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Monte Carlo simulation

As explained in Machine Learning Algorithms in Depth

Monte Carlo sampling is a stochastic technique that uses random samples or simulated paths to estimate properties of uncertain quantities.

Monte Carlo simulation estimates uncertain quantities by generating random samples or simulated paths. Its implementation pattern is to define a stochastic process, sample many trials, record outcomes, and summarize their variation. section 2.3 section 2.4

A practical simulation proceeds as follows:

  • Specify the state process, transition probabilities, horizon, time step, and number of simulations. section 2.3 section 2.4
  • Sample transitions in batches, compute each terminal state or path statistic, and retain the resulting outcomes. section 2.3 section 2.4
  • Inspect dispersion across trials: longer stock-price horizons produce greater volatility, while constrained walks require importance weights for weighted mean-square distances. section 2.3 section 2.4

Binomial stock-price simulation

For a stock beginning at S0, calculate up and down multipliers u and d and an up-transition probability p. For each horizon, draw binomial up counts for N simulations, obtain down counts by complementation, and compute terminal prices as S0 multiplied by u raised to the up count and d raised to the down count. Comparing one-month and one-year results exposes horizon-dependent uncertainty. section 2.3

How Machine Learning Algorithms in Depth covers it

How deep it goes
Derives transition sampling and outcome computation, implements two simulations, and briefly situates scalable Monte Carlo variants without developing them.
Examples
Uses binomial stock-price paths and weighted self-avoiding walks on a two-dimensional grid.
What it assumes
Assumes familiarity with transition probabilities, binomial and categorical random variables, and basic stochastic-process notation.
What you can do after
Builds simulations from scratch, computes terminal outcomes, and evaluates uncertainty through repeated trials and plots.
How it connects
Connects binomial tree models, Markov chains, self-avoiding random walks, importance sampling, MCMC, and sequential Monte Carlo.

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