Find the value of k 1 and k 2 for which V - can be represented as V - k 1 A - k 2 B - - Where- V -2 i - jA -3 i -2 j and B -3 i -3 jA- k 1-1 and k 2-1B- k 1-3-5 and k 2-1-2C- k 1-2-33 and k 2-2-5D- k 1-3-5 and k 2-1-15

For $C u^{2 +}$ ion in $[C u (H_{2} O)_{4} (e n)]^{2 +}, [C u (H_{2} O)_{2} (e n)_{2}]^{2 +}$ and $[C u (e n)_{3}]^{2 +}$ with the stability constant $k_{1}, k_{2}$ and $k_{3}$ respectively, which of the following holds true?

Two gaseous equilibria $S O_{2} (g) + 0.5 O_{2} (g) ⇌ S O_{3} (g)$ and

$2 S O_{3} (g) ⇌ 2 S O_{2} (g) + O_{2} (g)$ have equilibrium constants $K_{1}$ and $K_{2}$ respectively

at 298K. Which of the following relationships between $K_{1}$ and $K_{2}$ is correct

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Find the value of k1 and k2 for which →V can be represented as →V = k1→A+k2→B. Where, →V=2i−j , →A = 3i−2j and →B = 3i+3j.

The correct option is D k1=35 and k2=115The vector →V can be expressed as→V=k1→A+k2→B 2i−j = k1(3i−2j) + k2(3i+3j) ⇒ 2i−j = (3k1+3k2)i + (−2k1+3k2)j Equating terms from both sides ⇒ 2 = (3k1+3k2) ⇒ −1 = (−2k1+3k2) Solving both the equations we get k1 = 35 and k2 =115

Find the value of $k_{1}$ and $k_{2}$ for which $\to V$ can be represented as $\to V = k_{1} \to A + k_{2} \to B$ . Where, $\to V = 2 i - j$ ,
$\to A = 3 i - 2 j$ and $\to B = 3 i + 3 j .$