Super–Foldable Glass–Like Plastic

Fatigue-free foldability is required for next-generation flexible electronics. For the essential protective films, ultrathin glass is susceptible to brittle fractures, whereas plastic films have inadequate hardness and tend to crease under dynamic loading conditions. We report a glass-like plastic featuring a nano-hybrid interpenetrating network comprising a plastic nanofibrous scaffold interpenetrated by an organic-inorganic silsesquioxane@nanosilica composite, which effectively inhibits fatigue relaxation. This hybrid material possesses glass-like transparency and hardness yet exhibits plastic-like elongation and impact resistance, and rubber-like resilience. When manufactured as thin films (5-30 µm), they can withstand extreme folding cycles (500,000 cycles at a radius of curvature of 0.5 mm) without macroscopic creasing/cracking or microscopic structure/morphology changes. The superior dynamic foldability of these glass-like plastics makes them promising for future device applications.

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Publication Details

Journal
Advanced Materials
Published
2026-05-23
DOI
https://doi.org/10.1002/adma.73424
Primary Topic
Advanced Sensor and Energy Harvesting Materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Super–Foldable Glass–Like Plastic

Fengqian Chen, Runlai Li, Dai‐Lin Zhou, Junkan Yue et al.
Advanced Materials
Advanced Sensor and Energy Harvesting Materials
article

Super–Foldable Glass–Like Plastic

Fengqian Chen, Runlai Li, Dai‐Lin Zhou, Junkan Yue, Di Han, Zirui Wang, Xiong Lin, Chen–Yu Li, Qiang Fu, Yu Wang, Jinghan Wu, Qin Zhang
article en

Abstract

Fatigue-free foldability is required for next-generation flexible electronics. For the essential protective films, ultrathin glass is susceptible to brittle fractures, whereas plastic films have inadequate hardness and tend to crease under dynamic loading conditions. We report a glass-like plastic featuring a nano-hybrid interpenetrating network comprising a plastic nanofibrous scaffold interpenetrated by an organic-inorganic silsesquioxane@nanosilica composite, which effectively inhibits fatigue relaxation. This hybrid material possesses glass-like transparency and hardness yet exhibits plastic-like elongation and impact resistance, and rubber-like resilience. When manufactured as thin films (5-30 µm), they can withstand extreme folding cycles (500,000 cycles at a radius of curvature of 0.5 mm) without macroscopic creasing/cracking or microscopic structure/morphology changes. The superior dynamic foldability of these glass-like plastics makes them promising for future device applications.

Advanced Materials
Ingenierie des Materiaux polymeres (FR)
National Natural Science Foundation of China
Openalex Percentile: Top 9%
Advanced Sensor and Energy Harvesting Materials
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