Installation Guide
Abstract
This document describes how to install AIMLFW, demo scenarios, it’s dependencies and required system resources.
Version history
Date |
Ver. |
Author |
Comment |
2022-11-30 |
0.1.0 |
First draft |
|
2023-06-06 |
1.0.0 |
Joseph Thaliath |
H Release |
2023-08-10 |
1.0.1 |
Joseph Thaliath |
H Maintenance release |
2023-12-14 |
1.1.0 |
Joseph Thaliath |
I release |
Introduction
This document describes the supported software and hardware configurations for the reference component as well as providing guidelines on how to install and configure such reference system.
The audience of this document is assumed to have good knowledge in AI/ML tools, Kubernetes and Linux system.
Hardware Requirements
Below are the minimum requirements for installing the AIMLFW
OS: Ubuntu 22.04 server
16 cpu cores
32 GB RAM
60 GB harddisk
Software Installation and Deployment
git clone "https://gerrit.o-ran-sc.org/r/aiml-fw/aimlfw-dep"
cd aimlfw-dep
Update recipe file RECIPE_EXAMPLE/example_recipe_latest_stable.yaml
which includes update of VM IP and datalake details.
Note: In case the Influx DB datalake is not available, this can be skipped at this stage and can be updated after installing datalake.
bin/install_traininghost.sh
Check running state of all pods and services using below command
kubectl get pods --all-namespaces
kubectl get svc --all-namespaces
Check the AIMLFW dashboard by using the following url
http://localhost:32005/
In case of any change required in the RECIPE_EXAMPLE/example_recipe_latest_stable.yaml file after installation, the following steps can be followed to reinstall with new changes.
bin/uninstall.sh
bin/install.sh -f RECIPE_EXAMPLE/example_recipe_latest_stable.yaml
Software Uninstallation
bin/uninstall_traininghost.sh
Install Influx DB as datalake (Optional)
Standalone Influx DB installation can be used if DME is not used as a data source.
helm repo add bitnami https://charts.bitnami.com/bitnami
helm install my-release bitnami/influxdb --version 5.13.5
kubectl exec -it <pod name> bash
From below command we can get username, org name, org id and access token
cat bitnami/influxdb/influxd.bolt | tr -cd "[:print:]"
eg: {“id”:”0a576f4ba82db000”,”token”:”xJVlOom1GRUxDNkldo1v”,”status”:”active”,”description”:”admin’s Token”,”orgID”:”783d5882c44b34f0”,”userID”:”0a576f4b91edb000”,”permissions” …
Use the tokens further in the below configurations and in the recipe file.
Following are the steps to add qoe data to Influx DB.
Execute below from inside Influx DB container to create a bucket:
influx bucket create -n UEData -o primary -t <token>
Install the following dependencies
sudo pip3 install pandas
sudo pip3 install influxdb_client
Use the insert.py
in ric-app/qp repository
to upload the qoe data in Influx DB
git clone -b f-release https://gerrit.o-ran-sc.org/r/ric-app/qp
cd qp/qp
Update insert.py
file with the following content:
import pandas as pd
from influxdb_client import InfluxDBClient
from influxdb_client.client.write_api import SYNCHRONOUS
import datetime
class INSERTDATA:
def __init__(self):
self.client = InfluxDBClient(url = "http://localhost:8086", token="<token>")
def explode(df):
for col in df.columns:
if isinstance(df.iloc[0][col], list):
df = df.explode(col)
d = df[col].apply(pd.Series)
df[d.columns] = d
df = df.drop(col, axis=1)
return df
def jsonToTable(df):
df.index = range(len(df))
cols = [col for col in df.columns if isinstance(df.iloc[0][col], dict) or isinstance(df.iloc[0][col], list)]
if len(cols) == 0:
return df
for col in cols:
d = explode(pd.DataFrame(df[col], columns=[col]))
d = d.dropna(axis=1, how='all')
df = pd.concat([df, d], axis=1)
df = df.drop(col, axis=1).dropna()
return jsonToTable(df)
def time(df):
df.index = pd.date_range(start=datetime.datetime.now(), freq='10ms', periods=len(df))
df['measTimeStampRf'] = df['measTimeStampRf'].apply(lambda x: str(x))
return df
def populatedb():
df = pd.read_json('cell.json.gz', lines=True)
df = df[['cellMeasReport']].dropna()
df = jsonToTable(df)
df = time(df)
db = INSERTDATA()
write_api = db.client.write_api(write_options=SYNCHRONOUS)
write_api.write(bucket="UEData",record=df, data_frame_measurement_name="liveCell",org="primary")
populatedb()
Update <token>
in insert.py
file
Follow below command to port forward to access Influx DB
kubectl port-forward svc/my-release-influxdb 8086:8086
To insert data:
python3 insert.py
To check inserted data in Influx DB , execute below command inside the Influx DB container:
influx query 'from(bucket: "UEData") |> range(start: -1000d)' -o primary -t <token>
Prepare Non-RT RIC DME as data source for AIMLFW (optional)
Bring up the RANPM setup by following the steps mentioned in the file install/README.md present in the repository RANPM repository
Once all the pods are in running state, follow the below steps to prepare ranpm setup for AIMLFW qoe usecase data access
The scripts files are present in the folder demos/hrelease/scripts of repository AIMLFW repository
Note: The following steps need to be performed in the VM where the ranpm setup is installed.
git clone "https://gerrit.o-ran-sc.org/r/aiml-fw/aimlfw-dep"
cd aimlfw-dep/demos/hrelease/scripts
./get_access_tokens.sh
Output of ./get_access_tokens.sh can be used during feature group creation step.
Execute the below script
./prepare_env_aimlfw_access.sh
Add feature group from AIMLFW dashboard, example on how to create a feature group is shown in this demo video: Feature group creation demo
Execute below script to push qoe data into ranpm setup
./push_qoe_data.sh <source name mentioned when creating feature group> <Number of rows> <Cell Identity>
Example for executing above script
./push_qoe_data.sh gnb300505 30 c4/B2
Steps to check if data is upload correctly
kubectl exec -it influxdb2-0 -n nonrtric -- bash
influx query 'from(bucket: "pm-logg-bucket") |> range(start: -1000000000000000000d)' |grep pdcpBytesDl
Steps to clear the data in InfluxDB
kubectl exec -it influxdb2-0 -n nonrtric -- bash
influx delete --bucket pm-logg-bucket --start 1801-01-27T05:00:22.305309038Z --stop 2023-11-14T00:00:00Z
Feature group creation
From AIMLFW dashboard create feature group (Training Jobs-> Create Feature Group )
NOTE: Below are some example values to be used for the DME based feature group creation for qoe usecase
Parameter |
Value |
Feature Group Name |
featuregroup1 |
Features |
pdcpBytesDl,pdcpBytesUl |
Host |
<IP of VM where DME is installed> |
Port |
31812 |
Db Org |
est |
Bucket Name |
pm-logg-bucket |
DB Token |
<token obtained using get_access_tokens.sh during DME setup> |
_measurement |
test,ManagedElement=nodedntest,GNBDUFunction=1004,NRCellDU=c4_B2 |
DME flag |
enable it |
Source Name |
|
Measured Obj Class |
NRCellDU |
Dme port |
31823 |
NOTE: Below are some example values to be used for the standalone influx DB creation for qoe usecase
Parameter |
Value |
Feature Group Name |
featuregroup1 |
Features |
pdcpBytesDl,pdcpBytesUl |
Host |
<IP of VM where Influx DB is installed> |
Port |
<port of Influx DB> |
Db Org |
primary |
Bucket Name |
UEData |
DB Token |
<token obtained during INflux DB installation> |
_measurement |
liveCell |
Register Model (optional)
Register the model using the below steps if using Model management service for training.
curl --location 'http://<VM IP where AIMLFW is installed>:32006/registerModel' \
--header 'Content-Type: application/json' \
--data '{
"model-name":"qoe1",
"rapp-id": "rapp_1",
"meta-info" :
{
"accuracy":"90",
"model-type":"timeseries",
"feature-list":["pdcpBytesDl","pdcpBytesUl"]
}
}'
Training job creation with DME as data source
AIMLFW should be installed by following steps in section Software Installation and Deployment
RANPM setup should be installed and configured as per steps mentioned in section Prepare Non-RT RIC DME as data source for AIMLFW
To create training job, follow the steps in the demo videos stored here: Training Job creation
After training job is created and executed successfully, model can be deployed using steps mentioned in section Deploy trained qoe prediction model on Kserve or Steps to deploy model using Kserve adapter
NOTE: Below are some example values to be used for the QoE usecase training job creation when model management service is not used. NOTE: The QoE training function does not come pre uploaded, we need to go to training function, create training function and run the qoe-pipeline notebook.
Parameter |
Value |
Training Job Name |
qoetest |
Model Management Service |
disable |
Training Function |
qoe_pipeline_h_release |
FeatureGroup Name |
featuregroup1 |
Datalake Source |
Influx DB |
Feature Filter |
|
Hyper Parameters |
epochs:1 |
Description |
test |
NOTE: Below are some example values to be used for the QoE usecase training job creation when model management service is used.
Parameter |
Value |
Training Job Name |
qoetest |
Model Management Service |
enable |
Model name |
qoe1 |
FeatureGroup Name |
featuregroup1 |
Datalake Source |
Influx DB |
Feature Filter |
|
Hyper Parameters |
epochs:1 |
Description |
test |
Training job creation with standalone Influx DB as data source
AIMLFW should be installed by following steps in section Software Installation and Deployment
Standalone Influx DB should be setup and configured as mentioned in section Install Influx DB as datalake
To create training job, follow the steps in the demo videos stored here: Training Job creation
After training job is created and executed successfully, model can be deployed using steps mentioned in section Deploy trained qoe prediction model on Kserve or Steps to deploy model using Kserve adapter
NOTE: Below are some example values to be used for the QoE usecase training job creation when model management service is not used NOTE: The QoE training function does not come pre uploaded, we need to go to training function, create training function and run the qoe-pipeline notebook.
Parameter |
Value |
Training Job Name |
qoetest |
Model Management Service |
disable |
Training Function |
qoe_pipeline_g_release |
FeatureGroup Name |
featuregroup1 |
Datalake Source |
Influx DB |
Feature Filter |
|
Hyper Parameters |
epochs:1 |
Description |
test |
NOTE: Below are some example values to be used for the QoE usecase training job creation when model management service is used
Parameter |
Value |
Training Job Name |
qoetest |
Model Management Service |
enable |
Model Name |
qoe_pipeline_g_release |
Datalake Source |
Influx DB |
Feature Filter |
|
Hyper Parameters |
epochs:1 |
Description |
test |
Obtain Model URL for deploying trained models
URL for deployment can be obainted from AIMFW dashboard (Training Jobs-> Training Job status -> Select Info for a training job -> Model URL) In case of using AIMLFW Model management service, URL for downloading and deploying model using Model Management Service will be the following:
http://<VM IP where AIMLFW is deployed>:32006/downloadModel/<model name>/model.zip
Install only Kserve for deploying models
To install Kserve run the below commands
./bin/install_kserve.sh
Uninstall only Kserve
To uninstall Kserve run the below commands
./bin/uninstall_kserve.sh
Deploy trained qoe prediction model on Kserve
Create namespace using command below
kubectl create namespace kserve-test
Create qoe.yaml
file with below contents
apiVersion: "serving.kserve.io/v1beta1"
kind: "InferenceService"
metadata:
name: qoe-model
spec:
predictor:
tensorflow:
storageUri: "<update Model URL here>"
runtimeVersion: "2.5.1"
resources:
requests:
cpu: 0.1
memory: 0.5Gi
limits:
cpu: 0.1
memory: 0.5Gi
To deploy model update the Model URL in the qoe.yaml
file and execute below command to deploy model
Refer Obtain Model URL for deploying trained models
kubectl apply -f qoe.yaml -n kserve-test
Check running state of pod using below command
kubectl get pods -n kserve-test
Test predictions using model deployed on Kserve
Use below command to obtain Ingress port for Kserve.
kubectl get svc istio-ingressgateway -n istio-system
Obtain nodeport corresponding to port 80. In the below example, the port is 31206.
NAME TYPE CLUSTER-IP EXTERNAL-IP PORT(S) AGE
istio-ingressgateway LoadBalancer 10.105.222.242 <pending> 15021:31423/TCP,80:31206/TCP,443:32145/TCP,31400:32338/TCP,15443:31846/TCP 4h15m
Create predict.sh file with following contents
model_name=qoe-model
curl -v -H "Host: $model_name.kserve-test.example.com" http://<IP of where Kserve is deployed>:<ingress port for Kserve>/v1/models/$model_name:predict -d @./input_qoe.json
Update the IP
of host where Kserve is deployed and ingress port of Kserve obtained using above method.
Create sample data for predictions in file input_qoe.json
. Add the following content in input_qoe.json
file.
{"signature_name": "serving_default", "instances": [[[2.56, 2.56],
[2.56, 2.56],
[2.56, 2.56],
[2.56, 2.56],
[2.56, 2.56],
[2.56, 2.56],
[2.56, 2.56],
[2.56, 2.56],
[2.56, 2.56],
[2.56, 2.56]]]}
Use command below to trigger predictions
source predict.sh
Install both Kserve and Kserve adapter for deploying models
To install Kserve run the below commands Please note to update the DMS IP in example_recipe_latest_stable.yaml before installation
./bin/install_kserve_inference.sh
Uninstall both Kserve and Kserve adapter for deploying models
To uninstall Kserve run the below commands
./bin/uninstall_kserve_inference.sh
Steps to deploy model using Kserve adapter
Prerequisites
Install chart museum
Build ricdms binary
Run ric dms
export RIC_DMS_CONFIG_FILE=$(pwd)/config/config-test.yaml ./ricdms
Create sample_config.json
Create sample_config.json file with the following contents
{ "xapp_name": "sample-xapp", "xapp_type": "inferenceservice", "version": "2.2.0", "sa_name": "default", "inferenceservice": { "engine": "tensorflow", "storage_uri": "<Model URL>", "runtime_version": "2.5.1", "api_version": "serving.kubeflow.org/v1beta1", "min_replicas": 1, "max_replicas": 1 } } Refer :ref:`Obtain Model URL for deploying trained models <reference5>`
Copy sample_config.json
Update the below command with kserve adapter pod name
kubectl cp sample_config.json ricips/<kserve adapter pod name>:pkg/helm/data/sample_config.json
Generating and upload helm package
curl --request POST --url 'http://127.0.0.1:31000/v1/ips/preparation?configfile=pkg/helm/data/sample_config.json&schemafile=pkg/helm/data/sample_schema.json'
Check uploaded charts
curl http://127.0.0.1:8080/api/charts
Deploying the model
curl --request POST --url 'http://127.0.0.1:31000/v1/ips?name=inference-service&version=1.0.0'
Check deployed Inference service
kubectl get InferenceService -n ricips