At sufficiently high cooling rates, however, most materials display a different behaviour and follow route 2 to the solid state.
All materials display a low level of oxidation, even after storage in ambient conditions.
The studied materials display a significant electrocatalytic activity towards the oxidation of 1,4-dihydrobenzoquinone, H2Q.
Generally, all the surveyed materials display a poor state of conservation, except for those buildings recently restored.
Notably, the starting materials display a remanent magnetization (M r) of 0.16 emu g−1 and coercivity (H C) of 1030 Oe.
Due to the porous morphology and enhanced electronic conductivity, these materials display a superior electrochemical performance as anode materials in lithium ion batteries.
The obtained NiCo2O4 materials display a typical agglomerate porous morphology with large specific surface area (190.1 m2 g−1) and high mesopore volume (0.943 cm3 g−1).
Both materials display a periodicity normal to the surface arising from stacked sheets of fluorene chains in both the crystalline and liquid crystalline phases.
The CMO/CHC electrode materials display a high specific capacitance of 779 F g−1 at 1 A g−1 and an excellent rate behavior (77.5% and 63.6% at 20 and 40 A g−1 compared with 1 A g−1, respectively).
Both composite materials displayed an enhancement of activity and benzaldehyde selectivity with respect to the pure CN.
