Respuesta :
This can be solved from the equation q = m * C * ΔT Where q is the heat added, m is the mass, C is the specific heat capacity, and ΔT is the change in temperature.
We can rearrange the equation to find the specific heat capacity
q/(m*ΔT) = C
q = 89.5 J m = 5.10 g ΔT = (75.0 °C - 36.0 °C) = 39 °C
(89.5J)/(5.10 g * 39 °C) = 0.450 J/g°C
We can rearrange the equation to find the specific heat capacity
q/(m*ΔT) = C
q = 89.5 J m = 5.10 g ΔT = (75.0 °C - 36.0 °C) = 39 °C
(89.5J)/(5.10 g * 39 °C) = 0.450 J/g°C
Answer: Option (D) is the correct answer.
Explanation:
The given data is as follows.
mass = 5.10 g, [tex]T_{1} = 36^{o}C[/tex],
[tex]T_{2} = 75.0^{o}C[/tex], q = 89.5 J
It is known that relation between heat energy and specific heat capacity is as follows.
q = [tex]mC \Delta T[/tex]
Hence, putting the given values into the above formula to calculate specific heat capacity as follows.
q = [tex]mC \Delta T[/tex]
89.5 J = [tex]5.10 g \times C (75 - 36)^{o}C[/tex]
89.5 J = [tex]5.10 g \times C \times 39^{o}C[/tex]
C = [tex]0.450 J/g ^{o}C[/tex]
Thus, we can conclude that the specific capacity of this sample of iron is [tex]0.450 J/g ^{o}C[/tex].