There is a growing effort in the scientific community to design and fabricate versatile artificial nanomotors propelled by selfgenerated forces, because they have potential in the field of directed drug delivery, roving sensors, isolation and detection of targets, active biomimetic systems, and other emerging applications. [1] Inspired by the nanoscale linear biomotors (for example, kinesins), which can autonomously move in aqueous solution and are powered by spontaneous hydrolysis of biological energy units, substantial efforts towards the design of chemically powerful synthetic motors at the micro-and nanoscale have recently demonstrated the ability of converting chemical energy into autonomous motion based on a fuel solution (for example, aqueous hydrogen peroxide solution). [2][3][4] To explain the motion and energy transfer process in these chemically powered systems, several mechanisms, including bubble propulsion, [5] interfacial tension gradients, [6] self-electrophoresis, [7] self-diffusiophoresis, [8] osmotic propulsion, [9] ultrasound propulsion, [10] and polymerization reactions [11] were proposed.Among diverse synthetic microengines, chemically powered tubular micromotors prepared by the rolled-up technique and template electrosynthesis have displayed a high speed and the controllable directionality of the movement compared to bimetal nanorods or Janus microsphere motors. [12,13] These rocket-like microengines are capable of the pick-up, transportation, and release of various cargoes, including polymer particles, [14] nucleic acids, [15] cancer cells, [16] and bacteria. [17] However, they still have some inherent limitations, such as complex preparation technology, difficulty of surface modification, and poor biocompatibility or biodegradability. Moreover, it is required in many cases that synthetic motors can encapsulate, transport, and release targeted substances by themselves in an easy and controllable way and have good biocompatibility and biodegradability, particularly in both biomedical and environmental fields. Therefore, it still remains a challenge to develop new fabrication methods and expand the diversity of the building components.