

There's a limit to how high O can be before accumulated floating-point rounding errors rob you of accurate integer values for the coefficients, but I'd guess the number is pretty high.

decide on a buffer size, N, that is at least O/2 + 1 and can be conveniently DCTed.Since this is all real and even, we can substitute the DCT-I for the DFT to improve efficiency. to simulate 500 tosses, raise it to the power of 250 since it already represents a pair), we can arrange for the binomial distribution for a large number to appear in the frequency domain.

In other words, by raising our cosine expression for the result of two tosses to a power (e.g. Since modelling the overall probability distribution of independent events requires convolving their distributions, we want to convolve our expression in the frequency domain, which is equivalent to multiplication in the time domain. Notice that, in frequency, this expression resembles the binomial distribution of those two coin tosses - there are three symmetrical spikes at positions corresponding to the number (heads-tails)/2. N is the number of samples in your buffer - a binomial expansion of even order O will have O+1 coefficients and require a buffer of N >= O/2 + 1 samples - n is the sample number being generated, and A is a scale factor that will usually be either 2 (for generating binomial coefficients) or 0.5 (for generating a binomial probability distribution). half the difference between the total number of heads and tails) with the expression A + A*cos(Pi*n/N). Represent the results of two coin tosses (e.g. number of tosses) you can exploit symmetries thus:
BINOMIAL COEFFICIENT IN POWERPOINT EQUATION EDITOR SERIES
a series of fair coin tosses) and an even order (e.g. In the case of a binomial expansion with equal coefficients (e.g. If you want complete expansions for large values of n, FFT convolution might be the fastest way. for all k>0: nCk = prod_ Entries */".format(count)).If this is correct, we can leverage the following relationship to make this fairly trivial: If I understand the notation in the question, you don't just want nCp, you actually want all of nC1, nC2.
