FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2897984712> ?p ?o ?g. }

• W2897984712 endingPage "880" @default.
• W2897984712 startingPage "866" @default.
• W2897984712 abstract "This paper presents a laboratory experimental study to comprehensively investigate the characteristics of particle breakage using numerous triaxial tests on a coral sand. Coral is a highly crushable granular material which fills the gaps between more crushable and less crushable granular materials. The monotonic tests and cyclic tests were terminated at the designated axial strains and the designated cyclic numbers, respectively. The grain size distributions were measured by sieve analyses of the specimens after the triaxial tests were performed. The relative breakage and relative fractal dimension were used to quantify the particle breakage. The cause of particle breakage that increased with increasing isotropic consolidation stress was shown to be isotropic stress. An almost linear increase in particle breakage in relative breakage was found as axial strain increased, whereas the increase in particle breakage in relative fractal dimension showed upward convexity. More particle breakage occurred in denser samples. During consolidation to the identical mean effective stress, the anisotropic stress state played a bigger role in particle breakage than the isotropic stress state, but during shearing particle breakage occurred more sharply in the triaxial tests with the isotropic consolidation to the higher confining pressure. In the cyclic shearing, the particle breakage in relative breakage and relative fractal dimension increased in upward convexity as the cyclic number increased, but in upward concavity with increasing axial strain. A hyperbolic model was proposed to correlate the relative fractal dimension with the relative breakage for use with both monotonic and cyclic tests. In the monotonic tests, a hyperbolic model was proposed to correlate the particle breakage in relative breakage and relative fractal dimension with the plastic work per unit volume. It is proposed that the loading-mode-induced (i.e., monotonic loading and cyclic loading) different mechanism of particle breakage meant that this model could not be applicable in the cyclic tests. The results suggested that the hyperbolic correlation of the particle breakage in relative fractal dimension and the plastic work per unit volume is the most reliable method of interpreting the energy consumption characteristics of particle breakage. This approach takes the fractal nature of soil into consideration. A microscopic view of particle breakage is also effective for observing the evolution of particle breakage." @default.
• W2897984712 created "2018-10-26" @default.
• W2897984712 creator A5048037724 @default.
• W2897984712 date "2018-08-01" @default.
• W2897984712 modified "2023-10-14" @default.
• W2897984712 title "Particle breakage in triaxial shear of a coral sand" @default.
• W2897984712 cites W1528889921 @default.
• W2897984712 cites W1582623641 @default.
• W2897984712 cites W1860548130 @default.
• W2897984712 cites W1963861296 @default.
• W2897984712 cites W1964368347 @default.
• W2897984712 cites W1966900299 @default.
• W2897984712 cites W1970014690 @default.
• W2897984712 cites W1975362459 @default.
• W2897984712 cites W1978813277 @default.
• W2897984712 cites W1986679379 @default.
• W2897984712 cites W1987252398 @default.
• W2897984712 cites W1993562434 @default.
• W2897984712 cites W1996627127 @default.
• W2897984712 cites W1996965608 @default.
• W2897984712 cites W2000876053 @default.
• W2897984712 cites W2002021296 @default.
• W2897984712 cites W2002420215 @default.
• W2897984712 cites W2003252134 @default.
• W2897984712 cites W2010770084 @default.
• W2897984712 cites W2013356395 @default.
• W2897984712 cites W2019656436 @default.
• W2897984712 cites W2022674669 @default.
• W2897984712 cites W2024504435 @default.
• W2897984712 cites W2026600410 @default.
• W2897984712 cites W2026680715 @default.
• W2897984712 cites W2027422461 @default.
• W2897984712 cites W2031383304 @default.
• W2897984712 cites W2033859860 @default.
• W2897984712 cites W2034115070 @default.
• W2897984712 cites W2038002287 @default.
• W2897984712 cites W2041468020 @default.
• W2897984712 cites W2047508949 @default.
• W2897984712 cites W2053005636 @default.
• W2897984712 cites W2056553130 @default.
• W2897984712 cites W2066785677 @default.
• W2897984712 cites W2067427661 @default.
• W2897984712 cites W2068445592 @default.
• W2897984712 cites W2073443556 @default.
• W2897984712 cites W2074028549 @default.
• W2897984712 cites W2084310101 @default.
• W2897984712 cites W2087359880 @default.
• W2897984712 cites W2088273420 @default.
• W2897984712 cites W2088857683 @default.
• W2897984712 cites W2090155884 @default.
• W2897984712 cites W2090751726 @default.
• W2897984712 cites W2093795303 @default.
• W2897984712 cites W2104183557 @default.
• W2897984712 cites W2108056564 @default.
• W2897984712 cites W2121848160 @default.
• W2897984712 cites W2142236379 @default.
• W2897984712 cites W2142535963 @default.
• W2897984712 cites W2145321199 @default.
• W2897984712 cites W2147198072 @default.
• W2897984712 cites W2159413039 @default.
• W2897984712 cites W2164881699 @default.
• W2897984712 cites W2167797149 @default.
• W2897984712 cites W2207841456 @default.
• W2897984712 cites W2217307520 @default.
• W2897984712 cites W2255234717 @default.
• W2897984712 cites W2275794063 @default.
• W2897984712 cites W2313828463 @default.
• W2897984712 cites W2341560262 @default.
• W2897984712 cites W2344484792 @default.
• W2897984712 cites W2466706652 @default.
• W2897984712 cites W2499106345 @default.
• W2897984712 cites W2588274413 @default.
• W2897984712 cites W2600280958 @default.
• W2897984712 cites W2741894490 @default.
• W2897984712 cites W2743270020 @default.
• W2897984712 cites W2749739193 @default.
• W2897984712 cites W4233051618 @default.
• W2897984712 cites W2740432488 @default.
• W2897984712 doi "https://doi.org/10.1016/j.sandf.2018.04.001" @default.
• W2897984712 hasPublicationYear "2018" @default.
• W2897984712 type Work @default.
• W2897984712 sameAs 2897984712 @default.
• W2897984712 citedByCount "81" @default.
• W2897984712 countsByYear W28979847122018 @default.
• W2897984712 countsByYear W28979847122019 @default.
• W2897984712 countsByYear W28979847122020 @default.
• W2897984712 countsByYear W28979847122021 @default.
• W2897984712 countsByYear W28979847122022 @default.
• W2897984712 countsByYear W28979847122023 @default.
• W2897984712 crossrefType "journal-article" @default.
• W2897984712 hasAuthorship W2897984712A5048037724 @default.
• W2897984712 hasBestOaLocation W28979847121 @default.
• W2897984712 hasConcept C111368507 @default.
• W2897984712 hasConcept C120665830 @default.
• W2897984712 hasConcept C121332964 @default.
• W2897984712 hasConcept C121955636 @default.
• W2897984712 hasConcept C127313418 @default.
• W2897984712 hasConcept C144133560 @default.

• next