mathmethods-mcp
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TDQS
Scored across 29 tools
Most tools target distinct numerical methods (e.g., root_bisection vs root_newton_raphson), but the dynamic_2d_* group has several linear-system solvers that could be confused, and mc_valor_promedio_1d vs mc_hit_or_miss_1d require close reading. Overall, descriptions disambiguate well.
Names follow a prefix-per-domain pattern (integral_, root_, ode_, mc_, dynamic_), but mix English and Spanish (e.g., integral_trapecio, mc_valor_promedio_1d, root_punto_fijo) and use inconsistent suffixes (solve, comparar, 1d, 13). This makes the set feel less predictable.
29 tools is well above the typical coherent range; many are variations of the same computation (6 Monte Carlo integration tools, 5 root finders, 5 integration rules). The breadth is large, but most tools could be consolidated without losing functionality.
The surface covers numerical integration, root finding, ODE solvers, interpolation, finite differences, Monte Carlo, and 1D/2D dynamical systems. Minor gaps exist (e.g., no linear algebra solvers or optimization), but the core methods for the apparent scope are present.