Plant-Actuated Micro-Nanorobotics Platforms: Structural Designs, Functional Prospects, and Biomedical Applications

Area of Science:

• Biomimetics and Nanotechnology
• Plant Science
• Biomedical Engineering

Background:

• Plants possess unique micro-nanostructures and physiological systems distinct from animals.
• These natural features offer potential for sustainable and biocompatible material development.
• Biomimicry presents an avenue to adapt plant systems for advanced technological applications.

Purpose of the Study:

• To review the adaptation and utilization of plant-derived micro-nanostructures for micro-nanorobot platforms.
• To examine how plant-specific micro- and nanoscale systems can provide functionality to these platforms.
• To discuss the potential and challenges of plant-actuated micro-nanorobot platforms, especially in biomedicine.

Main Methods:

• Literature review of plant micro-nanostructures (nanoparticles, nanofibers, nanoporous materials, micromotors).
• Analysis of plant physiological systems (surface roughness, osmotic movements, energy conversion) for micro-nanorobot functionality.
• Discussion of cross-disciplinary implementation and challenges.

Main Results:

• Plant micro-nanostructures can be adapted for micro-nanorobot platform materials.
• Plant physiological mechanisms offer unique functional capabilities for micro- and nanoscale systems.
• Biomimetic approaches using plants show promise for developing novel micro-nanorobots.

Conclusions:

• Plant-based biomimicry provides a sustainable and biocompatible strategy for micro-nanorobot development.
• Plant-actuated micro-nanorobots have significant potential in biomedical applications.
• Further research is needed to address challenges for practical implementation.