Consider a Bernoulli process with =0.3. Simulate a sequence of 100 outcomes. Interpret the simulated sequence as follows: place a walker at position 0. A '0' is interpreted as a move of size 0, a '1' is interpreted as a move of size 1. Our simulated sequence can thus be interpreted as a random walk. Record the end position of our random walk. Repeat this 10000 times. Histogram these end positions. Your histogram, when appropriately binned, should resemble a Gaussian. Give and e of this distribution. If you are confident, you may also use the central limit theorem directly and dispense with simulation.

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Consider a Bernoulli process with μ=0.3. Simulate a sequence of 100 outcomes. Interpret the simulated sequence as follows: place
a walker at position 0. A '0' is interpreted as a move of size 0, a '1' is interpreted as a move of size 1. Our simulated sequence can
thus be interpreted as a random walk. Record the end position of our random walk. Repeat this 10000 times. Histogram these end
positions. Your histogram, when appropriately binned, should resemble a Gaussian. Give u and of this distribution. If you are
confident, you may also use the central limit theorem directly and dispense with simulation.
B
μ=20,a=8.4
μ=20,a=11
H=30,0=4.6
μ=30,0=2.8
Transcribed Image Text:Consider a Bernoulli process with μ=0.3. Simulate a sequence of 100 outcomes. Interpret the simulated sequence as follows: place a walker at position 0. A '0' is interpreted as a move of size 0, a '1' is interpreted as a move of size 1. Our simulated sequence can thus be interpreted as a random walk. Record the end position of our random walk. Repeat this 10000 times. Histogram these end positions. Your histogram, when appropriately binned, should resemble a Gaussian. Give u and of this distribution. If you are confident, you may also use the central limit theorem directly and dispense with simulation. B μ=20,a=8.4 μ=20,a=11 H=30,0=4.6 μ=30,0=2.8
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