Presentation + Paper
15 June 2023 Data science for next-generation spectroscopic and experimental systems
Author Affiliations +
Abstract
The next generation of infrared spectroscopic solutions collect massive amounts of data that is realistically much too dense to be understood by a human. Thus, as a practical necessity, the user is generally interested in a smaller number of “critical” variables that aren’t directly observed. However, considering a more manageable subset of the raw data throws away a great deal of collected information. The problem of distilling the critical variables and related uncertainties from the raw data is one of statistical inference. We adopt a Bayesian approach to better quantify the uncertainties in the critical variables. This approach, when paired with an appropriate model of the hardware and the system being observed, can greatly improve the effective signal to noise and/or reduce the required measurement time.
Conference Presentation
© (2023) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
T. J. Huffman, Robert Furstenberg, Christopher Breshike, Christopher A. Kendziora, and R. A. McGill "Data science for next-generation spectroscopic and experimental systems", Proc. SPIE 12516, Next-Generation Spectroscopic Technologies XV, 1251603 (15 June 2023); https://doi.org/10.1117/12.2664026
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KEYWORDS
Spectroscopy

Infrared radiation

Signal to noise ratio

Data modeling

Chemical analysis

Systems modeling

Infrared imaging

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