Examples of using Velocity vector in English and their translations into Hebrew
{-}
-
Colloquial
-
Ecclesiastic
-
Computer
-
Programming
So the velocity vector.
What is neat about this, is that we have our final velocity vector.
But a velocity vector is obviously not a coordinate.
Let me draw its velocity vector.
Their last velocity vector indicates a steep descent.
And then since the forceis always going to be perpendicular to the velocity vector, the force is going to charge like that.
I mentioned velocity vectors one time… New neighbors!
This acceleration is represented by a green acceleration vector andthe velocity is represented by a red velocity vector.
After a few seconds the velocity vector might look like this.
So the velocity vector is equal to-- let's call the distance that the electron travels, l.
After a few more seconds the velocity vector might look something like that.
Isn't the velocity vector just the same thing as the distance vector divided by time?
And if it's going clockwise, the angular velocity vector would pop into the page.
Extraordinary velocity vector is a function of both mass and acceleration.
I'm just looking at it from theobject's point of view how does the velocity vector change from each of these points in time to the next?
And so let's say this is B's velocity vector in the y direction is-- And this is a minus because this is equal to minus 10.
If you have a downward force right there, then the particle will be deflected downward a little bit,so its velocity vector will then look something like that.
That arrow represents its velocity vector, right? it's going to go up in the air.
Let's think about what the direction of that force would have to be and to do that,I'm gonna copy and paste these velocity vectors and keep track of what the direction of the change in velocity has to be.
At a given time t andfor a given vehicle position r, the correlated velocity vector Vc is defined as follows: if the vehicle had the velocity Vc and the propulsion system was turned off, then the missile would reach the desired target at the desired time under the influence of gravity.
Centripetal acceleration is the magnitude of the velocity vector squared over the radius of the circle.
The blue arrows indicate the velocity vector at different points along the trajectory.
The whole reason why I drew these vectors and then translate them over here and drew these change in velocity vectors is to show you that the change in velocity is actually towards the center of this circle.
So after some period of time, this object's velocity vector, if you add the previous velocity with how much it has changed.
My index finger is pointing in the direction of the velocity vector, while my middle finger is pointing the direction of the magnetic field.
So what do you see,if I were to keep drawing more of these change in velocity vectors you would see at this point, the change in velocity would have to be going generally in that direction.
This higher symmetry results from two properties of the Kepler problem: the velocity vector always moves in a perfect circle and, for a given total energy, all such velocity circles intersect each other in the same two points.
Average speed is a scalar quantity, while average velocity is a vector quantity.
All of the-- if you think of it as force or velocity of the vector field-- is going to be applying translation to objects in that field.
So I take this vector and say in what direction was the velocity changing when this vector was going on this part of the arc.