}

// addToFlag appends args to flag.
func (p *Package) addToFlag(flag string, args []string) {
	if flag == "CFLAGS" {
		// We'll also need these when preprocessing for dwarf information.
		// However, discard any -g options: we need to be able
		// to parse the debug info, so stick to what we expect.
		for _, arg := range args {
			if !strings.HasPrefix(arg, "-g") {

                cliRequest.multiModuleProjectDirectory = basedir.getAbsoluteFile();
            }
        }

        // We need to locate the top level project which may be pointed at using
        // the -f/--file option.  However, the command line isn't parsed yet, so
        // we need to iterate through the args to find it and act upon it.
        Path topDirectory = Paths.get(cliRequest.workingDirectory);

		}

		volumeMounts = append(volumeMounts, mount)
	}

	// The reason we create and mount the log file in here (not in kubelet) is because
	// the file's location depends on the ID of the container, and we need to create and
	// mount the file before actually starting the container.
	if opts.PodContainerDir != "" && len(container.TerminationMessagePath) != 0 {

	stdFracSecond9                                 // ".9", ".99", ..., trailing zeros omitted

	stdNeedDate       = 1 << 8             // need month, day, year
	stdNeedClock      = 2 << 8             // need hour, minute, second
	stdArgShift       = 16                 // extra argument in high bits, above low stdArgShift

    }
    Object localValue = value;
    if (localValue != null & !(localValue instanceof SetFuture)) {
      return getDoneValue(localValue);
    }
    // we delay calling nanoTime until we know we will need to either park or spin
    final long endNanos = remainingNanos > 0 ? System.nanoTime() + remainingNanos : 0;
    long_wait_loop:
    if (remainingNanos >= SPIN_THRESHOLD_NANOS) {
      Waiter oldHead = waiters;

    }
    Object localValue = value;
    if (localValue != null & !(localValue instanceof SetFuture)) {
      return getDoneValue(localValue);
    }
    // we delay calling nanoTime until we know we will need to either park or spin
    final long endNanos = remainingNanos > 0 ? System.nanoTime() + remainingNanos : 0;
    long_wait_loop:
    if (remainingNanos >= SPIN_THRESHOLD_NANOS) {
      Waiter oldHead = waiters;

)

const (
	embeddedPolicyType  = "embedded-policy"
	inheritedPolicyType = "inherited-policy"
)

const (
	maxSVCSessionPolicySize = 4096
)

// IAMSys - config system.
type IAMSys struct {
	// Need to keep them here to keep alignment - ref: https://golang.org/pkg/sync/atomic/#pkg-note-BUG
	// metrics
	LastRefreshTimeUnixNano         uint64
	LastRefreshDurationMilliseconds uint64
	TotalRefreshSuccesses           uint64

// once for all sidecars in the cluster to compute all RDS for inside the mesh and arrange
// it by listener port. However to properly use such an optimization, we need to have an
// eventing subsystem to invalidate the computed routes if any service changes/virtual Services change.
type VirtualHostWrapper struct {
	// Port is the listener port for outbound sidecar (e.g. service port)
	Port int

package runtime

import (
	"internal/abi"
	"internal/goarch"
	"internal/runtime/atomic"
	"runtime/internal/sys"
	"unsafe"
)

const (
	// A malloc header is functionally a single type pointer, but
	// we need to use 8 here to ensure 8-byte alignment of allocations
	// on 32-bit platforms. It's wasteful, but a lot of code relies on
	// 8-byte alignment for 8-byte atomics.
	mallocHeaderSize = 8

		// No operands to take care of.

	case *ast.ParenExpr:
		check.updateExprType0(x, x.X, typ, final)

	case *ast.UnaryExpr:
		// If x is a constant, the operands were constants.
		// The operands don't need to be updated since they
		// never get "materialized" into a typed value. If
		// left in the untyped map, they will be processed
		// at the end of the type check.
		if old.val != nil {
			break
		}