titanium alloys provide excellent oxidation and corrosion resistance, essential for aerospace and defense applications.

5. Where can I source high-temperature metals for aerospace applications?

Accromet specializes in premium-quality high-temp alloys, including Inconel, titanium, and stainless steel, ensuring durability and performance in extreme environments.

Conclusion

The aerospace and defense industries demand high-temperature metals that can withstand heat, pressure, and corrosion without failure. From jet engines to missile components, these materials ensure safety, efficiency, and longevity.

Call to Action (CTA)

🚀 Looking for high-quality high-temp metals for your aerospace or defense projects? Accromet offers a wide range of Inconel, titanium, stainless steel, and Hastelloy alloys designed for extreme environments.

📞 Contact us today to find the right high-temp metal solutions for your industry needs!

[hannahciara]

High-Temp Metals: Breaking Down Barriers in Manufacturing

In the fast-paced world of manufacturing, efficiency and durability are paramount. High-temp metals have emerged as game-changers, revolutionizing how industries tackle extreme conditions.

Case Study: Streamlining a Manufacturing Process

A leading aerospace parts manufacturer faced frequent downtime due to component failures in high-temperature environments. By switching to Accromet’s high-temp metals, they reduced component wear by 30%, improved product lifespan, and significantly decreased production interruptions.

Expert Insight: Reducing Downtime with High-Temp Metals

We spoke with John Smith, a materials engineer with 20+ years of experience: "High-temp metals are vital for modern manufacturing. Their exceptional thermal resistance prevents failures in extreme environments, ensuring smooth operations and reduced maintenance costs."

The Numbers Speak for Themselves

25%: Average increase in manufacturing efficiency reported by companies adopting high-temp metals.

40%: Reduction in downtime due to enhanced durability and thermal resistance.

50%: Longer lifespan of components made with high-temp alloys compared to standard materials.

Storytelling: Transitioning to High-Temp Metals

Imagine a small-scale automotive manufacturer struggling with heat damage in their exhaust systems. After integrating high-temp metals into their design, they not only resolved the issue but also improved vehicle performance. Their success story showcases the transformative power of these materials.

Actionable Advice: Steps to Integrate High-Temp Metals

Identify Problem Areas: Pinpoint where thermal resistance is critical in your processes.

Consult Experts: Work with specialists to select the best alloy for your needs.

Test and Iterate: Start with prototypes to ensure compatibility with your manufacturing line.

Train Your Team: Educate staff on handling and maintaining high-temp components.

Visuals: Lifecycle of a High-Temp Metal Component

Let’s Hear From You!

What’s the biggest challenge you face in manufacturing with high-temp materials? Share your thoughts in the comments below and join the conversation!

By incorporating high-temp metals, you can overcome manufacturing barriers and unlock new levels of efficiency and reliability. Let Accromet be your partner in this transformative journey.

[hannahciara]

Top 5 High-Temperature Alloys and Their Applications

High-temperature alloys are essential for industries that operate in extreme environments, such as aerospace, power generation, and oil & gas. These materials maintain strength, resist corrosion, and perform under intense heat. Here are five top-performing high-temperature alloys and their key applications:

Inconel®

Properties: Exceptional heat resistance, corrosion resistance, and mechanical strength.

Applications: Used in jet engines, gas turbines, and exhaust systems. Its ability to withstand temperatures up to 1300°F makes it a go-to material for aerospace and power generation.

Hastelloy®

Properties: High corrosion resistance, particularly in harsh chemical environments, and excellent thermal stability.

Applications: Common in chemical processing equipment, nuclear reactors, and marine applications where exposure to acidic environments is prevalent.

Waspaloy®

Properties: Outstanding creep and oxidation resistance at temperatures up to 1600°F.

Applications: Frequently used in gas turbine blades, discs, and rings in aerospace engines.

Haynes® 282

Properties: Superior weldability and strength at high temperatures, combined with excellent oxidation resistance.

Applications: Ideal for combustion chambers, afterburners, and industrial furnaces.

Rene® 41

Properties: High tensile and fatigue strength, with superior resistance to oxidation at elevated temperatures.

Applications: Utilized in rocket engines, afterburners, and other high-stress aerospace components.

How High-Temperature Alloys Reduce Maintenance Costs in Turbines

Turbines operate under extreme conditions, where high heat and mechanical stress can lead to rapid wear and tear. High-temperature alloys address these challenges by offering:

Extended Lifespan: Materials like Inconel and Waspaloy resist creep and oxidation, reducing the frequency of part replacements.

Improved Efficiency: By maintaining structural integrity under high stress, these alloys enhance operational efficiency and reliability.

Corrosion Resistance: In environments where exposure to chemicals or moisture is unavoidable, alloys such as Hastelloy prevent costly damage.

Case Study:

Problem: A power plant faced frequent failures of turbine blades due to thermal fatigue. Solution: Replacing the standard steel blades with Haynes 282 significantly extended the blade life, reducing maintenance costs by 30%. Result: Increased turbine uptime and long-term cost savings.

What to Expect from the Next Decade of Metal Alloys

The future of high-temperature alloys is promising, with advancements focused on performance and sustainability. Key trends include:

Increased Additive Manufacturing: Alloys designed for 3D printing are enabling the creation of complex, lightweight components with minimal waste.

Eco-Friendly Compositions: Research into reducing rare or hazardous elements while maintaining high performance is gaining momentum.

Enhanced Coatings: Surface treatments and coatings are improving the durability and efficiency of existing materials.

Q&A Section:

Q: Are high-temp alloys suitable for renewable energy applications? A: Absolutely. High-temperature alloys play a critical role in solar power plants, geothermal systems, and advanced wind turbines where materials must endure extreme conditions.

Q: What industries can benefit the most from emerging alloy technologies? A: Aerospace, defense, and power generation will likely see the most significant advancements due to their reliance on high-performance materials.

Testimonials

John D., Aerospace Engineer: "Switching to Inconel for our jet engine components has been a game-changer. The improved heat resistance has reduced our maintenance downtime by 40%."

Maya P., Power Plant Manager: "After using Hastelloy in our chemical processing units, we’ve seen a dramatic reduction in corrosion-related repairs. These alloys are worth the investment."

Carlos R., Industrial Fabricator: "Working with Rene 41 in high-stress environments has given us confidence in our product quality and reliability."

Conclusion

High-temperature alloys are revolutionizing industries that demand durability and performance under extreme conditions. As material science continues to evolve, the applications and benefits of these alloys will only expand, ensuring that businesses can meet new challenges with confidence and efficiency.

[hannahciara]

Metal Processing Techniques for High-Temperature Metals at Accromet

Metal Processing Techniques for High-Temperature Metals at Accromet

Accromet stands at the forefront of metal processing, offering state-of-the-art solutions tailored for high-temperature metals like titanium, Inconel, and other superalloys. These metals, known for their strength, corrosion resistance, and ability to withstand extreme environments, are critical for aerospace, marine, and industrial applications.

Precision Cutting and Shaping

Accromet employs advanced precision-cutting techniques to meet specific design requirements. Using methods like waterjet and laser cutting, the company ensures clean, accurate cuts with minimal material waste. This is particularly vital for high-temp alloys that require exact tolerances for optimal performance in high-stress environments.

Custom Heat Treatments

To enhance the strength and durability of high-temperature metals, Accromet offers custom heat treatment processes. These include annealing, hardening, and tempering, which refine the metal's grain structure to improve its thermal resistance and mechanical properties.

Machining and Forging

For components requiring unique shapes or intricate details, Accromet excels in machining and forging high-temperature metals. CNC machining ensures precise dimensions, while forging enhances the material’s structural integrity, making it ideal for demanding applications like jet engines and heat exchangers.

Surface Treatments and Coatings

Accromet provides specialized surface treatments to extend the lifespan of high-temperature metals. Processes like anodizing and specialized coatings are employed to boost corrosion resistance and reduce wear, ensuring reliability even in the harshest environments.

Quality Assurance and Certifications

Every processed material undergoes stringent quality control to meet industry standards, including ISO certifications. This commitment ensures that high-temp alloys perform consistently under extreme conditions, instilling confidence in sectors where safety and reliability are paramount.

Accromet's expertise in processing high-temperature metals highlights its dedication to innovation and precision, making it a trusted partner for industries that demand excellence in materials.

[steelflanges-blog]

Custom Plate Flange: 2205 Non-standard Plate Flange

FOB PriceUSD 1 - 1,900/Piece

PortNingbo or Shanghai Port

MOQ1 Piece

Supply Ability1000 Pieces Per Day

Payment TermsL/C,T/T,Western Union,MoneyGram

PackagingSeaworthy plywood cases or pallets

Delivery2 - 10 days

Quick Details

Size: 4 inch (DN100)

Material: 2205 (UNS S31803)

Place of Origin: Zhejiang, China (Mainland)

Brand Name: Yaang

Standard or Nonstandard: Non-standard

Technics: Forged

Connection: Welding

Shape: Round

Standard: ASME, etc

Type: 2205 Non-standard Plate Flange

Packaging & Delivery

Packaging Details:Seaworthy plywood case or as customer requests Delivery Detail:2 - 10 days after receiving the deposit

Specifications

2. Size: 4 inch (DN100)

    WT: Sch40S

4. Pressure: 600#

Duplex stainless steel 2205 Chemical Composition %

Grade

C

Mn

Si

P

S

Cr

Mo

Ni

N

2205 (S31803)

Min

Max

-

0.030

-

2.00

-

1.00

-

0.030

-

0.020

21.0

23.0

2.5

3.5

4.5

6.5

0.08

0.20

Type

2205 Non-standard Plate Flange

Size

4 inch (DN100) WT: Sch40S

Standard or Nonstandard

Non-standard

Material

Stainless Steel: ASTM A403 WP304, 304L, 310, 316, 316L, 321, 347, 904L

Carbon Steel: ASTM A234 WPB, WPC ASTM A105 WPHY 42, 46, 52, 56, 60, 65, 70

Alloy Steel: ASTM A234 WP1, WP5, WP9, WP11, WP22, WP91

Duplex Stainless Steel: F51, 2205, F53, 2507, etc

Surface treatment

Applications

Petroleum,chemical,power,gas,metallurgy, shipbuilding, construction, etc

Custom Plain Flange (Custom Plate flange) is also called custom flat flange, plate slip on flange or a ring flange. It looks like a flat circular disk with inner bore and bolt holes on it . It is one kind of the slip on flange.

The custom plate flange has a circular disk that is welded onto the end of a pipe and allows it to be bolted to another pipe. Typically used in fuel and water pipelines, the two flange plates will be bolted together with a gasket in between them. The flange plate will have bolt holes all around the perimeter and will be used to create junctions, tees and joints.

The Joint Between Custom Plate Flange and Pipe:

The custom plate flange slip over the pipe and the inner hole of plate flange is a little bigger than the pipe outer diameter. Custom plate flanges are secured to the pipe with a fillet weld at the bottom and the top of flanges with the pipes. The welding method is fillet weld, so the custom plate flange is not suitable for a high pressure application.  

The sealing face of a Custom Plate Flange:

Though the custom plate flange means the flange is like a flat plate, it could be Raised Face (RF) sealing face , commonly the plate flange could be RF or FF face, the Raised Face Plain Flange is much popular in regular industry systems.

ANSI /ASME B16.5 Plain Flange:

In ANSI/ASME B16.5 flange standard , there is no plate slip on flange , only hub slip on flange in it , but in different projects the ANSI B16.5 plate flange is used a lot for decrease the cost of the projects. The ANSI /ASME  B16.5 plain flange should have the same dimensions and PCDs with the Slip on flange, the only difference is without a hub on the flange.

APPLICATIONS:                                      

1. Petrochemical industry

2. Pharmaceutical industry

3. Food industry

4. Aviation and aerospace industry

5. Architectural decoration industry

6. Oil and gas industry

Other Features:

1) Chemical and Physical characteristic: durable, corrosion resistant and high-temperature resistant

2) We also produce flange with special specifications according to customers’ requirements;

The Non-standard plate flange is also called custom plate flange, it means the flange is not as per the international standard of plate flanges. Commonly it is designed for special application.

Dimensions of Custom Plate Flange:

A plate flange has many dimensions data to design,in the plate flange standards, those plate flanges dimensions are indicated clearly . When we design and produce the custom plate flanges, we do not have any standard for reference, then we have to confirm all the dimensions. When you order the custom plate flange, please show all the details or requirements to our factory.

Pressure:

America Series: Class 150 ,Class 300, Class 600, Class 900A ,Class 1500,Class 2500.

Europe Series: PN2.5,PN6,PN10,PN16,PN25,PN40,PN63,PN100,PN160,PN250,PN320,PN400.

Flange Facing Types:

America Series: Flat face(FF), Raised face(RF), Tongue(T), Groove(G), Female(F), Male(M), Ring type joints face (RJ/RTJ)

Europe Series: Type A(Flat Face), Type B(Raised Face), Type C(Tongue), Type D(Groove), Type E(Spigot), Type F(Recess), Type G(O-Ring Spigot), Type H(O-Ring Groove)

Yaang, is a proud china Non-standard Flange manufacturer, offering ASME code tube sheets, precision flanges, and custom flanges featuring ANSI 150 lbs. to 3000 lbs. Yaang manufacture flanges utilizing stainless steels, carbon steel, high temp alloys, and super duplex materials. Sizes up to 160" in diameter are possible, and we provide finish painting and plating.

Our Non-standard flange can produced based on the common standard, and do some amendment according to our customers’ requirement.

Where can we find the high quality Custom Plate Flange: 2205 Non-standard Plate Flange.

You can visit this website: www.yaang.com (Yaang Pipe Industry Co., Limited).

If any inquiry about products, please feel free to contact us sales@yaang.com

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