FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2919915229> ?p ?o ?g. }

• W2919915229 endingPage "4882" @default.
• W2919915229 startingPage "4876" @default.
• W2919915229 abstract "The isomeric complexity of glycans make their analysis by traditional techniques particularly challenging. While the recent combination of ion mobility spectrometry (IMS) with cryogenic IR spectroscopy has demonstrated promise as a new technique for glycan analysis, this approach has been limited by the modest resolution of the ion mobility stage. In this work we report results from a newly developed instrument that combines ultrahigh-resolution IMS with cryogenic IR spectroscopy for glycan analysis. This apparatus makes use of the recent development in traveling-wave IMS called structures for lossless ion manipulation. The IMS stage allows the selection of glycan isomers that differ in collisional cross section by as little as 0.2% before injecting them into a cryogenic ion trap for IR spectral analysis. We compare our results to those using drift-tube IMS and highlight the advantages of the substantial increase in resolution. Application of this approach to glycan mixtures demonstrates our ability to isolate individual components, measure a cryogenic IR spectrum, and identify them using a spectroscopic database." @default.
• W2919915229 created "2019-03-11" @default.
• W2919915229 creator A5005309972 @default.
• W2919915229 creator A5029332303 @default.
• W2919915229 creator A5044472105 @default.
• W2919915229 date "2019-03-05" @default.
• W2919915229 modified "2023-10-16" @default.
• W2919915229 title "Combining Ultrahigh-Resolution Ion-Mobility Spectrometry with Cryogenic Infrared Spectroscopy for the Analysis of Glycan Mixtures" @default.
• W2919915229 cites W145329232 @default.
• W2919915229 cites W1553992719 @default.
• W2919915229 cites W1753095474 @default.
• W2919915229 cites W1897375905 @default.
• W2919915229 cites W1918740966 @default.
• W2919915229 cites W1942704897 @default.
• W2919915229 cites W1971814710 @default.
• W2919915229 cites W1991437941 @default.
• W2919915229 cites W1992066825 @default.
• W2919915229 cites W1992886596 @default.
• W2919915229 cites W2017651277 @default.
• W2919915229 cites W2021824269 @default.
• W2919915229 cites W2023262220 @default.
• W2919915229 cites W2029605325 @default.
• W2919915229 cites W2041537911 @default.
• W2919915229 cites W2044584479 @default.
• W2919915229 cites W2055783962 @default.
• W2919915229 cites W2056427971 @default.
• W2919915229 cites W2070617524 @default.
• W2919915229 cites W2093645477 @default.
• W2919915229 cites W2099629407 @default.
• W2919915229 cites W2129573030 @default.
• W2919915229 cites W2137631575 @default.
• W2919915229 cites W2267724599 @default.
• W2919915229 cites W2284251722 @default.
• W2919915229 cites W2293801117 @default.
• W2919915229 cites W2315529955 @default.
• W2919915229 cites W2342022964 @default.
• W2919915229 cites W2497005544 @default.
• W2919915229 cites W2507869595 @default.
• W2919915229 cites W2560016000 @default.
• W2919915229 cites W2571811979 @default.
• W2919915229 cites W2588653846 @default.
• W2919915229 cites W2592707037 @default.
• W2919915229 cites W2597681416 @default.
• W2919915229 cites W2616760174 @default.
• W2919915229 cites W2674276803 @default.
• W2919915229 cites W2679954520 @default.
• W2919915229 cites W2756960987 @default.
• W2919915229 cites W2762757323 @default.
• W2919915229 cites W2766783676 @default.
• W2919915229 cites W2785430322 @default.
• W2919915229 cites W2789761733 @default.
• W2919915229 cites W2800276624 @default.
• W2919915229 cites W2801157237 @default.
• W2919915229 cites W2801591477 @default.
• W2919915229 cites W2804218724 @default.
• W2919915229 cites W2888850023 @default.
• W2919915229 cites W2894247667 @default.
• W2919915229 cites W2906859687 @default.
• W2919915229 cites W2909261489 @default.
• W2919915229 cites W3099543496 @default.
• W2919915229 cites W86633410 @default.
• W2919915229 doi "https://doi.org/10.1021/acs.analchem.9b00659" @default.
• W2919915229 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/30835102" @default.
• W2919915229 hasPublicationYear "2019" @default.
• W2919915229 type Work @default.
• W2919915229 sameAs 2919915229 @default.
• W2919915229 citedByCount "77" @default.
• W2919915229 countsByYear W29199152292019 @default.
• W2919915229 countsByYear W29199152292020 @default.
• W2919915229 countsByYear W29199152292021 @default.
• W2919915229 countsByYear W29199152292022 @default.
• W2919915229 countsByYear W29199152292023 @default.
• W2919915229 crossrefType "journal-article" @default.
• W2919915229 hasAuthorship W2919915229A5005309972 @default.
• W2919915229 hasAuthorship W2919915229A5029332303 @default.
• W2919915229 hasAuthorship W2919915229A5044472105 @default.
• W2919915229 hasBestOaLocation W29199152292 @default.
• W2919915229 hasConcept C108625454 @default.
• W2919915229 hasConcept C113196181 @default.
• W2919915229 hasConcept C120665830 @default.
• W2919915229 hasConcept C121332964 @default.
• W2919915229 hasConcept C138268822 @default.
• W2919915229 hasConcept C145148216 @default.
• W2919915229 hasConcept C15213710 @default.
• W2919915229 hasConcept C153642686 @default.
• W2919915229 hasConcept C154945302 @default.
• W2919915229 hasConcept C158355884 @default.
• W2919915229 hasConcept C159985019 @default.
• W2919915229 hasConcept C162356407 @default.
• W2919915229 hasConcept C178790620 @default.
• W2919915229 hasConcept C185592680 @default.
• W2919915229 hasConcept C192562407 @default.
• W2919915229 hasConcept C206212055 @default.
• W2919915229 hasConcept C2985130431 @default.
• W2919915229 hasConcept C32891209 @default.
• W2919915229 hasConcept C41008148 @default.
• W2919915229 hasConcept C43617362 @default.
• W2919915229 hasConcept C55493867 @default.

• next