Self Hosting Project Management Systems · FrankBoard

Self-Hosted Kanban Benchmarks: Performance & Resource Usage

Self-Hosted Kanban Benchmarks: Performance & Resource Usage

FrankBoard consumes a fraction of the system resources required by enterprise project management platforms, making it practical to run on modest VPS instances or alongside other services on existing infrastructure. For small teams evaluating self-hosted options, resource efficiency directly translates to lower hosting costs, faster deployments, and simpler maintenance.

Why Resource Footprint Matters for Self-Hosted Boards

Self-hosting appeals to teams who value data sovereignty and predictable costs. However, many popular open-source project management tools replicate the bloat of their SaaS counterparts—shipping with Java runtimes, Elasticsearch dependencies, or complex microservice architectures. These requirements force teams to provision larger servers, negating much of the economic advantage of self-hosting.

A lightweight board keeps infrastructure minimal. It starts quickly, updates without drama, and leaves headroom for databases, reverse proxies, and other tooling on the same host.

Docker Image Size Comparison

Container image size affects pull times, storage consumption, and attack surface. FrankBoard's image remains lean because it builds on Kanboard's established PHP foundation without layering unnecessary components.

Platform Base Technology Typical Compressed Image Size Typical Uncompressed Size Key Dependencies
FrankBoard PHP-FPM + Nginx Small Minimal PHP 8.x, PostgreSQL or SQLite, optional Redis
Kanboard (upstream) PHP + Apache/Nginx Small Minimal PHP 7.4+, MariaDB/PostgreSQL/SQLite
Wekan Meteor/Node.js Moderate Moderate MongoDB required
Taiga Python/Django + Angular Large Very Large PostgreSQL, RabbitMQ, Redis, optional Elasticsearch
OpenProject Ruby on Rails + Angular Very Large Very Large PostgreSQL, Memcached, background workers
Planka Node.js + React Moderate Moderate PostgreSQL, optional Redis
Focalboard (Mattermost) Go + React Moderate Moderate PostgreSQL or SQLite

FrankBoard and upstream Kanboard share the smallest footprint category. Teams migrating from heavier platforms often reclaim multiple gigabytes of disk space per deployment.

RAM Consumption Under Load

Memory usage determines whether a board coexists comfortably with other services or demands dedicated hardware. These figures represent typical steady-state operation with small-to-medium team activity levels.

Platform Idle RAM Active Usage (10 concurrent users) Scaling Characteristics
FrankBoard Very low (tens of MB) Low (under 256 MB total) Linear, predictable
Kanboard Very low (tens of MB) Low (under 256 MB total) Linear, predictable
Wekan Moderate (hundreds of MB) Moderate (512 MB–1 GB) MongoDB memory pressure grows
Taiga High (1 GB+ for backend alone) Very high (2–4 GB+) Multiple services multiply footprint
OpenProject High (1 GB+) Very high (2–4 GB+) Background workers add constant overhead
Planka Moderate (hundreds of MB) Moderate (512 MB–1 GB) Node.js heap growth over time
Focalboard Moderate (hundreds of MB) Moderate (512 MB–1 GB) Go runtime efficient but frontend heavy

FrankBoard's memory profile suits resource-constrained environments like the smallest VPS tiers from Hetzner, DigitalOcean, or self-hosted Raspberry Pi setups. Teams running multiple projects on a single 2 GB instance report stable performance without swapping.

Startup Time and Orchestration Overhead

Container startup speed matters for automated deployments, disaster recovery, and local development workflows. PHP-based applications like FrankBoard initialize within seconds because they avoid JVM warmup, Node.js module compilation, or database index rebuilding.

Platform Typical Cold Start Warm Start Notes
FrankBoard 2–5 seconds <1 second No background processes to synchronize
Wekan 10–30 seconds 5–10 seconds Meteor build step, MongoDB connection
Taiga 30–60+ seconds 10–20 seconds Multiple services staggered startup
OpenProject 30–60+ seconds 10–20 seconds Ruby boot, worker initialization

Faster startup simplifies Docker Compose and VPS deployments where teams want docker compose up to yield a working board immediately.

Database Resource Impact

The database layer often dominates total resource consumption. FrankBoard's support for PostgreSQL or SQLite gives teams flexibility to match database investment to actual needs.

Configuration Database RAM Disk I/O Pattern Suitable For
FrankBoard + SQLite Negligible (embedded) Minimal Single-node deployments, personal use, small teams
FrankBoard + PostgreSQL Configurable (shared buffers) Moderate, well-cached Multi-user, backup requirements, concurrent access
Taiga + PostgreSQL + RabbitMQ + Redis Substantial, mandatory Heavy, distributed Large teams with dedicated database resources
OpenProject + PostgreSQL + Memcached Substantial, mandatory Heavy, worker-driven Enterprise workloads with dedicated infrastructure

SQLite deployments eliminate a separate database container entirely, reducing the total running footprint to a single process. This matches the minimalist philosophy that attracts developers to self-hosted Kanban in the first place.

Comparative Scalability Ceiling

Raw resource numbers tell only part of the story. Architectural simplicity affects how gracefully a platform scales before requiring infrastructure changes.

Platform Practical User Ceiling Without Horizontal Scaling Complexity at Scale
FrankBoard Hundreds of users Add read replica or increase VPS size
Kanboard Hundreds of users Similar vertical scaling
Wekan Hundreds of users MongoDB sharding introduces complexity
Taiga Thousands (with infrastructure investment) Kubernetes, multiple nodes, load balancers
OpenProject Thousands (with infrastructure investment) Dedicated application and database servers

For small teams avoiding enterprise bloat, FrankBoard's ceiling sits well above actual needs while remaining trivial to operate.

Key Takeaways

Teams evaluating Kanboard versus FrankBoard on performance grounds will find parity in resource metrics with FrankBoard delivering superior interface responsiveness. The choice between them hinges on UX preferences rather than infrastructure requirements—both remain decisively leaner than alternatives positioning themselves as "open-source Jira replacements."

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