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When the denominator is equal to zero, the expression is undefined. Close to those places, the expression tends towards plus infinity, or minus infinity. In other words, setting the denominator to zero will tell you where there are vertical asymptotes.
When you graph a tangent function, the asymptotes represent x values 90 and 270.
Not sure what non-verticle means, but a rational function can have up to 2 non-vertical asymptotes,
A vertical asymptote represents a value of the independent variable where the function approaches infinity or negative infinity, indicating that the function is undefined at that point. Since rational functions are defined as the ratio of two polynomials, if the denominator equals zero (which occurs at the vertical asymptote), the function cannot take on a finite value or cross that line. Therefore, the graph of a rational function cannot intersect its vertical asymptotes.
To determine the equation of the asymptote of a graph, you typically need to analyze the function's behavior as it approaches certain values (often infinity) or points of discontinuity. For rational functions, vertical asymptotes occur where the denominator equals zero, while horizontal asymptotes can be found by comparing the degrees of the numerator and denominator. If you provide a specific function, I can give you its asymptote equations.
When the denominator is equal to zero, the expression is undefined. Close to those places, the expression tends towards plus infinity, or minus infinity. In other words, setting the denominator to zero will tell you where there are vertical asymptotes.
When you graph a tangent function, the asymptotes represent x values 90 and 270.
Not sure what non-verticle means, but a rational function can have up to 2 non-vertical asymptotes,
A vertical asymptote represents a value of the independent variable where the function approaches infinity or negative infinity, indicating that the function is undefined at that point. Since rational functions are defined as the ratio of two polynomials, if the denominator equals zero (which occurs at the vertical asymptote), the function cannot take on a finite value or cross that line. Therefore, the graph of a rational function cannot intersect its vertical asymptotes.
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that's simple an equation is settled of asymptotes so if you know the asymptotes... etc etc Need more help? write it
Assume the rational function is in its simplest form (if not, simplify it). If the denominator is a quadratic or of a higher power then it can have more than one roots and each one of these roots will result in a vertical asymptote. So, the graph of a rational function will have as many vertical asymptotes as there are distinct roots in its denominator.
To determine the equation of the asymptote of a graph, you typically need to analyze the function's behavior as it approaches certain values (often infinity) or points of discontinuity. For rational functions, vertical asymptotes occur where the denominator equals zero, while horizontal asymptotes can be found by comparing the degrees of the numerator and denominator. If you provide a specific function, I can give you its asymptote equations.
No, it will always have one.
Asymptotes are one way - not the only way, but one of several - to analyze the general behavior of a function.
The answer depends on the form of the expression in the denominator. For example, the graph os 1/(1 + x2) has a pretty well-behaved graph, with a maximum vaue of 1 when x = 0 and asymptotes of y = 0
A rational function is a function defined as the ratio of two polynomial functions, typically expressed in the form ( f(x) = \frac{P(x)}{Q(x)} ), where ( P(x) ) and ( Q(x) ) are polynomials. The graph of a rational function can exhibit a variety of behaviors, including vertical and horizontal asymptotes, and can have holes where the function is undefined. The degree of the polynomials affects the function's end behavior and the locations of its asymptotes. Overall, rational functions can represent complex relationships and are often used in calculus and algebra.