}

// op2tok translates syntax.Operators into token.Tokens.
var op2tok = [...]token.Token{
	syntax.Def:  token.ILLEGAL,
	syntax.Not:  token.NOT,
	syntax.Recv: token.ILLEGAL,

	syntax.OrOr:   token.LOR,
	syntax.AndAnd: token.LAND,

	syntax.Eql: token.EQL,
	syntax.Neq: token.NEQ,
	syntax.Lss: token.LSS,
	syntax.Leq: token.LEQ,
	syntax.Gtr: token.GTR,
	syntax.Geq: token.GEQ,

    public void setToken_Equal(String token) {
        setToken_Term(token, null);
    }

    public void setToken_Equal(String token, ConditionOptionCall<TermQueryBuilder> opLambda) {
        setToken_Term(token, opLambda);
    }

    public void setToken_Term(String token) {
        setToken_Term(token, null);
    }

    public void setToken_Term(String token, ConditionOptionCall<TermQueryBuilder> opLambda) {

    }

    public void setToken_Terms(ConditionOptionCall<TermsAggregationBuilder> opLambda) {
        setToken_Terms("token", opLambda, null);
    }

    public void setToken_Terms(ConditionOptionCall<TermsAggregationBuilder> opLambda, OperatorCall<BsAccessTokenCA> aggsLambda) {
        setToken_Terms("token", opLambda, aggsLambda);
    }

                            factoryName = FirErrors.OTHER_ERROR.name,
                            defaultMessage = "type of arrayOf call is not resolved",
                            token = token
                        ),
                        token
                    )
                }
            val call = arrayTypeToArrayOfCall[type.lookupTag.classId] ?: arrayOf
            arrayOfSymbol(call)
        } ?: return null

	1<<_Type |
	1<<_Var

// advance consumes tokens until it finds a token of the stopset or followlist.
// The stopset is only considered if we are inside a function (p.fnest > 0).
// The followlist is the list of valid tokens that can follow a production;
// if it is empty, exactly one (non-EOF) token is consumed to ensure progress.
func (p *parser) advance(followlist ...token) {
	if trace {
		p.print(fmt.Sprintf("advance %s", followlist))
	}

    TypeToken<List<String>[]> token = new TypeToken<List<String>[]>() {};
    assertEquals(List[].class, token.getRawType());
    assertThat(token.getType()).isInstanceOf(GenericArrayType.class);
  }

  public void testMultiDimensionalGenericArrayType() {
    TypeToken<List<Long>[][][]> token = new TypeToken<List<Long>[][][]>() {};
    assertEquals(List[][][].class, token.getRawType());

                for (String token : optionValue.split(",")) {
                    String selector = token.trim();
                    boolean active = true;
                    if (selector.charAt(0) == '-' || selector.charAt(0) == '!') {
                        active = false;
                        selector = selector.substring(1);
                    } else if (token.charAt(0) == '+') {

  }

  @CheckForNull
  private TypeToken<? super T> boundAsSuperclass(Type bound) {
    TypeToken<?> token = of(bound);
    if (token.getRawType().isInterface()) {
      return null;
    }
    @SuppressWarnings("unchecked") // only upper bound of T is passed in.
    TypeToken<? super T> superclass = (TypeToken<? super T>) token;
    return superclass;
  }

  /**

  }

  @CheckForNull
  private TypeToken<? super T> boundAsSuperclass(Type bound) {
    TypeToken<?> token = of(bound);
    if (token.getRawType().isInterface()) {
      return null;
    }
    @SuppressWarnings("unchecked") // only upper bound of T is passed in.
    TypeToken<? super T> superclass = (TypeToken<? super T>) token;
    return superclass;
  }

  /**

    TypeToken<List<String>[]> token = new TypeToken<List<String>[]>() {};
    assertEquals(List[].class, token.getRawType());
    assertThat(token.getType()).isInstanceOf(GenericArrayType.class);
  }

  public void testMultiDimensionalGenericArrayType() {
    TypeToken<List<Long>[][][]> token = new TypeToken<List<Long>[][][]>() {};
    assertEquals(List[][][].class, token.getRawType());