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Last updated February 1, 2026
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Silicon carbide epitaxial layering: BYDRecent Research Landscape

Lattice mismatch and thermal expansion differences during deposition cause high defect densities and wafer warping. Precise control over the cubic silicon carbide phase transition stabilizes the crystalline structure for high-performance power electronics.

What technical problems is BYD addressing in Silicon carbide epitaxial layering?

Optical conversion efficiency loss

(19)evidences

Incompatible crystal structures between substrates and epitaxial layers cause structural dislocations. Reducing these defects prevents electrical leakage and mechanical failure in power devices.

Surface defect density

(10)evidences

Subsurface damage and surface irregularities during crystal slicing and doping prevent uniform layer deposition. Eliminating these defects ensures high-efficiency carrier transport and structural integrity in semiconductor devices.

Seed crystal structural defects

(5)evidences

Variations in the chemical composition and particle size of starting powders lead to structural defects in bulk crystals. Standardizing the precursor ensures uniform thermal conductivity and electrical properties in final components.