www.engineeringtoolbox.com/viscosity-converter-d_413.html
Centistokes (cSt) is a unit of kinematic viscosity, which can be calculated by dividing the dynamic viscosity (in millipascal-seconds, mPa·s) by the fluid's density (in grams per cubic centimeter, g/cm³). The formula is: [ \text{Kinematic Viscosity (cSt)} = \frac{\text{Dynamic Viscosity (mPa·s)}}{\text{Density (g/cm³)}} ] To convert from stokes to centistokes, simply multiply by 100, as 1 stoke equals 100 centistokes.
Infinite shear viscosity refers to the viscosity of a fluid measured at very high shear rates, where the flow behavior becomes independent of the rate of shear applied. In this regime, the fluid's resistance to flow stabilizes, allowing for a consistent measurement of its viscosity. This concept is particularly relevant in materials that exhibit non-Newtonian behavior, where viscosity can change based on the shear rate. Infinite shear viscosity is critical in understanding the flow behavior of complex fluids such as polymers and suspensions.
Any fluid is an emaple of viscosity.
The absolute viscosity is 1.2 at 31%
viscometer
centistokes (cSt)
Centistokes (cSt) is a unit of kinematic viscosity, which can be calculated by dividing the dynamic viscosity (in millipascal-seconds, mPa·s) by the fluid's density (in grams per cubic centimeter, g/cm³). The formula is: [ \text{Kinematic Viscosity (cSt)} = \frac{\text{Dynamic Viscosity (mPa·s)}}{\text{Density (g/cm³)}} ] To convert from stokes to centistokes, simply multiply by 100, as 1 stoke equals 100 centistokes.
The kinematic viscosity of water at 74 degrees Fahrenheit is approximately 1.042 centistokes.
The viscosity of liquid glucose at room temperature typically ranges from about 1,500 to 2,500 centistokes (cSt), depending on its concentration and temperature. Higher concentrations of glucose result in increased viscosity. It's important to consult specific data or conduct measurements for precise applications, as viscosity can vary significantly with conditions.
Centipoise divided by specific gravity is equal to centistokes. Centipoise divided by specific gravity is equal to centistokes. Centipoise divided by specific gravity is equal to centistokes. Centipoise divided by specific gravity is equal to centistokes.
There is no direct conversion between Saybolt seconds and centistokes because they measure different properties of fluids (viscosity vs. flow time). Saybolt seconds measure the time it takes for a volume of fluid to flow through a specific orifice, while centistokes measure the dynamic viscosity of a fluid. You would need additional information or testing to convert between the two units.
See link: http://www.engineeringtoolbox.com/water-dynamic-kinematic-viscosity-d_596.html
SAE 10 and ISO 46 are not the same, but they are related. SAE 10 refers to a viscosity grade in the Society of Automotive Engineers (SAE) classification system, typically indicating a viscosity of around 10 centistokes at 100°C. ISO 46, from the International Organization for Standardization, indicates a viscosity of approximately 46 centistokes at 40°C. While both are used to describe oil viscosity, they apply to different temperature ranges and measurement standards.
The viscosity of honey is typically around 2000-10000 centipoises at room temperature, which is much higher than that of water. Honey's viscosity can vary depending on its temperature and moisture content.
To convert kinematic viscosity from mm²/s to centistokes (cSt), you can use the equivalence that 1 mm²/s is equal to 1 cSt. Therefore, a viscosity of 14 mm²/s is equivalent to 14 cSt.
AW40 hydraulic oil is thicker than AW32 hydraulic oil. The numbers in the designations refer to the viscosity of the oil, with a higher number indicating a thicker oil. Specifically, AW32 has a viscosity of approximately 32 centistokes at 40°C, while AW40 has a viscosity of about 40 centistokes at the same temperature. Therefore, AW40 provides better performance in higher temperature applications where thicker oil is needed.
AW32 and AW46 are hydraulic fluids that differ primarily in their viscosity grades, with AW32 having a lower viscosity than AW46. The numerical designation indicates the viscosity at 40°C, with AW32 having a viscosity of approximately 32 centistokes and AW46 about 46 centistokes. This difference in viscosity affects their performance in various operating temperatures and applications, with AW32 typically used in lower temperature environments and AW46 suited for higher temperature and heavier load applications. Additionally, their temperature characteristics can influence equipment efficiency and lubrication effectiveness.