In particular, for electrical applications, insertions of metallic or ceramic micro/nanoparticles into a matrix (usually polymer) are found to provide desirable properties.
The conclusions outline the practical applications of the method for both electromagnetic shielding and microwave domain/telecommunications applications.Ĭomposites have been widely investigated in recent years in order to discover new technological concepts with better properties, mainly for advanced applications, i.e., electronics, aerospace, or automotive applications. The experimental results are comparable with the software simulation in terms of precision. The paper successfully associated the dialectic measurements with the results from the computer simulations, which are mainly based on energetic effects in electromagnetic applications. The energy concentration around the inserts and within the entire material was determined as useful information in practice in order to design materials tailored to avoid exceeding the field/temperature limit values. Cubic insertions were equated to corresponding spherical particles in order to provide either the same volume index or the same exterior surface index.
The structure is randomly generated to simulate the intrinsic non-uniformity of real nanomaterials. Dielectric properties for nanocomposites with metallic fillers inside a polymer matrix were determined using CST STUDIO SUITE-Electromagnetic field simulation software followed by the free-space Nicolson–Ross–Weir procedure.
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