To determine the specific heat and identity of the metal, you can use the equation 
 +
 + 
 = 0. Calculate
 = 0. Calculate 
 and
 and 
 using the formulas
 using the formulas 
 =
 = 
 *
 * 
 * (
 * (
 -
- 
 ) and
) and 
 =
 = 
 *
 * 
 * (
* (
 -
- 
 ). Compare the calculated specific heat of the metal to known specific heats to determine its identity.
). Compare the calculated specific heat of the metal to known specific heats to determine its identity.
To determine the specific heat and identity of the metal, we can use the equation:
 +
 + 
 = 0
 = 0
where 
 is the heat gained or lost by the metal and
 is the heat gained or lost by the metal and 
 is the heat gained or lost by the water. We can calculate
 is the heat gained or lost by the water. We can calculate 
 using the formula:
 using the formula:
 =
 = 
 *
 * 
 * (
 * (
 -
 - 
 )
)
where 
 is the mass of the metal,
 is the mass of the metal, 
 is the specific heat of the metal,
 is the specific heat of the metal, 
 is the final temperature of the metal, and
 is the final temperature of the metal, and 
 is the initial temperature of the metal. Similarly, we can calculate
 is the initial temperature of the metal. Similarly, we can calculate 
 using the formula:
using the formula:
 =
 = 
 *
 * 
 * (
 * (
 -
 - 
 )
)
where 
 is the mass of the water,
 is the mass of the water, 
 is the specific heat of water,
 is the specific heat of water, 
 is the final temperature of the water, and
 is the final temperature of the water, and 
 is the initial temperature of the water.
 is the initial temperature of the water.
Plugging in the given values:
 = 92.9 g
= 92.9 g
 = 178.0 °C
 = 178.0 °C
 = 29.7 °C
 = 29.7 °C
 = 75.0 mL = 75.0 g
= 75.0 mL = 75.0 g
 = 24.0 °C
 = 24.0 °C
 = 29.7 °C
 = 29.7 °C
 = 4.18 J/g·°C
 = 4.18 J/g·°C
Solving the equations, we find that 
 = 0.94 J/g·°C.
 = 0.94 J/g·°C.
To confidently determine the identity of the metal, we can compare the calculated specific heat of the metal (0.94 J/g·°C) to the known specific heat of different metals. The metal with the closest specific heat to 0.94 J/g·°C is most likely the identity of the metal.