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  2. Infinite Limits and Vertical Asymptotes - Calculus - Socratic

    socratic.org/calculus/limits/infinite-limits-and-vertical-asymptotes

    The vertical asymptote is a place where the function is undefined and the limit of the function does not exist. This is because as #1# approaches the asymptote, even small shifts in the #x# -value lead to arbitrarily large fluctuations in the value of the function. On the graph of a function #f (x)#, a vertical asymptote occurs at a point #P ...

  3. Asymptotes - Precalculus - Socratic

    socratic.org/precalculus/functions-defined-and-notation/asymptotes

    To Find Vertical Asymptotes: In order to find the vertical asymptotes of a rational function, you need to have the function in factored form. You also will need to find the zeros of the function. For example, the factored function #y = (x+2)/ ( (x+3) (x-4)) # has zeros at x = - 2, x = - 3 and x = 4. *If the numerator and denominator have no ...

  4. Finding horizontal & vertical asymptote (s) using limits

    math.stackexchange.com/questions/945420/finding-horizontal-vertical-asymptotes...

    Find all horizontal asymptote(s) of the function $\displaystyle f(x) = \frac{x^2-x}{x^2-6x+5}$ and justify the answer by computing all necessary limits. Also, find all vertical asymptotes and justify your answer by computing both (left/right) limits for each asymptote. MY ANSWER so far..

  5. How do I a find a formula of a function with given vertical and...

    math.stackexchange.com/questions/1957587/how-do-i-a-find-a-formula-of-a...

    Find the horizontal and vertical asymptotes. 0. How do I find the horizontal/vertical asymptotes of an ...

  6. Horizontal and vertical asymptotes of polar curve

    math.stackexchange.com/questions/100665

    I as supposed to find the vertical and horizontal asymptotes to the polar curve $$ r = \frac{\theta}{\pi - \theta} \quad \theta \in [0,\pi]$$ The usual method here is to multiply by $\cos$ and $\sin$ to obtain the parametric form of the curve, derive these to obtain the solutions. However I am not able to solve these equations.

  7. Can asymptotes be imaginary? - Mathematics Stack Exchange

    math.stackexchange.com/questions/71257/can-asymptotes-be-imaginary

    To find the vertical asymptotes, the book I'm following says that after factoring completely, you should set each factor of the denominator to $0$ and: Every solution you get that does not make the numerator 0 will give you a vertical asymptote of the function. According to that, I do:

  8. How do you find a vertical asymptote for y = sec(x)? - Socratic

    socratic.org/questions/how-do-you-find-a-vertical-asymptote-for-y-sec-x

    1 Answer. The vertical asymptotes of y = secx are. x = (2n + 1)π 2, where n is any integer, which look like this (in red). Let us look at some details. y = secx = 1 cosx. In order to have a vertical asymptote, the (one-sided) limit has to go to either ∞ or −∞, which happens when the denominator becomes zero there. So, by solving.

  9. How do you find vertical asymptote of tangent? - Socratic

    socratic.org/questions/how-do-you-find-vertical-asymptote-of-tangent

    To find the vertical asymptote of ANY function, we look for when the denominator is 0. I assume that you are asking about the tangent function, so tan theta. The vertical asymptotes occur at the NPV's: theta=pi/2+n pi, n in ZZ. Recall that tan has an identity: tan theta=y/x= (sin theta)/ (cos theta). This means that we will have NPV's when cos ...

  10. Vertical Asymptote | Equation, Formula & Rules - Lesson -...

    study.com/academy/lesson/vertical-asymptotes-definition-rules-quiz.html

    Find the vertical asymptotes and domain of the function {eq}f(x)=\frac{x^{3}-8}{x^{2}+x-6} {/eq} Rational function with a common factor in the denominator and numerator This is an example where ...

  11. examples of functions with vertical asymptotes in real life

    math.stackexchange.com/questions/1113357

    Its asymptote is easily offset by (x)<-(x-a) or mirrored with (a)<-(a*sign(a)) This is a simple start. vertical asymptotes are much simpler cases than non vertical ones, where x is also the dividend. Except if your function is a (iterative) logarithm or like all the divergent infinite sums/series. often knowing which factors or exponents grows ...