Probability • Quantitative Finance • C++ / Python

Building rigorous quantitative tools at the intersection of mathematics, markets and computation.

Master's student in Probability and Finance, focused on stochastic modelling, numerical methods, robust market data aggregation and market microstructure simulation.

Domain Quantitative Finance
Methods Monte Carlo, Calibration
Stack Python, C++

About

Quantitative profile with a mathematical backbone.

I work on problems where probability theory, numerical methods and software engineering meet: stochastic processes, Monte Carlo methods, model calibration, market data quality and C++/Python tooling.

My objective is to build research-grade implementations: clean modelling assumptions, reproducible experiments, precise numerical diagnostics and code that can evolve toward production.

Research & interests

Selected topics

Stochastic modelling and derivatives

Interest in local stochastic volatility, stochastic rates, Monte Carlo methods, particle-based calibration and numerical stability in option pricing.

Market microstructure

Design of agent-based market simulators with latency, order book dynamics, liquidity providers, noise flow and short-horizon trading agents.

Probability and discrete models

Work on probabilistic structures including anisotropic percolation, projection techniques and rigorous finite/infinite-volume arguments.

Work

Selected work

Research engineering

Hybrid LSV & stochastic rates

Numerical work around equity derivatives models combining local stochastic volatility, stochastic interest rates and calibration-oriented simulation.

C++ Monte Carlo Calibration
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Simulation

Market Microstructure Simulator

Architecture for simulating order-driven markets with agents, strategies, reaction times, matching rules and detailed execution logs.

C++ Python bindings LOB
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Complex analysis

Maximizing Maps for Holomorphic Functions

Study of paths built from the maximum modulus principle, following points where a holomorphic function reaches its maximal modulus on admissible families of surrounding curves.

Complex Analysis Holomorphic Functions Maximum Principle Riemann Zeta
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Contact

Open to quantitative research, modelling and engineering discussions.