case OpArg: // note: but not ArgIntReg
		// amd64 always loads args from the stack unsigned.
		// most other architectures load them sign/zero extended based on the type.
		return x.Type.Size() == 4 && (x.Type.IsUnsigned() || x.Block.Func.Config.arch == "amd64")
	case OpPhi, OpSelect0, OpSelect1:
		// Phis can use each-other as an arguments, instead of tracking visited values,
		// just limit recursion depth.
		if depth <= 0 {

package parser

import (
	"fmt"
	"go/ast"
	"go/scanner"
	"go/token"
)

// The mode parameter to the Parse* functions is a set of flags (or 0).
// They control the amount of source code parsed and other optional
// parser functionality.
const (
	PackageClauseOnly uint = 1 << iota // parsing stops after package clause
	ImportsOnly                        // parsing stops after import declarations

			dsc.enqueueDaemonSet(ds)
		}
	}
}

// shouldIgnoreNodeUpdate returns true if Node labels and taints have not changed, otherwise returns false.
// If other calling functions need to use other properties of Node, shouldIgnoreNodeUpdate needs to be updated.
func shouldIgnoreNodeUpdate(oldNode, curNode v1.Node) bool {
	return apiequality.Semantic.DeepEqual(oldNode.Labels, curNode.Labels) &&

// the same root frame are placed adjacent to each other.  This grouping enables
// processing the graph per root frame at a time and guarantees that when a root
// frame is being processed, nodes in the downstream frames have not yet been
// processed.  This property is important because we need to process an entire
// frame to know whether the optimistic mode converges or not.  In other words,

					if countRegs(mask) == 1 && mask&^s.used != 0 {
						args[i.idx] = s.allocValToReg(v.Args[i.idx], mask, true, v.Pos)
						// If the input is in other registers that will be clobbered by v,
						// or the input is dead, free the registers. This may make room
						// for other inputs.
						oldregs := s.values[v.Args[i.idx].ID].regs
						if oldregs&^regspec.clobbers == 0 || !s.liveAfterCurrentInstruction(v.Args[i.idx]) {

	// sweepDistMinTrigger is the minimum trigger to ensure a minimum
	// sweep distance.
	//
	// This bound is also special because it applies to both the trigger
	// *and* the goal (all other trigger bounds must be based *on* the goal).
	//
	// It is computed ahead of time, at commit time. The theory is that,
	// absent a sudden change to a parameter like gcPercent, the trigger

### `-tf-optimize`

_Optimize TensorFlow module_

### `-tf-order-by-dialect`

_Reorders ops so ops of the same dialect are next to each other._

Performs a reordering of ops so that
  (a) ops of the same dialect are next to each other
  (b) order within a dialect is preserved
.
For example, this would transform
  %a = "x.f"()
  %b = "y.f"(%a)
  %c = "x.f"(%a)
to

	return "x509: invalid signature: parent certificate cannot sign this kind of certificate"
}

func (c *Certificate) Equal(other *Certificate) bool {
	if c == nil || other == nil {
		return c == other
	}
	return bytes.Equal(c.Raw, other.Raw)
}

func (c *Certificate) hasSANExtension() bool {
	return oidInExtensions(oidExtensionSubjectAltName, c.Extensions)
}

	if !dstOpts.NoAuditLog {
		auditObjectErasureSet(ctx, dstObject, &er)
	}

	// This call shouldn't be used for anything other than metadata updates or adding self referential versions.
	if !srcInfo.metadataOnly {
		return oi, NotImplemented{}
	}

	if !dstOpts.NoLock {
		lk := er.NewNSLock(dstBucket, dstObject)

	// mayConvert reports whether the operands x and y may
	// possibly have matching types after converting one
	// untyped operand to the type of the other.
	// If mayConvert returns true, we try to convert the
	// operands to each other's types, and if that fails
	// we report a conversion failure.
	// If mayConvert returns false, we continue without an
	// attempt at conversion, and if the operand types are