// for reading and writing object files.

// The object file is understood by the compiler, assembler, linker, and tools. They
// have "high level" code that operates on object files, handling application-specific
// logics, and use this package for the actual reading and writing. Specifically, the
// code below:
//
// - cmd/internal/obj/objfile.go (used by cmd/asm and cmd/compile)

// to the API server to delete/update the objects accordingly.
// Note that having the dependencyGraphBuilder notify the garbage collector
// ensures that the garbage collector operates with a graph that is at least as
// up to date as the notification is sent.
type GarbageCollector struct {
	restMapper     meta.ResettableRESTMapper
	metadataClient metadata.Interface

	partial func(entries metaCacheEntries, errs []error)

	// finished will be called when all streams have finished and
	// more than one disk returned an error.
	// Will not be called if everything operates as expected.
	finished func(errs []error)
}

// listPathRaw will list a path on the provided drives.
// See listPathRawOptions on how results are delivered.
// Directories are always returned.

	// Please refer to the issue for more context:
	// https://github.com/kubernetes/kubernetes/issues/88355

	// Below, vx is a volume name, and nx is a node name.

	// Operation sequence:
	// opZ(v0) starts (operates on a different volume from all other operations)
	// op1(v1, n1) starts
	// op2(v1, n2) starts
	// opZ(v0) ends with success
	// op2(v1, n2) ends with an error (exponential backoff should be triggered)

## Detalhes Técnicos

Versões modernas de Python tem suporte para **"código assíncrono"** usando algo chamado **"corrotinas"**, com sintaxe **`async` e `await`**.

Vamos ver aquela frase por partes na seção abaixo:

* **Código assíncrono**
* **`async` e `await`**
* **Corrotinas**

## Código assíncrono

// A typical use is to identify the source locations in a program
// that are miscompiled by a given compiler optimization.
//
// Usage:
//
//	bisect [flags] [var=value...] command [arguments...]
//
// Bisect operates on a target command line – the target – that can be
// run with various changes individually enabled or disabled. With none
// of the changes enabled, the target is known to succeed (exit with exit

  // before legalization.
  AddLegalizationPasses(pm, legalize_chlo, device_type, enable_op_fallback,
                        lower_to_xla_hlo);

  if (lower_to_xla_hlo) {
    // This pass operates on MHLO control flow ops so it should be legalized
    // after the control flow ops are legalized.
    pm.addPass(mlir::mhlo::CreateLegalizeTFCommunicationPass());

    // Everything should be MHLO after this.

			// and painful to test here.
			if c.expectedError != "" || c.skipWebhook {
				return
			}
			// Next run the webhook test. This one is a bit trickier as the webhook operates
			// on Pods, but the inputs are Deployments/StatefulSets/etc. As a result, we need
			// to convert these to pods, then run the injection This test will *not*

## Detalles Técnicos

Las versiones modernas de Python tienen soporte para **"código asíncrono"** usando algo llamado **"coroutines"**, usando la sintaxis **`async` y `await`**.

Veamos esa frase por partes en las secciones siguientes:

* **Código Asíncrono**
* **`async` y `await`**
* **Coroutines**

## Código Asíncrono

Depending on the format of the metadata of a module, it is mapped differently to the variant-centric representation of the metadata:

- If the module has Gradle Module Metadata, the data structure the rule operates on is very similar to what you find in the module's `.module` file.