Lesson 197

Computational Finance & Geospatial Computing

Monte Carlo pricing · Haversine & geohash · Spatial indexing

1:00

How Monte Carlo simulation prices options when no formula exists, and how haversine, geohash, and R-trees make planet-scale spatial search fast.

By the end, you can

  • State the European call payoff formula and explain why the future price makes direct valuation impossible.
  • Name all five Black–Scholes inputs and identify the most common confusion (σ = volatility, not expected return).
  • Trace the Monte Carlo pricing algorithm: simulate paths, compute payoffs, average, discount.
  • Apply the 1/√N convergence rule to determine how many extra samples are needed to achieve a target accuracy improvement.
  • Explain why haversine is needed instead of Pythagorean distance for geographic coordinates.
  • Describe how geohash encodes a location and why a shared prefix implies spatial proximity.
  • Identify the geohash boundary gotcha and explain the 8-neighbor fix.
  • Explain how an R-tree prunes bounding boxes to reduce spatial query complexity from O(n) to O(log n).
  • Articulate the unifying principle: simulate to approximate, index to prune.
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