About

Institute for Advanced Dynamic Uncertainty

The frontier of applied mathematics has moved faster than most quantitative institutions have followed. IADU was founded to close that distance — turning rigorous dynamic mathematics into deployable solutions for the problems that standard tools leave unsolved.

Our Mission

The mathematics exists to do better.

The frontier of applied mathematics has moved considerably faster than the quantitative tools deployed in most institutions. Problems that were analytically intractable a decade ago — high-dimensional stochastic control, large-population Nash equilibria, free-boundary problems under state-dependent dynamics — now admit rigorous solutions through a combination of theoretical advances and computational methods that did not previously exist. The gap this creates is not between clever practitioners and ignorant ones. It is between institutions that have access to the mathematical depth required to exploit these advances and those that do not. Most quantitative teams, however talented, are not structured to operate simultaneously at the frontier of stochastic control theory, mean field game analysis, and high-dimensional PDE methods. That is what IADU provides.

IADU was founded to bridge that gap — not as a university department constrained by curriculum and academic politics, not as a consultancy that retrofits mathematics to justify a conclusion the client reached before the analysis began, but as an independent mathematical research institute whose output is simultaneously publishable and deployable. Our research programme spans the full stack from theorem to algorithm: we establish existence and regularity of solutions, derive the conditions under which numerical schemes converge, implement those schemes in production-grade code, and deliver results calibrated to real data and real institutional constraints. The standard is that of a refereed mathematical journal at every stage — not because we are academic, but because that standard is the only one that reliably produces results which hold outside the specific setting in which they were derived.

The consequence is a body of work that is both rigorous and applicable. For quantitative firms, trading desks, and corporate teams operating at the frontier of their domain, that combination is rare. For problems in optimal execution, real options valuation, mean field game modelling of strategic behaviour, or high-dimensional HJB systems, IADU provides mathematical depth that a standard in-house quant team — however talented — cannot replicate. We start from data and first principles, follow where the mathematics leads, and deliver results that hold.

Institutional

Our clients are quantitative investment firms, energy companies, investment banks, structured finance desks, and corporate strategy teams — institutions that face consequential decisions under uncertainty and need quantitative analysis that holds under rigorous scrutiny. We do not serve every client. We work where the mathematics is the differentiating factor.

Independent

No university mandate, no external ownership, no government sponsorship. Our research conclusions are determined by the mathematics alone — a standard we uphold across all institutional relationships.

Rigorous

Every result we publish meets the standard of a refereed mathematical journal. We do not produce opinion, commentary, or qualitative assessment. If it cannot be proved, we do not claim it.

Optimal

In quantitative practice, "optimal" is used loosely. At IADU it has a precise meaning: the solution to a well-posed dynamic optimisation problem, derived rigorously and verified mathematically — the foundation on which every research programme at the Institute is built.

Actionable

Mathematical rigour is necessary but not sufficient. Our work is structured to produce results that an institution can implement — calibrated models, tractable algorithms, decision frameworks with defined inputs and outputs.

What We Study

Research Focus

Stochastic Control & HJB

Viscosity solutions, policy and value iteration, singular and impulse control, infinite-horizon problems, and free-boundary characterisation.

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Mean Field Games

Nash equilibria in the continuum limit, coupled HJB–Fokker–Planck systems, propagation of chaos, and numerical solution methods for large-population strategic problems.

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Market Microstructure & Execution

Optimal execution via stochastic control, Hawkes process modelling of order flow, SPDE-based limit order book dynamics, and MFG equilibria for strategic traders.

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Numerical PDE Methods

Finite differences, finite elements, upwind schemes, method of lines, and monotone discretisations for degenerate parabolic equations in finance and control.

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Options, Derivatives & Credit

American and exotic option pricing, free-boundary problems, stochastic volatility, Lévy-driven PDEs, credit derivatives, XVA, and Markov credit migration models.

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Scientific Machine Learning

Physics-informed neural networks, deep Galerkin method, and neural operators for high-dimensional HJB and Fokker–Planck systems — implemented in PyTorch, TensorFlow, and DeepXDE.

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Work with IADU

Consulting engagements for quantitative firms and financial institutions, research partnerships, and subscription research reports.