At the intersection of life sciences and materials engineering, silicone rubber is dissolving the boundaries between inorganic and organic realms, evolving dynamic properties akin to biological tissues. This "living" material not only redefines material possibilities but also opens new frontiers for human-machine symbiosis.

I. Cellular-Inspired Dynamic Reconstruction

Reversible Molecular Networks

Mimicking the dynamic equilibrium of cell membranes, next-gen silicone rubber incorporates reversible molecular networks. These surfaces sense pressure and temperature changes like human skin, autonomously adjusting mechanical properties through ion channel regulation. In robotic tactile systems, this enables discrimination between textures as subtle as silk and sandpaper, achieving sensitivity comparable to human fingertips

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Self-Healing Microvascular Systems

Inspired by biological tissue repair, 3D microvascular networks embedded in silicone rubber release active monomers upon damage. These agents form new crosslinks at fracture surfaces, mimicking platelet-mediated blood clotting with speed proportional to injury severity. This innovation boosts reliability in flexible electronics, enabling autonomous repair during cyclic bending (100,000+ cycles)

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II. Engineered Photosynthetic Metabolism

Artificial Chloroplast Integration

Hybrid materials combining silicone rubber with artificial chloroplasts create truly "breathable" surfaces. Under sunlight, photoresponsive units convert CO₂ into organic molecules while releasing negative oxygen ions. Applied to building facades, these systems purify air and feature humidity-responsive micropores that enable autonomous "skin breathing"

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Deep-Sea Gill Mimicry

Gradient-permeability silicone membranes revolutionize underwater exploration. Mimicking fish gills, they selectively allow oxygen passage while blocking high-pressure water flow. Catalytic coatings further convert seawater hydrogen ions into clean energy, extending submersible endurance by 300% in recent deep-sea trials

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III. Materialized Neural Networks

Fractal Ionic Conduction

Neuron-inspired fractal ion channels enable flexible silicone substrates to transmit signals with neuro-like impulse patterns. Prosthetics using this technology not only relay touch sensations but also develop personalized "tactile memory" by learning pressure patterns—a breakthrough demonstrated in 2024 clinical trials for amputees

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Neuroregenerative Scaffolds

Biocompatible silicone scaffolds with nanotextured surfaces guide directional neuron growth in brain-computer interfaces. Integrated microelectrode arrays capture/release neural signals, while secreted neurotrophic factors accelerate nerve regeneration (150% faster in primate trials)


Low compression set Fluorosilicone compound（MY-FSR SERIES）