Back to Blog

Complete Guide to Connecting Enterprise Databases to Your Maps

Atlas TeamAtlas Team
Share this page
Complete Guide to Connecting Enterprise Databases to Your Maps

The most effective spatial analysis works directly with your enterprise data infrastructure, connecting to databases where your organization's information already lives rather than requiring manual exports, file transfers, or duplicate data management.

If your mapping workflows rely only on CSV exports, manual data uploads, or disconnected file-based processes that create stale snapshots of your actual data, you're missing the live connection that keeps maps synchronized with your enterprise systems. That's why data teams ask: can we connect our databases directly to maps so visualizations stay current with our data warehouse, operational databases, and analytics platforms?

With Atlas, you can connect directly to major enterprise databases including BigQuery, Snowflake, Databricks, PostgreSQL, MySQL, Oracle, and SQL Server. No ETL pipelines, no manual exports, no barriers between your enterprise data and geographic visualization. Everything starts with your database connection and live queries that keep maps synchronized.

Here's how to set it up step by step.

Why Connecting Enterprise Databases Matters for Spatial Analysis

Creating direct database connections enables better data currency and more effective spatial visualization across organizations with established data infrastructure.

So connecting enterprise databases isn't just convenient integration—it's essential infrastructure that transforms how effectively organizations visualize and analyze their data geographically.

Step 1: Understand Supported Database Connections

Atlas makes it easy to connect to major enterprise databases with native connectors:

  • Google BigQuery connecting to cloud data warehouses with Geography column support for spatial analysis
  • Snowflake accessing data warehouse tables with native Geography types for geographic visualization
  • Databricks querying lakehouse data from Delta tables with geometry columns
  • PostgreSQL connecting to relational databases with full PostGIS spatial query support
  • MySQL accessing application databases with spatial column detection
  • Oracle connecting to enterprise databases with Oracle Spatial (SDO_GEOMETRY) support
  • SQL Server accessing Microsoft databases with geography and geometry data types

Each connector handles authentication, schema browsing, and spatial data detection appropriate for its platform.

Step 2: Configure Database Authentication and Connection

Next, establish secure connections to your database platforms:

You can configure different authentication approaches:

  • Service account authentication uploading JSON key files for Google BigQuery connections
  • Access token authentication using personal access tokens for Databricks connections
  • Key-pair authentication configuring RSA keys for Snowflake connections
  • Username/password authentication providing credentials for PostgreSQL, MySQL, Oracle, and SQL Server
  • SSL/TLS encryption enabling secure connections with optional certificate uploads
  • Connection parameters specifying hosts, ports, databases, and schemas for each platform

Each authentication method provides secure access while matching your database platform's security model.

Also read: How to Visualize BigQuery Data on Interactive Maps

Step 3: Browse and Select Database Tables

To access your database content:

  1. Browse available schemas navigating your database structure to find relevant tables
  2. Preview table contents viewing sample data before importing to verify correct selection
  3. Identify spatial columns letting Atlas automatically detect geography, geometry, and coordinate columns
  4. Select import scope choosing specific tables or views to add to your project
  5. Configure refresh settings determining how data synchronization should work

Schema browsing enables efficient navigation of complex database structures to find the data you need.

Also read: Connect Snowflake to Map Your Data Warehouse Geographically

Step 4: Handle Spatial Data and Geometry Detection

To ensure proper geographic rendering:

  • Automatic geometry detection recognizing native spatial types (Geography, Geometry, SDO_GEOMETRY)
  • WKT parsing interpreting Well-Known Text geometry representations in text columns
  • Coordinate column mapping identifying latitude/longitude columns for point data
  • Coordinate system handling managing spatial reference systems and projections
  • Geometry validation checking that spatial data renders correctly on the map

Spatial handling ensures your database geography displays accurately in Atlas.

Also read: Map Data from PostgreSQL and PostGIS in Minutes

Step 5: Configure Network Access and Firewall Rules

To enable database connectivity:

  • Whitelist Atlas IP addresses adding Atlas servers to your database firewall rules
  • Configure network policies updating Snowflake, Databricks, or cloud provider network settings
  • Enable external connections ensuring your database accepts connections from Atlas
  • Test connectivity verifying connections work before building workflows
  • Plan for security ensuring database connections align with your organization's security policies

Also read: Visualize Databricks Lakehouse Data on Interactive Maps

Step 6: Build Workflows with Database Data

Now that database connections are established:

  • Create visualizations styling connected data with colors, clustering, and conditional formatting
  • Build analytical workflows using database data in spatial analysis and processing
  • Enable live dashboards creating interfaces that display current database information
  • Schedule refreshes configuring automated data synchronization for changing datasets
  • Export enriched data saving analysis results back to files or other destinations

Your database connection becomes part of comprehensive spatial workflows that leverage your enterprise data infrastructure.

Also read: Connect MySQL to Create Maps from Your Application Database

Use Cases

Connecting enterprise databases to maps is useful for:

  • Data engineers eliminating ETL complexity for geographic visualization of warehouse data
  • BI analysts adding spatial dimensions to business intelligence dashboards and reports
  • Enterprise GIS teams modernizing spatial workflows with direct cloud database connections
  • Operations managers visualizing operational database data geographically for real-time awareness
  • Analytics teams combining spatial analysis with data warehouse analytics capabilities

It's essential for any organization where valuable location data lives in enterprise databases and needs geographic visualization without manual export processes.

Tips

  • Start with read-only access using credentials that only allow SELECT queries for initial setup
  • Test with sample queries verifying connection and spatial detection before building production workflows
  • Monitor query performance ensuring database queries don't impact production system performance
  • Plan for credentials establishing how database credentials will be managed and rotated
  • Document connections recording which databases are connected and how they're used

Connecting enterprise databases to maps in Atlas enables live spatial visualization without ETL overhead.

No data exports needed. Just configure connections and visualize your database data geographically in real-time.

Enterprise Data with Atlas

Effective spatial analysis doesn't require copying data. Direct database connections keep maps synchronized with your enterprise systems while eliminating the overhead of export and import processes.

Atlas helps you turn database tables into geographic visualizations: one platform for connection, query, and spatial analysis.

Transform Database Data into Maps

You can:

  • Connect to BigQuery, Snowflake, Databricks, PostgreSQL, MySQL, Oracle, and SQL Server directly
  • Automatically detect geography columns, PostGIS geometries, and coordinate fields
  • Browse schemas and preview tables before importing data

Also read: Complete Guide to Building Field Data Collection Apps with Maps

Build Analysis That Stays Current

Atlas lets you:

  • Create dashboards that display real-time database information geographically
  • Run spatial analysis on database data without extracting it first
  • Schedule refreshes to keep visualizations synchronized with changing data

That means no more stale exports, and no more wondering whether your maps reflect current information.

Discover Better Insights Through Database Integration

Whether you're visualizing warehouse data, operational databases, or analytics platforms, Atlas helps you turn enterprise data into geographic intelligence.

It's database integration—designed for live connections and enterprise scale.

Connect Your Databases with the Right Tools

Enterprise data is valuable, but extraction is overhead. Whether you're connecting to cloud warehouses, operational databases, or analytics platforms—direct integration matters.

Atlas gives you both connection and analysis.

In this article, we covered how to connect enterprise databases to your maps, but that's just one of many ways Atlas helps you work with enterprise data.

From database connection to spatial detection, workflow integration, and live visualization, Atlas makes enterprise data accessible for geographic analysis. All from your browser. No ETL pipelines needed.

So whether you're connecting your first database or integrating multiple enterprise platforms, Atlas helps you move from "export and upload" to "connect and visualize" faster.

Sign up for free or book a walkthrough today.