The aerospace market experiences scrutiny like few others. Financial accountability is coupled with moral accountability, and brands can be extinguished with minor errors. All parts of an aerospace project, therefore, require the highest levels of quality. Here’s how to ensure that every component can fly safely.
In aerospace manufacturing, the choice of metal makes a big difference. This is because different metals behave differently when under stress, when heated, and when cooled. The characteristics of metals have a strong influence on manufacturing techniques, such as deep hole boring and gundrilling. Here’s a quick guide.
Cost or quality? Or both? Everyone grapples with this conundrum. However, dodgy parts are at the root of many engineering failures. From biomedical equipment to oil and gas components, there are multiple scenarios where precision matters. Today, we look at the enduring problem of cost versus risk.
Topics: Precision Engineering
Machine honing is a precision metalwork technique used to create super-flat, shaped, and super-smooth surfaces. By applying an abrasive stone anvil to cut against the metalwork, and applying intense pressure and movement, pieces of any shape and size can be altered to exact material specifications.
Aerospace today wouldn't exist without outsourced, precision-engineered components. Unlike most land vehicles, almost no modern aircraft are designed, constructed, and tested entirely in-house. Due to the sheer number and diversity of disparate aeroplane, spacecraft, satellite, and helicopter components, aerospace manufacturing typically relies on a scattered production chain of outsourced commissions, to design and build each separate part to fit a grand overall plan.