Analytically Solving the Magnus Effect with Viscosity in Ball Flight Simulation

In summary, the individual is seeking assistance with adding the viscosity parameter to their problem of simulating the flight of a ball. The equations they have obtained are d^2V_z/dt^2 = WdV_z/dt - dV_x/dt and d^2V_x/dt^2 = WdV_x/dt - dV_z/dt, where W is a linearly dependent function of time. They are looking for suggestions on how to solve this problem analytically and have requested for the equations to be written in LaTeX format and for the variables to be defined. They have also mentioned the possibility of providing a diagram to better explain their goal.
  • #1
George444fg
26
4
I am trying to add to a problem of mine the viscosity parameter, simulating the fly of a ball. However I obtain the following equations

d^2V_z/dt^2 = WdV_z/dt - dV_x/dt and d^2V_x/dt^2 = WdV_x/dt - dV_z/dt where W is a function linearly dependant to t. Any ideas how I could analytically solve this problem..?
 
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  • #2
It would be a lot easier for us to help you if you:

1) Write out your equations using LaTeX (see the LaTeX Guide button for instructions),
and
2) Tell us what each of your variables are,
and
3) Describe, in words, what you are trying to do. Possibly with a diagram.
 
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Likes boneh3ad and jim mcnamara

1. What is the Magnus Effect?

The Magnus Effect is a phenomenon in fluid dynamics where a spinning object experiences a force perpendicular to the direction of motion. This effect is caused by the difference in air pressure on opposite sides of the spinning object.

2. How does the Magnus Effect relate to viscosity?

The Magnus Effect is closely related to viscosity, as it is the resistance of a fluid to deformation. In the case of the Magnus Effect, the viscosity of the fluid (air) affects the difference in air pressure on opposite sides of the spinning object, thus influencing the strength of the resulting force.

3. What factors affect the strength of the Magnus Effect?

The strength of the Magnus Effect is influenced by several factors, including the speed of the spinning object, the density and viscosity of the fluid, the size and shape of the object, and the angle of attack (the angle between the direction of motion and the axis of rotation).

4. What are some real-life applications of the Magnus Effect?

The Magnus Effect has several real-life applications, including in sports such as soccer and baseball, where the spin of the ball can be used to create a curved trajectory. It is also used in wind turbines, where the spinning blades experience a lift force due to the Magnus Effect.

5. How is the Magnus Effect used in research and development?

The Magnus Effect is often studied and utilized in research and development for various purposes, such as improving the aerodynamics of vehicles and aircraft, creating more efficient wind turbines, and developing new technologies for sports equipment. Understanding the Magnus Effect can also help scientists and engineers better understand and predict the behavior of fluids in different situations.

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