// number by to compute an index into the first level arena map.
	arenaL1Shift = arenaL2Bits

	// arenaBits is the total bits in a combined arena map index.
	// This is split between the index into the L1 arena map and
	// the L2 arena map.
	arenaBits = arenaL1Bits + arenaL2Bits

	// arenaBaseOffset is the pointer value that corresponds to
	// index 0 in the heap arena map.
	//

// StatefulSetOrdinals describes the policy used for replica ordinal assignment
// in this StatefulSet.
type StatefulSetOrdinals struct {
	// start is the number representing the first replica's index. It may be used
	// to number replicas from an alternate index (eg: 1-indexed) over the default
	// 0-indexed names, or to orchestrate progressive movement of replicas from
	// one StatefulSet to another.
	// If set, replica indices will be in the range:

	ErasureBlockSize   int64             `json:"EcBSize" msg:"EcBSize"`                          // Erasure block size
	ErasureIndex       int               `json:"EcIndex" msg:"EcIndex"`                          // Erasure disk index
	ErasureDist        []uint8           `json:"EcDist" msg:"EcDist"`                            // Erasure distribution
	BitrotChecksumAlgo ChecksumAlgo      `json:"CSumAlgo" msg:"CSumAlgo"`                        // Bitrot checksum algo

	return int8(sc >> 1)
}

//go:nosplit
func (sc spanClass) noscan() bool {
	return sc&1 != 0
}

// arenaIndex returns the index into mheap_.arenas of the arena
// containing metadata for p. This index combines of an index into the
// L1 map and an index into the L2 map and should be used as
// mheap_.arenas[ai.l1()][ai.l2()].
//
// If p is outside the range of valid heap addresses, either l1() or

		return false
	}
	if hasBackoffLimitPerIndex(jobCtx.job) {
		if index := getCompletionIndex(pod.Annotations); index != unknownCompletionIndex {
			if p, ok := jobCtx.podsWithDelayedDeletionPerIndex[index]; ok && p.UID == pod.UID {
				logger.V(3).Info("Delaying pod finalizer removal to await for pod recreation within the index", "pod", klog.KObj(pod))
				return false
			}
		}
	}
	return true
}

{"id":3,"title":"Second Record","desc":"another text","nested":[[2,3,4],[7,8.5,9]]}`,
		},
		{
			name:       "index-wildcard-in",
			query:      `SELECT * from s3object s WHERE (8.5) IN s.nested[1][*]`,
			wantResult: `{"id":3,"title":"Second Record","desc":"another text","nested":[[2,3,4],[7,8.5,9]]}`,
		},
		{
			name:       "index-wildcard-in",
			query:      `SELECT * from s3object s WHERE (8.0+0.5) IN s.nested[1][*]`,

	t.Cleanup(func() {
		if t.Failed() {
			idx := idx.(*index)
			krt.Dump(idx.authorizationPolicies)
			krt.Dump(idx.workloads.Collection)
			krt.Dump(idx.services.Collection)
			krt.Dump(idx.waypoints.Collection)
		}
	})
	a := &ambientTestServer{
		t:         t,
		clusterID: clusterID,
		network:   networkID,
		index:     idx.(*index),
		fx:        up,

								PathType: &exactPathType,
								Backend:  defaultBackend,
							}},
						},
					},
				}}
			},
			expectedErrs: field.ErrorList{field.Invalid(field.NewPath("spec").Child("rules").Index(0).Child("http").Child("paths").Index(0).Child("path"), "foo", `must be an absolute path`)},
		},
	}

	for name, testCase := range testCases {
		t.Run(name, func(t *testing.T) {
			newIngress := baseIngress.DeepCopy()

	Xfsize   uint32 // Size of function in bytes
	Xendndx  uint32 // Symbol table index of next entry
	Xpad     uint8  // Unused
	Xauxtype uint8  // Type of auxiliary entry
}

// csect Auxiliary Entry.
type XcoffAuxCSect64 struct {
	Xscnlenlo uint32 // Lower 4 bytes of length or symbol table index
	Xparmhash uint32 // Offset of parameter type-check string
	Xsnhash   uint16 // .typchk section number

		limitRangeList := &corev1.LimitRangeList{
			ListMeta: metav1.ListMeta{
				ResourceVersion: fmt.Sprintf("%d", len(limitRanges)),
			},
		}
		for index, value := range limitRanges {
			value.ResourceVersion = fmt.Sprintf("%d", index)
			limitRangeList.Items = append(limitRangeList.Items, value)
		}
		return true, limitRangeList, nil
	})
	return mockClient
}