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Nanomotors are appealing drug carriers, and the strength of the propelling force is important for their motion capability. Though high motion efficiency has been achieved with 808 nm light driven Janus‐structured noble metal nanomotors, the NIR‐I light penetration depth and material biocompatibility limit their broad application. Herein, we develop a 1064 nm NIR‐II light driven asymmetric hydrogel...
Nanomotors are appealing drug carriers, and the strength of the propelling force is important for their motion capability. Though high motion efficiency has been achieved with 808 nm light driven Janus‐structured noble metal nanomotors, the NIR‐I light penetration depth and material biocompatibility limit their broad application. Herein, we develop a 1064 nm NIR‐II light driven asymmetric hydrogel...