2000
DOI: 10.1117/12.377040
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Abnormal increase of time of oxygen diffusion with oxidation of silicon surface under action of powerful laser pulses

Abstract: The paper presents an investigation of deformation response of monocrystalline silicon surface to the action of short laser pulses in the air and in vacuum P 1 0-2 Ton. An anomalously continuous change of the surface relief was identified on irradiation in the air. The observable phenomenon is explained by oxidation of surface layer, enriched with defects.

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(2 citation statements)
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“…For beam diameter d = 0.7 mm in the irradiance range q = (0.5-1.0) × 10 10 W m −2 we will obtain a change in the maximum rate of thermocapillary flow in the interval V ≈ 4.9-6.9 m s −1 (it corresponds to average speed of moving layer 0.5V ≈ 2.4-3.4 m s −1 ) and the speed of the motion of the bottom V S ≈ 0.51-0.60 m s −1 . The values obtained correspond to the empirical observations V ∼ 2 m s −1 [21] and V S ≈ 0.5-0.6 m s −1 [22].…”
Section: Thermocapillary Model Of Keyhole Formationsupporting
confidence: 86%
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“…For beam diameter d = 0.7 mm in the irradiance range q = (0.5-1.0) × 10 10 W m −2 we will obtain a change in the maximum rate of thermocapillary flow in the interval V ≈ 4.9-6.9 m s −1 (it corresponds to average speed of moving layer 0.5V ≈ 2.4-3.4 m s −1 ) and the speed of the motion of the bottom V S ≈ 0.51-0.60 m s −1 . The values obtained correspond to the empirical observations V ∼ 2 m s −1 [21] and V S ≈ 0.5-0.6 m s −1 [22].…”
Section: Thermocapillary Model Of Keyhole Formationsupporting
confidence: 86%
“…Steel [3,4] Iron [23] Liquid (table 1) and compare them with empirical data [21,22]. For radial geometry the speed of the motion of the bottom due to thermocapillary radial spreading from the centre of the beam impact zone can be approximately written as V S ≈ 4V h/d.…”
Section: Thermocapillary Model Of Keyhole Formationmentioning
confidence: 99%