Mole Flow Rate Conversion Calculator

Value:

From Unit:

To Unit:

1. What is the Mole Flow Rate Unit Converter?

Definition: This converter transforms mole flow rate values between various units. Mole flow rate measures the amount of substance (in moles) passing through a point per unit time, typically in moles per second (mol/s).

Purpose: Useful in chemistry, chemical engineering, and process industries for converting mole flow rate units in applications like reaction kinetics, stoichiometry, and flow processes.

2. How Does the Converter Work?

The converter uses conversion factors relative to the base unit examol/second [Emol/s]:

Input value is converted to Emol/s by dividing by the "From" unit's factor.
The result is converted to the "To" unit by multiplying by the "To" unit's factor.

Supported units:

mol/second [mol/s] (Factor: 1000000000000000000.00000)
examol/second [Emol/s] (Factor: 1.00000)
petamol/second [Pmol/s] (Factor: 1000.00000)
teramol/second [Tmol/s] (Factor: 1000000.00000)
gigamol/second [Gmol/s] (Factor: 1000000000.00000)
megamol/second [Mmol/s] (Factor: 1000000000000.00000)
kilomol/second [kmol/s] (Factor: 1000000000000000.00000)
hectomol/second [hmol/s] (Factor: 10000000000000000.00000)
dekamol/second [damol/s] (Factor: 100000000000000000.00000)
decimol/second [dmol/s] (Factor: 10000000000000000000.00000)
centimol/second [cmol/s] (Factor: 100000000000000000000.00000)
millimol/second [mmol/s] (Factor: 1000000000000000000000.00000)
micromol/second [umol/s] (Factor: 999999999999999983222784.00000)
nanomol/second [nmol/s] (Factor: 1000000000000000013287555072.00000)
picomol/second [pmol/s] (Factor: 1000000000000000019884624838656.00000)
femtomol/second [fmol/s] (Factor: 999999999999999945575230987042816.00000)
attomol/second [amol/s] (Factor: 1000000000000000042420637374017961984.00000)
mol/minute [mol/min] (Factor: 60000000000000000000.00000)
mol/hour [mol/h] (Factor: 3600000000000000000000.00000)
mol/day [mol/d] (Factor: 86400000000000000000000.00000)
millimol/minute [mmol/min] (Factor: 60000000000000000000000.00000)
millimol/hour [mmol/h] (Factor: 3599999999999999832227840.00000)
millimol/day [mmol/d] (Factor: 86400000000000000268435456.00000)
kilomol/minute [kmol/min] (Factor: 60000000000000000.00000)
kilomol/hour [kmol/h] (Factor: 3600000000000000000.00000)
kilomol/day [kmol/d] (Factor: 86400000000000000000.00000)

Steps:

Enter the value to convert.
Select the "From" unit (the unit of the input value).
Select the "To" unit (the desired output unit).
Submit to perform the conversion.
Results are formatted to 5 decimal places, with scientific notation for values less than 0.001.

3. Importance of Mole Flow Rate Conversion

Mole flow rate conversion is critical for:

Chemistry: Calculating reaction rates and balances in chemical reactions.
Chemical Engineering: Designing reactors, pipelines, and process flows.
Environmental Science: Monitoring gas emissions and pollutant flows in molar terms.

4. Using the Converter

Example 1: Convert 1 examol/second to mol/second:

Input: 1 Emol/s
From Unit: examol/second (factor: 1)
To Unit: mol/second (factor: 1.0E+18)
Calculation: \( 1 / 1 \times 1.0E+18 = 1.0E+18 \)

Result: 1.0000e+18 mol/second

Example 2: Convert 1 attomol/second to mol/second:

Input: 1 attomol/second
From Unit: attomol/second (factor: 1.0E+36)
To Unit: mol/second (factor: 1.0E+18)
Calculation: \( 1 / 1.0E+36 \times 1.0E+18 = 1.0E-18 \)

Result: 1.0000e-18 mol/second

5. Frequently Asked Questions (FAQ)

Q: What is mole flow rate?
A: Mole flow rate is the rate at which a substance (measured in moles) passes through a given surface, typically in moles per second (mol/s).

Q: Why are there different units for mole flow rate?
A: Different scales in chemistry and engineering require units from attomoles to examoles and time periods from seconds to days for precision.

Q: How are moles and kilomoles related?
A: One kilomole is equal to 1000 moles.

Q: Can this converter be used for all mole flow rate scenarios?
A: Yes, it converts units of mole flow rate, applicable to any scenario involving substance transfer in moles over time.