// an ETag back to an S3 client it has to be formatted to be
// AWS S3 compatible.
//
// Therefore, Format returns the last 16 bytes of an encrypted
// ETag.
//
// In general, a caller has to distinguish the following cases:
//   - The object is a multipart object. In this case,
//     Format returns the ETag unmodified.
//   - The object is a SSE-KMS or SSE-C encrypted single-

     * However, Joiner.on(...).useForNull(...).join(somethingThatContainsNull) *is* safe -- because
     * it returns a subclass of Joiner that overrides this method to tolerate null inputs.
     *
     * Unfortunately, we don't distinguish between these two cases in our public API: Joiner.on(...)
     * and Joiner.on(...).useForNull(...) both declare the same return type: plain Joiner. To ensure

// for identical types, even across compilation units.
//
// NameString qualifies identifiers by package name, so it has
// collisions when different packages share the same names and
// identifiers. It also does not distinguish function-scope defined
// types from package-scoped defined types or from each other.
func (t *Type) NameString() string {
	return tconv(t, 0, fmtTypeIDName)
}

// each with parameter values "meeny", "miny", and "moe".

INSTANTIATE_TEST_CASE_P(InstantiationName,
                        FooTest,
                        Values("meeny", "miny", "moe"));

// To distinguish different instances of the pattern, (yes, you
// can instantiate it more then once) the first argument to the
// INSTANTIATE_TEST_CASE_P macro is a prefix that will be added to the

		// standard version takes key by reference.
		// orderState.expr made sure key is addressable.
		return typecheck.NodAddr(key)
	}
	if assigned {
		// mapassign does distinguish pointer vs. integer key.
		return key
	}
	// mapaccess and mapdelete don't distinguish pointer vs. integer key.
	switch fast {
	case mapfast32ptr:
		return ir.NewConvExpr(n.Pos(), ir.OCONVNOP, types.Types[types.TUINT32], key)
	case mapfast64ptr:

That means the dependency metadata published with the binaries and headers — in the form of Gradle Module Metadata — is crucial.
In particular, consumers of your library should be able to distinguish between two different types of dependencies: those that are only required to compile your library and those that are also required to compile the consumer.

type ABI uint8

const (
	// ABI0 is the stable stack-based ABI. It's important that the
	// value of this is "0": we can't distinguish between
	// references to data and ABI0 text symbols in assembly code,
	// and hence this doesn't distinguish between symbols without
	// an ABI and text symbols with ABI0.
	ABI0 ABI = iota

	// ABIInternal is the internal ABI that may change between Go

	JobTemplate JobTemplateSpec

	// The number of successful finished jobs to retain.
	// This is a pointer to distinguish between explicit zero and not specified.
	// +optional
	SuccessfulJobsHistoryLimit *int32

	// The number of failed finished jobs to retain.
	// This is a pointer to distinguish between explicit zero and not specified.
	// +optional
	FailedJobsHistoryLimit *int32
}

     * However, Joiner.on(...).useForNull(...).join(somethingThatContainsNull) *is* safe -- because
     * it returns a subclass of Joiner that overrides this method to tolerate null inputs.
     *
     * Unfortunately, we don't distinguish between these two cases in our public API: Joiner.on(...)
     * and Joiner.on(...).useForNull(...) both declare the same return type: plain Joiner. To ensure

Plugins can be sourced from Gradle or the Gradle community.
But when users want to organize their build logic or need specific build capabilities not provided by existing plugins, they can develop their own.

As such, we distinguish between three different kinds of plugins:

1. *Core Plugins* - plugins that come from Gradle.
2. *Community Plugins* - plugins that come from link:https://plugins.gradle.org/[Gradle Plugin Portal] or a public repository.