actor method

ActorContext actor()

Implementation

ActorContext actor() {
  dynamic _localctx = ActorContext(context, state);
  enterRule(_localctx, 58, RULE_actor);
  int _la;
  try {
    state = 305;
    errorHandler.sync(this);
    switch (interpreter!.adaptivePredict(tokenStream, 28, context)) {
    case 1:
      enterOuterAlt(_localctx, 1);
      state = 271;
      match(TOKEN_T__35);
      state = 273;
      errorHandler.sync(this);
      _la = tokenStream.LA(1)!;
      if ((((_la) & ~0x3f) == 0 && ((BigInt.one << _la) & ((BigInt.one << TOKEN_T__0) | (BigInt.one << TOKEN_T__1) | (BigInt.one << TOKEN_T__2) | (BigInt.one << TOKEN_T__3) | (BigInt.one << TOKEN_T__4) | (BigInt.one << TOKEN_T__5) | (BigInt.one << TOKEN_T__6) | (BigInt.one << TOKEN_T__7) | (BigInt.one << TOKEN_T__8) | (BigInt.one << TOKEN_T__9) | (BigInt.one << TOKEN_T__10) | (BigInt.one << TOKEN_T__11) | (BigInt.one << TOKEN_T__12) | (BigInt.one << TOKEN_T__13) | (BigInt.one << TOKEN_T__14) | (BigInt.one << TOKEN_T__15) | (BigInt.one << TOKEN_T__16) | (BigInt.one << TOKEN_T__17) | (BigInt.one << TOKEN_T__18) | (BigInt.one << TOKEN_IDENTIFIER))) != BigInt.zero)) {
        state = 272;
        idType();
      }

      state = 275;
      match(TOKEN_T__22);
      state = 279;
      errorHandler.sync(this);
      _la = tokenStream.LA(1)!;
      if (_la == TOKEN_T__31) {
        state = 276;
        tupleType();
        state = 277;
        match(TOKEN_T__21);
      }

      state = 281;
      actorType();
      state = 285;
      errorHandler.sync(this);
      _la = tokenStream.LA(1)!;
      while (_la == TOKEN_T__28) {
        state = 282;
        match(TOKEN_T__28);
        state = 287;
        errorHandler.sync(this);
        _la = tokenStream.LA(1)!;
      }
      break;
    case 2:
      enterOuterAlt(_localctx, 2);
      state = 288;
      match(TOKEN_T__35);
      state = 290;
      errorHandler.sync(this);
      _la = tokenStream.LA(1)!;
      if ((((_la) & ~0x3f) == 0 && ((BigInt.one << _la) & ((BigInt.one << TOKEN_T__0) | (BigInt.one << TOKEN_T__1) | (BigInt.one << TOKEN_T__2) | (BigInt.one << TOKEN_T__3) | (BigInt.one << TOKEN_T__4) | (BigInt.one << TOKEN_T__5) | (BigInt.one << TOKEN_T__6) | (BigInt.one << TOKEN_T__7) | (BigInt.one << TOKEN_T__8) | (BigInt.one << TOKEN_T__9) | (BigInt.one << TOKEN_T__10) | (BigInt.one << TOKEN_T__11) | (BigInt.one << TOKEN_T__12) | (BigInt.one << TOKEN_T__13) | (BigInt.one << TOKEN_T__14) | (BigInt.one << TOKEN_T__15) | (BigInt.one << TOKEN_T__16) | (BigInt.one << TOKEN_T__17) | (BigInt.one << TOKEN_T__18) | (BigInt.one << TOKEN_IDENTIFIER))) != BigInt.zero)) {
        state = 289;
        idType();
      }

      state = 292;
      match(TOKEN_T__22);
      state = 296;
      errorHandler.sync(this);
      _la = tokenStream.LA(1)!;
      if (_la == TOKEN_T__31) {
        state = 293;
        tupleType();
        state = 294;
        match(TOKEN_T__21);
      }

      state = 298;
      idType();
      state = 302;
      errorHandler.sync(this);
      _la = tokenStream.LA(1)!;
      while (_la == TOKEN_T__28) {
        state = 299;
        match(TOKEN_T__28);
        state = 304;
        errorHandler.sync(this);
        _la = tokenStream.LA(1)!;
      }
      break;
    }
  } on RecognitionException catch (re) {
    _localctx.exception = re;
    errorHandler.reportError(this, re);
    errorHandler.recover(this, re);
  } finally {
    exitRule();
  }
  return _localctx;
}