Matches in SemOpenAlex for { <https://semopenalex.org/work/W4383559196> ?p ?o ?g. }
- W4383559196 endingPage "10309" @default.
- W4383559196 startingPage "10296" @default.
- W4383559196 abstract "To better understand the mechanism of precipitation and dissolution of the crystalline wax in asphalt, it is necessary to investigate the phase transition process of asphalt at different temperatures. Variable-temperature Raman spectroscopy has been employed to analyze the phase transition properties of eight asphalt binders from the SHRP material reference library. More abundant Raman spectral structure information is obtained by introducing silver nanoparticle colloids (Ag NPs) as a surface-enhanced Raman scattering (SERS) substrate to quench the self-fluorescence. The findings show that Raman spectroscopy can effectively identify different aging states of asphalt according to characteristic peaks. In the temperature range of 20–100 °C, three areas of the Raman spectrum, including 500–1200, 1300–1800, and 2500–3000 cm–1, indicate that the asphalt has transformed from an ordered phase to a disordered phase and to a liquid phase. The order parameters are selected to represent the change of ordered and disordered structures in asphalt. The phase transition occurs mainly from the changes in the intensity and frequency of the Raman crest related to the crystal structure and distorted conformation. The temperature range of phase transitions from an ordered to a disordered range of asphalt has an obvious correlation with the wax melting point of asphalt, and the disorder degree and molecular defects of asphalt are also positively correlated with the wax content in asphalt." @default.
- W4383559196 created "2023-07-08" @default.
- W4383559196 creator A5006214591 @default.
- W4383559196 creator A5033753564 @default.
- W4383559196 creator A5040080509 @default.
- W4383559196 creator A5047375507 @default.
- W4383559196 creator A5048835549 @default.
- W4383559196 creator A5072718456 @default.
- W4383559196 creator A5083102290 @default.
- W4383559196 date "2023-07-07" @default.
- W4383559196 modified "2023-10-18" @default.
- W4383559196 title "Variable-Temperature Raman Spectroscopy Study of the Phase Transition Mechanism in Asphalt Binders" @default.
- W4383559196 cites W1894595226 @default.
- W4383559196 cites W1966872357 @default.
- W4383559196 cites W1975965632 @default.
- W4383559196 cites W1980016399 @default.
- W4383559196 cites W1982741876 @default.
- W4383559196 cites W1985402788 @default.
- W4383559196 cites W1988832641 @default.
- W4383559196 cites W1990853293 @default.
- W4383559196 cites W2003116881 @default.
- W4383559196 cites W2012040544 @default.
- W4383559196 cites W2019761089 @default.
- W4383559196 cites W2020409401 @default.
- W4383559196 cites W2030338765 @default.
- W4383559196 cites W2036452443 @default.
- W4383559196 cites W2042087839 @default.
- W4383559196 cites W2061624148 @default.
- W4383559196 cites W2070613786 @default.
- W4383559196 cites W2074520012 @default.
- W4383559196 cites W2093055152 @default.
- W4383559196 cites W2094927295 @default.
- W4383559196 cites W2102624720 @default.
- W4383559196 cites W2126474461 @default.
- W4383559196 cites W2138736613 @default.
- W4383559196 cites W2316455723 @default.
- W4383559196 cites W2611103763 @default.
- W4383559196 cites W2742501945 @default.
- W4383559196 cites W2763148304 @default.
- W4383559196 cites W2767466724 @default.
- W4383559196 cites W2788652199 @default.
- W4383559196 cites W2795169152 @default.
- W4383559196 cites W2896039734 @default.
- W4383559196 cites W2909922414 @default.
- W4383559196 cites W2922764847 @default.
- W4383559196 cites W2940821949 @default.
- W4383559196 cites W2953336778 @default.
- W4383559196 cites W3010152029 @default.
- W4383559196 cites W3025565816 @default.
- W4383559196 cites W3036229468 @default.
- W4383559196 cites W3045559272 @default.
- W4383559196 cites W3127505243 @default.
- W4383559196 cites W3128820599 @default.
- W4383559196 cites W3143176933 @default.
- W4383559196 cites W3156918153 @default.
- W4383559196 cites W3186952922 @default.
- W4383559196 cites W3199860353 @default.
- W4383559196 cites W3201424896 @default.
- W4383559196 cites W3210728043 @default.
- W4383559196 cites W4200500046 @default.
- W4383559196 cites W4205412316 @default.
- W4383559196 cites W4214912828 @default.
- W4383559196 cites W4280553190 @default.
- W4383559196 cites W4282839342 @default.
- W4383559196 cites W4283521137 @default.
- W4383559196 cites W4285792060 @default.
- W4383559196 cites W4292943138 @default.
- W4383559196 cites W4298149801 @default.
- W4383559196 cites W4361773662 @default.
- W4383559196 cites W608759245 @default.
- W4383559196 cites W4281476644 @default.
- W4383559196 doi "https://doi.org/10.1021/acs.energyfuels.3c01745" @default.
- W4383559196 hasPublicationYear "2023" @default.
- W4383559196 type Work @default.
- W4383559196 citedByCount "0" @default.
- W4383559196 crossrefType "journal-article" @default.
- W4383559196 hasAuthorship W4383559196A5006214591 @default.
- W4383559196 hasAuthorship W4383559196A5033753564 @default.
- W4383559196 hasAuthorship W4383559196A5040080509 @default.
- W4383559196 hasAuthorship W4383559196A5047375507 @default.
- W4383559196 hasAuthorship W4383559196A5048835549 @default.
- W4383559196 hasAuthorship W4383559196A5072718456 @default.
- W4383559196 hasAuthorship W4383559196A5083102290 @default.
- W4383559196 hasConcept C113196181 @default.
- W4383559196 hasConcept C120665830 @default.
- W4383559196 hasConcept C121332964 @default.
- W4383559196 hasConcept C149288129 @default.
- W4383559196 hasConcept C153033020 @default.
- W4383559196 hasConcept C159467904 @default.
- W4383559196 hasConcept C159985019 @default.
- W4383559196 hasConcept C168056786 @default.
- W4383559196 hasConcept C169573571 @default.
- W4383559196 hasConcept C178790620 @default.
- W4383559196 hasConcept C185592680 @default.
- W4383559196 hasConcept C192562407 @default.
- W4383559196 hasConcept C32891209 @default.
- W4383559196 hasConcept C39353612 @default.
- W4383559196 hasConcept C40003534 @default.