code: def generate_gbnf_float_rules(
      max_digit=None,
      min_digit=None,
      max_precision=None,
      min_precision=None,
  ):
      """
      Generate GBNF float rules based on the given constraints.
  
      :param max_digit: Maximum number of digits in the integer part (default: None)
      :param min_digit: Minimum number of digits in the integer part (default: None)
      :param max_precision: Maximum number of digits in the fractional part (default: None)
      :param min_precision: Minimum number of digits in the fractional part (default: None)
      :return: A tuple containing the float rule and additional rules as a list
  
      Example Usage:
      max_digit = 3
      min_digit = 1
      max_precision = 2
      min_precision = 1
      generate_gbnf_float_rules(max_digit, min_digit, max_precision, min_precision)
  
      Output:
      ('float-3-1-2-1', ['integer-part-max3-min1 ::= [0-9] [0-9] [0-9]?', 'fractional-part-max2-min1 ::= [0-9] [0-9]?', 'float-3-1-2-1 ::= integer-part-max3-min1 "." fractional-part-max2-min
      *1'])
  
      Note:
      GBNF stands for Generalized Backus-Naur Form, which is a notation technique to specify the syntax of programming languages or other formal grammars.
      """
      additional_rules = []
  
      # Define the integer part rule
      integer_part_rule = (
          "integer-part"
          + (f"-max{max_digit}" if max_digit is not None else "")
          + (f"-min{min_digit}" if min_digit is not None else "")
      )
  
      # Define the fractional part rule based on precision constraints
      fractional_part_rule = "fractional-part"
      fractional_rule_part = ""
      if max_precision is not None or min_precision is not None:
          fractional_part_rule += (
              f"-max{max_precision}"
              if max_precision is not None
              else ""
          ) + (
              f"-min{min_precision}"
              if min_precision is not None
              else ""
          )
          # Minimum number of digits
          fractional_rule_part = "[0-9]" * (
              min_precision if min_precision is not None else 1
          )
          # Optional additional digits
          fractional_rule_part += "".join(
              [" [0-9]?"]
              * (
                  (
                      max_precision
                      - (
                          min_precision
                          if min_precision is not None
                          else 1
                      )
                  )
                  if max_precision is not None
                  else 0
              )
          )
          additional_rules.append(
              f"{fractional_part_rule} ::= {fractional_rule_part}"
          )
  
      # Define the float rule
      float_rule = f"float-{max_digit if max_digit is not None else 'X'}-{min_digit if min_digit is not None else 'X'}-{max_precision if max_precision is not None else 'X'}-{min_precision if min_precision is not None else 'X'}"
      additional_rules.append(
          f'{float_rule} ::= {integer_part_rule} "." {fractional_part_rule}'
      )
  
      # Generating the integer part rule definition, if necessary
      if max_digit is not None or min_digit is not None:
          integer_rule_part = "[0-9]"
          if min_digit is not None and min_digit > 1:
              integer_rule_part += " [0-9]" * (min_digit - 1)
          if max_digit is not None:
              integer_rule_part += "".join(
                  [" [0-9]?"]
                  * (
                      max_digit
                      - (min_digit if min_digit is not None else 1)
                  )
              )
          additional_rules.append(
              f"{integer_part_rule} ::= {integer_rule_part.strip()}"
          )
  
      return float_rule, additional_rules
  
imports: import inspect
  import json
  from copy import copy
  from inspect import isclass, getdoc
  from types import NoneType
  from docstring_parser import parse
  from pydantic import BaseModel, create_model, Field
  from typing import Any, Type, List, get_args, get_origin, Tuple, Union, Optional, _GenericAlias
  from enum import Enum
  from typing import get_type_hints, Callable
  import re
  from enum import Enum
label_desc: Use image node_id 7 for calling a global function with example usage: generate_gbnf_float_rules(max_digit, min_digit, max_precision, min_precision) and returns: float_rule,  additional_rules