// We need to rewrite the `next` link of each of the elements so that it is in the appropriate
      // linked list starting from `newTable`. In general, each element from the old linked list
      // belongs to a different linked list from `newTable`. We insert each element in turn at the
      // head of its appropriate `newTable` linked list.
      while (oldNext != UNSET) {
        int entryIndex = oldNext - 1;

        int newNext = CompactHashing.tableGet(newTable, newTableIndex);
        CompactHashing.tableSet(newTable, newTableIndex, oldNext);
        entries[entryIndex] = CompactHashing.maskCombine(hash, newNext, newMask);

        oldNext = CompactHashing.getNext(oldEntry, oldMask);
      }
    }

    this.table = newTable;
    setHashTableMask(newMask);
    return newMask;
  }

      // We need to rewrite the `next` link of each of the elements so that it is in the appropriate
      // linked list starting from `newTable`. In general, each element from the old linked list
      // belongs to a different linked list from `newTable`. We insert each element in turn at the
      // head of its appropriate `newTable` linked list.
      while (oldNext != UNSET) {
        int entryIndex = oldNext - 1;

    }

    AtomicReferenceArray<E> newEntryArray(int size) {
      return new AtomicReferenceArray<>(size);
    }

    void initTable(AtomicReferenceArray<E> newTable) {
      this.threshold = newTable.length() * 3 / 4; // 0.75
      this.table = newTable;
    }

    // Convenience methods for testing

    /**
     * Unsafe cast of the given entry to {@code E}, the type of the specific {@link InternalEntry}

	var oldTable, newTable interface{}
	if v, ok := oldName.(string); ok {
		oldTable = clause.Table{Name: v}
	} else {
		stmt := &gorm.Statement{DB: m.DB}
		if err := stmt.Parse(oldName); err == nil {
			oldTable = m.CurrentTable(stmt)
		} else {
			return err
		}
	}

	if v, ok := newName.(string); ok {
		newTable = clause.Table{Name: v}
	} else {

			continue
		}

		labels := make([]string, 0, len(metric.VariableLabels)*2)
		for k, v := range metric.VariableLabels {
			if newLabel, ok := renameLabels[k]; ok {
				labels = append(labels, newLabel, v)
			} else {
				labels = append(labels, k, v)
			}
		}
		labels = append(labels, extraLabels...)
		// If valid non zero value set the metrics
		if metric.Value > 0 {

p256PrecomputedEmbed. var p256GeneratorTables *[43]p256AffineTable func init() { p256GeneratorTablesP := unsafe.Pointer(&p256PrecomputedEmbed) if cpu.BigEndian { var newTable [43 * 32 * 2 * 4]uint64 for i, x := range (*[43 * 32 * 2 * 4][8]byte)(p256GeneratorTablesP) { newTable[i] = byteorder.LEUint64(x[:]) } p256GeneratorTablesP = unsafe.Pointer(&newTable) } p256GeneratorTables = (*[43]p256AffineTable)(p256GeneratorTablesP) } func boothW6(in uint64) (uint8, int) { s := ^((in >> 6) - 1) d := (1 << 7) - in - 1...

pkg go/types, func NewField(token.Pos, *Package, string, Type, bool) *Var
pkg go/types, func NewFunc(token.Pos, *Package, string, *Signature) *Func
pkg go/types, func NewInterface([]*Func, []*Named) *Interface
pkg go/types, func NewLabel(token.Pos, *Package, string) *Label
pkg go/types, func NewMap(Type, Type) *Map
pkg go/types, func NewMethodSet(Type) *MethodSet
pkg go/types, func NewNamed(*TypeName, Type, []*Func) *Named

pkg debug/elf, type Symbol struct, Value uint64
pkg debug/elf, type Type uint16
pkg debug/elf, type Version uint8
pkg debug/gosym, func NewLineTable([]uint8, uint64) *LineTable
pkg debug/gosym, func NewTable([]uint8, *LineTable) (*Table, error)
pkg debug/gosym, method (*DecodingError) Error() string
pkg debug/gosym, method (*LineTable) LineToPC(int, uint64) uint64
pkg debug/gosym, method (*LineTable) PCToLine(uint64) int