Bruker

Bruker’s Surface Sensitive AFM-IR technology provides high-resolution surface sensitivity, reducing chemical probing depth to under 30 nanometers.

Bruker’s Surface Sensitive AFM-IR technology provides high-resolution surface sensitivity, reducing chemical probing depth to under 30 nanometers.

Webinar Date/Time: Tue, Jan 23, 2024 11:00 AM EST

Tue, Sep 20, 2022 1:00 PM EDT Jackson Pollock is considered one of the preeminent artists of the 20th century and perhaps the most important US-born painter. The remnants of paint from Pollock’s artwork projects remain on the studio floor and are ripe for scientific analysis using portable and noninvasive spectroscopic techniques, such as Raman and X-ray fluorescence (XRF). It is almost certain that Pollock created paintings with pigments now present on the studio floor, which means they can be used as a reference to help determine the authenticity of any future unknown works.

Wednesday, June 22, 2022 at 2pm EDT|11am PDT|7pm BST|8pm CEST Do you know about the fourth advantage of Fourier transform in infrared spectroscopy? Join us to learn how the interferometric measurement can easily separate artifacts caused by physical vibration from the true optical signal of interest.

Wednesday, December 15, 2021 at 2pm EST | 1pm CST | 11am PST Join us for discussion and demonstration of Bruker’s new Surface Sensitive AFM-IR mode, offering sub-10-nm lateral resolution and <20 nm depth resolution in the infrared.

This app note introduces AFM-IR and provides examples of its use for biological samples, including proteins, structures within single cells, monolayers, and tissues.

Combining imaging with broadband spectroscopy provides spatiospectral nanoimaging of 2D materials with nanometer spatial resolution and wide spectral coverage.

This application note describes using complementary s-SNOM and AFM-IR techniques to characterize 2D materials such as graphene, nanoantennae, and semiconductor materials.

The system combines the industry-leading Anasys nanoIR3-s platform with the latest OPO/DFG femtosecond laser technology, resulting in unmatched levels of performance.

This application note discusses and provides examples of the use of AFM-IR to address nanoscale chemical characterization on a range of polymeric and thin film samples.

FT-IR spectroscopy is a very sensitive method used in protein-biochemistry analyses. This method has proven to be very useful in pharmaceutical formulation of proteins.

Combining imaging with broadband spectroscopy provides spatiospectral nanoimaging of 2D materials with nanometer spatial resolution and wide spectral coverage.

This application note discusses and provides examples of the use of AFM-IR to address nanoscale chemical characterization on a range of polymeric and thin film samples.

***Live: Tuesday, March 23, 2021 12pm EDT | 9am PDT | 4pm GMT| 5pm CET*** The latest advances in the instrumentation and applications of vibrational spectroscopy for the chemical analysis of surfaces will be reviewed in this presentation with a thorough discussion of topics. ***On demand available after final airing until Mar. 23, 2022***

Identification of Contaminants using FTIR Microscopy in the Quality Control Process.

Background/Introduction to Nanoscale Infrared Spectroscopy/AFM-IR Life Science Applications of Nanoscale IR Some Recent NanoIR Cells and Tissue Research

This application note describes using complementary s-SNOM and AFM-IR techniques to characterize 2D materials, such as graphene, nanoantennae, and semiconductor materials.

• Principles of vibrational spectroscopy • Applications of infrared microscopy, IR imaging and Raman imaging • Infrared versus Raman spectroscopy