A solution containing `H^(+)` and `D^(+)` ions is in equilibrium with a mioxture of `H_(2)` and `D_(2)` gases at `25^(@)`C. If the partial pressures of both gases are 1.0 atm, find the ratio of [`D^(+)`]`//`[H^(+)]` : (Given : `E_(D^(+)//(D_(2)))^(@)=-0.003V`]A. 1.23B. 1.12C. 0.11D. 1

A solution containing `H^(+)` and `D^(+)` ions is in equilibrium with

1.	A solution containing `H^(+)` and `D^(+)` ions is in equilibrium with a mioxture of `H_(2)` and `D_(2)` gases at `25^(@)`C. If the partial pressures of both gases are 1.0 atm, find the ratio of [`D^(+)`]`//`[H^(+)]` : (Given : `E_(D^(+)//(D_(2)))^(@)=-0.003V`]A. 1.23B. 1.12C. 0.11D. 1
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A solution containing `H^(+)` and `D^(+)` ions is in equilibrium with a mioxture of `H_(2)` and `D_(2)` gases at `25^(@)`C. If the partial pressures of both gases are 1.0 atm, find the ratio of [`D^(+)`]`//`[H^(+)]` : (Given : `E_(D^(+)//(D_(2)))^(@)=-0.003V`]A. 1.23B. 1.12C. 0.11D. 1

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