Hellinghausen, Garrett published the artcileImproving peak capacities over 100 in less than 60 seconds: operating above normal peak capacity limits with signal processing, Application In Synthesis of 2960-93-2, the publication is Analytical and Bioanalytical Chemistry (2020), 412(8), 1925-1932, database is CAplus and MEDLINE.
A primary focus in liquid chromatog. anal. of complex samples is high peak capacity separations Using advanced instrumentation and optimal small, high-efficiency columns, complex multicomponent mixtures can now be analyzed in relatively short times. Despite these advances, chromatog. peak overlap is still observed Recently, attention has shifted from improvements in chromatog. efficiency and selectivity to enhancing data processing after collection. Curve fitting methods can be used to trace underlying peaks, but do not directly enhance chromatog. resolution Methods based on the properties of derivatives and power transform were recently shown to enhance chromatog. peak resolution while maintaining critical peak information (peak areas and retention times). These protocols have been extensively investigated for their fundamental properties, advantages, and limitations, but they have not been evaluated with complex chromatograms. Herein, we evaluate the use of deconvolution via Fourier transform (FT), even-derivative peak sharpening, and power law with the fast separation (< 60 s) of a 101-component mixture using ultra-high-pressure liquid chromatog. High noise and peak overlap are present in this gradient separation, which is representative of fast chromatog. Chromatog. resolution enhancement is demonstrated and described. Further, accurate quantitation is maintained and shown with representative examples. Enhancements in peak capacity and peak-to-peak resolutions are discussed. Finally, the statistical theory of overlap is used for 101 peaks and predictions are made for the number of singlet, doublet, and multiplets analyte peaks. The effect of increasing peak capacity by FT even derivative sharpening and power laws leads to a decrease in the number of peak overlaps and an increase in total peak number
Analytical and Bioanalytical Chemistry published new progress about 2960-93-2. 2960-93-2 belongs to naphthyridine, auxiliary class Naphthalene,Ether,Other MOF ligands,Organic ligands for MOF materials, name is 2,2′-Dimethoxy-1,1′-binaphthalene, and the molecular formula is C22H18O2, Application In Synthesis of 2960-93-2.
Referemce:
https://en.wikipedia.org/wiki/1,8-Naphthyridine,
1,8-Naphthyridine | C8H6N2 – PubChem