Seasonality Detection & Predictive Modeling in Global Futures

Seasonality modeling Time-series ML Representation learning Pattern similarity Continuation vs. mean-reversion Backtesting at scale Explainability Model governance

A private investor asked Marsbridge to determine whether seasonal regularities in global futures could be transformed into predictive, ML-driven signals. We built a research pipeline that quantifies recurring seasonal patterns, evaluates continuation vs. mean-reversion behavior, and augments the analytics with supervised machine learning for out-of-sample prediction—delivered with strict guardrails to avoid data leakage and protect proprietary strategy details.

Customer

Client Private Commodity Research Investor, USA
Industry Commodities / Managed Futures
Region USA (global markets)
Engagement Multi-phase research & tooling

The client sought evidence-based seasonality analytics and a predictive layer able to generalize across markets and regimes without exposing trading thresholds, universe selections, or exact entry/exit templates.

Challenge

Solution

Approach: A compact Marsbridge squad—Quant Lead, ML Engineer, Data Engineer, Research Analyst—implemented an objective seasonality engine, an ML prediction layer, and an evaluation harness with explainability and governance.

Seasonality engine (generalized & vendor-neutral)

Seasonality engine (generalized & vendor-neutral)

Computed pattern similarity to a historical seasonal template and risk-aware scores that emphasize tradability over raw returns.

Machine-learning layer (supervised prediction)

Machine-learning layer (supervised prediction)

Built out-of-sample targets for “probability of continuation vs. reversion” using de-biased features, tree-based learners, and temporal encoders.

Testing & governance

Testing & governance

Enforced strict train/test chronology, ran parameter-robust sweeps, and produced feature-importance and reason codes (e.g., SHAP-style summaries).

Technologies & tools

Languages & libs

Python, pandas/NumPy, scikit-learn / PyTorch-class frameworks, plotting/reporting libraries

Pipelines & storage

Reproducible notebooks/scripts, versioned datasets, neutral file/DB storage

Explainability & governance

Model-explainability libraries, reproducible reports, audit checklists

Process

  1. Discovery & scope: Define seasonal hypotheses and ML objectives; agree on governance and redaction boundaries.
  2. Data readiness: Build a vendor-neutral historical panel; standardize calendars and rolls.
  3. Seasonality engine: Compute pattern similarity and risk-aware scores over multiple window families (parameters generalized).
  4. ML modeling: Train supervised models with time-aware validation; add calibration and abstention.
  5. Evaluation: Summarize out-of-sample envelopes; produce explainability artifacts and reviewer-ready reports.
  6. Handover: Deliver code, documentation, and sanitized dashboards—no strategy thresholds or entry/exit rules included.

Team

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1
Quant Lead
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2
ML Engineer
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1
Data Engineer
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2
Research Analyst
Delivered as a cohesive team effort, with ML and research functions clearly separated from any downstream strategy implementation.

Results

All metrics, parameter values, window lengths, asset lists, and trade templates have been intentionally generalized or removed. This document describes methodology and tooling, not trading performance.

Put Seasonality on an ML Foundation

Exploring seasonal edges but worried about bias or overfitting? We build objective seasonality engines with supervised, leakage-safe ML and governance-ready reporting—so you can test ideas without revealing your strategy.

Request a Consultation

Drop us a line! We are here to answer your questions within 1 business day.

What happens next?

1

Once we’ve received and processed your request, we’ll get back to you to detail your project needs and generally sign an NDA to ensure confidentiality.

2

After examining your project requirements, our team will devise a proposal with the scope of work, team size, time, and cost estimates.

3

We’ll arrange a meeting with you to discuss the offer and nail down the details.

4

Finally, we’ll sign a contract and start working on your project with agreed timeline