Bitnami package for TensorFlow Serving
What is TensorFlow Serving?
TensorFlow Serving is an open source high-performance system for serving machine learning models. It allows programmers to easily deploy algorithms and experiments without changing the architecture.
Overview of TensorFlow Serving Trademarks: This software listing is packaged by Bitnami. The respective trademarks mentioned in the offering are owned by the respective companies, and use of them does not imply any affiliation or endorsement.
TL;DR
docker run --name tensorflow-serving bitnami/tensorflow-serving:latest
You can find the available configuration options in the Environment Variables section.
Why use Bitnami Images?
- Bitnami closely tracks upstream source changes and promptly publishes new versions of this image using our automated systems.
- With Bitnami images the latest bug fixes and features are available as soon as possible.
- Bitnami containers, virtual machines and cloud images use the same components and configuration approach - making it easy to switch between formats based on your project needs.
- All our images are based on minideb -a minimalist Debian based container image that gives you a small base container image and the familiarity of a leading Linux distribution- or scratch -an explicitly empty image-.
- All Bitnami images available in Docker Hub are signed with Notation. Check this post to know how to verify the integrity of the images.
- Bitnami container images are released on a regular basis with the latest distribution packages available.
Looking to use TensorFlow Serving in production? Try VMware Tanzu Application Catalog, the commercial edition of the Bitnami catalog.
Why use a non-root container?
Non-root container images add an extra layer of security and are generally recommended for production environments. However, because they run as a non-root user, privileged tasks are typically off-limits. Learn more about non-root containers in our docs.
Supported tags and respective Dockerfile links
Learn more about the Bitnami tagging policy and the difference between rolling tags and immutable tags in our documentation page.
You can see the equivalence between the different tags by taking a look at the tags-info.yaml file present in the branch folder, i.e bitnami/ASSET/BRANCH/DISTRO/tags-info.yaml.
Subscribe to project updates by watching the bitnami/containers GitHub repo.
Get this image
The recommended way to get the Bitnami TensorFlow Serving Docker Image is to pull the prebuilt image from the Docker Hub Registry.
docker pull bitnami/tensorflow-serving:latest
To use a specific version, you can pull a versioned tag. You can view the list of available versions in the Docker Hub Registry.
docker pull bitnami/tensorflow-serving:[TAG]
If you wish, you can also build the image yourself by cloning the repository, changing to the directory containing the Dockerfile and executing the docker build command. Remember to replace the APP, VERSION and OPERATING-SYSTEM path placeholders in the example command below with the correct values.
git clone https://github.com/bitnami/containers.git
cd bitnami/APP/VERSION/OPERATING-SYSTEM
docker build -t bitnami/APP:latest .
Persisting your configuration
If you remove the container all your data and configurations will be lost, and the next time you run the image the data and configurations will be reinitialized. To avoid this loss of data, you should mount a volume that will persist even after the container is removed.
For persistence you should mount a volume at the /bitnami path for the TensorFlow Serving data and configurations. If the mounted directory is empty, it will be initialized on the first run.
docker run -v /path/to/tensorflow-serving-persistence:/bitnami bitnami/tensorflow-serving:latest
Alternatively, modify the docker-compose.yml file present in this repository:
services:
tensorflow-serving:
...
volumes:
- /path/to/tensorflow-serving-persistence:/bitnami
...
NOTE: As this is a non-root container, the mounted files and directories must have the proper permissions for the UID
1001.
Connecting to other containers
Using Docker container networking, a TensorFlow Serving server running inside a container can easily be accessed by your application containers.
Containers attached to the same network can communicate with each other using the container name as the hostname.
Using the Command Line
In this example, we will create a TensorFlow ResNet client instance that will connect to the server instance that is running on the same docker network as the client. The ResNet client will export an already trained data so the server can read it and you will be able to query the server with an image to get it categorized.
Step 1: Download the ResNet trained data
mkdir -p /tmp/model-data/1
cd /tmp/model-data
curl -o resnet_50_classification_1.tar.gz https://storage.googleapis.com/tfhub-modules/tensorflow/resnet_50/classification/1.tar.gz
tar xzf resnet_50_classification_1.tar.gz -C 1
Step 2: Create a network
docker network create app-tier --driver bridge
Step 3: Launch the TensorFlow Serving server instance
Use the --network app-tier argument to the docker run command to attach the TensorFlow Serving container to the app-tier network.
docker run -d --name tensorflow-serving \
--volume /tmp/model-data:/bitnami/model-data \
--network app-tier \
bitnami/tensorflow-serving:latest
Step 4: Export the data model
Run the tensorflow-resnet container in background mode to export the data model that you have already downloaded.
docker run -d --name tensorflow-resnet \
--volume /tmp/model-data:/bitnami/model-data \
--network app-tier \
bitnami/tensorflow-resnet:latest
Monitor the logs of tensorflow-serving until it shows the message Successfully loaded servable version. That will mean it is serving the model:
docker logs tensorflow-serving -f
Step 5: Launch your TensorFlow ResNet client instance
Finally we create a new container instance to launch the TensorFlow Serving client and connect to the server created in the previous step:
docker run -it --rm \
--volume /tmp/model-data:/bitnami/model-data \
--network app-tier \
bitnami/tensorflow-resnet:latest resnet_client_cc --server_port=tensorflow-serving:8500 --image_file=path/to/image.jpg
Using a Docker Compose file
When not specified, Docker Compose automatically sets up a new network and attaches all deployed services to that network. However, we will explicitly define a new bridge network named app-tier. In this example we assume that you want to connect to the TensorFlow Serving server from your own custom application image which is identified in the following snippet by the service name myapp.
version: '2'
networks:
app-tier:
driver: bridge
services:
tensorflow-serving:
image: 'bitnami/tensorflow-serving:latest'
networks:
- app-tier
myapp:
image: 'YOUR_APPLICATION_IMAGE'
networks:
- app-tier
IMPORTANT:
- Please update the YOUR_APPLICATION_IMAGE_ placeholder in the above snippet with your application image
- In your application container, use the hostname
tensorflow-servingto connect to the TensorFlow Serving server
Launch the containers using:
docker-compose up -d
Configuration
Environment variables
Tensorflow Serving can be customized by specifying environment variables on the first run. The following environment values are provided to custom Tensorflow:
Customizable environment variables
| Name | Description | Default Value |
|---|---|---|
TENSORFLOW_SERVING_ENABLE_MONITORING |
Enable tensorflow monitoring | no |
TENSORFLOW_SERVING_MODEL_NAME |
Tensorflow model name | resnet |
TENSORFLOW_SERVING_MONITORING_PATH |
Tensorflow monitoring path | /monitoring/prometheus/metrics |
TENSORFLOW_SERVING_PORT_NUMBER |
Tensorflow port number | 8500 |
TENSORFLOW_SERVING_REST_API_PORT_NUMBER |
Tensorflow API port number | 8501 |
Read-only environment variables
| Name | Description | Value |
|---|---|---|
BITNAMI_VOLUME_DIR |
Directory where to mount volumes. | /bitnami |
TENSORFLOW_SERVING_BASE_DIR |
Tensorflow installation directory. | ${BITNAMI_ROOT_DIR}/tensorflow-serving |
TENSORFLOW_SERVING_BIN_DIR |
Tensorflow directory for binary executables. | ${TENSORFLOW_SERVING_BASE_DIR}/bin |
TENSORFLOW_SERVING_TMP_DIR |
Tensorflow directory for temp files. | ${TENSORFLOW_SERVING_BASE_DIR}/tmp |
TENSORFLOW_SERVING_PID_FILE |
Tensorflow PID file. | ${TENSORFLOW_SERVING_TMP_DIR}/tensorflow-serving.pid |
TENSORFLOW_SERVING_CONF_DIR |
Tensorflow directory for configuration files. | ${TENSORFLOW_SERVING_BASE_DIR}/conf |
TENSORFLOW_SERVING_CONF_FILE |
Tensorflow configuration file. | ${TENSORFLOW_SERVING_CONF_DIR}/tensorflow-serving.conf |
TENSORFLOW_SERVING_MONITORING_CONF_FILE |
Tensorflow directory for configuration files. | ${TENSORFLOW_SERVING_CONF_DIR}/monitoring.conf |
TENSORFLOW_SERVING_LOGS_DIR |
Tensorflow directory for logs files. | ${TENSORFLOW_SERVING_BASE_DIR}/logs |
TENSORFLOW_SERVING_LOGS_FILE |
Tensorflow logs files. | ${TENSORFLOW_SERVING_LOGS_DIR}/tensorflow-serving.log |
TENSORFLOW_SERVING_VOLUME_DIR |
Tensorflow persistence directory. | ${BITNAMI_VOLUME_DIR}/tensorflow-serving |
TENSORFLOW_SERVING_MODEL_DATA |
Tensorflow data to persist. | ${BITNAMI_VOLUME_DIR}/model-data |
TENSORFLOW_SERVING_DAEMON_USER |
Tensorflow system user | tensorflow |
TENSORFLOW_SERVING_DAEMON_GROUP |
Tensorflow system group | tensorflow |
Configuration file
The image looks for configurations in /bitnami/tensorflow-serving/conf/. As mentioned in Persisting your configuation you can mount a volume at /bitnami and copy/edit the configurations in the /path/to/tensorflow-serving-persistence/tensorflow-serving/conf/. The default configurations will be populated to the conf/ directory if it's empty.
Step 1: Run the TensorFlow Serving image
Run the TensorFlow Serving image, mounting a directory from your host.
docker run --name tensorflow-serving -v /path/to/tensorflow-serving-persistence:/bitnami bitnami/tensorflow-serving:latest
Alternatively, modify the docker-compose.yml file present in this repository:
services:
tensorflow-serving:
...
volumes:
- /path/to/tensorflow-serving-persistence:/bitnami
...
Step 2: Edit the configuration
Edit the configuration on your host using your favorite editor.
vi /path/to/tensorflow-serving-persistence/conf/tensorflow-serving.conf
Step 3: Restart TensorFlow Serving
After changing the configuration, restart your TensorFlow Serving container for changes to take effect.
docker restart tensorflow-serving
or using Docker Compose:
docker-compose restart tensorflow-serving
Logging
The Bitnami TensorFlow Serving Docker image sends the container logs to the stdout. To view the logs:
docker logs tensorflow-serving
or using Docker Compose:
docker-compose logs tensorflow-serving
The logs are also stored inside the container in the /opt/bitnami/tensorflow-serving/logs/tensorflow-serving.log file.
You can configure the containers logging driver using the --log-driver option if you wish to consume the container logs differently. In the default configuration docker uses the json-file driver.
Maintenance
Upgrade this image
Bitnami provides up-to-date versions of TensorFlow Serving, including security patches, soon after they are made upstream. We recommend that you follow these steps to upgrade your container.
Step 1: Get the updated image
docker pull bitnami/tensorflow-serving:latest
or if you're using Docker Compose, update the value of the image property to
bitnami/tensorflow-serving:latest.
Step 2: Stop and backup the currently running container
Stop the currently running container using the command
docker stop tensorflow-serving
or using Docker Compose:
docker-compose stop tensorflow-serving
Next, take a snapshot of the persistent volume /path/to/tensorflow-serving-persistence using:
rsync -a /path/to/tensorflow-serving-persistence /path/to/tensorflow-serving-persistence.bkp.$(date +%Y%m%d-%H.%M.%S)
You can use this snapshot to restore the database state should the upgrade fail.
Step 3: Remove the currently running container
docker rm -v tensorflow-serving
or using Docker Compose:
docker-compose rm -v tensorflow-serving
Step 4: Run the new image
Re-create your container from the new image, restoring your backup if necessary.
docker run --name tensorflow-serving bitnami/tensorflow-serving:latest
or using Docker Compose:
docker-compose start tensorflow-serving
Notable Changes
2.5.1-debian-10-r12
- The size of the container image has been decreased.
- The configuration logic is now based on Bash scripts in the rootfs/ folder.
1.12.0-r34
- The TensorFlow Serving container has been migrated to a non-root user approach. Previously the container ran as the
rootuser and the TensorFlow Serving daemon was started as thetensorflowuser. From now on, both the container and the TensorFlow Serving daemon run as user1001. As a consequence, the data directory must be writable by that user. You can revert this behavior by changingUSER 1001toUSER rootin the Dockerfile.
1.8.0-r12, 1.8.0-debian-9-r1, 1.8.0-ol-7-r11
- The default serving port has changed from 9000 to 8500.
Using docker-compose.yaml
Please be aware this file has not undergone internal testing. Consequently, we advise its use exclusively for development or testing purposes. For production-ready deployments, we highly recommend utilizing its associated Bitnami Helm chart.
If you detect any issue in the docker-compose.yaml file, feel free to report it or contribute with a fix by following our Contributing Guidelines.
Contributing
We'd love for you to contribute to this container. You can request new features by creating an issue or submitting a pull request with your contribution.
Issues
If you encountered a problem running this container, you can file an issue. For us to provide better support, be sure to fill the issue template.
License
Copyright © 2024 Broadcom. The term "Broadcom" refers to Broadcom Inc. and/or its subsidiaries.
Licensed under the Apache License, Version 2.0 (the "License"); you may not use this file except in compliance with the License. You may obtain a copy of the License at
http://www.apache.org/licenses/LICENSE-2.0
Unless required by applicable law or agreed to in writing, software distributed under the License is distributed on an "AS IS" BASIS, WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. See the License for the specific language governing permissions and limitations under the License.