With its outstanding physical properties, single‐crystal diamond is the material of choice for
future power electronics and quantum devices. The later application field is based on the …

Diamond is valuable material with extraordinary high thermal conductivity and transparency
in a wide spectral range from UV to IR and longer wavelengths. Defects and impurities in the …

An application of an ultra-short femto-second (fs) pulsed laser (30 fs, 800 nm, 1 kHz)
radiation under a simultaneously varied laser fluence (0.6, 1.2 and 1.8 J/cm 2) and number …

Three dimensional waveguides within the bulk of diamond are manufactured using ultrafast
laser fabrication. High intensities within the focal volume of the laser cause breakdown of the …

High quality graphitic wires embedded beneath the surface of single crystal diamond are
fabricated using a combination of adaptive ultrashort pulsed laser fabrication, high …

Graphite conductive vertical microchannels, fabricated by femtosecond laser treatment, are
proposed as distributed electrodes in defect-engineered (“black”) single-crystal diamond …

Graphite was formed by in-situ structural conversion from sp 3 to sp 2 hybridized carbon via
KrF excimer. The surface morphology of diamond was changed to nanoparticles after laser …

Diamond is a wide bandgap semiconductor with excellent physical properties which allow it
to operate under extreme conditions. However, the technological use of diamond was mostly …

Carbon has around 500 allotropes, and most of them have excellent physical properties
offering great potential for the development of electronic, optoelectronic, energy storage, and …

We used a low-coherence interferometry for precise continuous in situ measurements of
thickness and growth rate of epitaxial single crystal diamond layers in microwave plasma …