The question is mostly solved. The definition of heat is used for this problem which tells us:
[tex]Q=mCp\Delta T[/tex]Where,
Q is the heat added to the system, 120 J
m is the mass of the metal, 5.0 g
Cp is the specific heat of the metal, 0.385J/g°C
dT is the change of temperature:
[tex]\Delta T=T_2-T_1[/tex]T2 is the final temperature, unknown
T1 is the initial temperature, 22°C
We clear the final temperature from the equation:
[tex]\begin{gathered} Q=mCp(T_2-T_1) \\ Q=mCpT_2-mCpT_1 \\ T_2=\frac{Q+mCpT_1}{mCp} \end{gathered}[/tex]Now, we replace the known data:
[tex]T_2=\frac{120J+5.0g\times0.385\frac{J}{g\degree C}\times22\degree C}{5.0g\times0.385\frac{J}{g\degree C}}[/tex][tex]\begin{gathered} T_2=\frac{120+5.0\times0.385\times22}{5.0\times0.385}\degree C \\ T_2=84\degree C \end{gathered}[/tex]Answer:
The final temperature of the metal will be 84°C
The change in the temperature will be 84°C-22°C=62°C