Quantitative Trading
Combined with the influx of multi-modal data streams, the complexities and volatility of financial markets present formidable challenges for accurate forecasting and optimal trading decision-making. Traders and analysts must process and synthesise vast volumes of real-time information, ranging from intricate technical chart patterns to breaking news, macroeconomic announcements and market sentiment shifts, all within extremely short time frames.
A critical challenge lies in the effective fusion of heterogeneous financial data types without resorting to oversimplification. Reducing rich, multi-layered information to single-variable sentiment scores risks losing essential context and misrepresenting market dynamics. Capturing these complexities requires sophisticated financial reasoning to monitor evolving events and adapt to market developments in real time. Similarly, the representation of historical fluctuations and technical indicators demands methods that can address their high dimensionality, non-linear dependencies and temporal correlations.
Intractābilis has developed a multi-agent framework purpose-built for quantitative trading to address these limitations. Each agent is specialised in a distinct domain of financial analysis, whether technical, fundamental, sentiment-driven or event-based. The framework enables a modular and interpretable decision-making process. This structure facilitates faster iteration cycles, reduces model training overhead and allows targeted performance tuning within specific analytical domains, leading to enhanced robustness and adaptability. By combining strong interpretability with integrated visual and textual reasoning capabilities, our framework directly addresses the core shortcomings of existing quantitative trading approaches, offering both operational transparency and demonstrable alpha generation.
Diffusion Modelling for Robust Covariance Matrix Simulation
In the context of high-dimensional financial data and extreme market movements, conventional data simulation methodologies often fail to capture the full complexity of market dynamics. Approaches grounded in Gaussian distributional assumptions tend to understate tail risk and may yield unstable covariance matrices when scaled to multivariate scenarios. These limitations can result in materially underestimated drawdowns, an increased propensity for overfitting, and the generation of misleading performance indicators.
Intractābilis has developed an advanced covariance matrix simulation framework that leverages diffusion-based generative modelling specifically adapted to financial time-series data. Anchored in stochastic differential equations (SDEs) and augmented by state-of-the-art machine learning techniques, this method synthesises market data that reflects historical statistical properties while remaining adaptive to rare, high-impact market behaviours.
By embedding this generative capability within the diffusion modelling pipeline, our solution enhances the robustness of risk assessment processes, strengthens the model testing environments, and delivers inherent regularisation without the need for artificial shrinkage techniques or oversimplified factor structures. This enables resilient portfolio strategies, credible stress-testing scenarios, and a clearer understanding of potential loss distributions in adverse conditions.
Robust Reinforcement Learning Pipelines for Quantitative Trading
Minimising trading risk while maximising profitability in financial markets requires a disciplined and systematic approach to forecasting both asset prices and the trends that follow. This is a highly complex and dynamic undertaking, complicated by uncertainty over which factors should be prioritised in decision-making. The task is further challenged by rapid market fluctuations, non-stationary price patterns, and intensifying competition from opaque proprietary systems. For financial institutions and trading desks, these factors make it increasingly difficult to develop automated trading strategies that are not only high-performing in historical back-tests but also resilient and transparent in live market conditions.
Intractābilis has developed a structured reinforcement learning (RL) pipeline specifically tailored for quantitative trading. This framework combines rigorous signal engineering, precise reward modelling, and empirical algorithm benchmarking to enable more intelligent and robust trading decisions. The pipeline is designed to strike an optimal balance between return generation and operational stability, ensuring its applicability across varied market scenarios. Our solution demonstrates how RL agents can leverage selected financial indicators within defined market conditions and trend phases to improve prediction accuracy. By analysing the correlations between indicators, we identify those that provide unique and actionable information to the agent, enhancing its decision-making efficiency. Importantly, the system supports continuous learning, allowing the agent to adapt dynamically as market environments evolve.
The solution is built as an open and modular architecture that integrates seamlessly with existing trading platforms. It serves as both a deployable tool and a practical blueprint for creating RL-driven strategies that are interpretable, tunable, and resilient to regime shifts, offering traders a competitive edge through adaptability and transparency.
Context-aware Multi-Source Search Agent for Real-Time Financial Analysis
Traditional search tools often fail to extract precise and contextually relevant financial data to identify short-term arbitrage opportunities, prepare for earnings calls, and monitor policy developments. The challenge is compounded by the highly dynamic nature of financial data, where stock prices shift by the minute and market factors are intricately interconnected. Effective decision-making in this environment depends on the ability to rapidly integrate and interpret information from diverse, real-time sources.
Intractābilis has developed a search agent framework purpose-built for financial applications. At its core is an LLM-powered multi-step search pre-planner, which decomposes user queries into structured sub-queries represented as a graph. Each sub-query is mapped to a dedicated financial API or information source, ensuring comprehensive coverage across market news, economic data, corporate disclosures and trading analytics. This structured approach offers precise control over the search process while maintaining flexibility in the sources it can engage.
The architecture is modular and adaptive. It dynamically routes sub-queries to the most relevant data sources, synthesises the returned information, and tailors the final output to the user’s specific context. An LLM-based adaptive query rewriter refines sub-queries in response to intermediate search results, ensuring the process remains responsive to evolving market conditions. A temporal weighting mechanism further enhances the system by prioritising information according to the time sensitivity implied by the user’s query, an essential capability for accurate and timely financial analysis.
This solution fundamentally redefines the discovery, interpretation and delivery of financial intelligence. By uniting structured search planning, real-time adaptability and temporal awareness, it empowers market participants to operate with clarity and speed in an environment where opportunities and risks emerge and vanish in seconds.
Quantum Distributional Multi-asset Forecasting
Financial institutions continually seek more accurate and computationally efficient forecasting tools to support trading decisions, risk management, and portfolio optimisation. However, stock prices are inherently volatile, influenced by market activity, news events, and a wide range of external factors. These short-term fluctuations often introduce noise that can significantly degrade model performance.
Conventional stock prediction approaches typically rely on entire historical data and rely on separate models for each asset. Such methods are often inflexible, resource-intensive, and unable to exploit the nuanced interdependencies between assets.
Intractābilis has developed an advanced Quantum Neural Network architecture that addresses these challenges by enabling simultaneous prediction of multiple asset prices within a single quantum circuit. This design incorporates task-specific operators controlled by quantum labels, allowing a portfolio to be represented with only logarithmic growth in qubit requirements. By effectively capturing cross-asset dynamics, the architecture enhances risk assessment and supports more informed portfolio construction. Moreover, the use of quantum gradient updates accelerates convergence, reducing both training costs and time to deployment.