Hg(g) -> Hg^+(g) + e^-
The equation for the ionization of CO3- with water is: CO3- + H2O → HCO3- + OH-
The first ionization energy of mercury is 10.44 eV, while the second ionization energy is 18.76 eV. These values represent the energy required to remove one or two electrons, respectively, from a gaseous mercury atom to form a positively charged ion.
Saha's ionization equation describes the equilibrium constant for the ionization of an element in a gas at a given temperature as a function of the electron pressure. It is used to understand how the degree of ionization of an element changes with temperature and pressure in a gas.
The ionization equation for potassium sulfate (K2SO4) in water is: K2SO4 (s) -> 2K+ (aq) + SO4^2- (aq)
The equation for the ionization of ethylamine in water is: C2H5NH2 (ethylamine) + H2O → C2H5NH3+ (ethylammonium) + OH- (hydroxide)
The simplest form of the chemical equation for the self-ionization of water is: 2H₂O ⇌ H₃O⁺ + OH⁻.
The word equation for heated mercury is "mercury reacts with oxygen to form mercury oxide."
The word equation for the ionization of hydrochloric acid (HCl) in water is: HCl (aq) → H+ (aq) + Cl- (aq).
M + ionization energy à M1+ + e- M + ionization energy à M1+ + e-
The word equation for this reaction is: mercury oxide (s) → mercury (l) + oxygen (g).
The reactants in the equation are mercury II oxide (HgO). This compound will decompose into mercury (Hg) and oxygen (O2) during the reaction.
The equation for the formation of red mercury (mercury(II) oxide) is 2Hg + O2 -> 2HgO. This reaction occurs when mercury reacts with oxygen to produce red mercury oxide.