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Bruker nanoIR3-s Broadband

Bruker Anasys

nanoIR3-s Broadband

The most advanced s-SNOM based nanoscale FTIR spectroscopy system available 

The Bruker nanoIR3-s Broadband is a nanoscale FTIR spectroscopy and s-SNOM imaging system. It offers the broadest available spectral range, together with high resolution nanochemical and nano-optical imaging.

The system combines established technology from the Anasys nanoIR3-s with the latest OPO/DFG femtosecond laser technology, for unmatched performance and flexibility.

  • Broadest spectral range available today for spectroscopy and high resolution nanochemical imaging (670 to 4000 cm-1)
  • High performance spectroscopy and imaging for 2D materials and graphene 
  • Nanoscale material property mapping and environmental control options 

Contact us for more information and quotes:
+44 (0)1223 422 269 or info@blue-scientific.com

Contact Us nanoIR3-s Broadband Brochure

Bruker Anasys nanoIR3-s Broadband

S-SSOM Phase Spectra of Polystyrene

First data of s-SNOM-based phase spectra of polystyrene across the broad infrared range, including 2000 cm-1 to 4000 cm-1.


Applications

  • 2D materials and graphene
  • Biological samples
  • Catalysis
  • Polymeric materials

Benefits

  • Most advanced s-SNOM based nanoscale FTIR system
  • Broadest spectral range (670 to 4000 cm-1)
  • High performance spectroscopy and imaging
  • Nanoscale material property mapping

Nanoscale FTIR Spectroscopy in 2D Materials

The wavenumber range of the nanoIR3-s Broadband is from 670 cm-1 to 4,000 cm-1 which is beyond any other system in the market, allowing us to observe spectra that have not been seen by other researchers. The system’s stability, combined with the exceptionally high-power broadband laser, leads to new horizons in nanoscale spectroscopy.
Dr. Jiong Yang, University of New South Wales
The capability of the nanoIR3-s Broadband exceeded our expectations. The signal-noise-ratio is superb. As such, we could obtain spectra as clear as spectra of a conventional FTIR at nanoscale resolutions. Excitingly, we could see new vibrational features that are generated by the boundaries that have not been reported previously.
Professor Kourosh Kalantar-Zadeh, University of New South Wales
hBN FTIR Spectroscopy

Spectroscopy of hBN (2D hexagonal boron nitride). Phase (top) and amplitude (bottom) at various sample locations highlighted in the topography image (right).

High Resolution Imaging

The nanoIR3-s Broadband delivers high resolution nano-optical images of a wide range of optical phenomena, including graphene plamonics and surface phonon polaritons in hexagonal boron nitride (hBN), and chemical imaging of biological and organic samples.

The example below shows near-field optical images using a spatio-spectral scan. These illustrate a complete surface phonon polariton frequency response on a hBN flake across a 200 cm-1 range. Taken with 3 cm-1 spectral resolution and 10 cm-1 imaging step resolution. 1.5×1.5 µm with 10 nm pixel resolution.

Nano-Optical Imaging
Near-field optical images of a hBN flake