New Sapphire Single Frequency Lasers
With 50,000 installations, Sapphire is one of the most successful products in the laser industry.
Recently released to the Sapphire family are two high power models in the range of single frequency lasers.
- Sapphire 488nm SF up to 150mW, FP up to 100mW
- Sapphire 532nm SF up to 200mW, fibre pigtailed up to 150mW
Sapphire SF lasers are intended for applications that need narrow and ultra-narrow linewdith such as Raman spectroscopy, inteferometry, holography, metrology and inspection.Read More
Keopsys Yb Amplifier by Lumibird
CYFL-KILO stands for Ytterbium fibre laser with kilohertz linewidth. This series deliver up to 20W output with narrow lindewidth, low phase noise and low relative intensity noise (RIN).
CYFL-KILO lasers are based on an MOFPA design. They integrate an ultra-low noise and narrow linewdith seed laser (<70kHz), which is amplified through several highly stable Yb-doped fibre amplifier stages. Also, these lasers can be thermally tuned in wavelength over 200MHz, and their central emission line can be modulated for locking purposes.
- Standard central wavelengths: 1030, 1064 and 1083nm
- Linewidths of <3kHz available
- Standard output power up to 20W (higher power available as a semi-custom)
- Applications in Quantum optics, optical lattice generation, BEC, Interferometry and Metrology
Quantel Merion C by Lumibird
The Merion C is the latest development from Lumibird-Quantel laser diode-pumped nanosecond Nd:YAG range. The Merion C delivers 100 mJ @ 1064 nm up to 400 Hz and can be equipped with fully integrated harmonic generators, down to 266 nm, to cover a wide range of applications.
All key components such as laser diodes, gain modules and laser driver electronics are internally designed, ensuring full vertical control of the entire process.
It represents the best solution for demanding applications like LIDAR, LIBS or material processing.
- High power packed in a small footprint
- Excellent shot to shot stability and superior beam profile up to 400 Hz
- Sealed against external contaminants with an industrial design, built to last
- Easy installation and an interchangeable power supply to reduce the effects of downtime
- Pump diode warranty: 2 billion shots
Webinar : New Advances in Nanoscale IR Spectroscopy
Thursday 21 March 2019
Melbourne (Australia) : 4:30pm
Singapore : 1:30pm
India : 11:00am
IR Spectroscopy techqniue has been widely used to identify the chemical components, stufy confirmation changes in molecules and phase transition in mteraisl; and analyse strain/stress in materials and devices. However, the spatial resolution of traditional IR spectroscopy technique is limited by optical diffraction. With the latest ATR probe, the spetial resolution can be improved to several μm. However, this is still far below the requirements of today’s researches, especially in nanomaterials and life sciences.
Atomic force microscopy-based infrared spectroscopy (AFM-IR) is a newly exploited technique that overcomes the diffraction limit and achieves the nanoscale spatial resolution. In the past decade, a lot of improvements have been made to enhance the spatial resolution and detection sensitivity.
In this webinar, we will share the latest developments in AFM-IR technologies including using cantilever Q factor to enhance IR detection sensitivity in tapping mode, resonance technique to enhance photothermal IR detection sensitivity, and using IR evanescent field coupling to detect IR spectrum in water. These developments enabled us to achieve a spatial resolution of sub 10nm, sensitivity of single molecular layer, and expanded IR measurements to aqueous solution for life science researches. In addition to the technology development discussion, we will showcase extensive application examples to illustrate how the latest developments enable new researches, especially in nanomaterials, composite materials, life sciences, photonics and energy conversation.Read More
CryoStage for AFM
Material properties change substantially as a function of temperature, from crystallisation and melting processes at high temperatures, to phase transformation and mechanical stiffening at lower temperatures. Further energy production processes in many of today’s clean-energy materials show a strong efficiency dependence with environmental temperature.
JPK’s CryoStage provides a unique solution to investigating the temperature dependence of materials from -120°C to +220°C. Particularly relevant for polymers, it can also be applied to ceramics, magnetic materials, composites, energy materials, thin films, and even metals. Using the AFM’s superior resolution, watch and study crystallisation processes and the ordering of material phases, at the nanoscale. Use QI nanomechanical mapping capability or advanced Ramp Scripting to quantitative track stiffness and adhesive changes.Read More