This guide describes the process of deploying FATE using Docker Compose.
The nodes (target nodes) to install FATE must meet the following requirements:
- A Linux host
- Docker: 19.03.0+
- Docker Compose: 1.27.0+
- The deployment machine have access to the Internet, so the hosts can communicate with each other;
- Network connection to Internet to pull container images from Docker Hub. If network connection to Internet is not available, consider to set up Harbor as a local registry or use offline images.
- A host running FATE is recommended to be with 8 CPUs and 16G RAM.
A Linux host can be used as a deployment machine to run installation scripts to deploy FATE onto target hosts.
First, on a Linux host, download KubeFATE from releases pages, unzip it into folder KubeFATE.
By default, the installation script pulls the images from Docker Hub during the deployment. If the target node is not connected to Internet, refer to the below section to set up a local registry such as Harbor and use the offline images.
If you have deployed other versions of FATE before, please delete and clean up before deploying the new version, Deleting the cluster.
Please refer to this guide to install Harbor as a local registry.
After setting up a Harbor registry, update the setting in the .env
file. Change RegistryURI
to the hostname or IP address of the Harbor instance. This setting lets the installation script use a local registry instead of Docker Hub.
In the below example, 192.168.10.1
is the IP address of Harbor.
$ cd KubeFATE/
$ vi .env
...
RegistryURI=192.168.10.1/federatedai
...
NOTE: For Chinese user who has difficulty to access docker hub, you can set RegistryURI
to hub.c.163.com
to use the mirror of the registry within China, we have already pushed the images to the 163 registry.
There are usually multiple parties participating a federated training. Each party should install FATE using a set of configuration files and scripts.
The following steps illustrate how to generate necessary configuration files and deploy two parties on different hosts.
Before deploying the FATE system, multiple parties should be defined in the configuration file: docker-deploy/parties.conf
.
The meaning of the parties.conf
configuration file configuration items see this document parties.conf file introduction
In the following sample of docker-deploy/parties.conf
, two parities are specified by id as 10000
and 9999
. Their clusters are going to be deployed on hosts with IP addresses of 192.168.7.1 and 192.168.7.2.
user=fate
dir=/data/projects/fate
party_list=(10000 9999)
party_ip_list=(192.168.7.1 192.168.7.2)
serving_ip_list=(192.168.7.1 192.168.7.2)
computing=Eggroll
federation=Eggroll
storage=Eggroll
algorithm=Basic
device=IPCL
compute_core=4
......
- For more details about FATE on Spark with RabbitMQ please refer to this document.
- For more details about FATE on Spark with Pulsar, refer to this document
- For more details about FATE on Spark with local pulsar, refer to this document
Using Docker-compose to deploy FATE can support the combination of many different types of engines (choice of computing federation storage), for more details about different types of FATE see: Architecture introduction of different types of FATE.
Note: Exchange components are not deployed by default. For deployment, users can fill in the server IP into the exchangeip
of the above configuration file. The default listening port of this component is 9371.
On the host running FATE, the non-root user needs the owner permission of /data/projects/fate
folder and Docker permission. No other action is required if the user is root.
# Create a fate user whose group is docker
[user@localhost]$ sudo useradd -s /bin/bash -g docker -d /home/fate fate
# Set user password
[user@localhost]$ sudo passwd fate
# Create docker-compose deployment directory
[user@localhost]$ sudo mkdir -p /data/projects/fate
# Modify the corresponding users and groups of docker-compose deployment directory
[user@localhost]$ sudo chown -R fate:docker /data/projects/fate
# Select users
[user@localhost]$ sudo su fate
# Check whether you have docker permission
[fate@localhost]$ docker ps
CONTAINER ID IMAGE COMMAND CREATED STATUS PORTS NAMES
# View docker-compose deployment directory
[fate@localhost]$ ls -l /data/projects/
total 0
drwxr-xr-x. 2 fate docker 6 May 27 00:51 fate
By default, the exchange service is not deployed. The exchange service runs on port 9371. If an exchange (co-locates on the host of the same party or runs standalone) service is needed, update the value of exchangeip
to the IP address of the desired host.
After editing the above configuration file, use the following commands to generate configuration of target hosts.
cd docker-deploy
bash ./generate_config.sh
Now, tar files have been generated for each party including the exchange node (party). They are named as confs-<party-id>.tar
and serving-<party-id>.tar
.
Starting from v1.11.1, docker compose deployment supports FATE deployment using GPU. If you want to use GPU, you need to get the docker environment of GPU first. You can refer to the official documentation of docker (https://docs.docker.com/config/containers/resource_constraints/#gpu).
To use the GPU, you need to modify the configuration, both of which need to be modified
algorithm=NN
device=GPU
gpu_count=1
Only the fateflow component is used for FATE GPU, so each Party needs at least one GPU.
gpu_count will be mapped to count, refer to Docker compose GPU support
Note: Before running the below commands, all target hosts must
- allow password-less SSH access with SSH key (Otherwise we will need to enter the password for each host for multiple times).
- meet the requirements specified in Prerequisites.
To deploy FATE to all configured target hosts, use the below command:
bash ./docker_deploy.sh all
The script copies tar files (e.g. confs-<party-id>.tar
or serving-<party-id>.tar
) to corresponding target hosts. It then launches a FATE cluster on each host using docker-compose
commands.
By default, the script starts the training and serving cluster simultaneously. If you need to start them separately, add the --training
or --serving
to the docker_deploy.sh
as follows.
(Optional) To deploy all parties training cluster, use the below command:
bash ./docker_deploy.sh all --training
(Optional) To deploy all parties serving cluster, use the below command:
bash ./docker_deploy.sh all --serving
(Optional) To deploy FATE to a single target host, use the below command with the party's id (10000 in the below example):
bash ./docker_deploy.sh 10000
(Optional) To deploy the exchange node to a target host, use the below command:
bash ./docker_deploy.sh exchange
Once the commands finish, log in to any host and use docker compose ps
to verify the status of the cluster. A sample output is as follows:
Verify the instance status using the following command,
cd /data/projects/fate/confs-10000
docker compose ps
The output is shown as follows. If the status of each component is Up
, and the status of fateflow is still (healthy), it means that the deployment is successful.
NAME IMAGE COMMAND SERVICE CREATED STATUS PORTS
confs-10000-client-1 federatedai/client:1.11.2-release "bash -c 'pipeline i…" client About a minute ago Up About a minute 0.0.0.0:20000->20000/tcp, :::20000->20000/tcp
confs-10000-clustermanager-1 federatedai/eggroll:1.11.2-release "/tini -- bash -c 'j…" clustermanager About a minute ago Up About a minute 4670/tcp
confs-10000-fateboard-1 federatedai/fateboard:1.11.2-release "/bin/sh -c 'java -D…" fateboard About a minute ago Up About a minute 0.0.0.0:8080->8080/tcp, :::8080->8080/tcp
confs-10000-fateflow-1 federatedai/fateflow:1.11.2-release "/bin/bash -c 'set -…" fateflow About a minute ago Up About a minute (healthy) 0.0.0.0:9360->9360/tcp, :::9360->9360/tcp, 0.0.0.0:9380->9380/tcp, :::9380->9380/tcp
confs-10000-mysql-1 mysql:8.0.28 "docker-entrypoint.s…" mysql About a minute ago Up About a minute 3306/tcp, 33060/tcp
confs-10000-nodemanager-1 federatedai/eggroll:1.11.2-release "/tini -- bash -c 'j…" nodemanager About a minute ago Up About a minute 4671/tcp
confs-10000-rollsite-1 federatedai/eggroll:1.11.2-release "/tini -- bash -c 'j…" rollsite About a minute ago Up About a minute 0.0.0.0:9370->9370/tcp, :::9370->9370/tcp
On the target node of each party, a container named confs-<party_id>_fateflow_1
should have been created and running the fate-flow
service. For example, on Party 10000's node, run the following commands to verify the deployment:
docker exec -it confs-10000-client-1 bash
flow test toy --guest-party-id 10000 --host-party-id 9999
If the test passed, the output may look like the following:
"2019-08-29 07:21:25,353 - secure_add_guest.py[line:96] - INFO: begin to init parameters of secure add example guest"
"2019-08-29 07:21:25,354 - secure_add_guest.py[line:99] - INFO: begin to make guest data"
"2019-08-29 07:21:26,225 - secure_add_guest.py[line:102] - INFO: split data into two random parts"
"2019-08-29 07:21:29,140 - secure_add_guest.py[line:105] - INFO: share one random part data to host"
"2019-08-29 07:21:29,237 - secure_add_guest.py[line:108] - INFO: get share of one random part data from host"
"2019-08-29 07:21:33,073 - secure_add_guest.py[line:111] - INFO: begin to get sum of guest and host"
"2019-08-29 07:21:33,920 - secure_add_guest.py[line:114] - INFO: receive host sum from guest"
"2019-08-29 07:21:34,118 - secure_add_guest.py[line:121] - INFO: success to calculate secure_sum, it is 2000.0000000000002"
docker exec -it confs-10000_client_1 bash
flow data upload -c fateflow/examples/upload/upload_host.json
docker exec -it confs-9999_client_1 bash
flow data upload -c fateflow/examples/upload/upload_guest.json
flow job submit -d fateflow/examples/lr/test_hetero_lr_job_dsl.json -c fateflow/examples/lr/test_hetero_lr_job_conf.json
output:
{
"data": {
"board_url": "http://fateboard:8080/index.html#/dashboard?job_id=202111230933232084530&role=guest&party_id=9999",
"code": 0,
"dsl_path": "/data/projects/fate/fate_flow/jobs/202111230933232084530/job_dsl.json",
"job_id": "202111230933232084530",
"logs_directory": "/data/projects/fate/fate_flow/logs/202111230933232084530",
"message": "success",
"model_info": {
"model_id": "arbiter-10000#guest-9999#host-10000#model",
"model_version": "202111230933232084530"
},
"pipeline_dsl_path": "/data/projects/fate/fate_flow/jobs/202111230933232084530/pipeline_dsl.json",
"runtime_conf_on_party_path": "/data/projects/fate/fate_flow/jobs/202111230933232084530/guest/9999/job_runtime_on_party_conf.json",
"runtime_conf_path": "/data/projects/fate/fate_flow/jobs/202111230933232084530/job_runtime_conf.json",
"train_runtime_conf_path": "/data/projects/fate/fate_flow/jobs/202111230933232084530/train_runtime_conf.json"
},
"jobId": "202111230933232084530",
"retcode": 0,
"retmsg": "success"
}
flow task query -r guest -j 202111230933232084530 | grep -w f_status
output:
"f_status": "success",
"f_status": "waiting",
"f_status": "running",
"f_status": "waiting",
"f_status": "waiting",
"f_status": "success",
"f_status": "success",
Wait for all waiting states to change to success.
flow model deploy --model-id arbiter-10000#guest-9999#host-10000#model --model-version 202111230933232084530
{
"data": {
"arbiter": {
"10000": 0
},
"detail": {
"arbiter": {
"10000": {
"retcode": 0,
"retmsg": "deploy model of role arbiter 10000 success"
}
},
"guest": {
"9999": {
"retcode": 0,
"retmsg": "deploy model of role guest 9999 success"
}
},
"host": {
"10000": {
"retcode": 0,
"retmsg": "deploy model of role host 10000 success"
}
}
},
"guest": {
"9999": 0
},
"host": {
"10000": 0
},
"model_id": "arbiter-10000#guest-9999#host-10000#model",
"model_version": "202111230954255210490"
},
"retcode": 0,
"retmsg": "success"
}
The model_version
that needs to be used later are all obtained in this step "model_version": "202111230954255210490"
cat > fateflow/examples/model/publish_load_model.json <<EOF
{
"initiator": {
"party_id": "9999",
"role": "guest"
},
"role": {
"guest": [
"9999"
],
"host": [
"10000"
],
"arbiter": [
"10000"
]
},
"job_parameters": {
"model_id": "arbiter-10000#guest-9999#host-10000#model",
"model_version": "202111230954255210490"
}
}
EOF
flow model load -c fateflow/examples/model/publish_load_model.json
output:
{
"data": {
"detail": {
"guest": {
"9999": {
"retcode": 0,
"retmsg": "success"
}
},
"host": {
"10000": {
"retcode": 0,
"retmsg": "success"
}
}
},
"guest": {
"9999": 0
},
"host": {
"10000": 0
}
},
"jobId": "202111240844337394000",
"retcode": 0,
"retmsg": "success"
}
cat > fateflow/examples/model/bind_model_service.json <<EOF
{
"service_id": "test",
"initiator": {
"party_id": "9999",
"role": "guest"
},
"role": {
"guest": ["9999"],
"host": ["10000"],
"arbiter": ["10000"]
},
"job_parameters": {
"work_mode": 1,
"model_id": "arbiter-10000#guest-9999#host-10000#model",
"model_version": "202111230954255210490"
}
}
EOF
flow model bind -c fateflow/examples/model/bind_model_service.json
output:
{
"retcode": 0,
"retmsg": "service id is test"
}
Send the following message to serving interface "{SERVING_SERVICE_IP}:8059/federation/v1/inference" of the "GUEST" party.
$ curl -X POST -H 'Content-Type: application/json' -i 'http://192.168.7.2:8059/federation/v1/inference' --data '{
"head": {
"serviceId": "test"
},
"body": {
"featureData": {
"x0": 1.88669,
"x1": -1.359293,
"x2": 2.303601,
"x3": 2.00137,
"x4": 1.307686
},
"sendToRemoteFeatureData": {
"phone_num": "122222222"
}
}
}'
output:
{"retcode":0,"retmsg":"","data":{"score":0.018025086161221948,"modelId":"guest#9999#arbiter-10000#guest-9999#host-10000#model","modelVersion":"202111240318516571130","timestamp":1637743473990},"flag":0}
Use this command to stop all cluster:
bash ./docker_deploy.sh --delete all
To delete the cluster completely, log in to each host and run the commands as follows:
cd /data/projects/fate/confs-<id>/ # id of party
docker compose down
rm -rf ../confs-<id>/ # delete the legacy files