Horizontal component of the Coriolis force

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SUMMARY

The horizontal component of the Coriolis force is not accurately represented by the formula ##2m \omega v \sin \theta##, which describes the magnitude of the Coriolis force rather than its horizontal component. The Coriolis force is defined as $$F_{cor}=2m(\vec v \times \vec \omega)$$, where ##m## is the mass of the object, ##\vec{v}## is the object's velocity, and ##\vec{\omega}## is the Earth's angular velocity. A misunderstanding of this distinction was clarified in the discussion, emphasizing the need for a deeper understanding of the Coriolis effect in physics.

PREREQUISITES
  • Understanding of vector mathematics
  • Familiarity with the Coriolis effect
  • Basic knowledge of angular velocity
  • Concept of forces in a rotating reference frame
NEXT STEPS
  • Study the derivation of the Coriolis force formula
  • Learn about the applications of the Coriolis effect in meteorology
  • Explore the implications of the Coriolis force in engineering
  • Investigate the differences between inertial and non-inertial reference frames
USEFUL FOR

Physicists, meteorologists, engineers, and students studying dynamics and rotational motion will benefit from this discussion on the Coriolis force and its components.

MatinSAR
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Homework Statement
Show that the horizontal component of the Coriolis force is independent of the direction of motion of the particle on Earth's surface.(The particle is moving on a horizontal plane.)
Relevant Equations
Newton's Laws in non-inertial reference frames.
The coriolis force that acts on the object moving on the Earth is: $$F_{cor}=2m(\vec v \times \vec \omega)$$##F_{cor}## is the Coriolis force, ##m## is the mass of the object, ## \vec{v}## is the velocity of the object in the Earth frame, and ## \vec{\omega}## is the angular velocity of the Earth.

Is it true to say that the horizontal component of this force is equal to ##2m \omega v \sin \theta## where ##\theta## is the angle between ##\vec \omega## and ##\vec v##?
 
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MatinSAR said:
Is it true to say that the horizontal component of this force is equal to ##2m \omega v \sin \theta## where ##\theta## is the angle between ##\vec \omega## and ##\vec v##?
That is the formula for the magnitude of the Coriolis force. Not for its horizontal component.
 
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jbriggs444 said:
That is the formula for the magnitude of the Coriolis force. Not for its horizontal component.
Thank you for pointing out my mistake. I think I need to reread this chapter before trying to solve.
 

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