Systematic, risk-managed research &
market intelligence

Tail risk, regime transitions, and market-structure shifts — measured rigorously, validated forward, and claimed only when proven.

160+registered hypotheses
~50published nulls
5papers on SSRN
7+
Independent Signal Engines
167
Academic References
55000+
Validated Experiments
24/7
Live Computation
Research & Perspectives
The Big Ideas
Autonomous allocation changes everything: the structural advantages of continuous, automated portfolio management — and why they compound over time.
75 days
Traditional Latency
<1 sec
Autonomous Latency
$1.9M
30yr Fee Differential
Explore Ideas
Signals we can measure. Claims we can defend.
Our research produces signals that are orthogonal to conventional quant factors. Each capability below is generated using the statistics of stochastic processes.
 MeasurementReading
01Structural Tail Risk Estimation
Quantifies the real-time probability of a market regime transition into crisis. The signal is pre-registered in our research log and evaluated forward-prospectively — not tuned on replayed historical crashes.
Live · real-time regime-transition probability
02Signal-to-Noise Decomposition
Separates genuine price momentum from microstructure noise and liquidity artifacts. Delivers a real-time signal quality score that tells you whether a move is driven by informed flow or temporary friction.
0–1 · continuous quality score per asset, per cycle
03Adaptive Rebalancing Triggers
Monitors the structural stability of asset relationships in real time. Instead of trading on a fixed schedule, our architecture identifies exactly when portfolio factor exposures have shifted enough to warrant action — acting on measured structural change rather than the calendar.
LIVE · event-driven trigger cadence
04Market Regime Classification
Classifies the current market environment into one of four distinct regimes on a continuous coordinate system. Each regime maps to a measurably optimal allocation strategy, replacing subjective regime labels with quantitative precision.
4 · quadrant classifier · updated every cycle
05Structural Breakdown Detection
Combines topological analysis of market microstructure with regime transition modeling. Detects when the geometry of return distributions is shifting before it becomes visible in price or volatility.
2 · independent signal layers cross-confirmed
06Multi-Scale Regime Velocity
Analyzes how market dynamics shift across timescales — from intraday through weekly. Cross-scale divergence surfaces when short- and long-horizon dynamics decouple and feeds the regime read as one input among several — treated as a hypothesis under forward validation, not a settled early-warning signal.
intraday–weekly · cross-scale regime input

Lineage, stated plainly: the eigenspace-rotation measurement builds on established results on the dynamics of correlation-matrix eigenvectors (Allez & Bouchaud, 2012) and on principal-angle geometry between subspaces. Our contributions are the topological stability measure published in the SSRN series and the use of the rotation rate as a live rebalancing trigger.

What the output looks like
Every reading below drives a specific portfolio action. These are representative instruments from the live feed subscribers receive daily — via API, email, or dashboard — each tied to a concrete risk or allocation decision.
Structural Fragility
P( drawdown > 5% · 30d forward )
0%
today · +16 / 30d
Elevated
Trims concentrated equity, adds tail hedges and raises cash the moment fragility enters the elevated band — a rules-based response, not a forecast.
Factor Eigenspace
Principal-subspace rotation rate
0.0°
per day
Rotating
Detects the hidden factor structure rotating — correlations breaking down — while they still look normal in variance.
Multi-Horizon Risk
Stress intensity across forecast horizons · last 90 sessions → now
0
horizons elevated
Sizes and times hedges to the specific horizon where risk is concentrating — short-fuse shocks and slow regime drift call for different books.
Pre-registered, validated forward
Every signal is pre-registered with a frozen threshold before observations are recorded, then validated forward under statistical rigor. A signal is not promoted to live sizing until it clears the Harvey (2016) t>3 bar on a frozen, out-of-sample window.
Pre-Registered & Tracking
Live

Tail Risk Advance Warning

Primary crash signal spanning SPY, QQQ, IWM, DIA, and EEM, with a frozen threshold and lead-time window pre-registered in our research log. It continues live tracking for prospective Harvey-significance validation — a forward, out-of-sample evaluation rather than a retrospective replay of historical stress events.

Live Deployment
24/7

Forward-Validation Harness

A multi-asset research book runs live and continuously — equities, digital assets, and derivatives — as the prospective, out-of-sample test bed for the signal registry. Allocation and risk management operate automatically so that every frozen-threshold hypothesis accrues genuine forward observations, not in-sample fits.

The live book is a validation instrument. We do not headline live returns: a signal earns a capital allocation only after it clears statistical validation, not before.
Pre-Registered
11

Hypotheses Under Test

Every signal has a pre-registered hypothesis with defined null conditions, required sample sizes, and multiple-testing correction. Over 65,000 prospective observations recorded across the registry. Validation architecture enforces statistical discipline automatically — signals are not promoted to live sizing until they clear the Harvey 2016 t>3 threshold on a frozen sample.

Live Tracking
27

Numerai Signals · Rounds Resolved

Our research model submits weekly to the Numerai Signals blind tournament for independent third-party validation. Resolved rounds counted here; full per-round scores published on the performance page. We do not claim a score until the tournament’s own robust-evaluation quorum is reached — Numerai’s Alpha metric requires a multi-month track record before it stabilises.

External validation is a multi-month process. We report resolved scores as they come in — not as they were expected to.
What we tested — and what we killed
Most “AI market prediction” sells a confident guess about the one thing that is provably hard to estimate: which way price moves next. We do the opposite. We measure what markets actually reveal, keep only the edges that survive out-of-sample testing, and openly record the ones that don’t. You can trust what we do claim precisely because we show you what we rejected.
CONFIRMED
Volatility-risk-premium income. Selling insurance the market systematically overpays for. Survives multiple-testing correction across stress periods; forward-validated in the live book.
CONFIRMED
Trend-following (sign, not magnitude). You can’t forecast how much an asset returns, but its direction carries and self-corrects. A confirmed, risk-managed carry of that persistence.
FORWARD
Positioning / crowding density. A measurement of where capital is concentrated — not a price forecast. Pre-registered and accruing out-of-sample observations before any claim is made.
REJECTED
“Predict the next move.” An asset’s expected return is provably hard to estimate from its own price history — the reason most AI-prediction products quietly fail. We tested it. It does not survive. We don’t sell it.
REJECTED
Cross-asset “gap” trades. Tested across hundreds of asset pairs over two decades. Efficient markets have already arbitraged the tradeable ones flat. No durable edge — we moved on.
Most hypotheses we test are rejected — that is the discipline, not a shortcoming. The full methodology and the register of results are in our published research.
Rigorous foundations, peer-quality standards
Our signal architecture applies the statistics of stochastic processes, grounded in 167+ academic references. Six papers from the research program are published on SSRN, with further work in the publication pipeline. The full-length working papers behind them (the whitepaper, educational series, literature survey, and system specification) are in preparation for formal publication and are available on request; proprietary implementation details remain internal.
Derivative design as a research tool
Beyond pricing existing contracts, the same mathematical architecture can be used to explore new payoff structures — for example, instruments referenced to signal quality, regime transitions, or factor stability. This is an active research direction, not a product offering: candidate structures are studied and stress-tested in the Structuring Lab, not sold. Explore the Structuring Lab →
Research, market intelligence, and related publications
Selected academic work, market observations, and internal research directly connected to the mathematical methods underpinning our signal engines.

Twelve articles — five results, three methods, four essays. Full index

Subscriptions are not currently offered
The published research, papers, and insights remain freely available — read the research.

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