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This guide is geared to provide information regarding  how to build a CBA.



Deck
idUser Guide


Card
defaulttrue
labelInstallation

Anchor
Installation
Installation

Installation

ONAP is meant to be deployed within a Kubernetes environment. Hence, the de-facto way to deploy CDS is through Kubernetes.

ONAP also package Kubernetes manifest as Chart, using Helm.

Anchor
InstallationPrereq
InstallationPrereq

Prerequisite

https://docs.onap.org/en/latest/guides/onap-developer/settingup/index.html

Setup local Helm

Code Block
titlehelm repo
collapsetrue
helm init --history-max 200 # To install tiller to target Kubernetes if not yet installed
helm serve &
helm repo add local http://127.0.0.1:8879

Get the chart

Make sure to checkout the release to use, by replacing $release-tag in bellow command

Code Block
titlegit clone
collapsetrue
git clone https://gerrit.onap.org/r/oom
cd oom
git checkout tags/$release-tag
cd kubernetes
make common
make cds

Anchor
InstallationCDS
InstallationCDS

Install CDS

Code Block
titlehelm install
collapsetrue
helm install --name cds cds

Result

Code Block
titlekubectl output
collapsetrue
$ kubectl get all --selector=release=cds
NAME                                             READY     STATUS    RESTARTS   AGE
pod/cds-blueprints-processor-54f758d69f-p98c2    0/1       Running   1          2m
pod/cds-cds-6bd674dc77-4gtdf                     1/1       Running   0          2m
pod/cds-cds-db-0                                 1/1       Running   0          2m
pod/cds-controller-blueprints-545bbf98cf-zwjfc   1/1       Running   0          2m
NAME                            TYPE        CLUSTER-IP      EXTERNAL-IP   PORT(S)             AGE
service/blueprints-processor    ClusterIP   10.43.139.9     <none>        8080/TCP,9111/TCP   2m
service/cds                     NodePort    10.43.254.69    <none>        3000:30397/TCP      2m
service/cds-db                  ClusterIP   None            <none>        3306/TCP            2m
service/controller-blueprints   ClusterIP   10.43.207.152   <none>        8080/TCP            2m
NAME                                        DESIRED   CURRENT   UP-TO-DATE   AVAILABLE   AGE
deployment.apps/cds-blueprints-processor    1         1         1            0           2m
deployment.apps/cds-cds                     1         1         1            1           2m
deployment.apps/cds-controller-blueprints   1         1         1            1           2m
NAME                                                   DESIRED   CURRENT   READY     AGE
replicaset.apps/cds-blueprints-processor-54f758d69f    1         1         0         2m
replicaset.apps/cds-cds-6bd674dc77                     1         1         1         2m
replicaset.apps/cds-controller-blueprints-545bbf98cf   1         1         1         2m
NAME                          DESIRED   CURRENT   AGE
statefulset.apps/cds-cds-db   1         1         2m

See also Running CDS in minikube instructions for installing CDS.


Card
labelAPI

Anchor
API
API

Swagger

Can be found at http://$ip:$runtimePort/swagger-ui.html#/

NOTE: Swagger is currently disabled (since ElAlto). 

CDS APIs are not documented either anywhere yet.

Code Block
titleCurl example of self-service API call
curl --location --request POST '10.12.7.33:30699/api/v1/execution-service/process' \
--header 'Content-Type: application/json' \
--header 'Authorization: Basic Y2NzZGthcHBzOmNjc2RrYXBwcw==' \
--header 'Content-Type: text/plain' \
--data-raw '{
	"actionIdentifiers": {
		"mode": "sync",
		"blueprintName": "vLB_CDS",
		"blueprintVersion": "1.0.0",
		"actionName": "resource-assignment"
	},
	"payload": {
		"resource-assignment-request": {
			"template-prefix": [
				"vnf"
			],
			"resource-assignment-properties": {
				"image_name": "ubuntu-16-04-cloud-amd64",
				"vpg_0_int_pktgen_private_port_0_mac": "fa:16:3e:00:00:20",
				"repo_url_artifacts": "https://nexus.onap.org/content/groups/staging",
				"flavor_name": "m1.medium",
				"dcae_collector_ip": "10.12.5.214",
				"onap_private_subnet_id": "oam_network_N0qx",
				"key_name": "olc-key",
				"vlb_0_int_pktgen_private_port_0_mac": "fa:16:3e:00:00:10",
				"cloud_env": "openstack",
				"onap_private_net_id": "oam_network_N0qx",
				"repo_url_blob": "https://nexus.onap.org/content/repositories/raw",
				"nb_api_version": "1.2.0",
				"install_script_version": "1.5.0",
				"demo_artifacts_version": "1.5.0",
				"sec_group": "onap_sg_N0qx",
				"public_net_id": "external",
				"nexus_artifact_repo": "https://nexus.onap.org",
				"pub_key": "ssh-rsa AAAAB3NzaC1yc2EAAAADAQABAAABAQDKXDgoo3+WOqcUG8/5uUbk81+yczgwC4Y8ywTmuQqbNxlY1oQ0YxdMUqUnhitSXs5S/yRuAVOYHwGg2mCs20oAINrP+mxBI544AMIb9itPjCtgqtE2EWo6MmnFGbHB4Sx3XioE7F4VPsh7japsIwzOjbrQe+Mua1TGQ5d4nfEOQaaglXLLPFfuc7WbhbJbK6Q7rHqZfRcOwAMXgDoBqlyqKeiKwnumddo2RyNT8ljYmvB6buz7KnMinzo7qB0uktVT05FH9Rg0CTWH5norlG5qXgP2aukL0gk1ph8iAt7uYLf1ktp+LJI2gaF6L0/qli9EmVCSLr1uJ38Q8CBflhkh",
				"service-instance-id": "d21892d9-cfba-49e9-92ce-c3208450cbf7",
				"vnf-model-customization-uuid": "448d784e-3951-46db-8c9d-372cfe2e7a68",
				"vnf-id": "3f259ee6-cd7e-4a83-8b2b-5e6da3a05ce1",
				"aic-cloud-region": "RegionOne"
			}
		}
	},
	"commonHeader": {
		"subRequestId": "3f259ee6-cd7e-4a83-8b2b-5e6da3a05ce1",
		"requestId": "073e64ed-734e-4937-abb7-0b4c634b52e1",
		"originatorId": "SDNC_DG"
	}
}'



Card
labelCDS Design Time

Anchor
CDSDesignTime
CDSDesignTime

CDS Design time

Bellow are the requirements to enable automation for a service within ONAP.

For instantiation, the goal is to be able to automatically resolve all the HEAT/Helm variables, called cloud parameters.

For post-instantiation, the goal is to configure the VNF with initial configuration.


As part of SDC design time, when defining the topology, for the resource of type VF or PNF, you need to specify


Deck
idDesign time


Card
labelHelpers

Anchor
CDSDesignTimeHelpers
CDSDesignTimeHelpers

Provide Helper scripts / tool to help with the design time activities

Here's a helper script to facilitate the deployment of data-type, data-dictionary, CBA enrichment and CBA upload.

Make sure to update the following parameters in the bellow script

  • NODE_IP: IP of one of the K8S cluster node

The script assume the following folder structure is in place, update the script accordingly to your environment

Code Block
└── service
    ├── cba
    ├── tmp
    │	└── cba.zip (temporary file)
	│	└── cba-enriched.zip (temporary file)
    ├── data-dictionary
    └── data-type

Note that before CDS can be used to enrich and load models, initial Data Types and Data Dictionary need to be loaded.

CDS has some own default in-build Data Types and Data Dictionary but those are not loaded by default at startup. CDS Default types and dictionary can be loaded by using CDS GUI or using API call:

Code Block
# From Frankfurt onwards inside the cluster as nodeports not exposed anymore. (Prob this can be done also from CDS GUI today)

# Find first the ClusterIp for CDS blueprints processor's http endpoint
kubectl -n onap get svc cds-blueprints-processor-http -o jsonpath='{.spec.clusterIP}'

curl -X POST --header 'Content-Type: application/json' --header 'Authorization: Basic Y2NzZGthcHBzOmNjc2RrYXBwcw==' -d '{
	"loadModelType" : true,
	"loadResourceDictionary" : true,
	"loadCBA" : false
}' http://<kube node ip>:30499<clusterIp>:8080/api/v1/blueprint-model/bootstrap

This will load Default Data Types 1 and Default Data Dictionary 2 but not demo CBA models (as 'loadCBA' is set to false).


Code Block
languagebash
titleCBA Helper script
collapsetrue
#!/bin/sh
IP=NODE_IP
BLUEPRINT_PROCESSOR_PORT=30499
BLUEPRINT_PROCESSOR_URI=http://${IP}:${BLUEPRINT_PROCESSOR_PORT}
URL_ENRICH=${BLUEPRINT_PROCESSOR_URI}/api/v1/blueprint-model/enrich
URL_PUBLISH=${BLUEPRINT_PROCESSOR_URI}/api/v1/blueprint-model/publish
URL_DD=${BLUEPRINT_PROCESSOR_URI}/api/v1/dictionary
URL_DT=${BLUEPRINT_PROCESSOR_URI}/api/v1/model-type
CBA_ZIP=/service/tmp/cba.zip
CBA_ZIP_ENRICHED=~/service/tmp/cba_enriched.zip
CBA_PATH=/service/cba
DD_PATH=/service/data-dictionary
DT_PATH=/service/data-type

for f in $DT_PATH/*.json; do
  echo "Pushing model-type '$f'"
  curl -sS -X POST $URL_DT -H 'Content-Type: application/json' -H 'Authorization: Basic Y2NzZGthcHBzOmNjc2RrYXBwcw==' -d "@$f" 
  echo " "
done

for f in $DD_PATH/*.json; do
  echo "Pushing data dictionary '$f'"
  curl -sS -X POST $URL_DD -H 'Content-Type: application/json' -H 'Authorization: Basic Y2NzZGthcHBzOmNjc2RrYXBwcw==' -d "@$f"
  echo " "
done


[ -f "$CBA_ZIP" ] && rm "$CBA_ZIP"
[ -f "$CBA_ZIP_ENRICHED" ] && rm "$CBA_ZIP_ENRICHED"

pushd $CBA_PATH
zip -uqr $CBA_ZIP . --exclude=*.git*
popd
echo "Doing enrichment..."
curl -sS -X POST $URL_ENRICH -H 'content-type: multipart/form-data' -H 'Authorization: Basic Y2NzZGthcHBzOmNjc2RrYXBwcw==' -F file=@$CBA_ZIP -o $CBA_ZIP_ENRICHED
echo "Publishing..."
curl -X POST $URL_PUBLISH -H 'content-type: multipart/form-data' -H 'Authorization: Basic Y2NzZGthcHBzOmNjc2RrYXBwcw==' -F file=@$CBA_ZIP_ENRICHED

# rm $CBA_ZIP $CBA_ZIP_ENRICHED

With CBA Helper script user can load own CBA model and also own Data Types (API: /api/v1/model-type) and own Data Dictionary (API: /api/v1/dictionary) into CDS.

NOTE: CDS default Data types 1) and Data Dictionary 2) files cannot be loaded into CDS by using CDS's APIs, only CDS can load that format of files.

File format supported by /api/v1/model-type and /api/v1/dictionary APIs is not documented anywhere yet.



Card
defaulttrue
labelPrerequisite

Anchor
CDSDesignTimePrereq
CDSDesignTimePrereq

Prerequisite

  1. CDS runtime needs to be loaded with Data Types and Data Dictionary before starting modeling (enrichment). This can be done in CDS GUI or using API /api/v1/blueprint-model/bootstrap.
  2. Gather the parameters:

    Deck
    idprerequisite


    Card
    labelinstantiation

    Have the HEAT template along with the HEAT environment file.

    or

    Have the Helm chart along with the Values.yaml file (Integration between Multicloud and CDS TBD)


    Card
    labelconfiguration

    Have the configuration template to apply on the VNF.

    1. XML for NETCONF
    2. JSON / XML for RESTCONF
    3. JSON for Ansible
    4. CLI
    5. ...



  3. Identify which template parameters are static and dynamic
  4. Create and fill-in the a table for all the dynamic values

    While doing so, identify the resources using the same process to be resolved; for instance, if two IPs has to be resolved through the same IPAM, the process the resolve the IP is the same.

    Here are the information to capture for each dynamic cloud parameters

    Parameter NameData Dictionary Resource sourceData Dictionary Ingredients for resolutionOutput of resolution
    Either the cloud parameters name or the placeholder given for the dynamic property.


    Deck
    idhow to resolve


    Card
    labelInput

    Value will be given as input in the request.


    Card
    labelDefault

    Value will be defaulted in the model.


    Card
    labelREST

    Value will be resolved by sending a query to the REST system


    AuthURLURIPayloadVERB

    Supported Auth type

    Deck
    idauth


    Card
    labelToken

    Use token based authentication

    • token


    Card
    labelBasic

    Use basic authentication

    • username
    • password


    Card
    labelSSL

    Use SSL basic authentication

    • keystore type
    • truststore
    • truststore password
    • keystore
    • keystore password



    http(s)://<host>:<port>/xyzJSON formatted payloadHTTP method




    Card
    labelSQL

    Value will be resolved by sending a SQL statement to the DB system


    TypeURLQueryUsernamePassword
    Only maria-db supported for now


    jdbc:mysql://<host>:<port>/db

    SQL statement




    Card
    labelCapability

    Value will be resolved through the execution of a script.



    These are all the required parameters to process the resolution of that particular resources.

    Deck
    idinput


    Card
    labelREST

    List of placeholders used for

    • URI
    • Payload


    Card
    labelDB

    List of placeholders used for

    • SQL statement



    This is the expected result from the system, and you should know what value out of the response is of interest for you.

    If it's a JSON payload, then you should think about the json path to access to value of interest.





Card
labelData Dictionary

Anchor
CDSDesignTimeDD
CDSDesignTimeDD

Data dictionary

What is a data dictionary?

For each unique identified dynamic resource, along with all their ingredients, we need to create a data dictionary.

Here are the modeling guideline: Modeling Concepts#resourceDefinition-modeling


Bellow are examples of data dictionary

Deck
idDD


Card
labelinput

Anchor
CDSDesignTimeDDInput
CDSDesignTimeDDInput

Value will be pass as input.

Code Block
themeEclipse
titleunit-number
{
    "tags": "unit-number",
    "name": "unit-number",
    "property": {
      "description": "unit-number",
      "type": "string"
    },
    "updated-by": "adetalhouet",
    "sources": {
      "input": {
        "type": "source-input"
      }
    }
  }



Card
labeldefault

Anchor
CDSDesignTimeDDDefault
CDSDesignTimeDDDefault

Value will be defaulted.

Code Block
themeEclipse
titleprefix-id
{
  "tags": "prefix-id",
  "name": "prefix-id",
  "property" :{
    "description": "prefix-id",
    "type": "integer"
  },
  "updated-by": "adetalhouet",
  "sources": {
    "default": {
      "type": "source-default"
    }
  }
}



Card
labelrest

Anchor
CDSDesignTimeDDRest
CDSDesignTimeDDRest

Value will be resolved through REST.

Modeling reference: Modeling Concepts#rest


Panel
titleprimary-config-data via rest source type

In this example, we're making a POST request to an IPAM system with no payload.

Some ingredients are required to perform the query, in this case, $prefixId. Hence It is provided as an input-key-mapping and defined as a key-dependencies. Please refer to the modeling guideline for more in depth understanding.

As part of this request, the expected response will be as bellow. What is of interest is the address field, as this is what we're trying to resolve.

Code Block
themeEclipse
titleresponse
collapsetrue
{
    "id": 4,
    "address": "192.168.10.2/32",
    "vrf": null,
    "tenant": null,
    "status": 1,
    "role": null,
    "interface": null,
    "description": "",
    "nat_inside": null,
    "created": "2018-08-30",
    "last_updated": "2018-08-30T14:59:05.277820Z"
}

To tell the resolution framework what is of interest in the response, the path property can be used, which uses JSON_PATH, to get the value.

Code Block
themeEclipse
titlecreate_netbox_ip_address
{
    "tags" : "oam-local-ipv4-address",
    "name" : "create_netbox_ip",
    "property" : {
      "description" : "netbox ip",
      "type" : "string"
    },
    "updated-by" : "adetalhouet",
    "sources" : {
      "sdnc" : {
        "type" : "source-rest",
        "properties" : {
          "type" : "JSON",
          "verb" : "POST",
          "endpoint-selector" : "ipam-1",
          "url-path" : "/api/ipam/prefixes/$prefixId/available-ips/",
          "path" : "/address",
          "input-key-mapping" : {
            "prefixId" : "prefix-id"
          },
          "output-key-mapping" : {
            "address" : "address"
          },
          "key-dependencies" : [ "prefix-id" ]
        }
      }
    }
  }




Card
labeldb

Anchor
CDSDesignTimeDDDB
CDSDesignTimeDDDB

Value will be resolved through a database.

Modeling reference: Modeling Concepts#sql

In this example, we're making a SQL to the primary database.

Some ingredients are required to perform the query, in this case, $vfmoudleid. Hence It is provided as an input-key-mapping and defined as a key-dependencies. Please refer to the modeling guideline for more in depth understanding.

As part of this request, the expected response will be as put in value. In the output-key-mapping section, that value will be mapped to the expected resource name to resolve.

Code Block
themeEclipse
titlevf-module-type
{
  "name": "vf-module-type",
  "tags": "vf-module-type",
  "property": {
    "description": "vf-module-type",
    "type": "string"
  },
  "updated-by": "adetalhouet",
  "sources": {
    "primary-db": {
      "type": "source-db",
      "properties": {
        "type": "SQL",
        "query": "select sdnctl.demo.value as value from sdnctl.demo where sdnctl.demo.id=:vfmoduleid",
        "input-key-mapping": {
          "vfmoduleid": "vf-module-number"
        },
        "output-key-mapping": {
          "vf-module-type": "value"
        },
        "key-dependencies": [
          "vf-module-number"
        ]
      }
    }
  }
}



Card
labelcapability

Anchor
CDSDesignTimeDDScript
CDSDesignTimeDDScript

Value will be resolved through the execution of a script.

Modeling reference: Modeling Concepts#Capability

In this example, we're making use of a Python script.

Some ingredients are required to perform the query, in this case, $vf-module-type. Hence It is provided as a key-dependencies. Please refer to the modeling guideline for more in depth understanding.

As part of this request, the expected response will set within the script itself.

Code Block
themeEclipse
titleinterface-description
{
  "tags": "interface-description",
  "name": "interface-description",
  "property": {
    "description": "interface-description",
    "type": "string"
  },
  "updated-by": "adetalhouet",
  "sources": {
    "capability": {
      "type": "source-capability",
      "properties": {
        "script-type": "jython",
        "script-class-reference": "Scripts/python/DescriptionExample.py",       
        "key-dependencies": [
          "vf-module-type"
        ]
      }
    }
  }
}

The script itself is as bellow.

The key is to have the script class derived from the framework standards.

In the case of resource resolution, the class to derive from is AbstractRAProcessor

It will give the required methods to implement: process and recover, along with some utility functions, such as set_resource_data_value or addError.

These functions either come from the AbstractRAProcessor class, or from the class it derived from.

If the resolution fail, the recover method will get called with the exception as parameter.

Code Block
themeEclipse
titleScripts/python/DescriptionExample.py
collapsetrue
#  Copyright (c) 2019 Bell Canada.
#
#  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.

from abstract_ra_processor import AbstractRAProcessor
from blueprint_constants import *
from java.lang import Exception as JavaException

class DescriptionExample(AbstractRAProcessor):

    def process(self, resource_assignment):
        try:
            # get key-dependencies value
            value = self.raRuntimeService.getStringFromResolutionStore("vf-module-type")
            
            # logic based on key-dependency outcome
            result = ""
            if value == "vfw":
                result = "This is the Virtual Firewall entity"
            elif value == "vsn":
                result = "This is the Virtual Sink entity"
            elif value == "vpg":
                result = "This is the Virtual Packet Generator"

            # set the value of resource getting currently resolved
            self.set_resource_data_value(resource_assignment, result)

        except JavaException, err:
          log.error("Java Exception in the script {}", err)
        except Exception, err:
          log.error("Python Exception in the script {}", err)
        return None

    def recover(self, runtime_exception, resource_assignment):
        print self.addError(runtime_exception.getMessage())
        return None




Card
labelcomplex type

Anchor
CDSDesignTimeDDComplexType
CDSDesignTimeDDComplexType

Value will be resolved through REST., and output will be a complex type.

Modeling reference: Modeling Concepts#rest

In this example, we're making a POST request to an IPAM system with no payload.

Some ingredients are required to perform the query, in this case, $prefixId. Hence It is provided as an input-key-mapping and defined as a key-dependencies. Please refer to the modeling guideline for more in depth understanding.

As part of this request, the expected response will be as bellow.

Code Block
themeEclipse
titleresponse
collapsetrue
{
    "id": 4,
    "address": "192.168.10.2/32",
    "vrf": null,
    "tenant": null,
    "status": 1,
    "role": null,
    "interface": null,
    "description": "",
    "nat_inside": null,
    "created": "2018-08-30",
    "last_updated": "2018-08-30T14:59:05.277820Z"
}

What is of interest is the address and id fields. For the process to return these two values, we need to create a custom data-type, as bellow

Code Block
titledt-netbox-ip
collapsetrue
{
  "version": "1.0.0",
  "description": "This is Netbox IP Data Type",
  "properties": {
    "address": {
      "required": true,
      "type": "string"
    },
    "id": {
      "required": true,
      "type": "integer"
    }
  },
  "derived_from": "tosca.datatypes.Root"
}

The type of the data dictionary will be dt-netbox-ip.

To tell the resolution framework what is of interest in the response, the output-key-mapping section is used. The process will map the output-key-mapping to the defined data-type.

Code Block
themeEclipse
titlecreate_netbox_ip_address
{
    "tags" : "oam-local-ipv4-address",
    "name" : "create_netbox_ip",
    "property" : {
      "description" : "netbox ip",
      "type" : "dt-netbox-ip"
    },
    "updated-by" : "adetalhouet",
    "sources" : {
      "sdnc" : {
        "type" : "source-rest",
        "properties" : {
          "type" : "JSON",
          "verb" : "POST",
          "endpoint-selector" : "ipam-1",
          "url-path" : "/api/ipam/prefixes/$prefixId/available-ips/",
          "path" : "",
          "input-key-mapping" : {
            "prefixId" : "prefix-id"
          },
          "output-key-mapping" : {
			"address" : "address",
            "id" : "id"
          },
          "key-dependencies" : [ "prefix-id" ]
        }
      }
    }
  }





Card
labelCBA Scaffholding

Anchor
CBA_SAFFHOLDING
CBA_SAFFHOLDING

CBA scaffholding

The overall purpose of the document is the constituate a CBA, see Modeling Concepts#ControllerBlueprintArchive for understanding of what a CBA is.

Now is the time to create the scaffholfing for your CBA.

What you will need is the following based directory/file structure:

Code Block
├── Definitions
│   └── blueprint.json                          Overall TOSCA service template (worfklow + node_template)
├── Environments                                Contains *.properties files as required by the service
├── Plans                                       Contains Directed Graph
├── Scripts                                     Contains scripts
│   ├── python                                  Python scripts
│   └── kotlin                                  Kotlin scripts
├── TOSCA-Metadata
│   └── TOSCA.meta                              Meta-data of overall package
└── Templates                                   Contains combination of mapping and template

The TOSCA.meta should have this information

Code Block
TOSCA-Meta-File-Version: 1.0.0
CSAR-Version: 1.0
Created-By: Alexis de Talhouët (adetalhouet89@gmail.com)
Entry-Definitions: Definitions/blueprint.json					<- Path reference to the blueprint.json file. If the file name is changed, change here accordinlgy.
Template-Tags: ONAP, CBA, Test
Content-Type: application/vnd.oasis.bpmn
Template-Name: <Name of the template>
Template-Version: <Version>

The blueprint.json should have the following metadata

Code Block
{
  "metadata": {
    "template_author": "Alexis de Talhouët",
    "author-email": "adetalhouet89@gmail.com",
    "user-groups": "ADMIN, OPERATION",
    "template_name": "golden",									<- This is the overall CBA name, will be refer later to sdnc_blueprint_name
    "template_version": "1.0.0",								<- This is the overall CBA version, will be refer later to sdnc_blueprint_version
    "template_tags": "ONAP, CBA, Test"
  }
. . .



Card
labelONAP Specific Workflows

Anchor
ONAP Specific Workflows
ONAP Specific Workflows

ONAP Specific Workflows

The following workflows are contracts established between SO, SDNC and CDS to cover the instantiation and the post-instantiation use cases.

Code Block
User -> SO (Macro Service Create)
  SO -> AssignBB (service, vnf, vf-module) - instantiation
          -> SDNC GR-API
                  -> CDS (resource-assignment workflow)
  SO -> ConfigAssignBB - day0 config assign
          -> CDS (config-assign workflow)
  SO -> CreateBB (VF-Module)
          -> OpenStack adapter / Multi-Cloud
  SO -> ConfigDeployBB - day0 config push
          -> CDS (config-deploy workflow)

Please refer to the modeling guide to understand workflow concept: Modeling Concepts#workflow

The workflow definition will be added within the blueprint.json file, see CBA scaffholding.


Deck
idWorkflow


Card
labelresource-assignment

Anchor
ra
ra

resource-assignment

This action is meant to assign resources needed to instantiate the service, e.g. to resolve all the cloud parameters.

Also, this action has the ability to perform a dry-run, meaning that result from the resolution will be made visible to the user.


Anchor
raContext
raContext

Context

This action is triggered by Generic-Resource-API (GR-API) within SDNC as part of the AssignBB orchestrated by SO.

It will be triggered for each VNF(s) and VF-Module(s) (referred as entity bellow).

See SO Building blocks Assignment.

Anchor
raTemplates
raTemplates

Templates

Understand resource accumulator templates

These templates are specific to the instantiation scenario, and relies on GR-API within SDNC.

The resource accumulator template is composed of the following sections:

Anchor
raTemplatesRA
raTemplatesRA

resource-accumulator-resolved-data

Defines all the resources that can be resolved directly from the context. It expresses a direct mapping between the name of the resource and its value.

Code Block
titleRA resolved data
collapsetrue
  "resource-accumulator-resolved-data": [
    {
      "param-name": "service-instance-id",
      "param-value": "${service-instance-id}"
    },
    {
      "param-name": "vnf_id",
      "param-value": "${vnf-id}"
    }
  ]
Anchor
raTemplatesCD
raTemplatesCD
capability-data

Defines the logic to use to create a specific resource, along with the ingredients required to invoke the capability and the output mapping. See the ingredients as function parameters, and output mapping as returned value.

The logic to resolve the resource is a DG, hence DG development is required to support a new capability.

Currently the following capabilities exist:

  • Netbox: netbox-ip-assign

    Code Block
    titleExample
    collapsetrue
        {
          "capability-name": "netbox-ip-assign",
          "key-mapping": [
            {
              "payload": [
                {
                  "param-name": "service-instance-id",
                  "param-value": "${service-instance-id}"
                },
                {
                  "param-name": "prefix-id",
                  "param-value": "${private-prefix-id}"
                },
                {
                  "param-name": "vf-module-id",
                  "param-value": "${vf-module-id}"
                },
                {
                  "param-name": "external_key",
                  "param-value": "${vf-module-id}-vpg_private_ip_1"
                }
              ],
              "output-key-mapping": [
                {
                  "resource-name": "vpg_private_ip_1",
                  "resource-value": "${vpg_private_ip_1}"
                }
              ]
            }
          ]
        }


  • Name generation: generate-name

    Code Block
    titleExample
    collapsetrue
        {
          "capability-name": "generate-name",
          "key-mapping": [
            {
              "payload": [
                {
                  "param-name": "resource-name",
                  "param-value": "vnf_name"
                },
                {
                  "param-name": "resource-value",
                  "param-value": "${vnf_name}"
                },
                {
                  "param-name": "external-key",
                  "param-value": "${vnf-id}_vnf_name"
                },
                {
                  "param-name": "policy-instance-name",
                  "param-value": "${vf-naming-policy}"
                },
                {
                  "param-name": "nf-role",
                  "param-value": "${nf-role}"
                },
                {
                  "param-name": "naming-type",
                  "param-value": "VNF"
                },
                {
                  "param-name": "AIC_CLOUD_REGION",
                  "param-value": "${aic-cloud-region}"
                }
              ],
              "output-key-mapping": [
                {
                  "resource-name": "vnf_name",
                  "resource-value": "${vnf_name}"
                }
              ]
            }
          ]
        }


Anchor
raTemplatesRequired
raTemplatesRequired

Required templates

See Modeling Concepts#template

The name of the templates is very important, and can't be random. Bellow are the requirements

VNF

The VNF Resource Accumulator Template prefix name can be anything, but what is very important is that when integrating with SDC the sdnc_artifact_name property of the VF or PNF needs to be the same; see here.

VF-Modules

Each vf-module will have its own resource accumulator template, and its prefix name must be the vf-module-label, which is nothing but the name of the HEAT file defining the OS::Nova::Server

Example:

If the file is name vfw.yaml, the vf-module-label will be vfw

For instance, with the vFW service HEAT definition, you will see in the VSP within SDC the following screen, showing you the label of each vf-module

In this case, we will have 4 resource accumulator templates, following the template convention, hence ending with -template

  • base_template-template.vtl
  • vfw-template.vtl
  • vsn-template.vtl
  • vpg-template.vtl


Expand
titleVSP attachement

Anchor
raTemplatesMapping
raTemplatesMapping

Mapping

Each template requires its associated mapping file, see Modeling Concepts#ArtifactMappingResource

Example:

Taking the same vFW example, we would have 4 mapping template following the convention, hence ending with -mapping:

  • base_template-mapping.vtl
  • vfw-mapping.vtl
  • vsn-mapping.vtl
  • vpg-mapping.vtl

Anchor
raInputs
raInputs

Required Inputs

PropertyDescriptionDefinition
template-prefix

SDNC will populate this input with the name of the template to execute.

If doing VNF Assign, it will use sdnc_artifact_name as template-prefix.

If doing VF-Module Assign, it will use the vf-module-label as template-prefix.


Code Block
"template-prefix" : {
   "required" : true,
   "type" : "list",
   "entry_schema" : {
      "type" : "string"
   }


Anchor
raOutput
raOutput

Output

It is necessary to provide the resolved template as output. To do so, we will use the Modeling Concepts#getAttribute expression.

Also, as mentioned here Modeling Concepts#resourceResolution, the resource resolution component node will populate an attribute named assignment-params with the result.

Finally, the name of the ouput has to be meshed-template so SDNC GR-API knows how to properly parse the response.

Anchor
raComponent
raComponent

Component

This action requires a node_template of type component-resource-resolution

The name of the node_template is important, as it will be used within the Workflow definition (see step.target property Modeling Concepts#workflowProperties)

Finally, you can see the component has a list of artifacts, being the template/mapping defined before.

Example:

Taking the same vFW example, we have a node_template name resource-assignment:

Code Block
titleExample
collapsetrue
    "node_templates": {
      "resource-assignment" : {
        "type" : "component-resource-resolution",
        "interfaces" : {
          "ResourceResolutionComponent" : {
            "operations" : {
              "process" : {
                "inputs" : {
                  "artifact-prefix-names" : {
                    "get_input" : "template-prefix"
                  }
                }
              }
            }
          }
        },
        "artifacts": {
          "base-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/base-template.vtl"
          },
          "base-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/base-mapping.json"
          },
          "vfw-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/vfw-template.vtl"
          },
          "vfw-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/vfw-mapping.json"
          },
          "vfw-vnf-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/vfw-vnf-template.vtl"
          },
          "vfw-vnf-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/vfw-vnf-mapping.json"
          },
          "vpg-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/vpg-template.vtl"
          },
          "vpg-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/vpg-mapping.json"
          },
          "vsn-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/vsn-template.vtl"
          },
          "vsn-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/vsn-mapping.json"
          }
        }
      }
    }
  }

Anchor
raExample
raExample

Overall workflow example w/ component and artifact

Code Block
themeEclipse
titleresource-assignment
collapsetrue
{
  "metadata": {
    "template_author": "Alexis de Talhouët",
    "author-email": "adetalhouet89@gmail.com",
    "user-groups": "ADMIN, OPERATION",
    "template_name": "vFW_spinup",
    "template_version": "1.0.0",
    "template_tags": "vFW"
  },
  "topology_template": {
    "workflows": {
      "resource-assignment": {
        "steps": {
          "resource-assignment": {
            "description": "Resource Assign Workflow",
            "target": "resource-assignment"
          }
        },
        "inputs" : {
          "template-prefix" : {
            "required" : true,
            "type" : "list",
            "entry_schema" : {
              "type" : "string"
            }
          }
        },
        "outputs": {
          "meshed-template": {
            "type": "json",
            "value": {
              "get_attribute": [
                "resource-assignment",
                "assignment-params"
              ]
            }
          }
        }
      }
    },
    "node_templates": {
      "resource-assignment" : {
        "type" : "component-resource-resolution",
        "interfaces" : {
          "ResourceResolutionComponent" : {
            "operations" : {
              "process" : {
                "inputs" : {
                  "artifact-prefix-names" : {
                    "get_input" : "template-prefix"
                  }
                }
              }
            }
          }
        },
        "artifacts": {
          "base-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/base-template.vtl"
          },
          "base-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/base-mapping.json"
          },
          "vfw-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/vfw-template.vtl"
          },
          "vfw-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/vfw-mapping.json"
          },
          "vfw-vnf-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/vfw-vnf-template.vtl"
          },
          "vfw-vnf-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/vfw-vnf-mapping.json"
          },
          "vpg-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/vpg-template.vtl"
          },
          "vpg-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/vpg-mapping.json"
          },
          "vsn-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/vsn-template.vtl"
          },
          "vsn-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/vsn-mapping.json"
          }
        }
      }
    }
  }
}

Anchor
raAddCapability
raAddCapability

Add a new capability

When adding a capability, consider whether it should be available both at VNF and VF-Module level. This is important for its implementation.

Here is the

You need to do the following:

  1. Create the DG that will handle the logic to resolve the resource
  2. Load the DG within SDNC

    Code Block
    titleExample of script to automate deployment of DG
    collapsetrue
    #!/bin/sh
    
    # This script takes care of loading the DG into the runtime of SDNC.
    # The DG file name has to follow this pattern:
    # GENERIC-RESOURCE-API_{rpc_name}_{version}
    
    usage() {
      echo "./load-dg.sh <dg>"
      exit
    }
    
    if [[ -z $1 ]]
    then
        usage
    fi
    
    rpc_name=`echo "$1" | cut -d'_' -f2 | cut -d'.' -f1`
    version=`echo "$1" | cut -d'_' -f3`
    content=`cat $1`
    ip=$2
    
    data="$(curl -s -o /dev/null -w %{url_effective} --get --data-urlencode "$content" "")"
    dg_xml_escaped="${data##/?}"
    
    echo -e "module=GENERIC-RESOURCE-API&rpc=$rpc_name&flowXml=$dg_xml_escaped" > payload
    
    echo -e "    Installing $rpc_name version ${version%.*}"
    curl -X  POST \
      http://$ip:$SDNC_NODE_PORT/uploadxml \
      -H 'Authorization: Basic ZGd1c2VyOnRlc3QxMjM=' \
      -H 'Content-Type: application/x-www-form-urlencoded' \
      -d @payload
    
    rm payload
    
    echo -e "    Activating $rpc_name version ${version%.*}"
    activate_uri="activateDG?module=GENERIC-RESOURCE-API&rpc=$rpc_name&mode=sync&version=${version%.*}&displayOnlyCurrent=true"
    curl -X GET \
      -H 'Accept: application/json' \
      -H 'Authorization: Basic ZGd1c2VyOnRlc3QxMjM=' \
      -H 'Content-Type: application/json' \
      http://$ip:$SDNC_NODE_PORT/$activate_uri
    
    


  3. Add the capability in the self-serve-vnf-assign DG and/or self-serve-vf-module-assign in the node named set ss.capability.execution-order[] then upload the updated version of this DG.
    When doing so, make sure to increment the last parameter ss.capability.execution-order_length

    Expand
    titleExample


Anchor
raSDNC
raSDNC

Understand overall SDNC DG flow logic

Logic for vnf and vf-module assignement is pretty much the same.

This is the general DG logic of the VNF assign flow and sub-flows:

  1. call vnf-topology-operation
    1. call vnf-topology-operation-assign
      1. call self-serve-vnf-assign
        1. set capability.execution-order
        2. call self-serve-vnf-ra-assignment
          1. execute REST call to CDS blueprint processor
          2. put resource-accumulator-resolved-data in MDSAL GR-API/services/service/$serviceInstanceId/vnfs/vnf/$vnfId
        3. call self-serve- + capability-name
        4. put vnf information in AAI (including the selflink)
      2. call naming-policy-generate-name
      3. put generic-vnf relationship in AAI

This is the general logic of the vf-module assign flow and sub-flows:

  1. call vf-module-topology-operation
    1. call vf-module-topology-operation-assign
      1. set service-data based on SO request (userParams / cloudParams)
      2. call self-serve-vf-module-assign
        1. set capability.execution-order
        2. call self-serve-vfmodule-ra-assignment
          1. execute REST call to CDS blueprint processor
            1. put resource-accumulator-resolved-data in MDSAL GR-API/services/service/$serviceInstanceId/vnfs/vnf/$vnfId/vf-modules/vf-module
        3. call self-serve- + capability-name
      3. put vf-module information in AAI
      4. put vnfc information in AAI


Card
labelconfig-assign

Anchor
ConfigAssign
ConfigAssign

config-assign

This action is meant to assign all the resources and generate the configuration to apply post-instantiation (day0 config).

Anchor
ConfigAssignContext
ConfigAssignContext

Context

This action is triggered by SO after the AssignBB has been executed for Service, VNF and VF-Module. It corresponds to the ConfigAssignVnfBB.

See SO Building blocks Assignment.

Anchor
ConfigAssignTemplates
ConfigAssignTemplates

Templates

For this action, you can define as many template as needed. Make sure for each template to follow the convention and to provide the mapping file, as follow:

  • xyz-template.vtl
  • xyz-mapping.vtl

Anchor
ConfigAssignInputs
ConfigAssignInputs

Required Input

PropertyDescriptionDefinitions
template-prefixName of the template-prefix to resolve.


Code Block
"template-prefix" : {
   "required" : true,
   "type" : "list",
   "entry_schema" : {
      "type" : "string"
}


resolution-key

The functionality requires the ability to retrieve the resolution that has been made later point in time in the process, during config-deploy action.


Code Block
"resolution-key" : {
   "required" : true,
   "type" : "string"
}


Anchor
ConfigAssignOutput
ConfigAssignOutput

Output

In order to perform dry-run, it is necessary to provide the meshed resolved template as output. To do so, the use of Modeling Concepts#getAttribute expression is required.

Also, as mentioned here Modeling Concepts#resourceResolution, the resource resolution component node will populate an attribute named assignment-params with the result.

Anchor
ConfigAssignComponent
ConfigAssignComponent

Component

This action requires a node_template of type component-resource-resolution

The name of the node_template is important, as it will be used within the Workflow definition (see step.target property Modeling Concepts#workflowProperties)

Finally, you can see the component has a list of artifacts, being the template/mapping defined before.

Example:

Taking the vDNS example, we have a node_template name config-assign:

Code Block
titleExample
collapsetrue
      "config-assign" : {
        "type" : "component-resource-resolution",
        "interfaces" : {
          "ResourceResolutionComponent" : {
            "operations" : {
              "process" : {
                "inputs" : {
                  "resolution-key" : {
                    "get_input" : "resolution-key"
                  },
                  "store-result" : true,
                  "artifact-prefix-names" : [ "baseconfig", "incremental-config" ]
                }
              }
            }
          }
        },
        "artifacts" : {
          "baseconfig-template" : {
            "type" : "artifact-template-velocity",
            "file" : "Templates/baseconfig-template.vtl"
          },
          "baseconfig-mapping" : {
            "type" : "artifact-mapping-resource",
            "file" : "Templates/baseconfig-mapping.json"
          },
          "incremental-config-template" : {
            "type" : "artifact-template-velocity",
            "file" : "Templates/incremental-config-template.vtl"
          },
          "incremental-config-mapping" : {
            "type" : "artifact-mapping-resource",
            "file" : "Templates/incremental-config-mapping.json"
          }
        }
      },

Anchor
ConfigAssignExample
ConfigAssignExample

Overall workflow example w/ component and artifact

Here is an example of the config-assign workflow:

Code Block
themeEclipse
titleconfig-assign
collapsetrue
{
  "tosca_definitions_version": "controller_blueprint_1_0_0",
  "metadata": {
    "template_author": "Abdelmuhaimen Seaudi",
    "author-email": "abdelmuhaimen.seaudi@orange.com",
    "user-groups": "ADMIN, OPERATION",
    "template_name": "test",
    "template_version": "1.0.0",
    "template_tags": "test, vDNS-CDS, SCALE-OUT, MARCO"
  },
  "topology_template": {
    "workflows": {
      "config-assign": {
        "steps": {
          "config-assign": {
            "description": "Config Assign Workflow",
            "target": "config-assign"
          }
        },
        "inputs": {
          "resolution-key": {
            "required": true,
            "type": "string"
          },
          "config-assign-properties": {
            "description": "Dynamic PropertyDefinition for workflow(config-assign).",
            "required": true,
            "type": "dt-config-assign-properties"
          }
        },
        "outputs": {
          "dry-run": {
            "type": "json",
            "value": {
              "get_attribuxte": [
                "config-assign",
                "assignment-params"
              ]
            }
          }
        }
      }
    },
    "node_templates": {
      "config-assign": {
        "type": "component-resource-resolution",
        "interfaces": {
          "ResourceResolutionComponent": {
            "operations": {
              "process": {
                "inputs": {
                  "resolution-key": {
                    "get_input": "resolution-key"
                  },
                  "store-result": true,
                  "artifact-prefix-names": [
                    "baseconfig",
                    "incremental-config"
                  ]
                }
              }
            }
          }
        },
        "artifacts": {
          "baseconfig-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/baseconfig-template.vtl"
          },
          "baseconfig-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/baseconfig-mapping.json"
          },
          "incremental-config-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/incremental-config-template.vtl"
          },
          "incremental-config-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/incremental-config-mapping.json"
          }
        }
      }
    }
  }
}



Card
labelconfig-deploy

Anchor
ConfigDeploy
ConfigDeploy

config-deploy

This action is meant to push the configuration templates defined during the config-assign step for the post-instantiation.

This action is triggered by SO after the CreateBB has been executed for all the VF-Modules.

Anchor
ConfigDeployContext
ConfigDeployContext

Context

This action is triggered by SO after the CreateVnfBB has been executed. It corresponds to the ConfigDeployBB.

See SO Building blocks Assignment.

Anchor
ConfigDeployTemplates
ConfigDeployTemplates

Templates

If need be, some template can be defined. They can either be resolved through the a node_template of type component-resource-resolution,which will then have to be combined with another node_template, in order to push the config in the network, or in third party system. In this case, you will want to leverage the multi-action worklow.

Else, the template could be resolved directly through a node_template of type component-script-executor through helpers functions being provided.

Anchor
ConfigDeployInputs
ConfigDeployInputs

Required Inputs

PropertyDescription
resolution-key

Needed to retrieve the resolution that has been made earlier point in time in the process.

The combination of the artifact-name and the resolution-key will be used to uniquely identify the result.

Anchor
ConfigDeployOutput
ConfigDeployOutput

Output

SUCCESS or FAILURE

Anchor
ConfigDeployComponent
ConfigDeployComponent

Component

If you want to have a multi-action worklow, then the action will refer to a node_template of type dg-generic.

If you want to have a single action workflow, then you should use one of the following node type: component-script-executor, component-remote-script-executor, component-remote-ansible-executor

The name of the node_template is important, as it will be used within the Workflow definition (see step.target property Modeling Concepts#workflowProperties)

Finally, you can see the component(s) might have a list of artifacts, being the template/mapping defined before.

Example:

Taking the vDNS example, we have a node_template name config-deploy-process, which is of type dg-generic, hence we also have the dependent node_template.

Code Block
titleExample
collapsetrue
      "config-deploy-process" : {
        "type" : "dg-generic",
        "properties" : {
          "content" : {
            "get_artifact" : [ "SELF", "dg-config-deploy-process" ]
          },
          "dependency-node-templates" : [ "nf-account-collection", "execute" ]
        },
        "artifacts" : {
          "dg-config-deploy-process" : {
            "type" : "artifact-directed-graph",
            "file" : "Plans/CONFIG_ConfigDeploy.xml"
          }
        }
      },
      "nf-account-collection" : {
        "type" : "component-resource-resolution",
        "interfaces" : {
          "ResourceResolutionComponent" : {
            "operations" : {
              "process" : {
                "inputs" : {
                  "artifact-prefix-names" : [ "nf-params" ]
                }
              }
            }
          }
        },
        "artifacts" : {
          "nf-params-template" : {
            "type" : "artifact-template-velocity",
            "file" : "Templates/nf-params-template.vtl"
          },
          "nf-params-mapping" : {
            "type" : "artifact-mapping-resource",
            "file" : "Templates/nf-params-mapping.json"
          }
        }
      },
      "execute" : {
        "type" : "component-netconf-executor",
        "requirements" : {
          "netconf-connection" : {
            "capability" : "netconf",
            "node" : "netconf-device",
            "relationship" : "tosca.relationships.ConnectsTo"
          }
        },
        "interfaces" : {
          "ComponentNetconfExecutor" : {
            "operations" : {
              "process" : {
                "inputs" : {
                  "script-type" : "jython",
                  "script-class-reference" : "Scripts/python/ConfigDeploy.py",
                  "instance-dependencies" : [ ],
                  "dynamic-properties" : "*config-deploy-properties"
                }
              }
            }
          }
        },
        "artifacts" : {
          "baseconfig-template" : {
            "type" : "artifact-template-velocity",
            "file" : "Templates/baseconfig-template.vtl"
          },
          "baseconfig-mapping" : {
            "type" : "artifact-mapping-resource",
            "file" : "Templates/baseconfig-mapping.json"
          },
          "incremental-config-template" : {
            "type" : "artifact-template-velocity",
            "file" : "Templates/incremental-config-template.vtl"
          },
          "incremental-config-mapping" : {
            "type" : "artifact-mapping-resource",
            "file" : "Templates/incremental-config-mapping.json"
          }
        }
      }
    }
  }

Anchor
ConfigDeployExample
ConfigDeployExample

Overall workflow example w/ component and artifact

Here is an example of the config-deploy workflow:

Code Block
themeEclipse
titleconfig-deploy
collapsetrue
{
  "tosca_definitions_version": "controller_blueprint_1_0_0",
  "metadata": {
    "template_author": "Abdelmuhaimen Seaudi",
    "author-email": "abdelmuhaimen.seaudi@orange.com",
    "user-groups": "ADMIN, OPERATION",
    "template_name": "test",
    "template_version": "1.0.0",
    "template_tags": "test, vDNS-CDS, SCALE-OUT, MARCO"
  },
  "topology_template": {
    "workflows": {
      "config-deploy": {
        "steps": {
          "config-deploy": {
            "description": "Resource Assign and Python Netconf Activation Workflow",
            "target": "config-deploy-process",
            "activities": [
              {
                "call_operation": ""
              }
            ]
          }
        },
        "inputs": {
          "resolution-key": {
            "required": false,
            "type": "string"
          },
          "service-instance-id": {
            "required": false,
            "type": "string"
          },
          "config-deploy-properties": {
            "description": "Dynamic PropertyDefinition for workflow(config-deploy).",
            "required": true,
            "type": "dt-config-deploy-properties"
          }
        }
      }
    },
    "node_templates": {
      "config-deploy-process": {
        "type": "dg-generic",
        "properties": {
          "content": {
            "get_artifact": [
              "SELF",
              "dg-config-deploy-process"
            ]
          },
          "dependency-node-templates": [
            "nf-account-collection",
            "execute"
          ]
        },
        "artifacts": {
          "dg-config-deploy-process": {
            "type": "artifact-directed-graph",
            "file": "Plans/CONFIG_ConfigDeploy.xml"
          }
        }
      },
      "nf-account-collection": {
        "type": "component-resource-resolution",
        "interfaces": {
          "ResourceResolutionComponent": {
            "operations": {
              "process": {
                "inputs": {
                  "artifact-prefix-names": [
                    "nf-params"
                  ]
                }
              }
            }
          }
        },
        "artifacts": {
          "nf-params-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/nf-params-template.vtl"
          },
          "nf-params-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/nf-params-mapping.json"
          }
        }
      },
      "execute": {
        "type": "component-netconf-executor",
        "requirements": {
          "netconf-connection": {
            "capability": "netconf",
            "node": "netconf-device",
            "relationship": "tosca.relationships.ConnectsTo"
          }
        },
        "interfaces": {
          "ComponentNetconfExecutor": {
            "operations": {
              "process": {
                "inputs": {
                  "script-type": "jython",
                  "script-class-reference": "Scripts/python/ConfigDeploy.py",
                  "instance-dependencies": [
                    
                  ],
                  "dynamic-properties": "*config-deploy-properties"
                }
              }
            }
          }
        },
        "artifacts": {
          "baseconfig-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/baseconfig-template.vtl"
          },
          "baseconfig-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/baseconfig-mapping.json"
          },
          "incremental-config-template": {
            "type": "artifact-template-velocity",
            "file": "Templates/incremental-config-template.vtl"
          },
          "incremental-config-mapping": {
            "type": "artifact-mapping-resource",
            "file": "Templates/incremental-config-mapping.json"
          }
        }
      }
    }
  }
}






Card
labelBuild your own workflow

TBD





Card
labelSDC Modeling & Distribution

Anchor
SDCIntro
SDCIntro

Introduction

The purpose is to describe integration of CDS within SDC

What's new

At the VF and PNF level, a new artifact type CONTROLLER_BLUEPRINT_ARCHIVE allow the designed to load the previsouly designed CBA as part of the resource.

Anchor
SDCAddCBA
SDCAddCBA

How to add the CBA in SDC VF resource (similar for PNF)

Create the VF resource

Click on Deployment Artifact, then Add other arifacts, and select you CBA


Check the artifact is uploaded OK, and click on Certify.

Create a new service model, and add the newly created VF (including CBA artifact) to the new service model. Click on "Add Service"

Click on "Composition", and drag the VF we created from the palette on the left onto the canvas in the middle.

Then, click on "Submit for Testing".

Anchor
SDC_CBA_PROPERTIES
SDC_CBA_PROPERTIES

Click on Properties Assignments, then click on the service name, e.g. "CDS-VNF-TEST" from the right bar.

Type "sdnc" in the filter box, and add the sdnc_model_name, sdnc_model_version, and sdnc_artifact_version, and click "Save".

  • sdnc_model_name - This is the name of the blueprint (e.g. CBA name)
  • sdnc_model_version - This is the version of the blueprint
  • sdnc_artifact_name - This is the name of the VNF resource accumulator template

Type "skip" in the filter box, and set "skip post instantiation" to FALSE, then click "Save".

Login as Tester (jm0007/demo123456!) and accept the new service.

Login as Governor (gv0001/demo123456!) and approve for distribution.

Login as Operator (op0001/demo123456!) and click on "Distribute".

Click on "Monitor" to check the progress of the distribution, and check that all ONAP components were notified, and downloaded the artifacts, and deployed OK.