The gradient of a function, in a given direction, is the change in the value of the function per unit change in the given direction. It is, thus, the rate of change of the function, with respect to the direction.
It is generally found by calculating the derivative of the function along the required direction.
For a straight line, it is simply the slope. That is the "Rise" divided by the "Run".
The gradient of a line is designated by m, abbreviated from modulus. Modulus is an absolute value calculated by adding the squares of each part and taking the positive square root of the sum, and is derived from the Latin modus, meaning measure.
The 'upside down' triangle symbol is the (greek?) letter Nabla. Nabla means the gradient. The gradient is the vector field whoose components are the partial derivatives of a function F given by (df/dx, df/dy).
basically the reciprocal of the original lines gradient is going to be the gradient for the perpendicular line (remember the signs should switch). For example if i had a line with the gradient of 3, then the gradient of the perpendicular line will be -1over3. But if the line had the gradient of -3, then the line perpendicular to that line will have the gradient 1over3.
In America it is math, in most European countries it is maths
Yes, math is called maths in Welsh.
RISE ------- RUN y2-y1 -------- x2-x1 Tip: GO get sum maths tutoring for god sake
The gradient of a line is designated by m, abbreviated from modulus. Modulus is an absolute value calculated by adding the squares of each part and taking the positive square root of the sum, and is derived from the Latin modus, meaning measure.
the slope More often called the gradient in maths - but means the same. It's also given by differentiating the equation.
The 'upside down' triangle symbol is the (greek?) letter Nabla. Nabla means the gradient. The gradient is the vector field whoose components are the partial derivatives of a function F given by (df/dx, df/dy).
find the gradient
The answer depends on the gradient of WHAT!
Firstly, and most simply, it may lead to another part of a problem or question or context.Secondly, and importantlyest, (i just invented that word it means most importantly) It can be used to find the gradient of a curve.As you may know, the gradient of a straight line is constanty=mx+c the gradient is mBut for a curve, the gradient is always changing.look at a graph of y=x2 and you will see that an infinite tangents make up the curve each with a different value for m.In short, when you differentiate a function or equation, you get the gradient function, which allows you to find the gradient at any point on the graph y=f(x)differentiate y=x2 (which is the same as find dy/dx)dy/dx=2xso the gradient on the curve y=x2 always 2 times the x value in question. At x=1 the gradient is 2. At x=2 the gradient is 4.In mechanics, if you draw a graph of displacement against time for a moving object, the GRADIENT is equal to the function of velocity. Plot velocity against time and the gradient is equal to Acceleration against time.In any circumstance where a curve is involved differentiation is needed to ind a gradient.Phew, hope that helps and answers your question
basically the reciprocal of the original lines gradient is going to be the gradient for the perpendicular line (remember the signs should switch). For example if i had a line with the gradient of 3, then the gradient of the perpendicular line will be -1over3. But if the line had the gradient of -3, then the line perpendicular to that line will have the gradient 1over3.
Danube river gradient
(-1.5,0) (1.5,0) what is the gradient?
these tiles are gradient.
Draw a tangent to the curve at the point where you need the gradient and find the gradient of the line by using gradient = up divided by across