Address:Welding Lab, Luoyu Road 1037, Wuhan, China
Phone:027-87557749
E-mail:ming.xu@hust.edu.cn
3. Composite materials and dispersion
4. Integrated medical device for human health
1. Structural mechanics for extreme high and low temperatures
The C=C covalent bonds of carbon nanomaterials offer a unique combination of superior mechanical properties, electrical conductivity, thermal conductivity, and structural stability compared to conventional materials, making them ideal components for constructing macroscopic frameworks in extreme environments. Pure carbon nanomaterials are produced primarily through CVD and self-assembly technologies, which have demonstrated a variety of unique extreme environmental properties, such as mechanical damping properties over a wide temperature range, excellent specific conductivity at high temperatures, and thermal deformation resistance. These properties benefit applications in aerospace, polar exploration and other extreme high and low temperature environments. Nanocarbon matrix composites are mainly prepared by material melting combined structure and chemical modification. Many examples of high temperature, high pressure, corrosion and radiation resistance have been realized by combining carbon nanomodules with matrix materials, demonstrating the practical application prospect of carbon nanomaterials in complex extreme environments. We use carbon nanomaterials such as carbon nanotubes and graphene as basic structural units to prepare macroscopic carbon nanomaterials with excellent mechanical properties, including viscoelasticity, creep, adhesion, and stretching, through rational structural design.
2. Highly Sensitive Sensing for Underwater