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Flux Cored Welding Wire Spools
Flux-Cored vs. MIG Wire: What Most Shops Get Wrong

This article compares flux-cored and solid MIG welding wires from both a technical and economic perspective. Flux-cored wire excels in out-of-position welding and supports prequalified procedures, while solid wire offers higher efficiency, lower cost, and better productivity in flat and horizontal applications. Many fabrication shops make the mistake of using one process for all welding, leading to unnecessary cost and reduced efficiency. A balanced approach—using each process where it performs best—can significantly improve results. The article also provides practical guidance and tools to evaluate and optimize welding operations.

welding procedure assumptions short circuit globular pulse
5 Mistakes Made by New Welding Supervisors

When someone steps into a role responsible for welding operations, they often bring new ideas and a strong desire to improve things quickly. That opportunity for change can be extremely valuable—but only when approached methodically. Many new supervisors, engineers, and managers make decisions too quickly or without sufficient evaluation, creating unnecessary risk and cost. Understanding the most common pitfalls can help leaders make better decisions that improve quality, productivity, and profitability. In this article, we discuss five mistakes frequently made by those newly responsible for welding operations and how to avoid them.

Mode of Metal Transfer Pulse Pulsed Spray GMAW
How to Reduce Welding Labor Cost in Fabrication Shops

Welding labor is often the largest controllable cost in fabrication shops, yet many operations fail to engineer it intentionally. This article explains how weld size, process selection, operator factor, and procedure optimization directly impact welding labor cost. Learn how to reduce welding cost through structured engineering analysis instead of simply absorbing inefficiencies. Practical steps are provided to help fabrication leaders improve welding productivity immediately.

How to read welding sybmols and avoide problems
How Welding Symbols May Conflict With Shop Capabilities

Welding symbols often assume ideal shop capabilities that do not exist in production. This article explains how symbol requirements can conflict with equipment, access, and process limitations, why shops compensate informally, and how better interpretation can reduce cost and variability.

Welding procedure specification are not just paperwork. They are a communication tool that ensures quality and productivity.
The Real Purpose of a Welding Procedure Specification

A Welding Procedure Specification (WPS) is not optional paperwork—it is a fundamental communication tool linking engineering, supervision, inspection, and production. Structural Welding Codes such as AWS D1.1 requires written procedures for all fabrication, prequalified or not. When WPSs are unavailable, both quality and productivity suffer, leading to rework that can multiply weld cost ten-fold. Properly distributed and followed WPSs ensure that welding variables—amperage, polarity, shielding gas, and preheat—stay within safe, economical limits. This post explains why every welding operation must treat the WPS as the heart of consistent performance.

welding material control
Why Material Control is Necessary to Achieve Weld Quality

Material control is one of the most overlooked aspects of welding quality. Without proper systems for receiving, storing, issuing, and tracking materials, even the best welders can’t guarantee consistent results. Poor control leads to rework, scrap, and lost contracts—costs that quickly add up. In this post, we break down the essentials of material control and show how a Welding Quality Standard can help fabricators reduce waste, improve weld quality, and build customer trust.

How to Prevent Rework and Scrap in Welding Operations

Rework and scrap are two of the biggest hidden drains on profits in fabrication shops. A weld defect that could have been fixed in minutes at the booth often ends up costing hours once it reaches paint or final inspection. The truth is, most rework and scrap are preventable with better procedures, joint prep, in-process checks, and targeted training. This article breaks down the root causes of welding rework and shares five proven ways to stop it before it starts. Implementing even a few of these practices can drastically cut costs and improve customer confidence.

GMAW (Mig) welds can have excellent bead appearance at fast travel speeds without compromis
Why Exceeding Welding Requirements Can Lower Quality and Raise Costs

While everyone strives for high-quality welds, sometimes the pursuit of perfection can backfire, leading to unnecessary costs and even new defects. This article examines four common scenarios where an excess of quality can be detrimental to your welding operation. From overwelding and the myth that "bigger is better," to the risks of chasing excessive penetration and choosing an overly aesthetic process like TIG for every job, these practices often waste time and money without improving the final product. We also explore why using an undermatching filler metal can sometimes be a smarter, more cost-effective choice for preventing cracks than a high-strength, matching filler. The key is to meet the required quality standards without going beyond what the application demands.

Welding Engineers develop welding procedures to meet both production and quality requirements. Many times these procedures are modified or not followed by the shop floor due to issues in communication.
7 Things Engineers Wished Welders Knew About Welding

Ever wonder why engineers specify every detail of a weld? It’s a common source of friction in the shop, but there's a reason for every rule. This blog post explores the "why" behind an engineer's decisions, from the importance of following a welding procedure to the hidden dangers of ignoring heat input and interpass temperatures. Discover the critical insights engineers wish welders knew, and learn how understanding these principles can dramatically improve your work, reduce costly rework, and ultimately make your job easier.

Real world conditions differ significantly from lab conditions. This needs to be taken into account when developing a welding procedure.
6 Things Welders Wish Engineers Knew About Welding

There's an age-old disconnect between the engineering department and the shop floor, especially in companies where welding is a core process. Welders constantly face challenges and frustrations stemming from design requirements that seem out of touch with practical realities. From impossible-to-reach weld locations to specifying costly, unnecessary procedures, these issues directly impact productivity, quality, and your bottom line. In this post we dive deep into the welder's perspective, revealing 6 critical things welders wish engineers understood about welding.