Merlin Intelligence is an open-source collective dedicated to geoeconomic intelligence and knowledge infrastructure. We uncover relevant but non-obvious signals across macroeconomics, energy, trade, defence, climate, business growth, and innovation, then translate them into analytical engines that organisations can adapt, reproduce, and extend
Geoeconomics is the intersection of economic forces and geopolitical dynamics — where trade policy becomes security strategy, where energy infrastructure becomes leverage, where climate commitments reshape supply chains and capital flows. It is the domain where the most consequential signals are also the least obvious.
Merlin Intelligence tracks these intersections across seven domains — spanning geopolitical and macroeconomic forces, and the firm-level dynamics that translate them into competitive advantage or exposure:
The analytical practice is grounded in a single working principle: the most valuable signal is not where consensus is forming — it is where consensus is wrong, incomplete, or about to shift. Our work focuses on identifying those moments before they become legible to the market.
MI's analytical output takes two forms — open publications available to all, and bespoke intelligence missions for clients who need depth, specificity, and discretion.
Regular analytical notes on geoeconomic signals across our five domains. Written for practitioners who want structured analysis, not noise — identifying the relevant-but-not-obvious before it becomes consensus.
Bespoke intelligence mandates for organisations that need deep-dive analysis on a specific geoeconomic configuration — a supply chain, a market entry, a regulatory environment, a geopolitical scenario. Confidential, structured, actionable.
Most of what determines whether an organisation thrives or is blindsided does not live in its dominant narrative. It lives at the margins — in the small number of concepts that keep reappearing from unrelated directions, that connect domains nobody thought were connected, that carry disproportionate structural weight relative to how often they are mentioned. We call these singularities: the relevant-but-not-obvious nodes of a knowledge structure.
A singularity is not a prediction. It is a structural property — computable, auditable, and falsifiable — of the graph that represents what an organisation knows about its world.
Documents, reports and signals embedded and connected by semantic proximity. Singularities here are nodes that bridge otherwise disconnected clusters of meaning — ideas surfacing across unrelated conversations without ever being named as a single concept.
Typed entities and causal relations — what triggers what, under which regime. Singularities here are causal pivots: nodes whose position governs how a shock propagates through the rest of the structure, often invisible until the regime that activates them occurs.
The union graph carries both semantic proximity and causal typing. Singularities computed here are the strongest signal class: structurally marginal in the corpus, yet causally central in the domain model — the combination that precedes regime shifts.
Computing singularities is a graph-theoretic problem. We use spectral methods — the eigenvectors of the graph Laplacian decompose a corpus into clusters at multiple scales — combined with information-centrality measures such as the Lovász number and ℓ∞ bottleneck geometry, which identify nodes that are simultaneously marginal in degree and critical in connectivity.
This is what makes the approach relevant to two concepts central to risk thinking: the Black Swan — a high-impact event so far outside the model that it was, by construction, unforeseeable — and the Grey Rhino — a high-probability, high-impact threat that is visible, well-documented, and persistently ignored until unavoidable.
Eigenmind does not claim to predict Black Swans. What it does is shrink the space of events that feel like Black Swans but are, on inspection, Grey Rhinos that the organisation's own knowledge already contained the means to see — made computable, and therefore actionable while there is still time.
The analytical practice required a robust, open codebase. We open-source our core systems under the MIT license to allow organizations to build, replicate, and extend their own geoeconomic reasoning layers without proprietary dependencies.
eigenmind detects the concepts a corpus keeps returning to from different directions — the structurally unusual, informationally dense nodes that standard search misses. It extracts ontologies from text, weights edges by semantic proximity and causal type, and surfaces the knowledge singularities that precede change: in markets, in geopolitics, in organisations.
olaf (Ontology Learning Agentic Framework) is an MCP server designed to build OWL/RDFS ontologies from unstructured text chunks incrementally and collaboratively with LLMs. By combining Oxigraph for triplestore operations and Qdrant for semantic chunk indexing, it exposes tools that allow LLM agents to map concepts, check duplicates, and construct structured domain knowledge graphs.
The capacity to detect relevant-but-not-obvious signals is not a data problem. It is a knowledge architecture problem — the ability to structure what an organisation knows, make its causal models explicit, and build the infrastructure that allows AI to reason within that framework rather than averaging across the internet.
MI transfers this capacity to organisations through an embedded advisory partnership: domain ontologies built from the organisation's own expertise, knowledge graphs that make causal structure computable, and Graph-RAG architectures that give AI agents a governed, sovereign reasoning layer — deployed on the client's own infrastructure.
What the organisation receives at the end of an engagement is not a report. It is an engine — domain ontologies, open-source code under MIT licence, and the methodology to keep both growing.
MI works alongside organisations as an embedded AI and knowledge R&D partner — transferring capability iteratively through weekly sessions, code delivery, and structured know-how transfer.