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Amazon Redshift MCP Server

Model Context Protocol (MCP) server for Amazon Redshift.

This MCP server provides tools to discover, explore, and query Amazon Redshift clusters and serverless workgroups. It enables AI assistants to interact with Redshift resources safely and efficiently through a comprehensive set of discovery and query execution tools.

Features

  • Cluster Discovery: Automatically discover both provisioned Redshift clusters and serverless workgroups
  • Metadata Exploration: Browse databases, schemas, tables, and columns
  • Safe Query Execution: Run SQL queries in a read-only mode (single statement; writes rejected)
  • Multi-Cluster Support: Work with multiple clusters and workgroups simultaneously

Prerequisites

Installation Requirements

  1. Install uv from Astral or the GitHub README
  2. Install Python 3.10 or newer using uv python install 3.10 (or a more recent version)

AWS Client Requirements

  1. Credentials: Configure AWS credentials via AWS CLI, or environment variables
  2. Region: Configure AWS region using one of the following (in order of precedence):
    • AWS_REGION environment variable (highest priority)
    • AWS_DEFAULT_REGION environment variable
    • Region specified in your AWS profile configuration
  3. Permissions: Ensure your AWS credentials have the required permissions (see Permissions section)

Installation

Kiro Cursor VS Code
Add to Kiro Install MCP Server Install on VS Code

Configure the MCP server in your MCP client configuration (e.g., for Kiro, edit ~/.kiro/settings/mcp.json):

{
  "mcpServers": {
    "awslabs.redshift-mcp-server": {
      "command": "uvx",
      "args": ["awslabs.redshift-mcp-server@latest"],
      "env": {
        "AWS_PROFILE": "default",
        "AWS_DEFAULT_REGION": "us-east-1",
        "FASTMCP_LOG_LEVEL": "INFO"
      },
      "disabled": false,
      "autoApprove": []
    }
  }
}

Windows Installation

For Windows users, the MCP server configuration format is slightly different:

{
  "mcpServers": {
    "awslabs.redshift-mcp-server": {
      "disabled": false,
      "timeout": 60,
      "type": "stdio",
      "command": "uv",
      "args": [
        "tool",
        "run",
        "--from",
        "awslabs.redshift-mcp-server@latest",
        "awslabs.redshift-mcp-server.exe"
      ],
      "env": {
        "AWS_PROFILE": "your-aws-profile",
        "AWS_DEFAULT_REGION": "us-east-1",
        "FASTMCP_LOG_LEVEL": "ERROR"
      }
    }
  }
}

or docker after a successful docker build -t awslabs/redshift-mcp-server:latest .:

{
  "mcpServers": {
    "awslabs.redshift-mcp-server": {
      "command": "docker",
      "args": [
        "run",
        "--rm",
        "--interactive",
        "--env", "AWS_ACCESS_KEY_ID=[your data]",
        "--env", "AWS_SECRET_ACCESS_KEY=[your data]",
        "--env", "AWS_DEFAULT_REGION=[your data]",
        "awslabs/redshift-mcp-server:latest"
      ]
    }
  }
}

Environment Variables

  • AWS_REGION: AWS region to use (overrides all other region settings)
  • AWS_DEFAULT_REGION: Default AWS region (used if AWS_REGION not set and no region in profile)
  • AWS_PROFILE: AWS profile to use (optional, uses default if not specified)
  • FASTMCP_LOG_LEVEL: Logging level (DEBUG, INFO, WARNING, ERROR)
  • LOG_FILE: Path to log file (optional, logs to stdout if not specified)

Prompt Examples

Discovery Workflow

  1. Discover Clusters and Workgroups: Call list_clusters to find all provisioned clusters and serverless workgroups, noting their identifiers, types, and status
  2. Select Target Environment: Choose a specific cluster or workgroup based on your query needs
  3. List Databases: Use list_databases to explore databases in the selected cluster/workgroup, returning database names, owners, types (local/shared), and access control info
  4. Explore Schemas: For a given database, call list_schemas to find available schemas and their owners
  5. Inspect Tables: Use list_tables to browse tables, views, and external tables within a schema, including table types and owners
  6. Examine Columns: Call list_columns to get column metadata — names, data types, nullability, default values, and constraints
  7. Query Data: Execute SQL queries safely with execute_query using a natural language prompt or direct SQL

Simple Examples

Database Discovery

Explore everything in my Redshift environment.

The assistant will:

  1. Call list_clusters to find all available clusters and workgroups, and for each available cluster do steps 2-5
  2. Call list_databases to discover databases
  3. Call list_schemas on each database to map the schema landscape
  4. Call list_tables in each schema to discover tables and views
  5. Call list_columns on key tables to get detailed column metadata
  6. Present a complete summary of the environment structure

Schema Exploration

What tables are in the 'public' schema of the 'dev' database in my 'analytics-cluster'?

The assistant will:

  1. Call list_tables with the cluster, database, and schema
  2. List all tables with their types (TABLE, VIEW, EXTERNAL TABLE)

Column Inspection

Show me the columns of the 'users' table in the 'analytics-cluster'.

The assistant will:

  1. Call list_databases and list_schemas to locate the table
  2. Call list_columns to get column metadata
  3. Display column names, types, nullability, and constraints

Data Querying

How many customers signed up last month? Run the query on my production cluster.

The assistant will:

  1. Use list_clusters to find the production cluster
  2. Explore the schema to locate the relevant table
  3. Execute the appropriate SQL via execute_query
  4. Format and present the results

Advanced Examples

Natural Language Data Request

Show me the last 3 sales from the analytics Redshift cluster.
I'll help you retrieve the last 3 sales from your analytics Redshift cluster. Let me start by discovering your available Redshift clusters and then explore the database structure to find the sales data.

...discovering 3 Redshift environments (analytics cluster, marketing cluster, ETL workgroup)...

Here are the last 3 sales from your analytics Redshift cluster:

Most Recent Sales (from tickit.sales table):

1. Sale ID 102373 - December 31, 2008 at 12:58:19
   - Price paid: $1,008.00
   - Seller ID: 26190, Buyer ID: 35491

2. Sale ID 75861 - December 31, 2008 at 12:50:02
   - Price paid: $372.00
   - Seller ID: 43402, Buyer ID: 39545

3. Sale ID 56302 - December 31, 2008 at 12:08:14
   - Price paid: $372.00
   - Seller ID: 5760, Buyer ID: 5797

> Briefly describe your actions.
I performed the following actions:

1. Discovered clusters — Listed all available Redshift clusters and identified redshift-cluster-analytics
2. Explored databases — Found two databases: dev and sample_data_dev
3. Located schemas — Checked the sample_data_dev database and found the tickit schema
4. Found sales table — Identified the sales table within the tickit schema
5. Analyzed table structure — Examined columns in the sales table (salesid, pricepaid, qtysold, saletime, etc.)
6. Executed query — Ran SQL to get the 3 most recent sales ordered by saletime DESC

> Show me the query text.
Here's the exact SQL query:

sql
SELECT salesid, listid, sellerid, buyerid, eventid, qtysold, pricepaid, commission, saletime
FROM tickit.sales
ORDER BY saletime DESC
LIMIT 3;

Cross-Cluster Data Comparison

How off is the analytics sales data from the ETL sales data in Redshift?
I'll help you analyze sales data from your Redshift ETL pipeline. Let me discover your Redshift environment first.

...discovering 3 Redshift environments (analytics cluster, marketing cluster, ETL workgroup)...

# Sales Data Comparison: Analytics vs ETL

## Executive Summary
Sales data between Analytics cluster and ETL workgroup is perfectly synchronized with zero discrepancies found.

## Environment Overview
- Analytics: redshift-cluster-analytics (Provisioned, 2x dc2.large nodes)
- ETL: redshift-workgroup-etl (Serverless)
- Database: sample_data_dev.tickit.sales

## Data Comparison Results

### High-Level Metrics
| Metric          | Analytics Cluster | ETL Workgroup     | Status |
|-----------------|-------------------|-------------------|--------|
| Total Records   | 172,456           | 172,456           | Match  |
| Total Revenue   | $110,765,431      | $110,765,431      | Match  |
| Total Quantity  | 345,349           | 345,349           | Match  |
| Average Price   | $642.28           | $642.28           | Match  |
| Date Range      | 2008-01-01 to 2008-12-31 | 2008-01-01 to 2008-12-31 | Match |

### Recent Sales (Q4 2008)
| Month    | Analytics Revenue | ETL Revenue   | Analytics Txns | ETL Txns | Status |
|----------|-------------------|---------------|----------------|----------|--------|
| Dec 2008 | $4,521,806        | $4,521,806    | 7,059          | 7,059    | Match  |
| Nov 2008 | $9,044,905        | $9,044,905    | 14,261         | 14,261   | Match  |
| Oct 2008 | $10,726,368       | $10,726,368   | 16,741         | 16,741   | Match  |

## Key Findings
- Data Integrity: Perfect synchronization across all metrics
- Verification: Transaction-level details match exactly (verified 10 recent records)

> Briefly describe your actions.
I analyzed sales data from your Redshift environments by:

1. Discovered Infrastructure — Found 3 Redshift environments (analytics, marketing, ETL)
2. Explored Data Structure — Located sales data in sample_data_dev.tickit.sales with 10 columns
3. Compared High-Level Metrics — Ran aggregate queries on both clusters (172,456 records, $110M revenue)
4. Analyzed Recent Data — Examined Q4 2008 monthly trends and verified 10 most recent transactions
5. Generated Report — Created a comprehensive comparison showing perfect synchronization

> Show me the SQL queries you used.
## 1. High-Level Metrics
sql
SELECT
    COUNT(*) as total_records,
    MIN(saletime) as earliest_sale,
    MAX(saletime) as latest_sale,
    SUM(pricepaid) as total_revenue,
    SUM(qtysold) as total_quantity,
    AVG(pricepaid) as avg_price
FROM tickit.sales;

## 2. Recent Monthly Sales
sql
SELECT
    DATE_TRUNC('month', saletime) as sale_month,
    COUNT(*) as transaction_count,
    SUM(pricepaid) as monthly_revenue,
    SUM(qtysold) as monthly_quantity,
    AVG(pricepaid) as avg_transaction_value
FROM tickit.sales
WHERE saletime >= '2008-10-01'
GROUP BY DATE_TRUNC('month', saletime)
ORDER BY sale_month DESC
LIMIT 10;

## 3. Recent Transaction Details
sql
SELECT salesid, listid, sellerid, buyerid, eventid, qtysold, pricepaid, commission, saletime
FROM tickit.sales
WHERE saletime >= '2008-12-30'
ORDER BY saletime DESC, salesid DESC
LIMIT 10;

Tools

list_clusters

Discovers all available Amazon Redshift clusters and serverless workgroups.

list_clusters() -> list[RedshiftCluster]

Returns: List of cluster information including:

  • Cluster identifier and type (provisioned/serverless)
  • Status and connection details
  • Configuration information (node type, encryption, etc.)
  • Tags and metadata

list_databases

Lists all databases in a specified Redshift cluster.

list_databases(cluster_identifier: str, database_name: str = "dev") -> list[RedshiftDatabase]

Parameters:

  • cluster_identifier: The cluster identifier from list_clusters
  • database_name: Database to connect to for querying (default: "dev")

Returns: List of database information including:

  • Database name and owner
  • Database type (local/shared)
  • Access control information
  • Isolation level

list_schemas

Lists all schemas in a specified database.

list_schemas(cluster_identifier: str, schema_database_name: str) -> list[RedshiftSchema]

Parameters:

  • cluster_identifier: The cluster identifier from list_clusters
  • schema_database_name: Database name to list schemas for

Returns: List of schema information including:

  • Schema name and owner
  • Schema type (local/external/shared)
  • Access permissions
  • External schema details (if applicable)

list_tables

Lists all tables in a specified schema.

list_tables(cluster_identifier: str, table_database_name: str, table_schema_name: str) -> list[RedshiftTable]

Parameters:

  • cluster_identifier: The cluster identifier from list_clusters
  • table_database_name: Database name containing the schema
  • table_schema_name: Schema name to list tables for

Returns: List of table information including:

  • Table name and type (TABLE/VIEW/EXTERNAL TABLE)
  • Access permissions
  • Remarks and metadata

list_columns

Lists all columns in a specified table.

list_columns(
    cluster_identifier: str,
    column_database_name: str,
    column_schema_name: str,
    column_table_name: str
) -> list[RedshiftColumn]

Parameters:

  • cluster_identifier: The cluster identifier from list_clusters
  • column_database_name: Database name containing the table
  • column_schema_name: Schema name containing the table
  • column_table_name: Table name to list columns for

Returns: List of column information including:

  • Column name and data type
  • Nullable status and default values
  • Numeric precision and scale
  • Character length limits
  • Ordinal position and remarks

execute_query

Executes a SQL query against a Redshift cluster with safety protections.

execute_query(cluster_identifier: str, database_name: str, sql: str) -> QueryResult

Parameters:

  • cluster_identifier: The cluster identifier from list_clusters
  • database_name: Database to execute the query against
  • sql: SQL statement to execute (SELECT statements recommended)

Returns: Query result including:

  • Column names and data types
  • Result rows with proper type conversion
  • Row count
  • Query ID for reference

review_cluster

Runs a diagnostic review of a Redshift cluster or serverless workgroup. Returns identified potential issues and respective recommendations ordered by required mitigation effort.

review_cluster(cluster_identifier: str, database_name: str = 'dev') -> ReviewResult

Parameters:

  • cluster_identifier: The cluster identifier from list_clusters
  • database_name: Database to connect to for querying system views (defaults to dev)

Returns: Review result including:

  • Number of signals evaluated
  • Findings with affected row counts and recommendation IDs
  • Deduplicated recommendations with documentation links
  • List of diagnostic queries executed

Note: Requires the connecting database user to hold the sys:monitor role (or be a superuser), see Database Permissions. Provisioned-only diagnostics are automatically skipped for serverless workgroups.

Permissions

AWS IAM Permissions

Your AWS credentials need the following IAM permissions:

{
  "Version": "2012-10-17",
  "Statement": [
    {
      "Effect": "Allow",
      "Action": [
        "redshift:DescribeClusters",
        "redshift-serverless:ListWorkgroups",
        "redshift-serverless:GetWorkgroup",
        "redshift-data:ExecuteStatement",
        "redshift-data:DescribeStatement",
        "redshift-data:GetStatementResult",
        "redshift-serverless:GetCredentials",
        "redshift:GetClusterCredentialsWithIAM",
        "redshift:GetClusterCredentials"
      ],
      "Resource": "*"
    }
  ]
}

Database Permissions

In addition to AWS IAM permissions, you need appropriate database-level permissions:

  • Read Access: SELECT permissions on tables/views you want to query

  • Schema Access: USAGE permissions on schemas you want to explore

  • Database Access: Connection permissions to databases you want to access

  • Review Access: The review_cluster tool reads system views such as SYS_AUTO_TABLE_OPTIMIZATION, STV_NODE_STORAGE_CAPACITY, and SVV_TABLE_INFO, which require superuser or sys:monitor access. Grant the connecting database user the sys:monitor role, which is the narrowest grant that covers them:

    GRANT ROLE sys:monitor TO "<database_user>";
    

    <database_user> is the output of SELECT current_user. When the server authenticates with IAM credentials it is IAM:<user> or IAMR:<role>, and the double quotes are required for those names. The grant must be issued by a superuser, such as the cluster's admin user.

For the strongest protection, grant these to a least-privilege, read-only role rather than a broad or write-capable one.

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