}
	if ruleType == "int-or-string" {
		return "", "", true
	}
	return ruleType, "", false
}

func genArrayWithRule(arrayType, rule string) func(maxItems *int64) *schema.Structural {
	passedType, passedFormat, xIntString := parseRuleType(arrayType)
	return func(maxItems *int64) *schema.Structural {
		return &schema.Structural{
			Generic: schema.Generic{
				Type: "array",
			},

				d.Type = p.typeOrNil()
			} else {
				// d.Name "[" pname "]" ...
				// d.Name "[" x ...
				d.Type = p.arrayType(pos, x)
			}
		case _Rbrack:
			// d.Name "[" "]" ...
			p.next()
			d.Type = p.sliceType(pos)
		default:
			// d.Name "[" ...
			d.Type = p.arrayType(pos, nil)
		}
	} else {
		d.Alias = p.gotAssign()
		d.Type = p.typeOrNil()
	}

	if d.Type == nil {

			p.typedefList = append(p.typedefList, typedefInfo{dt.Name, pos})
			p.recordTypedefs1(dt.Type, pos, visited)
		}
	case *dwarf.PtrType:
		p.recordTypedefs1(dt.Type, pos, visited)
	case *dwarf.ArrayType:
		p.recordTypedefs1(dt.Type, pos, visited)
	case *dwarf.QualType:
		p.recordTypedefs1(dt.Type, pos, visited)
	case *dwarf.FuncType:
		p.recordTypedefs1(dt.ReturnType, pos, visited)

const (
	RecvDir ChanDir             = 1 << iota // <-chan
	SendDir                                 // chan<-
	BothDir = RecvDir | SendDir             // chan
)

// arrayType represents a fixed array type.
type arrayType = abi.ArrayType

// chanType represents a channel type.
type chanType = abi.ChanType

// funcType represents a function type.
//

        assertThat(paramType, instanceOf(GenericArrayType.class));
        arrayType = (GenericArrayType) paramType;
        assertThat(arrayType.getGenericComponentType(), instanceOf(ParameterizedType.class));
        parameterizedType = (ParameterizedType) arrayType.getGenericComponentType();
        assertThat(parameterizedType.getRawType(), equalTo((Type) List.class));

}

// "[" has already been consumed, and lbrack is its position.
// If len != nil it is the already consumed array length.
func (p *parser) parseArrayType(lbrack token.Pos, len ast.Expr) *ast.ArrayType {
	if p.trace {
		defer un(trace(p, "ArrayType"))
	}

	if len == nil {
		p.exprLev++
		// always permit ellipsis for more fault-tolerant parsing
		if p.tok == token.ELLIPSIS {
			len = &ast.Ellipsis{Ellipsis: p.pos}

		Args:         types,
		ForLocalName: false, // may be set later in encoding
	}
}

// arrayType parses:
//
//	<array-type> ::= A <(positive dimension) number> _ <(element) type>
//	             ::= A [<(dimension) expression>] _ <(element) type>
func (st *state) arrayType(isCast bool) AST {
	st.checkChar('A')

	if len(st.str) == 0 {
		st.fail("missing array dimension")
	}

			// Check for them here so we don't have to handle ... in general.
			if atyp, _ := e.Type.(*ast.ArrayType); atyp != nil && atyp.Len != nil {
				if ellip, _ := atyp.Len.(*ast.Ellipsis); ellip != nil && ellip.Elt == nil {
					// We have an "open" [...]T array type.
					// Create a new ArrayType with unknown length (-1)
					// and finish setting it up after analyzing the literal.

	if p.trace {
		defer un(trace(p, "ArrayType"))
	}

	lbrack := p.expect(token.LBRACK)
	var len ast.Expr
	if ellipsisOk && p.tok == token.ELLIPSIS {
		len = &ast.Ellipsis{p.pos, nil}
		p.next()
	} else if p.tok != token.RBRACK {
		len = p.parseRhs()
	}
	p.expect(token.RBRACK)
	elt := p.parseType()

	return &ast.ArrayType{lbrack, len, elt}
}

			// [...]T array types may only appear with composite literals.
			// Check for them here so we don't have to handle ... in general.
			if atyp, _ := e.Type.(*syntax.ArrayType); atyp != nil && atyp.Len == nil {
				// We have an "open" [...]T array type.
				// Create a new ArrayType with unknown length (-1)
				// and finish setting it up after analyzing the literal.
				typ = &Array{len: -1, elem: check.varType(atyp.Elem)}
				base = typ