Not all resource providers support Pulumi's Asset and Archive types. In
particular, the Kubernetes provider should reject any resource
definition that contains either of these types.
This commit will introduce two MarshalOptions that will make it easy for
the Kubernetes provider to guarantee that no properties of this type are
in a resource request, as it's deserializing the request from the
engine.
With these changes, a user may explicitly set `deleteBeforeReplace` to
`false` in order to disable DBR behavior for a particular resource. This
is the SDK + CLI escape hatch for cases where the changes in
https://github.com/pulumi/pulumi-terraform/pull/465 cause undesirable
behavior.
Attempting to `pulumi stack rename` a stack which had been created but
never updated, when using the local backend, was broken because
code-paths were not hardened against the snapshot being `nil` (which
is the case for a stack before the initial deployment had been done).
Fixes#2654
* Allow resource IDs to change on reresh steps
This is a requirement for us to be able to move forward with
versions of the Terraform Azurerm provider. In v1.32.1, there was
a state migration that changed the ID format of the azure table
storage resource
We used to have a check in place for old ID being equal to new ID.
This has been changed now and we allow the change of ID to happen
in the RefreshStep
* Update pkg/resource/deploy/step.go
Co-Authored-By: Pat Gavlin <pat@pulumi.com>
When using StackReference, if the stack you reference contains any
secret outputs, we have to mark the entire `outputs` member as a
secret output. This is because we only track secretness on a per
`Output<T>` basis.
For `getSecret` and friends, however, we know the name of the output
you are looking up and we can be smarter about if the returned
`Output<T>` should be treated as a secret or not.
This change augments the provider for StackReference such that it also
returns a list of top level stack output names who's values contain
secrets. In the language SDKs, we use this information, when present,
to decide if we should return an `Output<T>` that is marked as a
secret or not. Since the SDK and CLI are independent components, care
is taken to ensure that when the CLI does not return this information,
we behave as we did before (i.e. if any output is a secret, we treat
every output as a secret).
Fixes#2744
If we don't process and report the stderr of `npm install`, the output
is "orphaned" during error condition, and only something like "exit code
1" is reported.
Empty `[]interface{}` values were being converted to array property
values with a `nil` element, and empty array property values were being
coverted to `nil` `[]interface{}` values. These changes fix the
converters to return empty but non-nil values in both cases.
This is part of the fix for
https://github.com/pulumi/pulumi-kubernetes/issues/693.
- Ensure that type assertions are guarded, and that incorrectly-typed
properties return errors rather than panicking
- Expand the asset/archive tests in the Node SDK to ensure that eventual
archives and assets serialize and deserialize correctly
Fixes#2836.
Fixes#3016.
Adds support for additional cloud secrets providers (AWS KMS, Azure KeyVault, Google Cloud KMS, and HashiCorp Vault) as the encryption backend for Pulumi secrets. This augments the previous choice between using the app.pulumi.com-managed secrets encryption or a fully-client-side local passphrase encryption.
This is implemented using the Go Cloud Development Kit support for pluggable secrets providers.
Like our cloud storage backend support which also uses Go Cloud Development Kit, this PR also bleeds through to users the URI scheme's that the Go CDK defines for specifying each of secrets providers - like `awskms://alias/LukeTesting?region=us-west-2` or `azurekeyvault://mykeyvaultname.vault.azure.net/keys/mykeyname`.
Also like our cloud storage backend support, this PR doesn't solve for how to configure the cloud provider client used to resolve the URIs above - the standard ambient credentials are used in both cases. Eventually, we will likely need to provide ways for both of these features to be configured independently of each other and of the providers used for resource provisioning.
These changes add support for passing `ignoreChanges` paths to resource
providers. This is intended to accommodate providers that perform diffs
between resource inputs and resource state (e.g. all Terraform-based
providers, the k8s provider when using API server dry-runs). These paths
are specified using the same syntax as the paths used in detailed diffs.
In addition to passing these paths to providers, the existing support
for `ignoreChanges` in inputs has been extended to accept paths rather
than top-level keys. It is an error to specify a path that is missing
one or more component in the old or new inputs.
Fixes#2936, #2663.
Most of these options are typically left unset. In order to make it
easier to update the lifecycle test when adding new options, collect
them in a bag s.t. most callsites can go without being updated.
If we encounter a provider with old inputs but no old outputs when reading
a checkpoint file, use the old inputs as the old outputs. This handles the
scenario where the CLI is being upgraded from a version that did not
reflect provider inputs to provider outputs, and a provider is being
upgraded from a version that did not implement `DiffConfig` to a version
that does.
Fixes https://github.com/pulumi/pulumi-kubernetes/issues/645.
Currently, `pulumi preview` fails immediately when any resource
definition in a Pulumi app is found to be in violation of a resource
policy. But, users would like `preview` to report as many policy
violations as it can before terminating with an error, so that they can
fix many of them before running `preview` again.
This commit will thus change `pulumi preview` to do this sort of
"batching" for policy violations. The engine will attempt to run the
entire preview step, validating every resource definition with the
relevant known resource policies, before finally reporting an error if
any violations are detected.
Fixespulumi/pulumi-policy#31
This command will cause `pulumi policy publish` to behave in much the
same way `pulumi up` does -- if the policy program is in TypeScript, we
will use ts-node to attempt to compile in-process before executing, and
fall back to plain-old node.
We accomplish this by moving `cmd/run/run.ts` into a generic helper
package, `runtime/run.ts`, which slightly generalizes the use cases
supported (notably, allowing us to exec some program outside of the
context of a Pulumi stack).
This new package is then called by both `cmd/run/index.ts` and
`cmd/run-policy-pack/index.ts`.
* Plumbing the custom timeouts from the engine to the providers
* Plumbing the CustomTimeouts through to the engine and adding test to show this
* Change the provider proto to include individual timeouts
* Plumbing the CustomTimeouts from the engine through to the Provider RPC interface
* Change how the CustomTimeouts are sent across RPC
These errors were spotted in testing. We can now see that the timeout
information is arriving in the RegisterResourceRequest
```
req=&pulumirpc.RegisterResourceRequest{
Type: "aws:s3/bucket:Bucket",
Name: "my-bucket",
Parent: "urn:pulumi:dev::aws-vpc::pulumi:pulumi:Stack::aws-vpc-dev",
Custom: true,
Object: &structpb.Struct{},
Protect: false,
Dependencies: nil,
Provider: "",
PropertyDependencies: {},
DeleteBeforeReplace: false,
Version: "",
IgnoreChanges: nil,
AcceptSecrets: true,
AdditionalSecretOutputs: nil,
Aliases: nil,
CustomTimeouts: &pulumirpc.RegisterResourceRequest_CustomTimeouts{
Create: 300,
Update: 400,
Delete: 500,
XXX_NoUnkeyedLiteral: struct {}{},
XXX_unrecognized: nil,
XXX_sizecache: 0,
},
XXX_NoUnkeyedLiteral: struct {}{},
XXX_unrecognized: nil,
XXX_sizecache: 0,
}
```
* Changing the design to use strings
* CHANGELOG entry to include the CustomTimeouts work
* Changing custom timeouts to be passed around the engine as converted value
We don't want to pass around strings - the user can provide it but we want
to make the engine aware of the timeout in seconds as a float64
A resource can be imported by setting the `import` property in the
resource options bag when instantiating a resource. In order to
successfully import a resource, its desired configuration (i.e. its
inputs) must not differ from its actual configuration (i.e. its state)
as calculated by the resource's provider.
There are a few interesting state transitions hiding here when importing
a resource:
1. No prior resource exists in the checkpoint file. In this case, the
resource is simply imported.
2. An external resource exists in the checkpoint file. In this case, the
resource is imported and the old external state is discarded.
3. A non-external resource exists in the checkpoint file and its ID is
different from the ID to import. In this case, the new resource is
imported and the old resource is deleted.
4. A non-external resource exists in the checkpoint file, but the ID is
the same as the ID to import. In this case, the import ID is ignored
and the resource is treated as it would be in all cases except for
changes that would replace the resource. In that case, the step
generator issues an error that indicates that the import ID should be
removed: were we to move forward with the replace, the new state of
the stack would fall under case (3), which is almost certainly not
what the user intends.
Fixes#1662.
Thse changes make a subtle but critical adjustment to the process the
Pulumi engine uses to determine whether or not a difference exists
between a resource's actual and desired states, and adjusts the way this
difference is calculated and displayed accordingly.
Today, the Pulumi engine get the first chance to decide whether or not
there is a difference between a resource's actual and desired states. It
does this by comparing the current set of inputs for a resource (i.e.
the inputs from the running Pulumi program) with the last set of inputs
used to update the resource. If there is no difference between the old
and new inputs, the engine decides that no change is necessary without
consulting the resource's provider. Only if there are changes does the
engine consult the resource's provider for more information about the
difference. This can be problematic for a number of reasons:
- Not all providers do input-input comparison; some do input-state
comparison
- Not all providers are able to update the last deployed set of inputs
when performing a refresh
- Some providers--either intentionally or due to bugs--may see changes
in resources whose inputs have not changed
All of these situations are confusing at the very least, and the first
is problematic with respect to correctness. Furthermore, the display
code only renders diffs it observes rather than rendering the diffs
observed by the provider, which can obscure the actual changes detected
at runtime.
These changes address both of these issues:
- Rather than comparing the current inputs against the last inputs
before calling a resource provider's Diff function, the engine calls
the Diff function in all cases.
- Providers may now return a list of properties that differ between the
requested and actual state and the way in which they differ. This
information will then be used by the CLI to render the diff
appropriately. A provider may also indicate that a particular diff is
between old and new inputs rather than old state and new inputs.
Fixes#2453.
@keen99 pointed out that newer versions of golangci-lint were failing
due to some spelling errors. This change fixes them up. We have also
now have a work item to track moving to a newer golangci-lint tool in
the future.
Fixes#2841
This commit will expose the new `Invoke` routine that lists resource
outputs through the Node.js SDK.
This API is implemented via a new API, `EnumerablePromise`, which is a
collection of simple query primitives built onto the `Promise` API. The
query model is lazy and LINQ-like, and generally intended to make
`Promise` simpler to deal with in query scenarios. See #2601 for more
details.
Fixes#2600.
This commit touches an intersection of a few different provider-oriented
features that combined to cause a particularly severe bug that made it
impossible for users to upgrade provider versions without seeing
replacements with their resources.
For some context, Pulumi models all providers as resources and places
them in the snapshot like any other resource. Every resource has a
reference to the provider that created it. If a Pulumi program does not
specify a particular provider to use when performing a resource
operation, the Pulumi engine injects one automatically; these are called
"default providers" and are the most common ways that users end up with
providers in their snapshot. Default providers can be identified by
their name, which is always prefixed with "default".
Recently, in an effort to make the Pulumi engine more flexible with
provider versions, it was made possible for the engine to have multiple
default providers active for a provider of a particular type, which was
previously not possible. Because a provider is identified as a tuple of
package name and version, it was difficult to find a name for these
duplicate default providers that did not cause additional problems. The
provider versioning PR gave these default providers a name that was
derived from the version of the package. This proved to be a problem,
because when users upgraded from one version of a package to another,
this changed the name of their default provider which in turn caused all
of their resources created using that provider (read: everything) to be
replaced.
To combat this, this PR introduces a rule that the engine will apply
when diffing a resource to determine whether or not it needs to be
replaced: "If a resource's provider changes, and both old and new
providers are default providers whose properties do not require
replacement, proceed as if there were no diff." This allows the engine
to gracefully recognize and recover when a resource's default provider changes
names, as long as the provider's config has not changed.
Previously, when the CLI wanted to install a plugin, it used a special
method, `DownloadPlugin` on the `httpstate` backend to actually fetch
the tarball that had the plugin. The reason for this is largely tied
to history, at one point during a closed beta, we required presenting
an API key to download plugins (as a way to enforce folks outside the
beta could not download them) and because of that it was natural to
bake that functionality into the part of the code that interfaced with
the rest of the API from the Pulumi Service.
The downside here is that it means we need to host all the plugins on
`api.pulumi.com` which prevents community folks from being able to
easily write resource providers, since they have to manually manage
the process of downloading a provider to a machine and getting it on
the `$PATH` or putting it in the plugin cache.
To make this easier, we add a `--server` argument you can pass to
`pulumi plugin install` to control the URL that it attempts to fetch
the tarball from. We still have perscriptive guidence on how the
tarball must be
named (`pulumi-[<type>]-[<provider-name>]-vX.Y.Z.tar.gz`) but the base
URL can now be configured.
Folks publishing packages can use install scripts to run `pulumi
plugin install` passing a custom `--server` argument, if needed.
There are two improvements we can make to provide a nicer end to end
story here:
- We can augment the GetRequiredPlugins method on the language
provider to also return information about an optional server to use
when downloading the provider.
- We can pass information about a server to download plugins from as
part of a resource registration or creation of a first class
provider.
These help out in cases where for one reason or another where `pulumi
plugin install` doesn't get run before an update takes place and would
allow us to either do the right thing ahead of time or provide better
error messages with the correct `--server` argument. But, for now,
this unblocks a majority of the cases we care about and provides a
path forward for folks that want to develop and host their own
resource providers.
Adds a new resource option `aliases` which can be used to rename a resource. When making a breaking change to the name or type of a resource or component, the old name can be added to the list of `aliases` for a resource to ensure that existing resources will be migrated to the new name instead of being deleted and replaced with the new named resource.
There are two key places this change is implemented.
The first is the step generator in the engine. When computing whether there is an old version of a registered resource, we now take into account the aliases specified on the registered resource. That is, we first look up the resource by its new URN in the old state, and then by any aliases provided (in order). This can allow the resource to be matched as a (potential) update to an existing resource with a different URN.
The second is the core `Resource` constructor in the JavaScript (and soon Python) SDKs. This change ensures that when a parent resource is aliased, that all children implicitly inherit corresponding aliases. It is similar to how many other resource options are "inherited" implicitly from the parent.
Four specific scenarios are explicitly tested as part of this PR:
1. Renaming a resource
2. Adopting a resource into a component (as the owner of both component and consumption codebases)
3. Renaming a component instance (as the owner of the consumption codebase without changes to the component)
4. Changing the type of a component (as the owner of the component codebase without changes to the consumption codebase)
4. Combining (1) and (3) to make both changes to a resource at the same time
We model providers as resources in our state file, but we were
neglecting to set Outputs for these resources. This was problematic
when we started to try to run DiffConfig, because when diffing a
resource we compare thed new inputs and the old outputs, but the
resource never had any old outputs, so it was impossible for the
provider to see what the old state of the resource was.
To fix this, we now reflect the inputs we use the create the provider
reference as outputs on the resource.
The Kubernetes provider wanted to return Unimplemented for both
DiffConfig and CheckConfig. However, due to an interaction between the
package we used to construct the error we are returning and the
package we are using to actually construct the gRPC server for the
provider, we ended up in a place where the provider would actually end
up returning an error with code "Unknown", and the /text/ of the
message included information about it being due to the RPC not being
implemented.
So, when we try to call Diff/Check config on the provider, detect this
case as well and treat messages of this shape as if the provider just
returned "Unimplemented".
In 3621c01f4b, we implemented
CheckConfig/DiffConfig incorrectly. We should have explicilty added
the handlers (to supress the warnings we were getting) but returned an
error saying the RPC was not implemented. Instead, we just returned
success but passed back bogus data. This was "fine" at the time
because nothing called these methods.
Now that we are actually calling them, returning incorrect values
leads to errors in grpc. To deal with this we do two things:
1. Adjust the implementations in the dynamic provider to correctly
return not implemented. This allows us to pick up the default engine
behavior going forward.
2. Add some code in CheckConfig/DiffConfig that handle the gRPC error
that is returned when calling methods on the dynamic provider and fall
back to the legacy behavior. This means updating your CLI will not
cause issues for existing resources where the SDK has not been
updated.
For provider plugins, the gRPC interfaces expect that a URN would be
included as part of the DiffConfig/CheckConfig request, which means we
need to flow this value into our Provider interface.
This change does that.
A customer reported an issue where operations would fail with the
following error:
```
error: could not deserialize deployment: unknown secrets provider type
```
The problem here was the customer's deployment had a
`secrets_provider` section which looked like the following:
```
"secrets_providers": {
"type": ""
}
```
And so our code to try to construct a secrets manager from this thing
would fail, as our registry does not contain any information about a
provider with an empty type.
We do two things in this change:
1. When serializing a deployment, if there is no secrets manager,
don't even write the `secrets_provider` block. This helps for cases
where we are roundtripping deployments that did not have a provider
configured (i.e. they were older stacks that did not use secrets)
2. When deserializing, if we see an empty secrets provider like the
above, interpret it to mean "this deployment has no secrets". We set
up a decrypter such that if it ends up haiving secrets, we panic
eagerly (since this is a logical bug in our system somewhere).
Providers from plugins require that configuration value be
strings. This means if we are passing a secret string to a
provider (for example, trying to configure a kubernetes provider based
on some secret kubeconfig) we need to be careful to remove the
"secretness" before actually making the calls into the provider.
Failure to do this resulted in errors saying that the provider
configuration values had to be strings, and of course, the values
logically where, they were just marked as secret strings
Fixes#2741
We have to actually return the value we compute instead of just
dropping it on the floor and treating the underlying values as
primitive.
I ran into this during dogfooding, the added test case would
previously panic.
