Viscosity Dynamic Converter
Poise To Gram Per Centimeter Per Second
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Calculations:
Poise to Gram per centimeter per second Conversion Formula:
gram/centimeter/second (g/(cm*s)) = poise (P) × 1
How to Convert poise (P) to gram/centimeter/second (g/(cm*s))?
To get Gram per centimeter per second viscosity dynamic, simply multiply Poise by 1. With the help of this viscosity dynamic converter, we can easily convert Poise to Gram per centimeter per second. Here you are provided with the converter, proper definitions,relations in detail along with the online tool to convert poise (P) to gram/centimeter/second (g/(cm*s)).
How many Gram per centimeter per second in one Poise?
1 poise (P) is 1 gram/centimeter/second (g/(cm*s)).
poise (P) to gram/centimeter/second (g/(cm*s)) converter is the viscosity dynamic converter from one unit to another. It is required to convert the unit of viscosity dynamic from Poise to Gram per centimeter per second, in viscosity dynamic. This is the very basic unit conversion, which you will learn in primary classes. It is one of the most widely used operations in a variety of mathematical applications. In this article, let us discuss how to convert poise (P) to gram/centimeter/second (g/(cm*s)), and the usage of a tool that will help to convert one unit from another unit, and the relation between Poise and Gram per centimeter per second with detailed explanation.
Poise Definition
A poise (P) is a unit of dynamic (absolute) viscosity in the centimeter gram second (CGS) system of units. It is equivalent to dyn•s/cm². If a fluid with a viscosity of 1 poise is placed between two plates, and the top plate is pushed parallel to the bottom plate with a shear stress of one dyn/cm², it moves a distance equal to the thickness of the fluid layer between the plates in one second.
Gram per centimeter per second Definition
A gram per centimeter per second (g/(cm•s)) is a CGS unit of dynamic (absolute) viscosity. It is equivalent to dyn•s/cm². If a fluid with a viscosity of one g/(cm•s) is placed between two plates, and the top plate is pushed parallel to the bottom plate with a shear stress of one dyn/cm², it moves a distance equal to the thickness of the fluid layer between the plates in one second.