Kinematics with electric forces

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SUMMARY

The discussion centers on determining the vertical component of velocity in kinematics involving electric forces. The formula provided is v_y = v_0y + a_yt, where v_y represents the final vertical velocity, v_0y is the initial vertical velocity, a_y is the acceleration due to gravity, and t is the time taken to travel a specified horizontal distance. This formula is derived from the kinematic equations, specifically addressing displacement in the vertical direction. Clarity in the problem statement is essential for accurate application of this formula.

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  • Understanding of kinematic equations
  • Knowledge of vertical and horizontal components of motion
  • Familiarity with acceleration due to gravity
  • Basic algebra for solving equations
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  • Explore the effects of gravity on vertical motion
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Students in physics, educators teaching kinematics, and anyone interested in understanding the dynamics of motion under the influence of electric forces and gravity.

nemzy
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forgot this formula

Here is the question:

determine the vertical component of its velocity after it has traveled a certain distance horizontally...

does any1 remember the formula thanks
 
Last edited:
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Um, what? You're going to have to be much more specific here. Velocity of what? Please write the whole problem out and be specific.
 


The formula for determining the vertical component of velocity after a certain horizontal distance has been traveled is:

v_y = v_0y + a_yt

Where v_y is the final vertical velocity, v_0y is the initial vertical velocity, a_y is the acceleration due to gravity, and t is the time it takes to travel the horizontal distance. This formula is derived from the kinematic equations, specifically the equation for displacement in the y-direction.

I hope this helps!
 

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