Add a release pipeline including tests for Bird2 and VPP

This commit is contained in:
2026-04-05 17:34:30 +02:00
parent a7fb7db978
commit 9fc41679fd
20 changed files with 806 additions and 160 deletions

2
.gitignore vendored
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clab-*
**/*.bak
tests/.venv/
tests/out/

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# Building vpp-containerlab
This docker container creates a VPP instance based on the latest VPP release. It starts up as per
normal, using /etc/vpp/startup.conf (which Containerlab might replace when it starts its
containers). Once started, it'll execute `/etc/vpp/bootstrap.vpp` within the dataplane. There are
two relevant files:
This document describes how to build, test and release the `vpp-containerlab` Docker image.
The image is built natively on two machines and combined into a multi-arch manifest:
1. `clab.vpp` -- generated by `files/init-container.sh`. Its purpose is to bind the `veth`
interfaces that containerlab has added to the container into the VPP dataplane (see below).
1. `vppcfg.vpp` -- generated by `files/init-container.sh`. Its purpose is to read the user
specified `vppcfg.yaml` file and convert it into VPP CLI commands. If no YAML file is
specified, or if it is not syntactically valid, an empty file is generated instead.
- `summer` — amd64, Linux (local machine)
- `jessica-orb` — arm64, OrbStack VM on macOS, reachable via `ssh jessica-orb`
For Containerlab users who wish to have more control over their VPP bootstrap, it's possible to
bind-mount `/etc/vpp/bootstrap.vpp`.
The pipeline sideloads locally-built VPP `.deb` packages rather than pulling from packagecloud,
so VPP must be compiled on both machines before building the image.
## Building
## Prerequisites
To build, this container uses Docker's `buildx`, for which on Debian Bookworm it's required to use
the upstream (docker.com) packages described [[here](https://docs.docker.com/engine/install/debian/)].
To allow the buildx to build for multi-arch, it's also required to install the Qemu `binfmt`
emulators, with:
### SSH access to jessica-orb
```bash
docker run --privileged --rm tonistiigi/binfmt --install all
```
Then, ongoing builds can be cross-platform and take about 1500 seconds on an AMD64 i7-12700T
The buildx invocation will build 'latest' and then tag it with the current VPP package release,
which you can get from `vppcfg show version`, like so:
```bash
IMG=git.ipng.ch/ipng/vpp-containerlab
ARCH=linux/$(uname -m | sed 's/x86_64/amd64/;s/aarch64/arm64/')
TAG=latest
docker buildx build --load --platform $ARCH \
--tag $IMG:$TAG -f docker/Dockerfile docker/
TAG=v25.10-release
docker buildx build --load --build-arg REPO=2510 --platform $ARCH \
--tag $IMG:$TAG -f docker/Dockerfile docker/
```
### Sideloading locally built VPP packages
Instead of pulling VPP from packagecloud, you can sideload locally built `.deb` packages using
Docker buildx's `--build-context` flag. This is useful for testing unreleased VPP builds or
working around version-specific issues (for example, VPP 25.10 fails to start on kernels that
do not expose NUMA topology via sysfs, such as OrbStack on Apple Silicon; VPP 26.06+ fixes this).
Point `--build-context vppdebs=<path>` at a directory containing `libvppinfra_*.deb`,
`vpp_*.deb`, and `vpp-plugin-core_*.deb`. If the context is not provided, the build falls back
to packagecloud as normal. The `.deb` files are bind-mounted during the build and never stored
in an image layer. **Note:** the directory must contain `.deb` files for exactly one VPP version;
if multiple versions are present the glob patterns will match ambiguously and the build will fail.
```bash
# Build from locally compiled VPP packages (e.g. from ~/src/vpp after make pkg-deb):
IMG=git.ipng.ch/ipng/vpp-containerlab
ARCH=linux/$(uname -m | sed 's/x86_64/amd64/;s/aarch64/arm64/')
VPPDEBS=~/src/vpp/build-root
docker buildx build --load --platform $ARCH \
--build-context vppdebs=$VPPDEBS \
--tag $IMG:latest -f docker/Dockerfile docker/
# Build from packagecloud as normal (no --build-context needed):
docker buildx build --load --platform $ARCH \
--tag $IMG:latest -f docker/Dockerfile docker/
```
### Multiarch
Building a combined `linux/amd64` + `linux/arm64` manifest requires two machines building natively
— one per architecture. The setup below uses `summer` (amd64, Linux) and `jessica` (arm64, macOS
running OrbStack). **VPP must be compiled on each machine before building the Docker image**, because
the sideloader mounts locally built `.deb` files that are architecture-specific.
#### Setup
On `jessica`, the Docker daemon runs inside OrbStack's Linux VM. Expose its SSH port so `summer`
can reach it. OrbStack listens on `127.0.0.1:32222`; add a jump-host entry to `~/.ssh/config` on
`summer`:
The Docker daemon on `jessica` runs inside OrbStack's Linux VM. OrbStack listens on
`127.0.0.1:32222`; add a jump-host entry to `~/.ssh/config` on `summer` to reach it:
```
Host jessica-orb
@@ -107,118 +42,127 @@ ssh jessica-orb 'uname -m && docker info | head -3'
# expected: aarch64
```
Create the multiarch builder (run once on `summer`):
### One-time setup
Install the Robot Framework venv for running tests:
```bash
docker buildx create --name multiarch --driver docker-container --platform linux/amd64 --node summer-amd64
docker buildx create --append --name multiarch --driver docker-container --platform linux/arm64 --node jessica-arm64 ssh://jessica-orb
docker buildx inspect multiarch --bootstrap
make venv
```
#### Build
This only needs to be re-run if `tests/requirements.txt` changes.
Build VPP on both machines first (`make pkg-deb` in your VPP source tree on both `summer` and the
OrbStack VM on `jessica`). When sideloading `.deb` files, Docker sends the build context from the
client to every builder node — meaning `summer`'s amd64 debs would be sent to `jessica-orb` for
the arm64 build (wrong arch). The solution is to build each platform separately on its native
machine and combine them into a manifest.
### Before every release
Build VPP on both machines (`make pkg-deb` in your VPP source tree on both `summer` and the
OrbStack VM on `jessica`), then verify both machines have a consistent set of `.deb` packages:
```bash
IMG=git.ipng.ch/ipng/vpp-containerlab
VPPDEBS=~/src/vpp/build-root
# Step 1: build amd64 on summer, push with platform tag
docker buildx build --platform linux/amd64 \
--no-cache --build-context vppdebs=$VPPDEBS \
--push --tag $IMG:latest-amd64 \
-f docker/Dockerfile docker/
# Step 2: build arm64 natively on jessica-orb, push with platform tag
# (repo and VPP debs must be present on jessica-orb at the same paths)
# Note: $IMG and $VPPDEBS expand on summer before being sent over SSH -- set them first.
ssh jessica-orb "cd ~/src/vpp-containerlab && \
docker buildx build --platform linux/arm64 \
--no-cache --build-context vppdebs=$VPPDEBS \
--push --tag $IMG:latest-arm64 \
-f docker/Dockerfile docker/"
# Step 3: combine into a single multi-arch manifest and push in one step
# (docker buildx build --push produces manifest lists, so use imagetools, not docker manifest)
docker buildx imagetools create \
--tag $IMG:latest \
$IMG:latest-amd64 \
$IMG:latest-arm64
make preflight
```
## Testing standalone container
This checks that `~/src/vpp/build-root` on each machine contains exactly one version of each
required package and that the version on `summer` matches the version on `jessica-orb`.
Override the path if your build root is elsewhere:
```bash
docker network create --driver=bridge clab-network --subnet=192.0.2.0/24 \
--ipv6 --subnet=2001:db8::/64
docker rm clab-pim
docker run --cap-add=NET_ADMIN --cap-add=SYS_NICE --cap-add=SYS_PTRACE \
--device=/dev/net/tun:/dev/net/tun \
--device=/dev/vhost-net:/dev/vhost-net \
--privileged --name clab-pim \
git.ipng.ch/ipng/vpp-containerlab:latest
docker network connect clab-network clab-pim
make preflight VPPDEBS=~/src/vpp/other-build-root
```
### A note on DPDK
## Release pipeline
The full pipeline runs in this order:
DPDK will be disabled by default as it requires hugepages and VFIO and/or UIO to use physical
network cards. If DPDK at some future point is desired, mapping VFIO can be done by adding this:
```
--device=/dev/vfio/vfio:/dev/vfio/vfio
preflight → build → test → push → release
```
or in Containerlab, using the `devices` feature:
```yaml
my-node:
image: git.ipng.ch/ipng/vpp-containerlab:latest
kind: fdio_vpp
devices:
- /dev/vfio/vfio
- /dev/net/tun
- /dev/vhost-net
```
If using DPDK in a container, one of the userspace IO kernel drivers must be loaded in the host
kernel. Options are `igb_uio`, `vfio_pci`, or `uio_pci_generic`:
Run everything in one shot:
```bash
$ sudo modprobe igb_uio
$ sudo modprobe vfio_pci
$ sudo modprobe uio_pci_generic
make all
```
Particularly the VFIO driver needs to be present before one can attempt to bindmount
`/dev/vfio/vfio` into the container!
Or step through it manually:
## Configuring VPP
| Step | Command | What it does |
|------|---------|--------------|
| 1 | `make preflight` | Validate VPP debs on summer and jessica-orb |
| 2 | `make build-amd64` | Build image locally for amd64 |
| 3 | `make test-amd64` | Run e2e tests against the amd64 image |
| 4 | `make sync-arm64` | Rsync working tree to jessica-orb |
| 5 | `make build-arm64` | Build image on jessica-orb for arm64 |
| 6 | `make test-arm64` | Run e2e tests on jessica-orb against the arm64 image |
| 7 | `make push-amd64` | Tag and push `:latest-amd64` to the registry |
| 8 | `make push-arm64` | Tag and push `:latest-arm64` to the registry |
| 9 | `make release` | Combine into a single `:latest` multi-arch manifest |
When Containerlab starts the docker containers, it'll offer one or more `veth` point to point
network links, which will show up as `eth1` and further. `eth0` is the default NIC that belongs to
the management plane in Containerlab (the one which you'll see with `containerlab inspect`). Before
VPP can use these `veth` interfaces, it needs to bind them, like so:
Convenience targets:
```bash
docker exec -it clab-pim vppctl
make build # steps 2+4+5 (both platforms)
make test # steps 3+6 (both platforms)
make push # steps 7+8 (both platforms)
```
and then within the VPP control shell:
### Promoting to :stable
```
create host-interface v2 name eth1
set interface name host-eth1 eth1
set interface mtu 1500 eth1
set interface ip address eth1 192.0.2.2/24
set interface ip address eth1 2001:db8::2/64
set interface state eth1 up
`:stable` is only promoted **after** a successful `make all` — meaning both amd64 and arm64
have been built, tested, pushed and combined into `:latest`. Do not run `make stable` unless
the full pipeline completed without errors.
```bash
make all && make stable
```
Containerlab will attach these `veth` pairs to the container, and replace our Docker CMD with one
that waits for all of these interfaces to be added (typically called `if-wait.sh`). In our own CMD,
we then generate a config file called `/etc/vpp/clab.vpp` which contains the necessary VPP commands
to take control over these `veth` pairs.
`make stable` points `:stable` at the same manifest as the current `:latest-amd64` and
`:latest-arm64`, so it is always in sync with a fully tested release.
## Running a single test suite
Pass `TEST=` to restrict which suite is run:
```bash
make test-amd64 TEST=tests/01-vpp-ospf
make test TEST=tests/02-vpp-frr
```
The default is `tests/` (all suites).
## Debugging test failures
**Read the HTML log** — written after every run regardless of outcome:
```bash
xdg-open tests/out/tests-docker-log.html
```
**Deploy the topology manually** to keep containers running for inspection:
```bash
IMAGE=git.ipng.ch/ipng/vpp-containerlab:latest-amd64-test \
containerlab deploy -t tests/01-vpp-ospf/e2e-lab/vpp.clab.yml
```
Then inspect live state:
```bash
# OSPF neighbour state
containerlab exec -t tests/01-vpp-ospf/e2e-lab/vpp.clab.yml \
--label clab-node-name=vpp1 --cmd "birdc show ospf neighbor"
# Manual ping
containerlab exec -t tests/01-vpp-ospf/e2e-lab/vpp.clab.yml \
--label clab-node-name=client1 --cmd "ping -c 5 10.82.98.82"
# Tear down when done
containerlab destroy -t tests/01-vpp-ospf/e2e-lab/vpp.clab.yml --cleanup
```
**Common cause — OSPF convergence time:** 100% ping loss usually means routing is not up yet.
Tune the `Sleep` duration in the relevant `.robot` file by deploying manually and watching
`birdc show ospf neighbor` (or `vtysh -c "show ip ospf neighbor"` for FRR) until all
neighbours reach state `Full`.
**Increase robot verbosity:** add `--loglevel DEBUG` to the `robot` invocation in
`tests/rf-run.sh` temporarily.

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Makefile Normal file
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IMG := git.ipng.ch/ipng/vpp-containerlab
BUILDHOST := jessica-orb
BUILDDIR := ~/src/.vpp-containerlab-build
VPPDEBS := $(HOME)/src/vpp/build-root
TEST ?= tests/
.PHONY: all help preflight build build-amd64 build-arm64 sync-arm64 test test-amd64 test-arm64 \
push push-amd64 push-arm64 release stable venv
help:
@echo "vpp-containerlab build, test and release"
@echo ""
@echo "Typical workflow:"
@echo " 1. make venv Set up local Robot Framework venv (once, or after requirements change)"
@echo " 2. make preflight Verify VPP debs in VPPDEBS= on summer and jessica-orb"
@echo " 3. make build-amd64 Build image locally for amd64 (sideloading VPPDEBS)"
@echo " 4. make test-amd64 Run e2e tests locally against the amd64 image"
@echo " 5. make sync-arm64 Rsync working tree to jessica-orb and set up venv there"
@echo " 6. make build-arm64 Build image on jessica-orb for arm64 (sideloading VPPDEBS)"
@echo " 7. make test-arm64 Run e2e tests on jessica-orb against the arm64 image"
@echo " 8. make push-amd64 Tag and push :latest-amd64 to the registry"
@echo " 9. make push-arm64 Tag and push :latest-arm64 to the registry (runs on jessica-orb)"
@echo " 10. make release Combine into a single :latest multi-arch manifest"
@echo ""
@echo " make all Run steps 2-10 in one go (venv must already exist)"
@echo " make build Run steps 3+5+6 (sync-arm64 + both builds)"
@echo " make test Run steps 4+7 (both test suites)"
@echo " make push Run steps 8+9 (both pushes)"
@echo " make release Run step 10 (publish into a multi-arch manifest)"
@echo " make stable When all tests pass on amd64+arm64, push this ':latest' as :stable'"
@echo ""
@echo "Variables (override on command line):"
@echo " VPPDEBS=~/src/vpp/build-root Directory of locally-built VPP .deb packages"
@echo " TEST=tests/02-vpp-frr Run only a specific test suite (default: all)"
# Build both platforms, test both, push both, then combine into :latest.
all: preflight build test push release
build: build-amd64 sync-arm64 build-arm64
test: test-amd64 test-arm64
push: push-amd64 push-arm64
# -------------------------------------------------------------------------
# Preflight — validate VPP debs on summer and jessica-orb
# -------------------------------------------------------------------------
# Check locally, then pipe the same script to jessica-orb over SSH,
# passing the local version so jessica-orb can assert both machines match.
preflight:
python3 scripts/check-vppdebs.py $(VPPDEBS)
$(eval VPP_VERSION := $(shell python3 scripts/check-vppdebs.py --print-version $(VPPDEBS)))
ssh $(BUILDHOST) python3 - --assert-version $(VPP_VERSION) $(VPPDEBS) < scripts/check-vppdebs.py
# -------------------------------------------------------------------------
# Local venv (summer)
# -------------------------------------------------------------------------
tests/.venv: tests/requirements.txt
python3 -m venv tests/.venv
tests/.venv/bin/pip install -q -r tests/requirements.txt
venv: tests/.venv
# -------------------------------------------------------------------------
# amd64 — runs locally on summer
# -------------------------------------------------------------------------
build-amd64:
docker buildx build --no-cache --load --platform linux/amd64 \
--build-context vppdebs=$(VPPDEBS) \
--tag $(IMG):latest-amd64-test \
-f docker/Dockerfile docker/
test-amd64: tests/.venv
IMAGE=$(IMG):latest-amd64-test tests/rf-run.sh docker $(TEST)
push-amd64:
docker tag $(IMG):latest-amd64-test $(IMG):latest-amd64
docker push $(IMG):latest-amd64
# -------------------------------------------------------------------------
# arm64 — runs on jessica-orb via rsync + SSH
# -------------------------------------------------------------------------
# Wipe and re-sync summer's working tree to a stable directory on jessica-orb,
# then set up the robot venv there.
sync-arm64:
@case "$(BUILDDIR)" in \
.*|/*) echo "ERROR: BUILDDIR '$(BUILDDIR)' must not start with '.' or '/'" >&2; exit 1;; \
esac
ssh $(BUILDHOST) "rm -rf $(BUILDDIR) && mkdir -p $(BUILDDIR)"
rsync -a --exclude='.git' --exclude='tests/.venv' --exclude='tests/out' \
./ $(BUILDHOST):$(BUILDDIR)/
ssh $(BUILDHOST) "cd $(BUILDDIR) && \
python3 -m venv tests/.venv && \
tests/.venv/bin/pip install -q -r tests/requirements.txt"
build-arm64:
ssh $(BUILDHOST) "cd $(BUILDDIR) && \
docker buildx build --no-cache --load --platform linux/arm64 \
--build-context vppdebs=$(VPPDEBS) \
--tag $(IMG):latest-arm64-test \
-f docker/Dockerfile docker/"
test-arm64:
ssh $(BUILDHOST) "cd $(BUILDDIR) && \
IMAGE=$(IMG):latest-arm64-test \
tests/rf-run.sh docker $(TEST)"
push-arm64:
ssh $(BUILDHOST) "docker tag $(IMG):latest-arm64-test $(IMG):latest-arm64 && \
docker push $(IMG):latest-arm64"
# -------------------------------------------------------------------------
# Release — combine amd64 + arm64 into a single :latest manifest
# -------------------------------------------------------------------------
release:
docker buildx imagetools create \
--tag $(IMG):latest \
$(IMG):latest-amd64 \
$(IMG):latest-arm64
# -------------------------------------------------------------------------
# Stable — mark latest release as stable. Only do this if all tests pass
# -------------------------------------------------------------------------
stable:
docker buildx imagetools create \
--tag $(IMG):stable \
$(IMG):latest-amd64 \
$(IMG):latest-arm64

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scripts/check-vppdebs.py Executable file
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#!/usr/bin/env python3
"""
Validate a directory of locally-built VPP .deb packages before a Docker build.
Checks:
- The directory exists
- Exactly one *.changes file
- Exactly one *.buildinfo file
- Exactly one of each required .deb package
- All packages carry the same version string
- Optionally: version matches an expected value (for cross-machine consistency)
Usage:
check-vppdebs.py [--print-version] [--assert-version VERSION] [directory]
--print-version Print only the detected version string and exit (no other output).
--assert-version VER After all checks pass, assert the detected version equals VER.
Use this to verify summer and jessica-orb have the same build.
directory Path to check (default: ~/src/vpp/build-root).
"""
import sys
import glob
import argparse
from pathlib import Path
REQUIRED_DEBS = [
"libvppinfra_*.deb",
"python3-vpp-api_*.deb",
"vpp_*.deb",
"vpp-crypto-engines_*.deb",
"vpp-plugin-core_*.deb",
]
def find(directory, pattern):
return sorted(glob.glob(str(directory / pattern)))
def version_from_deb(path):
"""Extract the version field from a deb filename: name_VERSION_arch.deb"""
return Path(path).stem.split("_")[1]
def main():
parser = argparse.ArgumentParser(add_help=False)
parser.add_argument("--print-version", action="store_true")
parser.add_argument("--assert-version", metavar="VERSION", default=None)
parser.add_argument("directory", nargs="?", default="~/src/vpp/build-root")
args = parser.parse_args()
directory = Path(args.directory).expanduser()
errors = []
versions = []
if not args.print_version:
print(f"Checking VPP debs in: {directory}")
if not directory.is_dir():
print(f" ERROR: directory does not exist: {directory}")
sys.exit(1)
# *.changes
changes = find(directory, "*.changes")
if len(changes) == 1:
if not args.print_version:
print(f" OK changes : {Path(changes[0]).name}")
else:
errors.append(f"expected exactly 1 *.changes, found {len(changes)}: {[Path(f).name for f in changes]}")
# *.buildinfo
buildinfo = find(directory, "*.buildinfo")
if len(buildinfo) == 1:
if not args.print_version:
print(f" OK buildinfo : {Path(buildinfo[0]).name}")
else:
errors.append(f"expected exactly 1 *.buildinfo, found {len(buildinfo)}: {[Path(f).name for f in buildinfo]}")
# required debs
for pattern in REQUIRED_DEBS:
matches = find(directory, pattern)
if len(matches) == 1:
ver = version_from_deb(matches[0])
versions.append(ver)
if not args.print_version:
print(f" OK {pattern:<30s}: {Path(matches[0]).name}")
else:
errors.append(f"expected exactly 1 {pattern}, found {len(matches)}: {[Path(f).name for f in matches]}")
# version consistency within this directory
if versions and len(set(versions)) > 1:
errors.append(f"debs carry mixed versions: {sorted(set(versions))}")
if errors:
if not args.print_version:
print()
for e in errors:
print(f" ERROR: {e}")
sys.exit(1)
detected = versions[0] if versions else None
if args.print_version:
print(detected or "")
sys.exit(0)
print(f" OK version : {detected}")
# cross-machine version assertion
if args.assert_version:
if detected == args.assert_version:
print(f" OK matches summer : {detected}")
else:
print(f" ERROR: version mismatch: this machine={detected}, summer={args.assert_version}")
sys.exit(1)
print()
print("Preflight OK.")
if __name__ == "__main__":
main()

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*** Settings ***
Library OperatingSystem
Resource ../ssh.robot
Resource ../common.robot
Suite Teardown Run Keyword Cleanup
*** Variables ***
${lab-name} e2e-vpp
${lab-file-name} e2e-lab/vpp.clab.yml
${runtime} docker
*** Test Cases ***
Deploy ${lab-name} lab
Log ${CURDIR}
${rc} ${output} = Run And Return Rc And Output
... ${CLAB_BIN} --runtime ${runtime} deploy -t ${CURDIR}/${lab-file-name}
Log ${output}
Should Be Equal As Integers ${rc} 0
Pause to let OSPF converge
Sleep 20s
Check BFD Adjacencies
${rc} ${output} = Run And Return Rc And Output
... ${CLAB_BIN} --runtime ${runtime} exec -t ${CURDIR}/${lab-file-name} --label clab-node-name\=vpp2 --cmd "birdc show bfd ses"
Log ${output}
Should Be Equal As Integers ${rc} 0
Should Match Regexp ${output} (?m)fe80::.*eth2.*Up
Should Match Regexp ${output} (?m)10\.82\.98\..*eth2.*Up
Check OSPF IPv4 Adjacency
${rc} ${output} = Run And Return Rc And Output
... ${CLAB_BIN} --runtime ${runtime} exec -t ${CURDIR}/${lab-file-name} --label clab-node-name\=vpp1 --cmd "birdc show ospf nei ospf4"
Log ${output}
Should Be Equal As Integers ${rc} 0
Should Match Regexp ${output} (?m)Full/PtP.*eth2
Check OSPF IPv6 Adjacency
${rc} ${output} = Run And Return Rc And Output
... ${CLAB_BIN} --runtime ${runtime} exec -t ${CURDIR}/${lab-file-name} --label clab-node-name\=vpp2 --cmd "birdc show ospf nei ospf6"
Log ${output}
Should Be Equal As Integers ${rc} 0
Should Match Regexp ${output} (?m)Full/PtP.*eth2
Ensure client1 can ping client2
${rc} ${output} = Run And Return Rc And Output
... ${CLAB_BIN} --runtime ${runtime} exec -t ${CURDIR}/${lab-file-name} --label clab-node-name\=client1 --cmd "ping -c 5 10.82.98.82"
Log ${output}
Should Be Equal As Integers ${rc} 0
Should Contain ${output} 5 packets transmitted, 4 packets received, 20% packet loss
*** Keywords ***
Cleanup
Run ${CLAB_BIN} --runtime ${runtime} destroy -t ${CURDIR}/${lab-file-name} --cleanup

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protocol bfd bfd1 {
interface "eth2" { interval 100 ms; multiplier 30; };
}
protocol ospf v2 ospf4 {
ipv4 { import all; export all; };
area 0 {
interface "loop0" { stub yes; };
interface "eth2" { type pointopoint; cost 10; bfd on; };
};
}
protocol ospf v3 ospf6 {
ipv6 { import all; export all; };
area 0 {
interface "loop0" { stub yes; };
interface "eth2" { type pointopoint; cost 10; bfd on; };
};
}

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interfaces:
eth1:
description: "To client1"
mtu: 1500
lcp: eth1
addresses: [10.82.98.65/28, 2001:db8:8298:101::1/64]
eth2:
description: "To vpp2"
mtu: 9216
lcp: eth2
addresses: [10.82.98.16/31, 2001:db8:8298:1::1/64]
loopbacks:
loop0:
description: "vpp1"
lcp: loop0
addresses: [10.82.98.0/32, 2001:db8:8298::/128]

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protocol bfd bfd1 {
interface "eth2" { interval 100 ms; multiplier 30; };
}
protocol ospf v2 ospf4 {
ipv4 { import all; export all; };
area 0 {
interface "loop0" { stub yes; };
interface "eth2" { type pointopoint; cost 10; bfd on; };
};
}
protocol ospf v3 ospf6 {
ipv6 { import all; export all; };
area 0 {
interface "loop0" { stub yes; };
interface "eth2" { type pointopoint; cost 10; bfd on; };
};
}

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interfaces:
eth1:
description: "To client2"
mtu: 1500
lcp: eth1
addresses: [10.82.98.81/28, 2001:db8:8298:102::1/64]
eth2:
description: "To vpp1"
mtu: 9216
lcp: eth2
addresses: [10.82.98.17/31, 2001:db8:8298:1::2/64]
loopbacks:
loop0:
description: "vpp2"
lcp: loop0
addresses: [10.82.98.1/32, 2001:db8:8298::1/128]

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name: e2e-vpp
topology:
kinds:
fdio_vpp:
image: ${IMAGE}
startup-config: config/__clabNodeName__/vppcfg.yaml
binds:
- config/__clabNodeName__/bird-local.conf:/config/bird/bird-local.conf:ro
linux:
image: alpine:latest
nodes:
vpp1:
kind: fdio_vpp
vpp2:
kind: fdio_vpp
client1:
kind: linux
exec:
- ip link set address 00:c1:ab:00:00:01 dev eth1
- ip addr add 10.82.98.66/28 dev eth1
- ip route add 10.82.98.0/24 via 10.82.98.65
- ip addr add 2001:db8:8298:101::2/64 dev eth1
- ip route add 2001:db8:8298::/48 via 2001:db8:8298:101::1
client2:
kind: linux
exec:
- ip link set address 00:c1:ab:00:00:02 dev eth1
- ip addr add 10.82.98.82/28 dev eth1
- ip route add 10.82.98.0/24 via 10.82.98.81
- ip addr add 2001:db8:8298:102::2/64 dev eth1
- ip route add 2001:db8:8298::/48 via 2001:db8:8298:102::1
links:
- endpoints: ["vpp1:eth2", "vpp2:eth2"]
- endpoints: ["client1:eth1", "vpp1:eth1"]
- endpoints: ["client2:eth1", "vpp2:eth1"]

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*** Settings ***
Library OperatingSystem
Resource ../ssh.robot
Resource ../common.robot
Suite Teardown Run Keyword Cleanup
*** Variables ***
${lab-name} e2e-vpp
${lab-file-name} e2e-lab/vpp.clab.yml
${runtime} docker
*** Test Cases ***
Deploy ${lab-name} lab
Log ${CURDIR}
${rc} ${output} = Run And Return Rc And Output
... ${CLAB_BIN} --runtime ${runtime} deploy -t ${CURDIR}/${lab-file-name}
Log ${output}
Should Be Equal As Integers ${rc} 0
Pause to let OSPF converge
Sleep 20s
Check BFD Adjacencies
${rc} ${output} = Run And Return Rc And Output
... ${CLAB_BIN} --runtime ${runtime} exec -t ${CURDIR}/${lab-file-name} --label clab-node-name\=vpp1 --cmd "vtysh -c 'show bfd peers brief'"
Log ${output}
Should Be Equal As Integers ${rc} 0
Should Match Regexp ${output} (?m)10\.82\.98\..*10\.82\.98\..*up
Should Match Regexp ${output} (?m)fe80::.*fe80::.*up
Check OSPF IPv4 Adjacency
${rc} ${output} = Run And Return Rc And Output
... ${CLAB_BIN} --runtime ${runtime} exec -t ${CURDIR}/${lab-file-name} --label clab-node-name\=vpp1 --cmd "vtysh -c 'show ip ospf nei'"
Log ${output}
Should Be Equal As Integers ${rc} 0
Should Match Regexp ${output} (?m)Full/.*eth2
Check OSPF IPv6 Adjacency
${rc} ${output} = Run And Return Rc And Output
... ${CLAB_BIN} --runtime ${runtime} exec -t ${CURDIR}/${lab-file-name} --label clab-node-name\=vpp2 --cmd "vtysh -c 'show ipv6 ospf nei'"
Log ${output}
Should Be Equal As Integers ${rc} 0
Should Match Regexp ${output} (?m)Full/.*eth2
Ensure client1 can ping client2
${rc} ${output} = Run And Return Rc And Output
... ${CLAB_BIN} --runtime ${runtime} exec -t ${CURDIR}/${lab-file-name} --label clab-node-name\=client1 --cmd "ping -c 5 10.82.98.82"
Log ${output}
Should Be Equal As Integers ${rc} 0
Should Contain ${output} 5 packets transmitted, 4 packets received, 20% packet loss
*** Keywords ***
Cleanup
Run ${CLAB_BIN} --runtime ${runtime} destroy -t ${CURDIR}/${lab-file-name} --cleanup

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frr version 10.3
frr defaults traditional
hostname vpp1
log syslog informational
service integrated-vtysh-config
!
ip router-id 10.82.98.0
!
interface eth2
ip ospf area 0
ip ospf bfd
ip ospf cost 10
ip ospf network point-to-point
ipv6 ospf6 area 0
ipv6 ospf6 bfd
ipv6 ospf6 cost 10
ipv6 ospf6 network point-to-point
exit
!
interface loop0
ip ospf passive
exit
!
router ospf
redistribute connected
exit
!
router ospf6
redistribute connected
exit
!

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interfaces:
eth1:
description: "To client1"
mtu: 1500
lcp: eth1
addresses: [10.82.98.65/28, 2001:db8:8298:101::1/64]
eth2:
description: "To vpp2"
mtu: 9216
lcp: eth2
addresses: [10.82.98.16/31, 2001:db8:8298:1::1/64]
loopbacks:
loop0:
description: "vpp1"
lcp: loop0
addresses: [10.82.98.0/32, 2001:db8:8298::/128]

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frr version 10.3
frr defaults traditional
hostname vpp2
log syslog informational
service integrated-vtysh-config
!
ip router-id 10.82.98.1
!
interface eth2
ip ospf area 0
ip ospf bfd
ip ospf cost 10
ip ospf network point-to-point
ipv6 ospf6 area 0
ipv6 ospf6 bfd
ipv6 ospf6 cost 10
ipv6 ospf6 network point-to-point
exit
!
interface loop0
ip ospf passive
exit
!
router ospf
redistribute connected
exit
!
router ospf6
redistribute connected
exit
!

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interfaces:
eth1:
description: "To client2"
mtu: 1500
lcp: eth1
addresses: [10.82.98.81/28, 2001:db8:8298:102::1/64]
eth2:
description: "To vpp1"
mtu: 9216
lcp: eth2
addresses: [10.82.98.17/31, 2001:db8:8298:1::2/64]
loopbacks:
loop0:
description: "vpp2"
lcp: loop0
addresses: [10.82.98.1/32, 2001:db8:8298::1/128]

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name: e2e-vpp
topology:
kinds:
fdio_vpp:
image: ${IMAGE}
startup-config: config/__clabNodeName__/vppcfg.yaml
binds:
- config/__clabNodeName__/frr.conf:/config/frr/frr.conf:ro
env:
BIRD_ENABLED: false
FRR_ENABLED: true
linux:
image: alpine:latest
nodes:
vpp1:
kind: fdio_vpp
vpp2:
kind: fdio_vpp
client1:
kind: linux
exec:
- ip link set address 00:c1:ab:00:00:01 dev eth1
- ip addr add 10.82.98.66/28 dev eth1
- ip route add 10.82.98.0/24 via 10.82.98.65
- ip addr add 2001:db8:8298:101::2/64 dev eth1
- ip route add 2001:db8:8298::/48 via 2001:db8:8298:101::1
client2:
kind: linux
exec:
- ip link set address 00:c1:ab:00:00:02 dev eth1
- ip addr add 10.82.98.82/28 dev eth1
- ip route add 10.82.98.0/24 via 10.82.98.81
- ip addr add 2001:db8:8298:102::2/64 dev eth1
- ip route add 2001:db8:8298::/48 via 2001:db8:8298:102::1
links:
- endpoints: ["vpp1:eth2", "vpp2:eth2"]
- endpoints: ["client1:eth1", "vpp1:eth1"]
- endpoints: ["client2:eth1", "vpp2:eth1"]

2
tests/common.robot Normal file
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*** Variables ***
${CLAB_BIN} containerlab

2
tests/requirements.txt Normal file
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robotframework
robotframework-sshlibrary

45
tests/rf-run.sh Executable file
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#!/bin/bash
# Run Robot Framework tests for vpp-containerlab.
# Arguments:
# $1 - container runtime: [docker, podman]
# $2 - test suite path (directory or .robot file)
#
# Environment variables:
# CLAB_BIN - path to containerlab binary (default: containerlab)
# IMAGE - docker image to use in topology (must be set)
set -e
if [ -z "${CLAB_BIN}" ]; then
CLAB_BIN=containerlab
fi
if [ -z "${IMAGE}" ]; then
echo "ERROR: IMAGE environment variable must be set" >&2
exit 1
fi
SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"
mkdir -p "${SCRIPT_DIR}/out"
source "${SCRIPT_DIR}/.venv/bin/activate"
function get_logname() {
path=$1
filename=$(basename "$path")
if [[ "$filename" == *.* ]]; then
dirname=$(dirname "$path")
basename=$(basename "$path" | cut -d. -f1)
echo "${dirname##*/}-${basename}"
else
echo "${filename}"
fi
}
robot --consolecolors on -r none \
--variable CLAB_BIN:"${CLAB_BIN}" \
--variable runtime:"$1" \
-l "${SCRIPT_DIR}/out/$(get_logname $2)-$1-log" \
--output "${SCRIPT_DIR}/out/$(get_logname $2)-$1-out.xml" \
"$2"

44
tests/ssh.robot Normal file
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*** Settings ***
Library SSHLibrary
*** Keywords ***
Login via SSH with username and password
[Arguments]
... ${address}=${None}
... ${port}=22
... ${username}=${None}
... ${password}=${None}
# seconds to try and successfully login
... ${try_for}=4
... ${conn_timeout}=3
FOR ${i} IN RANGE ${try_for}
SSHLibrary.Open Connection ${address} timeout=${conn_timeout}
${status}= Run Keyword And Return Status SSHLibrary.Login ${username} ${password}
IF ${status} BREAK
Sleep 1s
END
IF $status!=True
Fail Unable to connect to ${address} via SSH in ${try_for} attempts
END
Log Exited the loop.
Login via SSH with public key
[Arguments]
... ${address}=${None}
... ${port}=22
... ${username}=${None}
... ${keyfile}=${None}
... ${try_for}=4
... ${conn_timeout}=3
FOR ${i} IN RANGE ${try_for}
SSHLibrary.Open Connection ${address} timeout=${conn_timeout}
${status}= Run Keyword And Return Status SSHLibrary.Login With Public Key
... ${username} ${keyfile}
IF ${status} BREAK
Sleep 1s
END
IF $status!=True
Fail Unable to connect to ${address} via SSH in ${try_for} attempts
END
Log Exited the loop.