Which of the following reaction are possible?
(i) ${S n}^{2 +} + {2 H g}^{2 +} ⟶ {H g}_{2}^{2 +} + {S n}^{4 +}$
(ii) ${G e}^{2 +} + {P b}^{4 +} ⟶ {p b}^{2 +} + {G e}^{4 +}$
(iii) ${T 1}^{+} + {G a}^{3 +} ⟶ {G a}^{+} + {T 1}^{3 +}$

(i)

and

(i i)

Right on! Give the BNAT exam to get a 100% scholarship for BYJUS courses

(i)

and

(i i i)

No worries! We‘ve got your back. Try BYJU‘S free classes today!

(i i)

and

(i i i)

No worries! We‘ve got your back. Try BYJU‘S free classes today!

None of these

No worries! We‘ve got your back. Try BYJU‘S free classes today!

Open in App

Solution

The correct option is A $(i)$ and $(i i)$
(i) possible, stability of ${S n}^{4 +} > {S n}^{2 +}$
(ii) possible, stability of ${G e}^{4 +} > {G e}^{2 +}$
(iii) not possible of ${G a}^{3 +} > {G a}^{+}, {T 1}^{3 +} < {T 1}^{+}$

Suggest Corrections

Similar questions

Stability of ions of $G e, S n, a n d P b$ will be in the order:

P b^{4 +} + S n^{2 +} \to S n^{4 +} + P b^{2 +}

S n^{4 +} + P b^{2 +} \to P b^{4 +} + S n^{2 +}

E_{P b^{4 +} / P b^{2 +}}^{o} = 1.69 V, E_{S n^{4 +} / S n^{2 +}}^{o} = 0.15 V

[1] P b^{2 +} > P b^{4}, S n^{2 +} > S n^{4 +}

[2] P b^{2 +} < P b^{4}, S n^{2 +} < S n^{4 +}

[3] P b^{2 +} > P b^{4}, S n^{2 +} < S n^{4 +}

[4] P b^{2 +} < P b^{4}, S n^{2 +} > S n^{4 +}

[5] S n^{2 +} < P b^{2 +}, S n^{4 +} > P b^{4 +}

[6] S n^{2 +} < P b^{2 +}, S n^{4 +} < P b^{4 +}

Which of the following are isobars?

i) $_{18}^{40} A r$
ii) $_{6}^{14} C$
iii) $_{20}^{40} C a$
iv) $_{7}^{14} N$

Which of the following are isobars?

$_{18}^{40} A r$ $_{6}^{14} C$ $_{20}^{40} C a$ $_{7}^{14} N$

Join BYJU'S Learning Program