What DCG is and why it exists
The domain-agnostic causal operating model: representations, intervention logic, world branching, validation and governed action.
DCG Intelligence is a causal operating model for high-stakes intervention: it structures evidence, reconstructs counterfactual worlds, challenges causal claims and carries qualified options through explicit governance. This release introduces the framework, reproduces a 39-state empirical benchmark and maps independent deployment pathways.
The domain-agnostic causal operating model: representations, intervention logic, world branching, validation and governed action.
A reproducible evaluation using California Proposition 99, 38 donor states, synthetic controls and explicit stress tests.
Separate deployment blueprints for defence, cyber, strategy, agriculture, health, energy and sovereign intelligence.
Most dashboards describe what happened. Most forecasts extend what already exists. DCG Intelligence models what changes when you intervene—and keeps every assumption, branch and result auditable.
Define identities, state, mechanisms, constraints, evidence and authority before a model is allowed to recommend action.
Compare action, inaction and alternative interventions through explicit counterfactuals and versioned scenario branches.
Use holdouts, placebos, sensitivity tests, falsification and external benchmarks to expose fragility.
Carry qualified evidence into authority, execution, monitoring and learning without losing the decision lineage.
DCG combines capabilities that are usually fragmented across knowledge graphs, forecasting tools, simulators, causal inference packages and governance workflows.
Stable identities, state, forces, direction, couplings and provenance.
Construct counterfactuals and measure the difference an intervention makes.
Test whether the model closes consistently before trusting the break.
Fork versioned worlds while preserving lineage and evidence class.
Apply admissibility gates, authority and continuous learning.
Map coercion, resources, legitimacy and luminosity when power is decision-relevant. SGM is part of the wider framework, not an input to the Proposition 99 effect estimate.
The central question is not “what comes next?” but “what changes if we act, wait, redirect or stop?”
Every scenario inherits a traceable parent, evidence state, intervention and causal graph diff.
DCG exposes where evidence is strong, where it is suggestive and what must be learned next.
This section reproduces a public implementation of the DCG causal pipeline. It evaluates whether California cigarette consumption after the 1989 intervention differed from a credible no-policy counterfactual.
In 1988, California approved Proposition 99: a US$0.25 cigarette tax increase plus a statewide tobacco-control program.
California after the policy is observable. California without the policy is not. That unobserved trajectory is the case-specific causal question.
The implementation reconstructs the counterfactual from 38 untreated states, then challenges the result across time, donors and spatial placebos.
The public model estimates 19.7 fewer packs per capita per year, closely reproducing the magnitude reported by the peer-reviewed study.
The published line applies the five donor weights reported in the 2010 study. The independent line is recalculated here from outcome history alone, with λ = 0.1 and 3,500 deterministic iterations.
Negative values mean observed sales fell below the estimated no-policy world.
The live model finds a weighted combination of donor states whose pre-1989 trajectory resembles California.
| State | Stable identity | F512* | Weight |
|---|
This section tests the Proposition 99 estimate across space, time and composition: 39 state placebos, a temporal holdout, a false intervention date, donor removal and alternative pre-policy windows.
Every state is treated as if it had implemented the policy in 1989. California should stand apart if the signal is meaningful.
embedded referenceThe model is re-estimated after removing each of its six largest donor weights.
Tests whether the signal survives shorter histories and whether a similar break appears before the real policy.
Applied to the pre-1989 gap, the closure operator is an estimated AR(1). Contraction means small discrepancies tend to return toward a local fixed point—giving the post-policy break a stable baseline against which to be interpreted.
This section defines the general architecture. Proposition 99 appears as a clearly identified mapping between the framework and case-specific evidence.
| Layer | Core fields | Role in this demonstration |
|---|---|---|
| CTPS | State · Force · Direction · Coupling | Represents observed state, policy force, expected direction and empirical couplings. |
| Causal engine | treatment · donors · counterfactual · effect | Builds the synthetic California and measures the intervention gap. |
| Bootstrap/Closure | operator · fixed point · stability | Tests closure of pre-policy error and characterizes the structural break. |
| FSE | Context · Agents · Mechanisms · Outcomes | Versions observed, counterfactual and exploratory worlds with lineage. |
| SDE/SLP | gates · admissibility · authority | Converts analysis into a governed decision process rather than a naked ranking. |
This graph maps the general unit into Proposition 99 solely to show how framework fields receive case-specific evidence.
| Type | Meaning | In this case |
|---|---|---|
| hard_do | sets a variable directly | outside the current case design |
| parameter | changes a structural parameter | US$0.25 tax increase per pack |
| policy | changes institutional rules and allocation | statewide tobacco-control program |
| topology | changes causal relationships | future mechanism study |
| observation | updates evidence without acting | annual cigarette sales |
These are independent deployment pathways. Each establishes its own evidence pack, domain model, validation protocol and governance policy.
Which force posture preserves mission readiness when a port, corridor, supplier or communication layer is disrupted?
What should be patched, isolated or monitored first to reduce real blast radius—not merely the highest vulnerability score?
If a competitor changes price, capacity or geography—or a sanction hits a supplier—where does the impact propagate next?
Which strategy remains governable across demand shocks, regulation, competitor adaptation and execution constraints?
Which combination of irrigation, planting window, cultivar and fertilizer protects yield under weather and price volatility?
Which intervention improves outcomes without shifting risk, cost or congestion elsewhere in the health system?
Where should storage, redundancy, demand response or maintenance be deployed to prevent cascading failure?
How should mobility, water, health, energy and economic interventions be sequenced when they share resources and create cross-sector effects?
Representative primary sources for internationally auditable demonstrations.
Domain expertise changes the graph and evidence. The operating discipline remains stable.
Version sources, identities, measurements, assumptions and known gaps.
Encode mechanisms, couplings, interventions and plausible interference.
Use holdouts, placebos, sensitivity, falsification and external benchmarks.
Authorize, monitor, update and learn through an auditable decision cycle.
These controls extend the case model only. Adjust policy strength and timing to see how a scenario branch is generated while preserving which trajectory is observed, estimated or exploratory.
This record documents the public benchmark case. Every future DCG deployment receives its own evidence and decision record. The full CSV and computations live inside this file.
| ID | Claim | Status | Evidence | Evidence scope |
|---|
| Source | Use | Provenance / note |
|---|---|---|
| Abadie, Diamond & Hainmueller, JASA 2010 | Method, case, published weights and placebos | Peer-reviewed article; the original specification includes additional covariates. |
| Full paper · MIT Economics | Complete method, findings and limitations | Published result: nearly −20 packs per year on average and p = 1/39. |
| california_prop99.csv · synthdid | Panel executed in this file | Derived from Abadie et al.; 1,209 rows, 39 states, 1970–2000. |
| synthdid documentation | Public dataset distribution chain | Academic implementation and replication materials. |
| California Department of Public Health | Intervention and legislative mandate | Government source for approval, tax increase and program allocation. |
This edition publishes the evidence chain required to inspect and reproduce the benchmark. Controlled research artifacts, internal document identifiers and development records remain in the governed DCG research archive.
The California Proposition 99 panel is redistributed from the synthdid research package and derives from Abadie, Diamond and Hainmueller (2010).
| Copyright | Copyright 2019, Stanford University |
|---|---|
| License | BSD 3-Clause; redistribution conditions and warranty disclaimer apply. |
| Terms | Official license notice and disclaimer |