Excimer Laser Series
Description
Santa Clara, Calif., July 12, 2006 – Coherent, Inc. (Santa Clara, CA) (Nasdaq: COHR) has introduced three new models to its LAMBDA SX series of high power, industrial excimer lasers. The LSX 200C delivers 200 Watts at 308 nm (XeCl), the LSX 200K provides 200 Watts at 248nm (KrF), and the LSX 300K produces 300 Watts at 248nm (KrF); all these lasers operate at up to 300 Hz. LAMBDA SX series lasers each feature all solid state switching for high reliability, an external resonator design for enhanced beam stability, PowerLok technology for burst operation stabilization, and TimeLok operation for more accurate triggering and time jitter reduction. These LAMBDA SX series lasers also introduce an enhanced software interface for improved real time control, greater ease of use, implementation of e-diagnostics and optimized maintenance scheduling.
The LAMBDA SX series is intended to offer the lowest cost per ultraviolet Wh (watt hour) for a wide range of demanding, high duty cycle, industrial processing tasks. These include high throughput micromachining and surface treatment of a variety of plastics and glass materials, structuring of Transparent Conductive Oxides (e.g. ITO, ZnO), patterning of thin metal films on flexible plastic substrates, thin film annealing, and reel-to-reel Pulsed Laser Deposition (PLD). LAMBDA SX lasers are ideally suited to work with Coherent’s MicroLas optical systems in order to achieve ablation resolutions as small as 2 microns.
The LAMBDA SX series is intended to offer the lowest cost per ultraviolet Wh (watt hour) for a wide range of demanding, high duty cycle, industrial processing tasks. These include high throughput micromachining and surface treatment of a variety of plastics and glass materials, structuring of Transparent Conductive Oxides (e.g. ITO, ZnO), patterning of thin metal films on flexible plastic substrates, thin film annealing, and reel-to-reel Pulsed Laser Deposition (PLD). LAMBDA SX lasers are ideally suited to work with Coherent’s MicroLas optical systems in order to achieve ablation resolutions as small as 2 microns.