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ibm-watson-pipelines
Advanced tools
This package provides various utilities for working with IBM Watson Pipelines. Its primary usage is to enable users to store artifact results of a notebook run.
WatsonPipelines
client is constructed from IAM/CPD APIKEY, which can be provided
in a few ways:
explicitly:
from ibm_watson_pipelines import WatsonPipelines
# IAM APIKEY
client = WatsonPipelines(apikey)
# or CPD APIKEY
client = WatsonPipelines(apikey, url=url, username=username)
# or
client = WatsonPipelines.from_apikey(apikey, url=url, username=username)
# or
client = WatsonPipelines.from_token(token, url=url)
implicitly:
APIKEY=...
export APIKEY
USER_NAME=...
export USER_NAME
or
USER_ACCESS_TOKEN=...
export USER_ACCESS_TOKEN
from ibm_watson_pipelines import WatsonPipelines
# use APIKEY
client = WatsonPipelines.from_apikey()
# use USER_ACCESS_TOKEN
client = WatsonPipelines.from_token()
# try APIKEY, if absent then USER_ACCESS_TOKEN:
client = WatsonPipelines()
# or
client = WatsonPipelines.new_instance()
All of the above may also define service_name
and url
.
The exact procedure of deciding which authentication method to use:
from_apikey
or from_token
is used, the method is forced.apikey
or bearer_token
argument
was provided, that method will be forced (if both are present,
an overloading error will be raised). Note that providing a nameless
argument is equivalent to providing apikey
.new_instance
is used, APIKEY
env-var is used.new_instance
is used, but APIKEY
env-var is not
present, USER_ACCESS_TOKEN
env-var is used.Notebooks run in IBM Watson Pipelines get inputs and expose outputs as a node:
{
"id": ...,
"type": "execution_node",
"op": "run_container",
"app_data": {
"pipeline_data": {
"name": ...,
"config": {
"link": {
"component_id_ref": "run-notebook"
}
},
"inputs": [
...,
{
"name": "model_name",
"group": "env_variables",
"type": "String",
"value_from": ...
}
],
"outputs": [
{
"name": "trained_model",
"group": "output_variables",
"type": {
"CPDPath": {
"path_type": "resource",
"resource_type": "asset",
"asset_type": "wml_model"
}
}
}
]
}
},
...
}
Inside of the notebook, inputs are available as environmental variables:
model_name = os.environ['model_name']
Outputs are exposed using sdk method, store_results
:
client = WSPipelines.from_apikey(...)
client.store_results({
"trained_model": ... // cpd path to the trained model
})
On public cloud, this client provides a method for easy retrieval of WML instance credentials and scope storage credentials:
client.get_wml_credentials() # the scope passed in notebook
# or
client.get_wml_credentials("cpd:///projects/123456789")
client.get_storage_credentials() # the scope passed in notebook
# or
client.get_storage_credentials("cpd:///projects/123456789")
Note how the result will vary depending on the authentication method used to create the client.
CPD-Path parsing is manipulation is also supported:
from ibm_watson_pipelines import CpdScope, WatsonPipelines
client = WatsonPipelines.from_apikey()
scope = CpdScope.from_string("cpd:///projects/123456789")
assert scope.scope_type() == "projects"
assert scope.scope_id() == "123456789"
client.get_wml_credentials(scope)
Different kinds of CPD-Paths will have different properties, providing the same interface across scopes, resource and file paths:
from ibm_watson_pipelines import CpdPath
scope_file_path = CpdPath.from_string("cpd:///projects/123456789/files/abc/def")
assert scope_file_path.scope_type() == "projects"
assert scope_file_path.scope_id() == "123456789"
assert scope_file_path.file_path() == "/abc/def"
connection_path = CpdPath.from_string("cpd:///projects/123456789/connections/3141592")
assert connection_path.scope_type() == "projects"
assert connection_path.scope_id() == "123456789"
assert connection_path.resource_type() == "connections"
assert connection_path.resource_id() == "3141592"
connection_file_path = CpdPath.from_string("cpd:///projects/123456789/connections/3141592/files/~/abc/def")
assert connection_file_path.scope_type() == "projects"
assert connection_file_path.scope_id() == "123456789"
assert connection_file_path.resource_type() == "connections"
assert connection_file_path.resource_id() == "3141592"
assert connection_file_path.bucket_name() == "~"
assert connection_file_path.file_path() == "/abc/def"
...additionally, for non-scope paths the scope can be extracted, if present:
from ibm_watson_pipelines import CpdPath
scope_path = CpdPath.from_string("cpd:///projects/123456789")
connection_path = CpdPath.from_string("cpd:///projects/123456789/connections/3141592")
assert connection_path.scope() == scope_path
A custom pipeline component executes a script you write. You can use custom components to share reusable scripts between pipelines.
You create custom components as project assets. You can then use the components in pipelines you create in that project. You can create as many custom components for pipelines as needed. Currently, to create a custom component you must create one programmatically, using a Python function.
To create a custom component, use the Python client to authenticate with IBM Watson Pipelines, code the component, then publish the component to the specified project. After it is available in the project, you can assign it to a node in a pipeline and run it as part of a pipeline flow.
This example demonstrates the process of publishing a component that adds two numbers together.
Publish a function as a component with the latest Python client. Run the following code in a Jupyter notebook in a project of your Cloud Pak for Data.
# Install libraries
! pip install ibm-watson-pipelines==1.0.4
# Authentication
from ibm_watson_pipelines import WatsonPipelines
apikey = ''
service_url = 'your_host_url'
project_id = 'your_project_id'
username = ''
client = WatsonPipelines.from_apikey(apikey, url=service_url, username=username)
# Define the function of the component
# If you define the input parameters, users are required to
# input them in the UI
def add_two_numbers(a: int, b: int) -> int:
print('Adding numbers: {} + {}.'.format(a, b))
return a + b + 10
# Other possible functions might be sending a Slack message,
# or listing directories in a storage volume, and so on.
# Publish the component
client.publish_component(
name='Add numbers', # Appears in UI as component name
func=add_two_numbers,
description='Custom component adding numbers', # Appears in UI as component description
project_id=project_id,
overwrite=True, # Overwrites an existing component with the same name
)
client.get_components(project_id=project_id)
client.get_component(project_id=project_id, component_id=component_id)
client.get_component(project_id=project_id, name=component_name)
client.publish_component(component name)
client.delete_component(project_id=project_id, component_id=component_id)
FAQs
Python utilities for IBM Watson Pipelines
We found that ibm-watson-pipelines demonstrated a healthy version release cadence and project activity because the last version was released less than a year ago. It has 2 open source maintainers collaborating on the project.
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