Retail AI Architecture

The retail AI engine behind every CINDE decision

60+ predictive and diagnostic models. 20+ specialized AI agents. A retail knowledge graph with 170+ entity types. Purpose-built for retail, not adapted from generic AI.

Most retail AI projects don't scale

Generic AI platforms ship with empty ontologies. Before they can answer a retail question, your team spends months building data models and training on retail-specific patterns. CINDE is retail-native. The ontology already understands product hierarchies, promotional mechanics, and shelf-to-sales linkage. Your team configures and extends from day one.

CINDE's AI engine operates in a continuous six-stage loop

Each stage feeds the next, and outcomes from the final stage feed back into the first.

1. Detect

What is happening?

Multi-method anomaly detection (z-score, IQR, distributional change-point analysis), trend detection with slope significance testing, and shelf image recognition via computer vision. The system finds problems before users ask.

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2. Attribute

Why did it happen?

Causal driver identification using debiased ensemble inference (Double ML, Causal Forests). Shapley-value metric decomposition guaranteeing 100% attribution across volume, price, and mix. Feature importance ranking via SHAP. No unexplained residuals.

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3. Predict

What will happen next?

14 proprietary forward-looking models covering promotion effectiveness, price impact, demand transfer, new item forecasting, on-shelf availability prediction, customer lifetime value, and scenario simulation. Each model operates within the shared knowledge graph for cross-lever reasoning.

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4. Simulate

What if we tried this?

Digital twin simulation modeling cross-lever P&L impact (price, promo, assortment, space) before execution. Monte Carlo stochastic simulation with learned effect priors and competitive response dynamics. Test any decision virtually before committing real resources.

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5. Optimize

What should we do?

Multi-objective optimization across competing goals (sales, margin, CLV) under real-world constraints (budget, competitive position, frequency limits). Cross-lever optimization that prevents conflicting recommendations across price, promo, and assortment.

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6. Learn

How do we improve?

Bayesian online updating refines effect estimates with every action taken. Backtesting validates predictions against historical outcomes. Prediction monitoring catches model drift before it reaches users. Attribution validation ensures every causal claim passes a minimum explained variance threshold (70% or higher) before surfacing.

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The retail knowledge graph

CINDE's knowledge graph is the foundational data layer

It replaces the traditional approach (ETL pipelines feeding a monolithic database) with a multi-model graph database connected to internal and external data sources through connectors and APIs.

– 170+ entity types
– 350+ relationship types
– Organized into a canonical retail ontology

Diagram of a retail knowledge graph with four hubs around a central block labeled 'RETAIL KNOWLEDGE GRAPH 170+ entities 350+ relationships.' The four hubs are Customer hub with an icon of a person and terms Segment, Household, Loyalty, Shopper; Supply chain hub with an icon of stacked boxes and terms Warehouse, Carrier, Inventory; Product hub with a megaphone icon and terms Brand, Category, Pricing, Supplier; and Store hub with a storefront icon and terms Region, Aisle, Fixture, Planogram. Each hub belongs to a class: Customer Class, Shipment Class, Product Class, and Store Class arranged clockwise.
Every model and every agent operates on the same shared ontology

A promotion effectiveness model and an assortment optimization model see the same product, the same store, the same customer segment. This eliminates the data reconciliation problem that plagues multi-vendor analytics stacks, where different tools define "category" or "store cluster" differently and produce conflicting recommendations.

Diagram showing models and agents on the left: Promotion Effectiveness, Assortment Optimization, Demand Forecasting (all predictive models), and Shelf Execution (AI agent) connecting to a central Retail Knowledge Graph representing shared ontology with 170+ entity types, 350+ relationship types, and one canonical retail ontology. On the right, every model sees the same product, store, and customer segment illustrated as a stacked block.

Four data hubs

Pre-built for retail. Connected by design.

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Product Hub

Connects:
Brand, category, pricing, supplier, lifecycle

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Customer Hub

Connects:
Segment, household, loyalty, preferences

White storefront icon with a striped awning.
Store Hub

Connects:
Geography, department, fixture, planogram

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Supply Chain Hub

Connects:
Warehouse, shipment, carrier, quality

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Key services: What the retail AI knowledge graph delivers

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Entity resolution

Deduplication and linking across sources — so the same product, store, or customer is always one entity, not dozens of variants across systems.

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Semantic query routing

Queries are routed to the right part of the graph automatically — no manual mapping or translation layer required between tools.

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SPARQL / GraphQL API

Standard APIs so models, agents, and external tools can query the knowledge graph without custom integration work for each connection.

Icon of a receipt or bill with a zigzag top edge, two lines representing text, and two circular bullet points.

Explainability hub with reasoning traces and full audit trail

Every recommendation is traceable to its data source and decision logic — supporting compliance, reviews, and buyer confidence.

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Time series versioning

The graph is versioned over time — models can query historical states of data, not just the current snapshot.

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Data lineage tracking

Full traceability from raw source to model input — supporting audits, debugging, and regulatory accountability.

Real outcomes, proven in production

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$182M incremental profit
validated at a top U.S. grocery retailer, powered by CINDE's predictive and diagnostic models across ~300 AI-driven projects
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70% reduction in analysis time
at Schnucks, where category reviews dropped from 5.5 hours to 1 hour per category using CINDE's AI assistants
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+6 points on-shelf availability improvement
average across deployments, driven by CINDE's computer vision pipeline and predictive OOS models

See the AI behind the decisions

Woman with curly hair and glasses looking at a receipt while standing in a grocery store aisle with a shopping cart containing a pineapple and other items.

Frequently asked questions about retail AI

What predictive models does CINDE retail AI use?

CINDE retail AI includes 60+ proprietary models across six categories: detection (anomaly, trend, shelf image recognition), attribution (causal inference, metric decomposition, feature importance), prediction (demand, price impact, promotion effectiveness, customer lifetime value), simulation (digital twin, scenario modeling), optimization (multi-objective, cross-lever), and continuous learning (Bayesian updating, backtesting, drift monitoring).

What is a retail knowledge graph?

A retail knowledge graph is a structured data layer that maps relationships between products, customers, stores, and supply chain entities. CINDE’s knowledge graph contains 170+ entity types and 350+ relationship types organized into four hubs (Product, Customer, Store, Supply Chain). It serves as the shared foundation for all models and agents, ensuring consistent definitions across the platform.

How do CINDE’s AI agents differ from copilots?

Copilots respond when asked a question. Agents operate continuously: they monitor data streams, detect anomalies, diagnose root causes, and recommend actions without waiting for a user prompt. CINDE’s agents perform multi-step analysis autonomously while keeping humans in control of final decisions. The merchant reviews and approves every recommendation.

Can we bring our own retail AI models?

Yes. CINDE’s open retail AI platform supports custom AI models alongside its proprietary model library. Your data science team can deploy custom models, build custom data connectors, and integrate third-party reatil AI agents through the platform’s extensibility layers.