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iWave Diode Laser
Jul 2007
TOPTICA Photonics AGRequest Info
MUNICH, Germany, July 16, 2007 -- Toptica Photonics AG said its new iWave is a diode module in the ultraviolet (UV) and blue wavelength range with narrow linewidth and high power, serving applications such as Raman spectroscopy and Raman microscopy for OEM. More than 40 mW at 405 nm with reduced linewidth is now available in this hands-off operation system.

iWave.jpgUntil now, Raman customers yearning for long coherence length and high-power diode laser systems in the violet or blue wavelength range were forced to decide between 13 mW at 405 nm with superb coherence length (up to 100 m in an external cavity diode setup) and 60 mW at short coherence length (some microns in a standard diode laser setup). If neither option was acceptable, they had to resort to bulky gas lasers, Toptica said.

But now there is a new choice: the iWave, which combines high power and narrow linewidth for applications including the inspection of silicon layers in the semiconductor industry. Toptica said thin silicon layers can be examined by Raman microscopy with great spatial and spectral resolution using the iWave. Beyond Raman, there are many linewidth-sensitive optical setups that have relied on the inherent narrow linewidth of gas lasers which can also benefit from the new system, the company said, such as interferometry and holography.

Whenever the standard coherence length of free-running diodes (100 to 300 µm) is not enough, the iWave offers an improved coherence by factor 10. Moreover, instruments using an acousto-optic deflector (AOD) prefer a laser with narrow linewidth. Because of the wavelength-dependent beam deflection, only narrow linewidth lasers achieve smallest nodes and focus diameters, because broader linewidths create blurred imaging results on the substrate, the company said.

The iWave takes advantage of the company's established iBeam platform and its rugged design, and industrial customers will appreciate its permanent hands-off operation. Both beam pointing stability (10 µrad/K) and beam quality (TEM00, wavefront error <0.05 λ) match the excellent values of the iBeam module. The integrated RS 232 interface enables remote operation, which is a must for OEM customers, Toptica said.

Toptica said it previously launched several laser systems for Raman applications, e.g. the Xtra (300 mW at 785 nm, linewidth <0.001 cm-1), the dfBeam (85 mW at 785 nm, linewidth <0.002 cm-1) and the DL100R (405 nm or 785 nm, linewidth <0.001 cm-1). Now the iWave extends this product line, supporting both existing and new OEM customers.

For more information, visit:; e-mail:

Toptica Photonics AG
Lochhamer Schlag 19
82166 Graefelfing, Munich
Phone: +49 89-85837-0
Fax: +49 89-85837-200


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1. A bundle of light rays that may be parallel, converging or diverging. 2. A concentrated, unidirectional stream of particles. 3. A concentrated, unidirectional flow of electromagnetic waves.
A two-electrode device with an anode and a cathode that passes current in only one direction. It may be designed as an electron tube or as a semiconductor device.
The optical recording of the object wave formed by the resulting interference pattern of two mutually coherent component light beams. In the holographic process, a coherent beam first is split into two component beams, one of which irradiates the object, the second of which irradiates a recording medium. The diffraction or scattering of the first wave by the object forms the object wave that proceeds to and interferes with the second coherent beam, or reference wave at the medium. The resulting...
The study and utilization of interference phenomena, based on the wave properties of light.
1. The range of frequencies or wavelengths over which radiations are absorbed or emitted in a transition between a specific pair of atomic energy levels. The full width is determined between half-power points of the line. 2. In a laser, the range of frequencies over which most of the beam energy is distributed.
The technology of generating and harnessing light and other forms of radiant energy whose quantum unit is the photon. The science includes light emission, transmission, deflection, amplification and detection by optical components and instruments, lasers and other light sources, fiber optics, electro-optical instrumentation, related hardware and electronics, and sophisticated systems. The range of applications of photonics extends from energy generation to detection to communications and...
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