Answer:

Step-by-step explanation:
Given that the temperature of
of water and
of water are
at
and
respectively.
Let
,

and
,
.
The specific heat capacity of water is,
.
Let the final temperature of the mixture be
.
As there is no energy loss, so, the energy loss by the water at higher temperature, i.e.
, will be equal to the energy gain by the water at lower temperature, i.e.
.

[ both sides divided by
]



Now, putting the given value in the above equation, we have


Hence, the temperature of the mixture will be
.