It is f(x) = 3|x|.
The wording is confusing, as a quadratic function is normally a function of one variable. If you mean the graph of y = f(x) where f is a quadratic function, then changes to the variable y will do some of those things. The transformation y --> -y will reflect the graph about the x-axis. The transformation y --> Ay (where A is real number) will cause the graph to stretch or shrink vertically. The transformation y --> y+A will translate it up or down.
stretch
No they don't. They just stretch for a very long ways horizontally without much increase vertically because the output of the function is the exponent of the input. For example, f(x) = log x when x = 1000, f(x) = 3 because 10^3 = 1000 (10 being the base of common log). Therefore, when you increase x substantially, there is only a small increase in y.
Callate el Perro osico!
There might be a specific tool for this, but what I do is separate a line into three equal parts and (with all three parts selected) stretch them from end to end of the rectangle. Then I make two more copies of the rectangle and just stretch them into place, using the width of the original triangle and the lengths of the lines as a reference.
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 ).
A monotonic transformation does not change the overall shape of a function's graph, but it can stretch or compress the graph horizontally or vertically.
The attributes of a transformation of an absolute value function can be demonstrated algebraically by applying specific changes to the function's equation, typically in the form ( f(x) = a|bx - h| + k ). Here, ( a ) affects the vertical stretch/compression and reflection, ( b ) impacts the horizontal stretch/compression, ( h ) represents a horizontal shift (right if positive, left if negative), and ( k ) indicates a vertical shift (up if positive, down if negative). By substituting different values for these parameters, one can illustrate how the graph of the absolute value function changes accordingly.
Fill in the blanks to complete the main idea and rule. ... It takes as input the number of dollars spent and returns as output the number of miles driven. Write the equation ..... Main idea: When you stretch or compress a function, you change the.
Multiplying a function by a negative number reflects its graph over the x-axis. This means that for every point (x, y) on the original graph, the transformed point will be (x, -y). If the multiplication factor is positive, the graph retains its orientation but may stretch or compress vertically, depending on the factor's absolute value. Thus, the reflection occurs specifically with negative multiplication.
The parent function for the equation ( y - 14x^3 ) is the cubic function ( y = x^3 ). In this case, the given equation represents a transformation of the parent function, where the term ( -14x^3 ) indicates a vertical stretch by a factor of 14 and a reflection across the x-axis. The transformation does not change the fundamental nature of the cubic function itself.
The wording is confusing, as a quadratic function is normally a function of one variable. If you mean the graph of y = f(x) where f is a quadratic function, then changes to the variable y will do some of those things. The transformation y --> -y will reflect the graph about the x-axis. The transformation y --> Ay (where A is real number) will cause the graph to stretch or shrink vertically. The transformation y --> y+A will translate it up or down.
The function of the stretch receptors in regulating breathing is to reduce the respiratory rate.
A vertical stretch is a transformation applied to a function that increases the distance between points on the graph and the x-axis. This is achieved by multiplying the function's output values by a factor greater than one. For example, if the function ( f(x) ) is transformed to ( k \cdot f(x) ) (where ( k > 1 )), the graph is stretched vertically, making it appear taller and narrower. This transformation affects the amplitude of periodic functions and alters the steepness of linear functions.
Stretching a rubber band horizontally is generally easier and puts less strain on the band compared to stretching it vertically. Horizontally stretching the band also allows for a more uniform distribution of force, making it less likely to break.
stretch
when your sphincter is stretched to the absolute maximum point that it is able to stretch.