Matches in SemOpenAlex for { <https://semopenalex.org/work/W4313593887> ?p ?o ?g. }
- W4313593887 endingPage "127348" @default.
- W4313593887 startingPage "127348" @default.
- W4313593887 abstract "In the present work, chromium-substituted cobalt-based Y-type barium hexaferrite ceramics having a general formula of Ba2Co2Fe12-xCrxO22 (0.0 ≤ x ≤ 0.5) have been studied to evaluate its potential candidacy as an optional replacement for various soft ferrite materials in the field of magnetic hyperthermia. The as-obtained ferrite powders are characterized for structural, magnetic, and morphological properties after being calcined at 1200 °C for 2 h. The structural parameters confirm single-phase nanocrystalline Y-type barium hexaferrite formation within all the samples. The room temperature magnetic parameter, i.e., saturation magnetization (Ms), is found to decrease (from 39.07 to 33.50 emu/g), and the coercive field (Hc) is increased (86.87–281.84 Oe) consistently. Later, oleic acid-coated ferrite samples' heating capability is governed within the applied AC magnetic field (25 mT at a frequency of 114.1 kHz) in terms of specific absorption rate (SAR) using time-dependent temperature performance. The superiority of the sample having the greatest SAR value (84.39 w/g for Ba2Co2Fe11.7Cr0.3O22) is interrelated with the particles' geometry, size distribution, magnetic parameters, and surface chemistry obtained from the XPS analysis. This sample is further analyzed for its biocompatibility performance against the MG-63 cell line; the results indicate that it may be a potential candidate for magnetic hyperthermia due to its significant SAR & ILP value along with better biocompatibility." @default.
- W4313593887 created "2023-01-06" @default.
- W4313593887 creator A5004776188 @default.
- W4313593887 creator A5010278693 @default.
- W4313593887 creator A5025185937 @default.
- W4313593887 creator A5029911095 @default.
- W4313593887 creator A5031159860 @default.
- W4313593887 creator A5042080104 @default.
- W4313593887 creator A5068806663 @default.
- W4313593887 date "2023-02-01" @default.
- W4313593887 modified "2023-10-18" @default.
- W4313593887 title "Structural, magnetic, and biocompatibility evaluations of chromium substituted barium hexaferrite (Co2–Y) for hyperthermia application" @default.
- W4313593887 cites W1507913827 @default.
- W4313593887 cites W1774200817 @default.
- W4313593887 cites W1964627222 @default.
- W4313593887 cites W1971513976 @default.
- W4313593887 cites W1973220676 @default.
- W4313593887 cites W1974662965 @default.
- W4313593887 cites W1974981354 @default.
- W4313593887 cites W1984328672 @default.
- W4313593887 cites W1995031189 @default.
- W4313593887 cites W2005167296 @default.
- W4313593887 cites W2009687730 @default.
- W4313593887 cites W2014817760 @default.
- W4313593887 cites W2017185323 @default.
- W4313593887 cites W2025087339 @default.
- W4313593887 cites W2029951384 @default.
- W4313593887 cites W2035703105 @default.
- W4313593887 cites W2046627530 @default.
- W4313593887 cites W2049915335 @default.
- W4313593887 cites W2051581909 @default.
- W4313593887 cites W2052701071 @default.
- W4313593887 cites W2052924539 @default.
- W4313593887 cites W2055584058 @default.
- W4313593887 cites W2065779752 @default.
- W4313593887 cites W2069737758 @default.
- W4313593887 cites W2077702089 @default.
- W4313593887 cites W2081788608 @default.
- W4313593887 cites W2088185403 @default.
- W4313593887 cites W2098081981 @default.
- W4313593887 cites W2099666449 @default.
- W4313593887 cites W2112794532 @default.
- W4313593887 cites W2121877814 @default.
- W4313593887 cites W2192035336 @default.
- W4313593887 cites W2253182586 @default.
- W4313593887 cites W2381383269 @default.
- W4313593887 cites W2462008438 @default.
- W4313593887 cites W2462845364 @default.
- W4313593887 cites W2536141942 @default.
- W4313593887 cites W2547539807 @default.
- W4313593887 cites W2582377410 @default.
- W4313593887 cites W2618526004 @default.
- W4313593887 cites W2753316588 @default.
- W4313593887 cites W2759197338 @default.
- W4313593887 cites W2765269240 @default.
- W4313593887 cites W2774422029 @default.
- W4313593887 cites W2792804810 @default.
- W4313593887 cites W2800771360 @default.
- W4313593887 cites W2804846127 @default.
- W4313593887 cites W2891177366 @default.
- W4313593887 cites W2898728348 @default.
- W4313593887 cites W2908560181 @default.
- W4313593887 cites W2912183707 @default.
- W4313593887 cites W2955652368 @default.
- W4313593887 cites W2963188424 @default.
- W4313593887 cites W2990668814 @default.
- W4313593887 cites W3013680909 @default.
- W4313593887 cites W3015531989 @default.
- W4313593887 cites W3022632857 @default.
- W4313593887 cites W3035190431 @default.
- W4313593887 cites W3042739132 @default.
- W4313593887 cites W3047486773 @default.
- W4313593887 cites W3048752630 @default.
- W4313593887 cites W3080870038 @default.
- W4313593887 cites W3081410911 @default.
- W4313593887 cites W3082108234 @default.
- W4313593887 cites W3100472230 @default.
- W4313593887 cites W3101746462 @default.
- W4313593887 cites W3121344943 @default.
- W4313593887 cites W3124370084 @default.
- W4313593887 cites W3125757400 @default.
- W4313593887 cites W3130493591 @default.
- W4313593887 cites W3134924184 @default.
- W4313593887 cites W3137127504 @default.
- W4313593887 cites W3144349835 @default.
- W4313593887 cites W3161552823 @default.
- W4313593887 cites W3167289291 @default.
- W4313593887 cites W3188629609 @default.
- W4313593887 cites W3200864175 @default.
- W4313593887 cites W3213276814 @default.
- W4313593887 cites W4226301636 @default.
- W4313593887 cites W4256436930 @default.
- W4313593887 cites W4282824324 @default.
- W4313593887 cites W4293385726 @default.
- W4313593887 cites W4300865454 @default.
- W4313593887 cites W844754441 @default.
- W4313593887 doi "https://doi.org/10.1016/j.matchemphys.2023.127348" @default.
- W4313593887 hasPublicationYear "2023" @default.