/******************************************************************************* * Copyright (c) 2009-2011 CWI * All rights reserved. This program and the accompanying materials * are made available under the terms of the Eclipse Public License v1.0 * which accompanies this distribution, and is available at * http://www.eclipse.org/legal/epl-v10.html * * Contributors: * * Arnold Lankamp - Arnold.Lankamp@cwi.nl *******************************************************************************/ package org.rascalmpl.test.parser; import java.io.IOException; import java.io.StringReader; import org.rascalmpl.parser.gtd.SGTDBF; import org.rascalmpl.parser.gtd.result.out.DefaultNodeFlattener; import org.rascalmpl.parser.gtd.stack.AbstractStackNode; import org.rascalmpl.parser.gtd.stack.ListStackNode; import org.rascalmpl.parser.gtd.stack.LiteralStackNode; import org.rascalmpl.parser.gtd.stack.NonTerminalStackNode; import org.rascalmpl.parser.uptr.UPTRNodeFactory; import org.rascalmpl.value.IConstructor; import org.rascalmpl.value.ISourceLocation; import org.rascalmpl.value.IValue; import org.rascalmpl.value.io.StandardTextReader; import org.rascalmpl.values.ValueFactoryFactory; import org.rascalmpl.values.uptr.ITree; import org.rascalmpl.values.uptr.RascalValueFactory; /* * S ::= A*B*A* * A ::= a * B ::= b */ @SuppressWarnings({"unchecked", "cast"}) public class ListOverlap extends SGTDBF<IConstructor, ITree, ISourceLocation> implements IParserTest{ private final static IConstructor SYMBOL_START_S = VF.constructor(RascalValueFactory.Symbol_Sort, VF.string("S")); private final static IConstructor SYMBOL_A = VF.constructor(RascalValueFactory.Symbol_Sort, VF.string("A")); private final static IConstructor SYMBOL_B = VF.constructor(RascalValueFactory.Symbol_Sort, VF.string("B")); private final static IConstructor SYMBOL_STAR_LIST_A = VF.constructor(RascalValueFactory.Symbol_IterStar, SYMBOL_A); private final static IConstructor SYMBOL_STAR_LIST_B = VF.constructor(RascalValueFactory.Symbol_IterStar, SYMBOL_B); private final static IConstructor SYMBOL_b = VF.constructor(RascalValueFactory.Symbol_Lit, VF.string("b")); private final static IConstructor SYMBOL_a = VF.constructor(RascalValueFactory.Symbol_Lit, VF.string("a")); private final static IConstructor SYMBOL_char_a = VF.constructor(RascalValueFactory.Symbol_CharClass, VF.list(VF.constructor(RascalValueFactory.CharRange_Single, VF.integer(97)))); private final static IConstructor SYMBOL_char_b = VF.constructor(RascalValueFactory.Symbol_CharClass, VF.list(VF.constructor(RascalValueFactory.CharRange_Single, VF.integer(98)))); private final static IConstructor PROD_S_STARLISTASTARLISTBSTARLISTA = VF.constructor(RascalValueFactory.Production_Default, SYMBOL_START_S, VF.list(SYMBOL_STAR_LIST_A, SYMBOL_STAR_LIST_B, SYMBOL_STAR_LIST_A), VF.set()); private final static IConstructor PROD_STARLISTA = VF.constructor(RascalValueFactory.Production_Regular, SYMBOL_STAR_LIST_A); private final static IConstructor PROD_STARLISTB = VF.constructor(RascalValueFactory.Production_Regular, SYMBOL_STAR_LIST_B); private final static IConstructor PROD_A_a = VF.constructor(RascalValueFactory.Production_Default, SYMBOL_A, VF.list(SYMBOL_a), VF.set()); private final static IConstructor PROD_B_b = VF.constructor(RascalValueFactory.Production_Default, SYMBOL_B, VF.list(SYMBOL_b), VF.set()); private final static IConstructor PROD_a_a = VF.constructor(RascalValueFactory.Production_Default, SYMBOL_a, VF.list(SYMBOL_char_a), VF.set()); private final static IConstructor PROD_b_b = VF.constructor(RascalValueFactory.Production_Default, SYMBOL_b, VF.list(SYMBOL_char_b), VF.set()); private final static AbstractStackNode<IConstructor> NONTERMINAL_START_S = new NonTerminalStackNode<IConstructor>(AbstractStackNode.START_SYMBOL_ID, 0, "S"); private final static AbstractStackNode<IConstructor> NONTERMINAL_A0 = new NonTerminalStackNode<IConstructor>(0, 0, "A"); private final static AbstractStackNode<IConstructor> NONTERMINAL_B1 = new NonTerminalStackNode<IConstructor>(1, 0, "B"); private final static AbstractStackNode<IConstructor> NONTERMINAL_A2 = new NonTerminalStackNode<IConstructor>(2, 0, "A"); private final static AbstractStackNode<IConstructor>[] S_EXPECT_1 = (AbstractStackNode<IConstructor>[]) new AbstractStackNode[3]; static{ S_EXPECT_1[0] = new ListStackNode<IConstructor>(3, 0, PROD_STARLISTA, NONTERMINAL_A0, false); S_EXPECT_1[0].setProduction(S_EXPECT_1); S_EXPECT_1[1] = new ListStackNode<IConstructor>(4, 1, PROD_STARLISTB, NONTERMINAL_B1, false); S_EXPECT_1[1].setProduction(S_EXPECT_1); S_EXPECT_1[2] = new ListStackNode<IConstructor>(5, 2, PROD_STARLISTA, NONTERMINAL_A2, false); S_EXPECT_1[2].setProduction(S_EXPECT_1); S_EXPECT_1[2].setAlternativeProduction(PROD_S_STARLISTASTARLISTBSTARLISTA); } private final static AbstractStackNode<IConstructor>[] A_EXPECT_1 = (AbstractStackNode<IConstructor>[]) new AbstractStackNode[1]; static{ A_EXPECT_1[0] = new LiteralStackNode<IConstructor>(6, 0, PROD_a_a, new int[]{'a'}); A_EXPECT_1[0].setProduction(A_EXPECT_1); A_EXPECT_1[0].setAlternativeProduction(PROD_A_a); } private final static AbstractStackNode<IConstructor>[] B_EXPECT_1 = (AbstractStackNode<IConstructor>[]) new AbstractStackNode[1]; static{ B_EXPECT_1[0] = new LiteralStackNode<IConstructor>(7, 0, PROD_b_b, new int[]{'b'}); B_EXPECT_1[0].setProduction(B_EXPECT_1); B_EXPECT_1[0].setAlternativeProduction(PROD_B_b); } public ListOverlap(){ super(); } public AbstractStackNode<IConstructor>[] S(){ return (AbstractStackNode<IConstructor>[]) new AbstractStackNode[]{S_EXPECT_1[0]}; } public AbstractStackNode<IConstructor>[] A(){ return (AbstractStackNode<IConstructor>[]) new AbstractStackNode[]{A_EXPECT_1[0]}; } public AbstractStackNode<IConstructor>[] B(){ return (AbstractStackNode<IConstructor>[]) new AbstractStackNode[]{B_EXPECT_1[0]}; } public ITree executeParser(){ return parse(NONTERMINAL_START_S, null, "aab".toCharArray(), new DefaultNodeFlattener<IConstructor, ITree, ISourceLocation>(), new UPTRNodeFactory(true)); } public IValue getExpectedResult() throws IOException{ String expectedInput = "appl(prod(sort(\"S\"),[\\iter-star(sort(\"A\")),\\iter-star(sort(\"B\")),\\iter-star(sort(\"A\"))],{}),[appl(regular(\\iter-star(sort(\"A\"))),[appl(prod(sort(\"A\"),[lit(\"a\")],{}),[appl(prod(lit(\"a\"),[\\char-class([single(97)])],{}),[char(97)])]),appl(prod(sort(\"A\"),[lit(\"a\")],{}),[appl(prod(lit(\"a\"),[\\char-class([single(97)])],{}),[char(97)])])]),appl(regular(\\iter-star(sort(\"B\"))),[appl(prod(sort(\"B\"),[lit(\"b\")],{}),[appl(prod(lit(\"b\"),[\\char-class([single(98)])],{}),[char(98)])])]),appl(regular(\\iter-star(sort(\"A\"))),[])])"; return new StandardTextReader().read(ValueFactoryFactory.getValueFactory(), RascalValueFactory.uptr, RascalValueFactory.Tree, new StringReader(expectedInput)); } public static void main(String[] args){ ListOverlap lo = new ListOverlap(); IConstructor result = lo.executeParser(); System.out.println(result); System.out.println("S(A*(A(a),A(a)),B*(B(b)),A*()) <- good"); } }