Netronome Network Speed Testing and Server Monitoring
Netronome is a modern network speed testing and monitoring tool built with Go and React.
At a glance
- What is it?
- Netronome combines speed tests, route tracing, packet-loss monitoring, DNS checks, server agents, and threshold alerts in a self-hosted Go and React application. It suits operators who need one dashboard across multiple systems.
- Who is it for?
- Adopt Netronome when you need a self-hosted dashboard that combines speed tests, route tracing, DNS checks, packet loss, server telemetry, and notifications. Do not choose it when a single speed test is sufficient and deploying an agent-backed service would be unnecessary.
- Can I use it commercially?
- Yes, with conditions. GPL-2.0 is a copyleft licence: if you distribute software that includes it, you must release that software's source code under the same licence. Running it internally without distributing it does not trigger that obligation.
- Is it still maintained?
- Yes. The repository last received commits 4 days ago.
- What is it written in?
- Mainly TypeScript, according to GitHub's language statistics.
Answers come from the project's GitHub data, last synced on October 22, 2026, and from our analysis. They are not legal advice.
Editorial analysis
Netronome's network monitoring scope
Netronome is designed for administrators, homelab operators, and teams responsible for hosted servers or network infrastructure who need to examine network performance across more than one endpoint. The README states that it tests network speed with Speedtest.net, iperf3, or LibreSpeed. It also traces routes, monitors packet loss, and watches DNS resolvers. Server agents provide a second source of information by sending system and bandwidth data to the main service.
A standalone speed test can answer a narrow question about one connection at one moment. Netronome places several measurement and monitoring functions behind a web interface. It also supports configured limits and notifications, which is relevant when a result needs to reach an operator instead of remaining on a terminal.
The repository uses Go for the backend and a React frontend under `web/`. Its top-level directories separate application entry points, backend code, packages, configuration, documentation, and distribution files. The README says that one binary contains the server, web interface, and agent. That packaging decision gives operators a common artifact across several roles, although the README does not explain whether each role can be installed and configured independently.
Netronome's test and monitoring data flow
The documented workflow begins with a network measurement. Depending on the configured test, Netronome can use Speedtest.net, iperf3, or LibreSpeed. It can also trace routes and check packet loss and DNS resolvers. The README does not document test scheduling, concurrency limits, result retention, or the database records associated with each result, so those details should be checked in the linked configuration documentation before treating the dashboard as an archival record.
Monitoring continues through agents placed on servers. According to the README, these agents send system and bandwidth data to Netronome. When a monitored value passes a configured limit, Netronome generates a notification. The README does not state the agent transport, authentication method, retry policy, offline buffering behavior, threshold syntax, or available notification transports.
The Go dependencies indicate several implementation areas. `github.com/showwin/speedtest-go` is listed for speed-test work, while `github.com/prometheus-community/pro-bing` supports probing. `github.com/miekg/dns` relates to DNS operations, and `github.com/creativeprojects/shoutrrr` relates to notification delivery. The module also includes `modernc.org/sqlite` and `github.com/lib/pq`, indicating SQLite and PostgreSQL-related dependencies. These dependency names confirm code-level integration, but they do not establish which database or notification transport a particular installation selects.
Docker Compose installation and first login
The README's quick start uses the Docker Compose file at `distrib/docker/docker-compose.yml`. First, clone the repository:
git clone https://github.com/autobrr/netronome.gitThen enter the cloned directory:
cd netronomeThe next command prepares ownership of the `/data` directory through the `netronome` Compose service:
docker compose -f distrib/docker/docker-compose.yml run --rm --user root --entrypoint chown netronome netronome:netronome /dataAfter that, generate the application configuration:
docker compose -f distrib/docker/docker-compose.yml run --rm netronome generate-configStart the services in the background with:
docker compose -f distrib/docker/docker-compose.yml up -dThe README directs the user to open `http://localhost:7575` and create a user. That visit confirms that the web server is reachable and account creation is available. It does not confirm that an agent can connect, an external speed-test endpoint is reachable, or a notification can be delivered. Those checks require configuration beyond the quick start.
For a binary installation or another platform, the README directs readers to `https://netrono.me/getting-started/installation/`. It does not include those platform-specific steps in the README excerpt.
Source build structure and configuration boundary
The `Makefile` defines `BINARY_NAME=netronome`, `BUILD_DIR=bin`, and `DOCKER_IMAGE=netronome`. Its visible build sequence installs frontend dependencies, builds the frontend, and compiles the Go binary. The `run` target passes the repository's TOML configuration file to the `serve` command:
./$(BUILD_DIR)/$(BINARY_NAME) serve --config config/config.tomlBecause the target expands the two Makefile variables, this command becomes `./bin/netronome serve --config config/config.toml`. The command points to `config/config.toml`, but the shown files do not reproduce that file's contents or defaults. Readers should not assume which database, notification channels, test providers, or agent settings it contains. The README links to `https://netrono.me/reference/configuration-file/` for the documented reference.
The build process also contains a theme-fetch step. According to the `Makefile`, it fetches premium theme CSS from a private repository only when `THEMES_REPO_TOKEN` is set. Without that variable, the build succeeds and ships only the default theme. This is a packaging constraint rather than a functional requirement for network monitoring, but it matters when reproducing a particular branded deployment.
The module file declares Go 1.27.1 and a sizable dependency set. A source build therefore requires that Go version and the project's declared modules, in addition to the frontend packages invoked by the `Makefile`. The repository files shown here do not provide a complete prerequisite list for iperf3, DNS testing, or route tracing.
Failure modes in tests and agent reporting
Netronome's main strength is consolidation, not replacement of every underlying test system. Its speed-test functions rely on Speedtest.net, iperf3, or LibreSpeed. An iperf3 result still depends on suitable endpoints and test conditions. A LibreSpeed result depends on access to the selected service. The README does not explain retry behavior, test timeout handling, correction of failed results, or how simultaneous tests affect results.
Monitoring also has a deployment boundary. An agent can report system and bandwidth data only after it has been installed on the target server and can communicate with the Netronome service. No agent data means no server telemetry from that endpoint, even if the web interface is healthy. Netronome is therefore the wrong choice when the task is one manual transfer and there is no need for persistent server data, thresholds, a dashboard, or notifications.
The README leaves several operating questions unanswered. It does not state the default history period, export format, agent offline behavior, notification retry policy, or backup procedure. It links to Agents and FAQ documentation, but does not reproduce those pages. Operators should not interpret the dashboard as proof of durable archival until the configuration and storage behavior have been reviewed.
Netronome operates as a server-backed application with agents and a web interface. The underlying speed-test processes remain separate from the dashboard, so target availability remains part of the measurement's operating boundary.
Release activity and GPL-2.0 distribution cost
The repository is not archived. Its last push was on 2026-10-08. Recent releases include `v0.16.0` on 2026-10-05, `v0.15.0` on 2026-09-28, and `v0.14.1` on 2026-09-23. That release history shows recent changes, but the README and shown repository files do not provide an upgrade guide, compatibility matrix, or rollback command.
Upgrade planning must account for more than the application version. A build uses Go 1.27.1, a declared module graph, frontend packages, generated assets, configuration, and persistent data. The visible `Makefile` supports cleaning and rebuilding, but it does not document database migration behavior. Operators need to determine whether generated configuration and stored data can be restored with a prior release before replacing an existing deployment.
The README identifies the project as licensed under GNU General Public License v2.0, and the repository contains a `LICENSE` file. That matters when modifying or redistributing Netronome because the license includes source and distribution conditions. This is not legal advice. A deployment team should read the actual `LICENSE` file and assess how its source build, Docker image, web assets, and modifications are distributed.
The practical upgrade cost comes from state management and release validation. The first verification point should be the project's configuration and Agents documentation, followed by a check of the release notes for the exact version being deployed.
Editorial conclusion
Adopt Netronome when you need a self-hosted dashboard that combines speed tests, route tracing, DNS checks, packet loss, server telemetry, and notifications. Do not choose it when a single speed test is sufficient and deploying an agent-backed service would be unnecessary. Verify first that your target systems can reach Netronome and that the selected test services are available. The repository is not archived, and its last push was on 2026-10-08.
Frequently asked questions
How do I install and start Netronome with Docker?
The README documents cloning the repository, preparing `/data`, running `generate-config`, and starting `distrib/docker/docker-compose.yml`. It then directs the user to `http://localhost:7575` and account creation.
Which network speed tests does Netronome support?
The README states that Netronome supports Speedtest.net, iperf3, and LibreSpeed. It also traces routes and watches packet loss and DNS resolvers.
What information do Netronome agents report?
The README says agents on servers send system and bandwidth data to Netronome. When a value goes past a configured limit, Netronome sends a notification.
Does building Netronome from source require premium themes?
The `Makefile` says premium themes are fetched only when `THEMES_REPO_TOKEN` is set. Without it, the build succeeds and ships the default theme only.
Official sources
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