@modelcontextprotocol/server-cohort-heatmap
MCP ServerFreeCohort heatmap MCP App Server for retention analysis
Capabilities5 decomposed
cohort-based retention heatmap generation
Medium confidenceGenerates interactive retention heatmaps by organizing users into cohorts (grouped by signup/activation date) and tracking their engagement metrics across time periods. The server implements a cohort analysis engine that accepts raw event data, buckets users into temporal cohorts, calculates retention rates per cohort-period intersection, and renders the data as a structured heatmap matrix suitable for visualization. This enables product teams to identify retention patterns and cohort-specific engagement trends without manual data aggregation.
Implements cohort analysis as an MCP server tool, enabling LLMs and AI agents to programmatically generate retention heatmaps without requiring direct database access or custom analytics infrastructure. Uses MCP's tool-calling protocol to expose cohort bucketing and retention calculation as composable operations.
Lighter-weight and more composable than full BI platforms (Mixpanel, Amplitude) for teams already using MCP; enables AI agents to autonomously generate and interpret retention analyses without manual dashboard navigation.
temporal cohort bucketing and aggregation
Medium confidencePartitions users into cohorts based on temporal boundaries (e.g., signup week, activation month) and aggregates engagement metrics within each cohort-period cell. The implementation accepts raw event streams, applies configurable time-window functions to assign users to cohorts, and computes retention/engagement statistics per cohort without requiring pre-computed aggregations. This enables flexible cohort definitions and supports ad-hoc analysis without data warehouse dependencies.
Implements cohort bucketing as a composable MCP tool rather than a fixed analytics function, allowing LLMs to dynamically specify cohort boundaries and retention definitions without code changes. Uses functional aggregation patterns to support arbitrary retention metrics.
More flexible than SQL-based cohort queries because cohort definitions can be specified and modified through natural language prompts; faster iteration than warehouse-based approaches for exploratory analysis.
retention metric calculation and comparison
Medium confidenceComputes retention rates, churn rates, and engagement metrics across cohort-period intersections using configurable metric definitions. The server accepts event data and metric specifications (e.g., 'user is retained if they had any event in the period'), calculates the metric for each cohort-period cell, and returns a normalized heatmap suitable for visualization. Supports multiple retention definitions (e.g., DAU-based, transaction-based, feature-specific) without requiring separate data pipelines.
Decouples metric definition from calculation logic, allowing LLMs to specify retention rules in natural language and have them applied consistently across all cohorts. Supports multiple simultaneous metric calculations without re-aggregating underlying event data.
More flexible than hardcoded retention definitions in analytics platforms; enables rapid iteration on retention metrics through conversational prompts rather than configuration changes.
mcp tool exposure for cohort analysis operations
Medium confidenceExposes cohort analysis capabilities as MCP server tools, enabling LLM clients and AI agents to invoke cohort generation, retention calculation, and heatmap rendering through the Model Context Protocol. The server implements tool schemas that define input parameters (event data, cohort config, metric definitions) and output formats, allowing Claude and other MCP-compatible clients to autonomously call these tools within agentic workflows. This enables conversational data analysis where users describe retention questions in natural language and the agent executes the appropriate analysis.
Implements cohort analysis as native MCP server tools rather than wrapping existing analytics APIs, enabling direct LLM control over analysis parameters without intermediate translation layers. Uses MCP's schema-based tool definition to expose complex analytical operations as composable building blocks.
More direct and composable than wrapping REST analytics APIs; enables LLMs to control analysis parameters (cohort boundaries, metrics) without predefined templates or configuration files.
heatmap data structure generation and serialization
Medium confidenceTransforms aggregated retention metrics into a structured heatmap matrix (cohort × time_period grid) and serializes it to JSON for downstream visualization or reporting. The implementation organizes retention data into a normalized tabular format with cohort identifiers as rows, time periods as columns, and retention percentages as cell values, optionally including metadata (cohort size, absolute retention counts). This enables consistent data exchange between the analysis engine and visualization tools.
Generates heatmap structures optimized for visualization libraries and BI tools, with configurable metadata inclusion and normalization. Supports both percentage and absolute retention counts in a single output structure.
More structured and visualization-ready than raw aggregation output; enables direct consumption by D3, Plotly, and other charting libraries without intermediate transformation.
Capabilities are decomposed by AI analysis. Each maps to specific user intents and improves with match feedback.
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Best For
- ✓product analytics teams building retention dashboards
- ✓founders and growth teams analyzing user lifecycle metrics
- ✓data engineers integrating cohort analysis into BI pipelines
- ✓analytics engineers prototyping cohort definitions before building warehouse models
- ✓product managers exploring retention patterns with different cohort boundaries
- ✓AI agents autonomously analyzing user lifecycle data
- ✓product teams analyzing retention trends and cohort health
- ✓data analysts building retention reports without SQL
Known Limitations
- ⚠Requires pre-aggregated or raw event data with user IDs and timestamps — no built-in data ingestion from analytics platforms
- ⚠Heatmap granularity (daily/weekly/monthly cohorts) must be specified at query time; no dynamic bucketing
- ⚠No built-in support for multi-dimensional cohorts (e.g., by geography AND signup source simultaneously)
- ⚠Output is structured data only; visualization rendering delegated to client-side tools
- ⚠Bucketing logic is applied in-memory; large datasets (>1M events) may require pagination or streaming
- ⚠No support for overlapping cohorts or rolling-window cohorts (e.g., 'users active in last 7 days')
Requirements
Input / Output
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Cohort heatmap MCP App Server for retention analysis
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