If x is a function of time, t, then the second derivative of x, with respect to t, is the acceleration in the x direction.
the left end of the graph is going in a positive direction and the right end is going in a negative direction.
The gradient of a quantity is the greatest rate at which it changes as you move in different directions from where you are now. If the quantity has a negative gradient, that means that the quantity decreases in that direction. A great example of a negative gradient is the elevation of the land at a point on a road that has a hill on one side and a cliff on the other side. The greatest rate at which the elevation changes is in the direction off the edge of the cliff, and it's negative in that direction.
Here is an outline of the solution: Find the velocity of a point on the rim by multiplying the radius times the angular velocity in radians per second (converted from 1 rev per 3 min.). The direction of the rim velocity is tangent to the rim. You have to find the vertical component of this velocity using trig. You find the necessary angle to do this by drawing a radial line to the point on the rim that is 24 m above ground level. There are several parts to this problem, so good luck.
Divide the vector by it's length (magnitude).
Yes it does cuz it is equal on both sides.
in a radial flow turbine the steam enters the turbine in the direction of its radius and leaves it in the direction of the axis of the shaft. in a axial flow turbine the steam enters the turbine in the direction of the axis of the shaft and leaves the turbine in the same direction.
In axial bearing the most power force in the same direction as the axis of the shaft In radial bearing no.
yes they do
Yes, radial magnetic fields are measurable using techniques such as magnetic field sensors or magnetometers. These devices can detect and quantify the strength and direction of magnetic fields, including radial ones.
Speed (in the radial direction) = slope of the graph.
It shows the component of velocity in a radial direction. Any motion in a transverse direction is ignored.
The object is accelerating or decelerating in the radial direction.
An axial compressor uses many stages of "fans" with stators to compress air in the same direction as its original flow. An example of this is that of *most* turbojet engines' compressors. A radial (or centrifugal) compressor works at right angles to the airflow's original direction. An example of a radial compressor is the compressor on an automotive turbocharger.
Jellyfish typically have radial symmetry, with their body parts arranged around a central axis. This allows them to be able to respond in any direction to their environment.
yes they should
The object is accelerating or decelerating in the radial direction.