In which of the following types of flows is the Bernoulli’s theo...
Bernoulli's principle is applicable on those non-viscous liquids which have laminar flow or streamlined flow.
It means that a liquid in which its particles exert no force on each other, i.e., the speed of all the particles of the liquid is same.
Also, the liquid should travel in the form of streamlines, i.e., the liquid flowing in one pipeline (imaginary pipeline) should not mix in the liquid in another pipeline. This is called streamlined flow.
Also, turbulent flow is the opposite of streamlined flow. So, turbulent liquid will not obey Bernoulli's principle.
But if the liquid is rotated, this streamlined flow will not take place. Thus Bernoulli's principle will not be applicable to this type of liquid.
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In which of the following types of flows is the Bernoulli’s theo...
Bernoulli's principle is applicable on those non-viscous liquids which have laminar flow or streamlined flow.
It means that a liquid in which it's particles exert no force no each other, i.e., the speed of all the particles of the liquid is same.
Also, the liquid should travel in the form of streamlines, i.e., the liquid flowing in one pipeline (imaginary pipeline) should not mix in the liquid in another pipeline. This is called streamlined flow.
Also, turbulent flow is the opposite of streamlined flow. So, turbulent liquid will not obey Bernoulli's principle.
But if the liquid is rotated, this streamlined flow will not take place. Thus Bernoulli's principle will not be applicable to this type of liquid.
In which of the following types of flows is the Bernoulli’s theo...
Bernoulli's principle really like an energy conservation equation if you multiply both sides by the mass flow m (assume is constant) we get 1/2mv2+mgh+mp/d+c the terms all are energy per unit of time first term 1/2mv2 represents traditional Kinetic energy of the fluid but there is no term included for rotational Kinetic energy this equation apply only to invisible fluid because fluid with significant viscosity experience viscous energy loss which are not conserved energy lost due to viscous friction would have to be supplied for example by extra pressure prevent deceleration (m decrease)
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