We investigated the morphology and mechanism of laser-induced damage in the ablation cutting of thin glass sheets with picosecond laser. Two kinds of damage morphologies observed on the cross-section of the cut channel, are caused by high-density free-electrons and the temperature accumulation, respectively. Notches and micro-cracks can be observed on the top surface of the sample near the cut edge. The surface micro-cracks were related to high energy free-electrons and also the heat-affected zone. Heat-affected-zone and visible-cracks free conditions of glass cutting were achieved by controlling the repetition rate and spatial overlap of laser pulses
International audienceWe demonstrate the advantage of combining non-diffractive beam shapes and femt...
International audienceWe demonstrate that the use of low energy but high repetition ultrashort laser...
Modification lines by local melting inside glass were written by focusing picosecond laser pulses at...
We experimentally investigated the morphology and mechanism of laser-induced damage in the ablation ...
This study presents a novel numerical model for laser ablation and laser damage in glass including b...
The state of the technology of ultrashort pulse laser applications such as glass cutting is dominate...
We report on quartz and glass cutting by a lateral scanning of femtosecond pulses (150 fs at 1 kHz r...
We report on investigations of the energy deposition in the volume of thin glass during an ablation ...
The femtosecond laser ablation process for cutting thin aluminoborosilicate glass sheets of thicknes...
Thin glass sheets (thickness <1 mm) have a great potential in OLED and LCD displays. While the c...
Laser scribing of thin glass has proven problematic due to inefficient optical absorption and diffic...
Microcutting of glass through ultrafast lasers represents a process more and more employed in many i...
Microcutting of glass through ultrafast lasers represents a process more and more employed in many i...
We demonstrate that the use of low energy but high repetition ultrashort laser systems can be advant...
Microcutting of glass through ultrafast lasers represents a process more and more employed in many i...
International audienceWe demonstrate the advantage of combining non-diffractive beam shapes and femt...
International audienceWe demonstrate that the use of low energy but high repetition ultrashort laser...
Modification lines by local melting inside glass were written by focusing picosecond laser pulses at...
We experimentally investigated the morphology and mechanism of laser-induced damage in the ablation ...
This study presents a novel numerical model for laser ablation and laser damage in glass including b...
The state of the technology of ultrashort pulse laser applications such as glass cutting is dominate...
We report on quartz and glass cutting by a lateral scanning of femtosecond pulses (150 fs at 1 kHz r...
We report on investigations of the energy deposition in the volume of thin glass during an ablation ...
The femtosecond laser ablation process for cutting thin aluminoborosilicate glass sheets of thicknes...
Thin glass sheets (thickness <1 mm) have a great potential in OLED and LCD displays. While the c...
Laser scribing of thin glass has proven problematic due to inefficient optical absorption and diffic...
Microcutting of glass through ultrafast lasers represents a process more and more employed in many i...
Microcutting of glass through ultrafast lasers represents a process more and more employed in many i...
We demonstrate that the use of low energy but high repetition ultrashort laser systems can be advant...
Microcutting of glass through ultrafast lasers represents a process more and more employed in many i...
International audienceWe demonstrate the advantage of combining non-diffractive beam shapes and femt...
International audienceWe demonstrate that the use of low energy but high repetition ultrashort laser...
Modification lines by local melting inside glass were written by focusing picosecond laser pulses at...