ABSTRACT This review explores the development and application of mechanochromic materials on the basis of commodity and industrially relevant polymers. Mechanochromic polymers, which exhibit visible color changes under mechanical stress, offer promising avenues for creating smart, responsive materials with real‐world utility. The review begins by detailing the fundamental mechanisms of mechanochromism, focusing on the role of mechanophores—molecular units that change their optical properties when subjected to force—and their interaction with polymer matrices. Two primary strategies are discussed: physical dispersion of chromogenic dyes and covalent incorporation of mechanophores, each offering distinct advantages in terms of sensitivity, reversibility, and scalability. Special attention is given to commodity plastics, which provide cost‐effective platforms for mechanoresponsive technologies. The review also highlights the role of computational modeling in understanding mechanophore activation and guiding material design. Emerging applications in damage sensing, soft robotics, and flexible electronics are examined, demonstrating how mechanochromic systems can bridge scientific innovation and practical deployment. Future challenges and opportunities—such as enhancing sensitivity, improving durability, and integrating sustainable materials—are outlined to inform the next generation of smart mechanochromic devices.
Bertoncini et al. (2026) studied this question.