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AWS D1.1 Welding Procedure and Welder Qualification Checklists

Checklist for using AWS D1.1 to qualify welding procedures, welders and welding operators.
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How to Weld ASTM A514 (T1 Steel) Without Cracking

ASTM A514 (T-1) is a high-strength, quenched and tempered steel known for its exceptional yield strength and use in heavy-duty structural applications like cranes and bridges. Its martensitic microstructure, while providing strength, makes it susceptible to cracking if not welded correctly, particularly in the heat-affected zone. Successful welding requires careful selection of high-strength, low-hydrogen electrodes, precise adherence to preheat and interpass temperature guidelines, and diligent control of hydrogen sources. Unlike many steels, AWS D1.1 requires qualification by testing for A514, emphasizing the need for rigorous procedures to achieve sound and reliable welds.

Frequently Asked Questions About Prequalified Welding Procedures (Stainless Steel)

This post provides answers to frequently asked questions regarding the "280 Prequalified Welding Procedures for Stainless Steel" product. It addresses common inquiries from customers about the digital format, permissible uses for CWIs, distinctions between qualified and prequalified procedures, and the rationale behind the product's affordability. Additionally, it clarifies compliance with AWS D1.6, modification flexibility, and how included guides facilitate proper use and customization of these welding procedures.

Weld Failures: Why They Happen and How to Prevent Them

Weld failures in the field often expose deeper systemic issues within a company's welding operations, leading to severe consequences like litigation and financial distress. Many companies mistakenly rely on past success as justification for lacking proper quality control, including welding procedure and welder performance qualifications, and robust inspection processes. When failures occur, the absence of crucial documentation complicates failure analysis and almost guarantees liability. This post emphasizes the critical need for proactive measures like developing welding quality standards, qualifying procedures and welders, and implementing stringent inspection processes to prevent catastrophic failures and ensure long-term structural integrity.

3 Effective Ways to Reduce Welding Rework

Rework in welding is a massive productivity killer—tripling labor, wasting material, and slowing down production. While there are many causes, three simple fixes can drastically reduce rework: stop overwelding, use properly qualified welding procedures, and maintain your equipment. In this post, we dive into how these small changes yield big results—lowering costs, improving quality, and increasing efficiency across the shop. If you're tired of grinding out the same welds twice, this is the post for you.

6 Challenges When Increasing Deposition Rates

Want to boost welding productivity? Increasing your deposition rate is one of the most effective ways—but only if done right. This post explains the difference between melt-off and deposition rate, how higher deposition leads to faster travel speeds (and real time savings), and the common mistakes that sabotage these gains. Learn how to avoid costly errors, why simply turning up the amps isn’t enough, and how training and proper welding procedures can unlock major efficiency improvements in your shop.