To vertically stretch the exponential function ( f(x) = 2^x ) by a factor of 4, you multiply the entire function by 4. The new equation becomes ( g(x) = 4 \cdot 2^x ). This transformation increases the output values of the function by a factor of 4 for each input ( x ).
To vertically compress the function ( f(x) = x^2 ) by a factor of 8, you multiply the function by ( \frac{1}{8} ). Therefore, the equation of ( g(x) ) becomes ( g(x) = \frac{1}{8}x^2 ). This transformation reduces the output values of the original function by a factor of 8.
To write an equation for an exponential function using the y-intercept and growth factor, start with the general form ( y = ab^x ), where ( a ) represents the y-intercept (the value of ( y ) when ( x = 0 )) and ( b ) is the growth factor (the rate of growth). The y-intercept can be directly substituted for ( a ), giving you ( y = a \cdot b^x ). If you know the growth factor ( b ), simply insert its value along with the y-intercept to form the complete equation.
Any number below negative one.
y = 0.5 |x|
implementation of exponential groth
It is f(x) = 8x.
To vertically compress the function ( f(x) = x^2 ) by a factor of 8, you multiply the function by ( \frac{1}{8} ). Therefore, the equation of ( g(x) ) becomes ( g(x) = \frac{1}{8}x^2 ). This transformation reduces the output values of the original function by a factor of 8.
f(x) = |f(x)|/3
To write an equation for an exponential function using the y-intercept and growth factor, start with the general form ( y = ab^x ), where ( a ) represents the y-intercept (the value of ( y ) when ( x = 0 )) and ( b ) is the growth factor (the rate of growth). The y-intercept can be directly substituted for ( a ), giving you ( y = a \cdot b^x ). If you know the growth factor ( b ), simply insert its value along with the y-intercept to form the complete equation.
It is f(x) = 3|x|.
The constant factor that each value in an exponential decay pattern is multiplied by the next value. The decay factor is the base in an exponential decay equation. for example, in the equation A= 64(0.5^n), where A is he area of a ballot and the n is the number of cuts, the decay factor is 0.5.
m=24*(1.135)*1
The equation for this exponential growth function is: P(t) = 76 * 4^t, where P(t) is the population at time t and 4 represents the quadrupling factor. The initial population at time t=0 is 76.
Any number below negative one.
y = 0.5 x
y = 0.5 |x|
y = 3*f(x + 2)