The change in energy when a big drop is split into $n$ small droplets is:

  • A
    $4 R^{2}\left(n^{2 / 3}-1\right) T$
  • B
    $4 \pi R^{2}\left(n^{1 / 3}-1\right) T$
  • C
    $4 \pi R^{2}\left(n^{-1 / 3}-1\right) T$
  • D
    $4 \pi R^{2}\left[n^{-2 / 3}-1\right] T$

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$A$ large number of water droplets each of radius '$r$' combine to form a large drop of radius '$R$'. If the surface tension of water is '$T$' and the mechanical equivalent of heat is '$J$',then the rise in temperature due to this process is:

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