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\begin{document}
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		\Large  \bf Homework #1%
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\begin{homework}{06}{
%Prerequisites:

General comments: 
\begin{itemize}
	\item Do not forget to run some test cases. 
\end{itemize}
}

\problem{Problem 1 (5 points)}
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Estimate the Euler's number $e \approx 2.71\ldots$ via evaluation of
the following integral with the Monte-Carlo method
\begin{eqnarray*}
	e=\int_0^1 (e^x+1) dx
\end{eqnarray*}




\problem{Problem 2 (5 points)}
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For the  problem above. Plot  (in loglog  space) the absolute deviation  of
the integral from  its true  value  as a  function  of the  random  points number  ($N$)
spanning logarithmically from  10 to $10^6$. For  each $N$ do  it at least 100  times, mark
such  points as  small dots  (use matlab \mat{'.'}  marker specifier)  on your  plot,
calculate and show on the same plot the mean of  the integral value error
estimation at a particular $N$ with a circle marker (use matlab \mat{'o'} marker specifier).

Does the $e$ estimate error drop as $1/\sqrt{N}$? Show this dependence on the
same plot.

\problem{Problem 3 (5 points)}
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Consider the LCG random generator with $a=11$, $c=2$, $m=65535$, and
$r_1=1$. What is the best case scenario for the length/period of the random
sequence of a LC generator with $m=65535$? Estimate the actual length of the
non repeating sequence.

\problem{Problem 4 (5 points)}
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Modify the colony life script example to take in account helping neighbors.
Leave the probability to heal  a cell without alive neighbors as it is,
double the healing probability for a cell with one alive neighbor, and triple it
if a cell has alive neighbors on both sides. We assume that illness does not prevent a
helping/healing action, i.e. a neighbor must be alive to help
but it might have an illness too.

{\bf Make sure that you are using matlab random generator,  i.e., \mat{rand}}.

Is the saying ``the best neighbor is the dead neighbor'' still true?



\end{homework}
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