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AnantCausal
Causal AI · Decision intelligence

Know what will actually move the number, before you spend on it.

AnantCausal is a causal AI decision intelligence platform. Describe how your business works in plain English and get a causal model you can read, a straight answer on whether your question can be answered, and a record of every decision.

Bring one real decision. We will run it live in the walkthrough.

1 · The model it built

ShiftconfounderOperator trainingDefectsRework hours

2 · What it tells you

Answerable

Effect of training on defects

Identified by adjusting for Shift. Source of every probability shown.

Not answerable yet

Effect of line speed on defects

An open path nothing you measure can block. You get the reason, not a number.

Illustrative example from the manufacturing scenario. Synthetic data.
The problem

Dashboards tell you what happened. They can't tell you what to change.

Two metrics move together and the meeting turns into an argument about why. The causal story lives in a workshop, a slide or somebody's head, so the budget follows the loudest theory.

  • Correlation looks like an answer

    A spreadsheet flattens a causal chain into two columns that happen to move together.

  • Assumptions go unwritten

    The reasoning behind a decision is rarely captured, so nobody can review it later.

  • Spend follows opinion

    Without a way to compare options on the same model, the strongest voice wins.

AnantCausal makes the causal model an artifact your team can review, challenge and reuse.

Why AnantCausal

Three reasons teams choose a causal model over another dashboard.

  • Spend on what works

    Find the lever that actually moves the outcome, and stop funding interventions that were never going to. The model separates a real cause from a number that merely moves with it.

  • Defend every decision

    Each probability shows its source and each decision is kept beside the analysis it rested on, so “why did we do that?” has an answer a reviewer can check.

  • Decide before you can test

    Experiments are slow, costly and sometimes impossible. A causal what-if analysis gives you a reasoned answer first, and shows which interventions deserve a test.

The same decision, two ways.

Without a causal model

  • Reasoning lives in a slide or somebody's head
  • A correlation stands in for a cause
  • One number, no sense of how wrong it could be
  • Nothing to show an auditor later

With AnantCausal

  • The causal story is written down and reviewable
  • The tool says if the question can't be answered yet
  • An answer with its range and assumptions stated
  • A decision record linked to the analysis
How it works

From a business question to a decision you can defend.

Describe, model, test, decide, record. You can stop at any stage and keep the value.

  1. Step 1

    Describe

    Plain English, a document, a table or a query

  2. Step 2

    Model

    A causal graph with every probability sourced

  3. Step 3

    Test

    Is the question answerable? Can the answer be broken?

  4. Step 4

    Decide

    Compare options, with the range stated

  5. Step 5

    Record

    The decision, kept beside its analysis

From a business question to a decision you can defend.
In the product

See an answer, with its working shown.

This is the AnantCausal console on a health-plan scenario: does completing prior authorization reduce claim denials? The verdict, the source of every number and the assumptions are on the screen, not behind it.

AnantCausal console · Query
The AnantCausal console showing an effect query: completing prior authorization moves the denial rate from 58.7 percent to 23.1 percent. The result is marked identified and fitted from data, and lists its assumptions.
Console screenshot, health-plan scenario with synthetic data.
  • A verdict first

    “Identified” means the question can be answered from this model, and the reason is stated.

  • Sources on every number

    “Fitted from data” tells you these probabilities were computed from counts, not guessed.

  • Assumptions in plain view

    What the answer rests on is listed beneath it, ready to be challenged.

  • See the full health-plan example
What makes it different

When it can't answer, it tells you. It never guesses.

Most tools always return a number. AnantCausal returns a number only when the model supports one, and otherwise tells you exactly what is missing. Each of these is a result, not an error.

  • Not identified

    The question can't be answered from this model

    You get the reason and what would unblock it, instead of a number with a footnote.

    Fix the model, not the data.

  • Missing value

    An outcome has no price

    Unpriced outcomes are refused, not treated as zero, so a gap can't quietly tilt a recommendation.

    Complete the values, then rank the options.

  • Inconclusive

    A stress test didn't finish

    It is reported as inconclusive and never counted as a pass.

    Rerun with more detail, or note the gap.

  • Tied

    Two options are level

    A tie is reported as a tie. No option is dressed up as the winner.

    Buy more information, or pick on other grounds.

Try it

See when “probably helps” turns into “can't tell”.

The most useful thing a causal model reports is how far its answer moves if your assumptions are wrong. Drag the slider and watch the decision change.

1 · Pick an action

Batches with a defect

8.8%

From the manufacturing example. Synthetic data.

2 · How wrong could your assumptions be?

ConfidentUnsure

Effect of training on defect rate

-21.7 to -12.1 points

Training helps across the whole range. The decision holds even if your assumptions are off.

A toy model for illustration. The point estimate is from the manufacturing example; the slider widens an invented range to show how a result changes when it crosses zero. It is not AnantCausal output.

Where it fits

The step before estimation, and the record after it.

Dashboards show what happened. Estimation libraries measure an effect once you have a causal graph. AnantCausal builds and tests that graph, then records the decision.

Dashboards & BI

Show what happened

  • Trends and correlations
  • No causal structure
  • Decisions live elsewhere

Estimation libraries

Measure an effect from data

  • Need a graph you already have
  • Estimate from observed samples
  • Analysis, not a decision trail

AnantCausal

Build, test and record

  • Builds the graph from plain English
  • Says whether the question is answerable
  • Keeps the decision with its evidence

Third-party tools are named factually. No partnership or endorsement is implied.

Built for real workloads

Published limits, not vague promises.

Model size
Up to 24 variables
Query speed
p50 75 ms · p95 272 ms
Concurrency
25 queries, 0 errors
Tenancy
Per-project isolation

Latency figures are development-machine measurements, not production guarantees. See the capacity page for the full envelope and conditions.

Business value

What is a better-informed decision worth to you?

Enter your decisions, your spend and your own assumptions. The calculator shows the arithmetic, with no forecast hidden inside, so you can see how much of your budget rests on a judgment nobody has written down.

Getting started

Start with one decision, not a platform rollout.

  1. 1

    Bring a decision

    A walkthrough on a real decision your team faces. We model it live and show you what it can and can't answer.

  2. 2

    Model it together

    Turn your knowledge into a reviewable model and compare your options, with the assumptions on the table.

  3. 3

    Decide how to grow

    If it earns its place, extend to the next decisions. If it isn't a fit, we will say so.

Self-hosted and licensed around the decisions in scope. No per-query metering, and no extra charge for the record.

FAQ

Questions buyers ask first.

What is decision intelligence?

The practice of improving how an organization makes decisions by combining data, models and human judgment, and by recording how each decision was made. AnantCausal covers the causal-modeling part: it builds a readable model, reports whether your question can be answered from it, stress-tests the answer and keeps the decision on the record.

More detail
How is this different from A/B testing?

An A/B test measures what happened when you changed something for a randomly chosen group. It is the best evidence you can get, but it is slow and many decisions cannot be tested first. A causal model works out what is likely to happen if you act, before you spend, and helps decide which interventions are worth testing. It does not replace experiments.

More detail
Is this a causal inference library?

No. A causal inference library estimates effects from data — doubly robust estimators, causal forests, propensity methods. This does not estimate from data at all. What it does is build the model those libraries need and hand it over with the caveats attached.

More detail
Is that range a confidence interval?

No, and the response says so rather than leaving it to the reader. The band is a sensitivity envelope: the same effect recomputed with each calibrated row moved to the ends of its interval. It names its own basis — sensitivity_envelope, ensemble_envelope, or combined — and it never means sampling error, because an elicited model has no sample to draw error from.

More detail
What happens when it cannot answer?

It says so, names the route it tried, and gives the reason. An unidentified question returns identification not established with a sentence explaining why — usually that an unmeasured common cause of the treatment and the outcome would defeat any adjustment, and that there is no front-door route because the treatment has no child leading to the outcome.

More detail
Where does the AI come in?

In exactly two places, and neither is where the number is computed. A language model can read a document to propose structure, and it can propose probabilities where no counts exist. Both proposals are tagged as elicited — they are claims, not measurements — and the arithmetic that produces an answer calls no model at all.

More detail

Bring a decision. Leave with a model you can defend.

In a walkthrough we build a model of one of your real decisions, test whether it can be answered, and show you the record it leaves behind.