Archive for category: Industry Knowledge

S355J0H vs S355J2H: Knowledge of Hollow Structural Sections

October 11, 2024/in Industry Knowledge/by Energy Steel

Introduction

When working in construction, particularly in infrastructure projects, selecting the right steel grade for structural hollow sections is critical. Two commonly specified grades are S355J0H and S355J2H, both used extensively in structural hollow sections such as Circular Hollow Sections (CHS), Square Hollow Sections (SHS), and Rectangular Hollow Sections (RHS). These grades are defined under EN 10219 (Cold-Formed Welded Structural Hollow Sections of Non-Alloy and Fine Grain Steels) and EN 10210 (Hot-Finished Structural Hollow Sections of Non-Alloy and Fine Grain Steels). This article aims to provide a detailed, expert comparison of S355J0H vs S355J2H, offering guidance on their properties, applications, and suitability for infrastructure construction projects.

Understanding S355 Steel Grades

S355 steel is widely known for its strength, durability, and versatility, making it ideal for structural components in various applications, especially in construction. Both S355J0H and S355J2H belong to the S355 family, which signifies:

S for structural steel
355 indicates the minimum yield strength of 355 MPa
J0 and J2 represent different impact toughness at specific temperatures
H denotes suitability for hollow sections

While these grades share the same minimum yield strength, their distinction lies primarily in the impact energy requirements, which directly affect their performance in different environmental conditions.

Mechanical Properties Comparison: S355J0H vs S355J2H

Both S355J0H and S355J2H share similar mechanical characteristics but differ in their ability to absorb impact at different temperatures:

Property	S355J0H	S355J2H
Yield Strength	≥ 355 MPa	≥ 355 MPa
Tensile Strength	470-630 MPa	470-630 MPa
Impact Energy	≥ 27J @ 0°C	≥ 27J @ -20°C
Elongation	20-22% (depending on section size)	20-22% (depending on section size)

S355J0H ensures a minimum impact toughness of 27 Joules at 0°C.
S355J2H offers greater toughness, with a minimum of 27 Joules at -20°C, making it more suitable for colder environments.

S355J0H vs S355J2H: Applications and Suitability

The choice between S355J0H and S355J2H often depends on the project’s environmental conditions. Below, we outline where each grade excels:

S355J0H: General Purpose Structural Steel

Usage: S355J0H is typically used in mild or temperate environments where the temperature does not drop below freezing. This makes it ideal for infrastructure in regions with moderate climates, such as parts of Southern Europe, Africa, and Southeast Asia.
Examples: Bridges, Stadiums, General buildings and towers

S355J0H performs well in environments where impact at lower temperatures is not a critical factor. This grade provides cost-efficiency while still delivering reliable structural integrity.

S355J2H: Tougher in Colder Climates

Usage: S355J2H is better suited for colder environments, such as Northern Europe, Canada, or mountainous regions, where temperatures regularly fall below zero. Its enhanced impact toughness makes it more reliable in these conditions, ensuring durability and resilience.
Examples: Offshore structures, Cold storage facilities, Projects in mountainous or northern climates

Given its higher toughness, S355J2H is often the material of choice for applications requiring increased safety margins in cold weather conditions.

Standards and Manufacturing: S355J0H vs S355J2H, EN 10219 vs EN 10210

EN 10219 (Cold-Formed Sections)

S355J0H and S355J2H both comply with the EN 10219 standard, which specifies cold-formed welded hollow sections. These sections are used when weight savings and cost-effectiveness are primary concerns.
Applications: Cold-formed sections are often used in lighter structures and where surface finish is important, such as in architectural features.

EN 10210 (Hot-Finished Sections)

S355J0H and S355J2H are also available in EN 10210 hot-finished form. This process results in sections with improved ductility, toughness, and dimensional accuracy, making them more suitable for heavier loads and harsh environments.
Applications: Hot-finished hollow sections are preferred for high-stress applications such as offshore platforms, heavy bridges, and cranes.

Cold-Formed vs. Hot-Finished Hollow Sections

While both S355J0H and S355J2H can be produced using either cold-forming (EN 10219) or hot-finishing (EN 10210), the choice between cold-formed or hot-finished sections depends on several factors:

Cold-Formed: Suitable for lightweight structures, cost-effective, aesthetically pleasing, and with a good surface finish.
Hot-Finished: Offers superior toughness, dimensional consistency, and fatigue resistance, ideal for high-load and dynamic structures.

S355J0H vs S355J2H: Key Differences and Selection Guidelines

To help you choose between S355J0H and S355J2H, here’s a breakdown of the main factors:

Factors	S355J0H	S355J2H
Impact Toughness	27J @ 0°C	27J @ -20°C
Climatic Suitability	Moderate temperatures	Colder climates, sub-zero environments
Typical Applications	Bridges, buildings, moderate climate structures	Offshore, cold storage, structures in cold areas
Standard Availability	EN 10219 and EN 10210	EN 10219 and EN 10210
Cost	Generally lower	Typically higher due to toughness properties

When selecting between these two grades:

Choose S355J0H for cost-efficiency in mild to moderate climates where sub-zero temperatures are not expected.

Choose S355J2H for better toughness and safety in colder climates or when higher impact resistance is required.

Common FAQs

Which grade is more cost-effective?

S355J0H is often more economical for projects in environments where extreme cold is not a concern.

Do I need S355J2H for all projects in cold climates?

Yes, especially in regions where temperatures fall below zero, S355J2H offers greater resilience and safety margins.

Can both grades be used in the same project?

Yes, both grades can be used in the same project, provided that their specific roles in the structure are carefully evaluated based on environmental conditions.

Conclusion: S355J0H vs S355J2H, Selecting the Right Grade for Your Project

The choice between S355J0H and S355J2H hinges largely on the environmental conditions of the project. While both grades provide robust strength and versatility for structural hollow sections, S355J2H offers superior performance in colder climates due to its enhanced impact toughness. On the other hand, S355J0H delivers a more cost-effective solution for projects in temperate regions.

For infrastructure and construction professionals, understanding the specific performance needs of your project—whether it’s a bridge, stadium, or offshore platform—is crucial in making the right material choice. Both S355J0H and S355J2H ensure high reliability, but careful selection guarantees both safety and cost-efficiency for long-term structural success.

This blog provides essential guidance on choosing between S355J0H and S355J2H for structural hollow sections in infrastructure construction. If you have any further questions or need project-specific advice, feel free to reach out for more tailored support.

Everything You Need to Know: ASME B36.10M vs ASME B36.19M

October 11, 2024/in Industry Knowledge/by Energy Steel

Introduction

This guide will explore the key differences between ASME B36.10 M and ASME B36.19 M and offer clarity on their applications in the oil and gas field. Understanding these distinctions can help engineers, procurement teams, and project managers make informed decisions, ensuring optimal material selection and compliance with industry standards.

In the oil and gas industry, choosing the correct piping standard is crucial for ensuring pipeline systems’ safety, durability, and efficiency. Among the widely recognized standards, ASME B36.10M and ASME B36.19M are essential references for specifying the dimensions of pipes used in industrial applications. While both standards relate to pipe dimensions, they differ in scope, materials, and intended applications.

1. Overview of ASME Standards

ASME (American Society of Mechanical Engineers) is a globally recognized organization that sets standards for mechanical systems, including piping. Its standards for pipes are used across many industries, including oil and gas, for manufacturing and operational purposes.

ASME B36.10M: This standard covers welded and seamless wrought steel pipes for high-pressure, temperature, and corrosive environments.

ASME B36.19M: This standard applies to welded and seamless stainless steel pipes, predominantly used in industries requiring corrosion resistance.

2. ASME B36.10M vs ASME B36.19M: Key Differences

2.1 Material Composition

ASME B36.10M focuses on carbon steel pipes, commonly used in environments where high strength and resistance to high pressure are needed. These pipes are more cost-effective and widely available for structural and process piping applications.

ASME B36.19M is dedicated to stainless steel pipes chosen for applications requiring higher corrosion resistance. Stainless steel’s unique properties make it ideal for environments exposed to harsh chemicals, high temperatures, or saline, such as offshore oil and gas facilities.

2.2 Dimensional Differences

The most apparent difference between these two standards lies in their pipe wall thickness designations:

ASME B36.10M: This standard uses the Schedule Number System, where pipe wall thickness increases as the schedule number increases (e.g., Schedule 40, Schedule 80). The wall thickness varies significantly depending on the nominal pipe size (NPS).

ASME B36.19M: While this standard also uses the schedule number system, it introduces Schedule 5S, 10S, 40S, and 80S, where the “S” indicates stainless steel. The wall thickness in B36.19M pipes is generally thinner than in carbon steel pipes of the same nominal size under B36.10M.

2.3 Common Applications

ASME B36.10M:

They are used primarily for carbon steel pipes in environments requiring strength and pressure containment.
Common in oil and gas transportation, refining facilities, and industrial pipelines.
Suitable for applications with significant pressure variations or where corrosive resistance is not a major factor.

ASME B36.19M:

Selected for stainless steel piping systems, particularly in corrosive environments or where hygiene and contamination resistance are critical.
Common in chemical processing, refineries, offshore oil and gas installations, and high-purity gas pipelines.
Stainless steel pipes are preferred in systems exposed to saltwater (offshore), high moisture levels, and corrosive chemicals.

3. ASME B36.10M vs ASME B36.19M: Thickness and Weight Considerations

Understanding the wall thickness and weight differences is critical for selecting the appropriate standard. ASME B36.10M pipes have thicker walls at the same schedule number compared to ASME B36.19M pipes. For example, Schedule 40 carbon steel pipes will have a greater wall thickness than Schedule 40S stainless steel pipes.

This distinction affects weight: B36.10M pipes are heavier and often a critical factor in structural applications, especially in aboveground and underground pipelines with critical external loads. Conversely, B36.19M pipes are lighter, reducing weight significantly in projects where material handling and support are concerns.

4. ASME B36.10M vs ASME B36.19M: How to Choose

When determining whether to use ASME B36.10M or B36.19M, several factors should be considered:

4.1 Corrosion Resistance

If the application involves exposure to corrosive chemicals, moisture, or saltwater, ASME B36.19M stainless steel pipes should be the primary choice.

ASME B36.10M carbon steel pipes are more appropriate in less corrosive environments or where high strength at a lower cost is required.

4.2 Pressure and Temperature Conditions

Carbon steel pipes covered under ASME B36.10M are suitable for high-pressure or high-temperature systems due to their higher strength and thicker walls.

Stainless steel pipes under ASME B36.19M are preferred for moderate-pressure and high-corrosion environments.

4.3 Cost Considerations

Carbon steel pipes (ASME B36.10M) are generally more cost-effective than stainless steel pipes (ASME B36.19M), especially when corrosion resistance is not a significant factor.

However, in the long run, stainless steel may offer cost savings by reducing the need for frequent maintenance and replacements in corrosive environments.

4.4 Compliance and Standards

Many oil and gas projects require adherence to specific standards for material selection, depending on environmental factors and project requirements. Ensuring compliance with industry standards like ASME B36.10M and B36.19M is crucial for meeting safety and operational guidelines.

5. Conclusion

ASME B36.10M and ASME B36.19M play pivotal roles in the oil and gas industry, with each standard serving distinct purposes based on material, environment, and application. Choosing the proper pipe standard involves carefully considering factors like corrosion resistance, pressure, temperature, and cost.

ASME B36.10M is typically the go-to standard for carbon steel pipes in high-pressure applications, whereas ASME B36.19M is more suited to stainless steel pipes for corrosive environments. By understanding the differences between these two standards, engineers and project managers can make informed decisions that ensure safety, performance, and cost-efficiency in their pipeline systems.

Frequently Asked Questions (FAQs)

1. Can ASME B36.19M pipes be used instead of ASME B36.10M?
Not directly. B36.19M pipes are generally thinner and designed for stainless steel applications, while B36.10M is thicker and made for carbon steel systems.

2. How does wall thickness affect the choice between ASME B36.10M and ASME B36.19M?
Wall thickness impacts the pipe’s strength, pressure rating, and weight. Thicker walls (B36.10M) provide higher strength and pressure tolerance, while thinner walls (B36.19M) offer corrosion resistance in lower-pressure systems.

3. Are stainless steel pipes more expensive than carbon steel?
Yes, stainless steel is generally more expensive due to its corrosion-resistant properties. However, it can offer long-term cost savings when corrosion is a concern.

This guide provides clear insights into ASME B36.10M and ASME B36.19M, helping you navigate material selection in the oil and gas industry. For more detailed guidance, consult the relevant ASME standards or engage a professional engineer specializing in pipeline design and materials.

All You Need to Know: Heat-Affected Zone in Pipeline Welding

October 10, 2024/in Industry Knowledge/by Energy Steel

Introduction

In pipeline welding, the integrity of welded joints is crucial to ensuring the long-term safety, durability, and efficiency of the pipeline infrastructure. One critical aspect of this process that is often overlooked is the Heat-Affected Zone (HAZ)—the area of the base metal that is altered due to the heat applied during welding. While the HAZ doesn’t melt during the process, the heat can still change the microstructure of the material, impacting its mechanical properties and performance.

This blog aims to offer a deep understanding of the Heat-Affected Zone, including what it is, why it matters in pipeline welding, and how to mitigate its potential negative impacts. Our goal is to provide clear, expert guidance to help professionals in the pipeline welding field manage and optimize the effects of the HAZ in their work.

What is the Heat-Affected Zone (HAZ)?

The Heat-Affected Zone (HAZ) refers to the portion of the base metal adjacent to the weld that has been subjected to high temperatures but did not reach its melting point. During welding, the fusion zone (where the metal melts) heats the surrounding material to temperatures sufficient to cause changes in its microstructure.

While these changes can enhance some properties, they often lead to undesirable effects such as increased brittleness, reduced corrosion resistance, or susceptibility to cracking—particularly in critical applications like pipelines, where mechanical integrity is paramount.

Why the HAZ Matters in Pipeline Welding

In pipeline welding, the HAZ is a key factor influencing the long-term performance of welded joints. Here’s why it matters:

1. Impact on Mechanical Properties:

The high temperatures in the HAZ can cause grain growth, leading to reduced toughness and making the area more prone to cracking, especially under stress or dynamic loads.

In steels, rapid cooling of the HAZ can lead to the formation of brittle microstructures such as martensite, which reduces the ductility of the material and increases the risk of failure.

If not properly controlled, changes in the HAZ can reduce the pipeline’s fatigue resistance, which is essential for handling fluctuating pressures over time.

2. Corrosion Resistance:

Pipelines are often exposed to harsh environments, from offshore conditions to chemical processes. Changes in the HAZ can make this region more susceptible to localized corrosion, especially in areas where the weld and base material have differing corrosion properties.

3. Weld Strength:

The HAZ can become the weakest part of the weld if not properly managed. A poorly controlled HAZ may compromise the entire joint, leading to leakages, cracks, or even catastrophic failures, particularly in high-pressure pipelines.

Common Concerns Regarding the Heat-Affected Zone (HAZ) in Pipeline Welding

Given the significance of the HAZ in pipeline welding, several concerns often arise among professionals working in the field:

1. How Can the HAZ Be Minimized?

Controlled Heat Input: One of the best ways to minimize the size of the HAZ is by carefully managing the heat input during welding. Excessive heat input leads to larger HAZs, which increases the risk of unwanted changes in the microstructure.

Faster Welding Speeds: Increasing the speed of the welding process reduces the time that the metal is exposed to high temperatures, thus limiting the HAZ.

Optimizing Welding Parameters: Adjusting parameters like current, voltage, and electrode size ensures that the HAZ is kept within acceptable limits.

2. What Can Be Done About Hardening in the HAZ?

Rapid cooling after welding can result in hardened microstructures like martensite, particularly in carbon steels. This can be mitigated by:

Preheating: Preheating the base metal before welding helps to slow down the cooling rate, reducing the formation of brittle phases.

Post-Weld Heat Treatment (PWHT): PWHT is used to relieve residual stresses and temper the hardened microstructure, thus improving the toughness of the HAZ.

3. How Can I Ensure the Integrity of the HAZ in Service?

Nondestructive Testing (NDT): Techniques like ultrasonic testing or radiographic testing can be used to detect cracks or defects in the HAZ that might otherwise go unnoticed.

Corrosion Testing: Ensuring that the HAZ meets corrosion resistance requirements is critical, especially in pipelines transporting corrosive substances. Testing the weld for uniformity of corrosion properties between the weld metal and base metal is key to avoiding failures in service.

Monitoring Welding Procedures: Adhering to strict welding procedures and using certified welders ensures that the HAZ remains within acceptable quality standards, reducing the risk of long-term issues.

Best Practices for Managing the Heat-Affected Zone (HAZ) in Pipeline Welding

To effectively manage the HAZ and ensure the longevity and safety of welded joints in pipelines, consider the following best practices:

Use Low Heat Input Welding Processes: Processes such as Gas Tungsten Arc Welding (GTAW) or Gas Metal Arc Welding (GMAW) can help reduce the heat input compared to higher-energy methods, limiting the size of the HAZ.
Preheating and PWHT: In cases where brittle phases or excessive hardness are a concern, preheating and post-weld heat treatment are essential. Preheating reduces the thermal gradient, and PWHT helps to relieve internal stresses and soften the material.
Choose the Right Materials: Selecting materials that are less sensitive to heat input, such as low-carbon steels or specialized alloys, can significantly reduce the impact of the HAZ.
Perform Regular Inspections: Pipeline systems should undergo regular inspection and maintenance. Monitoring the HAZ through NDT ensures that any defects are detected early and can be addressed before they compromise the system’s integrity.
Adhere to Welding Codes and Standards: Following industry standards such as ASME B31.3, API 1104, and other relevant guidelines ensures that the welding procedures meet stringent safety and quality requirements.

Conclusion: Prioritizing Heat-Affected Zone (HAZ) Control for Pipeline Integrity

In pipeline welding, understanding and controlling the Heat-Affected Zone is vital to ensuring the structural integrity and longevity of the pipeline. By applying best practices such as controlling heat input, utilizing pre- and post-weld treatments, and performing regular inspections, pipeline welders can significantly mitigate the risks associated with the HAZ.

For professionals in the field, staying informed and proactive about HAZ management is essential—not only for the safety of the infrastructure but also for compliance with industry standards and regulations.

By giving proper attention to the HAZ, welders can ensure that pipelines perform reliably under the most demanding conditions, reducing the likelihood of failures and ensuring a longer service life.

How to Pick the Right One for Your Project: Welding Electrodes

October 9, 2024/in Industry Knowledge/by Energy Steel

Introduction

Welding is a critical process in many industries, especially in the fabrication and joining of metal materials like steel pipes, plates, fittings, flanges, and valves. The success of any welding operation depends heavily on choosing the right welding electrodes. Selecting the appropriate electrode ensures strong, durable welds and reduces the risk of defects, which can compromise the integrity of the welded structure. This guideline aims to provide a comprehensive overview of the Welding Electrodes, offering valuable insights and solutions for common user concerns.

Understanding Welding Electrodes

Welding electrodes, often referred to as welding rods, serve as the filler material used in joining metals. Electrodes are classified into two categories:

Consumable Electrodes: These melt during welding and contribute material to the joint (e.g., SMAW, GMAW).
Non-Consumable Electrodes: These do not melt during welding (e.g., GTAW).

Electrodes come in different types, depending on the welding process, base material, and environmental conditions.

Key Factors to Consider for Welding Electrodes Selection

1. Base Material Composition

The chemical composition of the metal to be welded plays a critical role in electrode selection. The electrode material must be compatible with the base material to avoid contamination or weak welds. For example:

Carbon steel: Use carbon steel electrodes like E6010, E7018.
Stainless steel: Use stainless steel electrodes such as E308L, E316L.
Alloy steels: Match the electrode to the alloy grade (e.g., E8018-B2 for Cr-Mo steels).

2. Welding Position

The electrode’s usability in different welding positions (flat, horizontal, vertical, and overhead) is another key factor. Some electrodes, such as E7018, can be used in all positions, while others, like E6010, are particularly good for vertical-down welding.

3. Joint Design and Thickness

Thicker materials: For welding thick materials, electrodes with deep penetration capabilities (e.g., E6010) are suitable.
Thin materials: For thinner sections, low-penetration electrodes like E7018 or GTAW rods can prevent burn-through.

4. Welding Environment

Outdoor vs. Indoor: For outdoor welding, where wind can blow away shielding gas, stick welding electrodes like E6010 and E6011 are ideal due to their self-shielding properties.
High moisture environments: Electrode coatings must resist moisture absorption to avoid hydrogen-induced cracking. Low-hydrogen electrodes such as E7018 are often used in damp conditions.

5. Mechanical Properties

Consider the mechanical requirements of the welded joint, such as:

Tensile strength: The electrode’s tensile strength must match or exceed that of the base material.
Impact toughness: In low-temperature applications (e.g., cryogenic pipelines), choose electrodes designed for good toughness, such as E8018-C3 for -50°C service.

Welding Electrodes Selection Guideline Chart

P numbers	1st Base metal	2nd Base metal	SMAW-best GTAW-best	GMAW-best FCAW-best	PWHT REQ’D	UNS Notes
A) For matl data info, P & A #’s,,see (Sec 9, QW Art-4,#422)… (For specific matl see ASME Sect 2-A matls)
B) PWHT REQ’D column does UNS N0t reflect comprehensive heat requirements for all matl, advise further research! (See Sec 8, UCS-56 & UHT-56),,,,,, PreHeat req (See Sec 8 App R)
C) Pink hi-lite means there is missing data and more information is required!
	CoCr	SA240,Type-304H (304H SS Heat-resistant Plate)	ECoCr-A
P1 to P1	SA106, Gr-B (Carbon Steel SMLS Pipe)	SA106, Gr-B (Carbon Steel SMLS Pipe)	E7018 ER80S-D2	ER80S-D2 E70T-1
P1 to P8	SA106, Gr-B (Carbon Steel SMLS Pipe)	SA312, Gr-TP304 (304 SS)	E309 ER309	ER309
P1 to P8	SA106, Gr-B (Carbon Steel SMLS Pipe)	SA312, Gr-TP304 (304L SS)	E309L-15 ER309L
P1 to P8	SA106, Gr-B (Carbon Steel SMLS Pipe)	SA312, Gr-TP316 (316 SS)	E309-16 ER309
P1 to P4	SA106, Gr-B (Carbon Steel SMLS Pipe)	SA335, Gr-P11	E8018-B2 ER80S-B2L		Y
P1 to P5A	SA106, Gr-B (Carbon Steel SMLS Pipe)	SA335, Gr-P22	E9018-B3 ER90S-B3L		Y
P1 to P45	SA106, Gr-B (Carbon Steel SMLS Pipe)	SB464, UNS N080xx (NiCrMo Pipe)	ER309			Includes alloys 8020, 8024, 8026
P1 to P1	SA106, Gr-B (Carbon Steel SMLS Pipe)	SA106, Gr-C (Carbon Steel SMLS Pipe)	E7018 ER80S-D2	ER80S-D2 E70T-1
P1 to P1	SA178, Gr-A (Carbon Steel Tubes)	SA178, Gr-A (Carbon Steel Tubes)	E6010 ER70S-2
P1 to P1	SA178, Gr-A (Carbon Steel Tubes)	SA178, Gr-C (Carbon Steel Tubes)	E7018 ER80S-D2	ER80S-D2 E70T-1
P1 to P1	SA178, Gr-C (Carbon Steel Tubes)	SA178, Gr-C (Carbon Steel Tubes)	E7018 ER70S-6	ER70S-6 E71T-1
P1 to P1	SA179 Cold-Drawn Low Carbon Steel Tubes	SA179 Cold-Drawn Low Carbon Steel Tubes	E7018 ER70S-6	ER70S-6 E71T-1
P1 to P1	SA181,Cl-60 (Carbon Steel Forgings)	SA181,Cl-60 (Carbon Steel Forgings)	E6010 ER80S-D2	ER80S-D2 E70T-1
P1 to P1	SA181,Cl-70 (Carbon Steel Forgings)	SA181,Cl-70 (Carbon Steel Forgings)	E7018 ER80S-D2	ER80S-D2 E70T-1
P3 to P3	SA182, Gr-F1 (C-1/2Mo, Hi-Temp Service)	SA182, Gr-F1 (C-1/2Mo, Hi-Temp Service)	E7018-A1 ER80S-D2	ER80S-D2 E81T1-A1
P8 to P8	SA182, Gr-F10 (310 SS)	SA182, Gr-F10 (310 SS)	E310-15 ER310	ER310		F10 UNS N0t in current Sec. II
P4 to P4	SA182, Gr-F11 (1 1/4 Cr 1/2 Mo)	SA182, Gr-F11 (1 1/4 Cr 1/2 Mo)	E8018-CM ER80S-D2	ER80S-D2 E80T5-B2	Y
P4 to P4	SA182, Gr-F12 (1 Cr 1/2 Mo)	SA182, Gr-F12 (1 Cr 1/2 Mo)	E8018-CM ER80S-D2	ER80S-D2 E80T5-B2	Y
P3 to P3	SA182, Gr-F2 (1/2 Cr 1/2 MO)	SA182, Gr-F2 (1/2 Cr 1/2 Mo)	E8018-CM ER80S-D2	ER80S-D2 E80T5-B2
P5A to P5A	SA182, Gr-F21 (3 Cr 1Mo)	SA182, Gr-F21 (3 Cr 1 Mo)	E9018-B3 ER90S-B3L	ER90S-B3 E90T5-B3	Y
P5A to P5A	SA182, Gr-F22 (2 1/4 Cr 1 Mo)	SA182, Gr-F22 (2 1/4 Cr 1 Mo)	E9018-B3 ER90S-B3L	ER90S-B3 E90T5-B3	Y
P8 to P8	SA182, Gr-F304 (304 SS)	SA182, Gr-F304 (304 SS)	E308-15 ER308	ER308 E308T-1
P8 to P8	SA182, Gr-F310 (310 SS)	SA182, Gr-F310 (310 SS)	E310-15 ER310	ER310
P8 to P8	SA182, Gr-F316 (316 SS)	SA182, Gr-F316 (316 SS)	E316-15 ER316	ER316 E316T-1
P8 to P8	SA182, Gr-F316 (316 SS)	SA249, Gr-TP317 (317 SS)	E308 ER308	ER308 E308T-1
P8 to P8	SA182, Gr-F316L (316L SS)	SA182, Gr-F316L (316L SS)	E316L-15 ER316L	ER316L E316LT-1
P8 to P8	SA182, Gr-321 (321 SS)	SA182, Gr-321 (321 SS)	E347-15 ER347	ER347 E347T-1
P8 to P8	SA182, Gr-347 (347 SS)	SA182, Gr-347 (347 SS)	E347-15 ER347	ER347 E347T-1
P8 to P8	SA182, Gr-348 (348 SS)	SA182, Gr-348 (348 SS)	E347-15 ER347	ER347
P7 to P7	SA182, Gr-F430 (17 Cr)	SA182, Gr-F430 (17 Cr)	E430-15 ER430	ER430
P5B to P5B	SA182, Gr-F5 (5 Cr 1/2 Mo)	SA182, Gr-F5 (5 Cr 1/2 Mo)	E9018-B3 ER80S-B3	ER80S-B3 E90T1-B3	Y
P5B to P5B	SA182, Gr-F5a (5 Cr 1/2 Mo)	SA182, Gr-F5a (5 Cr 1/2 Mo)	ER9018-B3 E90S-B3	ER90S-B3 E90T1-B3	Y
P6 to P6	SA182, Gr-F6a,C (13 Cr, Tp410)	SA182, Gr-F6a,C (13 Cr, Tp410)	E410-15 ER410	ER410 E410T-1
P1 to P1	SA192 (Carbon Steel SMLS Boiler Tubes)	SA192 (Carbon Steel SMLS Boiler Tubes)	E6010 ER80S-D2	ER80S-D2 E70T-1
P4 to P4	SA199, Gr T11	SA199, Gr T11	E8018-B2 ER80S-B2	ER80S-B2 E80C-B2	Y	SA199 – Deleted spec
P5A to P5A	SA199, Gr T21	SA199, Gr T21	E9018-B3 ER90S-B3	ER90S-B3 E90T5-B3	Y	SA199 – Deleted spec
P5A to P5A	SA199, Gr T22	SA199, Gr T22	E9018-B3 ER90S-B3	ER90S-B3	Y	SA199 – Deleted spec
P4 to P4	SA199, Gr T3b	SA199, Gr T3b	E9018-B3 ER90S-B3	ER90S-B3 E90C-B3	Y	SA199 – Deleted spec
P5A to P5A	SA199, Gr T4	SA199, Gr T4	E9018-B3 ER90S-B3	ER90S-B3 E90C-B3	Y	SA199 – Deleted spec
P5B to P5B	SA199, Gr T5	SA199, Gr T5	E8018-B6-15 ER80S-B6	ER80S-B6 E8018-B6T-1	Y	SA199 – Deleted spec
P4 to P4	SA202, Gr-A (Alloy Steel, Cr, Mn, Si)	SA202, Gr-A (Alloy Steel, Cr, Mn, Si)	E7018-A1 ER80S-D2	ER80S-D2 E81T1-A1	Y
P4 to P4	SA202, Gr-B (Alloy Steel, Cr, Mn, Si)	SA202, Gr-B (Alloy Steel, Cr, Mn, Si)	E8018-B2 ER80S-B2	ER80S-D2	Y
P9A to P9A	SA203, Gr-A (Alloy Steel, Nickel)	SA203, Gr-A (Alloy Steel, Nickel)	E8018-C1 ER80S-NI2	ER80S-NI2 E81T1-Ni2
P9A to P9A	SA203, Gr-B (Alloy Steel, Nickel)	SA203, Gr-B (Alloy Steel, Nickel)	E8018-C1 ER80S-NI2	ER80S-NI2 E81T1-Ni2
P9B to P9B	SA203, Gr-D (Alloy Steel, Nickel)	SA203, Gr-D (Alloy Steel, Nickel)	E8018-C2 ER80S-Ni3	ER80S-Ni3
P9B to P9B	SA203, Gr-E (Alloy Steel, Nickel)	SA203, Gr-E (Alloy Steel, Nickel)	ER80S-Ni3 ER80S-Ni3	ER80S-Ni3
P3 to P3	SA204, Gr-A (Alloy Steel, Molybdenum)	SA204, Gr-A (Alloy Steel, Molybdenum)	E7018-A1 ER80S-D2	ER80S-D2
P3 to P3	SA204, Gr-B (Alloy Steel, Molybdenum)	SA204, Gr-B (Alloy Steel, Molybdenum)	E7018-A1 ER80S-D2	ER80S-D2
P3 to P5B	SA204, Gr-B (Alloy Steel, Molybdenum)	SA387, Gr-5 (5Cr1/2Mo Plate)	ER80S-B6		Y
P3 to P43	SA204, Gr-B (Alloy Steel, Molybdenum)	SB168, UNS N066xx	ENiCrFe-5 ERNiCr-3	ERNiCr-3		High Nickel/Chrome, need final two digits to determine composition
P3 to P3	SA204, Gr-C (Alloy Steel, Molybdenum)	SA204, Gr-C (Alloy Steel, Molybdenum)	E10018,M
P3 to P3	SA209, Gr-T1 (C 1/2Mo Boiler Tube)	SA209, Gr-T1 (C 1/2Mo Boiler Tube)	E7018 ER80S-D2	ER80S-D2 E70T-1
P3 to P3	SA209, Gr-T1a (C 1/2Mo Boiler Tube)	SA209, Gr-T1a (C 1/2Mo Boiler Tube)	E7018 ER80S-D2	ER80S-D2 E70T-1
P3 to P3	SA209, Gr-T1b (C 1/2Mo Boiler Tube)	SA209, Gr-T1b (C 1/2Mo Boiler Tube)	E7018 ER80S-D2	ER80S-D2 E70T-1
P1 to P1	SA210, Gr-C (Medium CS Boiler Tubes)	SA210, Gr-C (Medium CS Boiler Tubes)	E7018 ER80S-D2	ER80S-D2 E70T-1
P4 to P4	SA213, Gr-T11 (1 1/4Cr,1/2Mo Tubes)	SA213, Gr-T11 (1 1/4CR,1/2Mo Tubes)	E8018-B2 ER80S-B2	ER80S E80C-B2	Y
P4 to P4	SA213, Gr-T12 (1 Cr,1/2Mo Tubes)	SA213, Gr-T12 (1 CR,1/2Mo Tubes)	ER80S-B2 ER80S-B2	ER80S-B2 E80C-B2	Y
P10B to P10B	SA213, Gr-T17 (1 Cr Tubes)	SA213, Gr-T17 (1 Cr Tubes)		ER80S-B2 E80C-B2
P3 to P3	SA213, Gr-T2 (1/2 Cr, 1/2Mo Tubes)	SA213, Gr-T2 (1/2CR, 1/2MO Tubes)	E8018-B2 ER80S-B2	ER80S-B2 E80C-B2
P5A to P5A	SA213, Gr-T21 (3Cr, 1/2Mo Tubes)	SA213, Gr-T21 (3 CR,1/2Mo Tubes)	E9018-B3 ER90S-B3	ER90S-B3 E90T1-B3	Y
P5A to P5A	SA213, Gr-T22 (2 1/4Cr 1Mo Tube)	SA213, Gr-T22 (2 1/4 Cr 1 Mo Tube)	E9018-B3 ER90S-B3	ER90S-B3	Y
P4 to P4	SA213, Gr-T3b	SA213, Gr-T3b	E9018-B3 ER90S-B3	ER90S-B3 E90T1-B3	Y
P5B to P5B	SA213, Gr-T5 (5 Cr 1/2 Mo Tube)	SA213, Gr-T5 (5 Cr 1/2 Mo Tube)	E8018-B6-15 ER80S-B6	ER80S-B6 E8018-B6T-1	Y
P5B to P5B	SA213, Gr-T5b (5 Cr 1/2 Mo Tube)	SA213, Gr-T5b (5 Cr 1/2 Mo Tube)	E8018-B6-15 ER80S-B6	ER80S-B6 E8018-B6T-1	Y
P5B to P5B	SA213, Gr-T5c (5 Cr 1/2 Mo Tube)	SA213, Gr-T5c (5 Cr 1/2 Mo Tube)	E8018-B6-15 ER80S-B6	ER80S-B6 E8018-B6T-1	Y
P8 to P8	SA213, Gr-TP304 (304 SS Tube)	SA213, Gr-TP304 (304 SS Tube)	E308-15 ER308	ER308 E308T-1
P8 to P8	SA213, Gr-TP304L (304L SS Tube)	SA213, Gr-TP304L (304L SS Tube)	E308-L-16 ER308L	ER308L E308LT-1
P8 to P8	SA213, Gr-TP310 (310 SS Tube)	SA213, Gr-TP310 (310 SS Tube)	E310Cb-15 ER310	ER310
P8 to P8	SA213, Gr-TP316 (316 SS Tube)	SA213, Gr-TP316 (316 SS Tube)	E316-16 ER316	ER316 E316T-1
P8 to P8	SA213, Gr-TP316L (316L SS Tube)	SA213, Gr-TP316L (316L SS Tube)	E316-16 ER316L	ER316L E316LT-1
P8 to P8	SA213, Gr-TP321 (321 SS Tube)	SA213, Gr-TP321 (321 SS Tube)	E347-15 ER347	ER347 E347T-1
P8 to P8	SA213, Gr-TP347 (347 SS Tube)	SA213, Gr-TP347 (347 SS Tube)	E347-15 ER347	ER347 E347T-1
P8 to P8	SA213, Gr-TP348 (348 SS Tube)	SA213, Gr-TP348 (348 SS Tube)	E347-15 ER347	ER347
P1 to P1	SA214 (Carbon Steel RW Tubes)	SA214 (Carbon Steel RW Tubes)	E7018-A1 ER80S-D2	ER80S-D2
P1 to P1	SA216, Gr-WCA (C.S Hi-Temp Casting)	SA216, Gr-WCA (C.S Hi-Temp Casting)	E7018 ER70S-3	ER70S-3 E70T-1
P1 to P1	SA216, Gr-WCB (C.S Hi-Temp Casting)	SA216, Gr-WCB (C.S Hi-Temp Casting)	E7018 ER70S-3	ER70S-3 E70T-1
P1 to P1	SA216, Gr-WCC (C.S Hi-Temp Casting)	SA216, Gr-WCC (C.S Hi-Temp Casting)	E7018 ER70S-3	ER70S-3 E70T-1
P6 to P6	SA217, Gr-CA15 (13Cr1/2Mo Hi-Temp Casting)	SA217, Gr-CA15 (13Cr1/2Mo Hi-Temp Casting)	E410-15 ER410	ER410 ER410T-1
P3 to P3	SA217, Gr-WC1 (C1/2Mo Hi-Temp Casting)	SA217, Gr-WC1 (C1/2Mo Hi-Temp Casting)	E7018 ER70S-3	ER70S-6 E70T-1
P4 to P4	SA217, Gr-WC4 (NiCrMo Hi-Temp Casting)	SA217, Gr-WC4 (NiCrMo Hi-Temp Casting)	E8018-B2 ER80S-B2	ER80S-B2 E80C-B2	Y
P4 to P4	SA217, Gr-WC5 (NiCrMo Hi-Temp Casting)	SA217, Gr-WC5 (NiCrMo Hi-Temp Casting)	E8018-B2 ER80S-B2	ER80S-B2 E80C B2	Y
P5A to P5A	SA217, Gr-WC9 (CrMo Hi-Temp Casting)	SA217, Gr-WC9 (CrMo Hi-Temp Casting)	E9018-B3 ER90S-B3	ER90S-B3 E90C B3	Y
P10A to P10A	SA225, Gr-C (MnVaNi Plate)	SA225, Gr-C (MnVaNi Plate)	E11018-M	E11018-M
P10A to P10A	SA225, Gr-D (MnVaNi Plate)	SA225, Gr-D (MnVaNi Plate)	E8018-C3 ER80S-D2	ER80S-D2 E81T1-Ni2
P1 to P1	SA226 (Carbon Steel RW Tubes)	SA226 (Carbon Steel RW Tubes)	E7018 ER80S-D2	ER80S-D2 E70T-1		SA 226 deleted from ASME Sect. II
P3 to P3	SA234, Gr-WP1 (C1/2Mo Pipe Fittings)	SA234, Gr-WP1 (C1/2Mo Pipe Fittings)	E7018 ER80S-D2	ER80S-D2 E70T-1
P4 to P4	SA234, Gr-WP11 (1 1/4Cr1/2Mo Pipe Fittings)	SA234, Gr-WP11 (1 1/4Cr1/2Mo Pipe Fittings)	E8018-B1 ER80S-B2	ER80S-B2 E80C-B2	Y
P5A to P5A	SA234, Gr-WP22 (2 1/4Cr1Mo Pipe Fittings)	SA234, Gr-WP22 (2 1/4Cr1Mo Pipe Fittings)	ER90S-B3 ER90S-B3	ER90S-B3 E90C-B3	Y
P5B to P5B	SA234, Gr-WP5 (5Cr1/2Mo Pipe Fittings)	SA234, Gr-WP5 (5Cr1/2Mo Pipe Fittings)	E8018-B6-15 ER80S-B6	ER80S-B6 E8018-B6T-1	Y
P1 to P1	SA234, Gr-WPB (CrMo Pipe Fittings)	SA234, Gr-WPB (CrMo Pipe Fittings)	E6010 ER80S-D2	ER80S-D2 E70T-1
P1 to P1	SA234, Gr-WPC (CrMo Pipe Fittings)	SA234, Gr-WPC (CrMo Pipe Fittings)	E6010 ER80S-D2	ER80S-D2 E70T-1
P8 to P8	SA240,Type-302 (302 SS Heat-resistant Plate)	SA240,Type-302 (302 SS Heat-resistant Plate)	E308-15 ER308	ER308 E308T-1
P8 to P8	SA240,Type-304 (304 SS Heat-resistant Plate)	SA240,Type-304 (304 SS Heat-resistant Plate)	E308-16 ER308	ER308 E308T-1
P8 to P42	SA240,Type-304 (304 SS Heat-resistant Plate)	SB127, UNS N04400 (63Ni30Cu Plate)	ENiCrFe-3 ERNiCr-3	ERNiCr-3
P8 to P41	SA240,Type-304 (304 SS Heat-resistant Plate)	SB162, UNS N02200, 2201 (Nickel-99%)	Eni-1	ERNi-1
P8 to P43	SA240,Type-304 (304 SS Heat-resistant Plate)	SB168, UNS N066xx	ENiCrFe-5 ERNiCr-3	ERNiCr-3		Multiple 6600 series alloys, need more info
P8 to P44	SA240,Type-304 (304 SS Heat-resistant Plate)	SB333, UNS N10001 (Nickel Molybdenum Plate)	ERNiMo-7
P8 to P45	SA240,Type-304 (304 SS Heat-resistant Plate)	SB409, UNS N088xx (NiFeCr Plate)	ENiCrFe-3 ERNiCr-3			Includes alloys 8800, 8810, 8811
P8 to P43	SA240,Type-304 (304 SS Heat-resistant Plate)	SB435, UNS N06002 (NiFeCr Plate)	ENiCrMo-2
P8 to P8	SA240,Type-304H (304H SS Heat-resistant Plate)	SA240,Type-304H (304H SS Heat-resistant Plate)	E308H-16	ER308 E308T-1
P8 to P9B	SA240,Type-304L (304L SS Heat-resistant Plate)	SA203, Gr-E (Alloy Steel, Nickel Plate)	ENiCrFe-3
P8 to P8	SA240,Type-304L (304L SS Heat-resistant Plate)	SA240,Type-304L (304L SS Heat-resistant Plate)	E308L-16 ER308L	ER308L E308T-1
P8 to P1	SA240,Type-304L (304L SS Heat-resistant Plate)	SA516, Gr-60 (Carbon Steel)		ER309L
P8 to P45	SA240,Type-304L (304L SS Heat-resistant Plate)	SB625, UNS N089xx (NiCrMoCu Plate)	ENiCrMo-3			Multiple 8900 series alloys, need more info
P8 to P8	SA240,Type-309S (309S Heat-resistant SS Plate)	SA240,Type 309S (309S Heat-resistant SS Plate)	E309 ER309	ER309
P8 to P8	SA240,Type-316 (316 Heat-resistant SS Plate)	SA240,Type 316 (316 Heat-resistant SS Plate)	E316-16 ER316
P8 to P43	SA240,Type-316 (316 Heat-resistant SS Plate)	SB168, UNS N066xx	ENiCrFe-5 ERNiCr-3	ERNiCr-3		Multiple 6600 series alloys, need more info
P8 to P45	SA240,Type-316 (316 Heat-resistant SS Plate)	SB409, UNS N088xx (NiFeCr Plate)	ENiCrFe-2			Includes alloys 8800, 8810, 8811
P8 to P8	SA240,Type-316L (316L SS Heat-resistant Plate)	SA240,Type-316L (316L SS Heat-resistant Plate)	E316L-16 ER316L	ER316L E316LT-1
P8 to P43	SA240,Type-316L (316L SS Heat-resistant Plate)	SB168, UNS N066xx	ENiCrFe-3			Multiple 6600 series alloys, need more info
P8 to P45	SA240,Type-316L (316L SS Heat-resistant Plate)	SB463, UNS N080xx (NiCrMo Plate)	ERNiMo-3			Includes alloys 8020, 8024, 8026
P8 to P8	SA240,Type-317 (317 SS Heat-resistant Plate)	SA240,Type-317 (317 SS Heat-resistant Plate)	E317
P8 to P8	SA240,Type-317L (317L SS Heat-resistant Plate)	SA240,Type-317L (317L SS Heat-resistant Plate)	E317L -15 ER317L	ER317L E317LT-1
P8 to P8	SA240,Type-321 (321 SS Heat-resistant Plate)	SA240,Type-321 (321 SS Heat-resistant Plate)	E347 ER347	ER347
P8 to P8	SA240,Type-347 (347 SS Heat-resistant Plate)	SA240,Type-347 (347 SS Heat-resistant Plate)	E347 ER317	ER347
P8 to P8	SA240,Type-348 (348 SS Heat-resistant Plate)	SA240,Type-348 (348 SS Heat-resistant Plate)	E347-15 ER347	ER347
P7 to P7	SA240,Type-405 (405 Heat-resistant Plate)	SA240,Type-405 (405 Heat-resistant Plate)	E410 ER410	ER410
P6 to P8	SA240,Type-410 (410 Heat-resistant Plate)	SA240,Type-304L (304L SS Heat-resistant Plate)	E309L-16
P6 to P7	SA240,Type-410 (410 Heat-resistant Plate)	SA240,Type-405 (405 Heat-resistant Plate)	E410 ER410	ER410
P6 to P6	SA240,Type-410 (410 Heat-resistant Plate)	SA240,Type-410 (410 Heat-resistant Plate)	R410 ER410	ER410
P6 to P7	SA240,Type-410 (410 Heat-resistant Plate)	SA240,Type-410S (410S Heat-resistant Plate)	E309-16
P7 to P7	SA240,Type-410S (410S Heat-resistant Plate)	SA240,Type-410S (410S Heat-resistant Plate)	E309 ER309	ER309 E309LT-1
P7 to P7	SA240,Type-430 (430 Heat-resistant Plate)	SA240,Type-430 (430 Heat-resistant Plate)	E430-15 ER430	ER430
P8 to P8	SA249, Gr-316L (316L Tubes)	SA249, Gr-316L (316L Tubes)	E316L-15 ER316L	ER316L E316LT-1
P8 to P8	SA249, Gr-TP304 (304 Tubes)	SA249, Gr-TP304 (304 Tubes)	E308 ER308	ER308 E308T-1
P8 to P8	SA249, Gr-TP304L (304L Tubes)	SA249, Gr-TP304L (304L Tubes)	E308L ER308L	ER308L E308LT-1
P8 to P8	SA249, Gr-TP309 (309 Tubes)	SA249, Gr-TP309 (309 Tubes)	E309-15 ER309	ER309 E309T-1
P8 to P8	SA249, Gr-TP310 (310 Tubes)	SA249, Gr-TP317 (317 Tubes)	E317 ER317Cb	ER317Cb
P8 to P8	SA249, Gr-TP310 (310 Tubes)	SA249, Gr-TP310 (310 Tubes)	E310 ER310	ER310
P8 to P8	SA249, Gr-TP316 (316 Tubes)	SA249, Gr-TP316 (316 Tubes)	E316 ER316	ER316
P8 to P8	SA249, Gr-TP316H (316H Tubes)	SA249, Gr-TP316H (316H Tubes)	E316-15 ER316	ER316 E316T-1
P8 to P8	SA249, Gr-316L (316L Tubes)	SA249, Gr-316L (316L Tubes)	E316L ER316L	ER316L E316LT-1
P8 to P8	SA249, Gr-TP317 (317 Tubes)	SA249, Gr-TP317 (317 Tubes)	E317
P8 to P8	SA249, Gr-TP321 (321 Tubes)	SA249, Gr-TP321 (321 Tubes)	E347 ER347	ER347
P8 to P8	SA249, Gr-TP347 (347 Tubes)	SA249, Gr-TP347 (347 Tubes)	E347 ER347	ER347
P8 to P8	SA249, Gr-TP348 (348 Tubes)	SA249, Gr TP348	E347-15 ER347	ER347
P1 to P1	SA266,Class-1,2,3 (Carbon Steel Forgings)	SA266,Class-1,2,3 (Carbon Steel Forgings)	E7018 ER70S-3	ER70S-5 E70T-1
P7 to P7	SA268, Gr-TP430 (430 General Purpose Tubing)	SA268, Gr-TP430 (430 General Purpose Tubing)	E430-15 ER430	ER430
P1 to P1	SA283, Gr-A (Carbon Steel Plate)	SA283, Gr-A (Carbon Steel Plate)	E7014 ER70S-3	ER70S-3 E70T-1
P1 to P1	SA283, Gr-B (Carbon Steel Plate)	SA283, Gr-B (Carbon Steel Plate)	E7014 ER70S-3	ER70S-3 E70T-1
P1 to P8	SA283, Gr-C (Carbon Steel Plate)	SA240,Type-304 (304 SS Heat-resistant Plate)		ER309L
P1 to P1	SA283, Gr-C (Carbon Steel Plate)	SA283, Gr-C (Carbon Steel Plate)	E7014 ER70S-3	ER70S-3 E70T-1
P1 to P1	SA283, Gr-D (Carbon Steel Plate)	SA283, Gr-D (Carbon Steel Plate)	E7014 ER70S-3	ER70S-3 E70T-1
P1 to P1	SA285, Gr-A (Carbon Steel Plate)	SA285, Gr-A (Carbon Steel Plate)	E7018 ER70S-6	ER70S-6 E71T-1
P1 to P42	SA285, Gr-A (Carbon Steel Plate)	SB127, UNS N04400 (63Ni30Cu Plate)	ENiCu-7
P1 to P1	SA285, Gr-B (Carbon Steel Plate)	SA285, Gr-B (Carbon Steel Plate)	E7018 ER70S-6	ER70S-6 E71T-1
P1 to P8	SA285, Gr-C (Carbon Steel Plate)	SA240,Type-304 (304 SS Heat-resistant Plate)	E309 ER309	ER309
P1 to P8	SA285, Gr-C (Carbon Steel Plate)	SA240,Type-31 (316 Heat-resistant SS Plate)	E309 ER309	ER309
P1 to P8	SA285, Gr-C (Carbon Steel Plate)	SA240,Type-316L (316L SS Heat-resistant Plate)	ENiCrFe-3	E316LT-1
P1 to P1	SA285, Gr-C (Carbon Steel Plate)	SA285, Gr-C (Carbon Steel Plate)	E7018 ER70S-6	ER70S-6 E71T-1
P1 to P5A	SA285, Gr-C (Carbon Steel Plate)	SA387, Gr-22, (2 1/4Cr Plate)	E7018 ER70S-6	ER70S-6 E71T-1	Y
P1 to P5A	SA285, Gr-C (Carbon Steel Plate)	SA387, Gr-22, (2 1/4Cr Plate)	E7018 ER70S-6	ER70S-6 E71T-1	Y
P1 to P42	SA285, Gr-C (Carbon Steel Plate)	SB127, UNS N04400 (NiCu Plate)	ENiCu-7
P1 to P41	SA285, Gr-C (Carbon Steel Plate)	SB162, UNS N02200, 2201 (Nickel-99%)	Eni-1 ERNi-1	ER1T-1
P1 to P43	SA285, Gr-C (Carbon Steel Plate)	SB168, UNS N066xx	ERNiCr-3			Multiple 6600 series alloys, need more info
P1 to P45	SA285, Gr-C (Carbon Steel Plate)	SB409, UNS N088xx (NiFeCr Plate)	ENiCrFe-2 ERNiCr-3	ERNiCr-3		Includes alloys 8800, 8810, 8811
P1 to P45	SA285, Gr-C (Carbon Steel Plate)	SB463, UNS N080xx (NiCrMo Plate)	E320-15			Includes alloys 8020, 8024, 8026
P1 to P44	SA285, Gr-C (Carbon Steel Plate)	SB575, UNS N10276 (Low Carbon NiMoCrW Plate)	ENiCrFe-2
P3 to P3	SA285, Gr-C (Carbon Steel Plate)	SA302, Gr-C (Alloy Steel Plate MnMoNi)	E9018-M	E91T1-K2
P8 to P8	SA312, Gr-TP304 (304 Pipe)	SA312, Gr-TP304 (304 Pipe)	E308-15 ER308	ER308 E308T-1
P8 to P1	SA312, Gr-TP304 (304 Pipe)	SA53, Gr-B,-ERW Carbon Steel Pipe)
P8 to P45	SA312, Gr-TP304 (304 Pipe)	SB464, UNS N080xx (NiCrMo Pipe)	ENiCrMo-3 ER320			Includes alloys 8020, 8024, 8026
P8 to P8	SA312, Gr-TP304H (304H Pipe)	SA312, Gr-TP304H (304H Pipe)	E308H-16 ER308H
P8 to P8	SA312, Gr-TP304L (304L Pipe)	SA312, Gr-TP304L (304L Pipe)	E308L ER308L	ER308L
P8 to P8	SA312, Gr-TP309 (309 Pipe)	SA312, Gr-TP309 (309 Pipe)	E309-15 ER309	ER309 E309T-1
P8 to P8	SA312, Gr-TP310 (310 Pipe)	SA312, Gr-TP310 (310 Pipe)	E310-15 ER310	ER310
P8 to P8	SA312, Gr-TP316 (316 Pipe)	SA312, Gr-TP316 (316 Pipe)	E316 ER316	ER316
P8 to P8	SA312, Gr-TP316L (316L Pipe)	SA312, Gr-TP316L (316L Pipe)	E316L ER316L	ER316L E316LT-1
P8 to P8	SA312, Gr-TP317 (317 Pipe)	SA312, Gr-TP317 (317 Pipe)	E317-15 ER317	ER317
P8 to P8	SA312, Gr-TP321 (321 Pipe)	SA312, Gr-TP321 (321 Pipe)	E347-15 ER347	ER347 E347T-1
P8 to P8	SA312, Gr-TP347 (347 Pipe)	SA312, Gr-TP347 (347 Pipe)	E347-15 ER347	ER347 E347T-1
P8 to P8	SA312, Gr-TP348 (348 Pipe)	SA312, Gr-TP348 (348 Pipe)	E347-15 ER347	ER347
P1 to P8	SA333, Gr-1 (Carbon Steel Pipe for Low-Temp Service)	SA240,Type-304 (304 SS Heat-resistant Plate)	ER309
P1 to P1	SA333, Gr-1 (Carbon Steel Pipe for Low-Temp Service)	SA333, Gr-1 (Carbon Steel Pipe for Low-Temp Service)	E8018-C3 ER80S-NiL	ER80S-NiL
P9B to P9B	SA333, Gr-3 (Carbon Steel Pipe for Low-Temp Service)	SA333, Gr-3 (Carbon Steel Pipe for Low-Temp Service)	E8018-C2 ER80S-Ni3
P4 to P4	SA333, Gr-4 (Carbon Steel Pipe for Low-Temp Service)	SA333, Gr-4 (Carbon Steel Pipe for Low-Temp Service)	E8018-C2 ER80S-Ni3	ER80S-NI3 E80C-Ni3	Y
P1 to P8	SA333, Gr-6 (Carbon Steel Pipe for Low-Temp Service)	SA312, Gr-TP304 (304 SS Pipe)	E309 ER309
P1 to P8	SA333, Gr-6 (Carbon Steel Pipe for Low-Temp Service)	SA312, Gr-TP304L (304L SS Pipe)
P1 to P8	SA333, Gr-6 (Carbon Steel Pipe for Low-Temp Service)	SA312, Gr-TP316 (316 SS Pipe)	ER309-16 ER309
P1 to P8	SA333, Gr-6 (Carbon Steel Pipe for Low-Temp Service)	SA312, Gr-TP316L (316L SS Pipe)	ER309
P1 to P1	SA333, Gr-6 (Carbon Steel Pipe for Low-Temp Service)	SA333, Gr-6 (Carbon Steel Pipe for Low-Temp Service)	E8018-C3 ER80S-NiL	ER80S-NiL
P1 to P1	SA333, Gr-6 (Carbon Steel Pipe for Low-Temp Service)	SA350, Gr-LF2 (Low Alloy Forgings)	E7018-1 ER70S-1
P1 to P8	SA333, Gr-6 (Carbon Steel Pipe for Low-Temp Service)	SA358, Gr-316L (316L EFW Pipe)	ER309L
P1 to P1	SA333, Gr-6 (Carbon Steel Pipe for Low-Temp Service)	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	E7018 ER70S-2		Y
P3 to P3	SA335, Gr-P1 (C1 1/2Mo Pipe for Hi-Temp Service)	SA335, Gr-P1 (C1 1/2Mo Pipe for Hi-Temp Service)	E7018-A1 ER80S-D2	ER80S-D2
P4 to P8	SA335, Gr-P11 (1 1/4Cr1/2Mo Pipe for Hi-Temp Service)	SA312, Gr-TP304 (304 SS Pipe)	ER309
P4 to P4	SA335, Gr-P11 (1 1/4Cr1/2Mo Pipe for Hi-Temp Service)	SA335, Gr-P11 (1 1/4Cr1/2Mo Pipe for Hi-Temp Service)	E8018-B2 ER80S-B2	ER80S-B2	Y
P4 to P5A	SA335, Gr-P11 (1 1/4Cr1/2Mo Pipe for Hi-Temp Service)	SA335, Gr-P22 (2 1/4Cr1Mo Pipe for Hi-Temp Service)	E8018-B2 ER80S-B2	ER80S-B2	Y
P3 to P3	SA335, Gr-P2 (1/2Cr1/2Mo Pipe for Hi-Temp Service)	SA335, Gr-P2 (1/2Cr1/2Mo Pipe for Hi-Temp Service)	E8018-B2 ER80S-B2	ER80S-B2
P5A to P5A	SA335, Gr-P22 (2 1/4Cr1Mo Pipe for Hi-Temp Service)	SA335, Gr-P22 (2 1/4Cr1Mo Pipe for Hi-Temp Service)	E9018-B3 ER90S-B3	ER90S-B3	Y
P5B to P6	SA335, Gr-P5 (5Cr1/2Mo Pipe for Hi-Temp Service)	SA268, Gr TP410	E410-16 ER410
P5B to P5B	SA335, Gr-P5 (5Cr1/2Mo Pipe for Hi-Temp Service)	SA335, Gr-P5 (5Cr1/2Mo Pipe for Hi-Temp Service)	E8018-B6 ER80S-B6	ER80S-B6	Y
P5B to P5B	SA335, Gr-P9 (9Cr1Mo Pipe for Hi-Temp Service)	SA335, Gr-P9 (9Cr1Mo Pipe for Hi-Temp Service)	E8018-B8l		Y
P5B to P5B	SA335, Gr-P91 (9Cr1Mo Pipe for Hi-Temp Service)	SA335, Gr-P91 (9Cr1Mo Pipe for Hi-Temp Service)			Y
P3 to P3	SA352, Gr-LC1 (Steel Castings for Low-Temp Service)	SA352, Gr-LC1 (Steel Castings for Low-Temp Service)	E7018-A1 ER80S-D2	ER80S-D2
P9A to P9A	SA352, Gr-LC2 (NiCrMo Castings for Low-Temp Service)	SA352, Gr-LC2 (NiCrMo Castings for Low-Temp Service)	E8018-C1 ER80S-Ni2	ER80S-Ni2 E80C-Ni2
P9B to P9B	SA352, Gr-LC3 (3-1/2%-Ni Castings for Low-Temp Service)	SA352, Gr-LC3 (3-1/2%-Ni Castings for Low-Temp Service)	E8018-C2 ER80S-Ni2	ER80S-Ni2 E80C-Ni3
P8 to P8	SA358, Gr-304 (304 SS EFW Pipe)	SA358, Gr-304 (304 SS EFW Pipe)	E308-15 ER308	ER308 E308T-1
P8 to P8	SA358, Gr-304L (304L SS EFW Pipe)	SA358, Gr-304L (304L SS EFW Pipe)	E308L-15 ER308L	ER308L E308LT-1
P8 to P8	SA358, Gr-309 (309 SS EFW Pipe)	SA358, Gr-309 (309 SS EFW Pipe)	E309-15 ER309	ER309 E309T-1
P8 to P8	SA358, Gr-310 (310 SS EFW Pipe)	SA358, Gr-310 (310 SS EFW Pipe)	E310-15 ER310	ER310
P8 to P8	SA358, Gr-316 (316 SS EFW Pipe)	SA358, Gr-316 (316 SS EFW Pipe)	E316-15 ER316	ER316 E316T-1
P8 to P8	SA358, Gr-316L (316L SS EFW Pipe)	SA358, Gr-316L (316L SS EFW Pipe)	ER316L	E316LT-1
P8 to P8	SA358, Gr-321 (321 SS EFW Pipe)	SA358, Gr-321 (321 SS EFW Pipe)	E347-15 ER347	ER347 E347T-1
P8 to P8	SA358, Gr-348 (348 SS EFW Pipe)	SA358, Gr-348 (348 SS EFW Pipe)	E347-15 ER347	ER347
P1 to P8	SA36 (Carbon Structural Steel)	SA240,Type-304 (304 SS Heat-resistant Plate)	E 309 ER309	ER309
P1 to P8	SA36 (Carbon Structural Steel)	SA240,Type-304L (304L SS Heat-resistant Plate)		ER309L
P1 to P6	SA36 (Carbon Structural Steel)	SA240,Type-410 (410 Heat-resistant Plate)	E309L-16
P1 to P1	SA36 (Carbon Structural Steel)	SA36 (Carbon Structural Steel)	E7014 ER70S-3	ER70S-3 E70T-1
P1 to P3	SA36 (Carbon Structural Steel)	SA533,Type-B, (MnMoNi Plate)	E7018	ER70S-6	Y
P1 to P31	SA36 (Carbon Structural Steel)	SB152, UNS C10200 (Copper Plate	ERCuSi-A
P1 to P45	SA36 (Carbon Structural Steel)	SB625, UNS N089xx (25/20 NiCr Plate)	E309-16			Includes 8904, 8925, 8926, 8932
P3 to P3	SA369, Gr-FP1 (C-1/2Mo Forged or bored Pipe)	SA369, Gr-FP1 (C-1/2Mo Forged or bored Pipe)	E7018-A1 ER80S-D2	ER80S-D2 E81T1-A1
P4 to P4	SA369, Gr-FP11 (1 1/4Cr-1/2Mo Forged or bored Pipe)	SA369, Gr-FP11 (1 1/4Cr-1/2Mo Forged or bored Pipe)	E8018-B2 ER80S-B2	ER80S-B2 E80C-B2	Y
P4 to P4	SA369, Gr-FP12 (1Cr-1/2Mo Forged or bored Pipe)	SA369, Gr-FP12 (1Cr-1/2Mo Forged or bored Pipe)	E8018-B2 ER80S-B2	ER8S-B2 E80C-B2	Y
P3 to P3	SA369, Gr-FP2 (CrMo Forged or bored Pipe)	SA369, Gr-FP2 (CrMo Forged or bored Pipe)	E8018-B2 ER80S-B2	ER8S-B2 E80C-B2
P8 to P8	SA376, Gr-TP304 (304 SS SMLS Pipe for Hi-Temp Service)	SA376, Gr-TP304 (304 SS SMLS Pipe for Hi-Temp Service)	ER308
P4 to P8	SA387, Gr-11, (1 1/4Cr1/2Mo Plate)	SA240,Type-304 (304 SS Heat-resistant Plate)	E309 ER309	ER309
P4 to P4	SA387, Gr-11, (1 1/4Cr1/2Mo Plate)	SA387, Gr-11, (1 1/4 Cr 1/2Mo Plate)	E8018-B2 ER80S-B2	ER80S-B2 E81T1-B2	Y
P4 to P8	SA387, Gr-11, (1 1/4Cr1/2Mo Plate)	SA240,Type-304 (304 SS Heat-resistant Plate)	E309 ER309	ER309
P4 to P8	SA387, Gr-11, (1 1/4Cr1/2Mo Plate)	SA240,Type-316 (316 SS Heat-resistant Plate)	E309Cb-15
P4 to P7	SA387, Gr-11, (1 1/4Cr1/2Mo Plate)	SA240,Type-410S (410S Heat-resistant Plate)	E309-16
P4 to P4	SA387, Gr-11, (1 1/4Cr1/2Mo Plate)	SA387, Gr-11, (1 1/4 Cr 1/2 Mo Plate)	E8018-B2 ER80S-B2	ER80S-B2	Y
P5A to P8	SA387, Gr-11, (1 1/4Cr1/2Mo Plate)	SA240,Type-304 (304 SS Heat-resistant Plate)	ENiCrMo-3
P5A to P5A	SA387, Gr-22 (2 1/4Cr1Mo Plate)	SA387, Gr-22 (2 1/4Cr1Mo Plate)	E9018-B3 ER90S-B3	ER90S-B3	Y
P5B to P8	SA387, Gr-5, (5Cr1/2Mo Plate)	SA240,Type-316L (316L SS Heat-resistant Plate)	E309 ER309	ER309
P5B to P5B	SA387, Gr-5, (5Cr1/2Mo Plate)	SA387, Gr-5, (5Cr1/2Mo Plate)	E8018-B6 ER80S-B6	ER80S-B6	Y
P5B to P8	SA387, Gr-5, (5Cr1/2Mo Plate)	SA240,Type-316L (316L SS Heat-resistant Plate)	E309 ER309	ER309
P5B to P7	SA387, Gr-5, (5Cr1/2Mo Plate)	SA240,Type-410S (410S Heat-resistant Plate)	ENiCrFe-2
P5B to P5B	SA387, Gr-5, (5Cr1/2Mo Plate)	SA387, Gr-5, (5Cr1/2Mo Plate)	E8018-B6 ER80S-B6	ER80S-B6
P8 to P8	SA409, Gr-TP304 (304 SS large Dia. Pipe)	SA312, Gr-TP347 (347 Pipe)	E308 ER308	ER308 E308T-1
P1 to P1	SA414, Gr-G (Carbon Steel Plate)	SA414, Gr-G (Carbon Steel Plate)	E6012 ER70S-3	ER70S-3 E70T-1
P1 to P45	SA515, Gr-60 (Carbon Steel Plate)	SB409, UNS N088xx (NiFeCr Plate)	Eni-1			Includes alloys 8800, 8810, 8811
P1 to P3	SA515, Gr-70 (Carbon Steel Plate)	SA204, Gr-B (Alloy Steel, Molybdenum)	E7018 ER70S-3	ER70S-3 E70T-1
P1 to P8	SA515, Gr-70 (Carbon Steel Plate)	SA240,Type-316L (316L Heat-resistant SS Plate)
P1 to P1	SA515, Gr-70 (Carbon Steel Plate)	SA515, Gr-70 (Carbon Steel Plate)	E7018 ER70S-3	ER70S-3 E70T-1
P1 to P41	SA515, Gr-70 (Carbon Steel Plate)	SB162, UNS N02200, 2201 (Nickel-99%)	ERNi-1
P1 to P43	SA515, Gr-70 (Carbon Steel Plate)	SB168, UNS N066xx	ENiCrFe-3			Multiple 6600 series alloys, need more info
P1 to P1	SA515, Gr-70 (Carbon Steel Plate)	SA515, Gr-70 (Carbon Steel Plate)	ER70S-2	ER70S-3
P1 to P1	SA515, Gr-55 (Carbon Steel Plate)	SA515, Gr-70 (Carbon Steel Plate)	E7018 ER70S-2	E71T-1
P1 to P8	SA515, Gr-60 (Carbon Steel Plate)	SA240,Type-304L (304L SS Heat-resistant Plate)	E309-16
P1 to P7	SA515, Gr-60 (Carbon Steel Plate)	SA240,Type-410S (410S Heat-resistant Plate)		ER309L
P1 to P1	SA515, Gr-60 (Carbon Steel Plate)	SA515, Gr-60 (Carbon Steel Plate)	E7018	ER70S-3
P1 to P1	SA515, Gr-60 (Carbon Steel Plate)	SA515, Gr-70 (Carbon Steel Plate)	E7018-1 ER70S-2	E71T-1
P1 to P1	SA515, Gr-60 (Carbon Steel Plate)	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	E8010-G
P1 to P1	SA515, Gr-65 (Carbon Steel Plate)	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	E8010-G
P1 to P9B	SA515, Gr-70 (Carbon Steel Plate)	SA203, Gr-D (Alloy Steel, Nickel Plate)	E7018 ER70S-3	ER70S-3 E70T-1
P1 to P9B	SA515, Gr-70 (Carbon Steel Plate)	SA203, Gr-E (Alloy Steel, Nickel Plate)	E8018-C2
P1 to P3	SA515, Gr-70 (Carbon Steel Plate)	SA203, Gr-B (Alloy Steel, Nickel Plate)	E7018- ER70S-3	ER70S-3 E70T-1
P1 to P3	SA515, Gr-70 (Carbon Steel Plate)	SA203, Gr-C (Alloy Steel, Nickel Plate)	E7018 ER70S-3	ER70S-3 E70T-1
P1 to P10H	SA515, Gr-70 (Carbon Steel Plate)	SA240, Gr S31803	E309LMo			Gr S31803 UNS N0t in current SectII
P1 to P10H	SA515, Gr-70 (Carbon Steel Plate)	SA240, Gr S32550	ENiCrFe-3			Gr S32550 UNS N0t in current SectII
P1 to P8	SA515, Gr-70 (Carbon Steel Plate)	SA240,Type-304 (304 SS Heat-resistant Plate)	E309-16 ER309	E309T-1
P1 to P8	SA515, Gr-70 (Carbon Steel Plate)	SA240,Type-304H (304H SS Heat-resistant Plate)	ENiCrFe-2
P1 to P8	SA515, Gr-70 (Carbon Steel Plate)	SA240, Gr-304L (304L SS Heat-resistant Plate)	E309L-16	ER309L E309LT-1
P1 to P8	SA515, Gr-70 (Carbon Steel Plate)	SA240,Type-316L (316L SS Heat-resistant Plate)	ERNiCrFe-3	E309LT-1
P1 to P7	SA515, Gr-70 (Carbon Steel Plate)	SA240,Type-410S (410S Heat-resistant Plate)	E410-16
P1 to P3	SA515, Gr-70 (Carbon Steel Plate)	SA302, Gr-C (Alloy Steel Plate MnMoNi)	E7018 ER70S-3	ER70S-3 E70T-1
P1 to P4	SA515, Gr-70 (Carbon Steel Plate)	SA387SA387, Gr-22 (2 1/4Cr Plate)	E7018 ER70S-3	ER70S-3 E70T-1	Y
P1 to P5A	SA515, Gr-70 (Carbon Steel Plate)	SA387, Gr-22 (2 1/4Cr1Mo Plate)	E9018-B3		Y
P1 to P5B	SA515, Gr-70 (Carbon Steel Plate)	SA387, Gr-5 (5Cr1/2Mo Plate)	E8018-B1		Y
P1 to P1	SA515, Gr-70 (Carbon Steel Plate)	SA515, Gr-70 (Carbon Steel Plate)	E7018
P1 to P1	SA515, Gr-70 (Carbon Steel Plate)	SA515, Gr-70 (Carbon Steel Plate)	E7018 ER70S-3	ER70S-3 E70T-1
P1 to P42	SA515, Gr-70 (Carbon Steel Plate)	SB127, UNS N04400 (63Ni30Cu Plate)	ENiCrFe-2
P1 to P41	SA515, Gr-70 (Carbon Steel Plate)	SB162, UNS N02200, N02201 (Nickel-99%)	Eni-1	ERNi-1
P1 to P41	SA515, Gr-70 (Carbon Steel Plate)	SB163, UNS N02200, N02201 (Nickel-99%)	ENiCrFe-3
P1 to P44	SA515, Gr-70 (Carbon Steel Plate)	SB333, UNS UNS N0.-N1000 (NiMo Plate)	ENiCrFe-2			Includes N10001, N10629, N10665, N10675
P1 to P45	SA515, Gr-70 (Carbon Steel Plate)	SB409, UNS N088xx (NiFeCr Plate)	ENiCrFe-2			Includes alloys 8800, 8810, 8811
P1 to P45	SA515, Gr-70 (Carbon Steel Plate)	SB424, UNS N08821, 8825 (NiFeCrMoCu Plate)	ENiCrMo-3
P1 to P45	SA515, Gr-70 (Carbon Steel Plate)	SB425, UNS N08821, 8825 (NiFeCrMoCu Rod & Bar)	ERNiCrMo-3
P1 to P45	SA515, Gr-70 (Carbon Steel Plate)	SB463, UNS N080xx (NiCrMo Plate)	ENiCrMo-3	E309LT-1		Includes alloys 8020, 8024, 8026
P1 to P44	SA515, Gr-70 (Carbon Steel Plate)	SB574, UNS N10276 (Low Carbon NiMoCrW Rod)	ENiCrMo-4
P1 to P44	SA515, Gr-70 (Carbon Steel Plate)	SB575, UNS N060xx		ENiCrMo-1		Multiple N60XX specs. Need moreinformation
P1 to P44	SA515, Gr-70 (Carbon Steel Plate)	SB575, UNS N10276 (Low Carbon NiMoCrW Plate)	ERNiCrFe-2 ERNiCrMo-10
P1 to P45	SA515, Gr-70 (Carbon Steel Plate)	SB625, UNS N089xx (NiCrMoCu Plate)				Multiple 8900 series alloys, need more info
P1 to P45	SA515, Gr-70 (Carbon Steel Plate)	SB688, UNS N08366, N08367 (CrNiMoFe Plate)	ENiCrMo-3
P1 to P1	SA53, Gr-A,-ERW (Carbon Steel Pipe)	SA53, Gr-B,-ERW (Carbon Steel Pipe)	E7018 ER70S-2
P1 to P5A	SA53, Gr-B,-ERW (Carbon Steel Pipe)	SA335, Gr-P22 (2 1/4Cr1Mo Pipe for Hi-Temp Service)	E6010 ER80S-D2	ER80S-D2 E70T-1	Y
P1 to P1	SA53, Gr-B,-ERW (Carbon Steel Pipe)	SA53, Gr-B,-ERW (Carbon Steel Pipe)	E6010 ER70S-3	ER70S-3 E71T-1
P1 to P1	SA53, Gr-B,-ERW (Carbon Steel Pipe)	SA53, Gr-B,-Seamless (Carbon Steel Pipe)	E6010 ER70S-3	ER70S-3 E71T-1
P1 to P3	SA533,Type-A (MnMo Plate)	SA533,Type-A (MnMo Plate)	E11018-M	E110T5-K4	Y
P1 to P9B	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	SA203, Gr-E (Carbon Steel Plate)	E8018-C2 ER80S-Ni3	ER80S-Ni3	Y
P1 to P1	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	SA533,Type-A (MnMo Plate)	E7018 ER70S-3	ER70S-3 E70T-1	Y
P1 to P1	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	E7018 ER70S-3	ER70S-3 E70T-1	Y
P1 to P42	SA533,Type-A (MnMo Plate)	SB127, UNS N04400 (NiCu Plate)	ENiCu-7
P1 to P9B	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	SA203, Gr-E (Carbon Steel Plate)	E8018-C2 ER80S-Ni3	ER80S-Ni3	Y
P1 to P9B	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	SA203, Gr-E (Carbon Steel Plate)	E8018-C2 ER80S-Ni3	ER80S-Ni3	Y
P1 to P1	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	E10018-M		Y
P1 to P1	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	E10018-M ER100S-1	ER100S-1 E100T-K3	Y
P1 to P9B	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	SA203, Gr-E (Carbon Steel Plate)	E8018-C2 ER80S-Ni3	ER80S-Ni3	Y
P1 to P1	SA541, Gr1 (Carbon Steel Forgings)	SA537,Cl.-1<=2-1/2″ (CMnSi Steel, Heat-treated Plate)	E7018 ER70S-3	ER70S-3 E70S-3	Y
P5C to P5C	SA542,Type-A (2 1/4Cr1Mo Plate)	SA542,Type-A (2 1/4Cr1Mo Plate)	E9018-B3 ER90S-B3	ER90S-B3	Y
P10C to P10C	SA612 (Carbon Steel for Low-Temp Service)	SA612 (Carbon Steel for Low-Temp Service)	ER80S-D2	ER80S-D2 E110T5-K4
P1 to P1	SA671, GrCC65 (Carbon Steel, Killed, Fine Grain, EFW Pipe for Low-Temp Service)	SA515, Gr-70 (Carbon Steel Plate)		ER80S-D2
P1 to P1	SA671, GrCC70 (Carbon Steel, Killed, Fine Grain, EFW Pipe for Low-Temp Service)	SA671, GrCC70 (Carbon Steel, Killed, Fine Grain, EFW Pipe for Low-Temp Service)	E6010
P42 to P42	SB127, UNS N04400 (63Ni30Cu Plate)	SB127, UNS N04400 (63Ni30Cu Plate)	ENiCu-7 ERNiCu-7	ERNiCu-7
P42 to P43	SB127, UNS N04400 (63Ni30Cu Plate)	SB168, UNS N066XX	ENiCrFe-3			High Nickel/Chrome, need final two digits to determine composition
P35 to P35	SB148, UNS C952	SB148, UNS C952XX	ERCuAl-A2
P41 to P41	SB160, UNS N02200, N02201 (99% Ni Rod & Bar)	SB160, UNS N02200, N02201 (99% Ni Rod & Bar)	ENi-1 ERNi-1	ERNi-1
P41 to P41	SB161, UNS N02200, N02201 (99% Ni SMLS Pipe)	SB161, UNS N02200, N02201 (99% Ni SMLS Pipe)	ENi-1 ERNi-1	ERNi-1
P41 to P41	SB162, UNS N02200, N02201 (99% Ni Plate)	SB162, UNS N02200, N02201 (99% Ni Plate)	ENi-1 ERNi-1
P42 to P42	SB165, UNS N04400 (63Ni28Cu SMLS Pipe)	SB165, UNS N04400 (63Ni28Cu SMLS Pipe)	ENiCu-7 ERNiCu-7
P43 to P43	SB168, UNS N066xx	SB168, UNS N066xx	ENiCrFe-5 ERNiCrFe-5	ERNiCrFe-5		High Nickel/Chrome, need final two digits to determine composition
P43 to P43	SB168, UNS N066xx	SB168, UNS N066xx				High Nickel/Chrome, need final two digits to determine composition
P34 to P34	SB171, UNS C70600 (90Cu10Ni Plate)	SB171, UNS C70600 (90Cu10Ni Plate)	ECuNi
P34 to P34	SB171, UNS C71500 (70Cu30Ni Plate)	SB171, UNS C71500 (70Cu30Ni Plate)	ERCuNi ERCuNi	ERCuNi
P21 to P21	SB209,Alclad-3003 (99% Aluminum Plate)	SB209,Alclad-3003 (99% Aluminum Plate)	ER4043
P21 to P22	SB209,Alclad-3003 (99% Aluminum Plate)	SB209,Alclad-3004 (99% Aluminum Plate)		ER5654
P23 to P25	SB209-6061 (99% Aluminum Plate)	SB209-5456 (95Al,5Mn Plate)		x
P21 to P21	SB209,Alclad-3003 (99% Aluminum Plate)	SB209,Alclad-3003 (99% Aluminum Plate)	ER4043	x
P22 to P22	SB209,Alclad-3004 (99% Aluminum Plate)	SB209,Alclad-3004 (99% Aluminum Plate)	ER4043	x
P22 to P22	SB209,Alclad-3004 (99% Aluminum Plate)	SB209,Alclad-3004 (99% Aluminum Plate)	ER5654	x
P22 to P23	SB209,Alclad-3004 (99% Aluminum Plate)	SB209-6061 (99% Aluminum Plate)	ER5654
P25 to P25	SB209-5456 (95Al,5Mn Plate)	SB209-5456 (95Al,5Mn Plate)	ER5183	x
P23 to P23	SB209-6061 (99% Aluminum Plate)	SB209-6061 (99% Aluminum Plate)	ER4043	x
P21 to P22	SB210,Alclad-3003 (99% Aluminum SMLS Tube)	SB209,Alclad-3004 (99% Aluminum Plate)		ER5356
P21 to P22	SB210,Alclad-3003 (99% Aluminum SMLS Tube)	SB210-5052-5154 (Al,Mn SMLS Tube)	ER5356
P23 to P23	SB210-6061/6063 (99% Aluminum SMLS Pipe)	SB210-6061/6063 (99% Aluminum SMLS Pipe)	ER5356
P25 to P25	SB241-5083,5086,5456 (Al,Mn SMLS extruded Pipe)	SB241-5083,5086,5456 (Al,Mn SMLS extruded Pipe)	ER5183	ER5183
P51 to P51	SB265, Grade-2 (Unalloyed Titanium Plate)	SB265, Grade-2 (Unalloyed Titanium Plate)	ERTi-1
P44 to P44	SB333, UNS UNS N0.-N10xxx (NiMo Plate)	SB333, UNS UNS N0.-N10xxx (NiMo Plate)	ENiMo-7 ERNiMo-7	ERNiMo-7		Includes N10001, N10629, N10665, N10675
P45 to P45	SB409, UNS N088xx (NiFeCr Plate)	SB409, UNS N088xx (NiFeCr Plate)	ERNiCr-3 ERNiCr-3	ERNiCr-3		Includes alloys 8800, 8810, 8811
P45 to P45	SB423, UNS N08825 (NiFeCrMoCu SMLS Pipe)	SB423, UNS N08825 (NiFeCrMoCu SMLS Pipe)	ERNiCrMo-3
P45 to P45	SB424, UNS N08825 (NiFeCrMoCu Plate)	SB424, UNS N08825 (NiFeCrMoCu Plate)	ERNiCrMo-3	ERNiCrMo-3
P32 to P32	SB43, UNS C2300 (Red Brass SMLS Pipe)	SB43, UNS C2300 (Red Brass SMLS Pipe)	ERCuSi-A
P45 to P45	SB463, UNS N080xx (NiCrMo Plate)	SB625, UNS N089xx (NiCrMoCu Plate)	ENiCrMo-3			SB625-Multiple 8900 series- alloys, need more info SB 463-Includes alloys 8020, 8024, 8026
P45 to P45	SB463, UNS N080xx (NiCrMo Plate)	SB463, UNS N080xx (NiCrMo Plate)	E320-15 ER320			Includes alloys 8020, 8024, 8026
P45 to P45	SB464, UNS N08020-Annealed (NiCrCuMo Pipe)	SB464, UNS N08020-Annealed (NiCrCuMo Pipe)	ERNiCrMo-3
P34 to P34	SB466, UNS C70600 (90Cu10Ni Pipe)	SB466, UNS C70600 (90Cu10Ni Pipe)	ERCuNi
P44 to P44	SB574, UNS N10276 (Low Carbon NiMoCrW Rod)	SB574, UNS N10276 (Low Carbon NiMoCrW Rod)	ERNiCrMo-4
P44 to P45	SB575, UNS N060xx	SB464, UNS N08020-Annealed (NiCrCuMo Pipe)	ERNiCrMo-4
P44 to P44	SB575, UNS N060xx	SB575, UNS N060	ENiCrMo-4 ERNiCrMo-4			Multiple N60XX specs. Need moreinformation
P44 to P44	SB575, UNS N10276 (Low Carbon NiMoCrW Plate)	SB575, UNS N10276 (Low Carbon NiMoCrW Plate)	ERNiCrMo-4 ERNiCrMo-4
P44 to P44	SB619, UNS N102xx (NiCrMo alloy Pipe)	SB619, UNS N102xx (NiCrMo alloy Pipe)	ERNiCrMo-4			Alloys in 102xx seris vary in composition, need exact alloy designation
P45 to P45	SB625, UNS N089xx (NiCrMoCu Plate)	SB625, UNS N089xx (NiCrMoCu Plate)	ENiCrMo-3 ERNiCrMo-3			Multiple 8900 series alloys, need more info
P45 to P45	SB688, UNS N08366, N08367 (CrNiMoFe Plate)	SB688, UNS N08366, N08367 (CrNiMoFe Plate)	ENiCrMo-3 ERNiCrMo-3
P45 to P45	SB688, UNS N08366, N08367 (CrNiMoFe Plate)	SB688, UNS N08366, N08367 (CrNiMoFe Plate)	ENiCrMo-3

Guidelines for Welding Electrodes Handling and Storage

Proper electrode handling and storage are essential to maintaining electrode performance and preventing weld defects. Key practices include:

Dry Storage: Keep electrodes in dry conditions to avoid moisture absorption. This is especially important for low-hydrogen electrodes (e.g., E7018), which require storage in a holding oven at 120–150°C.
Conditioning Before Use: Electrodes exposed to moisture should be dried before use in an oven (e.g., 260–430°C for E7018). Improper drying can lead to hydrogen-induced cracking.
Handling Practices: Avoid dropping or damaging the electrode coating, as cracks or chips can affect the welding arc and lead to poor-quality welds.

Common User Concerns and Solutions

1. Cracking

Problem: Cracking in the weld or heat-affected zone (HAZ).
Solution: Use low-hydrogen electrodes (E7018) and preheat thick or highly restrained joints to minimize residual stresses.

2. Porosity

Problem: Presence of gas pockets in the weld.
Solution: Ensure proper electrode storage to avoid moisture, and clean the base material before welding to remove oils, rust, or paint.

3. Undercutting

Problem: Excessive groove formation along the weld toe.
Solution: Use appropriate welding parameters (current and travel speed) and avoid excessive heat input.

Conclusion

Choosing the right Welding Electrodes is essential for achieving high-quality welds in steel pipes, plates, fittings, flanges, and valves. By considering factors such as the base material, welding position, mechanical properties, and environment, you can ensure a strong and durable weld. Proper handling and storage of electrodes also contribute to preventing common welding issues like cracking and porosity. This guideline serves as a comprehensive reference to help users make informed decisions in electrode selection, ensuring optimal results in welding operations.

Choosing the Right Coatings: 3LPE Coating vs FBE Coating

October 7, 2024/in Industry Knowledge/by Energy Steel

Introduction

In the oil, gas, and water transmission industries, pipeline coatings play a crucial role in ensuring the long-term performance and protection of buried or submerged pipelines. Among the most widely used protective coatings are 3LPE (Three-Layer Polyethylene Coating) and FBE (Fusion Bonded Epoxy Coating). Both provide corrosion resistance and mechanical protection, but they offer distinct advantages depending on the application environment. Understanding their differences is essential for making an informed decision in pipeline coating selection. 3LPE coating vs FBE coating, let’s explore in-depth.

1. Overview of 3LPE Coating vs FBE Coating

3LPE Coating (Three-Layer Polyethylene Coating)

3LPE is a multi-layered protective system that combines different materials to create an effective shield against corrosion and physical damage. It consists of three layers:

Layer 1: Fusion Bonded Epoxy (FBE): This provides strong adhesion to the pipe surface and offers excellent corrosion resistance.
Layer 2: Copolymer Adhesive: The adhesive layer bonds the epoxy layer to the outer polyethylene layer, ensuring a strong bond.
Layer 3: Polyethylene (PE): The final layer offers mechanical protection from impacts, abrasions, and environmental conditions.

FBE Coating (Fusion Bonded Epoxy Coating)

FBE is a single-layer coating made from epoxy resins that are applied in a powder form. When heated, the powder melts and forms a continuous, highly adherent layer around the pipe surface. FBE coatings are primarily used for corrosion resistance in environments that may expose the pipeline to water, chemicals, or oxygen.

2. 3LPE Coating vs FBE Coating: Understanding the Differences

Feature	3LPE Coating	FBE Coating
Structure	Multi-layer (FBE + adhesive + PE)	Single-layer epoxy coating
Corrosion Resistance	Excellent, due to the combined barrier of FBE and PE layers	Very good, provided by epoxy layer
Mechanical Protection	High impact resistance, abrasion resistance, and durability	Moderate; susceptible to mechanical damage
Operating Temperature Range	-40°C to +80°C	-40°C to +100°C
Application Environment	Suitable for harsh environments, including offshore and buried pipelines	Ideal for buried or submerged pipelines in less harsh environments
Application Thickness	Typically thicker, due to multiple layers	Typically thinner, single-layer application
Cost	Higher initial cost due to multi-layer system	More economical; single-layer application
Longevity	Provides long-term protection in aggressive environments	Good for moderate to less aggressive environments

3. Advantages of 3LPE Coating

3.1. Superior Corrosion and Mechanical Protection

The 3LPE system offers a robust combination of corrosion protection and mechanical durability. The FBE layer provides excellent adhesion to the pipe surface, acting as the primary barrier against corrosion, while the PE layer adds additional protection from mechanical stresses, such as impacts during installation and transportation.

3.2. Ideal for Buried and Offshore Pipelines

3LPE coatings are particularly well-suited for pipelines that will be buried underground or used in offshore environments. The outer polyethylene layer is highly resistant to abrasions, chemicals, and moisture, making it ideal for long-term performance in harsh conditions.

3.3. Extended Lifespan in Aggressive Environments

Pipelines coated with 3LPE are known for their longevity in aggressive environments such as coastal areas, high-salt regions, and locations prone to soil movement. The multi-layered protection ensures resistance to moisture penetration, soil contaminants, and mechanical damage, reducing the need for frequent maintenance.

4. Advantages of FBE Coating

4.1. Excellent Corrosion Resistance

Despite being a single-layer coating, FBE provides excellent resistance to corrosion, particularly in less harsh environments. The fusion-bonded epoxy layer is highly effective at preventing moisture and oxygen from reaching the steel pipe surface.

4.2. Heat Resistance

FBE coatings have a higher operating temperature limit compared to 3LPE, making them suitable for pipelines exposed to higher temperatures, such as in certain oil and gas transmission lines. They can operate in temperatures up to 100°C, compared to 3LPE’s typical upper limit of 80°C.

4.3. Lower Application Costs

Since FBE is a single-layer coating, the application process is less complex and requires fewer materials than 3LPE. This makes FBE a cost-effective solution for pipelines in less aggressive environments, where high-impact resistance is not critical.

5. 3LPE Coating vs FBE Coating: Which One Should You Choose?

5.1. Choose 3LPE When:

The pipeline is buried in harsh environments, including coastal regions or areas with high soil moisture content.
High mechanical protection is needed during handling and installation.
Long-term durability and resistance to environmental factors like water and chemicals are required.
The pipeline is exposed to aggressive environments where maximum corrosion protection is essential.

5.2. Choose FBE When:

The pipeline will be operating at higher temperatures (up to 100°C).
The pipeline is not exposed to severe mechanical stresses, and corrosion protection is the primary concern.
The application requires a more economical solution without compromising corrosion resistance.
The pipeline is located in less aggressive environments, such as low-salt soils or moderate climate areas.

6. 3LPE Coating vs FBE Coating: Challenges and Limitations

6.1. Challenges with 3LPE

Higher Initial Costs: The multi-layer system involves more materials and a more complex application process, resulting in higher initial costs.
Thicker Coating: While this adds durability, the thicker coating may require more space in certain applications, especially in tightly confined pipeline installations.

6.2. Challenges with FBE

Lower Mechanical Strength: FBE coatings lack the robust mechanical protection provided by 3LPE, making them more susceptible to damage during handling and installation.
Moisture Absorption: Although FBE provides good corrosion resistance, its single-layer design makes it more prone to moisture ingress over time, particularly in aggressive environments.

7. Conclusion: Making the Right Choice

Choosing between 3LPE and FBE coatings depends on the specific conditions and requirements of the pipeline. 3LPE is ideal for harsh environments where long-term durability and mechanical protection are priorities, while FBE offers a cost-effective solution for environments where corrosion resistance is the main concern and mechanical stresses are moderate.

By understanding the strengths and limitations of each coating, pipeline engineers can make informed decisions to maximize the longevity, safety, and performance of their transmission systems, whether transporting oil, gas, or water.

All You Need to Know: API 5L Specification for Line Pipe

October 6, 2024/in Industry Knowledge/by Energy Steel

Overview of API 5L Specification for Line Pipe

The API 5L standard, published by the American Petroleum Institute (API), specifies requirements for the manufacturing of two types of steel pipes: seamless and welded, primarily used for pipelines transporting oil, gas, water, and other fluids in the oil and gas industry. The standard covers pipes for both onshore and offshore pipeline applications. API 5L Specification for Line Pipe is widely adopted for its rigorous quality controls and testing standards, which ensure the pipes meet safety, performance, and durability requirements in a range of operational environments.

Product Specification Levels (PSL) in API 5L Specification for Line Pipe

API 5L defines two distinct levels of product specification: PSL 1 and PSL 2. These levels differ in terms of mechanical properties, testing requirements, and quality control.

a) PSL1: Basic Requirements

PSL1 is the standard quality level for line pipes. It has basic requirements for chemical composition, mechanical properties, and dimensional tolerances. The pipes specified under PSL1 are used in standard pipeline projects where conditions are not extreme or corrosive.
Chemistry & Mechanical Properties: API 5L PSL1 allows for a broader range of chemical compositions and mechanical properties. The tensile and yield strength are specified, but these are typically lower than PSL2.
Testing: Basic tests, such as hydrostatic testing, are required, but PSL1 pipes do not require more advanced testing like fracture toughness or impact tests.

b) PSL2: Enhanced Requirements

PSL2 imposes stricter requirements on quality control, mechanical properties, and testing procedures. It is required in more demanding pipeline environments, such as offshore or sour service (containing hydrogen sulfide), where pipe failure could have severe consequences.
Chemistry & Mechanical Properties: PSL2 has tighter controls over chemical composition and imposes more stringent mechanical property requirements. For example, PSL2 mandates stricter limits on sulfur and phosphorus to enhance corrosion resistance.
Impact Testing: Charpy impact testing is required for PSL2, especially in low-temperature environments to ensure the pipe’s toughness and ability to resist brittle fractures.
Fracture Toughness: PSL2 specifies fracture toughness testing, especially for pipes that will be used in extreme conditions.
Additional Testing: Non-destructive testing (NDT), like ultrasonic and radiographic testing, is more common for PSL2 pipes to ensure the absence of internal defects.

Pipe Grades in API 5L Specification for Line Pipe

API 5L specifies various pipe grades that represent the strength of the material. These grades include both standard and high-strength options, with each offering different performance characteristics.

a) Grade B

Grade B is one of the most common grades for lower-pressure pipelines. It provides moderate strength and is used in projects where extreme conditions are not expected.
Yield Strength: 241 MPa (35 ksi), Tensile Strength: 414 MPa (60 ksi)

b) High-Strength Grades (X Grades)

The “X” grades in API 5L indicate higher-strength pipes, with numbers following the “X” (e.g., X42, X52, X60) corresponding to the minimum yield strength in ksi (thousands of pounds per square inch).
X42: Minimum yield strength of 42 ksi (290 MPa)
X52: Minimum yield strength of 52 ksi (358 MPa)
X60: Minimum yield strength of 60 ksi (414 MPa)
X65, X70, X80: Used in more demanding projects, such as high-pressure pipelines in offshore environments.

Higher grades like X80 provide excellent strength, allowing the use of thinner pipes to reduce material costs while maintaining safety and performance under high-pressure conditions.

Pipe Manufacturing Processes in API 5L Specification for Line Pipe

API 5L covers both seamless and welded pipe manufacturing processes, each of which has specific advantages depending on the application:

a) Seamless Pipes

Seamless pipes are manufactured through a process that involves heating a billet and piercing it to create a hollow tube. These pipes are typically used in high-pressure applications due to their uniform strength and the absence of a seam, which can be a weak point in welded pipes.
Advantages: Higher strength, no risk of seam failure, good for sour and high-pressure service.
Disadvantages: Higher cost, limited in terms of size and length compared to welded pipes.

b) Welded Pipes

Welded pipes are manufactured by rolling steel into a cylinder and welding the longitudinal seam. API 5L defines two main types of welded pipes: ERW (Electric Resistance Welded) and LSAW (Longitudinal Submerged Arc Welded).
ERW Pipes: These are manufactured by welding the seam using electric resistance, commonly used for smaller diameter pipes.
LSAW Pipes: Manufactured by welding the seam using submerged arc welding, ideal for larger diameter pipes and high-strength applications.

Dimensional Tolerances in API 5L Specification for Line Pipe

API 5L specifies dimensional tolerances for factors like pipe diameter, wall thickness, length, and straightness. These tolerances ensure that the pipes meet the required standards for fit and performance in pipeline systems.
Pipe Diameter: API 5L defines nominal outside diameters (OD) and allows specific tolerances on these dimensions.
Wall Thickness: Wall thickness is specified according to Schedule Numbers or Standard Weight categories. Thicker walls provide increased strength for high-pressure environments.

Length: Pipes can be provided in random lengths, fixed lengths, or double random lengths (typically 38-42 ft), depending on the project requirements.

Testing and Inspection in API 5L Specification for Line Pipe

Testing and inspection protocols are vital for ensuring API 5L pipes meet quality and safety requirements, particularly for PSL2 pipes where failure can lead to catastrophic consequences.

a) Hydrostatic Testing

All API 5L pipes, regardless of the specification level, must pass a hydrostatic test. This test ensures that the pipe can withstand the maximum operating pressure without failure or leaks.

b) Charpy Impact Testing (PSL2)

For PSL2 pipes, Charpy impact testing is mandatory, especially for pipes that will operate in cold environments. This test measures the toughness of the material by determining how much energy it absorbs before fracturing.

c) Fracture Toughness Testing (PSL2)

Fracture toughness testing is essential to ensure that pipes in high-stress or low-temperature environments can resist crack propagation.

d) Non-Destructive Testing (NDT)

PSL2 pipes are subjected to NDT methods, such as:
Ultrasonic Testing: Used to detect internal flaws, like inclusions or cracks, that may not be visible to the naked eye.
Radiographic Testing: Provides a detailed image of the pipe’s internal structure, identifying any potential defects.

Coating and Corrosion Protection

API 5L recognizes the need for external protection, especially for pipelines exposed to corrosive environments (e.g., offshore pipelines or buried pipelines). Common coatings and protective methods include:
3-Layer Polyethylene (3LPE) Coating: Protects against corrosion, abrasion, and mechanical damage.
Fusion-Bonded Epoxy (FBE) Coating: Commonly used for corrosion resistance, especially in underground pipelines.
Cathodic Protection: A technique used to control the corrosion of a metal surface by making it the cathode of an electrochemical cell.

Applications of API 5L Pipes

API 5L pipes are used in a wide variety of pipeline applications, such as:
Crude Oil Pipelines: Transporting crude oil from production sites to refineries.
Natural Gas Pipelines: Transporting natural gas over long distances, often under high pressure.
Water Pipelines: Supplying water to and from industrial operations.
Refined Product Pipelines: Transporting finished petroleum products, such as gasoline or jet fuel, to distribution terminals.

Conclusion

The API 5L Specification for Line Pipe is fundamental to ensuring the safe, efficient, and cost-effective transportation of fluids in the oil and gas industry. By specifying stringent requirements for material composition, mechanical properties, and testing, API 5L provides the foundation for high-performance pipelines. Understanding the differences between PSL1 and PSL2, the various pipe grades, and the relevant testing protocols allows engineers and project managers to select the appropriate line pipes for their specific projects, ensuring safety and long-term durability in challenging operational environments.