On cast iron substrate, in addition to these, Ni3B, CrB, Cr23C6 have been identified.
Results confirmed a good protective action of the FBN film on the iron substrate in acidic solution.
This computational approach to coating design is applied to a hypothetical graded zinc-alloy coating with a circular defect on an iron substrate, in an aerated NaCl electrolyte.
In E. amylovora, foxR mutants retain ability to synthesize desferrioxamine E, but lose their ability to utilize this as an iron substrate, are impaired in growth under iron-limited conditions such as found on flower surfaces, have reduced virulence, and are less resistant to plant defence responses [ 67, 68].
In summary, a corrosion engineering method has been presented for the value-added transformation of inexpensive iron substrates into high-performance electrodes for OER.
Using tungsten wires as a reactive source, an iron-based composite coating, reinforced by tungsten carbide (WC) particles, with a thickness of 3.0 mm, was fabricated on the surface of a gray cast iron substrate by centrifugal casting plus in-situ synthesis techniques.
The effect of element M (M = Al, Si, Cr, Mn) is positive when it exists in the zinc coating or negative when it occurs in the iron substrate.
And then the iron substrates were immersed in the corrosive solution at room temperature (~25 °C) for 12 h.
When iron substrates are brought in contact with water and air, iron rust often unavoidably forms on the surface of iron substrates.
This synthetic method is achieved via a desired corrosion reaction of iron substrates with oxygen in aqueous solutions containing divalent cations (e.g., nickel) at ambient temperature.
Particularly, the well-designed iron corrosion is readily realized via immersing iron substrates (e.g., iron plate) in an aqueous solution containing a certain amount of divalent cations (e.g., Ni2+, Co2+, Mn2+, or Mg2+) at ambient temperature.
