GeoUnify_Paper_PIPU_2026

Photonic computing platforms—including Photonic Intelligence Processing Units (PIPUs)—offer unprecedented speed for matrix multiplication and AI inference. However, speed alonedoes not guarantee predictive accuracy: when the input signal is dominated by market-makercompensation (i.e., manipulation), any model—photonic or digital—will process noise. Wehave designed a deterministic geometric model that simulates and predicts the behaviorof a photonic intelligence platform under real market conditions. This model incorporatesthe Market Equilibrium Compensation Factor (MECF), an original contribution ofthe first author, which detects when the market is being actively compensated and abstainsfrom predicting. We validate the MECF on a 10-year walk-forward backtest across sixasset classes. Results show a statistically significant improvement in BTC (57.79% accuracy,+6.32%, p=0.0135) and a 4.4× increase in throughput. We argue that the MECF providesa preventive and profitable investment methodology: it does not predict every day, but onlywhen the geometric structure of the market is stable

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-29
DOI
https://doi.org/10.5281/zenodo.23782717
Primary Topic
Stock Market Forecasting Methods
Type
preprint
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GeoUnify_Paper_PIPU_2026

Edgar Jose Rojas Gonzalez
Zenodo (CERN European Organization for Nuclear Research)
Stock Market Forecasting Methods
preprint

GeoUnify_Paper_PIPU_2026

Edgar Jose Rojas Gonzalez
preprint en

Abstract

Photonic computing platforms—including Photonic Intelligence Processing Units (PIPUs)—offer unprecedented speed for matrix multiplication and AI inference. However, speed alonedoes not guarantee predictive accuracy: when the input signal is dominated by market-makercompensation (i.e., manipulation), any model—photonic or digital—will process noise. Wehave designed a deterministic geometric model that simulates and predicts the behaviorof a photonic intelligence platform under real market conditions. This model incorporatesthe Market Equilibrium Compensation Factor (MECF), an original contribution ofthe first author, which detects when the market is being actively compensated and abstainsfrom predicting. We validate the MECF on a 10-year walk-forward backtest across sixasset classes. Results show a statistically significant improvement in BTC (57.79% accuracy,+6.32%, p=0.0135) and a 4.4× increase in throughput. We argue that the MECF providesa preventive and profitable investment methodology: it does not predict every day, but onlywhen the geometric structure of the market is stable

Zenodo (CERN European Organization for Nuclear Research)
Viña del Mar University (CL)
Stock Market Forecasting Methods
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GeoUnify_Paper_PIPU_2026 — Edgar Jose Rojas Gonzalez · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS