// Set hashWriting after calling t.hasher for consistency with mapassign.
	h.flags ^= hashWriting

	if h.buckets == nil {
		h.buckets = newobject(t.Bucket) // newarray(t.bucket, 1)
	}

again:
	bucket := hash & bucketMask(h.B)
	if h.growing() {
		growWork_faststr(t, h, bucket)
	}
	b := (*bmap)(add(h.buckets, bucket*uintptr(t.BucketSize)))
	top := tophash(hash)

      Object[] internal = internalArray();
      if (internal != null) {
        return Platform.copy(internal, internalArrayStart(), internalArrayEnd(), other);
      }
      other = ObjectArrays.newArray(other, size);
    } else if (other.length > size) {
      other[size] = null;
    }
    copyIntoArray(other, 0);
    return other;
  }

		t.extra = new(Chan)
	case TTUPLE:
		t.extra = new(Tuple)
	case TRESULTS:
		t.extra = new(Results)
	}
	return t
}

// NewArray returns a new fixed-length array Type.
func NewArray(elem *Type, bound int64) *Type {
	if bound < 0 {
		base.Fatalf("NewArray: invalid bound %v", bound)
	}
	t := newType(TARRAY)
	t.extra = &Array{Elem: elem, Bound: bound}
	if elem.HasShape() {
		t.SetHasShape(true)
	}

			return t
		}
		return name.Type()

	case pkgbits.TypeTypeParam:
		return r.dict.tparams[r.Len()]

	case pkgbits.TypeArray:
		len := int64(r.Uint64())
		return types.NewArray(r.typ(), len)
	case pkgbits.TypeChan:
		dir := types.ChanDir(r.Len())
		return types.NewChan(dir, r.typ())
	case pkgbits.TypeMap:
		return types.NewMap(r.typ(), r.typ())
	case pkgbits.TypePointer:

		{newDefined(Typ[Int]), new(Struct), false},
		{Typ[UntypedInt], Typ[Int], true},
		{NewSlice(Typ[Int]), NewArray(Typ[Int], 10), true},
		{NewSlice(Typ[Int]), NewArray(Typ[Uint], 10), false},
		{NewSlice(Typ[Int]), NewPointer(NewArray(Typ[Int], 10)), true},
		{NewSlice(Typ[Int]), NewPointer(NewArray(Typ[Uint], 10)), false},
		// Untyped string values are not permitted by the spec, so the behavior below is undefined.

		up := roundupsize(sz, !t.Bucket.Pointers())
		if up != sz {
			nbuckets = up / t.Bucket.Size_
		}
	}

	if dirtyalloc == nil {
		buckets = newarray(t.Bucket, int(nbuckets))
	} else {
		// dirtyalloc was previously generated by
		// the above newarray(t.Bucket, int(nbuckets))
		// but may not be empty.
		buckets = dirtyalloc
		size := t.Bucket.Size_ * nbuckets
		if t.Bucket.Pointers() {

	case pointerType:
		return types.NewPointer(r.typ())
	case sliceType:
		return types.NewSlice(r.typ())
	case arrayType:
		n := r.uint64()
		return types.NewArray(r.typ(), int64(n))
	case chanType:
		dir := chanDir(int(r.uint64()))
		return types.NewChan(dir, r.typ())
	case mapType:
		return types.NewMap(r.typ(), r.typ())
	case signatureType:
		r.currPkg = r.pkg()

  public void testToArray() {
    String[] sourceArray = new String[] {"a", "b", "c"};
    Iterator<String> iterator = asList(sourceArray).iterator();
    String[] newArray = Iterators.toArray(iterator, String.class);
    assertTrue(Arrays.equals(sourceArray, newArray));
  }

  public void testFilterSimple() {
    Iterator<String> unfiltered = Lists.newArrayList("foo", "bar").iterator();

		{newDefined(Typ[Int]), new(Struct), false},
		{Typ[UntypedInt], Typ[Int], true},
		{NewSlice(Typ[Int]), NewArray(Typ[Int], 10), true},
		{NewSlice(Typ[Int]), NewArray(Typ[Uint], 10), false},
		{NewSlice(Typ[Int]), NewPointer(NewArray(Typ[Int], 10)), true},
		{NewSlice(Typ[Int]), NewPointer(NewArray(Typ[Uint], 10)), false},
		// Untyped string values are not permitted by the spec, so the behavior below is undefined.

	// Fewer than 5 strings use direct runtime helpers.
	case ir.OADDSTR:
		n := n.(*ir.AddStringExpr)
		o.exprList(n.List)

		if len(n.List) > 5 {
			t := types.NewArray(types.Types[types.TSTRING], int64(len(n.List)))
			n.Prealloc = o.newTemp(t, false)
		}

		// Mark string(byteSlice) arguments to reuse byteSlice backing
		// buffer during conversion. String concatenation does not