// 2. find the common dominator(b0) of the predecessors(pb0, pb1) of block b, and the
	//    dominator(b0) is a If block.
	//    Special case: one of the predecessors(pb0 or pb1) is the dominator(b0).
	// 3. the successors(sb0, sb1) of the dominator need to dominate the predecessors(pb0, pb1)
	//    of block b respectively.
	// 4. replace this boolean Phi based on dominator block.
	//

	trh.Set(float64(trh.nowFunc().Sub(time.Unix(0, 0))))
}

func (trh *timingRatioHistogramInner) SetDenominator(denominator float64) {
	trh.Lock()
	defer trh.Unlock()
	trh.denominator = denominator
	ratio := trh.numerator / denominator
	trh.getGaugeOfRatio().Set(ratio)
}

// WithContext allows the normal TimingHistogram metric to pass in context.

}

type lcaRangeBlock struct {
	b          *Block
	parent     ID    // parent in dominator tree.  0 = no parent (entry or unreachable)
	firstChild ID    // first child in dominator tree
	sibling    ID    // next child of parent
	pos        int32 // an index in the Euler tour where this block appears (any one of its occurrences)
	depth      int32 // depth in dominator tree (root=0, its children=1, etc.)
}

func makeLCArange(f *Func) *lcaRange {

	defvars []map[ir.Node]*ssa.Value // defined variables at end of each block

	varnum map[ir.Node]int32 // variable numbering

	// properties of the dominator tree
	idom  []*ssa.Block // dominator parents
	tree  []domBlock   // dominator child+sibling
	level []int32      // level in dominator tree (0 = root or unreachable, 1 = children of root, ...)

	// scratch locations

<component name="ProjectDictionaryState">
  <dictionary name="abreslav">
    <words>
      <w>accessor</w>
      <w>covariantly</w>
      <w>deserialized</w>
      <w>dominator</w>
      <w>inferrer</w>
      <w>iterable</w>
      <w>nondeterministic</w>
      <w>nullable</w>
      <w>overridable</w>
      <w>pseudocode</w>
      <w>substitutor</w>
      <w>subtyping</w>
      <w>supertype</w>
      <w>supertypes</w>

						Numerator:   uint32(50 * 10000),
						Denominator: xdstype.FractionalPercent_MILLION,
					},
					FaultDelaySecifier: &xdsfault.FaultDelay_FixedDelay{
						FixedDelay: &durationpb.Duration{
							Seconds: int64(3),
						},
					},
				},
				Abort: &xdshttpfault.FaultAbort{
					Percentage: &xdstype.FractionalPercent{
						Numerator:   uint32(50 * 10000),
						Denominator: xdstype.FractionalPercent_MILLION,
					},

}

// RatioedGauge tracks ratios.
// The numerator is set/changed through the Gauge methods,
// and the denominator can be updated through the SetDenominator method.
// A ratio is tracked whenever the numerator or denominator is set/changed.
type RatioedGauge interface {
	Gauge

	// SetDenominator sets the denominator to use until it is changed again
	SetDenominator(float64)
}

// RatioedGaugeVec creates related observers that are

                default_value:
                  numerator: 100
                  denominator: HUNDRED
              filter_enforced:
                runtime_key: local_rate_limit_enforced
                default_value:
                  numerator: 100
                  denominator: HUNDRED
              response_headers_to_add:
                - append: false
                  header:

                    spec?.let { add(it) }
                }
            }
        )
    }
}


private
val combinator = Combinator(ignoresComments = true, ignoresNewline = false)


private
val pluginsBlockParser = run {

    combinator.run {

        val parenString by debug {
            paren(stringLiteral)
        }

        val parenBool by debug {

	// Dumping Pod Info
	for _, p := range n.Pods {
		nodeData.WriteString(printPod(p.Pod))
	}
	// Dumping nominated pods info on the node
	nominatedPodInfos := d.podQueue.NominatedPodsForNode(name)
	if len(nominatedPodInfos) != 0 {
		nodeData.WriteString(fmt.Sprintf("Nominated Pods(number: %v):\n", len(nominatedPodInfos)))
		for _, pi := range nominatedPodInfos {
			nodeData.WriteString(printPod(pi.Pod))
		}
	}