Knowing that a Root Cause Failure Analysis needs to happen is one thing. Knowing which tool to reach for once the investigation starts is another — and it’s the decision that most often determines whether an RCFA actually finds the root cause or just documents the symptoms more thoroughly. We’ve
Most engineers already know that ASME Section VIII governs pressure vessel design. What’s harder is applying it — deciding which Division actually fits a project, where the real cost and schedule trade-offs sit, and which mistakes quietly turn a compliant design into a rejected one. If you’re looking for a
When something goes wrong — a process deviation, a safety incident, an equipment failure — the instinct is to start investigating immediately. But the method chosen for that investigation matters as much as the investigation itself. Root Cause Analysis (RCA) and Root Cause Failure Analysis (RCFA) are often used interchangeably,
Structural analysis helps engineers predict how a component or structure will behave under load. It can calculate stress, strain, deformation, reaction forces, buckling risk, contact pressure, and other important responses. However, not every structure behaves in a simple or proportional way. Some structures remain stiff and elastic throughout loading. Others
Fatigue is one of the most common causes of failure in engineering components and industrial equipment. A structure may safely support a load once. However, the same structure can fail when that load is repeated thousands or millions of times. This type of failure can occur even when the maximum
Engineering simulation allows engineers to evaluate designs before manufacturing, installation, or construction begins. However, not every simulation method solves the same problem. Two of the most widely used methods are Finite Element Analysis and Computational Fluid Dynamics. These methods are commonly known as FEA and CFD. FEA usually evaluates the
