Intelligence Fusion
Combine sensor data, human reporting, geospatial information, open sources, and prior models into a common evidence graph without erasing source identity or reliability.
Deimos-One Starlab // Data Science
Starlab develops research systems that fuse incomplete information, test competing explanations, forecast adversarial futures, and produce traceable decisions under uncertainty.
Research mandate
Operational data is delayed, duplicated, biased, adversarial, incomplete, and frequently contradictory. A useful system cannot merely calculate faster. It must determine what is known, what is uncertain, which evidence is decaying, and which explanation still survives contact with new information.
Starlab treats data science as the engineering of belief, prediction, and decision. The objective is not a dashboard. The objective is a defensible operating picture that can change as the environment changes.
Build systems that expose uncertainty, preserve provenance, contest their own assumptions, and still produce an actionable decision.
Active research domains
Our data science work focuses on the layers between collection and action: fusing evidence, generating explanations, forecasting outcomes, quantifying uncertainty, arbitrating models, and structuring the final decision.
Combine sensor data, human reporting, geospatial information, open sources, and prior models into a common evidence graph without erasing source identity or reliability.
Estimate evolving system states, detect regime shifts, and generate bounded predictions when historical conditions no longer resemble the present.
Build branching futures, counterfactuals, indicators, and warning thresholds to examine how complex systems may evolve under adversarial or discontinuous conditions.
Compare independent models, expose disagreement, score reasoning quality, challenge unsupported claims, and construct a final answer without pretending consensus exists.
Represent confidence, evidence quality, temporal decay, hidden assumptions, and unknown unknowns as first-class system objects rather than burying them inside a single score.
Convert intelligence and forecasts into structured courses of action with constraints, tradeoffs, trigger conditions, human authority, and an auditable decision path.
Cognitive architecture
A single algorithm cannot carry the full burden of collection, interpretation, forecasting, challenge, and action. Starlab decomposes the problem into explicit research layers so each assumption, transformation, and decision can be inspected.
Model arbitration
Starlab research treats model conflict as a signal to investigate, not a nuisance to average away. Independent models are compared against evidence, constraints, temporal validity, causal coherence, and known failure modes before a final assessment is constructed.
Uncertainty engineering
Reliable systems distinguish observation from inference, confidence from evidence coverage, and known risk from missing knowledge. They also understand that stale information and adaptive adversaries can invalidate yesterday’s strongest model.
Starlab research represents uncertainty across source reliability, temporal freshness, model calibration, hypothesis competition, scenario sensitivity, and unobserved state. The system does not merely return a score. It returns the structure behind the score.
Strategic forecasting
Strategic environments are shaped by adaptation, feedback, nonlinear thresholds, and actors who react to being observed. Starlab develops scenario systems that expose alternate futures, identify discriminating indicators, and specify what evidence would force the forecast to change.
Operating environments
The methods are designed for environments where data is scarce, timing matters, adversaries adapt, and a plausible answer is not enough.
Fuse multi-domain reporting, detect changing threat states, and support time-sensitive courses of action under contested information conditions.
State // dynamicModel sparse observations, orbital or atmospheric uncertainty, mission state, and evolving constraints across persistent autonomous systems.
State // partially observedIdentify weak signals, competing explanations, escalation pathways, and indicators that distinguish one future from another.
State // anticipatoryAnalyze infrastructure, logistics, economic, and operational networks where cascading effects can outpace conventional monitoring.
State // coupledResearch program model
Starlab programs begin with an operational decision that existing data, models, or workflows cannot support reliably. Research is structured around the evidence, uncertainty, adversary, and transition path required to close that gap.
The output is a working artifact, validated model, technical finding, or defensible program decision—not a presentation about the problem.
Identify the action, authority, timing, evidence, and failure consequences the system must support.
Establish source identity, provenance, temporal alignment, reliability, and data-quality controls.
Develop estimators, forecasts, hypotheses, and model ensembles appropriate to the uncertainty structure.
Red-team assumptions, expose brittle behavior, introduce deception, and measure calibration under stress.
Test against historical, synthetic, adversarial, and live-like scenarios with explicit acceptance criteria.
Deliver software, model artifacts, technical findings, interfaces, and decision logic that can enter the operating system.
Program inquiries // controlled intake
Engage Starlab on advanced AI, intelligence fusion, predictive modeling, strategic forecasting, model arbitration, uncertainty engineering, and decision-system research.