mirror of
https://github.com/opentofu/opentofu.git
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4fe9632f09
The main significant change here is that the package name for the proto definition is "tfplugin5", which is important because this name is part of the wire protocol for references to types defined in our package. Along with that, we also move the generated package into "internal" to make it explicit that importing the generated Go package from elsewhere is not the right approach for externally-implemented SDKs, which should instead vendor the proto definition they are using and generate their own stubs to ensure that the wire protocol is the only hard dependency between Terraform Core and plugins. After this is merged, any provider binaries built against our helper/schema package will need to be rebuilt so that they use the new "tfplugin5" package name instead of "proto". In a future commit we will include more elaborate and organized documentation on how an external codebase might make use of our RPC interface definition to implement an SDK, but the primary concern here is to ensure we have the right wire package name before release.
133 lines
3.6 KiB
Go
133 lines
3.6 KiB
Go
package convert
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import (
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proto "github.com/hashicorp/terraform/internal/tfplugin5"
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"github.com/hashicorp/terraform/tfdiags"
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"github.com/zclconf/go-cty/cty"
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)
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// WarnsAndErrorsToProto converts the warnings and errors return by the legacy
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// provider to protobuf diagnostics.
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func WarnsAndErrsToProto(warns []string, errs []error) (diags []*proto.Diagnostic) {
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for _, w := range warns {
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diags = AppendProtoDiag(diags, w)
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}
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for _, e := range errs {
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diags = AppendProtoDiag(diags, e)
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}
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return diags
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}
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// AppendProtoDiag appends a new diagnostic from a warning string or an error.
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// This panics if d is not a string or error.
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func AppendProtoDiag(diags []*proto.Diagnostic, d interface{}) []*proto.Diagnostic {
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switch d := d.(type) {
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case cty.PathError:
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ap := PathToAttributePath(d.Path)
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diags = append(diags, &proto.Diagnostic{
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Severity: proto.Diagnostic_ERROR,
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Summary: d.Error(),
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Attribute: ap,
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})
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case error:
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diags = append(diags, &proto.Diagnostic{
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Severity: proto.Diagnostic_ERROR,
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Summary: d.Error(),
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})
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case string:
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diags = append(diags, &proto.Diagnostic{
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Severity: proto.Diagnostic_WARNING,
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Summary: d,
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})
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case *proto.Diagnostic:
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diags = append(diags, d)
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case []*proto.Diagnostic:
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diags = append(diags, d...)
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}
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return diags
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}
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// ProtoToDiagnostics converts a list of proto.Diagnostics to a tf.Diagnostics.
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func ProtoToDiagnostics(ds []*proto.Diagnostic) tfdiags.Diagnostics {
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var diags tfdiags.Diagnostics
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for _, d := range ds {
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var severity tfdiags.Severity
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switch d.Severity {
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case proto.Diagnostic_ERROR:
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severity = tfdiags.Error
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case proto.Diagnostic_WARNING:
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severity = tfdiags.Warning
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}
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var newDiag tfdiags.Diagnostic
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// if there's an attribute path, we need to create a AttributeValue diagnostic
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if d.Attribute != nil {
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path := AttributePathToPath(d.Attribute)
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newDiag = tfdiags.AttributeValue(severity, d.Summary, d.Detail, path)
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} else {
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newDiag = tfdiags.WholeContainingBody(severity, d.Summary, d.Detail)
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}
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diags = diags.Append(newDiag)
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}
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return diags
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}
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// AttributePathToPath takes the proto encoded path and converts it to a cty.Path
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func AttributePathToPath(ap *proto.AttributePath) cty.Path {
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var p cty.Path
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for _, step := range ap.Steps {
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switch selector := step.Selector.(type) {
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case *proto.AttributePath_Step_AttributeName:
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p = p.GetAttr(selector.AttributeName)
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case *proto.AttributePath_Step_ElementKeyString:
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p = p.Index(cty.StringVal(selector.ElementKeyString))
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case *proto.AttributePath_Step_ElementKeyInt:
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p = p.Index(cty.NumberIntVal(selector.ElementKeyInt))
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}
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}
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return p
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}
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// AttributePathToPath takes a cty.Path and converts it to a proto-encoded path.
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func PathToAttributePath(p cty.Path) *proto.AttributePath {
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ap := &proto.AttributePath{}
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for _, step := range p {
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switch selector := step.(type) {
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case cty.GetAttrStep:
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ap.Steps = append(ap.Steps, &proto.AttributePath_Step{
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Selector: &proto.AttributePath_Step_AttributeName{
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AttributeName: selector.Name,
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},
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})
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case cty.IndexStep:
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key := selector.Key
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switch key.Type() {
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case cty.String:
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ap.Steps = append(ap.Steps, &proto.AttributePath_Step{
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Selector: &proto.AttributePath_Step_ElementKeyString{
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ElementKeyString: key.AsString(),
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},
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})
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case cty.Number:
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v, _ := key.AsBigFloat().Int64()
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ap.Steps = append(ap.Steps, &proto.AttributePath_Step{
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Selector: &proto.AttributePath_Step_ElementKeyInt{
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ElementKeyInt: v,
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},
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})
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default:
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// We'll bail early if we encounter anything else, and just
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// return the valid prefix.
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return ap
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}
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}
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}
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return ap
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}
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