@Override public Object deleteChild(Object t, int i) { return deleteChild(t, i); }
@Override public Object dupTree(Object tree) { Object t = adaptor.dupTree(tree); // walk the tree and emit create and add child events // to simulate what dupTree has done. dupTree does not call this debug // adapter so I must simulate. simulateTreeConstruction(t); return t; }
root_0 = (Object)adaptor.nil(); if ( input.LA(1)==INT_1||input.LA(1)==INT_2||input.LA(1)==INT_3||input.LA(1)==INT_4||input.LA(1)==INT_5||input.LA(1)==INT_6||input.LA(1)==INT_7||input.LA(1)==INT_8||input.LA(1)==INT_9 ) { input.consume(); if ( state.backtracking==0 ) adaptor.addChild(root_0, (Object)adaptor.create(set241)); state.errorRecovery=false; state.failed=false; retval.tree = (Object)adaptor.rulePostProcessing(root_0); adaptor.setTokenBoundaries(retval.tree, retval.start, retval.stop); reportError(re); recover(input,re); retval.tree = (Object)adaptor.errorNode(input, retval.start, input.LT(-1), re);
@Override public Object becomeRoot(Token newRoot, Object oldRoot) { Object n = this.create(newRoot); adaptor.becomeRoot(n, oldRoot); dbg.becomeRoot(newRoot, oldRoot); return n; }
root_0 = (Object)adaptor.nil(); if ( (input.LA(1) >= INT_60 && input.LA(1) <= INT_69)||(input.LA(1) >= INT_70 && input.LA(1) <= INT_79)||(input.LA(1) >= INT_80 && input.LA(1) <= INT_89)||(input.LA(1) >= INT_90 && input.LA(1) <= INT_99) ) { input.consume(); if ( state.backtracking==0 ) adaptor.addChild(root_0, (Object)adaptor.create(set236)); state.errorRecovery=false; state.failed=false; retval.tree = (Object)adaptor.rulePostProcessing(root_0); adaptor.setTokenBoundaries(retval.tree, retval.start, retval.stop); reportError(re); recover(input,re); retval.tree = (Object)adaptor.errorNode(input, retval.start, input.LT(-1), re);
public Object becomeRoot(Token newRoot, Object oldRoot) { Object n = this.create(newRoot); adaptor.becomeRoot(n, oldRoot); dbg.becomeRoot(newRoot, oldRoot); return n; }
root_0 = (Object)adaptor.nil(); if ( (input.LA(1) >= INT_32 && input.LA(1) <= INT_39)||(input.LA(1) >= INT_40 && input.LA(1) <= INT_49)||(input.LA(1) >= INT_50 && input.LA(1) <= INT_59) ) { input.consume(); if ( state.backtracking==0 ) adaptor.addChild(root_0, (Object)adaptor.create(set237)); state.errorRecovery=false; state.failed=false; retval.tree = (Object)adaptor.rulePostProcessing(root_0); adaptor.setTokenBoundaries(retval.tree, retval.start, retval.stop); reportError(re); recover(input,re); retval.tree = (Object)adaptor.errorNode(input, retval.start, input.LT(-1), re);
@Override public Object becomeRoot(Token newRoot, Object oldRoot) { Object n = this.create(newRoot); adaptor.becomeRoot(n, oldRoot); dbg.becomeRoot(newRoot, oldRoot); return n; }
@Override public Object dupTree(Object tree) { Object t = adaptor.dupTree(tree); // walk the tree and emit create and add child events // to simulate what dupTree has done. dupTree does not call this debug // adapter so I must simulate. simulateTreeConstruction(t); return t; }
@Override public Object deleteChild(Object t, int i) { return deleteChild(t, i); }
root_0 = (Object)adaptor.nil(); if ( input.LA(1)==INT_1||input.LA(1)==INT_2||input.LA(1)==INT_3||input.LA(1)==INT_4||input.LA(1)==INT_5||input.LA(1)==INT_6||input.LA(1)==INT_7||input.LA(1)==INT_8||input.LA(1)==INT_9 ) { input.consume(); if ( state.backtracking==0 ) adaptor.addChild(root_0, (Object)adaptor.create(set241)); state.errorRecovery=false; state.failed=false; retval.tree = (Object)adaptor.rulePostProcessing(root_0); adaptor.setTokenBoundaries(retval.tree, retval.start, retval.stop); reportError(re); recover(input,re); retval.tree = (Object)adaptor.errorNode(input, retval.start, input.LT(-1), re);
@Override public Object becomeRoot(Token newRoot, Object oldRoot) { Object n = this.create(newRoot); adaptor.becomeRoot(n, oldRoot); dbg.becomeRoot(newRoot, oldRoot); return n; }
@Override public Object dupTree(Object tree) { Object t = adaptor.dupTree(tree); // walk the tree and emit create and add child events // to simulate what dupTree has done. dupTree does not call this debug // adapter so I must simulate. simulateTreeConstruction(t); return t; }
@Override public Object deleteChild(Object t, int i) { return deleteChild(t, i); }
root_0 = (Object)adaptor.nil(); if ( (input.LA(1) >= INT_60 && input.LA(1) <= INT_69)||(input.LA(1) >= INT_70 && input.LA(1) <= INT_79)||(input.LA(1) >= INT_80 && input.LA(1) <= INT_89)||(input.LA(1) >= INT_90 && input.LA(1) <= INT_99) ) { input.consume(); if ( state.backtracking==0 ) adaptor.addChild(root_0, (Object)adaptor.create(set236)); state.errorRecovery=false; state.failed=false; retval.tree = (Object)adaptor.rulePostProcessing(root_0); adaptor.setTokenBoundaries(retval.tree, retval.start, retval.stop); reportError(re); recover(input,re); retval.tree = (Object)adaptor.errorNode(input, retval.start, input.LT(-1), re);
@Override public Object becomeRoot(Token newRoot, Object oldRoot) { Object n = this.create(newRoot); adaptor.becomeRoot(n, oldRoot); dbg.becomeRoot(newRoot, oldRoot); return n; }