It keeps the same shape and size, but the whole thing rises four units on the paper, as if by magic.
y equals x-4 plus 2 is the same as y = x-2. You just translate the graph of y=x, 2 units to the right, OR 2 down.
It can be: y = 6x+4
For graphs of parallel lines , the slope is ALWAYS the same, in this case, '-0.5'. However , the constant, '2' in this case, can be any numberyou like. e.g. y = -0.5x + 1,000,000 are parallel lines.
We cannot find out the y and x intercept for the equation 3x plus 5y equals -15 by a single equation . But , we can try a hit and trial method for the same . when x =0 y =-3. when y=0 x=-5.
Same way you graph y = -4x - 0.5
They are the same equation just written differently so they are both easy to graph.
It keeps the same shape and size, but the whole thing rises four units on the paper, as if by magic.
y equals x-4 plus 2 is the same as y = x-2. You just translate the graph of y=x, 2 units to the right, OR 2 down.
35
2y = 6x+2
The figures are exactly the same, but every point on the first graph is exactly 13 below the corresponding point on the second one.
It can be: y = 6x+4
They're exactly the same shape and size, but every point on the graph of the first one is 8 units directly below the corresponding point on the graph of the second one.
For graphs of parallel lines , the slope is ALWAYS the same, in this case, '-0.5'. However , the constant, '2' in this case, can be any numberyou like. e.g. y = -0.5x + 1,000,000 are parallel lines.
The first equals the second because they're the same total on each side of the equals sign. Try it with grapes, then you can eat your equation.
The equation given is correctly balanced, because it contains the same numbers of each kind of atoms in the reactants as in the products.