3348 XXXI International Mineral Processing Congress 2024 Proceedings/Washington, DC/Sep 29–Oct 3
Figure 4. Evolutions of Γ(Q) as functions of Q2 for Al(OH)
3 – LDH at (a) temperatures between 250K and 400K and (b)
500K and 600K. The dotted lines are fits with eq. 3
Figure 5. Evolutions of Γ(Q) as functions of Q2 for Al
2 O
3 – LDH at (a) 300K and 350K and (b) at temperatures between 400K
and 600K. The dotted lines are fits with eq. 3
Figure 6. Evolutions of Γ(Q) as functions of Q2 for Fe –
LDH at 300K and 400K. The dotted lines are fits with eq. 3
Figure 7. Arrhenius plot depicting the temperature-
dependence of the diffusion coefficients (D) of the three
samples under analysis. The activation energies of the
dynamic processes to which such a parameter could be
calculated are displayed in the figure
Figure 4. Evolutions of Γ(Q) as functions of Q2 for Al(OH)
3 – LDH at (a) temperatures between 250K and 400K and (b)
500K and 600K. The dotted lines are fits with eq. 3
Figure 5. Evolutions of Γ(Q) as functions of Q2 for Al
2 O
3 – LDH at (a) 300K and 350K and (b) at temperatures between 400K
and 600K. The dotted lines are fits with eq. 3
Figure 6. Evolutions of Γ(Q) as functions of Q2 for Fe –
LDH at 300K and 400K. The dotted lines are fits with eq. 3
Figure 7. Arrhenius plot depicting the temperature-
dependence of the diffusion coefficients (D) of the three
samples under analysis. The activation energies of the
dynamic processes to which such a parameter could be
calculated are displayed in the figure