Specific Heat Capacity in Thermodynamics Solution

STEP 0: Pre-Calculation Summary
Formula Used
Specific Heat Capacity in Thermodynamics = Change in Heat Energy/Mass of the Substance
SQ = Qd/Ms
This formula uses 3 Variables
Variables Used
Specific Heat Capacity in Thermodynamics - (Measured in Joule per Kilogram per K) - The Specific Heat Capacity in Thermodynamics formula is defined as heat capacity per unit mass of a substance.
Change in Heat Energy - (Measured in Joule) - Change in Heat Energy is the sum of all these heat energies is the total energy the substance gains or loses.
Mass of the Substance - (Measured in Kilogram) - Mass of the Substance is the relative mass of its molecule as compared to the mass of the Carbon-12 atom taken as 12-units.
STEP 1: Convert Input(s) to Base Unit
Change in Heat Energy: 50 Joule --> 50 Joule No Conversion Required
Mass of the Substance: 5 Kilogram --> 5 Kilogram No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
SQ = Qd/Ms --> 50/5
Evaluating ... ...
SQ = 10
STEP 3: Convert Result to Output's Unit
10 Joule per Kilogram per K --> No Conversion Required
FINAL ANSWER
10 Joule per Kilogram per K <-- Specific Heat Capacity in Thermodynamics
(Calculation completed in 00.004 seconds)

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25 First Order Thermodynamics Calculators

Isothermal Compression
​ Go Work Done in Isothermal Compression = -Number of Moles given KE*8.314*Low Temperature*ln(Volume Initially/Volume finally)
Isothermal Expansion
​ Go Work Done in Isothermal Expansion = -Number of Moles given KE*8.314*High Temperature*ln(Volume finally/Volume Initially)
Work Done by System in Isothermal Process
​ Go Work Done by the System = -Number of Moles given KE*8.314*Temperature given RP*ln(Volume finally/Volume Initially)
Adiabatic Compression
​ Go Work Done by the System = 8.314*(Low Temperature-High Temperature)/(Adiabatic Coefficient-1)
Adiabatic Expansion
​ Go Work Done by the System = 8.314*(High Temperature-Low Temperature)/(Adiabatic Coefficient-1)
Coefficient of Performance of Refrigerator given Energy
​ Go Coefficient of Performance of Refrigerator = Sink Energy/(System Energy-Sink Energy)
Coefficient of Performance for Refrigeration
​ Go Coefficient of Performance = Low Temperature/(High Temperature-Low Temperature)
Change in Internal Energy given Cv
​ Go Change in Internal Energy of the System = Heat Capacity at Constant Volume*Change in Temperature
Change in Enthalpy given Cp
​ Go Change in Enthalpy in the System = Heat Capacity at Constant Pressure*Change in Temperature
Specific Heat Capacity in Thermodynamics
​ Go Specific Heat Capacity in Thermodynamics = Change in Heat Energy/Mass of the Substance
Internal Energy using Equipartition Energy
​ Go Internal Energy using Equipartition Energy = 1/2*[BoltZ]*Temperature of Gas
Heat Energy given Internal Energy
​ Go Change in Heat Energy = Internal Energy of the System+(Work Done given IE)
Internal Energy of System
​ Go Internal Energy of the System = Change in Heat Energy-(Work Done given IE)
Heat Capacity in Thermodynamics
​ Go Heat Capacity of the System = Change in Heat Energy/Change in Temperature
Heat Energy given Heat Capacity
​ Go Change in Heat Energy = Heat Capacity of the System*Change in Temperature
Work Done given Internal Energy
​ Go Work Done given IE = Change in Heat Energy-Internal Energy of the System
Internal Energy of Triatomic Non Linear System
​ Go Internal Energy of Polyatomic Gases = 6/2*[BoltZ]*Temperature given U
Internal Energy of Triatomic Linear System
​ Go Internal Energy of Polyatomic Gases = 7/2*[BoltZ]*Temperature given U
Internal Energy of Monoatomic System
​ Go Internal Energy of Polyatomic Gases = 3/2*[BoltZ]*Temperature given U
Internal Energy of Diatomic System
​ Go Internal Energy of Polyatomic Gases = 5/2*[BoltZ]*Temperature given U
Efficiency of Carnot Engine
​ Go Efficiency of Carnot Engine = 1-(Low Temperature/High Temperature)
Work Done by System in Adiabatic Process
​ Go Work Done by the System = External Pressure*Small Volume Change
Efficiency of Carnot Engine given Energy
​ Go Efficiency of Carnot Engine = 1-(Sink Energy/System Energy)
Work Done in Irreversible Process
​ Go Irreversible Work Done = -External Pressure*Volume change
Efficiency of Heat Engine
​ Go Efficiency of Heat Engine = (Heat Input/Heat Output)*100

Specific Heat Capacity in Thermodynamics Formula

Specific Heat Capacity in Thermodynamics = Change in Heat Energy/Mass of the Substance
SQ = Qd/Ms

What is Specific Heat?

We can explain the reason for the high specific heat of water due to the hydrogen bonds. In order to increase the temperature of the water with the multitude of joined hydrogen bonds, the molecules have to vibrate. Due to the presence of so many hydrogen bonds, a larger amount of energy is required to make the water molecules break by vibrating them.
Similarly, for hot water to cool down, it takes a bit of time. As heat is dissipated, temperature decreases and the vibrational movement of water molecules slow down. The heat that is given off counteracts the cooling effect of the loss of heat from the liquid water.

How to Calculate Specific Heat Capacity in Thermodynamics?

Specific Heat Capacity in Thermodynamics calculator uses Specific Heat Capacity in Thermodynamics = Change in Heat Energy/Mass of the Substance to calculate the Specific Heat Capacity in Thermodynamics, The Specific Heat Capacity in Thermodynamics formula is defined as heat capacity per unit mass of a substance. In other words, it is the heat capacity of a sample of the substance divided by the mass of the sample, also sometimes referred to as mass heat capacity or as the specific heat. Specific Heat Capacity in Thermodynamics is denoted by SQ symbol.

How to calculate Specific Heat Capacity in Thermodynamics using this online calculator? To use this online calculator for Specific Heat Capacity in Thermodynamics, enter Change in Heat Energy (Qd) & Mass of the Substance (Ms) and hit the calculate button. Here is how the Specific Heat Capacity in Thermodynamics calculation can be explained with given input values -> 10 = 50/5.

FAQ

What is Specific Heat Capacity in Thermodynamics?
The Specific Heat Capacity in Thermodynamics formula is defined as heat capacity per unit mass of a substance. In other words, it is the heat capacity of a sample of the substance divided by the mass of the sample, also sometimes referred to as mass heat capacity or as the specific heat and is represented as SQ = Qd/Ms or Specific Heat Capacity in Thermodynamics = Change in Heat Energy/Mass of the Substance. Change in Heat Energy is the sum of all these heat energies is the total energy the substance gains or loses & Mass of the Substance is the relative mass of its molecule as compared to the mass of the Carbon-12 atom taken as 12-units.
How to calculate Specific Heat Capacity in Thermodynamics?
The Specific Heat Capacity in Thermodynamics formula is defined as heat capacity per unit mass of a substance. In other words, it is the heat capacity of a sample of the substance divided by the mass of the sample, also sometimes referred to as mass heat capacity or as the specific heat is calculated using Specific Heat Capacity in Thermodynamics = Change in Heat Energy/Mass of the Substance. To calculate Specific Heat Capacity in Thermodynamics, you need Change in Heat Energy (Qd) & Mass of the Substance (Ms). With our tool, you need to enter the respective value for Change in Heat Energy & Mass of the Substance and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.
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