Kilomole per Day to Mole per Second Conversion

Convert between Kilomole per Day and Mole per Second quickly and accurately.

From Kilomole per Day

kmol/d

To Mole per Second

mol/s

How to Convert Kilomole per Day to Mole per Second

Conversion Formula

1 kmol/d = 0.012 mol/s

1 mol/s = 86.4 kmol/d

Example

Convert 15 kmol/d to mol/s:

15 kmol/d = 15 × 0.012 mol/s = 0.174 mol/s

Unit Information

Learn about the flow - molar units you're converting between

Kilomole per Day

kmol/d

Definition

The kilomole per day (kmol/d) is a unit of molar flow rate equal to 0.0115740741 mole per second. It represents large molar flow rates, commonly used in industrial processes, chemical engineering, and process engineering where large daily molar flows are measured.

History/Origin

Developed for industrial applications and chemical engineering where large daily molar flow rates provide better operational context, this unit became standard in process engineering and industrial applications. It offers a practical measure for large-scale molar flows in industrial contexts.

Current Use

Used in industrial processes, chemical engineering, process engineering, and manufacturing where large daily molar flow rates are measured. It helps in process analysis and industrial process monitoring.

Multiplier

0.012

Offset

Mole per Second

mol/s

Definition

The mole per second (mol/s) is the SI unit of molar flow rate, representing the number of moles of substance passing through a given area per unit time. It quantifies the rate of molar transfer in chemical processes, making it essential for reaction kinetics, process engineering, and chemical analysis applications.

History/Origin

Derived from the fundamental relationship between the mole (SI base unit for amount of substance) and time, this unit became standardized with the adoption of the International System of Units. It provides a consistent measure for molar flow rate across different chemical systems, enabling accurate process design and analysis.

Current Use

Widely used in chemical engineering, process engineering, reaction kinetics, and analytical chemistry for quantifying molar flow rates. It is essential for designing chemical reactors, analyzing reaction rates, and optimizing industrial processes involving molar transfer.

Multiplier

Offset