Using SQLite in FlutterFlow

By 2026, FlutterFlow has matured into a serious no-code and low-code platform for production mobile development, with Firebase, Supabase, and a growing list of cloud-based integrations at its core. App State variables and robust caching strategies have made many common data scenarios straightforward to handle. Yet there remains a compelling case for fully offline, local data storage — and SQLite remains the gold standard for exactly that. Built into every iOS and Android device, SQLite is a small, fast, self-contained, high-reliability, full-featured SQL database engine that has powered mobile apps for decades. Its integration into FlutterFlow is now well-established, and in 2026 it is a genuinely production-ready option for apps that need to work without a network connection.

What's changed in 2026

When SQLite support first landed in FlutterFlow, it was a welcome but relatively basic addition. Since then, the integration has been refined and stabilised. The core approach — uploading a SQLite database file, defining read and update queries, and wiring them into your UI — remains the same, but the tooling around it has improved. FlutterFlow's Action Flow Editor is more capable, the query configuration interface is cleaner, and the overall developer experience for SQLite has benefited from the platform's broader improvements to its backend and database workflows.

One notable shift is that the FlutterFlow community and template library have grown substantially. Where once the official note-taking example was almost the only reference point for SQLite usage, you will now find community-contributed templates and marketplace components that demonstrate more sophisticated patterns — including multi-table schemas, foreign key relationships managed in custom functions, and more elaborate data migration strategies for app updates.

It is also worth noting what has not changed: there is still no built-in sync mechanism between a local SQLite database and any cloud backend. There is still no web support for SQLite in FlutterFlow. If either of those is a hard requirement, you will need to look at Supabase, Firebase, or a custom API integration instead. For genuinely offline-first mobile apps, however, SQLite in FlutterFlow remains the right tool.

What can you do with SQLite in FlutterFlow?

FlutterFlow provides a working example note-taking app that demonstrates the SQLite functionality clearly. This article walks through it and builds it onto a real device to verify the functionality end to end.

To get started, open the example project from FlutterFlow and clone it into your own FlutterFlow environment: https://app.flutterflow.io/project/note-taking-app-zto2ua

TL:DR – 

SQLite is an important part of the FlutterFlow toolbox for offline-first mobile apps. Build out the example for yourself and you will quickly see how well the functionality is integrated into the platform.

Add a note

  • Update a note
  • Delete a note
  • Practical patterns and tips for 2026
  • Pros and cons of SQLite in FlutterFlow
  • Pros
  • Built-in, offline, and battle-tested on every iOS and Android device
  • Cons
  • Limitations that matter — and some that probably don't for most mobile apps
  • When to choose SQLite — and when not to
  • Enabling SQLite

    To enable SQLite, navigate to FlutterFlow > Settings and Integrations > App Settings > Integrations > SQLite and toggle it on.

    Enable SQLite in FlutterFlow Settings and Integrations
    Enable SQLite in FlutterFlow > Settings and Integrations > App Settings > Integrations > SQLite

    The implementation is intentionally scoped rather than exhaustive, but what it does provide is solid and production-quality. You will need to upload a SQLite database file to your project as a starting point. Because this is local storage, a practical use case is reference data that ships with your app and is updated only when the app itself is updated. Think product catalogues, configuration tables, lookup data, or offline content libraries.

    Plan carefully for the app update scenario. Your users will have a local database that may contain data they have created or modified inside the app. There is no automatic migration tooling in FlutterFlow, so you need to design your schema and update strategy with that in mind from the start. There is no sync, and there is no web support — test on real iOS and Android devices throughout development.

    Designing and editing SQLite databases

    You will see that the Database Configuration is already populated in the cloned example project.

    For your own projects, you will need a tool to create and inspect SQLite database files. DB Browser for SQLite (DB4S) remains the go-to option in 2026 — it is open source, actively maintained, cross-platform, and uses a familiar spreadsheet-like interface that does not require you to write raw SQL to get started. On macOS with Homebrew, installation is a single command:

    % brew install --cask db-browser-for-sqlite

    Launch it and creating a database is straightforward:

    • Click New Database, give it a meaningful name such as NoteTakingAppDB, and click Save.
    • Enter a table name — Notes — and click Add to add each field.
    • Add ID as an Integer, set it as not null, primary key, and auto increment using the checkboxes.
    • Add Title and Details as Text fields, then DueDate and IsCompleted as Integers.
    • Switch to the Browse Data tab, click Insert Row, populate the row with sample data, click Apply, then Save.
    • Upload the resulting .db file to your Database Configuration in FlutterFlow.

    If you prefer a more modern alternative, TablePlus is a polished commercial option with a generous free tier that supports SQLite alongside many other database engines and is worth considering if you work across multiple database types.

    Create, Read, Update, Delete (CRUD) via FlutterFlow

    FlutterFlow organises SQLite operations into two categories: Read queries (SQL SELECT statements) and Update queries (INSERT, UPDATE, and DELETE). Variables are passed from your app into queries using the ${variableName} syntax. For Read queries you also define the output columns so FlutterFlow knows what data to surface to your widgets.

    For example: SELECT * FROM Notes WHERE IsCompleted = ${filterValue}

    The example note-taking app defines four queries that cover the full CRUD surface.

    GetAllNotes

    Retrieves every note from the database for display in the UI.

    SELECT * FROM Notes;

    SQLite get all records query in FlutterFlow
    SQLite GetAllNotes read query configured in FlutterFlow

    AddNote

    Inserts a new note using the variables title, details, and dueDate:

    INSERT INTO Notes (Title, Details, DueDate, IsCompleted) VALUES ('${title}', '${details}', ${dueDate}, 0);

    SQLite add a record query in FlutterFlow
    SQLite AddNote update query configured in FlutterFlow

    UpdateNote

    Updates an existing note using title, details, dueDate, isCompleted, and id:

    UPDATE Notes
    SET 
        Title = '${title}',
        Details = '${details}',
        DueDate = ${dueDate},
        IsCompleted = ${isCompleted}
    WHERE ID = ${id};
    SQLite update a record query in FlutterFlow
    SQLite UpdateNote update query configured in FlutterFlow

    DeleteNote

    Deletes a note by its id:

    DELETE FROM Notes WHERE ID = ${id};

    SQLite delete a record query in FlutterFlow
    SQLite DeleteNote update query configured in FlutterFlow

    Building your user interface

    Show all notes

    Build a FlutterFlow page using a ListView with containers, or simply examine the layout in the cloned example project.

    • Add a SQLite backend query to the page — only Read queries will appear here — and click Confirm.
    • For each widget in your ListView, open Set from Variable, select your query row, and choose the column you want displayed. Repeat for each field you want to show from the database record.

    UNIX epoch timestamps in SQLite

    Custom Function for UNIX epoch value in FlutterFlow
    Custom Function converting a UNIX epoch integer to a readable date — necessary because SQLite has no native date/time type

    Add a note

    Wire up an Add action using the FlutterFlow Action Flow Editor:

    • Select the widget that should trigger the action (typically a button).
    • Open the Action Flow Editor and click + Add Action.
    • Choose SQLite Query under Backend/Database.
    • Select Update Query and choose AddNote.
    • Map your form field variables to the query parameters.

    Update a note

    • Select the widget that triggers the update.
    • Open the Action Flow Editor and click + Add Action.
    • Choose SQLite Query under Backend/Database.
    • Select Update Query and choose UpdateNote.
    • Map all required variables, including the record id.

    Delete a note

    • Select the widget that triggers the deletion.
    • Open the Action Flow Editor and click + Add Action.
    • Choose SQLite Query under Backend/Database.
    • Select Update Query and choose DeleteNote.
    • Map the id variable to identify the record to remove.

    Practical patterns and tips for 2026

    Having used SQLite in FlutterFlow across a range of production projects, a few patterns are worth highlighting that go beyond what the basic example demonstrates.

    • Pre-populate with reference data. SQLite shines when you ship the app with a pre-populated database — product catalogues, offline maps metadata, configuration tables, or localised content. The database file is bundled with the app and immediately available without any network call.
    • Version your schema. Add a schema_version table with a single row from day one. When you release an app update with schema changes, your initialisation logic can read this value and apply the appropriate migration steps using custom Dart actions.
    • Combine with App State for performance. Read your SQLite data into App State on app launch or page load, then bind your UI to App State variables. This avoids repeated database reads on every widget rebuild and keeps the UI responsive.
    • Test on physical devices early. The FlutterFlow preview and web runner do not support SQLite. Build to a real iOS or Android device from the start of development — it will save you time and prevent surprises late in the project.
    • Custom Dart actions for complex queries. FlutterFlow's built-in query editor handles straightforward SQL well. For joins across multiple tables, aggregations, or conditional logic, write a custom Dart action using the sqflite package that FlutterFlow uses under the hood. This gives you full SQL expressiveness without leaving the FlutterFlow ecosystem.

    Pros and cons of SQLite in FlutterFlow

    SQLite is an excellent choice for mobile apps with modest, self-contained database requirements. Here is an honest assessment as it stands in 2026.

    Pros

    Built-in, offline, and battle-tested on every iOS and Android device
    • Truly offline: Works with zero network connectivity — ideal for field apps, remote environments, and users with unreliable connections.
    • Zero setup: SQLite is embedded in iOS and Android. No server to provision, no credentials to manage, no infrastructure costs.
    • ACID transactions: Full atomicity, consistency, isolation, and durability for data integrity you can rely on.
    • Cross-platform: The same database file and queries work on iOS and Android without modification.
    • High read performance: Exceptionally fast for the read-heavy workloads typical of mobile apps.
    • Mature ecosystem: The underlying sqflite Flutter package is well-maintained and widely used in production apps.

    Cons

    Limitations that matter — and some that probably don't for most mobile apps
    • No sync: There is no built-in mechanism to synchronise local SQLite data with a cloud backend. You need to build this yourself or use a different data strategy.
    • No web support: SQLite in FlutterFlow is mobile-only. If your app targets the web, you will need a separate data approach for that platform.
    • Schema migrations require planning: Updating your database schema across app versions needs careful thought and custom code. There is no migration tooling built into FlutterFlow.
    • Limited concurrency: Not designed for simultaneous write operations from multiple sources — not a real concern for single-user mobile apps.
    • No advanced SQL features: Stored procedures and some advanced query features available in PostgreSQL or MySQL are absent, though standard SQL is fully supported.
    • Complex queries need custom Dart: Multi-table joins and aggregations are possible but require stepping outside FlutterFlow's visual query editor.

    When to choose SQLite — and when not to

    SQLite in FlutterFlow is the right choice when your app needs to function fully offline, when you are shipping reference data with the app, or when you want a fast local cache that persists across sessions without depending on network availability. It is particularly well-suited to field service apps, inspection tools, catalogues, and any scenario where connectivity cannot be assumed.

    It is not the right choice if you need real-time data shared across multiple users, if your app has a significant web presence, or if you need cloud sync without building it yourself. In those cases, Supabase or Firebase with appropriate offline persistence settings will serve you better. The two approaches are not mutually exclusive — some production FlutterFlow apps use SQLite for local reference data and Supabase for user-generated content that needs to sync.