Specific heat is the energy stored in the form of heat per temperature and amount (mass, moles, or volume) and varies depending on composition, temperature, crystalline configuration, and phase (solid, liquid, or gas). For elemental iron it varies from 4.13-10.0 cal/mole K or (in SI units) 309-749 J/kg K. For liquid elemental iron the specific heat capacity is 8.15 cal/mol K or (in SI units) 611 J/kg K.
No. Metals have a relatively low specific heat.
A thermometer can be used to test the purity of a metal by measuring its specific heat capacity. Different metals have different specific heat capacities, so comparing the measured value to the known values for pure gold or iron can indicate the level of impurities present in the sample. A lower specific heat capacity than the known value may indicate impurities in the metal.
Granite has the highest specific heat capacity among lead, copper, iron, and granite. This means that it requires the most energy to raise the temperature of a given amount of granite compared to the other materials.
The specific heat of water is 4184 J kg-1 K-1 The specific heat of copper 385 J kg-1 K-1. So the answer is no.
A. Water would take the longest to raise its temperature compared to basalt, iron, and lead due to its high specific heat capacity, which means it requires more heat energy to raise its temperature. Basalt, iron, and lead have lower specific heat capacities and would heat up faster.
No, aluminum has a lower specific heat capacity than iron. The specific heat capacity of aluminum is about 0.90 J/g°C, while iron has a specific heat capacity of about 0.45 J/g°C.
The specific heat capacity of iron is 0.45 J/g°C. This can be calculated using the formula: Energy = mass x specific heat capacity x temperature change. Solving for specific heat capacity: 89.5 J = 5.10g x 0.45 J/g°C x (75°C-36°C).
Specific heat is the heat capacity divided by the heat capacity of water, which makes it dimensionless. To obtain molar heat capacity from specific heat for a material of interest, simply multiply the specific heat by the heat capacity of water per gram [1 cal/(g*C)]and multiply by the molecular weight of the substance of interest. For example, to obtain the molar heat capacity of iron Specific heat of iron = 0.15 (note there are no units) Molar heat capacity of iron = 0.15*1 cal/(g*C)*55.85 g /gmole = 8.378 cal/(gmole*C)
Water has a greater specific heat capacity.
Yes, the specific heat capacity of iron can be considered a dependent variable in a scientific experiment, as it is a characteristic that can be influenced or affected by changes in other variables being tested.
Water.
Of those two substances, water has.
Here are a couple of specific heat sample problems for practice: Calculate the amount of heat required to raise the temperature of 50 grams of water from 20C to 40C. The specific heat capacity of water is 4.18 J/gC. A 25 gram piece of iron is heated from 25C to 100C. Calculate the amount of heat absorbed by the iron. The specific heat capacity of iron is 0.45 J/gC. These problems can help you practice applying the concept of specific heat in calculations.
yes
specific heat capacity
The heat capacity of a lead sinker would depend on its specific heat capacity and overall mass. Lead has a specific heat capacity of 0.128 J/g°C, so the heat capacity of a 0.287g lead sinker can be calculated using the formula: Heat capacity = mass x specific heat capacity. In this case, the heat capacity would be 0.287g x 0.128 J/g°C = 0.0367 J/°C.
The change in temperature is 25 degrees Celsius, meaning it takes 22.48 joules per degree of change. The specific heat of iron is 0.449 J/g degree Celsius. This means that the mass of iron must be 50.07 grams