assertThat(annotation.value(), equalTo("test"));
        assertThat(annotation.values(), equalTo(new String[]{"1", "2"}));
        assertThat(annotation.enumValue(), equalTo(AnnotationEnum.A));
        assertThat(annotation.enumValues(), equalTo(new AnnotationEnum[]{AnnotationEnum.A, AnnotationEnum.B}));
        assertThat(annotation.number(), equalTo(1));
        assertThat(annotation.numbers(), equalTo(new int[]{1, 2}));

	case *dwarf.EnumType:
		if t.Align = t.Size; t.Align >= c.ptrSize {
			t.Align = c.ptrSize
		}
		t.C.Set("enum " + dt.EnumName)
		signed := 0
		t.EnumValues = make(map[string]int64)
		for _, ev := range dt.Val {
			t.EnumValues[ev.Name] = ev.Val
			if ev.Val < 0 {
				signed = signedDelta
			}
		}
		switch t.Size + int64(signed) {
		default:

        }

        @Override
        public String with(Syntax syntax) {
            return literal.toString();
        }
    }

    private static class EnumValue implements ExpressionValue {
        final Enum<?> literal;

        EnumValue(Object literal) {
            this.literal = Cast.uncheckedNonnullCast(literal);
        }

        @Override
        public String with(Syntax syntax) {

	f := s.f
	s.live = make([][]liveInfo, f.NumBlocks())
	s.desired = make([]desiredState, f.NumBlocks())
	var phis []*Value

	live := f.newSparseMapPos(f.NumValues())
	defer f.retSparseMapPos(live)
	t := f.newSparseMapPos(f.NumValues())
	defer f.retSparseMapPos(t)

	// Keep track of which value we want in each register.
	var desired desiredState

			b[i] = BlockDebug{}
		}
	}

	// A list of slots per Value. Reuse the previous child slices.
	if cap(state.valueNames) < f.NumValues() {
		old := state.valueNames
		state.valueNames = make([][]SlotID, f.NumValues())
		copy(state.valueNames, old)
	}
	vn := state.valueNames[:f.NumValues()]
	for i := range vn {
		vn[i] = vn[i][:0]
	}

	// Slot and register contents for currentState. Cleared by reset().