Hyperposition / causal intelligence for complex systems

Where events become consequences.

Hyperposition maps how real-world change moves through dependencies, regimes, feedback loops, and outcomes. Markets are the first measurable proving ground, not the boundary of the engine.

First proving ground: Markets Underlying engine: Complex systems
Scroll to decode
Title Cause to consequence Lorenz graph Across systems One signal What we follow Small team Contact
Scroll through the signal stack

From cause to consequence

Before a clean curve appears, the signal passes through screens, substitutes, supply links, contracts, public decisions, and lagged responses. The page now lets that depth build before the Lorenz plate arrives.

— Aside · Why This Curve

A small system, enormous consequences

The moving point is hard to call step by step. But it keeps drawing inside the same strange shape: chaotic locally, structured globally. We use it here as a metaphor, not a price model.

Markets are less tidy than equations, but the lesson travels well. The next tick is noisy; the pathway that noise tends to follow is where the useful signal lives.

FIG. III · LORENZ ATTRACTOR · σ=10 ρ=28 β=8/3
dt = 0.006 · rotating frame

Across markets and systems

— 01 / Approach

Most markets are modeled as if they were independent. They aren't. A shortage in one commodity reshapes the cost basis of every industry that depends on it, and the prices of every substitute, complement, and adjacent asset shift accordingly.

Hyperposition builds explicit models of these dependencies, then checks them against history. When an upstream signal moves, the question is practical: which downstream markets respond, by how much, and on what lag?

"Price the consequence, not the surprise."
01 / intake Event feed

Raw shocks enter from market data, documents, policy feeds, logistics signals, and physical-world observation.

One signal, many markets

— 02 / Pathway

Start with one upstream shock, then watch it fan out. The engine keeps the signal fixed while each downstream market gets its own dependency path, lag window, and modeled response.

Each line is a market we model. Each lag is a window of forecast horizon.

— 02.A · CAUSAL MAP

How the signal travels

CHILE STRIKE root event COPPER SUPPLY −6% PORT DELAYS lane friction CONTRACTS force majeure LME COPPER +5.4% / T+7d BATTERY +3.1% / T+42d STEEL +2.5% / T+56d AUD / USD +0.9% / T+63d FREIGHT lanes / T+21d LEGAL RISK clauses / T+35d
A disruption occursChile miner strike
The system detects itCopper supply -6%
Maps effectsinventory, contracts, substitutes
Ranks opportunityLME copper first
Outputs actionwatch long copper confirmation
— 02.B · PRICE RESPONSE

And what it does to prices

What we follow

— 03 / Coverage
Enginecausal map

A small team, a specific bet

— 04 / About

Hyperposition is built around a simple discipline: read the source data, map the dependency chain, and test whether the second-order move has already been priced.

Commodities are the first proving ground because the causal structure is visible. The same machinery can extend into logistics, insurance, cybersecurity, policy, and other domains where early signals matter.

Signal proof loop Where raw change becomes a tested forecast.
source feeds118 mapped
dependency links9 domains
history window12y tested
forecast lagT+21 to T+90
Backtest first, forecast second, then watch the lag window.

Get in touch

We'd like to hear from researchers, allocators, and operators who think about markets the way we do. Drop us a note.

contact@hyperposition.markets →
Hyperposition · Atlanta, Georgia · Est. 2026