The University of Texas at Austin
College of Engineering

Nanocomposites

Composites are materials produced by the junction of two o more elements whose properties are enhanced because of this combination. In the case of nanomaterials we find many examples of them. For example, metals inside carbon nanotubes which allows enhancing electrical properties among others. So, carbon nanomaterials, characterized by special electrical, mechanical and thermal properties, as additives in polymers, ceramics, metals and textiles, these nanoadditives have a positive impact on the matrix material’s properties. For instance, the nanocomposites can help to optimize materials regarding their weight and resistivity. In case of polymers, they enable interaction on the microscopic level, since the geometric dimensions of carbon nanofibres and carbon nanotubes are similar to those of the molecular chains of polymers. Compared to traditional particle-shaped additives, their length/diameter ratio allows for improved electrical, thermal and mechanic properties of composite materials, at significantly lower loads of fibroid additives.

Photo Gallery

Surface Structure of Maiden Sulfide (MoS2), Photo Magnification x30,000
Surface Structure of Maiden Sulfide (MoS2), Photo Magnification x30,000

Surface Structure of Maiden Sulfide (MoS2), Photo Magnification x100,000
Surface Structure of Maiden Sulfide (MoS2), Photo Magnification x100,000

Surface Structure of Maiden Sulfide (MoS2), Photo Magnification x400,000
Surface Structure of Maiden Sulfide (MoS2), Photo Magnification x400,000

 

Semiconductor Gates in Scale 0.2 mµ TEM Bright Field Image
Semiconductor Gates in Scale 200 nm TEM Bright Field Image Size of Semiconductor Gate
Interface Gate/Silicon Support
Higher Magnification of the Interface Atomic Resolution of Silicon
Semiconductor Gates in Scale 0.2 mµ TEM DarkField Image

 

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