Created
Density of material using Isentropic compressibility

Created
Density using relative size of fluctuations in particle density

Created
Density when thermal pressure coefficient, compressibility factors and Cp are given

Created
Density when thermal pressure coefficient, compressibility factors and Cv are given

Created
Density when volumetric coefficient of thermal expansion, compressibility factors and Cp are given

Created
Density when volumetric coefficient of thermal expansion, compressibility factors and Cv are given

Created
Isentropic compressibility

Created
Isentropic compressibility when Molar Heat Capacity at constant Pressure and Volume are given

Created
Isentropic compressibility when Molar Heat Capacity Ratio is given

Created
Isentropic compressibility when thermal pressure coefficient and Cp is given

Created
Isentropic compressibility when thermal pressure coefficient and Cv is given

Created
Isentropic compressibility when volumetric coefficient of thermal expansion and Cp is given

Created
Isentropic compressibility when volumetric coefficient of thermal expansion and Cv is given

Created
Isothermal compressibility using relative size of fluctuations in particle density

Created
Isothermal compressibility when Molar Heat Capacity at constant Pressure and Volume are given

Created
Isothermal compressibility when Molar Heat Capacity Ratio is given

Created
Isothermal compressibility when thermal pressure coefficient and Cp is given

Created
Isothermal compressibility when thermal pressure coefficient and Cv is given

Created
Isothermal compressibility when volumetric coefficient of thermal expansion and Cp is given

Created
Isothermal compressibility when volumetric coefficient of thermal expansion and Cv is given

Created
Molar Heat Capacity at constant Pressure in terms of Compressibility

Created
Molar Heat Capacity at constant Pressure when thermal pressure coefficient is given

Created
Molar Heat Capacity at constant Pressure when volumetric coefficient of thermal expansion is given

Created
Molar Heat Capacity at constant Volume in terms of Compressibility

Created
Molar Heat Capacity at constant Volume when thermal pressure coefficient is given

Created
Molar Heat Capacity at constant Volume when volumetric coefficient of thermal expansion is given

Created
Ratio Molar Heat Capacity in terms of Compressibility

Created
Relative size of fluctuations in particle density

Created
Speed of sound using Isentropic compressibility

Created
Temperature using relative size of fluctuations in particle density

Created
Temperature when coefficient of thermal expansion, compressibility factors and Cp are given

Created
Temperature when coefficient of thermal expansion, compressibility factors and Cv are given

Created
Temperature when thermal pressure coefficient, compressibility factors and Cp are given

Created
Temperature when thermal pressure coefficient, compressibility factors and Cv are given

Created
Thermal pressure coefficient using compressibility factors and Cp

Created
Thermal pressure coefficient using compressibility factors and Cv

Created
Volume using relative size of fluctuations in particle density

Created
Volumetric coefficient of thermal expansion using compressibility factors and Cp

Created
Volumetric coefficient of thermal expansion using compressibility factors and Cv

Verified
Activity coefficient if the ionic activity is given

Verified
Actual mass if current efficiency is given

Verified
Area of cross-section if Resistance and Resistivity given

Verified
Area of cross-section of electrode if conductance and conductivity given

Verified
Cell potential if change in Gibbs free energy is given

Verified
Cell potential if electrochemical work is given

Verified
Change in Gibbs free energy if cell potential is given

Verified
Change in Gibbs free energy if electrochemical work is given

Verified
Charge number of ion species using Debey-Huckel limiting law

Verified
Conductance if conductivity is given

Verified
Conductivity if conductance is given

Verified
Conductivity if molar volume of solution is given

Verified
Current flowing if mass and equivalent weight of subsatance are given

Verified
Current flowing if mass of subsatance is given

Verified
Debey-Huckel limiting law constant (A)

Verified
Distance between electrode if conductance and conductivity given

Verified
Distance between electrode if resistance and resistivity given

Verified
Electrochemical equivalent if charge and mass of substance is given

Verified
Electrochemical equivalent if current and mass of substance is given

Verified
Electrochemical equivalent if equivalent weight is given

Verified
Entropy if internal energy and Helmholtz free entropy are given

Verified
Equivalent conductance if normality is given

Verified
Equivalent weight if electrochemical equivalent is given

Verified
Equivalent weight if mass and charge are given

Verified
Equivalent weight if mass and current flowing are given

Verified
Equivalent weight of 1st element by Faraday's second law of electrolysis

Verified
Equivalent weight of 2nd element by Faraday's second law of electrolysis

Verified
Excess pressure if the osmotic coefficient if given

Verified
Helmholtz free energy if Helmholtz free entropy and temperature are given

Verified
Helmholtz free entropy

Verified
Helmholtz free entropy if Helmholtz free energy is given

Verified
Ideal pressure if the osmotic coefficient is given

Verified
Internal energy if Helmholtz free entropy and entropy are given

Verified
Ionic activity if molality of a solution is given

Verified
Ionic strength for bi-bivalent electrolyte

Verified
Ionic strength for bi-bivalent electrolyte if molality of cation and anion is same

Verified
Ionic strength for uni-univalent electrolyte

Verified
Ionic strength of bi-trivalent electrolyte

Verified
Ionic strength of bi-trivalent electrolyte if molality of cation and anion are same

Verified
Ionic strength of uni-bivalent electrolyte

Verified
Ionic strength of uni-bivalent electrolyte if molality of cation and anion are same

Verified
Mass of substance undergoing electrolysis if charges and equivalent weight are given

Verified
Mass of substance undergoing electrolysis if charges are given

Verified
Mass of substance undergoing electrolysis if current and equivalent weight are given

Verified
Mass of substance undergoing electrolysis if current and time are given

Verified
Mean activity coefficient for bi-trivalent electrolyte

Verified
Mean activity coefficient for Uni-bivalent electrolyte

Verified
Mean activity coefficient for Uni-trivalent electrolyte

Verified
Mean activity coefficient for Uni-univalent electrolyte

Verified
Mean ionic activity for bi-trivalent electrolyte

Verified
Mean ionic activity for Uni-bivalent electrolyte

Verified
Mean ionic activity for Uni-trivalent electrolyte

Verified
Mean ionic activity for Uni-univalent electrolyte

Verified
Molality if ionic activity and activity coefficient are given

Verified
Molality of bi-trivalent electrolyte if ionic strength is given

Verified
Molality of bi-trivalent electrolyte if mean ionic activity is given

Verified
Molality of uni-bivalent electrolyte if mean ionic activity is given

Verified
Molality of uni-trivalent electrolyte if mean ionic activity is given

Verified
Molality of uni-univalent electrolyte if mean ionic activity is given

Verified
Molar conductivity if conductivity and volume given

Verified
Molar Volume of solution if molar conductivity given

Verified
Molarity of bi-bivalent electrolyte if ionic strength is given

Verified
Molarity of solution if molar conductivity given

Verified
Molarity of uni-bivalent electrolyte if ionic strength is given

Verified
Moles of electron transferred if change in Gibbs free energy is given

Verified
Moles of electron transferred if electrochemical work is given

Verified
Moles of electron transferred if Standard change in Gibbs free energy is given

Verified
Normality if equivalent conductance is given

Verified
Osmotic coefficient if ideal and excess pressure is given

Verified
Quantity of charges if equivalent weight and mass of substance are given

Verified
Quantity of charges if mass of substance is given

Verified
Resistance if conductance is given

Verified
Resistance if distance between electrode and area of cross-section of electrode is given

Verified
Resistivity if specific conductance is given

Verified
Specific conductance if molarity is given

Verified
Specific conductivity if equivalent conductivity and normality of solution is given

Verified
Standard Cell potential if change in Standard change in Gibbs free energy is given

Verified
Standard change in Gibbs free energy if standard cell potential is given

Verified
Temperature if internal energy and Helmholtz free entropy are given

Verified
Theoretical mass if current efficiency and actual mass is given

Verified
Time required for flowing of charge if mass and time are given

Verified
Time required for flowing of current if mass and equivalent weight are given

Verified
Weight of 1st ion by Faraday's second law of electrolysis

Verified
Weight of 2nd ion by Faraday's second law of electrolysis

Verified
Work done by the electrochemical cell if cell potential is given

46 More Electrochemistry Calculators

Created
Atomicity using Average thermal energy of linear polyatomic gas molecule

Created
Atomicity using Average thermal energy of non-linear polyatomic gas molecule

Created
Atomicity using Internal Molar Energy of Linear Molecule

Created
Atomicity using Internal Molar Energy of Non-Linear Molecule

Created
Atomicity using Molar Heat Capacity at constant Pressure and Volume of Linear Molecule

Created
Atomicity using Molar Heat Capacity at constant Pressure and Volume of Non-Linear Molecule

Created
Atomicity using Molar Vibrational Energy of Linear Molecule

Created
Atomicity using Molar Vibrational Energy of Non-Linear Molecule

Created
Atomicity using Number of modes in Linear Molecule

Created
Atomicity using Number of modes in Non-Linear Molecule

Created
Atomicity using Ratio of Molar Heat Capacity of Linear Molecule

Created
Atomicity using Ratio of Molar Heat Capacity of Non-Linear Molecule

Created
Atomicity using Vibrational Degree of Freedom in Linear Molecule

Created
Atomicity using Vibrational Degree of Freedom in Non-Linear Molecule

Created
Atomicity using Vibrational Energy of Linear Molecule

Created
Atomicity using Vibrational Energy of Non-Linear Molecule

Created
Atomicity using Vibrational Mode of Linear Molecule

Created
Atomicity using Vibrational Mode of Non-Linear Molecule

Created
Atomicity when Molar Heat Capacity at constant pressure of Linear Molecule is given

Created
Atomicity when Molar Heat Capacity at constant pressure of Non-Linear Molecule is given

Created
Atomicity when Molar Heat Capacity at constant volume of Linear Molecule is given

Created
Atomicity when Molar Heat Capacity at constant volume of Non-Linear Molecule is given

Created
Average thermal energy of linear polyatomic gas molecule

Created
Average thermal energy of linear polyatomic gas molecule in terms of atomicity only

Created
Average thermal energy of non-linear polyatomic gas molecule

Created
Average thermal energy of non-linear polyatomic gas molecule in terms of atomicity only

Created
Degree of Freedom in Linear Molecule

Created
Degree of Freedom in Non-Linear Molecule

Created
Degree of Freedom in terms of Molar Heat Capacity at constant pressure only

Created
Degree of Freedom in terms of Molar Heat Capacity at constant volume and pressure

Created
Degree of Freedom in terms of Molar Heat Capacity at constant volume only

Created
Degree of Freedom when Ratio of Molar Heat Capacity is given

Created
Heat Capacity when Specific Heat Capacity is given

Created
Internal Molar Energy of Linear Molecule

Created
Internal Molar Energy of Linear Molecule in terms of atomicity only

Created
Internal Molar Energy of Non-Linear Molecule

Created
Internal Molar Energy of Non-Linear Molecule in terms of atomicity only

Created
Molar Heat Capacity at constant pressure of Linear Molecule

Created
Molar Heat Capacity at constant pressure of Non-Linear Molecule

Created
Molar Heat Capacity at constant pressure when only Degree of Freedom is given

Created
Molar Heat Capacity at constant volume of Linear Molecule

Created
Molar Heat Capacity at constant volume of Non-Linear Molecule

Created
Molar Heat Capacity at constant volume when only Degree of Freedom is given

Created
Molar Vibrational Energy of Linear Molecule

Created
Molar Vibrational Energy of Non-Linear Molecule

Created
Number of modes in Linear Molecule

Created
Number of modes in Non-Linear Molecule

Created
Ratio of Molar Heat Capacity

Created
Ratio of Molar Heat Capacity Heat Capacity in terms of Molar Heat Capacity at constant pressure only

Created
Ratio of Molar Heat Capacity in terms of Molar Heat Capacity at constant volume only

Created
Ratio of Molar Heat Capacity of Linear Molecule

Created
Ratio of Molar Heat Capacity of Non-Linear Molecule

Created
Ratio of Molar Heat Capacity when Degree of Freedom is given

Created
Rotational Energy of Linear Molecule

Created
Rotational Energy of Non-Linear Molecule

Created
Specific Heat Capacity

Created
Specific Heat Capacity when Heat Capacity is given

Created
Temperature using Average thermal energy of linear polyatomic gas molecule

Created
Temperature using Average thermal energy of non-linear polyatomic gas molecule

Created
Temperature using Internal Molar Energy of Linear Molecule

Created
Temperature using Internal Molar Energy of Non-Linear Molecule

Created
Temperature using Molar Vibrational Energy of Linear Molecule

Created
Temperature using Molar Vibrational Energy of Non-Linear Molecule

Created
Temperature using Vibrational Energy of Linear Molecule

Created
Temperature using Vibrational Energy of Non-Linear Molecule

Created
Total Kinetic Energy

Created
Translational Energy

Created
Vibrational energy modeled as harmonic oscillator

Created
Vibrational Energy of Linear Molecule

Created
Vibrational Energy of Non-Linear Molecule

Created
Vibrational Mode of Linear Molecule

Created
Vibrational Mode of Non-Linear Molecule

2 More Equipartition Principle and Heat Capacity Calculators

Created
Average velocity of gas if pressure and density is given in 2D

Created
Average velocity of gas if root mean square speed is given in 2D

Created
Average velocity of gas if the pressure and volume is given in 2D

Created
Average velocity of gas if the temperature is given in 2D

Verified
Boyle temperature if Inversion temperature is given

Verified
Boyle temperature if Vander Waal constants are given

Verified
Critical temperature if inversion temperature is given

Created
Density of gas if average velocity and pressure given in 2D

Created
Density of gas if most probable speed pressure given in 2D

Created
Density of gas if root mean square speed and pressure given in 1D

Created
Density of gas if root mean square speed and pressure given in 2D

Verified
Inversion temperature if Boyle temperature is given

Verified
Inversion temperature if the critical temperature is given

Verified
Inversion temperature if Vander Waal constants are given

Verified
Inversion temperature if Vander Waals constants and Boltzmann constant is given

Verified
Kinetic energy of one gas molecule in the term of Boltzmann constant

Created
Mass of each gas molecule in 2D box if pressure is given

Created
Mean square speed of gas molecule if pressure and volume of gas is given in 1D

Created
Mean square speed of gas molecule if pressure and volume of gas is given in 2D

Created
Molar mass if most probable speed and temperature given in 2D

Created
Molar mass of gas if average velocity, pressure, and volume given in 2D

Created
Molar mass of gas if most probable speed, pressure and volume given in 2D

Created
Molar mass of gas if root mean square speed and pressure given in 1D

Created
Molar mass of gas if root mean square speed and pressure given in 2D

Created
Molar mass of gas if root mean square speed and temperature given in 1D

Created
Molar mass of gas if root mean square speed and temperature given in 2D

Created
Molar mass of the gas if temperature and average velocity is given in 2D

Created
Most probable velocity of gas if pressure and density is given in 2D

Created
Most probable velocity of gas if pressure and volume given in 2D

Created
Most probable velocity of gas if RMS velocity given in 2D

Created
Most probable velocity of gas if temperature is given in 2D

Created
Number of gas molecules in 2D box if pressure is given

Created
Pressure of gas if average velocity and density given in 2D

Created
Pressure of gas if average velocity and volume given in 2D

Created
Pressure of gas if most probable speed and density given in 2D

Created
Pressure of gas if most probable speed and volume given in 2D

Created
Pressure of gas if root mean square speed and density given in 1D

Created
Pressure of gas if root mean square speed and density given in 2D

Created
Pressure of gas if root mean square speed and Volume given in 1D

Created
Pressure of gas if root mean square speed and Volume given in 2D

Created
Pressure of gas molecules in 1D box

Created
Pressure of gas molecules in 2D box

Created
RMS velocity if most probable velocity given in 2D

Created
RMS velocity in terms of pressure and density in 1D

Created
RMS velocity in terms of pressure and density in 2D

Created
RMS velocity in terms of pressure and volume of gas in 1D

Created
RMS velocity in terms of pressure and volume of gas in 2D

Created
RMS velocity in terms of temperature and molar mass in 1D

Created
RMS velocity in terms of temperature and molar mass in 2D

Created
Root mean square speed if average velocity is given in 2D

Created
Temperature if most probable speed and molar mass given in 2D

Created
Temperature of gas if average velocity is given in 2D

Created
Temperature of gas if root mean square speed and molar mass given in 1D

Created
Temperature of gas if root mean square speed and molar mass given in 2D

Verified
Temperature of one gas molecule in terms of Boltzmann constant

Verified
Vander Waal constant a if Boyle temperature is given

Verified
Vander Waal constant a if inversion temperature is given

Verified
Vander Waal constant b if Boyle temperature is given

Verified
Vander Waal constant b if Inversion temperature and Boltzmann constant is given

Verified
Vander Waal constant b if inversion temperature is given

Verified
Vander Waals constant a if Inversion temperature and Boltzmann constant is given

Created
Volume of gas if average velocity and pressure given in 2D

Created
Volume of gas if average velocity and pressure given in 2D

Created
Volume of gas if most probable speed and pressure given in 2D

Created
Volume of gas if root mean square speed and Pressure given in 1D

Created
Volume of gas if root mean square speed and Pressure given in 2D

78 More kinetic theory of gases Calculators

Created
Born exponent using Born–Landé equation

Created
Born exponent using Born–Landé equation when Madelung constant is not given

Created
Born exponent using Repulsive Interaction

Created
Constant depending on compressibility using Born–Mayer equation

Created
Distance of closest approach using Born–Landé equation

Created
Distance of closest approach using Born–Landé equation when Madelung constant is not given

Created
Distance of closest approach using Electrostatic potential

Created
Distance of closest approach using Madelung Energy

Created
Electrostatic potential energy between a pair of ions

Created
Lattice Energy using Born–Landé equation

Created
Lattice Energy using Born–Landé equation using Kapustinskii approximation

Created
Lattice Energy using Born–Mayer equation

Created
Lattice Energy using Kapustinskii equation

Created
Lattice Energy using Lattice Enthalpy

Created
Lattice Energy using Original Kapustinskii equation

Created
Lattice Enthalpy using Lattice Energy

Created
Madelung constant using Born–Landé equation

Created
Madelung constant using Born–Mayer equation

Created
Madelung constant using Kapustinskii approximation

Created
Madelung constant using Madelung Energy

Created
Madelung constant using Total Energy of an ion

Created
Madelung constant using Total Energy of an ion when Repulsive Interaction is given

Created
Madelung constant when Repulsive Interaction Constant is given

Created
Madelung Energy using Total Energy of an ion

Created
Madelung Energy using Total Energy of an ion in terms of distance

Created
Minimum Potential Energy of an ion

Created
No. of ions using Kapustinskii approximation

Created
No. of ions using Kapustinskii approximation

Created
Outer pressure of lattice

Created
Repulsive Interaction

Created
Repulsive Interaction Constant

Created
Repulsive Interaction Constant using Total Energy of an ion

Created
Repulsive Interaction Constant using Total Energy of an ion when Madelung Energy is given

Created
Repulsive Interaction Constant when Madelung constant is given

Created
Repulsive Interaction using Total Energy of an ion

Created
Repulsive Interaction using Total Energy of an ion in terms of charges and distances

Created
Total Energy of an ion in terms of charges and distances

Created
Total Energy of an ion in the lattice

Created
Volume change of lattice

Verified
Adjusted retention time if retention time is given

Verified
Average width of peak id resolution and change in retention volume is given

Verified
Average width of peak if resolution and change in retention time is given

Verified
Capacity factor if partition coefficient and volume of mobile and stationary phase given

Verified
Capacity factor if retention volume and unretained volume is given

Verified
Capacity factor of solute 1 if relative retention is given

Verified
Capacity factor of solute 2 if relative retention is given

Verified
Change in retention time if half of average width of peaks are given

Verified
Change in retention time if resolution and average width of peak is given

Verified
Change in retention volume if resolution and average width of peak is given

Verified
Flow rate if retention volume and time given

Verified
Half of average width of peaks if resolution and change in retention volume is given

Verified
Half-width of peak if number of theoretical plates and retention time is given

Verified
Length of the column if standard deviation and plate height are given

Verified
Number of theoretical plate if resolution and separation factor is given.

Verified
Number of theoretical plates if retention time and half-width of peak is given

Verified
Number of theoretical plates if retention time and standard deviation is given

Verified
Number of theoretical plates if retention time and width of peak is given

Verified
Partition coefficient of solute 1 if relative retention is given

Verified
Partition coefficient of solute 2 if relative retention is given

Verified
Plate height if standard deviation and length of column is given

Verified
Relative retention if capacity factor of two components are given

Verified
Relative retention if partition coefficient of two-component is given

Verified
Resolution if number of theoretical plate and speration factor is given

Verified
Resolution of two peaks if half of average width of peaks are is given

Verified
Resolution of two peaks if the change in retention time is given

Verified
Resolution of two peaks if the change in retention volume is given

Verified
Retention time if adjusted retention time is given

Verified
Retention time if number of theoretical plate and half-width of peak is given

Verified
Retention time if number of theoretical plate and satndard deviation is given

Verified
Retention time if number of theoretical plates and width of peak is given

Verified
Retention time if retention volume is given

Verified
Retention volume if capacity factor is given

Verified
Retention volume if the flow rate is given

Verified
Separation factor if resolution and number of theoretical plates are given

Verified
Standard deviation if plate height and length of the column are given

Verified
Standard deviation if retention time and number of theoretical plates is given

Verified
Time taken by mobile phase travels through the column

Verified
Unretained volume if capacity factor is given

Verified
Volume of mobile phase if capacity factor and partition coefficient is given

Verified
Volume of stationary phase if capacity factor and partition coefficient is given

Verified
Width of peak if number of theoretical plate and retention time is given

40 More Method of separation technique Calculators

Created
Actual Molar Volume using Redlich–Kwong equation in terms of a and b

Created
Actual of Molar Volume real gas using Reduced Redlich–Kwong equation

Created
Actual Pressure of real gas using Redlich–Kwong equation in terms of a only

Created
Actual Pressure of real gas using Redlich–Kwong equation in terms of b only

Created
Actual Pressure of real gas using Reduced Redlich–Kwong equation

Created
Actual Pressure using Redlich–Kwong equation in terms of a and b

Created
Actual Temperature of real gas using Redlich–Kwong equation in terms of a only

Created
Actual Temperature of real gas using Redlich–Kwong equation in terms of b only

Created
Actual Temperature of real gas using Reduced Redlich–Kwong equation

Created
Actual Temperature using Redlich–Kwong equation in terms of a and b

Created
Critical Molar Volume of real gas using Redlich–Kwong equation in terms of a and b

Created
Critical Molar Volume of real gas using Redlich–Kwong equation in terms of a only

Created
Critical Molar Volume of real gas using Redlich–Kwong equation in terms of b only

Created
Critical Molar Volume of real gas using Reduced Redlich–Kwong equation

Created
Critical Pressure of real gas using Redlich–Kwong equation in terms of a and b

Created
Critical Pressure of real gas using Redlich–Kwong equation in terms of a only

Created
Critical Pressure of real gas using Redlich–Kwong equation in terms of b only

Created
Critical Pressure of real gas using Reduced Redlich–Kwong equation

Created
Critical Temperature of real gas using Redlich–Kwong equation in terms of a and b

Created
Critical Temperature of real gas using Redlich–Kwong equation in terms of a only

Created
Critical Temperature of real gas using Redlich–Kwong equation in terms of b only

Created
Critical Temperature of real gas using Reduced Redlich–Kwong equation

Created
Molar Volume of real gas using Redlich–Kwong equation

Created
Pressure of real gas using Redlich–Kwong equation

Created
Redlich–Kwong parameter 'a' at critical point

Created
Redlich–Kwong parameter 'a' in terms of Pressure, Temperature and Molar Volume of real gas

Created
Redlich–Kwong parameter 'a' in terms of Reduced and actual pressure

Created
Redlich–Kwong parameter 'b' at critical point

Created
Redlich–Kwong parameter 'b' in terms of Pressure, Temperature and Molar Volume of real gas

Created
Redlich–Kwong parameter 'b' in terms of reduced and actual pressure

Created
Reduced Molar Volume of real gas using Reduced Redlich–Kwong equation

Created
Reduced Molar Volume using Redlich–Kwong equation in terms of a and b

Created
Reduced Pressure of real gas using Redlich–Kwong equation in terms of a only

Created
Reduced Pressure of real gas using Redlich–Kwong equation in terms of b only

Created
Reduced Pressure of real gas using Reduced Redlich–Kwong equation

Created
Reduced Pressure using Redlich–Kwong equation in terms of a and b

Created
Reduced Temperature of real gas using Redlich–Kwong equation in terms of a only

Created
Reduced Temperature of real gas using Redlich–Kwong equation in terms of b only

Created
Reduced Temperature of real gas using Reduced Redlich–Kwong equation

Created
Reduced Temperature using Redlich–Kwong equation in terms of a and b

Created
Temperature of real gas using Redlich–Kwong equation