![ToughSF on Twitter: "@kerr_laserpope I like the name change! The Kerr Effect: https://t.co/B2hDNWdfDE and more importantly, Kerr-lens modelocking to produce pulsed lasers: https://t.co/ZTIcp4aJ5u https://t.co/EH2GNh439a" / Twitter ToughSF on Twitter: "@kerr_laserpope I like the name change! The Kerr Effect: https://t.co/B2hDNWdfDE and more importantly, Kerr-lens modelocking to produce pulsed lasers: https://t.co/ZTIcp4aJ5u https://t.co/EH2GNh439a" / Twitter](https://pbs.twimg.com/media/DfHFZcFW0AMu6sm.jpg)
ToughSF on Twitter: "@kerr_laserpope I like the name change! The Kerr Effect: https://t.co/B2hDNWdfDE and more importantly, Kerr-lens modelocking to produce pulsed lasers: https://t.co/ZTIcp4aJ5u https://t.co/EH2GNh439a" / Twitter
Sub-100-fs Kerr lens mode-locked Yb:Lu2O3 thin-disk laser oscillator operating at 21 W average power
Diffractive saturable loss mechanism in Kerr-lens mode-locked lasers: direct observation and simulation
![Kerr lens mode locking, explained by RP Photonics Encyclopedia; hard aperture KLM, soft aperture, self-starting, passive mode locking, titanium-sapphire lasers Kerr lens mode locking, explained by RP Photonics Encyclopedia; hard aperture KLM, soft aperture, self-starting, passive mode locking, titanium-sapphire lasers](https://www.rp-photonics.com/previews/kerr_lens_mode_locking.png)
Kerr lens mode locking, explained by RP Photonics Encyclopedia; hard aperture KLM, soft aperture, self-starting, passive mode locking, titanium-sapphire lasers
![Design, construction and characterisation of a diode-pumped, three-element, 1-GHz Kerr-lens-modelocked Ti:sapphire oscillator | SpringerLink Design, construction and characterisation of a diode-pumped, three-element, 1-GHz Kerr-lens-modelocked Ti:sapphire oscillator | SpringerLink](https://media.springernature.com/lw685/springer-static/image/art%3A10.1007%2Fs00340-023-07969-1/MediaObjects/340_2023_7969_Fig1_HTML.png)
Design, construction and characterisation of a diode-pumped, three-element, 1-GHz Kerr-lens-modelocked Ti:sapphire oscillator | SpringerLink
![Fig. 7, Principle of Kerr lens mode-locking. The figure on the left represents the low intensity regime. The figure on the right becomes valid for high intensities - Optically Induced Nanostructures - Fig. 7, Principle of Kerr lens mode-locking. The figure on the left represents the low intensity regime. The figure on the right becomes valid for high intensities - Optically Induced Nanostructures -](https://www.ncbi.nlm.nih.gov/books/NBK321721/bin/oin_tutorial.f7.jpg)