// emitting calls to write barriers. The main write barrier for
// individual pointer writes is gcWriteBarrier and is implemented in
// assembly. This file contains write barrier entry points for bulk
// operations. See also mwbbuf.go.

package runtime

import (
	"internal/abi"
	"internal/goarch"
	"internal/goexperiment"
	"unsafe"
)

		return ObjectInfo{}, err
	}
	set := s.getHashedSet(object)
	return set.DeleteObject(ctx, bucket, object, opts)
}

// DeleteObjects - bulk delete of objects
// Bulk delete is only possible within one set. For that purpose
// objects are group by set first, and then bulk delete is invoked
// for each set, the error response of each delete will be returned

	}

	nblocks := int32(len(f.Blocks))
	nvars := int32(len(vars))
	bulk := bitvec.NewBulk(nvars, nblocks*7)
	for _, b := range f.Blocks {
		be := lv.blockEffects(b)

		be.uevar = bulk.Next()
		be.varkill = bulk.Next()
		be.livein = bulk.Next()
		be.liveout = bulk.Next()
	}
	lv.livenessMap.reset()

	lv.markUnsafePoints()

	lv.partLiveArgs = make(map[*ir.Name]bool)

	return reduceWriteQuorumErrs(ctx, g.Wait(), objectOpIgnoredErrs, writeQuorum)
}

// DeleteObjects deletes objects/versions in bulk, this function will still automatically split objects list
// into smaller bulks if some object names are found to be duplicated in the delete list, splitting
// into smaller bulks will avoid holding twice the write lock of the duplicated object names.

		// anything closely tied to the runtime. Known issues
		// include: various points in the scheduler ("don't
		// preempt between here and here"), much of the defer
		// implementation (untyped info on stack), bulk write
		// barriers (write barrier check),
		// reflect.{makeFuncStub,methodValueCall}.
		//
		// TODO(austin): We should improve this, or opt things
		// in incrementally.
		return false, 0
	}
	switch up {

// Each Prog is charged to a specific source line in the debug information,
// specified by Pos.Line().
// Every Prog has a Ctxt field that defines its context.
// For performance reasons, Progs are usually bulk allocated, cached, and reused;
// those bulk allocators should always be used, rather than new(Prog).
//
// The other fields not yet mentioned are for use by the back ends and should
// be left zeroed by creators of Prog lists.
type Prog struct {

   * {@code Set}.
   *
   * <p>The function is applied lazily, invoked when needed. This is necessary for the returned
   * multimap to be a view, but it means that the function will be applied many times for bulk
   * operations like {@link Multimap#containsValue} and {@code Multimap.toString()}. For this to
   * perform well, {@code function} should be fast. To avoid lazy evaluation when the returned

// Further, it decrypts all single-part SSE-S3 encrypted objects
// and formats ETags of SSE-C / SSE-KMS encrypted objects to
// be AWS S3 compliant.
//
// DecryptETags uses a KMS bulk decryption API, if available, which
// is more efficient than decrypting ETags sequentually.
func DecryptETags(ctx context.Context, k *kms.KMS, objects []ObjectInfo) error {

	}
	volume := r.Form.Get(storageRESTVolume)
	err := s.getStorage().MakeVol(r.Context(), volume)
	if err != nil {
		s.writeErrorResponse(w, err)
	}
}

// MakeVolBulkHandler - create multiple volumes as a bulk operation.
func (s *storageRESTServer) MakeVolBulkHandler(w http.ResponseWriter, r *http.Request) {
	if !s.IsValid(w, r) {
		return
	}
	volumes := strings.Split(r.Form.Get(storageRESTVolumes), ",")

	< runtime/msan, runtime/asan;

	# runtime/race
	NONE < runtime/race/internal/amd64v1;
	NONE < runtime/race/internal/amd64v3;
	CGO, runtime/race/internal/amd64v1, runtime/race/internal/amd64v3 < runtime/race;

	# Bulk of the standard library must not use cgo.
	# The prohibition stops at net and os/user.
	C !< fmt, go/types, CRYPTO-MATH, log/slog;

	CGO, OS
	< plugin;

	CGO, FMT
	< os/user
	< archive/tar;