Iron oxide NPs have been prepared by a known route utilizing decomposition of an iron complex at high temperature [7].
The alternative routes to decomposition for these intermediates will determine ignition delays through either chain-inhibition or propagation, under fixed experimental conditions.
As outlined before [42], another plausible decomposition route occurs by the decomposition of phenyl group from the INT3/d.
SrTiO3/Bi5O7I composites were then synthesized by a thermal decomposition route.
As outlined before, another plausible decomposition route originating from R1 is Cd Se and Cd S elimination (Scheme 3).
Co3O4 nanoparticles were prepared using [Co(NH3 6](NO3 2 as a starting material via a solid-state thermal decomposition route at low temperature (150°C).
Ultrasonication not only promotes oxidative degradation of pyridine by hydroxyl radicals, but also provides a possible route for thermal decomposition in the gas phase (Naffrechoux et al. 2000).
Coral-like nickel cobalt oxides with hierarchical pores were massively synthesized via a one-pot additive-free solvent thermal decomposition route coupled with a post calcination treatment.
At high conversion, the DEE decomposition route producing ethylene was confirmed for H-MFI at 488 K along with ethoxide-mediated pathway.
Spinel-type cobalt oxide (Co3O4) nanoparticles have been easily prepared through a simple thermal decomposition route at low temperature (175°C) using carbonatotetra ammine cobalt III) nitrate complex, [Co(NH3 4CO3]NO3·H2O, as a new precursor.
Layered double hydroxides (LDHs) carbonate with the M2+/Al3+ (M= Mg or Zn) molar ratio of 2/1 has been synthesized by a gas liquid contacting route with the decomposition of ammonium carbonate.
