x = -1.2153
x = 2.0614
Not necessarily. The denominator need not have any real zeros, for example x2+1. Not necessarily. The denominator need not have any real zeros, for example x2+1. Not necessarily. The denominator need not have any real zeros, for example x2+1. Not necessarily. The denominator need not have any real zeros, for example x2+1.
To find the number of real zeros of a function, you can use the Intermediate Value Theorem and graphing techniques to approximate the number of times the function crosses the x-axis. Additionally, you can apply Descartes' Rule of Signs or the Rational Root Theorem to analyze the possible real zeros based on the coefficients of the polynomial function.
Yes it is, because zeros mean nothing so the real number for both of these questions would be the same if you crossed out all the zeros.
Well honey, there are 8 zeros in 1000 crores. Don't worry, I won't make you count them all out. Just remember, a crore has 7 zeros, so when you have 1000 of them, you're looking at 8 zeros total. Math can be a real pain in the rear, can't it?
Ah, don't you worry, friend. In a Mega Millions jackpot, there are quite a few zeros! You'll find six zeros in a million and nine zeros in a billion. Just imagine all the happy little zeros lining up to bring joy and excitement to someone's life.
They are -1, 1 and 5.
yes. technically all decimals have an infinite amount of zeros behind them. you just have to apply significant digits to find how much zeros you are suppose to write.
They are all the points where the graph crosses (or touches) the x-axis.
In general this question is unanswerable. However, you can consider Newton's method to make very good estimates. Equations can be very complex in that their curves have poles and zeros where you do not expect them. Consider Riemann's Zeta function Z(z) = Sum(1/n^z, n>0). It has complex zeros on the line z=1/2, but up to this date, the distribution of the zeros is not entirely known!
You could try setting the function equal to zero, and finding all the solutions of the equation. Just a suggestion.
7500 followed by 9 zeros; that is 75 followed by 11 zeros in all
Certain functions, when solving to find the zeros (value which makes the function equal zero), the only value which will work has an imaginary component. Note that a parabola (graph of a quadratic or 2nd order polynomial) can touch the x-axis at a single point, or 2 points or no points. If it does not touch or cross the x-axis, then the root (or zeros) of the function are complex with imaginary components.Technically, all real numbers are a subset of complex numbers, so all numbers are complex - but this is not how we normally refer to them. We usually say that a number is real, or it is imaginary, or it is complex.