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A sophisticated new method for chemical imaging and spectral analysis is offered by the Agilent laser direct infrared (LDIR) chemical imaging system.
The LDIR offers a straightforward, highly automated method for producing accurate high-definition chemical pictures of constituents on a surface.
It is designed to be used by both experts and non-experts.The LDIR provides quick,crystal-clear, high-quality pictures and spectral data using the most recent quantum cascade laser (QCL) technology in conjunction with quickly scanning optics.
Using a straightforward load-and-go technique, this technology can quickly and precisely image vast sample areas while requiring little instrument involvement.
Using a quantum cascade laser(QCL)with quickly scanning optics,laser direct infrared (LDIR) imaging offers a quick and straightforward route to molecular imaging.
The Agilent LDIR chemical imaging system offers excellent spectrum and imaging data, making it the perfect tool for the investigation of microplastics.
The Global LDIR Chemical Imaging System market accounted for $XX Billion in 2021 and is anticipated to reach $XX Billion by 2030, registering a CAGR of XX% from 2022 to 2030.
The upgraded 8700 LDIR Chemical Imaging System, which has been further optimised for the investigation of microplastics in environmental samples, was just released, according to Agilent Technologies Inc.(NYSE: A).
Clarity software, a significant upgrade that increases analysis speed and improves spectrum capture, transformation, and library matching, is part of this recently enhanced package.
It now offers automated processes for the direct study of microplastics on a filter substrate.The on-filter sample may be supplied to the instrument more conveniently and consistently thanks to an innovative, redesigned sample holder.
The presence of microplastics in the environment is a global concern that has prompted governments to pay more attention to the issue and environmental agencies to improve their monitoring of rivers and oceans.
Researchers must identify the size, shape, and chemical composition of plastic particles in a sample in order to accurately quantify the presence of microplastics in the environment.
This investigation must include micron-sized particles because it is generally accepted that smaller particles are more physiologically important.
Microplastics analysis has a lot of challenges, and investigations of real-world systems have been hampered by slow and complicated analysis solutions.
Furthermore, methodological diversity hinders study comparison, making it challenging to identify trends. Although they offer a beneficial alternative, vibrational spectroscopy techniques like FTIR and Raman microscopy have drawbacks related to the length of the analytical process and procedure complexity.
