Poiseuille Equation can only be applied to laminar flow.
Complex equations and their graphs are used to visualize electrical and fluid flow in the real world. For instance, the equation z+1/z can show the flow of water around a circular piling. The equation (z-1)/(z+1) and the graph can show the electrical force fields around two parallel wires carrying current.
Use Mannings Equation: Q=(1.486/n)*(A)*(R)^(2/3)*S^(1/2) Q = Flow (CFS) n = Roughness Coefficient A = Cross sectional flow Area of Fluid (FT*FT) R = Hydraulic Radius (FT) S = Slope (FT/FT)
Shear flow is the flow induced by a force gradient (for a fluid). For solids, it is the gradient of shear stress forces throughout the body.
The answer depends on the nature of the equation. Mathematicians are still not able to solve the Navier-Stokes equations, for example. In fact there is a million dollar (US) prize if you can figure out a general solution. The equations are not simply mathematical contrivances to create a challenge: they deal with fluid flow and are used for studying the flow of liquids inside a pipe, or air-flow over a plane's wings and so on.
The continuity equation states that the mass flow rate is constant in an incompressible fluid, while Bernoulli's equation relates the pressure, velocity, and elevation of a fluid in steady flow. Together, they help describe the relationship between fluid velocity, pressure, and flow rate in a system. The continuity equation can be used to derive Bernoulli's equation for incompressible fluids.
The continuity equation states that in a steady flow, the mass entering a system must equal the mass leaving the system. It expresses the principle of conservation of mass and is used to analyze fluid flow in various engineering applications. The equation is often written in the form of mass flow rate or velocity profile to describe how fluid moves through a system.
The continuity equation in fluid dynamics states that the total mass entering a system must equal the total mass leaving the system, accounting for any accumulation within the system. This equation describes the conservation of mass for a fluid flow, showing how the flow velocity and cross-sectional area of the fluid affect the mass flow rate.
The Laplace equation is used commonly in two situations. It is used to find fluid flow and in calculating electrostatics.
Daniel Bernoulli, a Swiss mathematician and physicist, formulated Bernoulli's equation in his book "Hydrodynamica" in 1738. The equation describes the conservation of energy in a fluid flow system and has applications in fluid dynamics and aerodynamics.
The assumptions underlying Bernoulli's energy equation include steady flow, incompressible fluid, along a streamline, negligible viscous effects, and no shaft work being done on or by the fluid. It also assumes that the fluid is flowing without any heat transfer and that the flow is continuous and inviscid.
As the radius of the flow tube increases, the fluid flow rate increases proportionally. This is described by the Hagen–Poiseuille equation, which states that flow rate is directly proportional to the fourth power of the tube radius. Increasing the radius reduces the resistance to flow, allowing more fluid to pass through per unit of time.
The equation for turbulent flow is described by the Navier-Stokes equations, which are a set of partial differential equations that describe how the velocity field of a fluid evolves over time. These equations take into account the fluid's viscosity, density, and the forces acting upon it. Turbulent flow is a complex, chaotic motion characterized by irregular fluctuations in velocity and pressure within the fluid.
The Poiseuille equation is derived from the Navier-Stokes equation for incompressible fluid flow in a cylindrical pipe, assuming laminar flow and steady state conditions. By applying assumptions of no-slip boundary conditions and conservation of mass and momentum, the equation simplifies to describe the flow rate in terms of viscosity, pressure gradient, and geometry of the pipe.
The Euler turbine equation is a mathematical equation used in fluid dynamics to describe the flow of an ideal fluid in a turbine. It is derived from the principles of conservation of mass, momentum, and energy. The equation helps to analyze the performance and efficiency of turbines by relating the fluid velocity, pressure, and geometry of the turbine blades.
The equation of continuity represents the principle of conservation of mass in fluid dynamics. It ensures that the mass flow rate into and out of a control volume remains constant. In practical terms, it helps in analyzing fluid flow behavior and designing systems like pipelines and channels to ensure steady and proper flow.
it is influid dynamics, Bernoulli's principle states that for an inviscid flow, an increase in the speed of the fluid occurs simultaneous...