Hmmm.. what is "stokes law graph" ?
If Stokes Force = Fs, r=radius of a tube, v=velocity of a particle
The formula of viscosity is
Fs=6.pi.viscosity.r.v
Then viscosity= Fs/(6.pi.r.v)
since v is propotional to i it is a straight line
Law of cosines
there are 3 laws of arithmetic. These are Associative law, Distributive Law and Cummutative law.
son-in-law
Boyle's law, for selected variables. Not pressure and temperature, for example.Boyle's law, for selected variables. Not pressure and temperature, for example.Boyle's law, for selected variables. Not pressure and temperature, for example.Boyle's law, for selected variables. Not pressure and temperature, for example.
The graph of Stokes' Law for different ball bearings through glycerol is typically a linear relationship between the terminal velocity of the ball bearings and the ball bearings' radius squared. The slope of this graph can be used to determine the viscosity of glycerol by using the formula: viscosity = (2/9) * (density of ball bearing - density of glycerol) * slope. The intercept of the graph is related to the density of the ball bearings.
Einstein's law of viscosity is a mathematical relationship that describes how the viscosity of a fluid depends on its temperature. It states that the viscosity of a fluid is directly proportional to its temperature and the Boltzmann constant. This law helps to explain how the viscosity of a fluid changes as the temperature increases or decreases.
Stokes's law states that the velocity of a small spherical particle falling through a viscous fluid is directly proportional to the force of gravity and the radius of the particle, and inversely proportional to the viscosity of the fluid. The law is commonly used to calculate the drag force on small particles in a fluid.
Stokes' Law, derived by Sir George Stokes in the 19th century, describes the drag force experienced by small particles moving through a fluid. It states that the drag force is directly proportional to the particle's velocity and size, as well as the viscosity of the fluid. This law is important in understanding the motion of small particles in a fluid, such as how they settle or move in response to external forces like gravity or fluid flow.
Suspending agents help lower sedimentation rate of particles in suspension. This works by increasing viscosity of liquid vehicle, and slowing down settling in accordance to Stokes Law.
Posseuilie's law
a graph law graph shows the relationship between pressure and volume
The graph of Boyle's law is Rectangular Hyperbolic.
Yes, the coefficient of viscosity for Mercury can be calculated using Stoke's Law.
There is no 'point on a graph' which represents Ohm's Law. It's the shape of the graph that determines whether Ohm's Law applies.If a graph is drawn showing the resulting variation in current for changes in voltage then, for Ohm's Law to apply, the graph must be a straight line.If the resulting graph is not a straight line, then Ohm's Law doesn't apply.
The fluid flow of viscosity.
McNeill Stokes has written: 'Construction law for owners and builders' -- subject(s): Construction contracts, Construction industry, Law and legislation 'Construction law in contractor's language' -- subject(s): Construction contracts