When engineers and material scientists discuss durability, the conversation typically focuses on a familiar set of challenges. Mechanical wear, chemical exposure, ultraviolet radiation, temperature fluctuations, corrosion, and fatigue have long been recognised as the primary forces that determine how materials perform over time. These degradation mechanisms are well understood, supported by decades of research, and embedded within the testing standards that guide material selection across countless industries.

As humanity prepares to return to deep space through missions like Artemis II, much of the attention is understandably focused on the visible engineering achievements, next-generation propulsion systems, advanced navigation capabilities, and the complex architecture required to safely transport humans beyond Earth’s orbit.

These are the technologies that capture headlines. They represent the cutting edge of aerospace innovation and define the ambition of modern space exploration.

When geopolitical tensions rise, the most visible signals tend to appear in energy markets. Oil prices fluctuate, shipping routes come under pressure, and attention focuses on supply security. But the effects rarely stop at energy. They extend much further downstream, into the materials that underpin modern manufacturing such as plastics, coatings, fibres, metals and composites, often with consequences that unfold over longer time horizons.

3D printing has moved well beyond the stage where it was seen mainly as a prototyping tool. Over the past decade, additive manufacturing has steadily become part of real production workflows across industries as varied as aerospace, healthcare, engineering, education and consumer products. Components that were once designed purely as test pieces are now being printed as functional parts expected to perform reliably in real-world conditions.

When engineers and material scientists discuss durability, the conversation typically focuses on a familiar set of challenges. Mechanical wear, chemical exposure, ultraviolet radiation, temperature fluctuations, corrosion, and fatigue have long been recognised as the primary forces that determine how materials perform over time. These degradation mechanisms are well understood, supported by decades of research, and embedded within the testing standards that guide material selection across countless industries.

When geopolitical tensions rise, the most visible signals tend to appear in energy markets. Oil prices fluctuate, shipping routes come under pressure, and attention focuses on supply security. But the effects rarely stop at energy. They extend much further downstream, into the materials that underpin modern manufacturing such as plastics, coatings, fibres, metals and composites, often with consequences that unfold over longer time horizons.

Textiles shape the way we live. They define comfort, identity, safety, and performance in ways that often go unnoticed until they fail. For decades, textile development has been dominated by cycles of trend and consumption, with materials engineered primarily for appearance, cost and speed. But the world has changed. Consumers are asking new questions. Industries are raising expectations. Policymakers are pushing for accountability.