NOVELTY - The method comprises mixing an ionic liquid containing a halide compound, nanostructures and a powder precursor being a compound of an element of an electrode material. The mixing step is carried out with constituents of the mixture at a temperature approximating to the ice-point of 0 degrees C for a precursor including water, to precipitate initially planar sheets of an amorphous compound of the halide and the element of the precursor to form a mixture with the remaining ionic liquid and the nanostructures. The method further comprises removing microspheres from a residual mixture.    USE - The method is useful for manufacturing an amorphous electrode material (claimed) such as iron-based amorphous electrode material, which is useful in a lithium ion battery for an electric vehicle such as electric car and green power stations such as solar energy power stations or wind parks.    ADVANTAGE - The method is capable of economically manufacturing the amorphous electrode material with improved charge/discharge reversibility and storage capacity.    DETAILED DESCRIPTION - The method comprises mixing an ionic liquid containing a halide compound, nanostructures and a powder precursor being a compound of an element of an electrode material. The mixing step is carried out with constituents of the mixture at a temperature approximating to the ice-point of 0 degrees C for a precursor including water, to precipitate initially planar sheets of an amorphous compound of the halide and the element of the precursor to form a mixture with the remaining ionic liquid and the nanostructures. The method further comprises removing microspheres from a residual mixture, drying the microspheres at an elevated temperature, and cooling the mixture to a temperature of 0 degrees C for the precursor containing water. The planar sheets are coated with an ionic liquid and curl to form nanospheres agglomerated into microspheres. The nanospheres are interconnected or interlaced by or with the nanostructures. Nanoparticles of the material of the planar sheets are separated during the formation of the agglomerations of the curled planar sheets, and adhere to the surface of the agglomerations and/or the nanospheres. The step of removing includes washing the microspheres with a further solution to remove water and optionally placing the washed microspheres into a centrifuge to remove the solution containing dissolved mixture residues. The step of drying the microspheres is carried out in a vacuum atmosphere at a temperature of 80 degrees C. The nanostructures having an amount of 5-15 wt.% are included in the mixture, and comprise conductive nanowires or nanotubes, which are single wall carbon nanotubes. An INDEPENDENT CLAIM is included for an interconnected network of an amorphous electrode material.    DESCRIPTION OF DRAWING(S) - The figure shows a schematic view of iron fluoride nanosheets and microspheres and their internal construction.