我们从Python开源项目中，提取了以下28个代码示例，用于说明如何使用pyparsing.ZeroOrMore()。
def __init__(self, calc = SimpleCalculator()): self.exprStack = [] def pushStack(s, l, t): self.exprStack.append(t[0]) integer = Word(nums).addParseAction(pushStack) addop = Literal('+') | Literal('-') mulop = Literal('*') | Literal('/') lpar = Literal('(') rpar = Literal(')') expr = Forward() atom = integer | lpar + expr + rpar term = atom + ZeroOrMore((mulop + atom).addParseAction(pushStack)) expr << term + ZeroOrMore((addop + term).addParseAction(pushStack)) self.expr = expr + StringEnd() self.opfun = { '+' : (lambda a, b: calc.add(a,b)), '-' : (lambda a, b: calc.sub(a,b)), '*' : (lambda a, b: calc.mul(a,b)), '/' : (lambda a, b: calc.div(a,b)) }
def anything_beetween(opener_and_closer): """Builds a (pyparsing) parser for the content inside delimiters. Args: opener_and_closer: a string containing two elements: opener and closer Returns: A (pyparsing) parser for the content inside delimiters. """ opener = pyparsing.Literal(opener_and_closer[0]) closer = pyparsing.Literal(opener_and_closer[1]) char_removal_mapping = dict.fromkeys(map(ord, opener_and_closer)) other_chars = unicode(string.printable).translate(char_removal_mapping) word_without_delimiters = pyparsing.Word(other_chars).setName( "other_chars") anything = pyparsing.Forward() delimited_block = opener + anything + closer # pylint: disable=expression-not-assigned anything << pyparsing.ZeroOrMore( word_without_delimiters.setName("word_without_delimiters") | delimited_block.setName("delimited_block") ) # Combine all the parts into a single string. return pyparsing.Combine(anything)
def _struct_definition_possibly_with_fields(self): """Detect a struct/enum/union definition. e.g. struct foobar { int v[100]; } __attribute__((packed)) """ return ( (_STRUCT | _UNION)("type") + pyparsing.Optional(self._identifier())("type_name") + _OPEN_CURLY + pyparsing.ZeroOrMore( self.element )("fields") + _CLOSE_CURLY + self._maybe_attributes()("attributes") ).setParseAction(self._process_struct_definition)
def _type_reference(self): """A reference to a type. The type may be already defined in place or just refered by name. """ identifier = ( self._typeof_expression() # Inline struct definition. # e.g. struct { int x; } foo; | self._struct_definition_possibly_with_fields() | self._enum_definition() | self._numeric_type_identifier() | self._compound_type_identifier() | self._identifier() ) return ( pyparsing.ZeroOrMore(_VOLATILE) + identifier ).setParseAction(self._create_type_reference)
def _create_simple_statements(): global binary, ident, rvalue, simple_statement, semi, comp, number, slot_id, callrpc_stmt, generic_statement, streamer_stmt, stream, selector if simple_statement is not None: return meta_stmt = Group(Literal('meta').suppress() + ident + Literal('=').suppress() + rvalue + semi).setResultsName('meta_statement') require_stmt = Group(Literal('require').suppress() + ident + comp + rvalue + semi).setResultsName('require_statement') set_stmt = Group(Literal('set').suppress() - (ident | number) - Literal("to").suppress() - (rvalue | binary) - Optional(Literal('as').suppress() + config_type) + semi).setResultsName('set_statement') callrpc_stmt = Group(Literal("call").suppress() + (ident | number) + Literal("on").suppress() + slot_id + Optional(Literal("=>").suppress() + stream('explicit_stream')) + semi).setResultsName('call_statement') streamer_stmt = Group(Optional(Literal("manual")('manual')) + Optional(oneOf(u'encrypted signed')('security')) + Optional(Literal(u'realtime')('realtime')) + Literal('streamer').suppress() - Literal('on').suppress() - selector('selector') - Optional(Literal('to').suppress() - slot_id('explicit_tile')) - Optional(Literal('with').suppress() - Literal('streamer').suppress() - number('with_other')) - semi).setResultsName('streamer_statement') copy_stmt = Group(Literal("copy").suppress() - Optional(oneOf("all count average")('modifier')) - Optional(stream('explicit_input') | number('constant_input')) - Literal("=>") - stream("output") - semi).setResultsName('copy_statement') trigger_stmt = Group(Literal("trigger") - Literal("streamer") - number('index') - semi).setResultsName('trigger_statement') simple_statement = meta_stmt | require_stmt | set_stmt | callrpc_stmt | streamer_stmt | trigger_stmt | copy_stmt # In generic statements, keep track of the location where the match started for error handling locator = Empty().setParseAction(lambda s, l, t: l)('location') generic_statement = Group(locator + Group(ZeroOrMore(Regex(u"[^{};]+")) + Literal(u';'))('match')).setResultsName('unparsed_statement')
def _create_block_bnf(): global block_bnf, time_interval, slot_id, statement, block_id, ident, stream if block_bnf is not None: return trigger_clause = Group(stream_trigger | Group(stream).setResultsName('stream_always') | Group(ident).setResultsName('identifier')) every_block_id = Group(Literal(u'every').suppress() - time_interval).setResultsName('every_block') when_block_id = Group(Literal(u'when').suppress() + Literal("connected").suppress() - Literal("to").suppress() - slot_id).setResultsName('when_block') latch_block_id = Group(Literal(u'when').suppress() - stream_trigger).setResultsName('latch_block') config_block_id = Group(Literal(u'config').suppress() - slot_id).setResultsName('config_block') on_block_id = Group(Literal(u'on').suppress() - trigger_clause.setResultsName('triggerA') - Optional((Literal("and") | Literal("or")) - trigger_clause.setResultsName('triggerB'))).setResultsName('on_block') block_id = every_block_id | when_block_id | latch_block_id | config_block_id | on_block_id block_bnf = Forward() statement = generic_statement | block_bnf block_bnf << Group(block_id + Group(Literal(u'{').suppress() + ZeroOrMore(statement) + Literal(u'}').suppress())).setResultsName('block')
def get_language(): """Create or retrieve the parse tree for defining a sensor graph.""" global sensor_graph, statement if sensor_graph is not None: return sensor_graph _create_primitives() _create_simple_statements() _create_block_bnf() sensor_graph = ZeroOrMore(statement) + StringEnd() sensor_graph.ignore(comment) return sensor_graph
def __init__(self, ffilter, queue_out): FuzzQueue.__init__(self, queue_out) Thread.__init__(self) self.setName('filter_thread') self.queue_out = queue_out if PYPARSING: element = oneOf("c l w h") digits = "XB0123456789" integer = Word( digits )#.setParseAction( self.__convertIntegers ) elementRef = Group(element + oneOf("= != < > >= <=") + integer) operator = oneOf("and or") definition = elementRef + ZeroOrMore( operator + elementRef) nestedformula = Group(Suppress(Optional(Literal("("))) + definition + Suppress(Optional(Literal(")")))) self.finalformula = nestedformula + ZeroOrMore( operator + nestedformula) elementRef.setParseAction(self.__compute_element) nestedformula.setParseAction(self.__compute_formula) self.finalformula.setParseAction(self.__myreduce) self.res = None self.hideparams = ffilter if "XXX" in self.hideparams['codes']: self.hideparams['codes'].append("0") self.baseline = None
def __init__(self): if PYPARSING: category = Word( alphas + "_-*", alphanums + "_-*" ) operator = oneOf("and or ,") neg_operator = "not" elementRef = category definition = elementRef + ZeroOrMore( operator + elementRef) nestedformula = Group(Suppress(Optional(Literal("("))) + definition + Suppress(Optional(Literal(")")))) neg_nestedformula = Optional(neg_operator) + nestedformula self.finalformula = neg_nestedformula + ZeroOrMore( operator + neg_nestedformula) elementRef.setParseAction(self.__compute_element) neg_nestedformula.setParseAction(self.__compute_neg_formula) nestedformula.setParseAction(self.__compute_formula) self.finalformula.setParseAction(self.__myreduce)
def __init__(self): real_word_dashes = Word(pyparsing.alphas + '-') punctuation = Word('.!?:,;-') punctuation_no_dash = Word('.!?:,;') punctuation_reference_letter = Word('.:,;-') printable = Word(pyparsing.printables, exact=1) letter = Word(pyparsing.alphas, exact=1) letter_reference = punctuation_reference_letter + letter nums = Word(pyparsing.nums) + Optional(letter) + \ ZeroOrMore(letter_reference) word_end = pyparsing.ZeroOrMore(Word(')') | Word('}') | Word(']')) + \ WordEnd() self.single_number = ( WordStart() + real_word_dashes + nums + word_end ) self.single_number_parens = ( printable + letter + Optional(punctuation_no_dash) + pyparsing.OneOrMore( Word('([{', exact=1) + pyparsing.OneOrMore(nums | Word('-')) + Word(')]}', exact=1) ) + word_end ) self.number_then_punctuation = ( printable + letter + nums + punctuation + pyparsing.ZeroOrMore(nums | punctuation) + word_end ) self.punctuation_then_number = ( printable + letter + punctuation_no_dash + nums + pyparsing.ZeroOrMore(punctuation | nums) + word_end )
def statement(): return pyparsing.Group( _IDENTIFIER.setResultsName("lhs") + _EQUALS + pyparsing.Combine( (anything_in_curly() | pyparsing.QuotedString("'", escChar="\\", unquoteResults=False) | pyparsing.QuotedString("\"", escChar="\\", unquoteResults=False) | _REGEX) + pyparsing.ZeroOrMore(_KEYWORD), adjacent=False, joinString=" ", ).setResultsName("rhs") )
def _base_or_array_expression(self): array_indices = pyparsing.ZeroOrMore( _OPEN_BRACKETS + self.expression + _CLOSE_BRACKETS ) return ( self._base_expression() + pyparsing.Group(array_indices) ).setParseAction(self._create_base_or_array_expression)
def XXXX_cast_expression(self): """A function returning a parser for parsing cast expressions. Args: expression: a pyparsing parser for parsing an expression to be cast. Returns: A (pyparsing) parser for parsing cast expressions. """ word = pyparsing.Word(pyparsing.alphanums + '_*[]') nested = pyparsing.Forward().setName("nested") nested << pyparsing.Combine( pyparsing.Literal('(').suppress() + pyparsing.Combine( pyparsing.ZeroOrMore(self._integer() | word | nested)) + pyparsing.Literal(')').suppress() ) typeof_expression = ( _OPEN_PARENTHESIS + pyparsing.Keyword('typeof') + nested("typeof_arg") + _CLOSE_PARENTHESIS ) type_expression = ( typeof_expression | nested("simple_type") ) return ( type_expression + ~(_PLUS | _MINUS) + self.expression("expression") ).setParseAction(self._create_cast_expression)
def _program(self): return pyparsing.ZeroOrMore( self._element() | self._typedef() ).setParseAction(self._make_prog)
def _enum_definition(self): """Detect an enum definition. e.g. enum foo { OPTION_1: 1 + 2, OPTION_2 } """ return ( _ENUM + pyparsing.Optional(self._identifier())("enum_name") + _OPEN_CURLY + pyparsing.ZeroOrMore( pyparsing.Group( self._identifier()("name") + pyparsing.Optional( _EQUALS # This allows us to get even invalid expressions. + pyparsing.SkipTo(pyparsing.Word(",}"))("expression") ) + pyparsing.Optional(_COMMA) ) )("fields") + _CLOSE_CURLY + self._maybe_attributes()("attributes") ).setParseAction(self._process_enum_definition)
def grammar(): """Define the query grammar. Backus-Naur form (BNF) of the grammar:: <grammar> ::= <item> | <item> <boolean> <grammar> <item> ::= <hosts> | "(" <grammar> ")" <boolean> ::= "and not" | "and" | "xor" | "or" Given that the pyparsing library defines the grammar in a BNF-like style, for the details of the tokens not specified above check directly the source code. Returns: pyparsing.ParserElement: the grammar parser. """ # Boolean operators boolean = (pp.CaselessKeyword('and not').leaveWhitespace() | pp.CaselessKeyword('and') | pp.CaselessKeyword('xor') | pp.CaselessKeyword('or'))('bool') # Parentheses lpar = pp.Literal('(')('open_subgroup') rpar = pp.Literal(')')('close_subgroup') # Hosts selection: clustershell (,!&^[]) syntax is allowed: host10[10-42].domain hosts = (~(boolean) + pp.Word(pp.alphanums + '-_.,!&^[]'))('hosts') # Final grammar, see the docstring for its BNF based on the tokens defined above # Groups are used to split the parsed results for an easy access full_grammar = pp.Forward() item = hosts | lpar + full_grammar + rpar full_grammar << pp.Group(item) + pp.ZeroOrMore(pp.Group(boolean + item)) # pylint: disable=expression-not-assigned return full_grammar
def grammar(): """Define the query grammar for the external backend used for testing.""" # Hosts selection: clustershell (,!&^[]) syntax is allowed: host10[10-42].domain hosts = pp.Word(pp.alphanums + '-_.,!&^[]')('hosts') # Final grammar, see the docstring for its BNF based on the tokens defined above # Groups are used to split the parsed results for an easy access full_grammar = pp.Forward() full_grammar << pp.Group(hosts) + pp.ZeroOrMore(pp.Group(hosts)) # pylint: disable=expression-not-assigned return full_grammar
def compute(self): def getname(obj, name): _val = None if hasattr(obj, name): _val = getattr(obj, name, None) if _val is None: return _val try: if _val.isdynamic: #TODO make this work for non-attributes, non-dynamics (use .issingleton? - what about a concat mode?) raise ValueError('Combine plugin cannot process %s because it contains a dynamic class' % name) except AttributeError: raise TypeError('Expected an attribute but got a %s' % type(_val)) if _val.issingleton(): _ret = '%s' % _val[0].raw() else: _ret = ', '.join(['%s' % v.raw() for v in _val]) return _ret attrmarker = (p.Literal('@') | p.Literal('!')) attrmatch = attrmarker.suppress() + p.Word(p.alphanums) for i in attrmatch.scanString(self.config): x = i[0][0] self.__attribs__[x] = getname(self.targetobject, x) if all(v is not None for v in self.__attribs__.values()): self.computable = True if self.computable: attrmatch = p.Literal('@').suppress() + p.Word(p.alphanums) attrmatch.setParseAction(self.substitute) attrlist = p.ZeroOrMore(p.Optional(p.White()) + attrmatch + p.Optional(p.White())) self.__result__ = attrlist.transformString(self.config)
def parseTerms(): """ expop :: '^' multop :: '*' | '/' addop :: '+' | '-' integer :: ['+' | '-'] '0'..'9'+ atom :: PI | E | real | fn '(' expr ')' | '(' expr ')' factor :: atom [ expop factor ]* term :: factor [ multop factor ]* expr :: term [ addop term ]* """ global terms if not terms: point = Literal( "." ) e = CaselessLiteral( "E" ) fnumber = Combine( Word( "+-"+nums, nums ) + Optional( point + Optional( Word( nums ) ) ) + Optional( e + Word( "+-"+nums, nums ) ) ) ident = Word(alphas, alphas+nums+"_$") plus = Literal( "+" ) minus = Literal( "-" ) mult = Literal( "*" ) div = Literal( "/" ) lpar = Literal( "(" ).suppress() rpar = Literal( ")" ).suppress() addop = plus | minus multop = mult | div expop = Literal( "^" ) pi = CaselessLiteral( "PI" ) expr = Forward() atom = (Optional("-") + ( pi | e | fnumber | ident + lpar + expr + rpar ).setParseAction( pushFirst ) | ( lpar + expr.suppress() + rpar )).setParseAction(pushUMinus) # by defining exponentiation as "atom [ ^ factor ]..." instead of "atom [ ^ atom ]...", we get right-to-left exponents, instead of left-to-righ # that is, 2^3^2 = 2^(3^2), not (2^3)^2. factor = Forward() factor << atom + ZeroOrMore( ( expop + factor ).setParseAction( pushFirst ) ) term = factor + ZeroOrMore( ( multop + factor ).setParseAction( pushFirst ) ) expr << term + ZeroOrMore( ( addop + term ).setParseAction( pushFirst ) ) terms = expr return terms
def parse(cls, search=False): """Parse the main query text. This method will also set the class attribute `parsed_search` to the parsed query, and it will return it too. :param cls: The class object, since it is a static method :type cls: object :param search: Search text string if a custom search string is to be used. False if the `cls.search` class attribute is to be used. :type search: str :returns: Parsed query :rtype: list >>> print(DocMatcher.parse('hello author = einstein')) [['hello'], ['author', '=', 'einstein']] >>> print(DocMatcher.parse('')) [] >>> print(\ DocMatcher.parse(\ '"hello world whatever =" tags = \\\'hello ====\\\'')) [['hello world whatever ='], ['tags', '=', 'hello ====']] >>> print(DocMatcher.parse('hello')) [['hello']] """ import pyparsing cls.logger.debug('Parsing search') search = search or cls.search papis_alphas = pyparsing.printables.replace('=', '') papis_key = pyparsing.Word(pyparsing.alphanums + '-') papis_value = pyparsing.QuotedString( quoteChar='"', escChar='\\', escQuote='\\' ) ^ pyparsing.QuotedString( quoteChar="'", escChar='\\', escQuote='\\' ) ^ papis_key equal = pyparsing.ZeroOrMore(" ") + \ pyparsing.Literal('=') + \ pyparsing.ZeroOrMore(" ") papis_query = pyparsing.ZeroOrMore( pyparsing.Group( pyparsing.ZeroOrMore( papis_key + equal ) + papis_value ) ) parsed = papis_query.parseString(search) cls.logger.debug('Parsed search = %s' % parsed) cls.parsed_search = parsed return cls.parsed_search
def _type_instance(self): """A type declaration. The modifiers of a typedef: struct s *P[]; ^^^^<- The type instance. """ type_instance = ( # Function pointer (*f)(int foobar) pyparsing.ZeroOrMore(_STAR) + _OPEN_PARENTHESIS + pyparsing.Optional(_STAR("function_pointer")) + self._identifier()("type_instance_name") + _CLOSE_PARENTHESIS + parsers.anything_in_parentheses()("function_args") ) | ( # Function object f(foo bar *) pyparsing.ZeroOrMore(_STAR) + self._identifier()("type_instance_name") + parsers.anything_in_parentheses()("function_args") ) | ( # Simple form: *foo[10]; pyparsing.ZeroOrMore(_STAR)("type_pointer") + self._identifier()("type_instance_name") # Possibly array: [] , [][] + pyparsing.ZeroOrMore( _OPEN_BRACKET + pyparsing.SkipTo(_CLOSE_BRACKET)( "brackets_with_expression_inside*") + _CLOSE_BRACKET) # Bitfields: int x: 7; + pyparsing.Optional( _COLON + pyparsing.SkipTo( _SEMICOLON | _COMMA)("bitfield") ) ) return pyparsing.Group( type_instance + self._maybe_attributes() )
def grammar(): """Define the query grammar. Backus-Naur form (BNF) of the grammar:: <grammar> ::= <item> | <item> <and_or> <grammar> <item> ::= [<neg>] <query-token> | [<neg>] "(" <grammar> ")" <query-token> ::= <token> | <hosts> <token> ::= <category>:<key> [<operator> <value>] Given that the pyparsing library defines the grammar in a BNF-like style, for the details of the tokens not specified above check directly the source code. Returns: pyparsing.ParserElement: the grammar parser. """ # Boolean operators and_or = (pp.CaselessKeyword('and') | pp.CaselessKeyword('or'))('bool') # 'neg' is used as label to allow the use of dot notation, 'not' is a reserved word in Python neg = pp.CaselessKeyword('not')('neg') operator = pp.oneOf(OPERATORS, caseless=True)('operator') # Comparison operators quoted_string = pp.quotedString.copy().addParseAction(pp.removeQuotes) # Both single and double quotes are allowed # Parentheses lpar = pp.Literal('(')('open_subgroup') rpar = pp.Literal(')')('close_subgroup') # Hosts selection: glob (*) and clustershell (,!&^[]) syntaxes are allowed: # i.e. host10[10-42].*.domain hosts = quoted_string | (~(and_or | neg) + pp.Word(pp.alphanums + '-_.*,!&^[]')) # Key-value token for allowed categories using the available comparison operators # i.e. F:key = value category = pp.oneOf(CATEGORIES, caseless=True)('category') key = pp.Word(pp.alphanums + '-_.%@:')('key') selector = pp.Combine(category + ':' + key) # i.e. F:key # All printables characters except the parentheses that are part of this or the global grammar all_but_par = ''.join([c for c in pp.printables if c not in ('(', ')', '{', '}')]) value = (quoted_string | pp.Word(all_but_par))('value') token = selector + pp.Optional(operator + value) # Final grammar, see the docstring for its BNF based on the tokens defined above # Groups are used to split the parsed results for an easy access full_grammar = pp.Forward() item = pp.Group(pp.Optional(neg) + (token | hosts('hosts'))) | pp.Group( pp.Optional(neg) + lpar + full_grammar + rpar) full_grammar << item + pp.ZeroOrMore(pp.Group(and_or) + full_grammar) # pylint: disable=expression-not-assigned return full_grammar
def grammar(backend_keys): """Define the main multi-query grammar. Cumin provides a user-friendly generic query language that allows to combine the results of subqueries for multiple backends: * Each query part can be composed with the others using boolean operators ``and``, ``or``, ``and not``, ``xor``. * Multiple query parts can be grouped together with parentheses ``(``, ``)``. * Specific backend query ``I{backend-specific query syntax}``, where ``I`` is an identifier for the specific backend. * Alias replacement, according to aliases defined in the configuration file ``A:group1``. * The identifier ``A`` is reserved for the aliases replacement and cannot be used to identify a backend. * A complex query example: ``(D{host1 or host2} and (P{R:Class = Role::MyClass} and not A:group1)) or D{host3}`` Backus-Naur form (BNF) of the grammar:: <grammar> ::= <item> | <item> <boolean> <grammar> <item> ::= <backend_query> | <alias> | "(" <grammar> ")" <backend_query> ::= <backend> "{" <query> "}" <alias> ::= A:<alias_name> <boolean> ::= "and not" | "and" | "xor" | "or" Given that the pyparsing library defines the grammar in a BNF-like style, for the details of the tokens not specified above check directly the source code. Arguments: backend_keys (list): list of the GRAMMAR_PREFIX for each registered backend. Returns: pyparsing.ParserElement: the grammar parser. """ # Boolean operators boolean = (pp.CaselessKeyword('and not').leaveWhitespace() | pp.CaselessKeyword('and') | pp.CaselessKeyword('xor') | pp.CaselessKeyword('or'))('bool') # Parentheses lpar = pp.Literal('(')('open_subgroup') rpar = pp.Literal(')')('close_subgroup') # Backend query: P{PuppetDB specific query} query_start = pp.Combine(pp.oneOf(backend_keys, caseless=True)('backend') + pp.Literal('{')) query_end = pp.Literal('}') # Allow the backend specific query to use the end_query token as well, as long as it's in a quoted string # and fail if there is a query_start token before the first query_end is reached query = pp.SkipTo(query_end, ignore=pp.quotedString, failOn=query_start)('query') backend_query = pp.Combine(query_start + query + query_end) # Alias alias = pp.Combine(pp.CaselessKeyword('A') + ':' + pp.Word(pp.alphanums + '-_.+')('alias')) # Final grammar, see the docstring for its BNF based on the tokens defined above # Group are used to have an easy dictionary access to the parsed results full_grammar = pp.Forward() item = backend_query | alias | lpar + full_grammar + rpar full_grammar << pp.Group(item) + pp.ZeroOrMore(pp.Group(boolean + item)) # pylint: disable=expression-not-assigned return full_grammar
def __init__(self, comm_file_path): expression_spaced = Forward() expression = Forward() args_spaced = Forward() cb = Optional(',') + ')' # closing_brackets might include a ',' ob = Optional(' ') + '(' + Optional(' ') # closing_brackets might include a ' ' value = (Or([pyparsing_common.identifier.copy().setResultsName('id'), pyparsing_common.number.copy().setResultsName('number'), QuotedString("'").setResultsName('string')])).setParseAction(Value).setResultsName('value') values = (ZeroOrMore(value.setResultsName('valueList', listAllMatches=True) + Optional(','))).setParseAction( Values) keyword = pyparsing_common.identifier.copy() keyword_argument = ( keyword.setResultsName('keyword') + '=' + expression_spaced.setResultsName('expression') ).setParseAction(Keyword_argument) keyword_arguments = ( keyword_argument.setResultsName('keyword_argument', listAllMatches=True) + ZeroOrMore(',' + keyword_argument.setResultsName('keyword_argument', listAllMatches=True)) ).setParseAction(Keyword_arguments) expression << (Or([ value, (ob + values.setResultsName('values') + cb), '_F' + ob + keyword_arguments.setResultsName('keyword_arguments') + cb, ob + expression.setResultsName('expression') + cb ])).setParseAction(Expression) expression_spaced << (Or([expression, ob + expression_spaced + cb])) left_side = pyparsing_common.identifier.setResultsName('left_side') operator_name = pyparsing_common.identifier.setResultsName('operator_name') paragraph = (Optional(left_side + "=") + operator_name + ob + Optional(keyword_arguments .setResultsName( 'keyword_arguments')) + cb + Optional(';')).setParseAction(Paragraph) file = OneOrMore(paragraph).setResultsName('paragraphs').setParseAction(File) self.beam_data_model = file.parseFile(comm_file_path)
